diff --git a/examples/2_Intermediate/exactPM4Stell_noSym.py b/examples/2_Intermediate/exactPM4Stell_noSym.py
index 78be70343..ffafa0835 100644
--- a/examples/2_Intermediate/exactPM4Stell_noSym.py
+++ b/examples/2_Intermediate/exactPM4Stell_noSym.py
@@ -40,11 +40,11 @@
     max_nMagnets = 20
     downsample = 100  # drastically downsample the grid if running CI
 else:
-    N = 2  # >= 64 for high-resolution runs
+    N = 16  # >= 64 for high-resolution runs
     nIter_max = 1000
-    max_nMagnets = 10
+    max_nMagnets = 100
     downsample = 100
-    dims = np.array([1,1,1]) * 1e-7  #currently can only have all magnets be same shape
+    dims = np.array([1,1,1])  #currently can only have all magnets be same shape
 
 nphi = N
 ntheta = N
@@ -70,6 +70,13 @@
 s2 = SurfaceRZFourier.from_focus(
     fname_plasma, range='full torus', nphi=nphi, ntheta=ntheta
 )
+lcfs_ncsx.nfp = 1
+lcfs_ncsx.stellsym = False
+
+s1.nfp = 1
+s1.stellsym = False
+s2.nfp = 1
+s2.stellsym = False
 
 # Make higher resolution surface for plotting Bnormal
 qphi = 2 * nphi
@@ -161,7 +168,7 @@
 )
 
 import sys
-sys.path.append('/Users/willhoffman/simsopt/Codes')
+sys.path.append('/Users/akaptanoglu/simsopt/Codes')
 import Bcube as exact
 from simsoptpp import dipole_field_Bn
 
@@ -183,6 +190,12 @@
     1, 0, dip_ncsx.b_obj
 ).reshape(Acub.shape[0], Acub.shape[1])
 
+Ngrid = dip_ncsx.nphi * dip_ncsx.ntheta
+AsimDip = AsimDip.reshape(dip_ncsx.nphi * dip_ncsx.ntheta, dip_ncsx.ndipoles * 3)
+Nnorms = np.ravel(np.sqrt(np.sum(dip_ncsx.plasma_boundary.normal() ** 2, axis=-1)))
+for i in range(AsimDip.shape[0]):
+    AsimDip[i, :] = AsimDip[i, :] * np.sqrt(Nnorms[i] / Ngrid)
+
 print('direct = ',Acub)
 print('from grid = ',pm_ncsx.A_obj)
 print('close = ', np.allclose(Acub, pm_ncsx.A_obj))
diff --git a/src/simsopt/field/magneticfieldclasses.py b/src/simsopt/field/magneticfieldclasses.py
index accb8934e..45b94a269 100644
--- a/src/simsopt/field/magneticfieldclasses.py
+++ b/src/simsopt/field/magneticfieldclasses.py
@@ -14,7 +14,7 @@
 from .magneticfield import MagneticField
 from .._core.json import GSONDecoder
 import sys
-sys.path.append('/Users/willhoffman/simsopt/Codes')
+sys.path.append('/Users/akaptanoglu/simsopt/Codes')
 
 import Bcube as cub
 import Bgrad as dcub
diff --git a/src/simsopt/geo/permanent_magnet_grid.py b/src/simsopt/geo/permanent_magnet_grid.py
index 297aeac04..cd5ee8104 100644
--- a/src/simsopt/geo/permanent_magnet_grid.py
+++ b/src/simsopt/geo/permanent_magnet_grid.py
@@ -9,7 +9,7 @@
 import simsoptpp as sopp
 
 import sys
-sys.path.append('/Users/willhoffman/simsopt/Codes')
+sys.path.append('/Users/akaptanoglu/simsopt/Codes')
 import Bcube as cub
 import Bgrad as dcub
 
@@ -836,11 +836,15 @@ def geo_setup_from_famus(cls, plasma_boundary, Bn, famus_filename, **kwargs):
         if m_maxima is None:
             B_max = 1.465  # value used in FAMUS runs for MUSE
             mu0 = 4 * np.pi * 1e-7
-            # cell_vol = M0s * mu0 / B_max
-            cell_vol = np.full(len(M0s), np.prod(dims))
+            cell_vol = M0s * mu0 / B_max
+
+            # Assumes that the magnets are all the same shape, and are perfect cubes!
+            cube_root_vol = np.cbrt(cell_vol[0]) # need to fix if the magnets have different sizes!
+            dims = np.array([cube_root_vol, cube_root_vol, cube_root_vol])
+            #cell_vol = np.full(len(M0s), np.prod(dims))
 
-            print(cell_vol)
-            print(M0s * mu0 / B_max)
+            # print(cell_vol)
+            # print(M0s * mu0 / B_max)
             
             pm_grid.m_maxima = B_max * cell_vol[nonzero_inds] / mu0
         else: