Research-Stack/5-Applications/tools-scripts/ptos/ptos_tier1_starving.py

86 lines
4.3 KiB
Python

#!/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.
# ==============================================================================
"""
The Survival Engine: Dust Bowl Salvage Tech
Built for when the crops fail and you need topsoil/food using scrap metal, sunlight, and a car battery.
Phase 1: Grab moisture from the air.
Phase 2: Split it with rusty solar panels and a spark.
Phase 3: Smash the remaining air (Nitrogen) into topsoil food.
"""
import argparse
def calculate_survival_loop(scrap_solar_w, days_running):
# Extremely low efficiencies because a starving kid is building this with rusty pipes
solar_to_elec_eff = 0.10 # Cracked PV panels
water_capture_eff = 0.05 # A cold metal pipe in the shade at night
elec_to_h2_eff = 0.40 # Running wires through salt water in a glass jar (Electrolysis)
haber_scrap_eff = 0.01 # Using a car jack as a makeshift pressure pump for Haber
# 1. Total Daily Power Harvest (Roughly 6 hours of usable daylight)
daily_watt_hours = scrap_solar_w * 6 * solar_to_elec_eff
# 2. Water Harvesting (assuming ~1 Liter (1000g) of moisture condenses per 100 Wh of cooling)
water_grams_per_day = (daily_watt_hours / 100) * 1000 * water_capture_eff
# 3. Crack the water into Hydrogen and Oxygen (roughly 9 grams water -> 1g H2)
# Constrained by our terrible electrical efficiency
max_h2_from_elec = (daily_watt_hours * elec_to_h2_eff) / 50.0 # ~50 Wh to make 1g H2 terribly
h2_grams_per_day = min(water_grams_per_day / 9.0, max_h2_from_elec)
# 4. Scrap-Metal Fertilizer (Haber-Bosch in a reinforced iron pipe heated by a campfire)
# 3g H2 + ~14g N2 (from air) -> 17g Ammonia/Fertilizer precursor
fert_grams_per_day = (h2_grams_per_day / 3.0) * 17.0 * haber_scrap_eff
# 5. Food Yield (Assuming 1 gram of nitrogen fertilizer yields ~50 grams of potato/corn over a season)
biomass_grams_per_day = fert_grams_per_day * 50.0
calories = (biomass_grams_per_day / 100.0) * 86.0 # ~86 calories per 100g of potato
total_calories = calories * days_running
return {
"water_g": water_grams_per_day,
"h2_g": h2_grams_per_day,
"fert_g": fert_grams_per_day,
"food_g": biomass_grams_per_day,
"cals": calories,
"total_cals": total_calories
}
def print_survival_guide(watts, days, res):
print("\n" + "!"*50)
print(" 🛠️ THE DUST BOWL SURVIVAL ENGINE 🛠️")
print("!"*50)
print("If the sky is dry and the ground is dead. Build this.")
print(f"\n[ SCRAP INPUTS ]")
print(f" * Scavenged Solar Panels : {watts} Watts (Cracked but working)")
print(f" * Runtime : {days} Days out in the sun")
print(f"\n[ DAILY OUTPUT - SCRAP METAL EFFICIENCY ]")
print(f" 💧 Water Pulled From Air : {res['water_g']:.1f} grams (A few sips)")
print(f" ⚡ Hydrogen Gas Made : {res['h2_g']:.1f} grams")
print(f" 🌱 Raw Fertilizer Dust : {res['fert_g']:.2f} grams")
print(f"\n[ THE DIFFERENCE BETWEEN LIFE AND DEATH ]")
print(f" 🥔 Expected Crop Yield : {res['food_g']:.1f} grams of potatoes grown per day of running this")
print(f" 🔥 Caloric Output : {res['cals']:.0f} Calories per day")
print(f" 🗓️ Total Food Over {days} days: {int(res['total_cals'])} Calories")
if res['cals'] < 1000:
print(f"\n [!] WARNING: YOU ARE SLOWLY STARVING. Scavenge {int(1000/max(res['cals'],1))}x more solar panels.")
else:
print(f"\n [+] YOU LIVE. Keep the engine running.")
print("!"*50 + "\n")
if __name__ == "__main__":
parser = argparse.ArgumentParser(description="Dust Bowl Maker Protocol")
parser.add_argument("--watts", type=float, default=200.0, help="Total watts of broken solar panels found")
parser.add_argument("--days", type=int, default=30, help="How many days you run it before harvest")
args = parser.parse_args()
res = calculate_survival_loop(args.watts, args.days)
print_survival_guide(args.watts, args.days, res)