Modular Heat Exchanger With Connection Blocks For Electrical Device Cooling
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Solution Overview
Problem
Existing heat exchangers for electrical devices face challenges in multi-stage coupling and efficient cooling of both surfaces, with difficulties in assembling and maintaining tight contact between the electrical device and the cooling path, leading to suboptimal heat transfer performance.
Innovation Solution
A heat exchanger design featuring tube-type cooling path parts with open ends, cut parts, and connection plates that allow for variable intervals and mechanical coupling, using connection blocks and sealing members to facilitate multi-stage stacking and improve contact between the cooling path and the electrical device, enabling efficient fluid flow and enhanced cooling performance.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If brazing coupling is used to form the heat exchanger, then heat exchange efficiency is improved, but the electrical device cannot be inserted after the insertion space is fixed
Solution Approach 1:
The heat exchanger is divided into multiple modular units, each comprising a tube-type cooling path part and connection plates. These modular units can be independently assembled and then coupled together through connection blocks, allowing the electrical device to be inserted before final assembly. This segmentation resolves the contradiction by enabling both efficient brazing coupling within modules and easy insertion during assembly.
2Ease of operation
If the interval between tubes is widened to facilitate insertion of the electrical device, then assembly ease is improved, but the electrical device and tube are not tightly pressed against each other
Solution Approach 1:
The connection plates and connection blocks are designed to apply pressing force that dynamically adjusts the interval between tubes. During assembly, the electrical device can be inserted with sufficient clearance, but after assembly, the connection components exert force to tighten the contact between the electrical device and tubes. This dynamic adjustment resolves the contradiction by providing both easy insertion and tight pressing contact.
3Force
If additional plates are provided to press the device, then pressing force is improved, but the device complexity increases
Solution Approach 1:
The pressing function is merged into the connection blocks that already serve to couple the modular units together. The connection blocks simultaneously provide mechanical connection between modules and apply the necessary pressing force to ensure tight contact between the electrical device and tubes. This merging eliminates the need for additional separate pressing plates, resolving the contradiction by providing pressing force without increasing structural complexity.
4Adaptability or versatility
If tanks are arranged in a zigzag pattern for multi-stage stacking, then adaptability is improved, but the connection part for inner tanks cannot be formed
Solution Approach 1:
The connection blocks are designed with asymmetric features including protrusions and recesses that enable straightforward coupling in the stacking direction. This asymmetric design provides adaptability for multi-stage stacking while maintaining simple connection formation, as the protrusion-recess interface guides and secures the connection without requiring complex zigzag arrangements. The asymmetric connection blocks resolve the contradiction by enabling both stacking flexibility and easy connection formation.
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 design allows for easy assembly and increased pressing force between the cooling path and the electrical device, improving cooling performance and assemblability, enabling the cooling of multiple electrical devices with flexible configuration options.
Implementation Method 1
cooling of both surfaces of the electrical device is possible through tight coupling between the electrical device and the cooling path part
Implementation Method 2
a cooling path part 110 including a cooling path 111 in which a cooling fluid flows
Data Source
AI summary
The present invention relates to a heat exchanger for cooling an electrical device, and more specifically, to a heat exchanger for cooling an electrical device, in which the tube-type cooling path parts may be coupled in multi-stages, the assembling of the electrical device and the cooling path part during the multi-stage coupling is easy, and cooling of both surfaces of the electrical device is possible through tight coupling between the electrical device and the cooling path part.


