Heat-Dissipating Casing Structure With Slidable Assembly
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Solution Overview
Problem
Existing heat-dissipating modules with heat pipes are difficult to assemble and replace due to the welding or adhering process, which complicates the integration with heat-conductive blocks and casings, limiting the efficiency and flexibility of heat dissipation.
Innovation Solution
A heat-dissipating casing structure that includes a base seat, a heat-dissipating module with a heat pipe, and a casing that can be slidably assembled, allowing for easy connection and replacement of the heat-dissipating module via an installed portion on either the casing or base seat, thereby increasing the heat-dissipating area and efficiency.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If the heat pipe is welded or adhered to the heat-conductive block and casing, then the heat transmission reliability is improved, but the assembly complexity and difficulty increase
Solution Approach 1:
The heat-dissipating module is divided into separable components: the heat pipe can be independently installed on the heat-conductive block, and the casing is separately assembled. This segmentation allows each component to be manufactured and tested independently, then assembled together without requiring complex welding or adhering processes between all components.
Solution Approach 2:
The patent employs a dynamic assembly approach where the casing can be easily removed and reinstalled. The heat pipe is first installed on the heat-conductive block, then the casing is assembled around this sub-assembly. This dynamic, step-by-step assembly process replaces static, permanent bonding methods, making the overall assembly simpler and more flexible.
2Reliability
If the heat pipe is welded or adhered to the heat-conductive block and casing, then the heat transmission reliability is improved, but the replaceability and maintenance efficiency deteriorate
Solution Approach 1:
The heat pipe is designed as a separate, independently replaceable component that can be installed on the heat-conductive block without removing the casing. This segmentation enables targeted replacement of only the heat pipe when needed, rather than requiring replacement of the entire heat-dissipating assembly, significantly improving maintenance efficiency.
Solution Approach 2:
The assembly is designed with dynamic, reversible connections that allow components to be easily added, removed, or replaced. The heat pipe can be detached from the heat-conductive block and reinstalled, and the casing can be removed and reassembled, enabling flexible maintenance and replacement operations without permanent bonding.
3Productivity
If the casing is designed with a larger heat-dissipating area, then the heat-dissipating efficiency is improved, but the device volume increases
Solution Approach 1:
The casing utilizes vertical space and three-dimensional configuration to maximize heat-dissipating surface area without proportionally increasing the horizontal footprint. By extending heat-dissipating surfaces in multiple dimensions (including vertical extensions and internal surfaces), the design achieves high heat-dissipating efficiency while controlling the overall volume occupied by the device.
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
Facilitates rapid and easy assembly and replacement of the heat-dissipating module, enhancing heat transmission and dissipation efficiency by utilizing a larger heat-dissipating area, thus addressing the complexity and inefficiency of traditional assembly methods.
Implementation Method 1
a heat-dissipating module and a casing. The heat-dissipating module is disposed on the base seat. The heat-dissipating module has a first heat-conducting block and a heat pipe. One side of the heat pipe connects to the first heat-conducting block. The casing has an installed portion, and the casing is slidably assembled on the base seat for connecting the other side of the heat pipe with the casing via the installed portion.
Implementation Method 2
the heat from a heat-generating element on the base seat is transmitted to the casing
Data Source
AI summary
A heat-dissipating casing structure includes a base seat, a heat-dissipating module, and a casing. The heat-dissipating module is disposed on the base seat. The heat-dissipating module has a first heat-conducting block and a heat pipe, and one side of the heat pipe connects to the first heat-conducting block. The casing has an installed portion, and the casing is slidably assembled on the base seat for connecting the other side of the heat pipe with the casing via the installed portion. When the casing is slidably assembled on the base seat, the heat pipe is connected with the casing via the installed portion. Hence, the heat-dissipating module is assembled and replaced easily and rapidly. Moreover, the heat from a heat-generating element on the base seat is transmitted to the casing through the heat pipe for increasing heat-dissipating efficiency.