Title: "Project Genesis" (working title: "The Gadget")

Game Concept:

"Project Genesis" is a narrative-driven strategy game that puts players in the role of a key scientist involved in the Manhattan Project. The game aims to provide an immersive experience by combining historical accuracy with engaging gameplay mechanics.

Gameplay Overview:

• Research and Development: Players begin as a young scientist joining the Manhattan Project. They must manage resources, make strategic decisions, and oversee the development of various components of the atomic bomb, such as uranium enrichment, plutonium production, and bomb design.

• Team Management: Players assemble a team of scientists, engineers, and other personnel. Each team member has unique skills, expertise, and personality traits that influence research progress, efficiency, and morale. Balancing team dynamics and maintaining a motivated workforce is crucial for success.

• Resource Management: Players need to allocate resources wisely, including funding, materials, and manpower, to progress different aspects of the project. Budget constraints, procurement challenges, and competing priorities must be navigated effectively to advance the research.

• Risk and Security: The game incorporates elements of secrecy and security. Players must ensure that their research remains hidden from enemies and spies, implementing counterintelligence measures and safeguarding classified information.

• Ethical Dilemmas: The game explores the ethical complexities surrounding the development of the atomic bomb. Players face difficult choices that challenge their moral compass, such as the potential devastation caused by the bomb and the long-lasting implications of their work.

• Historical Events: The game includes significant historical events and milestones, such as the Trinity test, the bombings of Hiroshima and Nagasaki, and the scientific debates and challenges faced by the project. These events shape the narrative and impact the player's progress.

• Consequences and Endings: Player choices and outcomes impact the progression of the game. The narrative branches based on decisions made by the player, leading to multiple possible endings that reflect the historical impact of the Manhattan Project.

Through "Project Genesis," players can gain a deeper understanding of the scientific, ethical, and human aspects of the Manhattan Project, while also experiencing the challenges faced by the scientists involved in this pivotal moment in history.

Note: Given the sensitive nature of the topic, it's important to approach the game with sensitivity and respect for the historical events and the lives affected by them.

Tasks and Milestones

Here is a list of tasks that could be incorporated into a game involving the Manhattan Project:

Research and Development:
    Gather scientific research materials and documents.
    Recruit scientists and engineers for the project.
    Construct research facilities and laboratories.
    Conduct experiments to study nuclear reactions and properties of radioactive materials.

Resource Acquisition:
    Secure funding for the project.
    Obtain necessary raw materials, such as uranium and plutonium.
    Establish procurement networks and negotiate contracts with suppliers.

Site Construction:
    Build and expand the major project sites like Los Alamos, Oak Ridge, and Hanford.
    Manage construction projects, including infrastructure, buildings, and utilities.
    Ensure the security and secrecy of the project sites.

Personnel Management:
    Hire and assign personnel for various project roles, including scientists, engineers, technicians, and support staff.
    Provide training and skill development programs.
    Manage personnel morale and address any conflicts or challenges.

Production and Manufacturing:
    Establish and oversee production facilities for uranium enrichment and plutonium production.
    Manage the manufacturing of atomic bomb components, such as triggers and casings.
    Ensure quality control and efficient production processes.

Security and Espionage:
    Implement and maintain strict security measures to prevent leaks or sabotage.
    Conduct counterintelligence operations to detect and neutralize potential threats.
    Gather intelligence on enemy nuclear research efforts.

Testing and Evaluation:
    Prepare and conduct test detonations, such as the Trinity Test.
    Analyze and evaluate test results to assess the effectiveness and safety of the atomic bomb.

Diplomacy and Decision Making:
    Collaborate with government officials and military leaders.
    Make strategic decisions regarding the use and deployment of atomic weapons.
    Engage in diplomatic negotiations related to the project and its aftermath.

Ethical Dilemmas:
    Encounter moral and ethical dilemmas associated with the development and use of atomic weapons.
    Make decisions that reflect different ethical perspectives and consider the consequences of those choices.

Historical Challenges:
    Overcome logistical and technical challenges faced by the Manhattan Project in real-life, such as limited resources, time constraints, and technological uncertainties.

These tasks can provide players with a variety of objectives and challenges while immersing them in the historical context of the Manhattan Project.

Research tree

Here's a basic research tree for the development of the Trinity bomb, the first atomic bomb detonated as part of the Manhattan Project:

Nuclear Physics Research
    Subatomic Particle Study
    Nuclear Fission Experiments
    Uranium and Plutonium Properties

Uranium Enrichment
    Uranium Ore Extraction
    Isotope Separation Methods (e.g., Gaseous Diffusion, Electromagnetic Separation)
    Uranium Enrichment Techniques (e.g., Gas Centrifuge, Thermal Diffusion)

Plutonium Production
    Neutron Source Design
    Neutron Irradiation of Uranium-238
    Plutonium Separation Techniques (e.g., Chemical Reprocessing, Purex Process)

Reactor Design
    Graphite Moderated Reactor
    Heavy Water Moderated Reactor
    Cooling Systems and Control Mechanisms

Bomb Design
    Implosion Design (e.g., Explosive Lenses, Spherical Symmetry)
    Detonation Mechanisms (e.g., Neutron Initiators, Explosive Triggers)
    Tamper Design for Enhanced Efficiency

Testing Preparations
    Selection of Test Site (e.g., Alamogordo, New Mexico)
    Construction of Test Facility and Safety Measures
    Assembly and Integration of the Bomb Components

Trinity Test
    Final Assembly of the Bomb
    Countdown and Preparations
    Detonation and Data Collection

Each branch of the research tree represents a different area of scientific and engineering focus required for the development of the Trinity bomb. It is important to note that this is a simplified representation, and the actual research and development process involved extensive experimentation, testing, and collaboration among various scientists, engineers, and facilities.

Concept: Anti-Espionage Challenge

Overview: In this game, players take on the role of an elite anti-espionage agent tasked with identifying and neutralizing enemy spies. The game combines elements of strategy, deduction, and problem-solving to create an engaging and immersive experience.

Gameplay:

Objective:
    Identify and capture enemy spies hidden among innocent civilians.
    Prevent classified information from falling into enemy hands.
    Maintain the security and integrity of your organization.

Mechanics:
    Investigation: Gather intelligence, analyze clues, and interrogate suspects to uncover information about potential spies.
    Surveillance: Monitor suspicious activities, track movements, and identify patterns to narrow down the suspects.
    Counterintelligence: Implement security measures, encrypt communications, and set up traps to deceive and apprehend enemy spies.
    Team Management: Recruit and train agents with specialized skills, assign them to missions, and coordinate their actions to maximize efficiency.

Gameplay Elements:
    Missions: Engage in a series of missions set in various locations, each with unique challenges and objectives.
    Clues and Puzzles: Solve puzzles, decode secret messages, and analyze hidden clues to uncover spy identities and their plans.
    Time Management: Allocate resources effectively, prioritize tasks, and make quick decisions to stay ahead of enemy activities.
    Risk vs. Reward: Balance the need for capturing spies swiftly with the risk of exposing your agents or innocent civilians.
    Tech Upgrades: Unlock and upgrade surveillance equipment, encryption tools, and other gadgets to enhance your capabilities.

Challenges:
    Suspect Identification: Use deductive reasoning, observation skills, and psychological profiling to identify potential spies.
    Double Agents: Watch out for double agents within your own organization who may sabotage your efforts.
    Covert Operations: Infiltrate enemy hideouts, gather evidence, and disrupt their operations without raising suspicion.
    Time Pressure: Complete missions within a limited timeframe, preventing enemy spies from executing their plans.
    Consequences: Deal with the consequences of failed missions, compromised security, and potential public backlash.

Progression and Rewards:
    Advancement: Gain experience, level up your agent, and unlock new abilities, tools, and missions.
    Achievements: Accomplish specific objectives, solve challenging puzzles, and earn rewards and recognition.
    Leaderboards: Compete with other players worldwide and strive for the highest scores and rankings.

Game Modes:
    Story Mode: Embark on an immersive campaign with a captivating storyline, engaging characters, and plot twists.
    Challenge Mode: Take on specific missions or scenarios with predefined objectives and constraints for added replayability.
    Multiplayer Mode: Collaborate or compete with friends in cooperative or competitive multiplayer modes.

By combining elements of espionage, strategy, and problem-solving, the Anti-Espionage Challenge offers players an exciting and immersive experience as they work to protect their organization, gather intelligence, and outsmart enemy spies. The game encourages critical thinking, strategic planning, and effective decision-making to succeed in the challenging world of counterintelligence.

SQLite table layout

To design an SQLite table layout for a strategy game incorporating the places, people, technology, and dates related to the Manhattan Project, you can create separate tables for each entity and establish relationships between them using primary and foreign keys. Here's a suggested table layout:

Table: Places
    Columns: place_id (Primary Key), name, latitude, longitude

Table: People
    Columns: person_id (Primary Key), name, birth_date, birth_place_id (Foreign Key referencing Places.place_id)

Table: Technology
    Columns: tech_id (Primary Key), name, description

Table: Dates
    Columns: date_id (Primary Key), event_date, description

Table: Projects
    Columns: project_id (Primary Key), name, start_date_id (Foreign Key referencing Dates.date_id), end_date_id (Foreign Key referencing Dates.date_id)

Table: Project_People
    Columns: project_id (Foreign Key referencing Projects.project_id), person_id (Foreign Key referencing People.person_id)

Table: Project_Technology
    Columns: project_id (Foreign Key referencing Projects.project_id), tech_id (Foreign Key referencing Technology.tech_id)

Table: Project_Places
    Columns: project_id (Foreign Key referencing Projects.project_id), place_id (Foreign Key referencing Places.place_id)

Table: Buildings
    Columns: building_id (Primary Key), name, coords_polygon, place_id (Foreign Key referencing Places.place_id)

In this table layout, the "Places" table stores information about the different locations related to the Manhattan Project, including their latitude and longitude coordinates.

The "People" table contains details about the individuals involved, including their birth date and birth place, which is linked to the "Places" table through a foreign key relationship.

The "Technology" table holds information about the various technologies or scientific advancements relevant to the project. The "Dates" table stores significant dates and corresponding descriptions.

The "Projects" table represents individual projects within the Manhattan Project, with start and end dates linked to the "Dates" table. The "Project_People," "Project_Technology," and "Project_Places" tables establish many-to-many relationships between projects, people, technologies, and places.

The "Buildings" table stores information about the different buildings on each site related to the Manhattan Project, including their polygon coordinates for each building.

This table layout allows for the organization and retrieval of data related to the various entities and their relationships in the game, facilitating gameplay mechanics, historical accuracy, and data management.

Installation

Steps assume that python (>= 3.8) and pip are already installed.

Install dependencies (see sections below)

Then, run:

$ pip install TheGadget

Install directly from github:

$ pip install git+https://github.com/amstelchen/TheGadget#egg=TheGadget

When completed, run it with:

$ TheGadget

Dependencies

On Debian-based distributions (Mint, Ubuntu, MX, etc.), installation of the following packages may be necessary:

$ sudo apt-get install libcairo2-dev libjpeg-dev libgif-dev

Notably, it often helps to keep your python installation updated:

$ python -m pip install --upgrade pip wheel setuptools

System requirements

"The Gadget" is tested to work on the following distributions (and derivates):

• Ubuntu (and derivates: Kubuntu, Xubuntu, Pop!_OS) 20.04 or newer
• Debian 11 or newer
• Linux Mint 20 or newer
• Arch Linux (and derivates: Manjaro, ArcoLinux)
• Windows 10/11
• Windows 7 (needs a patched Python)

Reporting bugs

If you encounter any bugs or incompatibilities, please report them here.

Troubleshooting

TODO

Licences

The Gadget is licensed under the MIT license.