Electronic communication cabinet structure with monitoring protection function

Abstract

The application discloses an electronic communication cabinet body structure with monitoring and protection functions, which comprises a ground and a cabinet body, the ground is provided with a mounting groove, the inner side of the mounting groove is provided with a base structure, the top end of the mounting groove is provided with an automatic opening structure, the inner side of the mounting groove is provided with a lifting structure, the cabinet body is installed on the lifting structure, the inner side of the cabinet body is provided with a reinforcing structure, the inner side of the cabinet body is provided with an electrical component mounting rack, the ground is provided with a monitoring and protection structure and a dehumidification and moisture-proof structure, and the dehumidification and moisture-proof structure is connected to the bottom end of the cabinet body; the cabinet body is located on the ground, thereby reducing the influence of environmental factors, and the dehumidification and moisture-proof structure is further arranged, which can keep the inner side of the cabinet dry and can seal and protect the equipment according to the surrounding environment, water inflow is avoided through siphoning, the equipment is limited and shielded through buoyancy, underground equipment is prevented from being flooded, and the maintenance period of maintenance personnel is effectively reduced.

Description

Technical Field

[0001] This invention relates to the field of electronic communication cabinet technology, and in particular to an electronic communication cabinet structure with monitoring and protection functions. Background Technology

[0002] Traditional electronic communication cabinets are installed on the ground. Due to the materials used in their construction and the environment in which they are installed, they are often affected by weather conditions or human factors in the city. Storms or human-caused damage can cause internal components of the electronic communication cabinets to malfunction. In view of this, this case was developed after in-depth research into the above problems. Summary of the Invention

[0003] The technical solution of the present invention to achieve the above objectives is as follows: an electronic communication cabinet structure with monitoring and protection functions, comprising: a ground and a cabinet, an installation groove is provided on the ground, a base structure is provided on the inner side of the installation groove, an automatic opening structure is provided at the top of the installation groove, a lifting structure is installed on the inner side of the installation groove, the cabinet is installed on the lifting structure, a reinforcing structure is provided on the inner side of the cabinet, an electrical component mounting frame is provided on the inner side of the cabinet, a monitoring and protection structure and a dehumidification and moisture-proof structure are provided on the ground, and the dehumidification and moisture-proof structure is connected to the bottom of the cabinet;

[0004] The foundation structure includes: a foundation stone, a concrete casting frame, several mounting lugs, several reinforcing beams, several horizontally placed stabilizing beams, a base plate, and a top plate.

[0005] The base stone is laid on the bottom of the installation groove and poured with cement. The base plate is movably placed on the base stone. The four edges of the base plate are integrated with the base stone by cement pouring. The concrete casting frame is movably placed on the base plate. Several mounting ears are installed at equal intervals on the outer wall of the concrete casting frame. Each mounting ear has a mounting hole. The end of the base plate has mounting holes corresponding to the number and position of the mounting ears. Several reinforcing beams pass through the mounting ears and are inserted into the mounting holes. The top plate is installed on the concrete casting frame. Several horizontal stabilizing beams are located between the reinforcing beams.

[0006] The dehumidification and moisture-proof structure includes: a transfer day-type heating box, an electric heating element, a heating air inlet pipe, a heating exhaust pipe, a filter silicone membrane, a pair of dehumidification lifting sleeves, a pair of sealed telescopic hoses, a heating and drainage fan, a pair of L-shaped gas drainage pipes, a concave lifting limit block, a convex lifting block, a U-shaped inflatable pad, a U-shaped lifting baffle, two pairs of L-shaped rainwater drainage pipes, and a tensioning assembly;

[0007] The transfer-type heating box is installed on the top plate. A pair of L-shaped gas drainage pipes are inserted into both sides of the transfer-type heating box, and the pair of L-shaped gas drainage pipes extend from the ground. The electric heating element is installed inside the transfer-type heating box. A pair of dehumidifying lifting sleeves are inserted into both sides of the top of the transfer-type heating box. The heating inlet pipe and the heating exhaust pipe are inserted into the cabinet, and the heating inlet pipe and the heating exhaust pipe are movably inserted into the pair of dehumidifying lifting sleeves. A pair of sealed telescopic hoses are connected at both ends to the pair of dehumidifying lifting sleeves, the heating inlet pipe, and the heating exhaust pipe, respectively. On the pipe, a filter silicone membrane is installed inside the heating air inlet pipe, a heating exhaust fan is installed on the heating air inlet pipe, a lifting U-shaped shielding groove is opened on the ground, a U-shaped concave lifting limit block is installed inside the lifting U-shaped shielding groove, a convex U-shaped lifting block is movably inserted inside the U-shaped concave lifting limit block, a U-shaped inflatable pad is installed on the convex U-shaped lifting block, a U-shaped lifting shielding plate is installed on the convex U-shaped lifting block, two pairs of L-shaped rainwater drainage pipes are inserted on the ground, a tensioning component is installed on a pair of L-shaped gas drainage pipes, and a pair of tensioning components are connected to the U-shaped lifting shielding plate.

[0008] Preferably, the lifting structure includes: a pair of W-shaped lifting blocks, several lifting threaded rods, several lifting threaded tubes, a pair of lifting limit blocks, a pair of lifting gearboxes, a pair of lifting drive motors, several lifting limit shafts, and limit fixing components;

[0009] A pair of W-shaped lifting blocks are installed in a cross shape on the top plate. A pair of lifting limit blocks are installed on the side walls of the cabinet, and the pair of lifting limit blocks are movably inserted into the inner side of the pair of W-shaped lifting blocks. Several lifting threaded tubes are inserted into the pair of lifting limit blocks. Several lifting threaded rods are inserted into the pair of W-shaped lifting blocks through bearings, and the several lifting threaded rods are movably inserted into the several lifting threaded tubes. A pair of lifting gearboxes are installed inside the pair of W-shaped lifting blocks, and the pair of lifting gearboxes are fitted onto the several lifting threaded rods. A pair of lifting drive motors are installed inside the pair of W-shaped lifting blocks, and the drive ends of the pair of lifting drive motors are connected to the pair of lifting gearboxes. Several lifting shafts are inserted into the pair of W-shaped lifting blocks, and the several lifting shafts are movably inserted into the pair of lifting limit blocks. Limiting and fixing components are installed on the pair of lifting limit blocks.

[0010] Preferably, the automatic opening structure includes: an A-frame bracket, a large baffle, a small baffle, two pairs of telescopic sealing screw modules, an expansion temperature control box, an expansion pump, an expansion diversion pipe, a cooler, a radiator, a pair of sealing gaskets, and a pair of well-shaped heat dissipation pipes.

[0011] A herringbone bracket is inserted into the ground. The bracket has a pair of herringbone telescopic grooves. Inside each herringbone telescopic groove is a pair of sealed telescopic drive grooves. Two pairs of telescopic sealing screw modules are installed inside each of the sealed telescopic drive grooves. A large and a small baffle are interlocked inside each herringbone telescopic groove, and are connected to the moving ends of the two pairs of telescopic sealing screw modules. The large baffle has a telescopic tenon groove, and the small... The smaller baffle plate is movably inserted into the inner side of the telescopic tenon groove on the larger baffle plate. A pair of sealing gaskets are respectively installed on the larger baffle plate and the smaller baffle plate. The expansion temperature control box is installed on the ground. The expansion pump is installed on the expansion temperature control box. A pair of well-shaped heat dissipation pipes are respectively installed on the larger baffle plate and the smaller baffle plate. The expansion diversion pipe is installed on the expansion pump and connected to the pair of well-shaped heat dissipation pipes. The cooler is installed inside the expansion temperature control box. The radiator is installed on the expansion temperature control box.

[0012] Preferably, the limiting and fixing assembly includes: a pair of V-shaped hook blocks, a pair of V-shaped limiting blocks, two pairs of rotating limiting and fixing shafts, two pairs of bidirectional electromagnet blocks, two pairs of telescopic magnet blocks, and an infrared height sensor.

[0013] Three pairs of rotating limiting slots are respectively opened on the inner side of a pair of lifting limit blocks and the mounting slot. A pair of V-shaped hook blocks are respectively inserted into the inner side of the three pairs of rotating limiting slots on a pair of lifting limit blocks through rotating limiting fixing shafts. A pair of V-shaped limit blocks are respectively inserted into the inner side of the three pairs of rotating limiting slots on the mounting slot through rotating limiting fixing shafts. Two pairs of bidirectional electromagnet blocks are respectively installed on a pair of lifting limit blocks and the mounting slot. Two pairs of telescopic magnet blocks are respectively installed on a pair of V-shaped hook blocks and a pair of V-shaped limit blocks. An infrared height sensor is installed on the lifting limit blocks.

[0014] Preferably, the reinforcing structure includes: several stiffening plates, two pairs of reinforcing strip boxes, and four pairs of reinforcing blocks;

[0015] Two pairs of reinforced strip boxes are installed in pairs on the outer side wall of the cabinet, four pairs of reinforcing blocks are placed on the inner side of the two pairs of reinforced strip boxes, and several stiffening plates are evenly installed on the inner side wall of the cabinet.

[0016] Preferably, the stretching assembly includes: a pair of U-shaped siphon tubes, a pair of telescopic folding tubes, a pair of stretching ring supports, a pair of filter screens, and a pair of convex stretching blocks;

[0017] A pair of telescopic folding tubes are respectively connected to a pair of L-shaped gas drainage tubes, a pair of U-shaped siphon tubes are respectively connected to a pair of telescopic folding tubes, a pair of filter screens are respectively installed on the inner side of a pair of U-shaped siphon tubes, a pair of stretching ring brackets are respectively fitted onto a pair of U-shaped siphon tubes, a pair of lifting and stretching concave grooves are opened on the U-shaped lifting baffle plate, a pair of convex stretching blocks are respectively connected to a pair of stretching ring brackets, and a pair of convex stretching blocks are respectively movably inserted into a pair of lifting and stretching concave grooves.

[0018] Preferably, the concave lifting limit block is provided with a drainage structure;

[0019] The drainage structure includes: a U-shaped siphon pipe, a drain valve, a level sensor, and an infrared trigger.

[0020] The U-shaped siphon suction tube is inserted into the concave lifting limit block, the drain valve is installed on the U-shaped siphon suction tube, the concave detection groove is opened on the concave lifting baffle plate, the liquid level sensor is installed on the inside of the concave detection groove, and the infrared trigger is installed on the concave detection groove.

[0021] Preferably, the U-shaped lifting baffle is made of plastic.

[0022] Preferably, a pair of convex longitudinal telescopic blocks and two pairs of convex transverse telescopic blocks are respectively provided with convex sealing grooves and concave sealing grooves. The convex longitudinal telescopic block is movably inserted into the inner side of the concave sealing groove on another convex longitudinal telescopic block through the convex sealing groove.

[0023] Preferably, a humidity sensor is installed on the inside of the cabinet.

[0024] The electronic communication cabinet structure with monitoring and protection functions manufactured using the technical solution of this invention presents a unique electronic communication cabinet. This cabinet is located underground, thereby reducing the impact of environmental factors. It is also equipped with a dehumidification and moisture-proof structure, which can keep the inside of the cabinet dry and can also seal and protect the equipment according to the surrounding environment. Water ingress is prevented by siphoning, and water ingress into underground equipment is prevented by buoyancy limiting and shielding the equipment. This effectively helps maintenance personnel reduce maintenance cycles and reduce the occurrence of communication interruption accidents, effectively solving the technical problems mentioned in the background art. Attached Figure Description

[0025] Figure 1 This is a front sectional view of an electronic communication cabinet structure with monitoring and protection functions according to the present invention.

[0026] Figure 2 This is a side sectional view of an electronic communication cabinet structure with monitoring and protection functions according to the present invention.

[0027] Figure 3This is a top view schematic diagram of an electronic communication cabinet structure with monitoring and protection functions according to the present invention.

[0028] Figure 4 for Figure 1 A magnified view of the letter "A" in the image.

[0029] Figure 5 for Figure 1 A magnified view of the "B" in the middle.

[0030] Figure 6 for Figure 1 A magnified view of the "C" in the middle.

[0031] In the diagram: 1. Ground; 2. Cabinet; 3. Foundation; 4. Concrete frame; 5. Mounting lugs; 6. Reinforcing beam; 7. Horizontal stabilizing beam; 8. Base plate; 9. Top plate; 10. Transfer heating box; 11. Electric heating element; 12. Heating air inlet pipe; 13. Heating exhaust pipe; 14. Filter silicone membrane; 15. Dehumidifying lifting sleeve; 16. Sealing telescopic hose; 17. Heating exhaust fan; 18. L-shaped gas drainage pipe; 19. Recurved concave lifting limit block; 20. Convex recurved lifting block; 21. Recurved inflatable cushion; 22. Recurved lifting baffle; 23. L-shaped rainwater drainage pipe; 24. W-shaped lifting block; 25. Lifting threaded rod; 26. Lifting threaded pipe; 27. Lifting limit block; 28. Lifting gearbox; 29. ​​Lifting drive motor; 30. Lifting limit... 31. Position axis; 32. A-frame bracket; 33. Large baffle plate; 34. Small baffle plate; 35. Telescopic sealing screw module; 36. Expansion temperature control box; 37. Expansion pump; 38. Expansion diverter pipe; 39. Cooler; 40. Radiator; 41. Sealing gasket; 42. Well-shaped heat dissipation pipe; 43. V-shaped hook block; 44. V-shaped limit block; 45. Rotary limit fixing shaft; 46. Bidirectional electromagnet block; 47. Telescopic magnet block; 48. Infrared height sensor; 49. Rib plate; 50. Reinforced strip box; 51. Reinforcing block; 52. U-shaped siphon tube; 53. Telescopic folding tube; 54. Tension ring bracket; 55. Filter screen; 56. Convex tension block; 57. Drain valve; 58. Liquid level sensor; 59. Infrared trigger. Detailed Implementation

[0032] Those skilled in the art should connect all electrical components and their compatible power supplies in this case via wires, and should select appropriate controllers according to actual conditions to meet control requirements. The specific connection and control sequence should refer to the working principle described below, where the electrical components are connected in sequence. The detailed connection methods are well-known in the art. The following mainly introduces the working principle and process, without explaining the electrical control.

[0033] Example

[0034] like Figure 1-6 As shown, an installation groove is provided on the ground 1, a base structure is provided on the inner side of the installation groove, an automatic opening structure is provided at the top of the installation groove, a lifting structure is installed on the inner side of the installation groove, the cabinet 2 is installed on the lifting structure, a reinforcing structure is provided on the inner side of the cabinet 2, an electrical component mounting frame is provided on the inner side of the cabinet 2, a monitoring and protection structure and a dehumidification and moisture-proof structure are provided on the ground 1, and the dehumidification and moisture-proof structure is connected to the bottom of the cabinet 2.

[0035] Specifically, the foundation structure includes: foundation stone 3, concrete casting frame 4, several mounting lugs 5, several reinforcing beams 6, several horizontal stabilizing beams 7, base plate 8, and top plate 9.

[0036] Specifically, the base stone 3 is laid on the bottom of the mounting groove and grouted with cement. The base plate 8 is movably placed on the base stone 3. The four edges of the base plate 8 are integrated with the base stone 3 by cement grouting. The concrete casting frame 4 is movably placed on the base plate 8. Several mounting ears 5 are installed at equal intervals on the outer wall of the concrete casting frame 4. Each mounting ear 5 has a mounting hole. The end of the base plate 8 has mounting holes corresponding to the number and position of the mounting ears 5. Several reinforcing beams 6 pass through the mounting ears 5 and are inserted into the mounting holes. The top plate 9 is installed on the concrete casting frame 4. Several horizontal stabilizing beams 7 are located between the reinforcing beams 6.

[0037] In use, the cabinet 2 is installed and fixed by the base structure. The automatic opening structure is used to open the end of the cabinet 2 to disassemble or repair the components at the bottom of the underground communication cabinet 2. The left and right sides of the cabinet 2 have lifting structures, which are used to push out the electrical component mounting frame inside the cabinet 2. The cabinet 2 has a dehumidification and moisture-proof structure to remove moisture inside the cabinet 2 and ensure the normal operation of the electrical components. After the base stone 3 is filled with concrete, the bottom support hardness can be strengthened. The base plate 8 is placed on the base stone 3, and the four edges of the base plate 8 are poured with cement to form a whole with the base stone 3. Then, the concrete pouring frame 4 is placed on the base plate 8. The concrete pouring frame 4 has multiple mounting ears 5 on the outside. The mounting ears 5 on the concrete pouring frame 4 are fixed to the top plate 9 by the reinforcing beam 6. Then, the horizontal stabilizing beam 7 is used to fix several reinforcing beams 6 again.

[0038] like Figure 1-6As shown, the dehumidification and moisture-proof structure includes: a transfer-type heating box 10, an electric heating element 11, a heating air inlet pipe 12, a heating exhaust pipe 13, a filter silicone membrane 14, a pair of dehumidification lifting sleeves 15, a pair of sealed telescopic hoses 16, a heating and drainage fan 17, a pair of L-shaped gas drainage pipes 18, a concave-shaped lifting limit block 19, a convex-shaped lifting block 20, a circular inflatable cushion 21, a circular lifting baffle 22, two pairs of L-shaped rainwater drainage pipes 23, and a tensioning assembly;

[0039] Specifically, the transfer-type heating box 10 is installed on the top plate 9. A pair of L-shaped gas drainage pipes 18 are respectively inserted on both sides of the transfer-type heating box 10, and the pair of L-shaped gas drainage pipes 18 extend from the ground 1. The electric heating element 11 is installed inside the transfer-type heating box 10. A pair of dehumidifying lifting sleeves 15 are respectively inserted on both sides of the top of the transfer-type heating box 10. The heating air inlet pipe 12 and the heating exhaust pipe 13 are inserted into the cabinet 2, and the heating air inlet pipe 12 and the heating exhaust pipe 13 are respectively movably inserted into the pair of dehumidifying lifting sleeves 15. The two ends of a pair of sealed telescopic rubber hoses 16 are respectively connected to the pair of dehumidifying lifting sleeves 15, the heating air inlet pipe 12, and the heating exhaust pipe 13. On the hot exhaust pipe 13, a filter silicone membrane 14 is installed inside the heated air intake pipe 12, a heated air intake fan 17 is installed on the heated air intake pipe 12, a lifting U-shaped shielding groove is opened on the ground 1, a U-shaped concave lifting limit block 19 is installed inside the lifting U-shaped shielding groove, a convex U-shaped lifting block 20 is movably inserted inside the U-shaped concave lifting limit block 19, a U-shaped inflatable pad 21 is installed on the convex U-shaped lifting block 20, a U-shaped lifting shield 22 is installed on the convex U-shaped lifting block 20, two pairs of L-shaped rainwater drainage pipes 23 are inserted on the ground 1, a tensioning component is installed on a pair of L-shaped gas drainage pipes 18, and a pair of tensioning components are connected to the U-shaped lifting shield 22.

[0040] In use, the heating exhaust fan 17 draws air through the L-shaped gas exhaust pipe 18 into a sealed cavity on one side of the transfer-type heating box 10. When the humidity sensor detects that the humidity inside the cabinet 2 exceeds the standard, the gas drawn by the heating exhaust fan 17 is heated and dried by the electric heating element 11. The high-temperature gas is filtered by the silica gel membrane 14 to remove the moisture inside the high-temperature gas. The high-temperature dried gas is then guided to the cabinet through the dehumidification lifting sleeve 15, the coal powder telescopic hose, and the heating air inlet pipe 12. Inside cabinet 2, high-temperature drying gas forces the gas inside cabinet 2 out. The gas is then movably inserted into the dehumidification lifting sleeve 15 via a heated air inlet pipe 12. A sealing telescopic hose 16 seals the dehumidification lifting sleeve 15 and the heated air inlet pipe 12, ensuring a sealed connection between cabinet 2 and the transfer heating box 10 during the lifting and lowering process. Simultaneously, the heated exhaust pipe 13 expels gas through the sealing telescopic hose 16 and the dehumidification... The wet lifting sleeve 15 drains water into the inner side of the sealed cavity on the other side of the transfer day-type heating box 10, and then drains it out through the L-shaped gas drain pipe 18 on the other side of the transfer day-type heating box 10. When it rains and the amount of rainwater reaches a certain level, the rainwater is drained into the inner side of the two pairs of L-shaped rainwater drain pipes 23. The rainwater is then drained into the inner side of the concave lifting limit block 19. The rainwater inside the concave lifting limit block 19 supports and floats the concave air cushion 21, allowing the concave air cushion 21 to float. 1. The convex spiral lifting block 20 is supported, and the spiral lifting blocking block on it is driven by the convex spiral lifting block 20. The spiral lifting blocking block blocks cover the four sides of the cabinet 2, preventing rainwater from flowing into the inside of the mounting groove and damaging the electrical appliances in the cabinet inside the mounting groove. At the same time, the blocking blocks prevent rainwater from flowing into the inside of the L-shaped gas drainage pipe 18. The spiral lifting blocking block drives the stretching component on it, and the stretching component raises and lowers the air inlets of the pair of L-shaped gas drainage pipes 18.

[0041] like Figure 1-6 As shown, the lifting structure includes: a pair of W-shaped lifting blocks 24, several lifting threaded rods 25, several lifting threaded tubes 26, a pair of lifting limit blocks 27, a pair of lifting gearboxes 28, a pair of lifting drive motors 29, several lifting limit shafts 30, and limit fixing components.

[0042] Specifically, a pair of W-shaped lifting blocks 24 are installed in a cross shape on the top plate 9; a pair of lifting limit blocks 27 are respectively installed on the side wall of the cabinet 2, and the pair of lifting limit blocks 27 are movably inserted into the inner side of the pair of W-shaped lifting blocks 24; several lifting threaded tubes 26 are respectively inserted into the pair of lifting limit blocks 27; several lifting threaded rods 25 are respectively inserted into the pair of W-shaped lifting blocks 24 through bearings, and the several lifting threaded rods 25 are movably inserted into the several lifting threaded tubes 26; and a pair of lifting gearboxes... 28 are respectively installed on the inner side of a pair of W-shaped lifting blocks 24, and a pair of lifting gearboxes 28 are respectively fitted on several lifting threaded rods 25. A pair of lifting drive motors 29 are respectively installed on the inner side of a pair of W-shaped lifting blocks 24, and the drive ends of the pair of lifting drive motors 29 are respectively connected to a pair of lifting gearboxes 28. Several lifting shafts are respectively inserted into a pair of W-shaped lifting blocks 24, and several lifting shafts are respectively movably inserted into a pair of lifting limit blocks 27. Limit fixing components are installed on a pair of lifting limit blocks 27.

[0043] In use, the lifting drive motors 29 inside the pair of W-shaped lifting blocks 24 operate, driving the lifting gearboxes 28 on the drive ends of the pair of lifting drive motors 29. The lifting gearboxes 28 drive several lifting threaded rods 25 to rotate, which in turn drive the lifting threaded tubes 26 on them. This causes the lifting threaded tubes 26 to move up and down along the lifting threaded rods 25. The lifting threaded tubes 26 then drive the lifting limit blocks 27 on them, causing the pair of lifting limit blocks 27 to move up and down along the lifting threaded rods 25. The pair of lifting limit blocks 27 then drive the cabinet 2 on them, thus achieving stable lifting, lowering, pushing, and pulling of the cabinet 2. The lifting limit blocks 27 are stably lifted and lowered by several lifting limit shafts 30, and the pair of lifting limit blocks 27 are extended and fixed by the limit fixing components.

[0044] like Figure 1-6 As shown, the automatic opening structure includes: a herringbone bracket 31, a large baffle plate 32, a small baffle plate 33, two pairs of telescopic sealing screw modules 34, an expansion temperature control box 35, an expansion pump 36, an expansion diversion pipe 37, a cooler 38, a radiator 39, a pair of sealing gaskets 40, and a pair of well-shaped heat dissipation pipes 41.

[0045] Specifically, the A-frame bracket 31 is inserted into the ground 1. The A-frame bracket 31 has a pair of A-frame telescopic grooves. Inside each pair of A-frame telescopic grooves, a pair of sealing telescopic drive grooves are formed. Two pairs of telescopic sealing screw modules 34 are respectively installed inside the pair of sealing telescopic drive grooves. A large baffle plate 32 and a small baffle plate 33 are respectively inserted crosswise into the inner sides of the pair of A-frame telescopic grooves. The large baffle plate 32 and the small baffle plate 33 are respectively connected to the moving ends of the two pairs of telescopic sealing screw modules 34. The large baffle plate 32 has a telescopic tenon groove, and the small baffle plate 33 is movable. A pair of sealing gaskets 40 are installed on the large shield 32 and the small shield 33 respectively, inside the telescopic tenon groove inserted into the large shield 32. An expansion temperature control box 35 is installed on the ground 1. An expansion pump 36 is installed on the expansion temperature control box 35. A pair of well-shaped heat dissipation pipes 41 are installed on the large shield 32 and the small shield 33 respectively. An expansion diversion pipe 37 is installed on the expansion pump 36 and connected to the pair of well-shaped heat dissipation pipes 41. A cooler 38 is installed inside the expansion temperature control box 35. A radiator 39 is installed on the expansion temperature control box 35.

[0046] In use, the two pairs of telescopic sealing screw modules 34 inside the two pairs of sealed telescopic drive slots on the A-frame bracket 31 operate, respectively driving the large baffle 32 and the small baffle 33 on the moving end of the two pairs of telescopic sealing screw modules 34. The small baffle 33 is inserted into the telescopic tenon groove on the large baffle 32. The cooler 38 inside the expansion temperature control box 35 operates, cooling the liquid inside the expansion temperature control box 35. The expansion pump 36 pumps the liquid inside the expansion temperature control box 35 to the inside of the expansion diversion pipe 37, and the low-temperature liquid is guided to a pair of well-shaped heat sinks through the expansion diversion pipe 37. Inside pipe 41, the large shield 32 and the small shield 33 are cooled by a low-temperature liquid, thereby cooling the sealing gaskets 40 on the small shield 33 and the large shield 32. Through the principle of thermal expansion and contraction, the large shield 32, the small shield 33 and the pair of sealing gaskets 40 are cooled, resulting in contraction. When cooling stops, the large shield 32, the small shield 33 and the pair of sealing gaskets 40 expand, thereby achieving a compression sealing effect. At the same time, the herringbone bracket 31 diverts rainwater, preventing rainwater from entering the inside of the installation groove.

[0047] like Figure 1-6 As shown, the limiting and fixing assembly includes: a pair of V-shaped hook blocks 42, a pair of V-shaped limiting blocks 43, two pairs of rotating limiting and fixing shafts 44, two pairs of bidirectional electromagnet blocks 45, two pairs of telescopic magnet blocks 46, and an infrared height sensor 47.

[0048] Three pairs of rotating limiting slots are respectively opened on the inner side of a pair of lifting limit blocks 27 and the mounting slot. A pair of V-shaped hook blocks 42 are respectively inserted into the inner side of the three pairs of rotating limiting slots on a pair of lifting limit blocks 27 through rotating limiting fixing shafts 44. A pair of V-shaped limiting blocks 43 are respectively inserted into the inner side of the three pairs of rotating limiting slots on the mounting slot through rotating limiting fixing shafts 44. Two pairs of bidirectional electromagnet blocks 45 are respectively installed on a pair of lifting limit blocks 27 and the mounting slot. Two pairs of telescopic magnet blocks 46 are respectively installed on a pair of V-shaped hook blocks 42 and a pair of V-shaped limiting blocks 43. An infrared height sensor 47 is installed on the lifting limit block 27.

[0049] In use, by energizing the two pairs of bidirectional electromagnet blocks 45, the V-shaped hook block 42 and the V-shaped limiting block 43 are repelled or attracted by magnetism, thereby achieving the effect of repelling the V-shaped hook block 42 and the V-shaped limiting block 43, causing the V-shaped hook block 42 and the V-shaped limiting block 43 to rotate along the rotation limiting fixing axis 44 respectively. Because the V-shaped hook block 42 and the V-shaped limiting block 43 are in different directions and opposite directions, the V-shaped limiting block 43 stretches and supports the V-shaped hook block 42, thereby achieving the effect of stretching and supporting the V-shaped limiting block 43 through the V-shaped hook block 42. At the same time, the V-shaped hook block 42 stretches the lifting limiting block 27, thereby achieving the effect of stretching, limiting and fixing the lifting limiting block 27 in the vertical direction.

[0050] like Figure 1-6 As shown, the reinforcing structure includes: several stiffening plates 48, two pairs of reinforcing strip boxes 49, and four pairs of reinforcing blocks 50;

[0051] Specifically, two pairs of reinforcing strip boxes 49 are installed in pairs on the outer side wall of the cabinet 2, four pairs of reinforcing blocks 50 are respectively placed on the inner side of the two pairs of reinforcing strip boxes 49, and several stiffening plates are evenly installed on the inner side wall of the cabinet 2.

[0052] In order to enhance the rigidity of the cabinet 2, multiple stiffening plates are installed inside the cabinet 2, while the reinforcing strip box 49 is located outside the cabinet 2. Reinforcing blocks 50 are added inside the reinforcing strip box 49 to enhance the overall structural support.

[0053] like Figure 1-6 As shown, the stretching assembly includes: a pair of U-shaped siphon tubes 51, a pair of telescopic folding tubes 52, a pair of stretching ring supports 53, a pair of filter screens 54, and a pair of convex stretching blocks 55.

[0054] Specifically, a pair of telescopic folding tubes 52 are respectively connected to a pair of L-shaped gas drainage tubes 18, a pair of U-shaped siphon tubes 51 are respectively connected to a pair of telescopic folding tubes 52, a pair of filter screens 54 are respectively installed on the inner side of a pair of U-shaped siphon tubes 51, a pair of stretching ring brackets 53 are respectively fitted onto a pair of U-shaped siphon tubes 51, a pair of lifting and stretching concave grooves are provided on the U-shaped lifting baffle plate 22, a pair of convex stretching blocks 55 are respectively connected to a pair of stretching ring brackets 53, and a pair of convex stretching blocks 55 are respectively movably inserted into a pair of lifting and stretching concave grooves.

[0055] In use, the U-shaped lifting baffle 22 is raised and lowered. The lifting and stretching concave groove on the U-shaped lifting baffle 22 drives the convex stretching block 55 on the stretching ring bracket 53. The convex stretching block 55 drives the stretching ring bracket 53 to rise and fall. The stretching ring lifting bracket drives the U-shaped siphon tube 51, thereby stretching the U-shaped siphon tube 51. This prevents rainwater from flowing back into the U-shaped siphon tube 51 when it is higher than the U-shaped siphon tube 51. At the same time, the U-shaped siphon tube 51 prevents rainwater from entering the inside of the L-shaped gas drainage pipe 18.

[0056] like Figure 1-6 As shown, a drainage structure is provided on the concave lifting limit block 19;

[0057] Specifically, the drainage structure includes: a U-shaped siphon suction pipe 56, a drain valve 57, a liquid level sensor 58, and an infrared trigger 59;

[0058] Specifically, the U-shaped siphon suction pipe 56 is inserted into the concave lifting limit block 19, the drain valve 57 is installed on the U-shaped siphon suction pipe 56, the concave detection groove is opened on the concave lifting baffle plate 22, the liquid level sensor 58 is installed on the inside of the concave detection groove, and the infrared trigger 59 is installed on the concave detection groove.

[0059] In use, when the liquid level sensor 58 on the U-shaped lifting baffle 22 checks the liquid level on the outside of the U-shaped lifting baffle 22, when the rainwater is below a certain height, the drain valve 57 on the U-shaped siphon pipe 56 is opened, and the rainwater inside the U-shaped concave lifting limit block 19 is discharged through the siphon principle.

[0060] As a preferred option, the U-shaped lifting baffle 22 is made of plastic.

[0061] As a preferred embodiment, furthermore, a pair of convex longitudinal telescopic blocks and two pairs of convex transverse telescopic blocks are respectively provided with convex sealing grooves and concave sealing grooves, and the convex longitudinal telescopic blocks are movably inserted into the inner side of the concave sealing groove on another convex longitudinal telescopic block through the convex sealing groove.

[0062] As a preferred option, a humidity sensor is further installed on the inside of cabinet 2.

[0063] The above technical solutions only embody the preferred technical solutions of the present invention. Any modifications that may be made by those skilled in the art to certain parts therein embody the principles of the present invention and fall within the protection scope of the present invention.

Claims

1. An electronic communication cabinet structure with monitoring and protection functions, comprising: The floor and cabinet are characterized in that an installation groove is provided on the floor, a base structure is provided on the inner side of the installation groove, an automatic opening structure is provided at the top of the installation groove, a lifting structure is installed on the inner side of the installation groove, the cabinet is installed on the lifting structure, a reinforcing structure is provided on the inner side of the cabinet, an electrical component mounting frame is provided on the inner side of the cabinet, and a dehumidification and moisture-proof structure is provided on the floor, which is connected to the bottom of the cabinet. The foundation structure includes: a foundation stone, a concrete casting frame, several mounting lugs, several reinforcing beams, several horizontally placed stabilizing beams, a base plate, and a top plate. The base stone is laid on the bottom of the installation groove and poured with cement. The base plate is movably placed on the base stone. The four edges of the base plate are integrated with the base stone by cement pouring. The concrete casting frame is movably placed on the base plate. Several mounting ears are installed at equal intervals on the outer wall of the concrete casting frame. Each mounting ear has a mounting hole. The end of the base plate has mounting holes corresponding to the number and position of the mounting ears. Several reinforcing beams pass through the mounting ears and are inserted into the mounting holes. The top plate is installed on the concrete casting frame. Several horizontal stabilizing beams are located between the reinforcing beams. The dehumidification and moisture-proof structure includes: a transfer day-type heating box, an electric heating element, a heating air inlet pipe, a heating exhaust pipe, a filter silicone membrane, a pair of dehumidification lifting sleeves, a pair of sealed telescopic hoses, a heating and drainage fan, a pair of L-shaped gas drainage pipes, a concave-shaped lifting limit block, a convex-shaped lifting block, a U-shaped inflatable cushion, a U-shaped lifting baffle, two pairs of L-shaped rainwater drainage pipes, and a tensioning assembly; The transfer-type heating box is installed on the top plate. A pair of L-shaped gas drainage pipes are inserted into both sides of the transfer-type heating box, and the pair of L-shaped gas drainage pipes extend from the ground. The electric heating element is installed inside the transfer-type heating box. A pair of dehumidifying lifting sleeves are inserted into both sides of the top of the transfer-type heating box. The heating inlet pipe and the heating exhaust pipe are inserted into the cabinet, and the heating inlet pipe and the heating exhaust pipe are movably inserted into the pair of dehumidifying lifting sleeves. A pair of sealed telescopic hoses are connected at both ends to the pair of dehumidifying lifting sleeves, the heating inlet pipe, and the heating exhaust pipe, respectively. On the pipe, a filter silicone membrane is installed inside the heating air inlet pipe, a heating exhaust fan is installed on the heating air inlet pipe, a lifting loop-shaped shielding groove is opened on the ground, a loop-shaped concave lifting limit block is installed inside the lifting loop-shaped shielding groove, a convex loop-shaped lifting block is movably inserted inside the loop-shaped concave lifting limit block, a loop-shaped inflatable pad is installed on the convex loop-shaped lifting block, a loop-shaped lifting shielding plate is installed on the convex loop-shaped lifting block, two pairs of L-shaped rainwater drainage pipes are inserted on the ground, a tensioning component is installed on a pair of L-shaped gas drainage pipes, and a pair of tensioning components are connected to the loop-shaped lifting shielding plate; In operation, the heating exhaust fan draws air through an L-shaped gas exhaust pipe into a sealed chamber on one side of the transfer-type heating box. When the humidity sensor detects excessive humidity inside the cabinet, the air drawn by the heating exhaust fan is heated and dried by an electric heating element. The high-temperature air is filtered through a silica gel membrane to remove moisture from its interior. The dried air is then guided to the inside of the cabinet via a dehumidification lifting sleeve, a coal powder telescopic hose, and a heating air inlet pipe. Simultaneously, the dried air forces the air inside the cabinet out. The heating air inlet pipe is movably inserted into the inside of the dehumidification lifting sleeve, and a sealing telescopic hose seals the dehumidification lifting sleeve and the heating air inlet pipe, ensuring a continuous sealed connection between the cabinet and the transfer-type heating box during cabinet movement. Simultaneously, the gas is guided through the heated exhaust pipe, sealed telescopic hose, and dehumidifying lifting sleeve to the inner side of the sealed cavity on the other side of the transfer day-type heating box. It is then guided out through the L-shaped gas drainage pipe on the other side of the transfer day-type heating box. When it rains and the amount of rainwater reaches a certain level, the rainwater is guided to the inner side of two pairs of L-shaped rainwater drainage pipes. The rainwater is then guided to the inner side of the concave lifting limit block. The rainwater inside the concave lifting limit block supports and floats the concave air cushion, which in turn supports the convex concave lifting block. The convex concave lifting block drives the concave lifting shield block on it, which shields the cabinet from all sides. At the same time, the concave lifting shield block drives the stretching component on it, which lifts and stretches the air inlet of a pair of L-shaped gas drainage pipes.

2. The electronic communication cabinet structure with monitoring and protection functions according to claim 1, characterized in that, The lifting structure includes: a pair of W-shaped lifting blocks, several lifting threaded rods, several lifting threaded tubes, a pair of lifting limit blocks, a pair of lifting gearboxes, a pair of lifting drive motors, several lifting limit shafts, and limit fixing components; A pair of W-shaped lifting blocks are installed in a cross shape on the top plate. A pair of lifting limit blocks are installed on the side walls of the cabinet, and the pair of lifting limit blocks are movably inserted into the inner side of the pair of W-shaped lifting blocks. Several lifting threaded tubes are inserted into the pair of lifting limit blocks. Several lifting threaded rods are inserted into the pair of W-shaped lifting blocks through bearings, and the several lifting threaded rods are movably inserted into the several lifting threaded tubes. A pair of lifting gearboxes are installed inside the pair of W-shaped lifting blocks, and the pair of lifting gearboxes are fitted onto the several lifting threaded rods. A pair of lifting drive motors are installed inside the pair of W-shaped lifting blocks, and the drive ends of the pair of lifting drive motors are connected to the pair of lifting gearboxes. Several lifting shafts are inserted into the pair of W-shaped lifting blocks, and the several lifting shafts are movably inserted into the pair of lifting limit blocks. Limiting and fixing components are installed on the pair of lifting limit blocks.

3. The electronic communication cabinet structure with monitoring and protection functions according to claim 2, characterized in that, The automatic opening structure includes: a herringbone bracket, a large baffle, a small baffle, two pairs of telescopic sealing screw modules, an expansion temperature control box, an expansion pump, an expansion diversion pipe, a cooler, a radiator, a pair of sealing gaskets, and a pair of well-shaped heat dissipation pipes. A herringbone bracket is inserted into the ground. The bracket has a pair of herringbone telescopic grooves. Inside each herringbone telescopic groove is a pair of sealed telescopic drive grooves. Two pairs of telescopic sealing screw modules are installed inside each of the sealed telescopic drive grooves. A large and a small baffle are interlocked inside each herringbone telescopic groove, and are connected to the moving ends of the two pairs of telescopic sealing screw modules. The large baffle has a telescopic tenon groove, and the small... The smaller baffle plate is movably inserted into the inner side of the telescopic tenon groove on the larger baffle plate. A pair of sealing gaskets are respectively installed on the larger baffle plate and the smaller baffle plate. The expansion temperature control box is installed on the ground. The expansion pump is installed on the expansion temperature control box. A pair of well-shaped heat dissipation pipes are respectively installed on the larger baffle plate and the smaller baffle plate. The expansion diversion pipe is installed on the expansion pump and connected to the pair of well-shaped heat dissipation pipes. The cooler is installed inside the expansion temperature control box. The radiator is installed on the expansion temperature control box.

4. The electronic communication cabinet structure with monitoring and protection functions according to claim 3, characterized in that, The limiting and fixing assembly includes: a pair of V-shaped hook blocks, a pair of V-shaped limiting blocks, two pairs of rotating limiting and fixing shafts, two pairs of bidirectional electromagnet blocks, two pairs of telescopic magnet blocks, and an infrared height sensor; Three pairs of rotating limiting slots are respectively opened on the inner side of a pair of lifting limit blocks and the mounting slot. A pair of V-shaped hook blocks are respectively inserted into the inner side of the three pairs of rotating limiting slots on a pair of lifting limit blocks through rotating limiting fixing shafts. A pair of V-shaped limit blocks are respectively inserted into the inner side of the three pairs of rotating limiting slots on the mounting slot through rotating limiting fixing shafts. Two pairs of bidirectional electromagnet blocks are respectively installed on a pair of lifting limit blocks and the mounting slot. Two pairs of telescopic magnet blocks are respectively installed on a pair of V-shaped hook blocks and a pair of V-shaped limit blocks. An infrared height sensor is installed on the lifting limit blocks.

5. The electronic communication cabinet structure with monitoring and protection functions according to claim 4, characterized in that, The reinforced structure includes: several stiffening plates, two pairs of reinforcing strip boxes, and four pairs of reinforcing blocks; Two pairs of reinforced strip boxes are installed in pairs on the outer side wall of the cabinet, four pairs of reinforcing blocks are placed on the inner side of the two pairs of reinforced strip boxes, and several stiffening plates are evenly installed on the inner side wall of the cabinet.

6. The electronic communication cabinet structure with monitoring and protection functions according to claim 5, characterized in that, The stretching assembly includes: a pair of U-shaped siphon tubes, a pair of telescopic folding tubes, a pair of stretching ring supports, a pair of filter screens, and a pair of convex stretching blocks; A pair of telescopic folding tubes are respectively connected to a pair of L-shaped gas drainage tubes, a pair of U-shaped siphon tubes are respectively connected to a pair of telescopic folding tubes, a pair of filter screens are respectively installed on the inner side of a pair of U-shaped siphon tubes, a pair of stretching ring brackets are respectively fitted onto a pair of U-shaped siphon tubes, a pair of lifting and stretching concave grooves are opened on the U-shaped lifting baffle plate, a pair of convex stretching blocks are respectively connected to a pair of stretching ring brackets, and a pair of convex stretching blocks are respectively movably inserted into a pair of lifting and stretching concave grooves.

7. The electronic communication cabinet structure with monitoring and protection functions according to claim 6, characterized in that, The concave lifting limit block is equipped with a drainage structure. The drainage structure includes: a U-shaped siphon pipe, a drain valve, a level sensor, and an infrared trigger. The U-shaped siphon suction tube is inserted into the concave lifting limit block, the drain valve is installed on the U-shaped siphon suction tube, the concave detection groove is opened on the concave lifting baffle plate, the liquid level sensor is installed on the inside of the concave detection groove, and the infrared trigger is installed on the concave detection groove.

8. The electronic communication cabinet structure with monitoring and protection functions according to claim 7, characterized in that, The U-shaped lifting baffle is made of plastic.

9. The electronic communication cabinet structure with monitoring and protection functions according to claim 8, characterized in that, A pair of convex longitudinal telescopic blocks and two pairs of convex transverse telescopic blocks are respectively provided with convex sealing grooves and concave sealing grooves. The convex longitudinal telescopic block is movably inserted into the inner side of the concave sealing groove on another convex longitudinal telescopic block through the convex sealing groove.

10. An electronic communication cabinet structure with monitoring and protection functions according to claim 9, characterized in that, A humidity sensor is installed inside the cabinet.

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