From 2045451dad80c04f4c73f3a71a762cbfad968bc0 Mon Sep 17 00:00:00 2001 From: Matt Prilliman Date: Thu, 8 Feb 2024 10:03:51 -0600 Subject: [PATCH 1/5] Updated standalone battery metrics to include percentage of battery charge from grid rather than system --- deploy/runtime/metrics.lk | 2 +- 1 file changed, 1 insertion(+), 1 deletion(-) diff --git a/deploy/runtime/metrics.lk b/deploy/runtime/metrics.lk index a376e9b54e..7153bbeed0 100644 --- a/deploy/runtime/metrics.lk +++ b/deploy/runtime/metrics.lk @@ -399,7 +399,7 @@ function standalone_battery_metrics() { metric( 'average_battery_roundtrip_efficiency', {'label'='Battery roundtrip efficiency', 'mode'='f', 'deci'='2', 'post'='%' } ); //metric( 'kwh_per_kw', {'label'='First year kWhAC/kWDC', 'mode'='f', 'deci'='0', 'thousep'='true' } ); - metric( 'batt_system_charge_percent', {'label'='Battery charge energy from system', 'mode'='f', 'deci'='1', 'thousep'='false', 'post'='%' } ); + metric( 'batt_grid_charge_percent', {'label'='Battery charge energy from grid', 'mode'='f', 'deci'='1', 'thousep'='false', 'post'='%' } ); } function generic_csp_metrics() From e4b3e589f20809b15798bac92a309fb6886021cd Mon Sep 17 00:00:00 2001 From: Matt Prilliman <54449384+mjprilliman@users.noreply.github.com> Date: Fri, 4 Oct 2024 15:17:16 -0500 Subject: [PATCH 2/5] Add year one energy charged from grid metric to standalone metric table --- deploy/runtime/metrics.lk | 4 +++- 1 file changed, 3 insertions(+), 1 deletion(-) diff --git a/deploy/runtime/metrics.lk b/deploy/runtime/metrics.lk index be61a138df..031120b547 100644 --- a/deploy/runtime/metrics.lk +++ b/deploy/runtime/metrics.lk @@ -406,7 +406,9 @@ function standalone_battery_metrics() { metric( 'average_battery_roundtrip_efficiency', {'label'='Battery roundtrip efficiency', 'mode'='f', 'deci'='2', 'post'='%' } ); //metric( 'kwh_per_kw', {'label'='First year kWhAC/kWDC', 'mode'='f', 'deci'='0', 'thousep'='true' } ); - metric( 'batt_system_charge_percent', {'label'='Battery charge energy from system', 'mode'='f', 'deci'='1', 'thousep'='false', 'post'='%' } ); + //metric( 'batt_system_charge_percent', {'label'='Battery charge energy from system', 'mode'='f', 'deci'='1', 'thousep'='false', 'post'='%' } ); + metric( 'batt_year1_charge_from_grid', {'label'='Battery energy charged from grid (Year 1)', 'mode'='f', 'deci'='0', 'thousep'='true', 'post'=' kWh' } ); + } function generic_csp_metrics() From 52e36ad8cfae1d87197fb62901fa3f9a1d2a0ef2 Mon Sep 17 00:00:00 2001 From: Steven Janzou Date: Thu, 10 Oct 2024 03:26:47 -0600 Subject: [PATCH 3/5] Update long name and api files for develop and test #1569 --- ...thermal_GeothermalPowerLCOECalculator.json | 4 +++ ...1_FlatPlatePVAllEquityPartnershipFlip.json | 3 ++- .../Pvsamv1_FlatPlatePVCommercial.json | 3 ++- .../Pvsamv1_FlatPlatePVHostDeveloper.json | 3 ++- .../Pvsamv1_FlatPlatePVLCOECalculator.json | 3 ++- ...1_FlatPlatePVLeveragedPartnershipFlip.json | 3 ++- .../Pvsamv1_FlatPlatePVMerchantPlant.json | 3 ++- .../defaults/Pvsamv1_FlatPlatePVNone.json | 3 ++- .../Pvsamv1_FlatPlatePVResidential.json | 3 ++- .../Pvsamv1_FlatPlatePVSaleLeaseback.json | 3 ++- .../Pvsamv1_FlatPlatePVSingleOwner.json | 3 ++- .../Pvsamv1_FlatPlatePVThirdParty.json | 3 ++- ...mv1_PVBatteryAllEquityPartnershipFlip.json | 3 ++- .../defaults/Pvsamv1_PVBatteryCommercial.json | 3 ++- .../Pvsamv1_PVBatteryHostDeveloper.json | 3 ++- ...mv1_PVBatteryLeveragedPartnershipFlip.json | 3 ++- .../Pvsamv1_PVBatteryMerchantPlant.json | 3 ++- .../Pvsamv1_PVBatteryResidential.json | 3 ++- .../Pvsamv1_PVBatterySaleLeaseback.json | 3 ++- .../Pvsamv1_PVBatterySingleOwner.json | 3 ++- .../defaults/Pvsamv1_PVBatteryThirdParty.json | 3 ++- ...voltaicWindBatteryHybridHostDeveloper.json | 3 ++- ...tovoltaicWindBatteryHybridSingleOwner.json | 3 ++- api/include/SAM_Battery.h | 6 +++++ api/include/SAM_Battwatts.h | 6 +++++ api/include/SAM_Pvsamv1.h | 6 +++++ api/include/SAM_Pvwattsv7.h | 2 ++ api/include/SAM_Pvwattsv8.h | 2 ++ api/modules/SAM_Battery.cpp | 27 +++++++++++++++++++ api/modules/SAM_Battwatts.cpp | 27 +++++++++++++++++++ api/modules/SAM_Pvsamv1.cpp | 27 +++++++++++++++++++ api/modules/SAM_Pvwattsv7.cpp | 10 +++++++ api/modules/SAM_Pvwattsv8.cpp | 10 +++++++ deploy/runtime/startup.lk | 2 +- 34 files changed, 172 insertions(+), 23 deletions(-) diff --git a/api/api_autogen/library/defaults/Geothermal_GeothermalPowerLCOECalculator.json b/api/api_autogen/library/defaults/Geothermal_GeothermalPowerLCOECalculator.json index ced2772bbb..c17de1ada6 100644 --- a/api/api_autogen/library/defaults/Geothermal_GeothermalPowerLCOECalculator.json +++ b/api/api_autogen/library/defaults/Geothermal_GeothermalPowerLCOECalculator.json @@ -19,10 +19,12 @@ "decline_type": 0, "delta_pressure_equip": 40, "design_temp": 200, + "drilling_success_rate": 76, "dt_prod_well": 0, "eta_ref": 0.17, "excess_pressure_pump": 50, "exploration_wells_production": 0, + "failed_prod_flow_ratio": 0.3, "fracture_angle": 15, "fracture_aperature": 0.0004, "fracture_length": 1000, @@ -30,6 +32,7 @@ "fracture_width": 175, "geotherm_cost_inj_cost_curve_welldiam": 0, "geotherm_cost_inj_cost_curve_welltype": 0, + "geotherm_cost_inj_prod_well_ratio": 0.5, "geotherm_cost_prod_cost_curve_welldiam": 0, "geotherm_cost_prod_cost_curve_welltype": 0, "geothermal_analysis_period": 30, @@ -168,6 +171,7 @@ "specify_pump_work": 0, "startup_frac": 0.2, "startup_time": 1, + "stim_success_rate": 0, "subsurface_water_loss": 2, "system_use_lifetime_output": 0, "temp_decline_max": 30, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVAllEquityPartnershipFlip.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVAllEquityPartnershipFlip.json index 2df5e56585..a3be4bec89 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVAllEquityPartnershipFlip.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVAllEquityPartnershipFlip.json @@ -458,7 +458,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVCommercial.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVCommercial.json index 74e2266c5f..fb7d3f9d2d 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVCommercial.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVCommercial.json @@ -460,7 +460,8 @@ "load_escalation": [0.000000] }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVHostDeveloper.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVHostDeveloper.json index b1f4e0271f..bd0646c95e 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVHostDeveloper.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVHostDeveloper.json @@ -460,7 +460,8 @@ "load_escalation": [0.000000] }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVLCOECalculator.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVLCOECalculator.json index 7d05757be1..ae1d04666a 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVLCOECalculator.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVLCOECalculator.json @@ -449,7 +449,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVLeveragedPartnershipFlip.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVLeveragedPartnershipFlip.json index 2df5e56585..a3be4bec89 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVLeveragedPartnershipFlip.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVLeveragedPartnershipFlip.json @@ -458,7 +458,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVMerchantPlant.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVMerchantPlant.json index 9dcf1042b0..8646f1874e 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVMerchantPlant.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVMerchantPlant.json @@ -458,7 +458,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVNone.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVNone.json index ff10ca99d2..4e462c1b46 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVNone.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVNone.json @@ -449,7 +449,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVResidential.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVResidential.json index 86d02d825f..4705b95a65 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVResidential.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVResidential.json @@ -460,7 +460,8 @@ "load_escalation": [0.000000] }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVSaleLeaseback.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVSaleLeaseback.json index 2df5e56585..a3be4bec89 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVSaleLeaseback.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVSaleLeaseback.json @@ -458,7 +458,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVSingleOwner.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVSingleOwner.json index 2df5e56585..a3be4bec89 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVSingleOwner.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVSingleOwner.json @@ -458,7 +458,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVThirdParty.json b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVThirdParty.json index d1ffa50664..9e9359f345 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVThirdParty.json +++ b/api/api_autogen/library/defaults/Pvsamv1_FlatPlatePVThirdParty.json @@ -460,7 +460,8 @@ "load_escalation": [0.000000] }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryAllEquityPartnershipFlip.json b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryAllEquityPartnershipFlip.json index 0c0fd06548..677d5bd108 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryAllEquityPartnershipFlip.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryAllEquityPartnershipFlip.json @@ -485,7 +485,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryCommercial.json b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryCommercial.json index dd4eaba579..821b1e22e9 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryCommercial.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryCommercial.json @@ -491,7 +491,8 @@ "run_resiliency_calcs": 0 }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryHostDeveloper.json b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryHostDeveloper.json index bd90ab787a..71ae5a0773 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryHostDeveloper.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryHostDeveloper.json @@ -491,7 +491,8 @@ "run_resiliency_calcs": 0 }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryLeveragedPartnershipFlip.json b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryLeveragedPartnershipFlip.json index 0c0fd06548..677d5bd108 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryLeveragedPartnershipFlip.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryLeveragedPartnershipFlip.json @@ -485,7 +485,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryMerchantPlant.json b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryMerchantPlant.json index 6f40a6e826..14ff29b368 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryMerchantPlant.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryMerchantPlant.json @@ -485,7 +485,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryResidential.json b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryResidential.json index 32835f7e7c..dcaa2fea11 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryResidential.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryResidential.json @@ -491,7 +491,8 @@ "run_resiliency_calcs": 0 }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PVBatterySaleLeaseback.json b/api/api_autogen/library/defaults/Pvsamv1_PVBatterySaleLeaseback.json index 0c0fd06548..677d5bd108 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PVBatterySaleLeaseback.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PVBatterySaleLeaseback.json @@ -485,7 +485,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PVBatterySingleOwner.json b/api/api_autogen/library/defaults/Pvsamv1_PVBatterySingleOwner.json index 9324495398..de555abafb 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PVBatterySingleOwner.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PVBatterySingleOwner.json @@ -485,7 +485,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryThirdParty.json b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryThirdParty.json index 3bf7fc6222..6358489430 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PVBatteryThirdParty.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PVBatteryThirdParty.json @@ -491,7 +491,8 @@ "run_resiliency_calcs": 0 }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { "constant": 0, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PhotovoltaicWindBatteryHybridHostDeveloper.json b/api/api_autogen/library/defaults/Pvsamv1_PhotovoltaicWindBatteryHybridHostDeveloper.json index 3bb2482ebe..adac76ae40 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PhotovoltaicWindBatteryHybridHostDeveloper.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PhotovoltaicWindBatteryHybridHostDeveloper.json @@ -458,7 +458,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { }, diff --git a/api/api_autogen/library/defaults/Pvsamv1_PhotovoltaicWindBatteryHybridSingleOwner.json b/api/api_autogen/library/defaults/Pvsamv1_PhotovoltaicWindBatteryHybridSingleOwner.json index 1f11777f35..c182c463bb 100644 --- a/api/api_autogen/library/defaults/Pvsamv1_PhotovoltaicWindBatteryHybridSingleOwner.json +++ b/api/api_autogen/library/defaults/Pvsamv1_PhotovoltaicWindBatteryHybridSingleOwner.json @@ -458,7 +458,8 @@ "Load": { }, "PVLosses": { - "enable_subhourly_clipping": 0 + "enable_subhourly_clipping": 0, + "enable_subinterval_distribution": 0 }, "AdjustmentFactors": { }, diff --git a/api/include/SAM_Battery.h b/api/include/SAM_Battery.h index 172b0e7b9e..f3f8210656 100644 --- a/api/include/SAM_Battery.h +++ b/api/include/SAM_Battery.h @@ -2399,6 +2399,8 @@ extern "C" SAM_EXPORT double* SAM_Battery_Outputs_batt_dispatch_sched_mget(SAM_table ptr, int* nrows, int* ncols, SAM_error *err); + SAM_EXPORT double SAM_Battery_Outputs_batt_grid_charge_percent_nget(SAM_table ptr, SAM_error *err); + SAM_EXPORT double* SAM_Battery_Outputs_batt_power_aget(SAM_table ptr, int* length, SAM_error *err); SAM_EXPORT double* SAM_Battery_Outputs_batt_power_dc_aget(SAM_table ptr, int* length, SAM_error *err); @@ -2467,6 +2469,10 @@ extern "C" SAM_EXPORT double* SAM_Battery_Outputs_batt_voltage_cell_aget(SAM_table ptr, int* length, SAM_error *err); + SAM_EXPORT double SAM_Battery_Outputs_batt_year1_charge_from_grid_nget(SAM_table ptr, SAM_error *err); + + SAM_EXPORT double SAM_Battery_Outputs_batt_year1_charge_from_system_nget(SAM_table ptr, SAM_error *err); + SAM_EXPORT double SAM_Battery_Outputs_capacity_factor_sales_nget(SAM_table ptr, SAM_error *err); SAM_EXPORT double* SAM_Battery_Outputs_cdf_of_surviving_aget(SAM_table ptr, int* length, SAM_error *err); diff --git a/api/include/SAM_Battwatts.h b/api/include/SAM_Battwatts.h index 03ae947466..12ae4dabc0 100644 --- a/api/include/SAM_Battwatts.h +++ b/api/include/SAM_Battwatts.h @@ -331,6 +331,8 @@ extern "C" SAM_EXPORT double* SAM_Battwatts_Outputs_batt_dispatch_sched_mget(SAM_table ptr, int* nrows, int* ncols, SAM_error *err); + SAM_EXPORT double SAM_Battwatts_Outputs_batt_grid_charge_percent_nget(SAM_table ptr, SAM_error *err); + SAM_EXPORT double* SAM_Battwatts_Outputs_batt_power_aget(SAM_table ptr, int* length, SAM_error *err); SAM_EXPORT double* SAM_Battwatts_Outputs_batt_power_dc_aget(SAM_table ptr, int* length, SAM_error *err); @@ -399,6 +401,10 @@ extern "C" SAM_EXPORT double* SAM_Battwatts_Outputs_batt_voltage_cell_aget(SAM_table ptr, int* length, SAM_error *err); + SAM_EXPORT double SAM_Battwatts_Outputs_batt_year1_charge_from_grid_nget(SAM_table ptr, SAM_error *err); + + SAM_EXPORT double SAM_Battwatts_Outputs_batt_year1_charge_from_system_nget(SAM_table ptr, SAM_error *err); + SAM_EXPORT double* SAM_Battwatts_Outputs_cdf_of_surviving_aget(SAM_table ptr, int* length, SAM_error *err); SAM_EXPORT double* SAM_Battwatts_Outputs_crit_load_aget(SAM_table ptr, int* length, SAM_error *err); diff --git a/api/include/SAM_Pvsamv1.h b/api/include/SAM_Pvsamv1.h index a6231b623a..449e56430d 100644 --- a/api/include/SAM_Pvsamv1.h +++ b/api/include/SAM_Pvsamv1.h @@ -7515,6 +7515,8 @@ extern "C" SAM_EXPORT double* SAM_Pvsamv1_Outputs_batt_dispatch_sched_mget(SAM_table ptr, int* nrows, int* ncols, SAM_error *err); + SAM_EXPORT double SAM_Pvsamv1_Outputs_batt_grid_charge_percent_nget(SAM_table ptr, SAM_error *err); + SAM_EXPORT double* SAM_Pvsamv1_Outputs_batt_power_aget(SAM_table ptr, int* length, SAM_error *err); SAM_EXPORT double* SAM_Pvsamv1_Outputs_batt_power_dc_aget(SAM_table ptr, int* length, SAM_error *err); @@ -7583,6 +7585,10 @@ extern "C" SAM_EXPORT double* SAM_Pvsamv1_Outputs_batt_voltage_cell_aget(SAM_table ptr, int* length, SAM_error *err); + SAM_EXPORT double SAM_Pvsamv1_Outputs_batt_year1_charge_from_grid_nget(SAM_table ptr, SAM_error *err); + + SAM_EXPORT double SAM_Pvsamv1_Outputs_batt_year1_charge_from_system_nget(SAM_table ptr, SAM_error *err); + SAM_EXPORT double* SAM_Pvsamv1_Outputs_bifacial_electrical_mismatch_aget(SAM_table ptr, int* length, SAM_error *err); SAM_EXPORT double SAM_Pvsamv1_Outputs_capacity_factor_nget(SAM_table ptr, SAM_error *err); diff --git a/api/include/SAM_Pvwattsv7.h b/api/include/SAM_Pvwattsv7.h index 3de5f9886b..9f655a611b 100644 --- a/api/include/SAM_Pvwattsv7.h +++ b/api/include/SAM_Pvwattsv7.h @@ -555,6 +555,8 @@ extern "C" SAM_EXPORT double* SAM_Pvwattsv7_Outputs_snow_aget(SAM_table ptr, int* length, SAM_error *err); + SAM_EXPORT double* SAM_Pvwattsv7_Outputs_snow_cover_aget(SAM_table ptr, int* length, SAM_error *err); + SAM_EXPORT double SAM_Pvwattsv7_Outputs_solrad_annual_nget(SAM_table ptr, SAM_error *err); SAM_EXPORT double* SAM_Pvwattsv7_Outputs_solrad_monthly_aget(SAM_table ptr, int* length, SAM_error *err); diff --git a/api/include/SAM_Pvwattsv8.h b/api/include/SAM_Pvwattsv8.h index 2715c1f64f..4aa2f1f72e 100644 --- a/api/include/SAM_Pvwattsv8.h +++ b/api/include/SAM_Pvwattsv8.h @@ -723,6 +723,8 @@ extern "C" SAM_EXPORT double* SAM_Pvwattsv8_Outputs_snow_aget(SAM_table ptr, int* length, SAM_error *err); + SAM_EXPORT double* SAM_Pvwattsv8_Outputs_snow_cover_aget(SAM_table ptr, int* length, SAM_error *err); + SAM_EXPORT double* SAM_Pvwattsv8_Outputs_soiling_f_aget(SAM_table ptr, int* length, SAM_error *err); SAM_EXPORT double SAM_Pvwattsv8_Outputs_solrad_annual_nget(SAM_table ptr, SAM_error *err); diff --git a/api/modules/SAM_Battery.cpp b/api/modules/SAM_Battery.cpp index 83417b3aed..7feb0854ad 100644 --- a/api/modules/SAM_Battery.cpp +++ b/api/modules/SAM_Battery.cpp @@ -3593,6 +3593,15 @@ SAM_EXPORT double* SAM_Battery_Outputs_batt_dispatch_sched_mget(SAM_table ptr, i return result; } +SAM_EXPORT double SAM_Battery_Outputs_batt_grid_charge_percent_nget(SAM_table ptr, SAM_error *err){ + double result; + translateExceptions(err, [&]{ + if (!ssc_data_get_number(ptr, "batt_grid_charge_percent", &result)) + make_access_error("SAM_Battery", "batt_grid_charge_percent"); + }); + return result; +} + SAM_EXPORT double* SAM_Battery_Outputs_batt_power_aget(SAM_table ptr, int* length, SAM_error *err){ double* result = nullptr; translateExceptions(err, [&]{ @@ -3928,6 +3937,24 @@ SAM_EXPORT double* SAM_Battery_Outputs_batt_voltage_cell_aget(SAM_table ptr, int return result; } +SAM_EXPORT double SAM_Battery_Outputs_batt_year1_charge_from_grid_nget(SAM_table ptr, SAM_error *err){ + double result; + translateExceptions(err, [&]{ + if (!ssc_data_get_number(ptr, "batt_year1_charge_from_grid", &result)) + make_access_error("SAM_Battery", "batt_year1_charge_from_grid"); + }); + return result; +} + +SAM_EXPORT double SAM_Battery_Outputs_batt_year1_charge_from_system_nget(SAM_table ptr, SAM_error *err){ + double result; + translateExceptions(err, [&]{ + if (!ssc_data_get_number(ptr, "batt_year1_charge_from_system", &result)) + make_access_error("SAM_Battery", "batt_year1_charge_from_system"); + }); + return result; +} + SAM_EXPORT double SAM_Battery_Outputs_capacity_factor_sales_nget(SAM_table ptr, SAM_error *err){ double result; translateExceptions(err, [&]{ diff --git a/api/modules/SAM_Battwatts.cpp b/api/modules/SAM_Battwatts.cpp index f7665a86ce..e1bdc87e45 100644 --- a/api/modules/SAM_Battwatts.cpp +++ b/api/modules/SAM_Battwatts.cpp @@ -614,6 +614,15 @@ SAM_EXPORT double* SAM_Battwatts_Outputs_batt_dispatch_sched_mget(SAM_table ptr, return result; } +SAM_EXPORT double SAM_Battwatts_Outputs_batt_grid_charge_percent_nget(SAM_table ptr, SAM_error *err){ + double result; + translateExceptions(err, [&]{ + if (!ssc_data_get_number(ptr, "batt_grid_charge_percent", &result)) + make_access_error("SAM_Battwatts", "batt_grid_charge_percent"); + }); + return result; +} + SAM_EXPORT double* SAM_Battwatts_Outputs_batt_power_aget(SAM_table ptr, int* length, SAM_error *err){ double* result = nullptr; translateExceptions(err, [&]{ @@ -949,6 +958,24 @@ SAM_EXPORT double* SAM_Battwatts_Outputs_batt_voltage_cell_aget(SAM_table ptr, i return result; } +SAM_EXPORT double SAM_Battwatts_Outputs_batt_year1_charge_from_grid_nget(SAM_table ptr, SAM_error *err){ + double result; + translateExceptions(err, [&]{ + if (!ssc_data_get_number(ptr, "batt_year1_charge_from_grid", &result)) + make_access_error("SAM_Battwatts", "batt_year1_charge_from_grid"); + }); + return result; +} + +SAM_EXPORT double SAM_Battwatts_Outputs_batt_year1_charge_from_system_nget(SAM_table ptr, SAM_error *err){ + double result; + translateExceptions(err, [&]{ + if (!ssc_data_get_number(ptr, "batt_year1_charge_from_system", &result)) + make_access_error("SAM_Battwatts", "batt_year1_charge_from_system"); + }); + return result; +} + SAM_EXPORT double* SAM_Battwatts_Outputs_cdf_of_surviving_aget(SAM_table ptr, int* length, SAM_error *err){ double* result = nullptr; translateExceptions(err, [&]{ diff --git a/api/modules/SAM_Pvsamv1.cpp b/api/modules/SAM_Pvsamv1.cpp index b350b8950d..4c8f449e80 100644 --- a/api/modules/SAM_Pvsamv1.cpp +++ b/api/modules/SAM_Pvsamv1.cpp @@ -11768,6 +11768,15 @@ SAM_EXPORT double* SAM_Pvsamv1_Outputs_batt_dispatch_sched_mget(SAM_table ptr, i return result; } +SAM_EXPORT double SAM_Pvsamv1_Outputs_batt_grid_charge_percent_nget(SAM_table ptr, SAM_error *err){ + double result; + translateExceptions(err, [&]{ + if (!ssc_data_get_number(ptr, "batt_grid_charge_percent", &result)) + make_access_error("SAM_Pvsamv1", "batt_grid_charge_percent"); + }); + return result; +} + SAM_EXPORT double* SAM_Pvsamv1_Outputs_batt_power_aget(SAM_table ptr, int* length, SAM_error *err){ double* result = nullptr; translateExceptions(err, [&]{ @@ -12103,6 +12112,24 @@ SAM_EXPORT double* SAM_Pvsamv1_Outputs_batt_voltage_cell_aget(SAM_table ptr, int return result; } +SAM_EXPORT double SAM_Pvsamv1_Outputs_batt_year1_charge_from_grid_nget(SAM_table ptr, SAM_error *err){ + double result; + translateExceptions(err, [&]{ + if (!ssc_data_get_number(ptr, "batt_year1_charge_from_grid", &result)) + make_access_error("SAM_Pvsamv1", "batt_year1_charge_from_grid"); + }); + return result; +} + +SAM_EXPORT double SAM_Pvsamv1_Outputs_batt_year1_charge_from_system_nget(SAM_table ptr, SAM_error *err){ + double result; + translateExceptions(err, [&]{ + if (!ssc_data_get_number(ptr, "batt_year1_charge_from_system", &result)) + make_access_error("SAM_Pvsamv1", "batt_year1_charge_from_system"); + }); + return result; +} + SAM_EXPORT double* SAM_Pvsamv1_Outputs_bifacial_electrical_mismatch_aget(SAM_table ptr, int* length, SAM_error *err){ double* result = nullptr; translateExceptions(err, [&]{ diff --git a/api/modules/SAM_Pvwattsv7.cpp b/api/modules/SAM_Pvwattsv7.cpp index 1d781c191f..73876397a2 100644 --- a/api/modules/SAM_Pvwattsv7.cpp +++ b/api/modules/SAM_Pvwattsv7.cpp @@ -915,6 +915,16 @@ SAM_EXPORT double* SAM_Pvwattsv7_Outputs_snow_aget(SAM_table ptr, int* length, S return result; } +SAM_EXPORT double* SAM_Pvwattsv7_Outputs_snow_cover_aget(SAM_table ptr, int* length, SAM_error *err){ + double* result = nullptr; + translateExceptions(err, [&]{ + result = ssc_data_get_array(ptr, "snow_cover", length); + if (!result) + make_access_error("SAM_Pvwattsv7", "snow_cover"); + }); + return result; +} + SAM_EXPORT double SAM_Pvwattsv7_Outputs_solrad_annual_nget(SAM_table ptr, SAM_error *err){ double result; translateExceptions(err, [&]{ diff --git a/api/modules/SAM_Pvwattsv8.cpp b/api/modules/SAM_Pvwattsv8.cpp index cb8008842a..dee26c160f 100644 --- a/api/modules/SAM_Pvwattsv8.cpp +++ b/api/modules/SAM_Pvwattsv8.cpp @@ -1253,6 +1253,16 @@ SAM_EXPORT double* SAM_Pvwattsv8_Outputs_snow_aget(SAM_table ptr, int* length, S return result; } +SAM_EXPORT double* SAM_Pvwattsv8_Outputs_snow_cover_aget(SAM_table ptr, int* length, SAM_error *err){ + double* result = nullptr; + translateExceptions(err, [&]{ + result = ssc_data_get_array(ptr, "snow_cover", length); + if (!result) + make_access_error("SAM_Pvwattsv8", "snow_cover"); + }); + return result; +} + SAM_EXPORT double* SAM_Pvwattsv8_Outputs_soiling_f_aget(SAM_table ptr, int* length, SAM_error *err){ double* result = nullptr; translateExceptions(err, [&]{ diff --git a/deploy/runtime/startup.lk b/deploy/runtime/startup.lk index 8fba79d899..cfa285ec1e 100644 --- a/deploy/runtime/startup.lk +++ b/deploy/runtime/startup.lk @@ -80,7 +80,7 @@ configopt( 'Generic System', { 'long_name'='Generic System', 'short_name'='Gener configopt( 'MEwave', { 'tree_parent'='Marine Energy', 'long_name'='Wave', 'short_name'='Marine Wave', 'description'='Marine energy wave system' }); configopt( 'MEwave Battery', { 'tree_parent'='Marine Energy', 'long_name'='Wave Battery', 'short_name'='Wave-Battery', 'description'='Marine energy wave system with battery' }); configopt( 'MEtidal', { 'tree_parent'='Marine Energy', 'long_name'='Tidal', 'short_name'='Marine Tidal', 'description'='Marine energy tidal system' }); -configopt( 'PVWatts Wind Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='PVWatts Wind Battery Hybrid', 'short_name' = 'PVWatts-Wind-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation and battery storage)'}); +configopt( 'PVWatts Wind Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='PVWatts Wind Battery', 'short_name' = 'PVWatts-Wind-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation and battery storage)'}); configopt( 'PVWatts Wind FuelCell Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='PVWatts Wind Fuel Cell Battery Hybrid', 'short_name' = 'PVWatts-Wind-FuelCell-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation, fuel cell, and battery storage)'}); configopt( 'Photovoltaic Wind Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='Photovoltaic Wind Battery Hybrid', 'short_name' = 'PV-Wind-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation and battery storage)'}); configopt( 'Generic PVWatts Wind FuelCell Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='Generic PVWatts Wind FuelCell Battery Hybrid', 'short_name' = 'Generic-PVWatts-Wind-FuelCell-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation and battery storage)'}); From 944dd470c73797bc3f06c92d240f247da6b1519c Mon Sep 17 00:00:00 2001 From: Matt Prilliman <54449384+mjprilliman@users.noreply.github.com> Date: Thu, 10 Oct 2024 09:09:23 -0500 Subject: [PATCH 4/5] Update README.md --- README.md | 1 - 1 file changed, 1 deletion(-) diff --git a/README.md b/README.md index 8a48f0ae9b..8635579253 100644 --- a/README.md +++ b/README.md @@ -1,6 +1,5 @@ # System Advisor Model (SAM) ![Build](https://github.com/NREL/SAM/actions/workflows/ci.yml/badge.svg) -[![FOSSA Status](https://app.fossa.io/api/projects/git%2Bgithub.com%2FNREL%2FSAM.svg?type=shield)](https://app.fossa.io/projects/git%2Bgithub.com%2FNREL%2FSAM?ref=badge_shield) The SAM Open Source Project repository contains the source code, tools, and instructions to build a desktop version of the National Renewable Energy Laboratory's System Advisor Model™ (SAM™). SAM is a simulation program for electricity generation projects. It has models for different kinds of renewable energy systems and financial models for residential, commercial, and utility-scale projects. For more details about SAM's capabilities, see the SAM website at [https://sam.nrel.gov/](https://sam.nrel.gov/). From c88716b41c6d8e62d59639616d02072ea37bf11c Mon Sep 17 00:00:00 2001 From: Steven Janzou Date: Fri, 11 Oct 2024 03:13:57 -0600 Subject: [PATCH 5/5] Update Hybrids names and default configurations #1569 --- deploy/runtime/startup.lk | 6 +- test_results_win64.csv | 170 +++++++++++++++++++------------------- 2 files changed, 88 insertions(+), 88 deletions(-) diff --git a/deploy/runtime/startup.lk b/deploy/runtime/startup.lk index cfa285ec1e..dd38ed119d 100644 --- a/deploy/runtime/startup.lk +++ b/deploy/runtime/startup.lk @@ -81,9 +81,9 @@ configopt( 'MEwave', { 'tree_parent'='Marine Energy', 'long_name'='Wave', 'short configopt( 'MEwave Battery', { 'tree_parent'='Marine Energy', 'long_name'='Wave Battery', 'short_name'='Wave-Battery', 'description'='Marine energy wave system with battery' }); configopt( 'MEtidal', { 'tree_parent'='Marine Energy', 'long_name'='Tidal', 'short_name'='Marine Tidal', 'description'='Marine energy tidal system' }); configopt( 'PVWatts Wind Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='PVWatts Wind Battery', 'short_name' = 'PVWatts-Wind-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation and battery storage)'}); -configopt( 'PVWatts Wind FuelCell Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='PVWatts Wind Fuel Cell Battery Hybrid', 'short_name' = 'PVWatts-Wind-FuelCell-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation, fuel cell, and battery storage)'}); -configopt( 'Photovoltaic Wind Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='Photovoltaic Wind Battery Hybrid', 'short_name' = 'PV-Wind-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation and battery storage)'}); -configopt( 'Generic PVWatts Wind FuelCell Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='Generic PVWatts Wind FuelCell Battery Hybrid', 'short_name' = 'Generic-PVWatts-Wind-FuelCell-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation and battery storage)'}); +configopt( 'PVWatts Wind FuelCell Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='PVWatts Wind Fuel Cell Battery', 'short_name' = 'PVWatts-Wind-FuelCell-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation, fuel cell, and battery storage)'}); +configopt( 'Photovoltaic Wind Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='Photovoltaic Wind Battery', 'short_name' = 'PV-Wind-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation and battery storage)'}); +configopt( 'Generic PVWatts Wind FuelCell Battery Hybrid', { 'tree_parent'='Hybrid', 'long_name'='Generic PVWatts Wind Fuel Cell Battery', 'short_name' = 'Generic-PVWatts-Wind-FuelCell-Battery', 'description' ='Hybrid power system with PVWatts and wind power generation and battery storage)'}); configopt( 'MSPT', { 'tree_parent'='Concentrating Solar Power', 'long_name'='Power Tower Molten Salt', 'short_name'='CSP Tower Molten Salt', 'description'='CSP molten salt power tower system using heat transfer and thermodynamic component models' } ); configopt( 'Physical Trough', { 'tree_parent'='Concentrating Solar Power', 'long_name'='Parabolic Trough Physical Model', 'short_name'='CSP Trough (Physical Model)', 'description'='CSP parabolic trough system using heat transfer and thermodynamic component models' } ); configopt( 'Empirical Trough', { 'tree_parent'='Concentrating Solar Power', 'long_name'='Parabolic Trough Empirical Model', 'short_name'='CSP Trough (Empirical Model)', 'description'='CSP parabolic trough system using model with empirically-derived coefficients and equations' } ); diff --git a/test_results_win64.csv b/test_results_win64.csv index 500afa45cb..159c8f055b 100644 --- a/test_results_win64.csv +++ b/test_results_win64.csv @@ -2,105 +2,105 @@ TECHNOLOGY,FINANCING,ANNUAL_OUTPUT,LCOE_NOM,LPPA_NOM,MESSAGES Flat Plate PV,Residential,13700.6,8.67416,NA,; Flat Plate PV,Commercial,808617,4.08413,NA,; Flat Plate PV,Third Party,13700.6,NA,NA,; -Flat Plate PV,Host Developer,808617,10.0754,11.4551,; -Flat Plate PV,Single Owner,193152944,5.0492,4.64696,; Warning: NPV is $-7.30046e+06. A negative NPV indicates project costs are higher than revenues. -Flat Plate PV,Merchant Plant,193152944,4.81435,NA,; Warning: NPV is $-4.74447e+07. A negative NPV indicates project costs are higher than revenues. -Flat Plate PV,Leveraged Partnership Flip,193152944,5.21679,4.64696,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.01353e+07. A negative NPV indicates project costs are higher than revenues. -Flat Plate PV,All Equity Partnership Flip,193152944,5.75065,4.64696,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.18594e+07. A negative NPV indicates project costs are higher than revenues. +Flat Plate PV,Host Developer,808617,10.3366,11.4551,; +Flat Plate PV,Single Owner,193152944,5.09575,4.64696,; Warning: NPV is $-8.14542e+06. A negative NPV indicates project costs are higher than revenues. +Flat Plate PV,Merchant Plant,193152944,4.83352,NA,; Warning: NPV is $-4.77926e+07. A negative NPV indicates project costs are higher than revenues. +Flat Plate PV,Leveraged Partnership Flip,193152944,5.26334,4.64696,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.09634e+07. A negative NPV indicates project costs are higher than revenues. +Flat Plate PV,All Equity Partnership Flip,193152944,5.75883,4.64696,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.20049e+07. A negative NPV indicates project costs are higher than revenues. Flat Plate PV,Sale Leaseback,193152944,6.53523,4.64696,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.44267e+07. A negative NPV indicates project costs are higher than revenues. Flat Plate PV,LCOE Calculator,193152944,NA,NA,; Flat Plate PV,None,155942864,NA,NA,; PVWatts,Residential,13904.6,9.69892,NA,; PVWatts,Commercial,938557,3.76665,NA,; PVWatts,Third Party,11123.6,NA,NA,; -PVWatts,Host Developer,938557,9.26696,9.99762,; -PVWatts,Single Owner,211907456,4.45977,4.64739,; -PVWatts,Community Solar,211907456,4.51172,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-6.07563e+07. A negative NPV indicates project costs are higher than revenues. -PVWatts,Merchant Plant,211907456,4.21848,NA,; Warning: NPV is $-4.14585e+07. A negative NPV indicates project costs are higher than revenues. -PVWatts,Leveraged Partnership Flip,211907456,4.61239,4.64739,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. -PVWatts,All Equity Partnership Flip,211907456,5.16759,4.64739,; Warning: NPV is $-1.25334e+07. A negative NPV indicates project costs are higher than revenues. +PVWatts,Host Developer,938557,9.52331,10.2664,; +PVWatts,Single Owner,211907456,4.50702,4.64739,; +PVWatts,Community Solar,211907456,4.72857,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-6.50779e+07. A negative NPV indicates project costs are higher than revenues. +PVWatts,Merchant Plant,211907456,4.23759,NA,; Warning: NPV is $-4.18393e+07. A negative NPV indicates project costs are higher than revenues. +PVWatts,Leveraged Partnership Flip,211907456,4.65964,4.64739,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-239153. A negative NPV indicates project costs are higher than revenues. +PVWatts,All Equity Partnership Flip,211907456,5.17504,4.64739,; Warning: NPV is $-1.25365e+07. A negative NPV indicates project costs are higher than revenues. PVWatts,Sale Leaseback,211907456,5.8821,4.64739,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.4762e+07. A negative NPV indicates project costs are higher than revenues. PVWatts,LCOE Calculator,211907456,NA,NA,; PVWatts,None,173806896,NA,NA,; -High-X Concentrating PV,Single Owner,2.39082e+06,19.8125,25.9389,; -High-X Concentrating PV,Merchant Plant,2.39082e+06,17.592,NA,; Warning: NPV is $-3.51888e+06. A negative NPV indicates project costs are higher than revenues. -High-X Concentrating PV,Leveraged Partnership Flip,2.39082e+06,21.1573,25.9389,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. -High-X Concentrating PV,All Equity Partnership Flip,2.39082e+06,25.1747,25.9389,; +High-X Concentrating PV,Single Owner,2.39082e+06,20.4395,25.9389,; +High-X Concentrating PV,Merchant Plant,2.39082e+06,17.6309,NA,; Warning: NPV is $-3.52769e+06. A negative NPV indicates project costs are higher than revenues. +High-X Concentrating PV,Leveraged Partnership Flip,2.39082e+06,21.7795,25.9389,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. +High-X Concentrating PV,All Equity Partnership Flip,2.39082e+06,25.1955,25.9389,; High-X Concentrating PV,Sale Leaseback,2.39082e+06,25.5293,25.9389,; High-X Concentrating PV,LCOE Calculator,2.39082e+06,NA,NA,; High-X Concentrating PV,None,2.39082e+06,NA,NA,; PV Battery,Residential,13541.8,16.6191,NA,; PV Battery,Commercial,932779,7.30421,NA,; PV Battery,Third Party,13590.4,NA,NA,; -PV Battery,Host Developer,932779,13.1692,16.2099,; -PV Battery,Single Owner,219654272,9.05687,9.96064,; -PV Battery,Merchant Plant,219654272,8.50432,NA,; Warning: NPV is $-1.07899e+08. A negative NPV indicates project costs are higher than revenues. -PV Battery,Leveraged Partnership Flip,219654272,9.25024,9.96064,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. -PV Battery,All Equity Partnership Flip,219654272,10.6733,9.96064,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.86825e+07. A negative NPV indicates project costs are higher than revenues. +PV Battery,Host Developer,932779,13.5466,16.2099,; +PV Battery,Single Owner,219654272,9.28589,9.96064,; +PV Battery,Merchant Plant,219654272,8.57912,NA,; Warning: NPV is $-1.09451e+08. A negative NPV indicates project costs are higher than revenues. +PV Battery,Leveraged Partnership Flip,219654272,9.47926,9.96064,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. +PV Battery,All Equity Partnership Flip,219654272,10.7012,9.96064,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.92491e+07. A negative NPV indicates project costs are higher than revenues. PV Battery,Sale Leaseback,219654272,11.3474,9.96064,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.90538e+07. A negative NPV indicates project costs are higher than revenues. PVWatts Battery,Residential,13662.6,19.6469,NA,; PVWatts Battery,Commercial,929768,13.1177,NA,; PVWatts Battery,Third Party,10996.8,NA,NA,; -PVWatts Battery,Host Developer,929768,16.8362,16.2118,; Warning: NPV is $-55146.3. A negative NPV indicates project costs are higher than revenues. +PVWatts Battery,Host Developer,929768,17.1749,16.2118,; Warning: NPV is $-85059. A negative NPV indicates project costs are higher than revenues. Generic Battery,Residential,6695.3,71.0582,NA,; Generic Battery,Commercial,359955,46.743,NA,; Generic Battery,Third Party,6692.59,NA,NA,; -Generic Battery,Host Developer,359955,25.4122,16.246,; Warning: NPV is $-322619. A negative NPV indicates project costs are higher than revenues. -Generic Battery,Single Owner,31106894,79.525,14.6208,; Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.96783e+08. A negative NPV indicates project costs are higher than revenues. -Generic Battery,Merchant Plant,31106894,78.4534,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.27208e+08. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -2.91035. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. -Generic Battery,Leveraged Partnership Flip,67947976,43.5201,40.6138,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.88928e+07. A negative NPV indicates project costs are higher than revenues. -Generic Battery,All Equity Partnership Flip,67947976,49.0633,48.7366,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-7.14464e+06. A negative NPV indicates project costs are higher than revenues. +Generic Battery,Host Developer,359955,25.5896,16.246,; Warning: NPV is $-328863. A negative NPV indicates project costs are higher than revenues. +Generic Battery,Single Owner,31106894,79.6767,14.6208,; Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.97243e+08. A negative NPV indicates project costs are higher than revenues. +Generic Battery,Merchant Plant,31106894,78.48,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.27289e+08. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -2.91035. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. +Generic Battery,Leveraged Partnership Flip,67947976,43.7803,40.6138,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.05839e+07. A negative NPV indicates project costs are higher than revenues. +Generic Battery,All Equity Partnership Flip,67947976,49.0897,48.7366,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-7.31643e+06. A negative NPV indicates project costs are higher than revenues. Generic Battery,Sale Leaseback,67947976,49.4555,48.7366,; Warning: NPV is $-4.95165e+06. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-2.20064e+06. A negative NPV indicates project costs are higher than revenues. Standalone Battery,Residential,-367.28,55.2342,NA,; Standalone Battery,Commercial,-11072.6,422.476,NA,; Standalone Battery,Third Party,-174.468,NA,NA,; -Standalone Battery,Host Developer,-11072.6,58.9099,16.2414,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-490862. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -10.2424. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. -Standalone Battery,Single Owner,-7.686e+06,74.5743,72.8025,; -Standalone Battery,Merchant Plant,-7.686e+06,23.9301,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-8.34693e+07. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -6.41244. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. -Standalone Battery,Leveraged Partnership Flip,-7.686e+06,75.4538,72.8025,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.61839e+07. A negative NPV indicates project costs are higher than revenues. -Standalone Battery,All Equity Partnership Flip,-7.686e+06,76.58,72.8025,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.5631e+07. A negative NPV indicates project costs are higher than revenues. +Standalone Battery,Host Developer,-11072.6,59.2859,16.2414,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-495188. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -10.2424. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. +Standalone Battery,Single Owner,-7.686e+06,76.3416,72.8025,; +Standalone Battery,Merchant Plant,-7.686e+06,24.1623,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-8.49157e+07. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -6.41244. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. +Standalone Battery,Leveraged Partnership Flip,-7.686e+06,76.9409,72.8025,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.52615e+07. A negative NPV indicates project costs are higher than revenues. +Standalone Battery,All Equity Partnership Flip,-7.686e+06,77.883,72.8025,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.35851e+07. A negative NPV indicates project costs are higher than revenues. Standalone Battery,Sale Leaseback,-7.686e+06,77.6437,72.8025,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.26156e+07. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-9.68853e+07. A negative NPV indicates project costs are higher than revenues. -ETES,Single Owner,-466572064,14.7945,7.40855,; -PTES,Single Owner,-197595520,18.6636,10.3676,; -Physical Trough,Single Owner,377431488,14.4214,14.5131,; -Physical Trough,Merchant Plant,377431488,13.253,NA,; -Physical Trough,Leveraged Partnership Flip,377431488,14.692,14.5131,; -Physical Trough,All Equity Partnership Flip,377431488,16.4315,14.5131,; +ETES,Single Owner,-466572064,15.0794,7.40855,; +PTES,Single Owner,-197595520,19.0301,10.3676,; +Physical Trough,Single Owner,377431488,14.7263,14.5131,; +Physical Trough,Merchant Plant,377431488,13.3388,NA,; +Physical Trough,Leveraged Partnership Flip,377431488,14.9969,14.5131,; +Physical Trough,All Equity Partnership Flip,377431488,16.4958,14.5131,; Physical Trough,Sale Leaseback,377431488,17.1968,16.0294,; Physical Trough,LCOE Calculator,377431488,NA,NA,; Physical Trough,None,377431488,NA,NA,; Empirical Trough,Commercial,345244672,7.66638,NA,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit -Empirical Trough,Single Owner,345244672,14.8585,14.9463,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit -Empirical Trough,Merchant Plant,343802240,13.7205,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.26127e+08. A negative NPV indicates project costs are higher than revenues. -Empirical Trough,Leveraged Partnership Flip,345244672,15.1902,14.9463,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.92104e+07. A negative NPV indicates project costs are higher than revenues. -Empirical Trough,All Equity Partnership Flip,345244672,16.7465,14.9463,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: NPV is $-2.65159e+06. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-4.72943e+07. A negative NPV indicates project costs are higher than revenues. +Empirical Trough,Single Owner,345244672,15.1719,14.9463,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: NPV is $-7.76431e+06. A negative NPV indicates project costs are higher than revenues. +Empirical Trough,Merchant Plant,343802240,13.8072,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.291e+08. A negative NPV indicates project costs are higher than revenues. +Empirical Trough,Leveraged Partnership Flip,345244672,15.5012,14.9463,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.61073e+07. A negative NPV indicates project costs are higher than revenues. +Empirical Trough,All Equity Partnership Flip,345244672,16.818,14.9463,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: NPV is $-5.08034e+06. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-4.73282e+07. A negative NPV indicates project costs are higher than revenues. Empirical Trough,Sale Leaseback,345244672,16.9267,14.9463,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: NPV is $-6.9312e+07. A negative NPV indicates project costs are higher than revenues. Empirical Trough,LCOE Calculator,345244672,NA,NA,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Empirical Trough,None,345244672,NA,NA,; Warning: time 9738000.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit Warning: time 23788800.00 { Test Trough 2 }:\ Warning - Empirical trough (805) model exceeded interal iteration limit -MSPT,Single Owner,615096320,10.2138,10.2891,; -MSPT,Merchant Plant,615096320,9.52175,NA,; -MSPT,Leveraged Partnership Flip,615096320,10.4083,10.2891,; -MSPT,All Equity Partnership Flip,615096320,11.6632,10.2891,; +MSPT,Single Owner,615096320,10.4302,10.2891,; +MSPT,Merchant Plant,615096320,9.60286,NA,; +MSPT,Leveraged Partnership Flip,615096320,10.6248,10.2891,; +MSPT,All Equity Partnership Flip,615096320,11.7064,10.2891,; MSPT,Sale Leaseback,615096320,11.8794,10.2891,; MSPT,None,615096320,NA,NA,; -MSLF,Single Owner,305613664,18.3254,18.4121,; Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 88.1667 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 121.714 [MWt], greater than the target 119.229 [MWt]. Notice: At time = 322.179 power cycle startup time iteration only reached a convergence= -23.3292 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 349 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00306776. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 394.208 power cycle startup time iteration only reached a convergence= 1.4208 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 639.5 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 112.782 [MWt], greater than the target 111.951 [MWt]. Notice: At time = 664 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00548073. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 706.214 power cycle startup time iteration only reached a convergence= 23.6543 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1432 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.001919. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1647 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00513663. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00270916. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00273825. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1814 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00792677. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1911 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00255381. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1958 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0073258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1982 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105261. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2006 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0107458. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2030 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00113321. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0031316. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2127 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0058173. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2150 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00629212. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2413 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00329823. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2437 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0097137. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2461 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119043. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00257076. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2509 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0137852. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2533 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00504223. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2581 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00883644. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2605 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0081779. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2629 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00914113. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2653 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00205972. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2677 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00643244. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2750 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00871218. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2773 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00897598. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2796 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0163914. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2844 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0162032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2869 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00834128. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100348. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2940 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.011032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2989 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00376405. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3061 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0148426. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3085 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00379054. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3133 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00260892. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3156 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119681. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3180 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0109942. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3204 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.012653. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3277 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0095471. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3324 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0110797. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3348 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0085384. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3397 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173232. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3421 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00102564. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3445 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00431757. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3493 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00167567. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3517 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00836667. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3589 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00505024. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3637 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00120631. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3660 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00867336. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3708 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00901645. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3732 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0117958. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3756 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00961095. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3780 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00875713. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3804 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0116802. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3852 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0102478. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3878 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00451898. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3900 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0121486. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3948 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0111563. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3972 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0108317. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3996 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0134936. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4045 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00480811. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4069 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00894258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4095 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00262019. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4117 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100656. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4166 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00402874. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4237 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00353272. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4285 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00986992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4308 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00229. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4406 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00400063. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4431 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00204142. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4550 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00655777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4670 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00248396. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4695 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00490091. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5005 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00740485. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5077 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0131117. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00100033. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00372123. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5149 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00366765. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5173 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0071777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5198 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00633344. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5246 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00801992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5270 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00227717. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5462 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00587234. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00468105. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5606 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00380749. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5630 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00413893. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5678 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00491676. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5703 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0059265. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5775 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00544992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5798 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00435817. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5823 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00182053. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5870 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00873984. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105716. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5917 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0115397. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5966 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173657. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6013 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0107077. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6110 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00821295. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6422 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00219029. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6471 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00424778. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6543 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00515801. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7836 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0032883. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7860 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.004025. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8626.18 power cycle startup time iteration only reached a convergence= 17.827 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 power cycle startup time iteration only reached a convergence= -31.7086 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 136.064 [MWt], greater than the target 133.273 [MWt]. -MSLF,Merchant Plant,305613664,14.6826,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.69489e+08. A negative NPV indicates project costs are higher than revenues. Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 88.1667 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 121.714 [MWt], greater than the target 119.229 [MWt]. Notice: At time = 322.179 power cycle startup time iteration only reached a convergence= -23.3292 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 349 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00306776. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 394.208 power cycle startup time iteration only reached a convergence= 1.4208 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 639.5 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 112.782 [MWt], greater than the target 111.951 [MWt]. Notice: At time = 664 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00548073. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 706.214 power cycle startup time iteration only reached a convergence= 23.6543 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1432 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.001919. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1647 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00513663. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00270916. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00273825. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1814 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00792677. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1911 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00255381. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1958 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0073258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1982 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105261. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2006 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0107458. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2030 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00113321. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0031316. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2127 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0058173. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2150 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00629212. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2413 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00329823. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2437 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0097137. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2461 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119043. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00257076. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2509 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0137852. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2533 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00504223. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2581 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00883644. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2605 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0081779. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2629 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00914113. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2653 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00205972. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2677 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00643244. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2750 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00871218. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2773 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00897598. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2796 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0163914. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2844 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0162032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2869 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00834128. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100348. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2940 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.011032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2989 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00376405. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3061 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0148426. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3085 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00379054. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3133 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00260892. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3156 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119681. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3180 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0109942. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3204 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.012653. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3277 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0095471. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3324 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0110797. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3348 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0085384. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3397 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173232. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3421 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00102564. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3445 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00431757. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3493 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00167567. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3517 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00836667. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3589 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00505024. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3637 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00120631. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3660 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00867336. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3708 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00901645. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3732 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0117958. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3756 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00961095. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3780 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00875713. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3804 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0116802. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3852 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0102478. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3878 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00451898. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3900 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0121486. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3948 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0111563. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3972 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0108317. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3996 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0134936. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4045 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00480811. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4069 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00894258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4095 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00262019. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4117 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100656. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4166 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00402874. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4237 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00353272. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4285 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00986992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4308 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00229. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4406 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00400063. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4431 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00204142. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4550 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00655777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4670 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00248396. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4695 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00490091. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5005 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00740485. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5077 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0131117. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00100033. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00372123. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5149 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00366765. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5173 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0071777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5198 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00633344. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5246 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00801992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5270 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00227717. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5462 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00587234. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00468105. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5606 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00380749. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5630 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00413893. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5678 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00491676. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5703 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0059265. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5775 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00544992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5798 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00435817. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5823 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00182053. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5870 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00873984. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105716. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5917 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0115397. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5966 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173657. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6013 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0107077. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6110 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00821295. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6422 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00219029. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6471 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00424778. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6543 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00515801. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7836 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0032883. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7860 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.004025. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8626.18 power cycle startup time iteration only reached a convergence= 17.827 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 power cycle startup time iteration only reached a convergence= -31.7086 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 136.064 [MWt], greater than the target 133.273 [MWt]. -MSLF,Leveraged Partnership Flip,305613664,18.6181,18.4121,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.99442e+07. A negative NPV indicates project costs are higher than revenues. Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 88.1667 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 121.714 [MWt], greater than the target 119.229 [MWt]. Notice: At time = 322.179 power cycle startup time iteration only reached a convergence= -23.3292 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 349 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00306776. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 394.208 power cycle startup time iteration only reached a convergence= 1.4208 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 639.5 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 112.782 [MWt], greater than the target 111.951 [MWt]. Notice: At time = 664 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00548073. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 706.214 power cycle startup time iteration only reached a convergence= 23.6543 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1432 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.001919. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1647 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00513663. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00270916. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00273825. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1814 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00792677. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1911 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00255381. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1958 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0073258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1982 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105261. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2006 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0107458. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2030 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00113321. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0031316. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2127 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0058173. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2150 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00629212. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2413 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00329823. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2437 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0097137. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2461 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119043. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00257076. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2509 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0137852. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2533 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00504223. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2581 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00883644. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2605 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0081779. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2629 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00914113. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2653 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00205972. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2677 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00643244. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2750 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00871218. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2773 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00897598. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2796 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0163914. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2844 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0162032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2869 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00834128. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100348. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2940 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.011032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2989 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00376405. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3061 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0148426. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3085 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00379054. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3133 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00260892. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3156 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119681. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3180 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0109942. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3204 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.012653. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3277 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0095471. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3324 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0110797. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3348 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0085384. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3397 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173232. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3421 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00102564. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3445 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00431757. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3493 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00167567. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3517 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00836667. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3589 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00505024. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3637 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00120631. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3660 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00867336. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3708 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00901645. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3732 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0117958. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3756 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00961095. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3780 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00875713. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3804 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0116802. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3852 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0102478. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3878 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00451898. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3900 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0121486. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3948 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0111563. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3972 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0108317. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3996 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0134936. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4045 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00480811. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4069 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00894258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4095 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00262019. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4117 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100656. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4166 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00402874. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4237 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00353272. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4285 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00986992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4308 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00229. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4406 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00400063. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4431 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00204142. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4550 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00655777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4670 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00248396. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4695 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00490091. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5005 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00740485. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5077 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0131117. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00100033. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00372123. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5149 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00366765. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5173 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0071777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5198 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00633344. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5246 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00801992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5270 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00227717. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5462 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00587234. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00468105. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5606 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00380749. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5630 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00413893. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5678 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00491676. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5703 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0059265. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5775 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00544992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5798 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00435817. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5823 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00182053. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5870 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00873984. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105716. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5917 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0115397. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5966 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173657. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6013 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0107077. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6110 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00821295. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6422 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00219029. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6471 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00424778. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6543 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00515801. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7836 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0032883. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7860 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.004025. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8626.18 power cycle startup time iteration only reached a convergence= 17.827 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 power cycle startup time iteration only reached a convergence= -31.7086 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 136.064 [MWt], greater than the target 133.273 [MWt]. -MSLF,All Equity Partnership Flip,305613664,20.5071,18.4121,; Warning: NPV is $-9.05333e+06. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-5.21548e+07. A negative NPV indicates project costs are higher than revenues. Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 88.1667 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 121.714 [MWt], greater than the target 119.229 [MWt]. Notice: At time = 322.179 power cycle startup time iteration only reached a convergence= -23.3292 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 349 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00306776. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 394.208 power cycle startup time iteration only reached a convergence= 1.4208 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 639.5 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 112.782 [MWt], greater than the target 111.951 [MWt]. Notice: At time = 664 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00548073. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 706.214 power cycle startup time iteration only reached a convergence= 23.6543 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1432 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.001919. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1647 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00513663. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00270916. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00273825. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1814 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00792677. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1911 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00255381. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1958 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0073258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1982 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105261. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2006 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0107458. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2030 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00113321. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0031316. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2127 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0058173. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2150 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00629212. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2413 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00329823. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2437 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0097137. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2461 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119043. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00257076. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2509 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0137852. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2533 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00504223. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2581 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00883644. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2605 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0081779. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2629 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00914113. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2653 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00205972. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2677 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00643244. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2750 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00871218. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2773 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00897598. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2796 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0163914. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2844 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0162032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2869 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00834128. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100348. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2940 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.011032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2989 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00376405. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3061 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0148426. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3085 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00379054. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3133 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00260892. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3156 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119681. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3180 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0109942. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3204 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.012653. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3277 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0095471. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3324 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0110797. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3348 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0085384. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3397 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173232. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3421 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00102564. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3445 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00431757. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3493 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00167567. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3517 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00836667. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3589 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00505024. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3637 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00120631. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3660 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00867336. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3708 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00901645. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3732 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0117958. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3756 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00961095. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3780 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00875713. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3804 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0116802. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3852 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0102478. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3878 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00451898. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3900 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0121486. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3948 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0111563. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3972 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0108317. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3996 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0134936. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4045 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00480811. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4069 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00894258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4095 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00262019. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4117 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100656. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4166 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00402874. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4237 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00353272. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4285 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00986992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4308 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00229. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4406 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00400063. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4431 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00204142. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4550 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00655777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4670 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00248396. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4695 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00490091. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5005 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00740485. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5077 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0131117. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00100033. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00372123. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5149 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00366765. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5173 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0071777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5198 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00633344. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5246 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00801992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5270 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00227717. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5462 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00587234. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00468105. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5606 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00380749. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5630 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00413893. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5678 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00491676. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5703 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0059265. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5775 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00544992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5798 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00435817. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5823 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00182053. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5870 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00873984. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105716. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5917 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0115397. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5966 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173657. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6013 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0107077. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6110 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00821295. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6422 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00219029. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6471 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00424778. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6543 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00515801. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7836 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0032883. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7860 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.004025. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8626.18 power cycle startup time iteration only reached a convergence= 17.827 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 power cycle startup time iteration only reached a convergence= -31.7086 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 136.064 [MWt], greater than the target 133.273 [MWt]. +MSLF,Single Owner,305613664,18.7075,18.4121,; Warning: NPV is $-1.04968e+07. A negative NPV indicates project costs are higher than revenues. Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 88.1667 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 121.714 [MWt], greater than the target 119.229 [MWt]. Notice: At time = 322.179 power cycle startup time iteration only reached a convergence= -23.3292 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 349 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00306776. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 394.208 power cycle startup time iteration only reached a convergence= 1.4208 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 639.5 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 112.782 [MWt], greater than the target 111.951 [MWt]. Notice: At time = 664 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00548073. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 706.214 power cycle startup time iteration only reached a convergence= 23.6543 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1432 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.001919. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1647 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00513663. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00270916. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00273825. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1814 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00792677. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1911 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00255381. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1958 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0073258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1982 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105261. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2006 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0107458. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2030 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00113321. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0031316. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2127 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0058173. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2150 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00629212. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2413 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00329823. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2437 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0097137. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2461 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119043. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00257076. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2509 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0137852. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2533 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00504223. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2581 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00883644. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2605 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0081779. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2629 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00914113. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2653 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00205972. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2677 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00643244. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2750 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00871218. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2773 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00897598. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2796 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0163914. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2844 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0162032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2869 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00834128. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100348. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2940 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.011032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2989 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00376405. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3061 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0148426. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3085 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00379054. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3133 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00260892. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3156 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119681. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3180 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0109942. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3204 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.012653. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3277 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0095471. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3324 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0110797. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3348 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0085384. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3397 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173232. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3421 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00102564. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3445 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00431757. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3493 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00167567. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3517 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00836667. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3589 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00505024. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3637 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00120631. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3660 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00867336. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3708 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00901645. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3732 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0117958. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3756 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00961095. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3780 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00875713. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3804 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0116802. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3852 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0102478. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3878 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00451898. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3900 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0121486. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3948 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0111563. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3972 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0108317. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3996 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0134936. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4045 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00480811. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4069 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00894258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4095 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00262019. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4117 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100656. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4166 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00402874. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4237 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00353272. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4285 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00986992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4308 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00229. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4406 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00400063. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4431 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00204142. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4550 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00655777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4670 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00248396. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4695 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00490091. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5005 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00740485. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5077 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0131117. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00100033. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00372123. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5149 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00366765. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5173 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0071777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5198 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00633344. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5246 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00801992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5270 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00227717. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5462 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00587234. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00468105. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5606 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00380749. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5630 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00413893. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5678 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00491676. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5703 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0059265. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5775 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00544992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5798 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00435817. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5823 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00182053. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5870 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00873984. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105716. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5917 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0115397. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5966 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173657. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6013 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0107077. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6110 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00821295. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6422 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00219029. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6471 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00424778. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6543 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00515801. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7836 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0032883. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7860 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.004025. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8626.18 power cycle startup time iteration only reached a convergence= 17.827 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 power cycle startup time iteration only reached a convergence= -31.7086 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 136.064 [MWt], greater than the target 133.273 [MWt]. +MSLF,Merchant Plant,305613664,14.7705,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.72611e+08. A negative NPV indicates project costs are higher than revenues. Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 88.1667 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 121.714 [MWt], greater than the target 119.229 [MWt]. Notice: At time = 322.179 power cycle startup time iteration only reached a convergence= -23.3292 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 349 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00306776. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 394.208 power cycle startup time iteration only reached a convergence= 1.4208 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 639.5 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 112.782 [MWt], greater than the target 111.951 [MWt]. Notice: At time = 664 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00548073. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 706.214 power cycle startup time iteration only reached a convergence= 23.6543 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1432 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.001919. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1647 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00513663. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00270916. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00273825. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1814 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00792677. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1911 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00255381. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1958 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0073258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1982 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105261. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2006 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0107458. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2030 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00113321. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0031316. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2127 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0058173. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2150 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00629212. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2413 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00329823. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2437 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0097137. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2461 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119043. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00257076. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2509 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0137852. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2533 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00504223. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2581 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00883644. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2605 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0081779. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2629 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00914113. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2653 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00205972. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2677 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00643244. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2750 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00871218. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2773 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00897598. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2796 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0163914. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2844 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0162032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2869 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00834128. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100348. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2940 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.011032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2989 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00376405. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3061 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0148426. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3085 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00379054. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3133 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00260892. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3156 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119681. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3180 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0109942. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3204 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.012653. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3277 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0095471. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3324 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0110797. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3348 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0085384. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3397 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173232. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3421 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00102564. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3445 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00431757. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3493 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00167567. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3517 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00836667. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3589 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00505024. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3637 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00120631. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3660 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00867336. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3708 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00901645. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3732 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0117958. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3756 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00961095. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3780 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00875713. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3804 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0116802. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3852 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0102478. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3878 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00451898. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3900 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0121486. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3948 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0111563. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3972 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0108317. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3996 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0134936. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4045 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00480811. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4069 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00894258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4095 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00262019. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4117 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100656. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4166 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00402874. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4237 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00353272. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4285 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00986992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4308 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00229. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4406 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00400063. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4431 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00204142. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4550 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00655777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4670 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00248396. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4695 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00490091. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5005 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00740485. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5077 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0131117. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00100033. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00372123. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5149 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00366765. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5173 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0071777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5198 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00633344. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5246 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00801992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5270 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00227717. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5462 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00587234. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00468105. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5606 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00380749. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5630 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00413893. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5678 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00491676. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5703 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0059265. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5775 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00544992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5798 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00435817. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5823 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00182053. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5870 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00873984. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105716. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5917 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0115397. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5966 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173657. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6013 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0107077. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6110 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00821295. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6422 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00219029. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6471 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00424778. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6543 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00515801. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7836 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0032883. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7860 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.004025. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8626.18 power cycle startup time iteration only reached a convergence= 17.827 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 power cycle startup time iteration only reached a convergence= -31.7086 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 136.064 [MWt], greater than the target 133.273 [MWt]. +MSLF,Leveraged Partnership Flip,305613664,19.0002,18.4121,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.55422e+07. A negative NPV indicates project costs are higher than revenues. Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 88.1667 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 121.714 [MWt], greater than the target 119.229 [MWt]. Notice: At time = 322.179 power cycle startup time iteration only reached a convergence= -23.3292 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 349 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00306776. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 394.208 power cycle startup time iteration only reached a convergence= 1.4208 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 639.5 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 112.782 [MWt], greater than the target 111.951 [MWt]. Notice: At time = 664 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00548073. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 706.214 power cycle startup time iteration only reached a convergence= 23.6543 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1432 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.001919. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1647 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00513663. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00270916. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00273825. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1814 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00792677. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1911 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00255381. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1958 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0073258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1982 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105261. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2006 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0107458. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2030 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00113321. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0031316. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2127 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0058173. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2150 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00629212. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2413 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00329823. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2437 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0097137. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2461 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119043. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00257076. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2509 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0137852. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2533 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00504223. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2581 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00883644. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2605 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0081779. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2629 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00914113. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2653 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00205972. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2677 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00643244. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2750 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00871218. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2773 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00897598. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2796 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0163914. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2844 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0162032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2869 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00834128. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100348. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2940 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.011032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2989 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00376405. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3061 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0148426. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3085 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00379054. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3133 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00260892. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3156 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119681. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3180 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0109942. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3204 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.012653. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3277 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0095471. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3324 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0110797. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3348 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0085384. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3397 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173232. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3421 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00102564. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3445 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00431757. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3493 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00167567. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3517 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00836667. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3589 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00505024. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3637 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00120631. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3660 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00867336. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3708 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00901645. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3732 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0117958. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3756 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00961095. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3780 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00875713. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3804 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0116802. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3852 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0102478. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3878 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00451898. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3900 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0121486. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3948 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0111563. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3972 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0108317. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3996 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0134936. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4045 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00480811. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4069 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00894258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4095 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00262019. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4117 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100656. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4166 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00402874. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4237 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00353272. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4285 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00986992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4308 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00229. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4406 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00400063. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4431 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00204142. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4550 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00655777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4670 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00248396. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4695 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00490091. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5005 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00740485. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5077 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0131117. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00100033. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00372123. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5149 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00366765. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5173 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0071777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5198 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00633344. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5246 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00801992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5270 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00227717. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5462 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00587234. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00468105. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5606 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00380749. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5630 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00413893. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5678 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00491676. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5703 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0059265. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5775 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00544992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5798 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00435817. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5823 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00182053. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5870 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00873984. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105716. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5917 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0115397. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5966 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173657. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6013 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0107077. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6110 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00821295. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6422 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00219029. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6471 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00424778. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6543 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00515801. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7836 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0032883. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7860 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.004025. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8626.18 power cycle startup time iteration only reached a convergence= 17.827 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 power cycle startup time iteration only reached a convergence= -31.7086 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 136.064 [MWt], greater than the target 133.273 [MWt]. +MSLF,All Equity Partnership Flip,305613664,20.6289,18.4121,; Warning: NPV is $-1.3324e+07. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-5.22133e+07. A negative NPV indicates project costs are higher than revenues. Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 88.1667 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 121.714 [MWt], greater than the target 119.229 [MWt]. Notice: At time = 322.179 power cycle startup time iteration only reached a convergence= -23.3292 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 349 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00306776. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 394.208 power cycle startup time iteration only reached a convergence= 1.4208 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 639.5 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 112.782 [MWt], greater than the target 111.951 [MWt]. Notice: At time = 664 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00548073. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 706.214 power cycle startup time iteration only reached a convergence= 23.6543 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1432 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.001919. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1647 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00513663. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00270916. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00273825. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1814 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00792677. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1911 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00255381. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1958 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0073258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1982 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105261. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2006 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0107458. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2030 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00113321. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0031316. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2127 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0058173. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2150 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00629212. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2413 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00329823. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2437 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0097137. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2461 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119043. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00257076. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2509 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0137852. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2533 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00504223. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2581 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00883644. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2605 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0081779. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2629 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00914113. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2653 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00205972. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2677 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00643244. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2750 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00871218. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2773 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00897598. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2796 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0163914. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2844 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0162032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2869 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00834128. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100348. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2940 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.011032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2989 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00376405. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3061 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0148426. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3085 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00379054. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3133 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00260892. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3156 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119681. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3180 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0109942. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3204 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.012653. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3277 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0095471. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3324 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0110797. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3348 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0085384. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3397 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173232. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3421 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00102564. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3445 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00431757. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3493 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00167567. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3517 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00836667. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3589 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00505024. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3637 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00120631. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3660 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00867336. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3708 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00901645. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3732 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0117958. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3756 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00961095. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3780 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00875713. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3804 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0116802. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3852 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0102478. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3878 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00451898. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3900 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0121486. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3948 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0111563. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3972 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0108317. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3996 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0134936. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4045 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00480811. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4069 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00894258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4095 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00262019. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4117 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100656. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4166 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00402874. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4237 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00353272. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4285 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00986992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4308 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00229. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4406 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00400063. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4431 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00204142. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4550 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00655777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4670 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00248396. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4695 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00490091. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5005 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00740485. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5077 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0131117. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00100033. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00372123. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5149 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00366765. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5173 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0071777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5198 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00633344. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5246 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00801992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5270 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00227717. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5462 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00587234. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00468105. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5606 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00380749. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5630 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00413893. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5678 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00491676. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5703 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0059265. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5775 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00544992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5798 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00435817. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5823 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00182053. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5870 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00873984. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105716. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5917 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0115397. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5966 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173657. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6013 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0107077. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6110 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00821295. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6422 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00219029. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6471 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00424778. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6543 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00515801. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7836 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0032883. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7860 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.004025. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8626.18 power cycle startup time iteration only reached a convergence= 17.827 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 power cycle startup time iteration only reached a convergence= -31.7086 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 136.064 [MWt], greater than the target 133.273 [MWt]. MSLF,Sale Leaseback,305613664,20.7957,18.4121,; Warning: NPV is $-8.65632e+07. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-2.14615e+07. A negative NPV indicates project costs are higher than revenues. Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 88.1667 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 121.714 [MWt], greater than the target 119.229 [MWt]. Notice: At time = 322.179 power cycle startup time iteration only reached a convergence= -23.3292 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 349 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00306776. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 394.208 power cycle startup time iteration only reached a convergence= 1.4208 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 639.5 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 112.782 [MWt], greater than the target 111.951 [MWt]. Notice: At time = 664 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00548073. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 706.214 power cycle startup time iteration only reached a convergence= 23.6543 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1432 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.001919. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1647 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00513663. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00270916. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1720 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00273825. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1814 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00792677. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1911 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00255381. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1958 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0073258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1982 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105261. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2006 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0107458. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2030 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00113321. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0031316. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2127 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0058173. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2150 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00629212. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2413 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00329823. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2437 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0097137. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2461 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119043. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00257076. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2509 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0137852. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2533 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00504223. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2581 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00883644. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2605 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0081779. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2629 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00914113. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2653 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00205972. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2677 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00643244. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2750 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00871218. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2773 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00897598. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2796 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0163914. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2844 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0162032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2869 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00834128. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100348. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2940 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.011032. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2989 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00376405. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3061 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0148426. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3085 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00379054. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3133 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00260892. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3156 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0119681. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3180 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0109942. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3204 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.012653. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3277 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0095471. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3324 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0110797. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3348 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0085384. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3397 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173232. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3421 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00102564. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3445 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00431757. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3493 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00167567. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3517 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00836667. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3589 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00505024. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3637 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00120631. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3660 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00867336. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3708 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00901645. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3732 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0117958. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3756 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00961095. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3780 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00875713. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3804 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0116802. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3852 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0102478. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3878 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00451898. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3900 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0121486. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3948 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0111563. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3972 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0108317. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3996 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0134936. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4045 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00480811. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4069 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00894258. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4095 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00262019. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4117 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0100656. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4166 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00402874. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4237 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00353272. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4285 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00986992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4308 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00229. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4406 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00400063. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4431 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00204142. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4550 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00655777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4670 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00248396. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4695 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00490091. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5005 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00740485. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5077 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0131117. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00100033. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5126 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00372123. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5149 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00366765. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5173 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0071777. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5198 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00633344. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5246 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00801992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5270 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00227717. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5462 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00587234. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5486 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00468105. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5606 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00380749. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5630 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00413893. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5678 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00491676. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5703 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0059265. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5775 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00544992. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5798 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00435817. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5823 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00182053. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5870 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00873984. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5893 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0105716. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5917 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0115397. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5966 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00173657. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6013 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.0107077. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6110 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00821295. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6422 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00219029. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6471 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00424778. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 6543 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle heat input only reached a convergence = -0.00515801. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7836 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.0032883. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 7860 power cycle mass flow for startup iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.004025. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8626.18 power cycle startup time iteration only reached a convergence= 17.827 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 power cycle startup time iteration only reached a convergence= -31.7086 [s]. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 8650.18 CR_ON__PC_SU__TES_OFF__AUX_OFF method converged to a power cycle thermal input, 136.064 [MWt], greater than the target 133.273 [MWt]. DSLF,Commercial,234568960,8.6057,NA,; -DSLF,Single Owner,234568960,15.9363,16.0294,; -DSLF,Merchant Plant,234568960,14.323,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.87485e+08. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -9.25246. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. -DSLF,Leveraged Partnership Flip,234568960,16.2859,16.0294,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.36489e+07. A negative NPV indicates project costs are higher than revenues. -DSLF,All Equity Partnership Flip,234568960,17.9156,16.0294,; Warning: NPV is $-1.89262e+06. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-3.35376e+07. A negative NPV indicates project costs are higher than revenues. +DSLF,Single Owner,234568960,16.2718,16.0294,; Warning: NPV is $-5.64691e+06. A negative NPV indicates project costs are higher than revenues. +DSLF,Merchant Plant,234568960,14.3574,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.88286e+08. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -9.25246. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. +DSLF,Leveraged Partnership Flip,234568960,16.6188,16.0294,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.6401e+07. A negative NPV indicates project costs are higher than revenues. +DSLF,All Equity Partnership Flip,234568960,17.997,16.0294,; Warning: NPV is $-3.76064e+06. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-3.35637e+07. A negative NPV indicates project costs are higher than revenues. DSLF,Sale Leaseback,234568960,17.6815,13.7549,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-9.23514e+07. A negative NPV indicates project costs are higher than revenues. DSLF,LCOE Calculator,234568960,NA,NA,; DSLF,None,234568960,NA,NA,; Generic CSP System,Commercial,592360448,5.05926,NA,; Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 -Generic CSP System,Single Owner,592360448,11.2036,11.2639,; Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 -Generic CSP System,Merchant Plant,592360448,10.4232,NA,; Warning: NPV is $-3.82726e+08. A negative NPV indicates project costs are higher than revenues. Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 -Generic CSP System,Leveraged Partnership Flip,592360448,11.4196,11.2639,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.34472e+07. A negative NPV indicates project costs are higher than revenues. Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 -Generic CSP System,All Equity Partnership Flip,592360448,12.8098,11.2639,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.02174e+08. A negative NPV indicates project costs are higher than revenues. Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 +Generic CSP System,Single Owner,592360448,11.4407,11.2639,; Warning: NPV is $-1.02732e+07. A negative NPV indicates project costs are higher than revenues. Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 +Generic CSP System,Merchant Plant,592360448,10.5044,NA,; Warning: NPV is $-3.87442e+08. A negative NPV indicates project costs are higher than revenues. Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 +Generic CSP System,Leveraged Partnership Flip,592360448,11.6567,11.2639,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.2104e+07. A negative NPV indicates project costs are higher than revenues. Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 +Generic CSP System,All Equity Partnership Flip,592360448,12.8552,11.2639,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.04759e+08. A negative NPV indicates project costs are higher than revenues. Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 Generic CSP System,Sale Leaseback,592360448,13.0371,11.2639,; Warning: NPV is $-1.04309e+08. A negative NPV indicates project costs are higher than revenues. Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 Generic CSP System,LCOE Calculator,592360448,NA,NA,; Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 Generic CSP System,None,592360448,NA,NA,; Notice: time 0.00 { Generic solar model 2 }:\ The interpolation code must be 1 (interpolate) or 2 (nearest neighbor)The input value was 0, so it was reset to 1 @@ -112,27 +112,27 @@ DSGL IPH,None,10833103,NA,NA,; DSGL IPH,LCOH Calculator,10833103,NA,NA,; MSLF IPH,None,926623360,NA,NA,; Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 1456 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00453542. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1648 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00226743. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2318 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00471913. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3613 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00356292. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4142 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00415087. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4647 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = -0.00171912. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00274341. Check that results at this timestep are not unreasonably biasing total simulation results MSLF IPH,LCOH Calculator,926623360,NA,NA,; Notice: Piping geometry file\ \ Maximum fluid velocity: 3.00\ Minimum fluid velocity: 2.00\ \ To section 1 header pipe diameter: 0.4889 m (19.25 in)\ Loop No. | Diameter [m] | Diameter [in] | Diam. ID\ --------------------------------------------------\ 1 | 0.4889 | 19.2500 | 1\ 2 | 0.4889 | 19.2500 | 1\ 3 | 0.4889 | 19.2500 | 1\ 4 | 0.4889 | 19.2500 | 1\ 5 | 0.4889 | 19.2500 | 1\ 6 | 0.4889 | 19.2500 | 1\ 7 | 0.4889 | 19.2500 | 1\ 8 | 0.4889 | 19.2500 | 1\ 9 | 0.4889 | 19.2500 | 1\ 10 | 0.4889 | 19.2500 | 1\ 11 | 0.4381 | 17.2500 | 2\ 12 | 0.4381 | 17.2500 | 2\ 13 | 0.4381 | 17.2500 | 2\ 14 | 0.4381 | 17.2500 | 2\ 15 | 0.4381 | 17.2500 | 2\ 16 | 0.4381 | 17.2500 | 2\ 17 | 0.3906 | 15.3760 | 3\ 18 | 0.3906 | 15.3760 | 3\ 19 | 0.3906 | 15.3760 | 3\ 20 | 0.3906 | 15.3760 | 3\ 21 | 0.3906 | 15.3760 | 3\ 22 | 0.3398 | 13.3760 | 4\ 23 | 0.3398 | 13.3760 | 4\ 24 | 0.3398 | 13.3760 | 4\ 25 | 0.3398 | 13.3760 | 4\ 26 | 0.3398 | 13.3760 | 4\ 27 | 0.3111 | 12.2500 | 5\ 28 | 0.3111 | 12.2500 | 5\ 29 | 0.3111 | 12.2500 | 5\ 30 | 0.2604 | 10.2500 | 6\ 31 | 0.2604 | 10.2500 | 6\ 32 | 0.2604 | 10.2500 | 6\ 33 | 0.2604 | 10.2500 | 6\ 34 | 0.2604 | 10.2500 | 6\ 35 | 0.2604 | 10.2500 | 6\ 36 | 0.2604 | 10.2500 | 6\ 37 | 0.2604 | 10.2500 | 6\ 38 | 0.2604 | 10.2500 | 6\ 39 | 0.2604 | 10.2500 | 6\ 40 | 0.2604 | 10.2500 | 6\ 41 | 0.2604 | 10.2500 | 6\ 42 | 0.2604 | 10.2500 | 6\ Notice: At time = 1456 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00453542. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 1648 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00226743. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 2318 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00471913. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 3613 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00356292. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4142 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00415087. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 4647 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = -0.00171912. Check that results at this timestep are not unreasonably biasing total simulation results Notice: At time = 5078 CR_DF__PC_MAX__TES_FULL__AUX_OFF iteration to find a defocus resulting in the maximum power cycle mass flow rate only reached a convergence = 0.00274341. Check that results at this timestep are not unreasonably biasing total simulation results -MEwave,Single Owner,65589748,61.7545,60.3986,; Warning: NPV is $-9.88339e+06. A negative NPV indicates project costs are higher than revenues. +MEwave,Single Owner,65589748,62.0203,60.3986,; Warning: NPV is $-1.18208e+07. A negative NPV indicates project costs are higher than revenues. MEwave,LCOE Calculator,59434320,NA,NA,; MEwave,None,594343,NA,NA,; -MEwave Battery,Single Owner,64951112,63.5481,60.3969,; Warning: NPV is $-2.27549e+07. A negative NPV indicates project costs are higher than revenues. +MEwave Battery,Single Owner,64951112,63.8156,60.3969,; Warning: NPV is $-2.46869e+07. A negative NPV indicates project costs are higher than revenues. MEtidal,LCOE Calculator,2.16152e+06,NA,NA,; MEtidal,None,2.16152e+06,NA,NA,; Wind Power,Residential,48358.4,21.9797,NA,; Wind Power,Commercial,327922,8.85854,NA,; -Wind Power,Single Owner,818888256,2.60022,4.33226,; -Wind Power,Merchant Plant,818888256,2.50826,NA,; -Wind Power,Leveraged Partnership Flip,818888256,2.69102,4.33226,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. -Wind Power,All Equity Partnership Flip,818888256,3.17308,4.33226,; +Wind Power,Single Owner,818888256,2.64444,4.33226,; +Wind Power,Merchant Plant,818888256,2.54444,NA,; +Wind Power,Leveraged Partnership Flip,818888256,2.73524,4.33226,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. +Wind Power,All Equity Partnership Flip,818888256,3.18297,4.33226,; Wind Power,Sale Leaseback,818888256,3.55152,4.33226,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Wind Power,LCOE Calculator,818888256,NA,NA,; Wind Power,None,201595968,NA,NA,; Fuel Cell,Commercial,1.93447e+06,9.76483,NA,; -Fuel Cell,Single Owner,213518784,11.1457,6.53631,; Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-9.56542e+07. A negative NPV indicates project costs are higher than revenues. -Geothermal Power,Single Owner,248258560,10.9556,8.61147,; Warning: NPV is $-5.12165e+07. A negative NPV indicates project costs are higher than revenues. -Geothermal Power,Merchant Plant,248258560,10.4575,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.44143e+08. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -3.64621. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. -Geothermal Power,Leveraged Partnership Flip,248258560,11.1195,8.61147,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-5.37013e+07. A negative NPV indicates project costs are higher than revenues. -Geothermal Power,All Equity Partnership Flip,248258560,11.7313,8.61147,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-4.97228e+06. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-5.877e+07. A negative NPV indicates project costs are higher than revenues. +Fuel Cell,Single Owner,213518784,11.1822,6.53631,; Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-9.64119e+07. A negative NPV indicates project costs are higher than revenues. +Geothermal Power,Single Owner,248258560,11.1464,8.61147,; Warning: NPV is $-5.53849e+07. A negative NPV indicates project costs are higher than revenues. +Geothermal Power,Merchant Plant,248258560,10.542,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.45989e+08. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -3.64621. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. +Geothermal Power,Leveraged Partnership Flip,248258560,11.3103,8.61147,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-5.77863e+07. A negative NPV indicates project costs are higher than revenues. +Geothermal Power,All Equity Partnership Flip,248258560,11.814,8.61147,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-6.76107e+06. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-5.8788e+07. A negative NPV indicates project costs are higher than revenues. Geothermal Power,Sale Leaseback,248258560,11.8576,8.61147,; Warning: NPV is $-7.17299e+07. A negative NPV indicates project costs are higher than revenues. Geothermal Power,LCOE Calculator,248204544,NA,NA,; Geothermal Power,None,248204544,NA,NA,; @@ -140,30 +140,30 @@ Solar Water Heating,Residential,2252.04,33.2105,NA,; Solar Water Heating,Commercial,2252.12,21.3306,NA,; Solar Water Heating,LCOE Calculator,2281.61,NA,NA,; Solar Water Heating,None,2281.61,NA,NA,; -Biopower,Single Owner,353982848,13.4814,12.9968,; Warning: NPV is $-1.67694e+07. A negative NPV indicates project costs are higher than revenues. -Biopower,Merchant Plant,353982848,12.1589,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.87534e+08. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -55.1268. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. -Biopower,Leveraged Partnership Flip,353982848,13.1175,12.9968,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-4.09356e+06. A negative NPV indicates project costs are higher than revenues. -Biopower,All Equity Partnership Flip,353982848,13.5372,12.9968,; Warning: NPV is $-1.78791e+07. A negative NPV indicates project costs are higher than revenues. +Biopower,Single Owner,353982848,13.738,12.9968,; Warning: NPV is $-2.56481e+07. A negative NPV indicates project costs are higher than revenues. +Biopower,Merchant Plant,353982848,12.2276,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.8991e+08. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -55.1268. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. +Biopower,Leveraged Partnership Flip,353982848,13.3726,12.9968,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.27447e+07. A negative NPV indicates project costs are higher than revenues. +Biopower,All Equity Partnership Flip,353982848,13.6912,12.9968,; Warning: NPV is $-2.37165e+07. A negative NPV indicates project costs are higher than revenues. Biopower,Sale Leaseback,353982848,13.4654,12.9968,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.88054e+07. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-5.94938e+07. A negative NPV indicates project costs are higher than revenues. Biopower,LCOE Calculator,353982848,NA,NA,; Biopower,None,353982848,NA,NA,; Generic System,Residential,1513728,26.865,NA,; Generic System,Commercial,35591988,25.2499,NA,; Generic System,Third Party,30274.6,NA,NA,; -Generic System,Host Developer,73469696,13.5482,13.3029,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.76193e+06. A negative NPV indicates project costs are higher than revenues. -Generic System,Single Owner,756864000,27.4263,25.9936,; Warning: NPV is $-1.05999e+08. A negative NPV indicates project costs are higher than revenues. -Generic System,Merchant Plant,756864000,25.2805,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.58456e+09. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -48.2713. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. -Generic System,Leveraged Partnership Flip,840960000,26.4126,25.9936,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.37601e+07. A negative NPV indicates project costs are higher than revenues. -Generic System,All Equity Partnership Flip,756864000,29.7983,25.9936,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-2.97345e+08. A negative NPV indicates project costs are higher than revenues. +Generic System,Host Developer,73469696,13.7297,13.5556,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.25018e+06. A negative NPV indicates project costs are higher than revenues. +Generic System,Single Owner,756864000,27.693,25.9936,; Warning: NPV is $-1.25729e+08. A negative NPV indicates project costs are higher than revenues. +Generic System,Merchant Plant,756864000,25.2964,NA,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-1.58573e+09. A negative NPV indicates project costs are higher than revenues. Warning: Debt percent is -48.2713. A debt percent less than 0% may indicate the mininum EBITDA cannot support any debt in at least one year. +Generic System,Leveraged Partnership Flip,840960000,26.6796,25.9936,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-5.52669e+07. A negative NPV indicates project costs are higher than revenues. +Generic System,All Equity Partnership Flip,756864000,29.9102,25.9936,; Warning: IRR at end of analysis period is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: IRR in target year is not a number (NaN). This can indicate that revenues are too low to cover costs, or that they are excessively high compared to costs. Warning: NPV is $-3.05454e+08. A negative NPV indicates project costs are higher than revenues. Generic System,Sale Leaseback,756864000,29.5291,25.9936,; Warning: NPV is $-2.70226e+08. A negative NPV indicates project costs are higher than revenues. Warning: NPV is $-3.1105e+07. A negative NPV indicates project costs are higher than revenues. Generic System,LCOE Calculator,756864000,NA,NA,; Generic System,None,756864000,NA,NA,; -PVWatts Wind Battery Hybrid,Single Owner,578883008,10.2693,5.91853,; Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. -PVWatts Wind Battery Hybrid,Host Developer,1.12532e+06,18.1844,16.542,; Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. -PVWatts Wind FuelCell Battery Hybrid,Single Owner,579660736,10.6946,5.41105,; Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. -PVWatts Wind FuelCell Battery Hybrid,Host Developer,2.68732e+06,49.7344,51.3994,; Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. -Photovoltaic Wind Battery Hybrid,Single Owner,594070784,8.46988,5.95228,; Notice: Simulation time step is 60 minutes for pvsamv1. Notice: Simulation time step is 60 minutes for windpower. -Photovoltaic Wind Battery Hybrid,Host Developer,1.01627e+06,18.394,16.5709,; Notice: Simulation time step is 60 minutes for pvsamv1. Notice: Simulation time step is 60 minutes for windpower. -Generic PVWatts Wind FuelCell Battery Hybrid,Single Owner,1337309056,18.883,5.41349,; Notice: Simulation time step is 60 minutes for generic_system. Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. -Generic PVWatts Wind FuelCell Battery Hybrid,Host Developer,4.48675e+06,96.0216,102.63,; Notice: Simulation time step is 60 minutes for generic_system. Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. +PVWatts Wind Battery Hybrid,Single Owner,578883008,10.3326,5.91853,; Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. +PVWatts Wind Battery Hybrid,Host Developer,1.12532e+06,18.2673,16.542,; Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. +PVWatts Wind FuelCell Battery Hybrid,Single Owner,579660736,10.7481,5.41105,; Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. +PVWatts Wind FuelCell Battery Hybrid,Host Developer,2.68732e+06,50.0935,51.764,; Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. +Photovoltaic Wind Battery Hybrid,Single Owner,594070784,8.55013,5.95228,; Notice: Simulation time step is 60 minutes for pvsamv1. Notice: Simulation time step is 60 minutes for windpower. +Photovoltaic Wind Battery Hybrid,Host Developer,1.01627e+06,18.4803,16.5709,; Notice: Simulation time step is 60 minutes for pvsamv1. Notice: Simulation time step is 60 minutes for windpower. +Generic PVWatts Wind FuelCell Battery Hybrid,Single Owner,1337309056,18.9249,5.41349,; Notice: Simulation time step is 60 minutes for generic_system. Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. +Generic PVWatts Wind FuelCell Battery Hybrid,Host Developer,4.48675e+06,96.5927,103.216,; Notice: Simulation time step is 60 minutes for generic_system. Notice: Simulation time step is 60 minutes for pvwattsv8. Notice: Simulation time step is 60 minutes for windpower. final_configuration_eof,none,NA,NA,NA,