Thermal power heat storage integrated control cabinet with dustproof function

Abstract

The invention discloses a thermal power heat storage integrated control cabinet with a dustproof function, and relates to the technical field of integrated control cabinets. The thermal power heat storage integrated control cabinet comprises a dustproof control cabinet frame, three pairs of sealed dustproof drainage structures and an auxiliary structure, and the sealed dustproof drainage structures and the auxiliary structure are installed on the dustproof control cabinet frame. The modular sealing structure has the beneficial effects that the modular sealing structure adopts the magnetic adsorption type quick connecting assembly, tool-free disassembly and assembly of the concentric-square-shaped limiting block and the filtering mesh type plate are achieved, and the concave rubber ring is matched to form an airtight cavity; due to the design of an S-shaped airflow channel, gas is guided by the partition plate and then sequentially passes through the replaceable inserted shaft tube filter screen, the concentric-square-shaped filter block and the multi-layer magnetically-pressed filter screen, so that three-stage filtration is realized.

Description

Technical Field

[0001] The present invention relates to the technical field of integrated control cabinets, in particular to a thermal power energy storage integrated control cabinet with a dust-proof function. Background Art

[0002] As the core control unit of the power system, the control cabinet adopts an integrated structure design, and the switch equipment, monitoring instruments, protection devices and auxiliary function modules are precisely assembled in a closed / semi-closed metal cabinet or screen system that meets the IP protection level. The existing dust-proof system of the control cabinet has significant operation and maintenance shortcomings, and its defects are mainly reflected in: strong dependence on manual inspection: it is necessary to regularly open the cabinet door on-site for visual inspection, and it is impossible to monitor the dust deposition state in real time; insufficient cleaning coverage: it is difficult for manual operation to reach the top and deep areas of the equipment, forming a cleaning blind area, and long-term dust accumulation is likely to cause faults such as equipment overheating and insulation failure; the operation and maintenance cost increases: frequent manual intervention reduces the operation and maintenance efficiency, and dust pollution accelerates the equipment aging, indirectly increasing the frequency of shutdown maintenance and the cost of spare parts replacement. In view of the above problems, there may already be technical means to solve them in the existing technology, but this case wants to provide an alternative or replacement technical solution. Summary of the Invention

[0003] The technical solution of the present invention to achieve the above object is: a thermal power energy storage integrated control cabinet with a dust-proof function, including: a dust-proof control cabinet frame, three pairs of sealed dust-proof drainage structures and auxiliary structures, the sealed dust-proof drainage structures and the auxiliary structures are installed on the dust-proof control cabinet frame, and the sealed dust-proof drainage structure includes: a loop-shaped limit block, a pair of filter mesh plates, a plurality of observation glasses, a plurality of partition plates, a plurality of concave extrusion blocks, a plurality of concave rubber rings, a pair of loop-shaped filter blocks, a pair of filter meshes, a pair of loop-shaped extrusion blocks, two pairs of adsorption loop-shaped magnets, a plurality of sleeve shafts, a plurality of limit rings, a plurality of inserted shafts, a plurality of filter ring meshes and a quick connection component; The loop-shaped limiting block is installed on the dust-proof control cabinet frame. A pair of filter mesh plates are installed inside the loop-shaped limiting block through a quick connection component. A plurality of observation glasses are evenly installed on the pair of filter mesh plates. A plurality of concave extrusion blocks are respectively installed on the pair of filter mesh plates. A plurality of concave rubber rings are respectively installed inside the plurality of concave extrusion blocks. A plurality of partition plates are respectively movably inserted inside the concave rubber rings between the plurality of concave extrusion blocks. A pair of loop-shaped filter blocks are respectively installed on the pair of filter mesh plates. A pair of filter meshes are respectively installed between the pair of loop-shaped filter blocks. A pair of adsorption loop-shaped magnets are respectively installed on the pair of loop-shaped extrusion blocks and the pair of loop-shaped filter blocks. The pair of loop-shaped extrusion blocks are respectively magnetically connected to the adsorption loop-shaped magnets on the pair of loop-shaped filter blocks through the adsorption loop-shaped magnets. A plurality of sleeve shafts are respectively inserted into the plurality of partition plates. A plurality of limiting rings are respectively installed inside the plurality of sleeve shafts. A plurality of inserted shafts are respectively movably inserted inside the plurality of sleeve shafts and are movably placed on the limiting rings. A plurality of filter ring meshes are respectively installed inside the plurality of inserted shafts; It should be noted that in the above, by respectively installing three pairs of loop-shaped limiting blocks on the outer side of the dust-proof control cabinet frame, fixing the loop-shaped limiting blocks on the inner side of the dust-proof control cabinet frame through a quick connection component, installing a pair of filter mesh plates inside the loop-shaped limiting blocks, relatively stretching the concave extrusion blocks on the pair of filter mesh blocks, squeezing the plurality of partition plates between the paired concave extrusion blocks, and squeezing and sealing the partition plates through the concave rubber rings, the cooperation of the loop-shaped limiting blocks, a pair of filter mesh plates and a plurality of partition plates is used to divide into a plurality of sealed spaces. At the same time, the gas is unidirectionally drained through the sleeve shafts on the partition plates. The inserted shafts are limited and supported by the limiting rings inside the sleeve shafts, so that the replaceable inserted shafts can be filtered inside the sleeve shafts. The gas outside the device is drained into the dust-proof control cabinet frame in an S shape through the filtering equipment such as the filter ring meshes inside the inserted shafts. The gas is filtered through the filter meshes on the loop-shaped filter blocks on the pair of filter mesh plates. At the same time, the adsorption loop-shaped magnets on the loop-shaped extrusion blocks adsorb the adsorption loop-shaped magnets on the loop-shaped filter blocks, and the filter meshes are squeezed and fixed on the loop-shaped extrusion blocks through the loop-shaped extrusion blocks, so as to filter and drain the gas.

[0004] Preferably, the quick connection component includes: an extrusion limiting loop-shaped block, two pairs of fixed threaded rods, a loop-shaped extrusion rubber ring, two pairs of fixed nuts, a loop-shaped metal rod, a plurality of conduction metal rods, a plurality of convex telescopic blocks, a plurality of tooth-shaped inserted blocks, a plurality of extrusion magnets, an adsorption driving magnet, an adsorption convex block and an adsorption spring column; The extrusion limiting loop block is installed on the dust-proof control cabinet frame. Two pairs of the fixed threaded rods are inserted into the extrusion limiting loop block in parallel. Two pairs of sleeve holes are formed on the loop limiting block. The loop limiting block is movably sleeved on the two pairs of fixed threaded rods through the two pairs of sleeve holes. Two pairs of fixed nuts are respectively movably sleeved on the two pairs of fixed threaded rods. The loop extrusion rubber ring is installed on the extrusion limiting loop block. The loop metal rod is inserted into the dust-proof control cabinet frame. A convex telescopic hole is formed on the dust-proof control cabinet frame. A plurality of conduction metal rods are respectively connected to the plurality of loop metal rods and the plurality of convex telescopic holes. A plurality of convex telescopic blocks are respectively movably inserted into the inner sides of the plurality of convex telescopic holes. A plurality of tooth-shaped insertion blocks are respectively installed on the plurality of convex telescopic blocks. A plurality of extrusion magnets are respectively installed on the plurality of convex telescopic blocks. An extrusion conduction groove is formed on the dust-proof control cabinet frame. The adsorption convex block is movably inserted into the inner side of the extrusion conduction groove. The adsorption spring columns are respectively connected to the adsorption convex block and the inner side of the extrusion conduction groove. The adsorption driving magnet is installed on the adsorption convex block; It should be noted that in the above, by limiting and placing the loop limiting block on the extrusion limiting loop block on the dust-proof control cabinet frame, the extrusion limiting loop block is limited by two pairs of fixed threaded rods. At the same time, by rotating the two pairs of fixed nuts along the fixed threaded rods, the two pairs of fixed nuts are limited and fixed on the two pairs of fixed threaded rods, so as to squeeze and fix the loop limiting block. By loosening the adsorption convex block and squeezing the adsorption convex block through the adsorption spring column, the adsorption driving magnet on the adsorption convex block is squeezed against the loop metal rod. The magnetic force is transmitted from the adsorption driving magnet to the loop metal rod and the conduction metal rod. The conduction metal rod magnetically repels the extrusion magnet on the convex telescopic block. The extrusion magnet drives the convex telescopic block and the tooth-shaped insertion block thereon, so as to quickly squeeze and fix the loop limiting block.

[0005] Preferably, the auxiliary structure includes: a transfer drainage pipe, a replaceable inner pipe, a filter cotton, an adsorption pump, a filter carbon, a loop limiting block and a plurality of horn-shaped drainage pieces; The transfer drainage pipe is installed inside the dust-proof control cabinet frame. The loop limiting block is installed inside the transfer drainage pipe. The replaceable inner pipe is inserted into the transfer drainage pipe in a sliding manner. The filter cotton and the filter carbon are installed inside the replaceable inner pipe. The adsorption pump is connected to the transfer drainage pipe. A plurality of horn-shaped drainage pieces are evenly installed inside the transfer drainage pipe; It should be noted that in the above, through the operation of the adsorption pump on the transfer drainage pipe, the air inside the dust-proof control cabinet frame is drained. The drained gas is filtered by the filter charcoal and filter cotton in the replaceable inner pipe inside the transfer drainage pipe for inner circulation filtration. At the same time, one-way drainage is carried out through multiple horn-shaped drainage pieces.

[0006] Preferably, cooling drainage fans are respectively arranged on the three pairs of the loop-shaped limit blocks.

[0007] Preferably, an installation bracket is arranged inside the dust-proof control cabinet frame.

[0008] Preferably, concave bearing blocks are respectively arranged on the three pairs of the loop-shaped filter blocks, angle shafts are respectively arranged on the concave bearing blocks, and angle plates are respectively installed on the angle shafts.

[0009] Preferably, a pair of arc-shaped films are arranged on the three pairs of the loop-shaped filter blocks and the three pairs of the angle plates.

[0010] Preferably, a pair of arc-shaped limit shafts are respectively arranged on the three pairs of the loop-shaped filter blocks, and the pair of arc-shaped limit shafts are respectively inserted into the angle plates movably.

[0011] Preferably, sleeve springs are respectively arranged on the six pairs of the arc-shaped limit shafts, and the sleeve springs are respectively connected to the three pairs of the angle plates.

[0012] Preferably, adsorption magnets are respectively arranged on the three pairs of the angle plates, and adsorption electromagnets are respectively arranged on the three pairs of the loop-shaped filter blocks.

[0013] The thermal power storage integrated control cabinet with dust-proof function manufactured by using the technical solution of the present invention, compared with the prior art: the core advantages are reflected in: ① The modular sealing structure adopts a magnetic adsorption type quick connection component to realize the tool-free disassembly and assembly of the loop-shaped limit block and the filter mesh-shaped plate, and forms an airtight cavity in cooperation with the concave rubber ring; ② The S-shaped air flow channel design enables the gas to pass through the replaceable plug-in shaft tube filter screen, the loop-shaped filter block and the multi-layer magnetically pressed filter screen in sequence after being guided by the partition plate, realizing three-stage filtration; ③ The intelligent adsorption system controls the pressing force of the loop-shaped extrusion block on the filter screen through the electromagnet, and forms a positive pressure environment in combination with the cooling drainage fan to effectively block external dust; ④ The built-in circulation purification module drives the air to complete the inner circulation purification through the filter cotton, activated carbon and horn-shaped drainage pieces by the adsorption pump, and realizes convenient maintenance in cooperation with the slidable replaceable inner pipe; ⑤ The heat management component integrates the arc-shaped limit shaft and the angle plate, automatically adjusts the blade angle through the spring, optimizes the heat dissipation efficiency while maintaining the sealing performance, and the overall design has high protection, easy maintenance and thermal stability. Description of the Drawings

[0014] Figure 1The front sectional view schematic diagram of an integrated control cabinet for thermal power energy storage with dust-proof function according to the present invention.

[0015] Figure 2 The left sectional view schematic diagram of an integrated control cabinet for thermal power energy storage with dust-proof function according to the present invention.

[0016] Figure 3 The right sectional view schematic diagram of an integrated control cabinet for thermal power energy storage with dust-proof function according to the present invention.

[0017] Figure 4 is Figure 2 The partial enlarged view of "A" in

[0018] Figure 5 is Figure 3 The partial enlarged view of "B" in

[0019] In the figure: 1. Dust-proof control cabinet frame; 101. Square limit block; 102. Filter mesh plate; 103. Observation glass; 104. Partition board; 105. Concave extrusion block; 106. Concave rubber ring; 107. Square filter block; 108. Filter net; 109. Square extrusion block; 110. Adsorption square magnet; 111. Sleeve shaft tube; 112. Limit ring; 113. Inserted shaft tube; 114. Filter ring net; 201. Extrusion limit square block; 202. Fixed threaded rod; 203. Square extrusion rubber ring; 204. Fixed nut; 205. Square metal rod; 206. Conductive metal rod; 207. Convex expansion block; 208. Tooth-shaped inserted block; 209. Extrusion magnet; 210. Adsorption drive magnet; 211. Adsorption convex block; 212. Adsorption spring column; 301. Transfer drainage tube; 302. Replaceable inner tube; 303. Adsorption pump; 304. Square limit block; 305. Horn-shaped drainage piece. Detailed implementation mode

[0020] Those skilled in the art connect all the electrical components in this case to their adapted power supplies through wires, and should select a suitable controller according to the actual situation to meet the control requirements. For the specific connection and control sequence, reference should be made to the sequence of the electrical components working successively in the following working principle to complete the electrical connection. The detailed connection means are well-known techniques in the art. The following mainly introduces the working principle and process, and no description of electrical control will be given.

[0021] Embodiment The present novel will be specifically described below with reference to the attached drawings, as Figures 1-5As shown, the sealed dust-proof drainage structure and the auxiliary structure are installed on the dust-proof control cabinet frame 1. The sealed dust-proof drainage structure includes: a loop-shaped limiting block 101, a pair of filter mesh plates 102, multiple observation glasses 103, multiple partition plates 104, multiple concave-shaped extrusion blocks 105, multiple concave-shaped rubber rings 106, a pair of loop-shaped filter blocks 107, a pair of filter meshes 108, a pair of loop-shaped extrusion blocks 109, two pairs of adsorption loop-shaped magnets 110, multiple sleeve shafts 111, multiple limiting rings 112, multiple inserted shafts 113, multiple filter ring meshes 114, and a quick connection component; the loop-shaped limiting block 101 is installed on the dust-proof control cabinet frame 1, a pair of the filter mesh plates 102 are installed inside the loop-shaped limiting block 101 through the quick connection component, multiple observation glasses 103 are evenly installed on a pair of the filter mesh plates 102, multiple concave-shaped extrusion blocks 105 are respectively installed on a pair of the filter mesh plates 102, multiple concave-shaped rubber rings 106 are respectively installed inside multiple concave-shaped extrusion blocks 105, multiple partition plates 104 are respectively movably inserted inside the concave-shaped rubber rings between multiple concave-shaped extrusion blocks 105, a pair of loop-shaped filter blocks 107 are respectively installed on a pair of the filter mesh plates 102, a pair of filter meshes 108 are respectively installed between a pair of loop-shaped filter blocks 107, two pairs of adsorption loop-shaped magnets 110 are respectively installed on a pair of loop-shaped extrusion blocks 109 and a pair of loop-shaped filter blocks 107, a pair of loop-shaped extrusion blocks 109 are respectively magnetically connected to the adsorption loop-shaped magnets 110 on a pair of loop-shaped filter blocks 107 through the adsorption loop-shaped magnets 110, multiple sleeve shafts 111 are respectively inserted into multiple partition plates 104, multiple limiting rings 112 are respectively installed inside multiple sleeve shafts 111, multiple inserted shafts 113 are respectively movably inserted inside multiple sleeve shafts 111 and are movably placed on the limiting rings 112, multiple filter ring meshes 114 are respectively installed inside multiple inserted shafts 113; the quick connection component includes: an extrusion limiting loop-shaped block 201, two pairs of fixed threaded rods 202, a loop-shaped extrusion rubber ring 203, two pairs of fixed nuts 204, a loop-shaped metal rod 205, multiple conduction metal rods 206, multiple convex-shaped telescopic blocks 207, multiple toothed inserted blocks 208, multiple extrusion magnets 209, an adsorption driving magnet 210, an adsorption convex block 211, and an adsorption spring column 212;The extrusion limit clip 201 is installed on the dust-proof control cabinet frame 1. Two pairs of the fixed threaded rods 202 are inserted into the extrusion limit clip 201 in parallel pairwise. Two pairs of sleeve holes are formed on the clip limit block 101. The clip limit block 101 is movably sleeved on two pairs of the fixed threaded rods 202 through the two pairs of sleeve holes. Two pairs of the fixed nuts 204 are respectively movably sleeved on two pairs of the fixed threaded rods 202. The clip extrusion rubber ring 203 is installed on the extrusion limit clip 201. The clip metal rod 205 is inserted into the dust-proof control cabinet frame 1. A convex telescopic hole is formed on the dust-proof control cabinet frame 1. A plurality of the conduction metal rods 206 are respectively connected to a plurality of the clip metal rods 205 and a plurality of the convex telescopic holes. A plurality of the convex telescopic blocks 207 are respectively movably inserted into the inner sides of a plurality of the convex telescopic holes. A plurality of the toothed insertion blocks 208 are respectively installed on a plurality of the convex telescopic blocks 207. A plurality of the extrusion magnets 209 are respectively installed on a plurality of the convex telescopic blocks 207. An extrusion conduction groove is formed on the dust-proof control cabinet frame 1. The adsorption convex block 211 is movably inserted into the inner side of the extrusion conduction groove. The adsorption spring columns 212 are respectively connected to the adsorption convex block 211 and the inner side of the extrusion conduction groove. The adsorption drive magnet 210 is installed on the adsorption convex block 211; The auxiliary structure includes: a transfer drainage pipe 301, a replaceable inner pipe 302, a filter cotton, an adsorption pump 303, a filter carbon, a clip limit block 101, and a plurality of horn-shaped drainage pieces 305; The transfer drainage pipe 301 is installed inside the dust-proof control cabinet frame 1. The clip limit block 101 is installed inside the transfer drainage pipe 301. The replaceable inner pipe 302 is inserted into the transfer drainage pipe 301 in a sliding manner. The filter cotton and the filter carbon are installed inside the replaceable inner pipe 302. The adsorption pump 303 is connected to the transfer drainage pipe 301. A plurality of the horn-shaped drainage pieces 305 are evenly installed inside the transfer drainage pipe 301; Cooling drainage fans are respectively arranged on three pairs of the clip limit blocks 101; An installation bracket is arranged inside the dust-proof control cabinet frame 1; Concave bearing blocks are respectively arranged on three pairs of the clip filter blocks 107. Angle shafts are respectively arranged on the concave bearing blocks. Angle plates are respectively installed on the angle shafts; A pair of arc-shaped rubber sheets are arranged on three pairs of the clip filter blocks 107 and three pairs of the angle plates; A pair of arc-shaped limit shafts are respectively arranged on three pairs of the clip filter blocks 107. The pair of arc-shaped limit shafts are respectively movably inserted into the angle plates; Sleeve springs are respectively arranged on six pairs of the arc-shaped limit shafts. The sleeve springs are respectively connected to three pairs of the angle plates; Adsorption magnets are respectively arranged on three pairs of the angle plates. Adsorption electromagnets are respectively arranged on three pairs of the clip filter blocks 107.

[0022] According to the attached Figures 1-5 It is obtained that by respectively installing three pairs of loop-shaped limit blocks 101 on the outer side of the dust-proof control cabinet frame 1, fixing the loop-shaped limit blocks 101 on the inner side of the dust-proof control cabinet frame 1 through a quick connection component, installing a pair of filter mesh plates 102 on the inner side of the loop-shaped limit blocks 101, relatively stretching the concave extrusion blocks 105 on a pair of filter mesh blocks, squeezing multiple partition plates 104 between the paired concave extrusion blocks 105, and squeezing and sealing the partition plates 104 through the concave rubber rings 106, the cooperation of the loop-shaped limit blocks 101, a pair of filter mesh plates 102 and multiple partition plates 104 is used to separate into multiple sealed spaces. At the same time, the gas is unidirectionally drained through the sleeve shaft tube 111 on the partition plate 104, the insertion shaft tube 113 is limited and supported by the limit ring 112 inside the sleeve shaft tube 111, so that the replaceable insertion shaft tube 113 filters inside the sleeve shaft tube 111, and the gas outside the device is drained into the inner side of the dust-proof control cabinet frame 1 in an S shape through filtering devices such as the filter ring net 114 inside the insertion shaft tube 113. The gas is filtered through the filter net 108 on the loop-shaped filter block 107 on a pair of filter mesh plates 102. At the same time, the adsorption loop magnet 110 on the loop-shaped extrusion block 109 adsorbs the adsorption loop magnet 110 on the loop-shaped filter block 107, and the filter net 108 is squeezed and fixed on the loop-shaped extrusion block 109 through the loop-shaped extrusion block 109, so as to filter and drain the gas; by limiting and placing the loop-shaped limit block 101 on the extrusion limit loop block 201 on the dust-proof control cabinet frame 1, the extrusion limit loop block 201 is limited by two pairs of fixed threaded rods 202. At the same time, two pairs of fixed nuts 204 are rotated along the fixed threaded rods 202, so that the two pairs of fixed nuts 204 are limited and fixed on the two pairs of fixed threaded rods 202, thereby squeezing and fixing the loop-shaped limit block 101. By loosening the adsorption convex block 211, the adsorption convex block 211 is squeezed by the adsorption spring column 212, and the adsorption drive magnet 210 on the adsorption convex block 211 squeezes the loop-shaped metal rod 205. The magnetic force is transmitted from the adsorption drive magnet 210 to the loop-shaped metal rod 205 and the conduction metal rod 206. The conduction metal rod 206 magnetically repels the extrusion magnet 209 on the convex telescopic block 207. The extrusion magnet 209 drives the convex telescopic block 207 and the toothed insertion block 208 thereon, so as to quickly squeeze and fix the loop-shaped limit block 101; by operating the adsorption pump 303 on the transfer drainage pipe 301, the air inside the dust-proof control cabinet frame 1 is drained, and the drained gas is filtered by the filter carbon and filter cotton in the replaceable inner tube 302 inside the transfer drainage pipe 301 for inner circulation filtration. At the same time, it is unidirectionally drained through multiple horn-shaped drainage pieces 305.

[0023] The above technical solutions only represent the preferred technical solutions of the technical solutions of the present invention. Some changes that those skilled in the art of this technology may make to some parts thereof all embody the principles of the present invention and fall within the protection scope of the present invention.

Claims

1. An integrated control cabinet for thermal power energy storage with dust-proof function, comprising: A dust-proof control cabinet frame, three pairs of sealed dust-proof drainage structures and auxiliary structures, the sealed dust-proof drainage structures and the auxiliary structures are installed on the dust-proof control cabinet frame, and it is characterized in that the sealed dust-proof drainage structure includes: a loop-shaped limit block, a pair of filter mesh plates, a plurality of observation glasses, a plurality of partition plates, a plurality of concave-shaped extrusion blocks, a plurality of concave-shaped rubber rings, a pair of loop-shaped filter blocks, a pair of filter meshes, a pair of loop-shaped extrusion blocks, two pairs of adsorption loop-shaped magnets, a plurality of sleeve shafts, a plurality of limit rings, a plurality of inserted shafts, a plurality of filter ring meshes and a quick connection component; The loop-shaped limit block is installed on the dust-proof control cabinet frame, a pair of the filter mesh plates are installed on the inner side of the loop-shaped limit block through the quick connection component, a plurality of the observation glasses are evenly installed on the pair of filter mesh plates, a plurality of the concave-shaped extrusion blocks are respectively installed on the pair of filter mesh plates, a plurality of the concave-shaped rubber rings are respectively installed on the inner sides of the plurality of concave-shaped extrusion blocks, a plurality of the partition plates are respectively movably inserted into the inner sides of the concave-shaped rubber rings between the plurality of concave-shaped extrusion blocks, a pair of the loop-shaped filter blocks are respectively installed on the pair of filter mesh plates, a pair of the filter meshes are respectively installed between the pair of loop-shaped filter blocks, a pair of the adsorption loop-shaped magnets are respectively installed on the pair of loop-shaped extrusion blocks and the pair of loop-shaped filter blocks, a pair of the loop-shaped extrusion blocks are respectively magnetically connected to the adsorption loop-shaped magnets on the pair of loop-shaped filter blocks through the adsorption loop-shaped magnets, a plurality of the sleeve shafts are respectively inserted into the plurality of partition plates, a plurality of the limit rings are respectively installed on the inner sides of the plurality of sleeve shafts, a plurality of the inserted shafts are respectively movably inserted into the inner sides of the plurality of sleeve shafts and are movably placed on the limit rings, and a plurality of the filter ring meshes are respectively installed on the inner sides of the plurality of inserted shafts.

2. The integrated control cabinet for thermal power energy storage with dust-proof function according to claim 1, wherein, The quick connection component includes: an extrusion limit loop-shaped block, two pairs of fixed threaded rods, a loop-shaped extrusion rubber ring, two pairs of fixed nuts, a loop-shaped metal rod, a plurality of conduction metal rods, a plurality of convex-shaped telescopic blocks, a plurality of tooth-shaped inserted blocks, a plurality of extrusion magnets, an adsorption driving magnet, an adsorption convex block and an adsorption spring column; The extrusion limit clip is installed on the dust-proof control cabinet frame. Two pairs of the fixed threaded rods are inserted into the extrusion limit clip in parallel. Two pairs of sleeve holes are formed on the clip-shaped limit block. The clip-shaped limit block is movably sleeved on two pairs of the fixed threaded rods through the two pairs of sleeve holes. Two pairs of the fixed nuts are respectively movably sleeved on two pairs of the fixed threaded rods. The clip-shaped extrusion rubber ring is installed on the extrusion limit clip. The clip-shaped metal rod is inserted into the dust-proof control cabinet frame. A convex telescopic hole is formed on the dust-proof control cabinet frame. A plurality of conductive metal rods are respectively connected to a plurality of the clip-shaped metal rods and a plurality of the convex telescopic holes. A plurality of convex telescopic blocks are respectively movably inserted into the inner sides of the plurality of convex telescopic holes. A plurality of toothed insertion blocks are respectively installed on the plurality of convex telescopic blocks. A plurality of extrusion magnets are respectively installed on the plurality of convex telescopic blocks. An extrusion conduction groove is formed on the dust-proof control cabinet frame. The adsorption convex block is movably inserted into the inner side of the extrusion conduction groove. The adsorption spring columns are respectively connected to the adsorption convex block and the inner side of the extrusion conduction groove. The adsorption driving magnet is installed on the adsorption convex block.

3. A thermal power energy storage integrated control cabinet with a dust-proof function according to claim 1, characterized in that, The auxiliary structure includes: a transfer drainage pipe, a replaceable inner pipe, a filter cotton, an adsorption pump, filter charcoal, a clip-shaped limit block, and a plurality of horn-shaped drainage pieces; The transfer drainage pipe is installed inside the dust-proof control cabinet frame. The clip-shaped limit block is installed inside the transfer drainage pipe. The replaceable inner pipe is inserted into the transfer drainage pipe in a sliding manner. The filter cotton and the filter charcoal are installed inside the replaceable inner pipe. The adsorption pump is connected to the transfer drainage pipe. A plurality of horn-shaped drainage pieces are evenly installed inside the transfer drainage pipe.

4. A thermal power energy storage integrated control cabinet with a dust-proof function according to claim 1, characterized in that, Three pairs of clip-shaped limit blocks are respectively provided with cooling drainage fans.

5. A thermal power energy storage integrated control cabinet with a dust-proof function according to claim 1, characterized in that, An installation bracket is arranged inside the dust-proof control cabinet frame.

6. The integrated control cabinet for thermal power energy storage with dust-proof function according to claim 1, characterized in that, Three pairs of clip-shaped filter blocks are respectively provided with concave bearing blocks. Angle shafts are respectively arranged on the concave bearing blocks. Angle plates are respectively installed on the angle shafts.

7. A thermal power energy storage integrated control cabinet with a dust-proof function according to claim 1, characterized in that A pair of arc-shaped rubber sheets are arranged on three pairs of clip-shaped filter blocks and three pairs of angle plates.

8. The thermal power thermal storage integrated control cabinet with dustproof function according to claim 1, characterized in that: Three pairs of clip-shaped filter blocks are respectively provided with a pair of arc-shaped limit shafts. A pair of arc-shaped limit shafts are respectively movably inserted into the angle plates.

9. The integrated control cabinet for thermal power energy storage with dust-proof function according to claim 1, characterized in that, A set of spring is arranged on each of the six pairs of arc-shaped limit shafts. The set of springs are respectively connected to three pairs of angle plates.

10. A thermal power energy storage integrated control cabinet with a dust-proof function according to claim 1, characterized in that, Three pairs of angle plates are respectively provided with adsorption magnets. Three pairs of clip-shaped filter blocks are respectively provided with adsorption electromagnets.

Images