#!/usr/bin/env python3 # ============================================================================== # COPYRIGHT NO ONE EVERYWHERE LLC (WYOMING HOLDING COMPANY) # PROJECT: SOVEREIGN STACK # This artifact is entirely proprietary and cryptographically proven. # Open-Source usage requires explicit permission from Brandon Scott Schneider. # ============================================================================== """ Village-Scale Gravity Battery Calculator Built for the 12-year-old hacker keeping the lights on. The Math: Energy (Joules) = Mass (kg) x Gravity (9.81) x Height (meters) x Efficiency """ import argparse def calculate_village_battery(mass_kg, height_m, drop_time_minutes, efficiency): g = 9.81 # Earth's gravity in m/s^2 # 1. Total Stored Energy (Joules) total_energy_joules = mass_kg * g * height_m # 2. Usable Energy after friction/motor losses usable_energy_joules = total_energy_joules * efficiency # Convert Joules to Watt-hours (Wh) for everyday electronics (1 Wh = 3600 Joules) usable_watt_hours = usable_energy_joules / 3600 # 3. Power Output (Watts) # Power is energy divided by time (in seconds) drop_time_seconds = drop_time_minutes * 60 power_watts = usable_energy_joules / drop_time_seconds if drop_time_seconds > 0 else 0 return { "energy_joules": total_energy_joules, "usable_joules": usable_energy_joules, "usable_wh": usable_watt_hours, "power_watts": power_watts } def print_hacker_guide(mass, height, minutes, eff, results): print("\n" + "="*50) print(" 🛠️ VILLAGE GRAVITY BATTERY CALCULATOR 🛠️") print("="*50) print(f"\n[ THE SETUP ]") print(f" * Hanging Mass : {mass} kg (Like {int(mass/20)} large buckets of water)") print(f" * Drop Height : {height} meters (Like a {int(height/3)} story building/tree)") print(f" * Drop Time : {minutes} minutes") print(f" * Generator Eff.: {int(eff*100)}% (Scrap DC motors lose power to friction/heat)") print(f"\n[ THE PHYSICS ]") print(f" Total Raw Energy : {results['energy_joules']:,.0f} Joules") print(f" Usable Energy : {results['usable_joules']:,.0f} Joules ({results['usable_wh']:.2f} Watt-Hours)") print(f" Constant Power : {results['power_watts']:.2f} Watts") print(f"\n[ WHAT CAN IT DO WHILE DROPPING? ]") # Give practical examples based on the wattage if results['power_watts'] >= 5.0: phones = int(results['power_watts'] / 5.0) print(f" 📱 Slowly charge {phones} smartphone(s)") else: print(" 📱 Not enough steady power to charge a smartphone (needs ~5W).") leds = int(results['power_watts'] / 0.5) if leds > 0: print(f" 💡 Light up {leds} bright LED bulbs (0.5W each)") else: print(" 💡 Barely enough for a tiny LED.") if results['power_watts'] >= 2.0: print(" 📻 Power a small emergency shortwave radio!") print(f"\n[ HOW TO BUILD IT WITH SCRAP ]") print(" 1. The Pulley : An old bicycle wheel with the tire removed.") print(" 2. The Rope : Sturdy climbing rope or braided fishing line.") print(" 3. The Weight : Sandbags, rocks, or sealed jugs of water.") print(" 4. The Gears : Use the bike chain to connect the wheel to a smaller gear.") print(" 5. The Dynamo : An old DC motor (from a broken toy car or power drill).") print(" Spinning a motor backwards turns it into a generator!") print("==================================================\n") if __name__ == "__main__": parser = argparse.ArgumentParser(description="DIY Gravity Battery Math") parser.add_argument("--mass", type=float, default=200.0, help="Mass in kg (e.g. 200 = 10 buckets of water)") parser.add_argument("--height", type=float, default=10.0, help="Height in meters") parser.add_argument("--minutes", type=float, default=30.0, help="How many minutes it takes to drop to the bottom") parser.add_argument("--eff", type=float, default=0.35, help="System efficiency (scraps are usually 0.20 to 0.40)") args = parser.parse_args() res = calculate_village_battery(args.mass, args.height, args.minutes, args.eff) print_hacker_guide(args.mass, args.height, args.minutes, args.eff, res)