Wave-Inertia Downwelling Pipe for Ocean Heat Storage
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing methods for redistributing thermal energy in large bodies of water, such as artificial wave-driven upwelling devices, are inefficient and costly, and do not effectively move warm surface water to sufficiently deep layers, leading to issues like navigation hazards and heat loss due to surface currents.
Innovation Solution
A downwelling system utilizing a wave-inertia pump with a long pipe extending from the surface to deep water, equipped with one-way valves that allow water flow only downwards, effectively transferring thermal energy from the surface to cooler depths, thereby increasing heat storage in the water body.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Temperature
If artificial wave-driven upwelling devices are used to bring cold water from below the thermocline to the sea surface, then heat redistribution in the upper ocean is improved, but deployment and maintenance costs increase significantly
Solution Approach 1:
Instead of using complex wave-driven pumps to force water upward (upwelling), the invention inverts the approach by allowing warm surface water to naturally flow downward through a pipe (downwelling). This passive gravity-driven system replaces active pumping mechanisms, dramatically reducing deployment and maintenance costs while achieving heat redistribution.
Solution Approach 2:
The downwelling system utilizes the natural density difference between warm surface water and colder deep water, allowing the warm water to sink on its own without external energy input. The system serves itself by harnessing gravitational potential energy and buoyancy forces, eliminating the need for expensive wave-driven pumps and reducing operational complexity.
2Quantity of substance
If wave-driven pumps are deployed along the coast line to accumulate heat in the upper layer, then precipitation increase is achieved, but navigation hazards are created
Solution Approach 1:
The invention extracts the heat accumulation function from the complex wave-driven pump system and implements it through a simple passive downwelling structure. By removing the active pumping components that create navigation hazards, the system maintains its ability to accumulate heat in the upper ocean layer while eliminating the harmful effects on maritime navigation.
3Temperature
If surface currents are present in the upper layer, then heat is carried away from the coastal area, but using wave-driven pumps to counteract this increases operational complexity
Solution Approach 1:
Rather than using complex active systems to push water upward against currents, the invention inverts the approach by allowing warm water to naturally sink downward. This passive downwelling creates a compensatory flow pattern that naturally counteracts surface current effects, retaining heat in the coastal area without requiring operational complexity.
4Device complexity
If wave-induced downwelling is used to move water, then device simplicity is improved, but the depth reached is insufficient for effective heat storage
Solution Approach 1:
The invention extends the downwelling pipe to great depths, adding the vertical dimension to the system. By creating a long vertical conduit that reaches deep into the ocean, the system enables warm surface water to be transported to sufficient depths for effective heat storage, while maintaining the simplicity of the passive gravitational mechanism.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The downwelling system is significantly more effective than prior art, accumulating 11.5 times more heat in deep layers, enhancing evaporation and precipitation patterns, and providing benefits like improved air quality, irrigation, and natural disaster mitigation without requiring external energy.
Implementation Method 1
A downwelling system utilizing a wave-inertia pump with a long pipe extending from the surface to deep water
Implementation Method 2
A downwelling system utilizing a wave-inertia pump
Implementation Method 3
equipped with one-way valves that allow water flow only downwards
Implementation Method 4
effectively transferring thermal energy from the surface to cooler depths, thereby increasing heat storage in the water body
Implementation Method 5
accumulating 11.5 times more heat in deep layers
Implementation Method 6
enhancing evaporation and precipitation patterns
Implementation Method 7
The amount of water vapor in the atmosphere and associated rain activity are thereby dependent on the heat content in the upper ocean
Data Source
AI summary
Heat storage of the sea is increased during the summer time by pumping relatively warmer surface water with wave-action pumps to the deeper layers with relatively cooler water. In locations where currents are minimal in these deeper layers, the lateral displacement of the warmer water introduced by wave-inertial pumps will be minimized. During the winter season, this additional heat will intensify evaporation from the sea, which will increase precipitation in the nearby continental zone. This “natural desalination process” using the energy of surface waves will bring additional freshwater to arid coastal areas during wintertime.