Communication electronic internal element protection device with auxiliary heat dissipation structure

Abstract

The invention relates to the technical field of immunoassay analysis equipment, in particular to a communication electronic internal element protection device with an auxiliary heat dissipation structure. The device comprises a protection shell, a heat dissipation mechanism and a moving mechanism, wherein the heat dissipation mechanism and the moving mechanism are arranged in the protection shell,the heat dissipation mechanism is installed on the moving mechanism, and the moving mechanism is used for driving the heat dissipation mechanism to move up and down in a reciprocating mode. The heatdissipation mechanism comprises a planet gear set and a first motor, the planet gear set comprises an inner gear ring, a sun gear and a plurality of planet gears, the planet gears are meshed between the inner gear ring and the sun gear in a linkage mode, a center shaft of the sun gear is fixedly connected with an output shaft of the first motor, and the moving mechanism is arranged between the first motor and the bottom wall of the protection shell. A turbofan is arranged at the top of the sun gear, and an axial fan is arranged at the top of each planet gear. A plurality of air outlet channelsare formed in the side wall of the protection shell. According to the invention, efficient and uniform heat dissipation of communication electronic internal components is realized, and heat accumulation below an air inlet duct is effectively avoided.

Description

technical field [0001] The invention relates to the technical field of immune detection and analysis equipment, in particular to a protection device for internal components of communication electronics with an auxiliary heat dissipation structure. Background technique [0002] Electronic equipment refers to equipment composed of integrated circuits, transistors, electronic tubes and other electronic components that use electronic technology to play a role, including electronic computers, robots controlled by electronic computers, numerical control or program-controlled systems, etc. Electronic equipment itself is relatively fragile, and it is easy to be damaged when subjected to external force, especially after being impacted by external force, it will reduce the service life of electronic equipment, and even directly damage it. Therefore, it is necessary to protect electronic equipment. The protective case is the best way to protect electronic equipment. Direct and effectiv...

AI Technical Summary

Problems solved by technology

Electronic equipment itself is relatively fragile, and it is easy to be damaged when subjected to external force, especially after being impacted by external force, it will reduce the service life of electronic equipment, and even directly damage it. Therefore, it is necessary to protect electronic equipment. The protective case is the best way to protect electronic equipment. Direct and effective method, and electronic equipment will release a certain amount of heat during the working process. If it is placed in a protective case, the heat will easily accumulate and be difficult to dissipate, which will affect the electronic equipment. Therefore, a communication electronic device with an auxiliary heat dissipation structure is needed. Internal component protection device to solve the above problems

[0003] The auxiliary heat dissipation structure in the prior art only sets a simple axial flow fan to realize the auxiliary heat dissipation function. No matter how high the speed of the fan in the axial flow fan is, there will be no wind blowing down below the axis, but there will be no wind blowing under the axis of the fan. It is the core of heat generation, which is the main source of heat generation. This situation has caused the inherent defects of traditional axial flow fans. Blocked by the motor, the airflow cannot reach the central part smoothly, resulting in a "blind area". The existence of the blind area causes the radiator to The temperature of the core part is high, which affects the overall heat dissipation effect; in addition, the fan in the prior art is often located at a specific position for air supply, making the lower part of the air inlet of the fan a heat-intensive area, resulting in low heat dissipation efficiency

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