5G communication module multi-protocol conversion device and use method thereof

Abstract

The invention relates to the technical field of protocol conversion devices, in particular to a 5G communication module multi-protocol conversion device and a using method thereof.The 5G communication module multi-protocol conversion device comprises a device shell and a driving heat dissipation assembly, one end of the device shell is rotationally connected with the driving heat dissipation assembly through a hinge, and the inner side of the driving heat dissipation assembly is fixedly connected with a first bolt through a first drying plate; an air outlet is formed in the inner side of the rear end of the device shell, the rear end of the driving heat dissipation assembly is fixedly connected with an air inlet filtering and drying assembly through bolts, the inner side of the driving heat dissipation assembly is rotationally connected with a cooling air outlet assembly, and the bottom end of the cooling air outlet assembly is fixedly connected with a temperature monitoring assembly; according to the circuit board heat dissipation device, effective heat dissipation can be conducted on a hot spot area in a targeted mode according to the heat distribution condition of a circuit board, and meanwhile it can be prevented that moisture enters the device, and the use safety of the device is affected.

Description

Technical Field

[0001] The present invention relates to the technical field of protocol conversion devices, and specifically to a 5G communication module multi-protocol conversion device and a method for using the same. Background Art

[0002] The 5G communication module multi-protocol conversion device is an advanced communication device that can realize data conversion and compatibility processing between 5G networks and other communication protocols. This device integrates multiple communication technologies to enable devices to communicate across different networks and protocols. It is widely used in the fields of Internet of Things, smart manufacturing, smart cities, etc., improving the flexibility and scalability of communication and ensuring seamless connection and data exchange between different devices and systems. A multi-protocol converter is a communication device designed to convert data and interoperate between multiple different communication protocols. This device is essential to ensure that different devices and systems can communicate with each other, especially in an environment where multiple communication technologies coexist; The 5G communication module multi-protocol conversion device used in a humid environment needs to take into account both heat dissipation and moisture-proof performance. However, the existing technology often only solves one of the problems: either focusing on improving the sealing of the equipment to prevent moisture, or only focusing on improving the heat dissipation performance. This single solution is difficult to ensure the long-term stability and safety of the equipment under humid conditions in practical applications. Therefore, there is an urgent need for a comprehensive design solution that can effectively dissipate heat and prevent moisture, so as to improve the reliability and service life of the equipment in complex environments. Therefore, a 5G communication module multi-protocol conversion device and a method of using the same are proposed to address the above problems. Summary of the invention

[0003] The purpose of the present invention is to provide a 5G communication module multi-protocol conversion device and a method of using the same, so as to solve the problem of a comprehensive design scheme that can both effectively dissipate heat and prevent moisture, so as to improve the reliability and service life of the equipment in complex environments.

[0004] To achieve the above object, the present invention provides the following technical solutions: A 5G communication module multi-protocol conversion device and a method for using the same, comprising a device housing and a drive heat dissipation component, wherein one end of the device housing is rotatably connected to the drive heat dissipation component through a hinge, the inner side of the drive heat dissipation component is fixedly connected to a first bolt through a first drying plate, an air outlet is provided on the inner side of the rear end of the device housing, an air intake filter drying component is fixedly connected to the rear end of the drive heat dissipation component through bolts, a cooling air outlet component is rotatably connected to the inner side of the drive heat dissipation component, a monitoring temperature component is fixedly connected to the bottom end of the cooling air outlet component, the drive heat dissipation component comprises a ventilation cover plate, an organic gas groove is provided on the inner side of the ventilation cover plate, a first servo motor is fixedly connected to the upper end of the organic gas groove provided by the ventilation cover plate, a connecting channel is provided on the inner side of the ventilation cover plate, a fan is fixedly connected to the inner side of the connecting channel provided by the ventilation cover plate, and two grooves are provided on the inner side of the ventilation cover plate near the air intake filter drying component, the monitoring temperature component comprises a detection disk shell, an air storage groove is provided on the inner side of the detection disk shell, and a heat conductive metal is fixedly connected to the inner side of the lower end of the detection disk shell, The upper end of the gas storage groove provided in the detection disk shell is fixedly connected with an inner hole ring, the inner side of the front end of the detection disk shell is provided with a limited position rail groove, the bottom end of the inner hole ring is fixedly connected with a telescopic rod, the bottom end of the telescopic rod is fixedly connected with an outer sealing movable column, the inner side of the gas storage groove provided in the detection disk shell is fixedly connected with a first electrical contact piece, and the top end of the outer sealing movable column is fixedly connected with a second electrical contact piece, the cooling air outlet component comprises a second servo motor, a threaded rotating rod is fixedly connected with the end of the main shaft of the second servo motor, an internal threaded slider is spirally connected to the outer side of the threaded rotating rod, an air nozzle is fixedly connected to the bottom end of the internal threaded slider, a spiral hose is fixedly connected to the inner side of the internal threaded slider, one end of the spiral hose is fixedly connected with an inner metal shell, a limited position circular rotating ring is fixedly connected to the outer side of the internal metal shell, a rubber ring is fixedly connected to the outer side of the limited position circular rotating ring, and a connecting multi-hole is provided on the inner side of the upper end of the inner metal shell, the second servo motor is fixedly connected to one side of the limited position rail groove provided in the detection disk shell, and the top end of the detection disk shell is fixedly connected to the end of the main shaft of the first servo motor.

[0005] As a further optimized content of the present invention, the air intake filter and drying assembly includes a second drying plate, a middle solid connecting block is fixedly connected to the rear end of the second drying plate, a filter element is fixedly connected to the rear end of the middle solid connecting block, an air intake through hole is opened on the inner side of the filter element, and a second bolt is spirally attached to the inner side of the filter element.

[0006] As a further optimization of the present invention, the filter is fixedly connected to the inner sides of the grooves on both sides opened at the rear end of the ventilation cover by second bolts, the number of the second bolts is two, sealing rings are installed on the inner sides of the grooves on both sides opened in the ventilation cover, the outer side of the filter fits with the sealing rings on the inner sides of the grooves on both sides, and the outer side of the second drying plate fits with the inner sides of the grooves on both sides opened in the ventilation cover.

[0007] As a further optimization of the present invention, a sealing ring is installed at the bottom end of the ventilation cover plate, and the bottom end of the ventilation cover plate is fitted with the top end of the device shell through the sealing ring, and the top view size of the ventilation cover plate is the same as the top view size of the device shell.

[0008] As further optimized content of the present invention, the upper end of the inner metal shell protrudes from the interior of the machine air groove, the machine air groove is connected with the connecting multiple holes, the inner side of the lower end of the ventilation cover is rotatably connected with the limiting circular rotating ring, the outer side of the inner metal shell is fitted with the inner side of the ventilation cover, the opening shape of the connecting channel is a cylinder, the machine air groove is connected with the connecting channel, the connecting channel is connected with the grooves on both sides, and the opening shape of the grooves on both sides is two sections of a rectangular body.

[0009] As further optimized content of the present invention, the detection disk shell is shaped like a slotted cylinder, the detection disk shell is located inside the device shell, a spacing is arranged between the top end of the detection disk shell and the bottom end of the ventilation cover plate, the opening shape of the gas storage groove is a cylinder at both ends, the gas storage groove passes through the interior of the detection disk shell, the heat-conducting metal is installed inside the lower end of the detection disk shell, the inner side of the inner hole ring is hollow, the top end of the inner hole ring is flush with the top end of the detection disk shell, and the number of the inner hole rings corresponds one to one to the number of the gas storage grooves.

[0010] As a further optimization of the present invention, the controller is arranged inside the detection disk shell, the outer sealing movable column is in the shape of a cylinder, a sealing ring is installed on the outer side of the outer sealing movable column, the second electrical contact is connected to the negative pole of the controller inside the detection disk shell through the outer sealing movable column, and the first electrical contact is connected to the positive pole of the controller inside the detection disk shell through the detection disk shell.

[0011] As a further optimization of the present invention, the threaded rotating rod is rotatably connected to the inner side of the limiting rail groove opened in the detection disk shell, the internal threaded slider is slidably connected to the inner side of the limiting rail groove opened in the detection disk shell through the limiting slider, a threaded hole is opened on the inner side of the internal threaded slider, and a through hole is opened on the inner side of the lower end of the internal threaded slider.

[0012] As further optimized content of the present invention, the spiral hose is located inside the limiting rail groove, the inner side of the spiral hose is hollow, the spiral hose is connected to the inside of the air nozzle through an internal threaded slider, the inner side of the spiral hose is connected to the inner side of the inner metal shell, the inner side of the lower end of the inner metal shell is a through structure, the connecting porous structure is connected to the inside of the inner metal shell, the outer side of the limiting circular rotating ring is fitted with the inner side of the ventilation cover plate, the limiting circular rotating ring is shaped like a circular ring, and the bottom end of the inner metal shell is fixedly connected to the top end of the detection disk shell.

[0013] A method for using a 5G communication module multi-protocol conversion device, S1: To achieve accurate and rapid heat dissipation of the circuit board inside the device shell, according to the signal transmission position inside the monitoring temperature component, the first servo motor is controlled to start through the controller inside the detection disk shell, and the first servo motor drives the inner metal shell fixedly connected to the end of the main shaft to rotate, and the inner metal shell is rotatably connected to the inner side of the ventilation cover through the limiting circular rotating ring, and the rotation of the inner metal shell drives the detection disk shell fixedly connected to the bottom end to rotate, and the rotation of the detection disk shell drives the entire device at the lower end inside to rotate together, and when the limiting rail groove is aligned with the position of the circuit board inside the device shell that needs heat dissipation, the second servo motor drives the threaded rotating rod to rotate, and the threaded rotating rod is rotatably connected to the inner side of the limiting rail groove, and the rotation of the threaded rotating rod drives the inner threaded slider connected to the outer spiral to move, and the inner threaded slider is slidably connected to the inner side of the limiting rail groove opened in the detection disk shell, and the movement of the inner threaded slider drives The spiral hose fixedly connected on the inner side stretches. The spiral hose is a hose and does not affect the normal movement of the internal threaded slider. It is convenient for transmitting cold air. The spiral hose moves inside the limit rail groove. At the same time, the spiral hose is sleeved on the outside of the threaded rotating rod. The threaded rotating rod can prevent the spiral hose from falling. When the air nozzle moves to the position where the circuit board needs to dissipate heat, the fan is started to transport the gas. The external air enters the grooves on both sides through the air intake filter drying assembly, enters the connecting channel and the machine gas groove from the grooves on both sides, and then enters the interior of the internal metal shell from the connecting multiple holes opened at the upper end of the internal metal shell. The bottom of the internal metal shell is blocked by the detection disk shell. At this time, the gas can only enter the internal threaded slider and the air nozzle from the spiral hose, and then spray out from the inside of the air nozzle. The gas flows out from the device shell through the first drying plate and the air outlet to discharge the hot air. S2: When the temperature of the circuit board inside the device shell is monitored in real time, the gas storage groove and the heat-conducting metal are distributed on the upper part of the circuit board. When the circuit board inside the device shell is partially overheated, the heat is released from the heat-conducting metal, and the inside of the gas storage groove is heated by the heat-conducting metal. Under the action of thermal expansion and contraction of the gas, the outer sealing movable column moves upward, and the outer side of the outer sealing movable column is sealed with the detection disk shell through the sealing ring. The movement of the outer sealing movable column drives the telescopic rod fixedly connected to the top to contract. When the second electric contact fixedly connected to the top of the outer sealing movable column contacts the first electric contact fixed to the inner side of the detection disk shell through the gas storage groove, the control inside the detection disk shell, the first electric contact and the second electric contact form a loop. S3: When the device is moisture-proof, the device shell and the drive heat dissipation component are fitted together through a sealing ring, the device shell is fixedly connected to the first drying plate by a first bolt to block the air outlet, the rear side of the first drying plate is tightly attached to the inner side of the device shell, the gas flowing from the air outlet can only pass through the inside of the first drying plate, and the ventilation cover is fixedly connected to the filter by the second bolt, the air entering from the air inlet hole can only pass through the inside of the second drying plate, and the outer side of the second drying plate is tightly attached to the sealing ring fixed to the inner side of the ventilation cover.

[0014] Compared with the prior art, the present invention has the following beneficial effects: 1. In the present invention, by setting a driving heat dissipation component, a temperature monitoring component and a cooling air outlet component, the device uses the internal controller of the detection disk shell to accurately control the first servo motor, and the rotation connection between the inner metal shell and the limit circular rotating ring, so as to achieve accurate heat dissipation of a specific position of the circuit board inside the device shell. This design ensures that the heat dissipation system can effectively dissipate heat in the hot spot area according to the heat distribution of the circuit board, and realizes the rapid response and efficient operation of the heat dissipation system. The use of the spiral hose not only facilitates the transmission of cold air, but also ensures that the heat dissipation gas can flexibly reach the area where heat dissipation is required, thereby improving the heat dissipation efficiency. 2. In the present invention, by providing the outer sealing movable column, the telescopic rod, the first electrical contact piece and the second electrical contact piece, the device forms a plurality of temperature monitoring circuits. This design can respond in time when the circuit board is partially overheated, start the first servo motor and the second servo motor for heat dissipation, realize the real-time monitoring of the temperature of the circuit board inside the device housing, and improve the reliability and safety of the system; 3. In the present invention, by setting the first drying plate, the air outlet and the air inlet filter drying assembly, the device achieves a moisture-proof effect, while ensuring that the moisture entering the air is effectively dried, preventing the humid environment from affecting the safety of the device. This design not only improves the heat dissipation performance, but also enhances the stability and service life of the device in a humid environment. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the housing structure of the device of the present invention; Figure 3 This is a schematic diagram of the air outlet structure of the present invention; Figure 4 This is a schematic diagram of the structure of the drive heat dissipation component of the present invention; Figure 5 For the present invention Figure 4 A schematic diagram of the structure at A; Figure 6 This is a schematic diagram of the structure of the air intake filter and drying assembly of the present invention; Figure 7 This is a schematic diagram of the detection disk shell structure of the present invention; Figure 8 For the present invention Figure 7 Schematic diagram of the structure at B; Fig. 9 This is a schematic diagram of the limit rail groove structure of the present invention; Fig.10 This is a schematic diagram of the structure of the cooling air outlet component of the present invention.

[0016] In the figure: 1. Device housing; 2. Drive heat dissipation assembly; 21. Ventilation cover; 22. Machine air slot; 23. First servo motor; 24. Connecting channel; 25. Fan; 26. Double grooves; 3. First bolt; 4. First drying plate; 5. Air outlet; 6. Intake filter drying assembly; 61. Second drying plate; 62. Middle solid connection block; 63. Filter; 64. Intake through hole; 65. Second bolt; 7. Monitoring temperature assembly; 71. Detection disk shell; 72. Gas storage groove; 73. Heat-conducting metal; 74. Inner hole ring; 75. Limiting rail groove; 76. Telescopic rod; 77. External sealing movable column; 78. First electrical contact; 79. Second electrical contact; 8. Cooling air outlet assembly; 81. Second servo motor; 82. Threaded rotating rod; 83. Internal threaded slider; 84. Air nozzle; 85. Spiral hose; 86. Internal metal shell; 87. Limiting circular rotating ring; 88. Rubber ring; 89. Connecting multiple holes. DETAILED DESCRIPTION

[0017] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0018] It should be noted that the terms used herein are only for describing specific embodiments and are not intended to limit the exemplary embodiments according to the present application. As used herein, unless the context clearly indicates otherwise, the singular form is also intended to include the plural form. In addition, it should be understood that when the terms "comprise" and / or "include" are used in this specification, it indicates the presence of features, steps, operations, devices, components and / or combinations thereof.

[0019] See also Figure 1-10 , the present invention provides a technical solution: A 5G communication module multi-protocol conversion device and a method of using the same include a device housing 1 and a drive heat dissipation component 2. One end of the device housing 1 is rotatably connected to the drive heat dissipation component 2 through a hinge. The inner side of the drive heat dissipation component 2 is fixedly connected to a first bolt 3 through a first drying plate 4. An air outlet 5 is provided on the inner side of the rear end of the device housing 1. The rear end of the drive heat dissipation component 2 is fixedly connected to an air intake filter drying component 6 through bolts. The inner side of the drive heat dissipation component 2 is rotatably connected to a cooling outlet component 8. The bottom end of the cooling outlet component 8 is fixedly connected to a monitoring temperature component 7. The drive heat dissipation component 2 includes a ventilation The cover plate 21 has an organic gas groove 22 on the inner side of the ventilation cover plate 21, and the upper end of the organic gas groove 22 on the ventilation cover plate 21 is fixedly connected to a first servo motor 23, and a connecting channel 24 is provided on the inner side of the ventilation cover plate 21, and a fan 25 is fixedly connected to the inner side of the connecting channel 24 provided on the ventilation cover plate 21, and the ventilation cover plate 21 has a double groove 26 on the inner side near the air intake filter drying component 6, and the monitoring temperature component 7 includes a detection disk shell 71, and the detection disk shell 71 has an air storage groove 72 on the inner side, and the inner side of the lower end of the detection disk shell 71 is fixedly connected to a heat conductive metal 73, and the detection disk shell 71 has a The upper end of the gas storage groove 72 is fixedly connected to an inner hole ring 74, a limited position track groove 75 is provided on the inner side of the front end of the detection disk shell 71, a telescopic rod 76 is fixedly connected to the bottom end of the inner hole ring 74, and an outer sealing movable column 77 is fixedly connected to the bottom end of the telescopic rod 76. A first electrical contact piece 78 is fixedly connected to the inner side of the gas storage groove 72 provided in the detection disk shell 71, and a second electrical contact piece 79 is fixedly connected to the top of the outer sealing movable column 77. The cooling gas outlet component 8 includes a second servo motor 81, and a threaded rotating rod 82 is fixedly connected to the end of the main shaft of the second servo motor 81. The outer side of the threaded rotating rod 82 is spirally connected to an inner threaded rotating rod 82. A grooved slider 83, the bottom end of the internally threaded slider 83 is fixedly connected to an air nozzle 84, the inner side of the internally threaded slider 83 is fixedly connected to a spiral hose 85, one end of the spiral hose 85 is fixedly connected to an inner metal shell 86, the outer side of the inner metal shell 86 is fixedly connected to a limited circular rotating ring 87, the outer side of the limited circular rotating ring 87 is fixedly connected to a rubber ring 88, the inner side of the upper end of the inner metal shell 86 is provided with connecting multiple holes 89, the second servo motor 81 is fixedly connected to one side of the limited rail groove 75 opened in the detection disk housing 71, and the top of the detection disk housing 71 is fixedly connected to the end of the spindle of the first servo motor 23.

[0020] As a further implementation of the present scheme, the air intake filter drying assembly 6 includes a second drying plate 61, a middle solid connection block 62 is fixedly connected to the rear end of the second drying plate 61, a filter 63 is fixedly connected to the rear end of the middle solid connection block 62, an air intake through hole 64 is provided on the inner side of the filter 63, a second bolt 65 is spirally attached to the inner side of the filter 63, the filter 63 is fixedly connected to the inner side of the two side grooves 26 provided at the rear end of the ventilation cover plate 21 through the second bolt 65, the number of the second bolts 65 is two, a sealing ring is installed on the inner side of the two side grooves 26 provided on the ventilation cover plate 21, the outer side of the filter 63 is attached to the sealing ring on the inner side of the two side grooves 26, the outer side of the second drying plate 61 is attached to the inner side of the two side grooves 26 provided on the ventilation cover plate 21, a comprehensive design of heat dissipation and sealing is realized, the air intake through hole 64 on the inner side of the filter 63 and the second bolt 65 spirally attached, as well as the sealing ring on the inner side of the two side grooves 26, provide a good sealing effect to prevent gas overflow, and also realize the effective transmission and heat dissipation of cold air; As a further implementation of the present scheme, a sealing ring is installed at the bottom end of the ventilation cover plate 21, and the bottom end of the ventilation cover plate 21 is fitted with the top end of the device shell 1 through the sealing ring. The top view size of the ventilation cover plate 21 is the same as the top view size of the device shell 1. The upper end of the inner metal shell 86 protrudes from the inside of the machine gas groove 22, and the machine gas groove 22 is connected to the connecting porous 89. The inner side of the lower end of the ventilation cover plate 21 is rotatably connected to the limiting circular rotating ring 87, and the outer side of the inner metal shell 86 is fitted with the inner side of the ventilation cover plate 21. The opening shape of the connecting channel 24 is a cylinder, the machine gas groove 22 is connected to the connecting channel 24, and the connecting channel 24 is connected to the grooves 26 on both sides. The opening shape of the grooves 26 on both sides is two sections of rectangular bodies, which ensures the stability and matching of the device. This design makes the bottom end of the ventilation cover plate 21 fit with the top end of the device shell 1 through the sealing ring, thereby improving the stability of the overall structural sealing; As a further implementation of the present scheme, the shape of the detection disk shell 71 is a grooved cylinder, the detection disk shell 71 is inside the device shell 1, and a spacing is set between the top of the detection disk shell 71 and the bottom of the ventilation cover 21. The opening shape of the gas storage groove 72 is a cylinder at both ends, and the gas storage groove 72 runs through the interior of the detection disk shell 71. The heat-conducting metal 73 is installed inside the lower end of the detection disk shell 71. The inner side of the inner hole ring 74 is hollow, and the top of the inner hole ring 74 is flush with the top of the detection disk shell 71. The number of inner hole rings 74 corresponds to the number of gas storage grooves 72. A controller is set inside the detection disk shell 71, and the shape of the outer sealing movable column 77 is The outer sealing movable column 77 is cylindrical, and a sealing ring is installed on the outside of the outer sealing movable column 77. The second electrical contact 79 is connected to the negative pole of the controller inside the detection disk housing 71 through the outer sealing movable column 77, and the first electrical contact 78 is connected to the positive pole of the controller inside the detection disk housing 71 through the detection disk housing 71. The device can accurately control the internal thermal management. The controller inside the detection disk housing 71 can accurately control the start of the first servo motor 23 and the second servo motor 81 to achieve rapid heat dissipation of the circuit board inside the device housing 1. The cylindrical shape of the outer sealing movable column 77 and the sealing ring installation, as well as the connection with the controller inside the detection disk housing 71, form an effective temperature monitoring circuit. As a further implementation of the present invention, the threaded rotating rod 82 is rotatably connected to the inner side of the limiting rail groove 75 opened in the detection disk housing 71, the internal threaded slider 83 is slidably connected to the inner side of the limiting rail groove 75 opened in the detection disk housing 71 through the limiting slider, a threaded hole is opened on the inner side of the internal threaded slider 83, a through hole is opened on the inner side of the lower end of the internal threaded slider 83, the spiral hose 85 is inside the limiting rail groove 75, the inner side of the spiral hose 85 is hollow, the spiral hose 85 is connected to the inside of the air nozzle 84 through the internal threaded slider 83, and the inner side of the spiral hose 85 is connected to the inner side of the air nozzle 84. The inner side of the inner metal shell 86 is connected, the inner side of the lower end of the inner metal shell 86 is a through structure, the connecting holes 89 are connected to the inside of the inner metal shell 86, the outer side of the limiting circular rotating ring 87 is fitted with the inner side of the ventilation cover plate 21, the shape of the limiting circular rotating ring 87 is a circular ring, the bottom end of the inner metal shell 86 is fixedly connected to the top of the detection disk shell 71, and an efficient heat dissipation channel is realized. The hose design of the spiral hose 85 facilitates the transmission of cold air. At the same time, the through structure of the inner metal shell 86 and the connection with the connecting holes 89 ensure the effective heat dissipation of hot air; Working process: when realizing accurate and rapid heat dissipation of the circuit board inside the device housing 1, according to the signal transmission position inside the monitoring temperature component 7, the controller inside the detection disk housing 71 controls the first servo motor 23 to start, and the first servo motor 23 drives the inner metal shell 86 fixedly connected to the end of the main shaft to rotate, and the inner metal shell 86 is rotatably connected to the inner side of the ventilation cover plate 21 through the limit circular rotating ring 87, which plays a role in limiting the rotation of the inner metal shell 86, and the rubber ring 88 plays a role in sealing between the ventilation cover plate 21 and the inner metal shell 86, which can prevent gas from overflowing, and the rotation of the inner metal shell 86 drives The detection disk shell 71 fixedly connected at the bottom end rotates, and the rotation of the detection disk shell 71 drives the entire device at the lower end inside to rotate together. When the limiting rail groove 75 is aligned with the position of the circuit board inside the device shell 1 that needs heat dissipation, the second servo motor 81 is started, and the second servo motor 81 drives the threaded rotating rod 82 to rotate. The threaded rotating rod 82 is rotatably connected to the inner side of the limiting rail groove 75 to improve the stability of the threaded rotating rod 82 when rotating. The rotation of the threaded rotating rod 82 drives the internal threaded slider 83 spirally connected on the outside to move. The internal threaded slider 83 is slidably connected to the inner side of the limiting rail groove 75 opened in the detection disk shell 71, which plays a role in the moving direction of the internal threaded slider 83 The inner thread slider 83 moves to extend the spiral hose 85 fixed inside. The spiral hose 85 is a hose and does not affect the normal movement of the inner thread slider 83. It is convenient for cold air transmission. The spiral hose 85 moves inside the limiting rail groove 75. At the same time, the spiral hose 85 is sleeved on the outside of the threaded rotating rod 82. The threaded rotating rod 82 can prevent the spiral hose 85 from falling. When the air nozzle 84 moves to the position where the circuit board needs to dissipate heat, the fan 25 is started to transport the gas. The external air passes through the air intake filter drying component 6 and enters the inside of the grooves 26 on both sides, and enters the connecting channel 24 and The inside of the machine gas groove 22, and then enter the inside of the inner metal shell 86 from the connecting holes 89 opened at the upper end of the inner metal shell 86, the bottom of the inner metal shell 86 is blocked by the detection disk shell 71, at this time, the gas can only enter the inside of the internal thread slider 83 and the air nozzle 84 from the spiral hose 85, and then spray out from the inside of the air nozzle 84, so as to achieve the effect of quickly cooling the circuit board inside the device housing 1, and the gas flows out from the device housing 1 through the first drying plate 4 and the air outlet 5, and the hot air is discharged, and at the same time, the specified position of the circuit board can be accurately cooled, so as to improve the heat dissipation efficiency and ensure the safety of the circuit board inside the device housing 1; When the temperature of the circuit board inside the device housing 1 is monitored in real time, the gas storage groove 72 and the heat-conducting metal 73 are distributed throughout the upper part of the circuit board. When the circuit board inside the device housing 1 is partially overheated, the heat is released from the heat-conducting metal 73, and the inside of the gas storage groove 72 is heated by the heat-conducting metal 73. Under the action of thermal expansion and contraction of the gas, the outer sealing movable column 77 moves upward, and the outer side of the outer sealing movable column 77 is sealed with the detection disk housing 71 through the sealing ring to prevent the gas below the outer sealing movable column 77 from overflowing. The movement of the outer sealing movable column 77 drives the telescopic rod 76 fixedly connected at the top to contract. When the second electrical contact 79 fixedly connected at the top of the outer sealing movable column 77 contacts the first electrical contact 78 fixed on the inner side of the detection disk housing 71 through the gas storage groove 72, the control inside the detection disk housing 71, the first electrical contact 78 and the second electrical contact 79 form a loop, and the first servo motor 23 and the second servo motor 81 are controlled by the controller inside the detection disk housing 71 to start, thereby achieving the effect of real-time monitoring of the temperature of the circuit board inside the device housing 1. When the device is moisture-proof, the device housing 1 and the driving heat dissipation component 2 are fitted together through a sealing ring, which plays a role in sealing the device housing 1 and the driving heat dissipation component 2 to prevent external moisture from entering from the contact surface between the device housing 1 and the driving heat dissipation component 2. The device housing 1 is fixedly connected to the first drying plate 4 by a first bolt 3 to block the air outlet 5. The rear side of the first drying plate 4 is tightly attached to the inner side of the device housing 1. The gas flowing from the air outlet 5 can only pass through the inside of the first drying plate 4. The first drying plate 4 has the effect of drying the gas. The air outlet 5 has the effect of blocking external debris. At the same time, the ventilation cover 21 is fixedly connected to the filter 63 by the second bolt 65. The filter 63 has the effect of blocking external debris. The air entering from the air inlet hole 64 can only pass through the inside of the second drying plate 61. The outer side of the second drying plate 61 is tightly attached to the sealing ring fixed on the inner side of the ventilation cover 21. The second drying plate 61 has the effect of drying the moisture in the incoming air, thereby achieving not only heat dissipation, but also preventing the moisture in the humid environment from affecting the safety of the device.

[0021] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A 5G communication module multi-protocol conversion device, comprising a device housing (1) and a drive heat dissipation component (2), characterized in that: One end of the device housing (1) is rotatably connected to a driving heat dissipation component (2) via a hinge, the inner side of the driving heat dissipation component (2) is fixedly connected to a first bolt (3) via a first drying plate (4), an air outlet (5) is provided on the inner side of the rear end of the device housing (1), the rear end of the driving heat dissipation component (2) is fixedly connected to an air intake filter drying component (6) via bolts, the inner side of the driving heat dissipation component (2) is rotatably connected to a cooling air outlet component (8), and the bottom end of the cooling air outlet component (8) is fixedly connected to a monitoring temperature component (7); The driving heat dissipation component (2) comprises a ventilation cover plate (21), an organic gas groove (22) is provided on the inner side of the ventilation cover plate (21), a first servo motor (23) is fixedly connected to the upper end of the organic gas groove (22) provided on the ventilation cover plate (21), a connecting channel (24) is provided on the inner side of the ventilation cover plate (21), a fan (25) is fixedly connected to the inner side of the connecting channel (24) provided on the ventilation cover plate (21), and a ventilation cover plate (21) is provided on the inner side close to the air intake filter drying component (6). The two-sided groove (26), the temperature monitoring component (7) comprises a detection disk shell (71), the inner side of the detection disk shell (71) is provided with a gas storage groove (72), the inner side of the lower end of the detection disk shell (71) is fixedly connected with a heat conductive metal (73), the upper end of the gas storage groove (72) provided in the detection disk shell (71) is fixedly connected with an inner hole ring (74), the inner side of the front end of the detection disk shell (71) is provided with a limit rail groove (75), and the bottom end of the inner hole ring (74) is fixedly connected with a telescopic rod (76) ), the bottom end of the telescopic rod (76) is fixedly connected to an outer sealing movable column (77), the inner side of the gas storage groove (72) provided in the detection disk shell (71) is fixedly connected to a first electrical contact (78), the top end of the outer sealing movable column (77) is fixedly connected to a second electrical contact (79), the cooling air outlet assembly (8) comprises a second servo motor (81), the end of the main shaft of the second servo motor (81) is fixedly connected to a threaded rotating rod (82), and the outer side of the threaded rotating rod (82) is spirally connected to an inner threaded rotating rod (82). A threaded slider (83), the bottom end of the internally threaded slider (83) is fixedly connected to an air nozzle (84), the inner side of the internally threaded slider (83) is fixedly connected to a spiral hose (85), one end of the spiral hose (85) is fixedly connected to an inner metal shell (86), the outer side of the inner metal shell (86) is fixedly connected to a limited circular rotating ring (87), the outer side of the limited circular rotating ring (87) is fixedly connected to a rubber ring (88), and the inner side of the upper end of the inner metal shell (86) is provided with a plurality of interconnecting holes (89); The second servo motor (81) is fixedly connected to one side of a limiting rail groove (75) opened in the detection disk housing (71), and the top end of the detection disk housing (71) is fixedly connected to the end of the main shaft of the first servo motor (23).

2. A 5G communication module multi-protocol conversion device according to claim 1, characterized in that: The air intake filter drying assembly (6) comprises a second drying plate (61), the rear end of the second drying plate (61) being fixedly connected to a middle solid connection block (62), the rear end of the middle solid connection block (62) being fixedly connected to a filter element (63), an air intake through hole (64) being provided on the inner side of the filter element (63), and a second bolt (65) being spirally attached to the inner side of the filter element (63).

3. A 5G communication module multi-protocol conversion device according to claim 2, characterized in that: The filter (63) is fixedly connected to the inner sides of the double grooves (26) provided at the rear end of the ventilation cover (21) by means of second bolts (65). The number of the second bolts (65) is two. The inner sides of the double grooves (26) provided at the ventilation cover (21) are provided with sealing rings. The outer sides of the filter (63) are fitted with the sealing rings provided at the inner sides of the double grooves (26). The outer sides of the second drying plate (61) are fitted with the inner sides of the double grooves (26) provided at the ventilation cover (21).

4. A 5G communication module multi-protocol conversion device according to claim 1, characterized in that: A sealing ring is installed at the bottom end of the ventilation cover plate (21), and the bottom end of the ventilation cover plate (21) is fitted with the top end of the device housing (1) via the sealing ring. The top view dimensions of the ventilation cover plate (21) are the same as the top view dimensions of the device housing (1).

5. A 5G communication module multi-protocol conversion device according to claim 1, characterized in that: The upper end of the inner metal shell (86) protrudes from the interior of the machine gas groove (22), the machine gas groove (22) is connected to the connecting multiple holes (89), the inner side of the lower end of the ventilation cover (21) is rotatably connected to the limiting circular rotating ring (87), the outer side of the inner metal shell (86) is fitted with the inner side of the ventilation cover (21), the opening shape of the connecting channel (24) is a cylinder, the machine gas groove (22) is connected to the connecting channel (24), the connecting channel (24) is connected to the two side grooves (26), and the opening shape of the two side grooves (26) is two sections of a rectangular body.

6. A 5G communication module multi-protocol conversion device according to claim 1, characterized in that: The detection disk shell (71) is in the shape of a grooved cylinder. The detection disk shell (71) is located inside the device housing (1). A spacing is provided between the top end of the detection disk shell (71) and the bottom end of the ventilation cover plate (21). The opening shape of the gas storage groove (72) is a cylinder with two ends. The gas storage groove (72) penetrates the inside of the detection disk shell (71). The heat conductive metal (73) is installed inside the lower end of the detection disk shell (71). The inner side of the inner hole ring (74) is hollow. The top end of the inner hole ring (74) is flush with the top end of the detection disk shell (71). The number of the inner hole rings (74) corresponds to the number of the gas storage grooves (72).

7. A 5G communication module multi-protocol conversion device according to claim 1, characterized in that: A controller is arranged inside the detection disk housing (71); the outer sealing movable column (77) is in the shape of a cylinder; a sealing ring is installed outside the outer sealing movable column (77); the second electrical contact (79) is connected to the negative electrode of the controller inside the detection disk housing (71) through the outer sealing movable column (77); and the first electrical contact (78) is connected to the positive electrode of the controller inside the detection disk housing (71) through the detection disk housing (71).

8. A 5G communication module multi-protocol conversion device according to claim 1, characterized in that: The threaded rotating rod (82) is rotatably connected to the inner side of a limiting rail groove (75) provided in the detection disk housing (71); the internal threaded slider (83) is slidably connected to the inner side of the limiting rail groove (75) provided in the detection disk housing (71) via the limiting slider; a threaded hole is provided on the inner side of the internal threaded slider (83); and a through hole is provided on the inner side of the lower end of the internal threaded slider (83).

9. A 5G communication module multi-protocol conversion device according to claim 1, characterized in that: The spiral hose (85) is located inside the limiting rail groove (75); the inner side of the spiral hose (85) is hollow; the spiral hose (85) is connected to the inside of the air nozzle (84) through the internal threaded slider (83); the inner side of the spiral hose (85) is connected to the inner side of the inner metal shell (86); the inner side of the lower end of the inner metal shell (86) is a through structure; the communicating multi-hole (89) is connected to the inside of the inner metal shell (86); the outer side of the limiting circular rotating ring (87) is fitted with the inner side of the ventilation cover plate (21); the limiting circular rotating ring (87) is in the shape of a circular ring; the bottom end of the inner metal shell (86) is fixedly connected to the top end of the detection disk shell (71).

10. A method for using a 5G communication module multi-protocol conversion device according to any one of claims 1 to 9, characterized in that: S1: When achieving accurate and rapid heat dissipation of the circuit board inside the device housing (1), according to the signal transmission position inside the monitoring temperature component (7), the first servo motor (23) is controlled by the controller inside the detection disk housing (71) to start, and the first servo motor (23) drives the inner metal shell (86) fixedly connected to the end of the main shaft to rotate, and the inner metal shell (86) is rotatably connected to the inner side of the ventilation cover (21) through the limit circular rotating ring (87), and the rotation of the inner metal shell (86) drives the detection disk housing (71) fixedly connected to the bottom end to rotate, and the detection disk housing (71) ) rotates to drive the entire device at the lower end inside to rotate together. When the limiting rail groove (75) is aligned with the position of the circuit board inside the device housing (1) that needs heat dissipation, the second servo motor (81) drives the threaded rotating rod (82) to rotate. The threaded rotating rod (82) is rotatably connected to the inner side of the limiting rail groove (75). The threaded rotating rod (82) rotates to drive the inner threaded slider (83) connected to the outer spiral to move. The inner threaded slider (83) is slidably connected to the inner side of the limiting rail groove (75) opened in the detection disk housing (71). The movement of the inner threaded slider (83) drives the inner fixed connection The spiral hose (85) stretches. The spiral hose (85) is a hose and does not affect the normal movement of the internal thread slider (83). At the same time, it is convenient for cold air to be transmitted. The spiral hose (85) moves inside the limit rail groove (75). At the same time, the spiral hose (85) is sleeved on the outside of the threaded rotating rod (82). The threaded rotating rod (82) can prevent the spiral hose (85) from falling. When the air nozzle (84) moves to the position where the circuit board needs to dissipate heat, the fan (25) is started to transport the gas. The external air passes through the air intake filter drying component (6) and enters the grooves (2 6) inside, the gas enters the connecting channel (24) and the machine gas groove (22) from the grooves (26) on both sides, and then enters the inside of the inner metal shell (86) from the connecting holes (89) opened at the upper end of the inner metal shell (86). The bottom of the inner metal shell (86) is blocked by the detection disk shell (71). At this time, the gas can only enter the inside of the internal thread slider (83) and the air nozzle (84) from the spiral hose (85), and then be ejected from the inside of the air nozzle (84). The gas flows out from the device shell (1) through the first drying plate (4) and the air outlet (5), and the hot gas is discharged; S2: When the temperature of the circuit board inside the device housing (1) is monitored in real time, the gas storage groove (72) and the heat-conducting metal (73) are distributed on the upper part of the circuit board. When the circuit board inside the device housing (1) is partially overheated, the heat is released from the heat-conducting metal (73), and the inside of the gas storage groove (72) is heated by the heat-conducting metal (73). Under the action of thermal expansion and contraction of the gas, the outer sealing movable column (77) moves upward, and the outer side of the outer sealing movable column (77) is sealed with the detection disk housing (71) through the sealing ring. The movement of the outer sealing movable column (77) drives the telescopic rod (76) fixedly connected to the top to shrink. When the second electrical contact (79) fixedly connected to the top of the outer sealing movable column (77) contacts the first electrical contact (78) fixed to the inner side of the detection disk housing (71) through the gas storage groove (72), the control inside the detection disk housing (71), the first electrical contact (78) and the second electrical contact (79) form a loop. S3: When the device is moisture-proof, the device housing (1) and the drive heat dissipation component (2) are fitted together via a sealing ring, the device housing (1) is sealed with a first bolt (3) fixedly connected to the first drying plate (4), the rear side of the first drying plate (4) is in close contact with the inner side of the device housing (1), and the gas flowing from the gas outlet (5) can only pass through the inside of the first drying plate (4). At the same time, the ventilation cover (21) is fixedly connected to the filter (63) via a second bolt (65), and the air entering from the air inlet hole (64) can only pass through the inside of the second drying plate (61), and the outer side of the second drying plate (61) is in close contact with the sealing ring fixed to the inner side of the ventilation cover (21).

Images