Aircraft Routing for Global Cooling Through Ice Crystal Trails
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Solution Overview
Problem
Commercial aircraft contribute to global warming through CO2 emissions and can either warm or cool the climate depending on ice crystal trails and clouds, necessitating a method to determine flight routes that maximize climate cooling effects.
Innovation Solution
Aircraft routing systems use prediction models to identify areas with predicted threshold probabilities for ice crystal trail formation or cloud interaction, optimizing flight routes and departure times to enhance climate cooling effects.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Object-affected harmful factors
If aircraft fly conventional routes, then CO2 emissions contribute to global warming, but flight routes can be optimized to produce ice crystal trails that cool the climate
Solution Approach 1:
The system performs preliminary identification of atmospheric areas favorable for ice crystal trail formation before the aircraft flight. Prediction models pre-map regions with appropriate temperature, humidity, and pressure conditions, allowing the flight route to be planned in advance to maximize cooling effects while minimizing complexity during actual flight operations
Solution Approach 2:
The invention converts the harmful CO2 emissions and ice crystal trail formation (which can cause warming) into a beneficial cooling effect. By deliberately planning routes through specific atmospheric conditions, the ice crystal trails that would normally be unwanted byproducts are transformed into intentional climate cooling tools, offsetting the warming from CO2 emissions
2Object-affected harmful factors
If aircraft routes are optimized for ice crystal trail formation, then climate cooling effect is enhanced, but flight time and energy consumption increase
Solution Approach 1:
The system applies partial action by optimizing only specific segments of the flight route rather than the entire journey. The aircraft follows conventional paths for most of the flight and deviates temporarily through predicted favorable atmospheric zones to create ice crystal trails, then returns to the original route. This partial optimization provides climate cooling benefits while minimizing additional energy consumption and flight time
Solution Approach 2:
The invention changes the parameters of ice crystal trail formation by controlling aircraft flight conditions (altitude, speed, temperature) to optimize cooling effects. By adjusting these parameters within normal operational ranges, the system enhances climate cooling without requiring excessive energy consumption or significant deviations from efficient flight paths
3Object-affected harmful factors
If aircraft deviate from direct routes to create ice crystal trails, then climate cooling is achieved, but flight distance and time increase
Solution Approach 1:
The system implements partial deviation from direct routes by identifying and utilizing favorable atmospheric areas that lie close to or intersect with the original flight path. The aircraft makes minimal detours through these predicted zones to create ice crystal trails, then returns to the direct route, achieving climate cooling with minimal loss of flight time
Data Source
AI summary
A method is provided that enables aircraft to contribute to global cooling by flying at select locations, altitudes, and times. An aircraft will deviate from its planned departure time and flight path to “harvest” prime sections of the atmosphere. Consequently, just as passengers have the option to lower their ticket prices by choosing inconvenient departure times and longer indirect flights, adoption of the method by the airline industry will enable passengers to trade these same options for a lower “environmental price”. The method enables the airline industry to switch from a contributor to global warming, to a contributor to global cooling. In this respect, the method enables the airline industry to be a global cooling technology comparable to carbon capture and sequestration. Unlike the immense capital investment required by other global cooling technologies, the method requires no capital investment because it exploits the existing multitrillion-dollar global air transportation infrastructure.