Heat absorption and radiation system
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing heat storage and radiation systems utilizing rubidium-manganese-iron cyano complexes do not fully exploit their heat absorption and release characteristics, limiting their efficiency.
Innovation Solution
A heat absorption and radiation system that applies pressure to a heat medium containing a rubidium-manganese-iron cyano complex to induce phase transitions between high- and low-temperature phases, allowing for efficient heat transfer by repeatedly pressurizing and depressurizing the medium.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of manufacture
If the rubidium-manganese-iron cyano complex is used only for heat storage and radiation, then the system configuration can be relatively simple, but the heat absorption and release efficiency is not fully optimized
Solution Approach 1:
The patent applies pressure to change the phase transition temperature of the rubidium-manganese-iron cyano complex, enabling heat release at higher temperatures and improving heat absorption and release efficiency while maintaining system simplicity
Solution Approach 2:
The patent utilizes pressure-induced phase transitions of the rubidium-manganese-iron cyano complex between high-temperature and low-temperature phases to achieve efficient heat absorption and release cycling
2Productivity
If pressure is applied to increase phase transition temperature for efficient heat release, then heat release efficiency improves, but the system requires additional pressurization equipment
Solution Approach 1:
The patent uses pressure as a controllable parameter to adjust the phase transition temperature of the heat medium, enabling efficient heat release without requiring complex temperature control systems
Solution Approach 2:
The patent exploits the pressure-dependent phase transition characteristics of the rubidium-manganese-iron cyano complex to achieve heat release at desired temperatures through relatively simple pressurization mechanisms
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 system effectively functions as a heat pump, efficiently absorbing and releasing heat through the rubidium-manganese-iron cyano complex by utilizing its pressure-induced phase transitions, maintaining stable operation under normal temperature and pressure conditions.
Implementation Method 1
applying a pressure to the heat medium and causing phase transition of the rubidium-manganese-iron cyano complex from a high-temperature phase to a low-temperature phase
Implementation Method 2
when the rubidium-manganese-iron cyano complex is pressurized, the phase transition temperature from the high-temperature phase to the low-temperature phase and the phase transition temperature from the low-temperature phase to the high-temperature phase increase
Implementation Method 3
releasing the pressure applied to the heat medium and causing phase transition of the rubidium-manganese-iron cyano complex from the low-temperature phase to the high-temperature phase
Implementation Method 4
heat of the heat generating body is transferred to the heat storage body
Implementation Method 5
the heat storage body is cooled to the second temperature or lower with outside air flowing into the heat insulating case through the opening, and the heat storage body (rubidium-manganese-iron cyano complex) undergoes phase transition to the low-temperature phase to radiate heat
Data Source
AI summary
A heat absorption and radiation system uses a heat medium containing a rubidium-manganese-iron cyano complex, and is configured to release heat from the heat medium by applying a pressure to the heat medium and causing phase transition of the rubidium-manganese-iron cyano complex from a high-temperature phase to a low-temperature phase, absorb heat into the heat medium by releasing the pressure applied to the heat medium and causing phase transition of the rubidium-manganese-iron cyano complex from the low-temperature phase to the high-temperature phase, and repeat application of the pressure to and release of the pressure from the heat medium. Thus, it is possible to efficiently absorb and release heat through effective utilization of the characteristics of the rubidium-manganese-iron cyano complex.