An LRM structure power distribution module based on heat dissipation control components

Abstract

The present invention relates to the technical field related to power distribution modules, and discloses an LRM structure power distribution module based on a heat dissipation control component, comprising a shell, a detachable module A and a detachable module B are installed on one side of the shell, a first heat dissipation port is respectively provided on the two end walls of the shell, each first heat dissipation port is installed with a radiator, and heat dissipation control components are provided at both ends of the interior of the shell; the present invention can adjust the ventilation volume in the second heat dissipation port by moving the baffle to facilitate heat dissipation control; by moving each pair of second slides away from each other and being fixed with a number of first partitions, the width of each group of adsorption particles between the second slides and the first partitions is gradually reduced, thereby gradually increasing the height of each group of adsorption particles, so as to improve the adsorption effect of each group of adsorption particles on the gas, and can adjust the filtering effect in the processing component according to the ventilation volume adjusted by the heat dissipation control component, thereby realizing heat dissipation control inside the shell and preventing dust from entering the shell.

Description

Technical Field

[0001] The present invention belongs to the technical field related to power distribution modules, and more specifically, relates to an LRM structure power distribution module based on a heat dissipation control component. Background Art

[0002] The LRM (Low Residual Module) is a modular component used in power distribution systems. It features a compact structure and is easy to replace and maintain. Heat dissipation is a crucial issue in these modules. As the power density of electronic components continues to increase, heat dissipation becomes increasingly prominent. Effective heat dissipation control components can ensure stable operation of the module in high-temperature environments, preventing component damage and system failures caused by overheating. However, existing power distribution modules suffer from the following drawbacks:

[0003] 1. In the prior art, LRM structure power distribution modules are generally provided with heat dissipation vents for dissipating heat from circuit components. The ventilation volume of the heat dissipation vents is usually fixed and cannot be adjusted according to the temperature of the LRM structure power distribution module, which affects the heat dissipation effect of the radiator and easily leads to insufficient heat dissipation of the LRM structure power distribution module, causing the LRM structure power distribution module to be damaged by overheating.

[0004] 2. In the prior art, when the LRM structure power distribution module is dissipating heat, dust and moisture are carried in the gas. Dust and moisture enter the LRM structure power distribution module, which can easily damage delicate circuit components. Therefore, it is necessary to filter the dust and moisture in the gas. Moreover, when adjusting the ventilation volume of the heat dissipation port, the dust and moisture treatment effect cannot be adjusted according to the change in ventilation volume, thereby affecting the use of the LRM structure power distribution module.

[0005] Therefore, in view of this, the existing structure and defects are studied and improved, and an LRM structure power distribution module based on a heat dissipation control component is provided, in order to achieve a more practical and valuable purpose. Summary of the Invention

[0006] The present invention provides an LRM structure power distribution module based on a heat dissipation control component, which is used to overcome the above-mentioned defects in the prior art.

[0007] The purpose and efficacy of the LRM structure power distribution module based on the heat dissipation control component of the present invention are achieved by the following specific technical means:

[0008] A power distribution module with an LRM structure based on a heat dissipation control assembly includes a housing, a detachable module A and a detachable module B are mounted on one side of the housing, a first heat dissipation outlet is respectively provided on the end walls of the housing, a heat sink is mounted on each of the first heat dissipation outlets, and heat dissipation control assemblies are provided at both ends of the interior of the housing; the heat dissipation control assembly includes two fixed frames, the two fixed frames are respectively fixed to the interior ends of the housing, a movable frame is vertically slidably provided inside each of the fixed frames, a processing chamber is separated from the interior upper side of each fixed frame by the movable frame, a processing assembly is provided inside each processing chamber, a first slide is horizontally slidably provided inside each movable frame, a rotating plate is connected between one side of each first slide and the side wall of the fixed frame, a second heat dissipation outlet is provided on the side wall of each movable frame near the processing chamber, a baffle is slidably provided inside each second heat dissipation outlet, and a connecting block is fixedly connected between one end of the first slide and one side of the baffle; the processing assembly includes a plurality of first baffles and a plurality of pairs of second baffles, an S-shaped channel is formed on one side of the interior of the processing chamber by the plurality of first baffles and the plurality of pairs of second baffles, and a plurality of groups of adsorption particles are spaced apart inside the S-shaped channel.

[0009] A further technical solution is that each of the first partitions is fixed on the outer wall of the movable frame, each pair of the second partitions is distributed on the inner wall of the fixed frame, several first partitions are staggered with several pairs of second partitions on both side walls of the processing chamber, and several guide plates are fixed on the outer wall of the movable frame close to the processing chamber. A slider is fixed at one end of each pair of the second partitions, and a first spring is connected to each other on the side where each pair of sliders are close to each other. Each pair of sliders slides on the inner wall of the fixed frame, and both sides of one end of each guide plate are in sliding contact with the inclined surface of one end of each pair of the second partitions.

[0010] A further technical solution is that a first slide groove is provided inside each pair of the second partitions, a second slide plate is slidably provided inside each pair of the first slide grooves, a first filter plate is fixedly provided on the side where each two adjacent first partitions are close to each other, a third slide plate is provided on the side where each pair of the second slide plates are away from each other, and a second filter plate is slidably provided on the outside of the end where each pair of the third slide plates are away from each other, and the upper side of one end of each first filter plate contacts the lower side of one end of the second filter plate.

[0011] According to a further technical solution, a guide block is fixedly provided at one end of each pair of second partitions close to the guide plate, and the side of each pair of guide blocks away from each other is in sliding contact with the inclined surface of the end of each pair of second filter plates close to each other.

[0012] According to a further technical solution, one end of each pair of the second slides is respectively connected to the inside of each pair of the first slide grooves and provided with a second spring, and the other end of each pair of the second slides is in sliding contact with the outer wall of the movable frame.

[0013] A further technical solution is that each pair of second slides is respectively provided with a second slide groove on the side away from each other, and each pair of third slides have ends close to each other that slide in each pair of second slide grooves respectively, and each pair of third slides have ends close to each other that are respectively connected to one end of each pair of second slide grooves and are provided with a third spring, and each pair of third slides have ends away from each other that are respectively connected to the inside of each pair of second filter plates and are provided with a fourth spring, and each pair of guide blocks has a third slide groove in the middle of the upper part, and each pair of third slides have ends close to each other that slide vertically in the two third slide grooves respectively.

[0014] A further technical solution is that each group of the adsorption particles is located between the adjacent second slides and the first partition, each guide plate is provided with a first through hole at one end close to the movable frame, each pair of the second slides is provided with a second through hole at one end close to the movable frame, and each first through hole is connected to the second through hole accordingly.

[0015] A further technical solution is that the side of each pair of guide blocks away from each other is in a sloped structure, each guide block is in a triangular block structure, the side of each pair of guide blocks close to each other is in sliding contact with the side of each pair of second slides away from each other, and the end of each pair of guide blocks close to the movable frame is in slope contact with two groups of adsorption particles.

[0016] A further technical solution is that one end of each rotating plate is rotatably connected to one side of the first slide plate, the other end of each rotating plate is rotatably connected to the side wall of the fixed frame, an electric telescopic rod is installed on the lower side of each fixed frame, and the protruding end of each electric telescopic rod is fixedly connected to the movable frame.

[0017] A further technical solution is that a dust cover is fixedly provided at both ends of the exterior of the shell, each of the dust covers is located outside the first heat dissipation port, a third heat dissipation port is provided on the side wall of each fixed frame, the interior of the movable frame is communicated with the processing chamber through the second heat dissipation port, the interior of the shell is communicated with the processing chamber through the third heat dissipation port, the exterior of the shell is communicated with the interior of the movable frame through the first heat dissipation port, and a temperature sensor is installed inside the shell.

[0018] Compared with the prior art, the present invention has the following beneficial effects:

[0019] The present invention relates to an LRM structure power distribution module based on a heat dissipation control component. The movable frame moves upward, driving the first slide upward. One end of the rotating plate is rotatably connected to the side wall of the fixed frame, and the other end of the rotating plate is rotatably connected to one side of the first slide. As the first slide moves upward, it is pulled by the rotating plate, causing it to move horizontally within the movable frame. The horizontal movement of the first slide drives the connection block and the baffle to move. The movement of the baffle gradually increases the airflow within the second heat dissipation port, thereby improving the heat dissipation effect within the housing. Furthermore, through the arrangement of the first baffle, the second baffle, and adsorption particles, a plurality of first baffles and a plurality of pairs of second baffles are staggered, thereby extending the travel distance of the gas within the S-shaped channel. This facilitates full contact between the gas and the plurality of adsorption particles, allowing the plurality of adsorption particles to multipleally adsorb and remove moisture and dust within the gas, allowing clean gas to enter the housing through the third heat dissipation port for heat dissipation.

[0020] The present invention provides an LRM structure power distribution module based on a heat dissipation control component. Through the arrangement of a guide plate, a second partition plate, a second slide plate, a third slide plate, and a second filter plate, a movable frame moves upward to drive a plurality of guide plates to move upward, and contacts the inclined surfaces of one end of each pair of second partition plates on both sides through one end of the guide plate. Thus, under the guiding action of the guide plate, each pair of second partition plates moves away from each other; each pair of second partitions moves away from each other, driving the two second slide plates away from each other, and the two second slide plates move away from each other, driving the two third slides and the second filter plates away from each other. The two second filter plates move away from each other, so that the contact area between the lower side of each second filter plate and the upper side of the first filter plate gradually increases, which is conducive to double filtering of the gas. Through the setting of the guide block, the third slide plate and the second filter plate move upward, and the ends of each pair of second filter plates that are close to each other are respectively in sliding contact with the inclined surfaces on the side of each pair of third slide grooves that are away from each other. Therefore, under the guiding action of the two third slide grooves, each pair of second filter plates are further away from each other, and the contact area between the second filter plate and the first filter plate is further increased, so that the first filter plate and the second filter plate can be used to perform a dual filtering effect on the gas, thereby fully filtering and removing dust in the gas, so that the filtering effect in the processing component can be adjusted according to the ventilation volume adjusted by the heat dissipation control component, thereby realizing heat dissipation control inside the shell and preventing dust from entering the shell.

[0021] The present invention relates to an LRM structure power distribution module based on a heat dissipation control component. By disposing a second slide plate and a first partition plate, each pair of second partition plates moves away from each other, driving each pair of second slide plates away from each other. Each pair of second slide plates moves away from each other, and is fixed with a plurality of first partition plates. This gradually reduces the width of each group of adsorption particles between the second slide plate and the first partition plate, thereby gradually increasing the height of each group of adsorption particles, thereby improving the adsorption effect of each group of adsorption particles on gas. Furthermore, by disposing a guide block, the movable frame moves upward, driving the plurality of adsorption particles upward. The guide block contacts the inclined surface of each group of adsorption particles through one side of the guide block. Under the guidance of the guide block, the width of each group of adsorption particles is further gradually reduced, thereby gradually increasing the height of each group of adsorption particles, thereby further improving the adsorption effect of each group of adsorption particles on gas. The adsorption effect of each group of adsorption particles on gas can be adjusted accordingly according to the ventilation volume adjusted by the heat dissipation control component, thereby fully removing dust and moisture from the gas, achieving heat dissipation control within the housing, and preventing dust and moisture from entering the housing. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] In order to more clearly illustrate the embodiments of the invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0023] The present invention will be further described below with reference to the accompanying drawings and examples.

[0024] Figure 1 It is an isometric structural diagram of the present invention;

[0025] Figure 2 It is a right side structural schematic diagram of the present invention;

[0026] Figure 3 for Figure 2 Schematic diagram of the cross-sectional structure at AA in the middle;

[0027] Figure 4 for Figure 3 Schematic diagram of the local enlarged structure at C in the middle;

[0028] Figure 5 for Figure 4 Schematic diagram of the local enlarged structure at D in the middle;

[0029] Figure 6 for Figure 4 Schematic diagram of the local enlarged structure at E in the middle;

[0030] Figure 7 for Figure 4Schematic diagram of the local enlarged structure at F in the middle;

[0031] Figure 8 for Figure 2 Schematic diagram of the cross-sectional structure at BB in the middle.

[0032] Description of reference numerals:

[0033] Shell 10, detachable module A11, detachable module B12, dust cover 13, first heat dissipation vent 14, radiator 15, fixed frame 16, movable frame 17, electric telescopic rod 18, first slide 19, rotating plate 20, second heat dissipation vent 21, third heat dissipation vent 22, connecting block 23, baffle 24, processing chamber 25, first partition 26, second partition 27, slider 28, first spring 29, first slide 30, second spring 31, second slide 32, guide plate 33, second slide 34, third slide 35, first filter plate 36, second filter plate 37, third spring 38, fourth spring 39, guide block 40, third slide 41, adsorption particles 42, first through hole 43, second through hole 44, S-shaped channel 45, temperature sensor 46. DETAILED DESCRIPTION

[0034] The following embodiments of the present invention are described in further detail with reference to the accompanying drawings and examples. The following examples are used to illustrate the present invention but are not intended to limit the scope of the present invention.

[0035] In the description of the present invention, unless otherwise specified, "plurality" means two or more; terms such as "upper," "lower," "left," "right," "inner," "outer," "front end," "rear end," "head," and "tail" indicate positions or relationships based on those shown in the accompanying drawings. These terms are intended solely to facilitate the description of the present invention and simplify the description. They do not indicate or imply that the devices or components referred to must have a specific orientation, be constructed, or operate in a specific orientation. Therefore, they should not be construed as limiting the present invention. Furthermore, terms such as "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0036] In the description of the present invention, it should be noted that, unless otherwise expressly specified or limited, the terms "connected" and "connection" should be understood in a broad sense. For example, they can refer to fixed connection, detachable connection, or integral connection; mechanical connection, electrical connection; direct connection, or indirect connection through an intermediary. Those skilled in the art will understand the specific meanings of the above terms in the present invention based on the specific circumstances.

[0037] As attached Figure 1 To the attached Figure 8 As shown:

[0038] The present invention provides an LRM structure power distribution module based on a heat dissipation control component.

[0039] Refer to the attached Figure 1 To the attached Figure 8 , including a shell 10, a detachable module A11 and a detachable module B12 are installed on one side of the shell 10, a first heat dissipation port 14 is respectively provided on the two end walls of the shell 10, a radiator 15 is installed on each first heat dissipation port 14, and a heat dissipation control component is provided at both ends of the interior of the shell 10; the heat dissipation control component includes two fixed frames 16, the two fixed frames 16 are respectively fixed at the two ends of the interior of the shell 10, and a movable frame 17 is provided inside the two fixed frames 16 for vertical sliding, and a processing chamber 25 is provided on the upper side of the interior of each fixed frame 16 by the movable frame 17, and a processing component is provided inside each processing chamber 25, and a processing component is provided inside each movable frame 17. A first slide plate 19 is provided for horizontal sliding, and a rotating plate 20 is connected between one side of each first slide plate 19 and the side wall of the fixed frame 16. A second heat dissipation port 21 is provided on the side wall of each movable frame 17 close to the processing chamber 25. A baffle 24 is provided for sliding inside each second heat dissipation port 21. A connecting block 23 is fixedly connected to one end of the first slide plate 19 and one side of the baffle 24. The processing assembly includes a plurality of first partitions 26 and a plurality of pairs of second partitions 27. An S-shaped channel 45 is formed on one side of the interior of the processing chamber 25 by a plurality of first partitions 26 and a plurality of pairs of second partitions 27. A plurality of groups of adsorption particles 42 are provided at intervals inside the S-shaped channel 45.

[0040] Preferably, refer to the attached Figure 1 To the attached Figure 6 Each first partition 26 is fixed on the outer wall of the movable frame 17 at intervals, and each pair of second partitions 27 are distributed on the inner wall of the fixed frame 16 at intervals. Several first partitions 26 are staggered with several pairs of second partitions 27 on both side walls of the processing chamber 25. Several guide plates 33 are fixed on the outer wall of the movable frame 17 close to the processing chamber 25. A slider 28 is fixed at one end of each pair of second partitions 27. A first spring 29 is connected to each other on the side close to each other of each pair of sliders 28. Each pair of sliders 28 slides on the inner wall of the fixed frame 16, and one end of each guide plate 33 is in sliding contact with the inclined surface of one end of each pair of second partitions 27 on both sides.

[0041] Preferably, refer to the attached Figure 4 To the attached Figure 6A first slide groove 30 is provided inside each pair of second partitions 27, and a second slide plate 32 is slidably provided inside each pair of first slide grooves 30. A first filter plate 36 is fixedly provided on the side close to each other of each two adjacent first partitions 26, and a third slide plate 35 is provided on the side away from each other of each pair of second slide plates 32. A second filter plate 37 is slidably provided on the outside of the end away from each other of each pair of third slide plates 35, and the upper side of one end of each first filter plate 36 contacts the lower side of one end of the second filter plate 37.

[0042] Preferably, refer to the attached Figure 6 A guide block 40 is fixedly provided at one end of each pair of second partition plates 27 close to the guide plate 33, and the side of each pair of guide blocks 40 away from each other is in sliding contact with the inclined surface of the end of each pair of second filter plates 37 close to each other.

[0043] Preferably, refer to the attached Figure 6 , Attachment Figure 7 One end of each pair of second slides 32 is respectively connected to the inside of each pair of first slide grooves 30 and is provided with a second spring 31 , and the other end of each pair of second slides 32 is in sliding contact with the outer wall of the movable frame 17 .

[0044] Preferably, refer to the attached Figure 6 To the attached Figure 7 A second slide groove 34 is provided on the side away from each other of each pair of second slides 32, and the end of each pair of third slides 35 that is close to each other slides in each pair of second slide grooves 34 respectively. The end of each pair of third slides 35 that is close to each other is connected to one end of each pair of second slide grooves 34 and is provided with a third spring 38. The end of each pair of third slides 35 that is away from each other is connected to the inside of each pair of second filter plates 37 and is provided with a fourth spring 39. A third slide groove 41 is provided in the middle of the upper part of each pair of guide blocks 40, and the end of each pair of third slides 35 that is close to each other slides vertically in the two third slide grooves 41 respectively.

[0045] Preferably, refer to the attached Figure 3 , Attachment Figure 4 , Attachment Figure 7 Each group of adsorption particles 42 is located between the adjacent second slides 32 and the first partition 26, and a first through hole 43 is provided at one end of each guide plate 33 close to the movable frame 17. A second through hole 44 is provided at one end of each pair of second slides 32 close to the movable frame 17, and each first through hole 43 is connected to the second through hole 44 accordingly.

[0046] Preferably, refer to the attached Figure 4 , Attachment Figure 7The side of each pair of guide blocks 40 that are away from each other is in a sloped structure, and each guide block 40 is in a triangular block structure. The side of each pair of guide blocks 40 that are close to each other is in sliding contact with the side of each pair of second slides 32 that are away from each other, and the end of each pair of guide blocks 40 that is close to the movable frame 17 is in sloped contact with the two groups of adsorption particles 42.

[0047] Preferably, refer to the attached Figure 3 One end of each rotating plate 20 is rotatably connected to one side of the first slide plate 19, and the other end of each rotating plate 20 is rotatably connected to the side wall of the fixed frame 16. An electric telescopic rod 18 is installed on the lower side of each fixed frame 16, and the protruding end of each electric telescopic rod 18 is fixedly connected to the movable frame 17.

[0048] Preferably, refer to the attached Figure 1 To the attached Figure 8 A dust cover 13 is fixedly provided at both ends of the exterior of the shell 10, each dust cover 13 is located outside the first heat dissipation port 14, a third heat dissipation port 22 is provided on the side wall of each fixed frame 16, the interior of the movable frame 17 is communicated with the processing chamber 25 through the second heat dissipation port 21, the interior of the shell 10 is communicated with the processing chamber 25 through the third heat dissipation port 22, the exterior of the shell 10 is communicated with the interior of the movable frame 17 through the first heat dissipation port 14, and a temperature sensor 46 is installed inside the shell 10.

[0049] Specific use of the present invention:

[0050] The temperature inside the housing 10 is detected by the temperature sensor 46. When the temperature sensor 46 detects that the temperature inside the housing 10 is normal, normal heat dissipation is performed. The movable frame 17 is located on the inner lower side of the fixed frame 16, and one end of the baffle 24 is located inside the second heat dissipation port 21, thereby reducing the air flow through the second heat dissipation port 21. The control system activates the two radiators 15, which draw air from outside the housing 10 into the dust cover 13. The air inside the dust cover 13 enters the movable frame 17 through the first heat dissipation port 14, and the air inside the movable frame 17 enters the processing chamber 25 through the second heat dissipation port 21.

[0051] Gas within the processing chamber 25 enters the S-shaped channel 45 and contacts the first filter plate 36, where it filters dust from the gas. The gas then contacts one set of adsorbent particles 42, where the large number of adsorbent particles 42 adsorb and remove moisture and dust from the gas. The gas then passes through the two second through-holes 44 and the first through-hole 43 and enters another set of adsorbent particles 42. This allows the adsorbent particles 42 to adsorb and remove moisture and dust from the gas multiple times, allowing clean gas to enter the housing 10 through the third heat dissipation port 22 for heat dissipation. When the two heat sinks 15 are activated, the gas within the housing 10 dissipates heat through convection. The staggered arrangement of the first baffles 26 and the pairs of second baffles 27 prolongs the gas's travel within the S-shaped channel 45, facilitating sufficient contact between the gas and the sets of adsorbent particles 42. This allows the adsorbent particles 42 to adsorb and remove moisture and dust from the gas multiple times, allowing clean gas to enter the housing 10 through the third heat dissipation port 22 for heat dissipation. Among them, the LRM structure power distribution module, LRM is the abbreviation of "Line Replaceable Module", which means field replaceable module.

[0052] When the temperature sensor 46 detects that the temperature inside the housing 10 is too high, the control system activates the heat dissipation control assembly, extending the two electric telescopic rods 18 and driving the two movable frames 17 upward. This upward movement of the movable frames 17 drives the first slide 19 upward. Through the rotational connection between one end of the rotating plate 20 and the side wall of the fixed frame 16, and the rotational connection between the other end of the rotating plate 20 and one side of the first slide 19, the first slide 19 moves upward and is pulled by the rotating plate 20, causing the first slide 19 to move horizontally within the movable frame 17. This horizontal movement of the first slide 19 drives the connecting block 23 and the baffle 24 to move. The movement of the baffle 24 gradually increases the ventilation volume within the second heat dissipation port 21, thereby improving the heat dissipation effect within the housing 10.

[0053] Next, the movable frame 17 moves upward, driving the guide plates 33 upward. The two sides of one end of each guide plate 33 contact the inclined surfaces of one end of each pair of second baffles 27. As a result, each pair of second baffles 27 moves away from each other, guided by the guide plates 33. The moving away of each pair of second baffles 27 drives the two second slides 32 away from each other. This moving away of the two second slides 32 drives the two third slides 35 away from the second filter plates 37. This moving away of the two second filter plates 37 gradually increases the contact area between the lower side of each second filter plate 37 and the upper side of the first filter plate 36, facilitating dual gas filtration. The moving away of each pair of second baffles 27 drives the moving away of each pair of sliders 28. The moving away of each pair of sliders 28 stretches the first spring 29, generating a force that, under the action of the first spring 29, forces each pair of second baffles 27 toward each other and resets. Each pair of second springs 31 is in a compressed state to generate elastic force. Under the elastic force of each pair of second springs 31 , one end of each pair of second slide plates 32 close to the movable frame 17 is always in sliding contact with the outer wall of the movable frame 17 .

[0054] At the same time, the upward movement of the movable frame 17 drives the first baffles 26 and the first filter plate 36 upward. The first filter plate 36 moves upward and contacts the second filter plate 37, thereby pushing the second filter plate 37 and the third slide plate 35 upward. The upward movement of the third slide plate 35 stretches the third spring 38, generating an elastic force. Under the elastic force of the third spring 38, the lower side of the second filter plate 37 is always in contact with the upper side of the first filter plate 36. The third slide 35 and the second filter plate 37 move upward, and the ends of each pair of second filter plates 37 that are close to each other slide into contact with the inclined surfaces of each pair of third slide grooves 41 that are away from each other. As a result, under the guidance of the two third slide grooves 41, each pair of second filter plates 37 are further away from each other, further increasing the contact area between the second filter plate 37 and the first filter plate 36, so that the first filter plate 36 and the second filter plate 37 can be used to perform a dual filtering effect on the gas, thereby fully filtering and removing dust in the gas, so that the filtering effect in the processing component can be adjusted according to the ventilation volume adjusted by the heat dissipation control component, thereby realizing heat dissipation control inside the shell 10 and preventing dust from entering the shell 10.

[0055] Then, each pair of second partitions 27 move away from each other, driving each pair of second slides 32 to move away from each other. Each pair of second slides 32 move away from each other and are fixed with a number of first partitions 26, so that the width of each group of adsorption particles 42 between the second slides 32 and the first partitions 26 gradually decreases, thereby gradually increasing the height of each group of adsorption particles 42, so as to improve the adsorption effect of each group of adsorption particles 42 on gas.

[0056] At the same time, the upward movement of the movable frame 17 drives the plurality of groups of adsorption particles 42 upward, and the movable frame 17 contacts the inclined surface of each group of adsorption particles 42 via one side of the guide block 40. As a result, under the guidance of the guide block 40, the width of each group of adsorption particles 42 is further gradually reduced, thereby gradually increasing the height of each group of adsorption particles 42, thereby further improving the adsorption effect of each group of adsorption particles 42 on gas. The adsorption effect of each group of adsorption particles 42 on gas can be adjusted accordingly according to the ventilation volume adjusted by the heat dissipation control component, so as to fully remove dust and moisture from the gas, achieve heat dissipation control inside the housing 10, and prevent dust and moisture from entering the housing 10. Specifically, by adjusting the height of each group of adsorption particles 42 between the adjacent second slide plate 32 and the first partition plate 26, the contact time between the gas and each group of adsorption particles 42 can be extended, thereby improving the gas adsorption effect of each group of adsorption particles 42.

[0057] Recently, clean air enters the housing 10 through the third heat dissipation port 22 to perform heat dissipation, so as to quickly dissipate heat inside the housing 10 .

[0058] The present invention provides an LRM structure power distribution module based on a heat dissipation control component. Through the arrangement of a movable frame 17, a first slide 19, a rotating plate 20, a baffle 24, and a second heat dissipation port 21, the movable frame 17 moves upward to drive the first slide 19 to move upward. One end of the rotating plate 20 is rotatably connected to the side wall of the fixed frame 16 and the other end of the rotating plate 20 is rotatably connected to one side of the first slide 19. The first slide 19 moves upward and is pulled by the rotating plate 20, thereby causing the first slide 19 to move horizontally within the movable frame 17. The horizontal movement of the first slide 19 drives the connecting block 23 and the baffle 24 to move. The movement of the baffle 24 gradually increases the ventilation volume in the second heat dissipation port 21, thereby improving the heat dissipation effect within the shell 10. Then, by setting the first baffle 26, the second baffle 27, and the adsorption particles 42, several first baffles 26 and several pairs of second baffles 27 are staggered, thereby extending the travel of the gas in the S-shaped channel 45, which is conducive to allowing the gas to fully contact with several groups of adsorption particles 42, so that the moisture and dust in the gas can be adsorbed and removed multiple times by several groups of adsorption particles 42, so that the clean gas enters the shell 10 through the third heat dissipation port 22 for heat dissipation.

[0059] The present invention relates to an LRM structure power distribution module based on a heat dissipation control component. Through the arrangement of the guide plate 33, the second partition plate 27, the second slide 32, the third slide 35, and the second filter plate 37, the movable frame 17 moves upward to drive the guide plates 33 to move upward, and the two sides of one end of the guide plate 33 respectively contact the inclined surface of one end of each pair of second partition plates 27, so that under the guiding action of the guide plate 33, each pair of second partition plates 27 moves away from each other; each pair of second partition plates 27 moves away from each other, driving the two second slides 32 away from each other, and the two second slides 32 move away from each other, driving the two third slides 35 and the second filter plate 37 away from each other. The two second filter plates 37 move away from each other, so that the contact area between the lower side of each second filter plate 37 and the upper side of the first filter plate 36 gradually increases, which is conducive to double filtering of the gas. Through the setting of the guide block 40, the third slide plate 35 and the second filter plate 37 move upward, and the ends of each pair of second filter plates 37 that are close to each other slide into contact with the inclined surfaces of the sides of each pair of third slide grooves 41 that are away from each other, so that under the guiding action of the two third slide grooves 41, each pair of second filter plates 37 are further away from each other, further increasing the contact area between the second filter plate 37 and the first filter plate 36, so that the first filter plate 36 and the second filter plate 37 can be used to perform a dual filtering effect on the gas, thereby fully filtering and removing dust in the gas, so that the filtering effect in the processing component can be adjusted according to the ventilation volume adjusted by the heat dissipation control component, thereby realizing heat dissipation control inside the shell 10 and preventing dust from entering the shell 10.

[0060] The present invention is an LRM structure power distribution module based on a heat dissipation control component. Through the arrangement of the second slide plate 32 and the first partition plate 26, each pair of second partition plates 27 move away from each other, driving each pair of second slide plates 32 to move away from each other. Each pair of second slide plates 32 move away from each other and are fixed with a number of first partition plates 26, so that the width of each group of adsorption particles 42 between the second slide plates 32 and the first partition plates 26 gradually decreases, thereby gradually increasing the height of each group of adsorption particles 42, so as to improve the adsorption effect of each group of adsorption particles 42 on gas. Then, through the setting of the guide block 40, the movable frame 17 moves upward to drive several groups of adsorption particles 42 to move upward, and contacts the inclined surface of each group of adsorption particles 42 through one side of the guide block 40. Therefore, under the guiding action of the guide block 40, the width of each group of adsorption particles 42 is further gradually reduced, and the height of each group of adsorption particles 42 is further gradually increased, so as to further improve the adsorption effect of each group of adsorption particles 42 on the gas, and can adjust the adsorption effect of each group of adsorption particles 42 on the gas according to the ventilation volume adjusted by the heat dissipation control component, so as to fully remove dust and moisture in the gas, realize heat dissipation control inside the shell 10, and prevent dust and moisture from entering the shell 10.

[0061] The embodiments of the present invention are presented for purposes of illustration and description and are not intended to be exhaustive or to limit the invention to the disclosed forms. Many modifications and variations will be apparent to those skilled in the art. The embodiments are chosen and described in order to better illustrate the principles of the invention and its practical application and to enable those skilled in the art to understand the invention and design various embodiments with various modifications as suited for specific applications.

Claims

1. An LRM structure power distribution module based on a heat dissipation control component, characterized by: The invention comprises a shell (10), a detachable module A (11) and a detachable module B (12) being installed on one side of the shell (10), a first heat dissipation opening (14) being provided on each end wall of the shell (10), a radiator (15) being installed on each first heat dissipation opening (14), and heat dissipation control components being provided at both ends of the interior of the shell (10); The heat dissipation control component includes two fixed frames (16), the two fixed frames (16) are respectively fixed at the two ends of the interior of the shell (10), and a movable frame (17) is provided inside the two fixed frames (16) for vertical sliding. The upper side of the interior of each fixed frame (16) is separated by the movable frame (17) to provide a processing chamber (25), and the interior of each processing chamber (25) is provided with a processing component. The interior of each movable frame (17) is provided with a first slide plate (19) for horizontal sliding, and a rotating plate (20) is connected between one side of each first slide plate (19) and the side wall of the fixed frame (16). A second heat dissipation port (21) is provided on the side wall of each movable frame (17) close to the processing chamber (25), and a baffle (24) is provided inside each second heat dissipation port (21) for sliding. A connecting block (23) is fixedly connected between one end of the first slide plate (19) and one side of the baffle (24). The processing assembly includes a plurality of first partitions (26) and a plurality of pairs of second partitions (27); an S-shaped channel (45) is formed on one side of the interior of the processing chamber (25) through the plurality of first partitions (26) and the plurality of pairs of second partitions (27); and a plurality of groups of adsorption particles (42) are arranged at intervals inside the S-shaped channel (45); Each first partition (26) is fixed at intervals on the outer wall of the movable frame (17), each pair of the second partitions (27) is distributed at intervals on the inner wall of the fixed frame (16), and a number of the first partitions (26) are staggered and distributed on the two side walls of the processing chamber (25) with a number of pairs of the second partitions (27). The outer wall of the movable frame (17) close to the processing chamber (25) is fixed with a number of guide plates (33) at intervals, and a slider (28) is fixed at one end of each pair of the second partitions (27). A first spring (29) is connected to each other between the sides of each pair of the sliders (28) that are close to each other. Each pair of the sliders (28) slides on the inner wall of the fixed frame (16), and both sides of one end of each guide plate (33) are in sliding contact with the inclined surface of one end of each pair of the second partitions (27). A first slide groove (30) is provided inside each pair of the second partitions (27), a second slide plate (32) is slidably provided inside each pair of the first slide grooves (30), a first filter plate (36) is fixedly provided on the side close to each other of each two adjacent first partitions (26), a third slide plate (35) is provided on the side away from each other of each pair of the second slide plates (32), a second filter plate (37) is slidably provided on the outside of the end away from each other of each pair of the third slide plates (35), and an upper side of one end of each first filter plate (36) contacts a lower side of one end of the second filter plate (37).

2. The LRM structure power distribution module based on the heat dissipation control component according to claim 1 is characterized in that: A guide block (40) is fixedly provided at one end of each pair of second partition plates (27) close to the guide plate (33), and the sides of each pair of guide blocks (40) that are away from each other are in sliding contact with the inclined surfaces of the ends of each pair of second filter plates (37) that are close to each other.

3. The LRM structure power distribution module based on the heat dissipation control component according to claim 2 is characterized in that: One end of each pair of the second slide plates (32) is respectively connected to the inside of each pair of the first slide grooves (30) and is provided with a second spring (31), and the other end of each pair of the second slide plates (32) is in sliding contact with the outer wall of the movable frame (17).

4. The LRM structure power distribution module based on the heat dissipation control component according to claim 3 is characterized in that: A second slide groove (34) is provided on the side away from each other of each pair of the second slide plates (32), and the ends of each pair of the third slide plates (35) close to each other slide in each pair of the second slide grooves (34). The ends of each pair of the third slide plates (35) close to each other are connected to one end of each pair of the second slide grooves (34) and are provided with a third spring (38). The ends of each pair of the third slide plates (35) away from each other are connected to the inside of each pair of the second filter plates (37) and are provided with a fourth spring (39). A third slide groove (41) is provided in the middle of the upper part of each pair of the guide blocks (40), and the ends of each pair of the third slide plates (35) close to each other slide vertically in the two third slide grooves (41).

5. The LRM structure power distribution module based on the heat dissipation control component according to claim 3 is characterized in that: Each group of the adsorption particles (42) is located between the adjacent second slide plates (32) and the first partition plate (26); a first through hole (43) is provided at one end of each guide plate (33) close to the movable frame (17); a second through hole (44) is provided at one end of each pair of the second slide plates (32) close to the movable frame (17); and each first through hole (43) is correspondingly connected to the second through hole (44).

6. The LRM structure power distribution module based on the heat dissipation control component according to claim 5, characterized in that: The side of each pair of guide blocks (40) that is away from each other is in an inclined surface structure, and each guide block (40) is in a triangular block structure. The side of each pair of guide blocks (40) that is close to each other is in sliding contact with the side of each pair of second slide plates (32) that is away from each other, and the end of each pair of guide blocks (40) that is close to the movable frame (17) is in inclined contact with the two groups of adsorption particles (42).

7. The LRM structure power distribution module based on the heat dissipation control component according to claim 1, characterized in that: One end of each rotating plate (20) is rotatably connected to one side of the first slide plate (19), and the other end of each rotating plate (20) is rotatably connected to the side wall of the fixed frame (16). An electric telescopic rod (18) is installed on the lower side of each fixed frame (16), and the extended end of each electric telescopic rod (18) is fixedly connected to the movable frame (17).

8. The LRM structure power distribution module based on the heat dissipation control component according to claim 1, characterized in that: A dust cover (13) is fixedly provided at both ends of the exterior of the shell (10), each of the dust covers (13) is located outside the first heat dissipation port (14), a third heat dissipation port (22) is provided on the side wall of each of the fixed frames (16), the interior of the movable frame (17) is communicated with the processing chamber (25) through the second heat dissipation port (21), the interior of the shell (10) is communicated with the processing chamber (25) through the third heat dissipation port (22), the exterior of the shell (10) is communicated with the interior of the movable frame (17) through the first heat dissipation port (14), and a temperature sensor (46) is installed inside the shell (10).

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