Hey
@elonmusk @mayemusk
@lindayax @alx @greg16676935420 !
I've been quite distraught these last two weeks, especially learning about all the people in the world going without clean drinking water.
So I got to work.
Below is a python code for design for a water bottle that uses internal condensation and barometric pressure to create water from air introduction in a 24 hour period.
I'm giving this design away to anyone that can make this a reality !
No human should go without clean drinking water.
Hope it helps !
-Self Generating Water Container-
class SelfContainedWaterGenerator:
def __init__(self, bottle_volume=0.710, max_pressure=150, max_temperature=40):
self.bottle_volume = bottle_volume # Volume of the self-contained bottle (in liters)
self.max_pressure = max_pressure # Maximum internal pressure (kPa)
self.max_temperature = max_temperature # Maximum internal temperature (°C)
self.condensation_chamber = CondensationChamber(self.max_pressure, self.max_temperature)
self.water_storage = WaterStorage(self.bottle_volume)
self.user_interface = UserInterface()
self.humidity_sensor = HumiditySensor()
self.air_filter = AirFilter()
self.power_manager = PowerManager()
def introduce_air(self):
humidity = self.humidity_sensor.measure_humidity()
if self.condensation_chamber.can_condense(humidity):
condensed_water = self.condensation_chamber.collect_water(humidity)
if self.water_storage.can_store(condensed_water):
self.water_storage.collect_water(condensed_water)
self.user_interface.update_status()
class CondensationChamber:
def __init__(self, max_pressure, max_temperature):
self.max_pressure = max_pressure
self.max_temperature = max_temperature
self.internal_humidity = 0
self.error_threshold = 0.01 # Margin for error in humidity readings
def can_condense(self, humidity):
# Check if the current humidity and internal conditions allow condensation
if (self.internal_humidity self.error_threshold) < humidity and self.internal_humidity < self.max_humidity() and self.max_pressure > self.max_internal_pressure():
return True
return False
def collect_water(self, humidity):
# Simulated method to collect and store the condensed water based on humidity
self.internal_humidity = humidity
return humidity - self.internal_humidity
def max_humidity(self):
# Simulated method to determine the maximum humidity that can exist inside the bottle
return 0.95 # 95% relative humidity
def max_internal_pressure(self):
# Simulated method to determine the maximum internal pressure inside the bottle
return 120 # kPa
class WaterStorage:
def __init__(self, bottle_volume):
self.bottle_volume = bottle_volume
self.collected_water = 0.0
def can_store(self, water):
return self.collected_water water <= self.bottle_volume
def collect_water(self, water):
self.collected_water = water
class UserInterface:
def __init__(self):
self.status = "Standby"
def update_status(self):
self.status = "Water Ready" if self.water_storage.collected_water > 0 else "Standby"
class HumiditySensor:
def measure_humidity(self):
# Simulated method to measure humidity (in real-world, use a humidity sensor)
return random.uniform(0.6, 0.9) # Simulated humidity level
class AirFilter:
def filter_air(self):
# Simulated air filtration for improved air quality
return "Clean Air" # Simulated result
class PowerManager:
def has_power(self):
# Simulated power manager for self-sustained power (e.g., solar panels)
return True # Simulated result
# Usage
generator = SelfContainedWaterGenerator(bottle_volume=0.710, max_pressure=150, max_temperature=40)
generator.introduce_air()