A method for testing the thermal performance of t-components
A thermal performance and component technology, applied in the direction of instruments, calculations, electrical digital data processing, etc., can solve the problems of large determination error of the heat transfer coefficient of the shell surface of the T component, and the inability to accurately detect the thermal performance of the T component. Improved effect
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Embodiment 1
[0070] The object of embodiment 1 analysis is the T assembly of natural heat dissipation, and the concrete steps that adopt are as follows:
[0071] Step 101, determining the surface heat transfer coefficient of the shell of the T assembly;
[0072] Specifically, first determine an initial value of 8W / m for the surface heat transfer coefficient of the T component shell 2 ·k, using ANSYS to analyze the temperature distribution of the T component and the heat flux on the surface of the shell. According to the heat flux on the surface of the T component shell obtained from the ANSYS analysis, the surface heat transfer coefficient of the shell is manually calculated through the natural convection characteristic number correlation. Next, set the initial value 8W / m 2 Comparing k with the surface heat transfer coefficient calculated manually, if the error is within the acceptable range, then determine the surface heat transfer coefficient as the calculated surface heat transfer coef...
Embodiment 2
[0078] The object that embodiment 2 detects is the T assembly after adding the copper cold plate, and the concrete steps that adopt are as follows:
[0079] Step 101, determining the surface heat transfer coefficient of the T component shell after adding the copper cold plate;
[0080] Specifically, first determine an initial value of 8W / m for the surface heat transfer coefficient of the T component shell after adding the copper cold plate 2 k, using ANSYS software to analyze the temperature distribution of the T component after adding the copper cold plate and the heat flux density on the shell surface, according to the ANSYS analysis, the heat flux density on the shell surface of the T component after adding the copper cold plate is obtained, and then through the natural convection characteristics The surface heat transfer coefficient of the shell is calculated manually using numerical correlation. Next, set the initial value 8W / m 2 Comparing k with the surface heat transf...
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