Intelligent storage and receiving system for power grid safety appliances

Abstract

The invention provides a power grid safety appliance intelligent storage and receiving system comprising a cloud platform which is in communication connection with a cabinet body host and a mobile terminal. The cloud platform comprises a login module and a plurality of safety appliance access modules, and each safety appliance access module is internally provided with a fetching door opening unit, a storage door opening unit and a statistical display unit; the inner top of the first cabinet body is an insulating boot cleaning area, the inner bottom of the first cabinet body is an insulating boot storage area, the inner inlet end of the insulating boot cleaning area is provided with a material supporting assembly, the output end of the material supporting assembly is provided with an air-drying water guide assembly, and the output end of the air-drying water guide assembly is provided with an insulating property detection assembly; and an insulating boot positioning assembly is horizontally and slidably mounted at the top in the insulating boot cleaning area. According to the invention, standard management can be carried out on the safety appliances, operation and maintenance personnel can clearly understand the use state of each safety appliance, and the management efficiency of the safety appliances is improved; and the fed insulating boots are cleaned and detected, so that the subsequent normal use can be ensured.

Description

Technical Field

[0001] The present invention relates to the technical field of power grid safety device management, and in particular to a smart storage and collection system for power grid safety devices. Background Art

[0002] Grid safety equipment refers to various specialized tools and devices used in power systems to ensure the safe operation of power equipment, the personal safety of maintenance personnel, and a stable and reliable power supply. These equipment must be designed to comply with relevant safety standards and regulations and effectively prevent accidents such as electric shock, short circuits, and overloads in specific electrical environments. The following are some common types of grid safety equipment: insulating gloves, insulating boots, insulating rods, and hard hats;

[0003] Grid safety equipment is stored in the warehouse when not in use. When grid workers need to use it, they need to register with the warehouse manager to receive it, and they also need to register when returning it;

[0004] The current registration process mainly involves filling out forms manually, which makes subsequent statistical review cumbersome and inconvenient for daily management of safety equipment. At the same time, for safety equipment such as insulating boots that are easily damaged and easily dirty, most of them are manually cleaned and then directly put in. The safety of the insulating boots cannot be guaranteed, and manual cleaning is also cumbersome. In addition, the inside of the boots cannot be thoroughly cleaned, and bacteria are easily bred in the boots. Summary of the Invention

[0005] In response to the deficiencies of the prior art, the present invention provides an intelligent storage and collection system for power grid safety devices, which solves the problems mentioned in the background technology.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions:

[0007] The intelligent storage and retrieval system for power grid safety equipment includes a cloud platform that communicates with the cabinet host and mobile terminals. The cloud platform includes a login module and multiple safety equipment access modules. Each safety equipment access module has a built-in door opening unit for retrieval, door opening unit for storage, and statistical display unit.

[0008] Multiple safety equipment access modules are independently communicatively connected to the first cabinet, the second cabinet, the third cabinet, the fourth cabinet, and the fifth cabinet. The first cabinet is used to store insulating boots, the second cabinet is used to store safety helmets, the third cabinet is used to store insulating rods, the fourth cabinet is used to store insulating gloves, and the fifth cabinet is used to store insulating blankets. The first, second, third, fourth, and fifth cabinets all have built-in electronic door locks and tag identifiers. Information tags are affixed to the outer surfaces of the insulating boots, safety helmets, insulating rods, insulating gloves, and insulating blankets.

[0009] The top of the first cabinet is an insulating boot cleaning area, and the bottom is an insulating boot storage area. The inner entrance of the insulating boot cleaning area is equipped with a material support assembly, the output end of the material support assembly is equipped with an air-drying water guide assembly, and the output end of the air-drying water guide assembly is equipped with an insulation performance detection assembly; the inner top of the insulating boot cleaning area is equipped with an insulating boot positioning assembly for horizontal sliding.

[0010] The first cabinet includes the following states:

[0011] In the first state, the insulating boot positioning assembly clamps and positions the insulating boot, flushes the outer wall of the insulating boot, and injects water into the interior of the insulating boot. The water in the insulating boot is used as a conductive medium for insulation testing;

[0012] In the second state, the air-drying water guide assembly dries the outer wall of the insulating boot;

[0013] In the third state, the insulation performance testing component tests the insulation performance of the insulating boots and pours water into the air-drying water guide component after the test is completed;

[0014] In the fourth state, the air-drying water guide assembly dries the inside of the insulating boot.

[0015] Furthermore, the plurality of safety equipment access modules are respectively an insulating boot access module, a safety helmet access module, an insulating rod access module, an insulating glove access module and an insulating blanket access module.

[0016] Furthermore, the material support assembly includes a placement and conveying platform, the surface of which is used to place multiple groups of insulating boots to be stored, a rectangular frame is installed at the inner end of the placement and conveying platform, and multiple groups of rollers are rotatably installed inside the rectangular frame. The outer walls of the rollers are embedded with array-arranged bristles, and the outer walls of the rollers are provided with multiple water spray holes. The central axes of the multiple rollers are all connected in parallel to the water pipe; when the insulating boots pass through the rollers, the water spray holes rinse the bottom of the insulating boots, and the bristles brush the dirt on the bottom of the insulating boots.

[0017] Furthermore, the air-drying water guide assembly includes a liquid collecting box, a grid plate is installed inside the liquid collecting box, the bottom of the grid plate is a cavity structure, multiple groups of hot air blowers are installed on the side walls of the liquid collecting box, and an inclined liquid baffle is provided on the inner wall of the liquid collecting box; the liquid inside and outside the insulating boots converge into the liquid collecting box, and the hot air discharged by the hot air blower is discharged upward through the grid plate to dry the insulating boots; the liquid baffle is used to block the liquid.

[0018] Furthermore, the bottom side wall of the liquid collecting box is connected to the liquid collecting tank, and the liquid collecting tank extends outward to the bottom of the material supporting assembly. A valve body is installed at the connection point between the liquid collecting box and the liquid collecting tank.

[0019] Furthermore, the insulating boot positioning assembly includes an upper slider, which is slidably mounted on the inner top surface of the first cabinet, and an outer top assembly is vertically slidably mounted on the bottom surface of the upper slider. The two sets of outer top assemblies are used to clamp and position the two insulating boots.

[0020] Furthermore, the outer top assembly includes a probe column, the interior of the probe column is a cavity structure, an inner sleeve is installed on the inner top of the probe column, a second driving rod is installed inside the inner sleeve, the output end of the second driving rod is hinged with four groups of rocker rods, the outer ends of the rocker rods are hinged to the middle of the inner wall of the outer top plate, the top end of the probe column is connected to the first driving rod and the guide rod, the top ends of the first driving rod and the guide rod are fixedly connected to the upper slider; the first driving rod drives the probe column to extend into the insulating boot, and the second driving rod drives the four groups of outer top plates to move outward, and the outer top plates resist and position the insulating boots.

[0021] Furthermore, an L-shaped connecting arm is vertically provided on the bottom surface of the upper slider, and a third driving rod is vertically provided on the bottom surface of the extended end of the connecting arm. The bottom end of the third driving rod is connected to the upper positioning ring, and a water guide ring is installed at the bottom of the upper positioning ring. The inner wall of the spray ring tube is provided with a spray pipe and a water injection pipe arranged in a circular array, and each insulating boot corresponds to two sets of water injection pipes; when the water guide ring is placed on the top, the water injection pipe sprays water into the insulating boot; when the water guide ring descends, the spray pipe and the water injection pipe spray water to clean the outer wall of the insulating boot.

[0022] Furthermore, the insulation performance detection component includes a base, two sides of the first cabinet are symmetrically provided with upwardly inclined moving grooves, both ends of the base are equipped with moving blocks, the moving blocks are embedded in the moving grooves, the outer wall of the moving block is equipped with a flip motor for driving the base to rotate, a middle clamping plate is vertically provided in the middle of the surface of the base, the first side clamping plate and the second side clamping plate are symmetrically slidably installed on both sides of the middle clamping plate, movable probes are installed inside the first side clamping plate and the second side clamping plate, and the outer walls of the first side clamping plate and the second side clamping plate are equipped with a fourth driving rod; the side wall of the first cabinet is provided with a fifth driving rod for driving the moving block to move;

[0023] In the third state, when the insulating boot positioning assembly carries the insulating boot onto the base, the first side clamping plate and the second side clamping plate move inward synchronously to clamp and position the insulating boot;

[0024] The probe discharges from the inside of the insulating boot, and the movable probe detects the insulation performance of the insulating boot from the outside. After the detection is completed, the insulating boot positioning assembly is separated from the insulating boot and returned to the top of the support assembly;

[0025] The moving block moves along the moving groove to the top of the liquid collecting tank, and the turning motor drives the base to turn over, so that the water in the insulating boots is poured into the liquid collecting tank;

[0026] In the fourth state, the hot air blower discharges hot air into the insulating boots to dry the insulating boots; after drying, the base moves downward and resets, with the opening of the insulating boot facing downward.

[0027] Furthermore, a storage assembly is installed inside the insulating boot storage area, and the storage assembly includes a conveyor belt, and multiple groups of base plates are installed on the surface of the conveyor belt. Two groups of receiving assemblies are symmetrically provided on the surface of each base plate, and each group of insulating boots corresponds to one group of receiving assemblies; the receiving assembly includes a sixth driving rod, and the sixth driving rod is vertically arranged on the base plate. The top of the sixth driving rod is connected to the upper seat body, and a pressure probe is installed on the top of the upper seat body. A composite lampshade is installed on the bottom of the upper seat body, and an ultraviolet lamp and a heat lamp bead are integrated in the composite lampshade. A lower cover body is provided at the bottom end of the composite lampshade, and the sixth driving rod is placed in the composite lampshade and the lower cover body.

[0028] The present invention provides a smart storage and collection system for power grid safety devices. Compared with the existing technology, it has the following advantages:

[0029] 1. It can standardize the management of safety equipment, so that operation and maintenance personnel can clearly understand the usage status of each safety equipment and improve the management efficiency of safety equipment.

[0030] 2. The setting of the insulating boot positioning assembly can achieve the following effects: the insulating boot positioning assembly can clamp and position two insulating boots, so as to facilitate the movement of the insulating boots to various processing steps, meeting the needs of automatic transfer processing; the insulating boot positioning assembly can inject water into the insulating boots, and the water in the boots can be used as a conductive medium during subsequent insulation testing to prepare for subsequent insulation performance testing; the insulating boot positioning assembly can be raised and lowered to evenly spray the outer wall of the insulating boots, thereby cleaning the dirt on the outer wall of the insulating boots and realizing automatic cleaning;

[0031] 3. The setting of the air-drying water guide component can achieve the following effects: it can discharge hot air to the outer wall of the insulating boot to dry the outer wall of the insulating boot; it can discharge hot air to the inside of the insulating boot to dry the inside of the insulating boot; it can collect water dripping from the outer wall of the insulating boot in the early stage, and it can also collect water poured out from the inside of the insulating boot in the later stage;

[0032] 4. Since insulating boots are the most easily damaged equipment, their insulation performance needs to be tested frequently. The insulation performance testing component can test the insulation performance of insulating boots after use, avoid storing damaged insulating boots, and scrap them in time after they are damaged. BRIEF DESCRIPTION OF THE DRAWINGS

[0033] In order to more clearly illustrate the embodiments of the present 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 present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0034] Figure 1 It shows a schematic diagram of the structure of the intelligent storage and collection system for power grid safety equipment of the present invention;

[0035] Figure 2 Shows a schematic diagram of the storage cabinet structure of the present invention;

[0036] Figure 3 It shows a schematic diagram of the internal structure of the first cabinet of the present invention;

[0037] Figure 4 It shows a schematic diagram of the internal cross-sectional structure of the first cabinet of the present invention;

[0038] Figure 5 Shown Figure 4 A schematic diagram of the enlarged structure at point A;

[0039] Figure 6 Shows a schematic structural diagram of the insulating boot positioning assembly of the present invention;

[0040] Figure 7 Shows a schematic structural diagram of the outer top assembly of the present invention;

[0041] Figure 8 Shows a schematic structural diagram of the support assembly of the present invention;

[0042] Figure 9 It shows a schematic structural diagram of the outer top plate of the present invention in working state;

[0043] Figure 10 Shown Figure 4 A schematic diagram of the enlarged structure at point B;

[0044] Figure 11 It shows a schematic structural diagram of the insulation performance detection assembly of the present invention;

[0045] Figure 12 Shows a schematic diagram of the structure of the mobile slot of the present invention;

[0046] Figure 13 Shows a schematic structural diagram of the receiving component of the present invention;

[0047] Figure 14 A schematic diagram of the internal structure of the receiving component of the present invention is shown;

[0048] As shown in the figure: 1. First cabinet, 11. Moving slot, 2. Cabinet main unit, 3. Liquid collecting tank, 4. Insulating boot positioning assembly, 41. Upper slider, 42. Outer top assembly, 421. First driving rod, 422. Guide rod, 423. Probe column, 4231. Inner sleeve, 424. Second driving rod, 425. Rocker, 426. Outer top plate, 43. Connecting arm, 431. Third driving rod, 44. Upper positioning ring, 45. Water guide ring, 451. Spray pipe, 452. Water supply hose, 453. Water injection pipe, 5. Support assembly, 51. Place conveyor platform, 52. Rectangular frame, 53. Roller, 531. Brush, 532. Spray hole, 54. Water pipe, 6. Air drying Water guide assembly, 61. Liquid collecting box, 62. Grid plate, 63. Liquid baffle, 64. Hot air blower, 7. Insulation performance detection assembly, 71. Base, 711. Middle splint, 72. Movable probe, 73. First side splint, 74. Second side splint, 75. Moving block, 76. Flip motor, 77. Fourth drive rod, 78. Fifth drive rod, 8. Storage assembly, 81. Conveyor belt, 811. Bottom plate, 82. Receiving assembly, 821. Lower cover, 822. Composite lampshade, 823. Upper seat, 824. Pressure probe, 825. Sixth drive rod, 9. Second cabinet, 91. Third cabinet, 92. Fourth cabinet, 93. Fifth cabinet, 9a. Insulating boots. DETAILED DESCRIPTION

[0049] To make the objectives, technical solutions, and advantages of the embodiments of the present invention more clear, the technical solutions in the embodiments of the present invention are clearly and completely described. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of them. All other embodiments derived by persons of ordinary skill in the art based on the embodiments of the present invention without inventive effort are within the scope of protection of the present invention.

[0050] Example 1

[0051] To solve the technical problems in the background technology, the following intelligent storage and collection system for power grid safety equipment is provided:

[0052] Combine Figures 1-14 As shown, the smart storage and collection system for power grid safety devices provided by the present invention includes a cloud platform, which is communicatively connected to the cabinet host 2 and the mobile terminal; the cloud platform includes a login module and multiple safety device access modules, each of which has a built-in door opening unit for taking out items, a door opening unit for storing items, and a statistical display unit;

[0053] Multiple safety equipment access modules are independently communicatively connected to the first cabinet 1, the second cabinet 9, the third cabinet 91, the fourth cabinet 92, and the fifth cabinet 93. The first cabinet 1 is used to store insulating boots, the second cabinet 9 is used to store safety helmets, the third cabinet 91 is used to store insulating rods, the fourth cabinet 92 is used to store insulating gloves, and the fifth cabinet 93 is used to store insulating blankets. The first cabinet 1, the second cabinet 9, the third cabinet 91, the fourth cabinet 92, and the fifth cabinet 93 all have built-in electronic door locks and tag identifiers. Information tags are affixed to the outer surfaces of the insulating boots, safety helmets, insulating rods, insulating gloves, and insulating blankets.

[0054] The top of the first cabinet 1 is an insulating boot cleaning area, and the bottom is an insulating boot storage area. A material support assembly 5 is installed at the internal entrance of the insulating boot cleaning area, an air-drying water guide assembly 6 is installed at the output end of the material support assembly 5, and an insulation performance detection assembly 7 is installed at the output end of the air-drying water guide assembly 6. An insulating boot positioning assembly 4 is installed horizontally and slidably at the top of the insulating boot cleaning area.

[0055] The interior of the first cabinet 1 includes the following states: in the first state, the insulating boot positioning component 4 clamps and positions the insulating boot, rinses the outer wall of the insulating boot, and injects water into the interior of the insulating boot; in the second state, the air-drying water-conducting component 6 blows dry the outer wall of the insulating boot; in the third state, the insulation performance detection component 7 detects the insulation performance of the insulating boot, and pours water into the air-drying water-conducting component 6 after the detection is completed; in the fourth state, the air-drying water-conducting component 6 blows dry the inside of the insulating boot.

[0056] In the above scheme:

[0057] 1. Multiple cabinets are set up to classify and store various safety devices. The specific access process is as follows:

[0058] Users log in to the cloud platform through the login module. The login method can be through the mobile terminal account and password, or through face recognition login through the cabinet host;

[0059] When removing the appliance:

[0060] Click the safety equipment access module where you want to take out the safety equipment, then click the take button, and the corresponding safety equipment cabinet door will open;

[0061] The worker takes out the required equipment and scans the information tag on the equipment at the tag reader when taking it out. The statistical display unit updates the equipment information in the corresponding cabinet;

[0062] After the appliance is taken out, close the cabinet door and the electronic lock of the cabinet door will automatically close;

[0063] When depositing an appliance:

[0064] Click the safety equipment access module where you want to take out the safety equipment, then click the storage button, and the corresponding safety equipment cabinet door will open;

[0065] The worker scans the equipment to be placed at the tag reader, and the statistics display unit updates the equipment information in the corresponding cabinet; then the equipment is placed in the appropriate position in the cabinet;

[0066] After the appliances are placed in, close the cabinet door and the electronic lock of the cabinet door will automatically close.

[0067] The above system can standardize the management of safety equipment, and operation and maintenance personnel can clearly understand the usage status of each safety equipment, thereby improving the management efficiency of safety equipment.

[0068] 2. The setting of the insulating boot positioning component can achieve the following effects:

[0069] 2.1. The insulating boot positioning assembly can clamp and position two insulating boots, so as to facilitate the movement of the insulating boots to various processing steps and meet the needs of automatic transfer processing;

[0070] 2.2. The insulating boot positioning assembly can inject water into the insulating boot. The water in the boot can be used as a conductive medium during subsequent insulation testing to prepare for subsequent insulation performance testing;

[0071] 2.3. The insulating boot positioning assembly moves up and down to evenly spray the outer wall of the insulating boot, thereby cleaning the dirt on the outer wall of the insulating boot and realizing automatic cleaning;

[0072] 3. The setting of air-drying water guide components can achieve the following effects:

[0073] 3.1. The hot air can be discharged to the outer wall of the insulating boots to dry the outer wall of the insulating boots;

[0074] 3.2. The hot air can be discharged into the inside of the insulating boots to dry the inside of the insulating boots;

[0075] 3.3. It can collect water dripping from the outer wall of the insulating boots in the early stage, and can also collect water poured out from the inside of the insulating boots in the later stage;

[0076] 4. Since insulating boots are the most easily damaged equipment, their insulation performance needs to be tested frequently. The insulation performance testing component can test the insulation performance of insulating boots after use, avoid storing damaged insulating boots, and scrap them in time after they are damaged.

[0077] In this embodiment, the plurality of safety equipment access modules are an insulating boot access module, a safety helmet access module, an insulating rod access module, an insulating glove access module, and an insulating blanket access module.

[0078] Example 2

[0079] In order to enable the above functions to be realized in the first cabinet, this embodiment provides the following solutions:

[0080] In this embodiment, the material support assembly 5 includes a placing and conveying platform 51, the surface of the placing and conveying platform 51 is used to place multiple groups of insulating boots 9a to be stored, and a rectangular frame 52 is installed at the inner end of the placing and conveying platform 51. Multiple groups of rollers 53 are rotatably installed inside the rectangular frame 52, and the outer wall of the roller 53 is embedded with an array of bristles 531. The outer wall of the roller 53 is provided with multiple water spray holes 532, and the central axes of the multiple rollers 53 are all connected in parallel to the water pipe 54; when the insulating boots pass through the rollers 53, the water spray holes 532 flush the bottom of the insulating boots, and the bristles 531 brush the dirt on the bottom of the insulating boots.

[0081] In the above scheme, the user places the insulating boots on the conveyor platform, which can convey a pair of insulating boots one by one. When the insulating boots pass through the rollers, the water spray holes of the rollers spray water to the soles of the insulating boots, and the bristles brush the soles, thereby completing the cleaning of the soles during the conveying process. The outer wall and bottom of the insulating boots can be thoroughly cleaned.

[0082] In this embodiment, the air-drying water guide component 6 includes a liquid collecting box 61, a grid plate 62 is installed inside the liquid collecting box 61, the bottom of the grid plate 62 is a cavity structure, and multiple groups of hot air blowers 64 are installed on the side walls of the liquid collecting box 61. The inner wall of the liquid collecting box 61 is provided with an inclined liquid baffle 63; the liquid inside and outside the insulating boots converge into the liquid collecting box 61, and the hot air discharged by the hot air blower 64 is discharged upward through the grid plate 62 to dry the insulating boots; the liquid baffle 63 is used to block the liquid.

[0083] In the above solution, when the insulating boot is placed above the liquid collecting box, water on the outer wall drips into the liquid collecting box, and the liquid baffle can block the water to prevent it from splashing onto the hot air blower;

[0084] The hot air blower discharges hot air and then passes through the grid plate and is discharged upwards, thereby drying the soles of the shoes and the outer wall of the insulating boots.

[0085] In this embodiment, the bottom side wall of the liquid collecting box 61 is connected to the liquid collecting tank 3, and the liquid collecting tank 3 extends outward to the bottom of the material support assembly 5. A valve body is installed at the connection between the liquid collecting box 61 and the liquid collecting tank 3.

[0086] In the above solution, the liquid in the liquid collecting box can be discharged into the liquid collecting tank. During the stage of flushing the outer wall of the insulating boot, the water can also be discharged into the liquid collecting tank to achieve water collection and facilitate discharge and cleaning.

[0087] In this embodiment, the insulating boot positioning assembly 4 includes an upper slider 41, which is slidably installed on the inner top surface of the first cabinet 1. The bottom surface of the upper slider 41 is vertically slidably installed with an outer top assembly 42. The two groups of outer top assemblies 42 are used to clamp and position the two insulating boots.

[0088] In this embodiment, the outer top assembly 42 includes a probe rod 423, the interior of the probe rod 423 is a cavity structure, the inner top of the probe rod 423 is installed with an inner sleeve 4231, the interior of the inner sleeve 4231 is installed with a second drive rod 424, the output end of the second drive rod 424 is hinged with four groups of rocker rods 425, the outer ends of the rocker rods 425 are hinged to the middle of the inner wall of the outer top plate 426, the top end of the probe rod 423 is connected to the first drive rod 421 and the guide rod 422, the top ends of the first drive rod 421 and the guide rod 422 are fixedly connected to the upper slider 41; the first drive rod 421 drives the probe rod 423 to extend into the insulating boot, and the second drive rod 424 drives the four groups of outer top plates 426 to move outward, and the outer top plates 426 resist and position the insulating boot.

[0089] In the above scheme, the two sets of external top assemblies can be opened and closed synchronously. The external top assemblies are placed directly above the insulating boot. The first driving rod drives the probe downward into the insulating boot. The guide rod can guide the vertical movement. Then, the second driving rod extends downward to drive the four sets of swing rods. The swing rods push the external top plates. The four external top plates position the insulating boot externally, thus realizing automatic positioning of the insulating boot and facilitating its later transfer.

[0090] The probe is a metal conductor with a discharge electrode at its bottom, which can discharge into water during insulation testing.

[0091] In this embodiment, an L-shaped connecting arm 43 is vertically provided on the bottom surface of the upper slider 41, and a third driving rod 431 is vertically provided on the bottom surface of the extended end of the connecting arm 43. The bottom end of the third driving rod 431 is connected to the upper positioning ring 44. A water guide ring 45 is installed at the bottom of the upper positioning ring 44. The outer wall of the water guide ring 45 is connected to the water supply hose 452. The inner wall of the spray ring pipe is provided with a spray pipe 451 and a water injection pipe 453 arranged in a circular array. Each insulating boot corresponds to two sets of water injection pipes; when the water guide ring is placed at the top, the water injection pipe sprays water into the insulating boot; when the water guide ring descends, the spray pipe and the water injection pipe spray water to clean the outer wall of the insulating boot.

[0092] In the above scheme,

[0093] The third driving rod can drive the upper positioning ring to move up and down, thereby driving the water guide ring to move vertically up and down outside the insulating boot;

[0094] When the water guide ring is at the top, the two sets of water injection pipes are just facing the boot opening. At this time, when water is sprayed, the water injection pipes will drain water into the insulating boots, realizing automatic water replenishment of the insulating boots;

[0095] When the water guide ring descends, the spray pipe and the water injection pipe can spray in a circular shape to the outer wall of the insulating boot to achieve flushing.

[0096] In order to achieve the above effects, the insulation performance testing component needs to solve the following problems: 1. It needs to be able to remove the insulating boots from the outer top assembly; 2. It needs to be able to complete the insulation test action; 3. It needs to be able to pour the water into the sump after the test is completed; 4. It needs to be able to transfer the insulating boots to the storage assembly;

[0097] In this embodiment, the insulation performance detection component 7 includes a base 71, and upwardly inclined moving grooves 11 are symmetrically opened on both sides of the first cabinet 1. Moving blocks 75 are installed at both ends of the base 71, and the moving blocks 75 are embedded in the moving grooves 11. The outer wall of the moving block 75 is installed with a flip motor 76 for driving the base 71 to rotate. A middle splint 711 is vertically provided in the middle of the surface of the base 71, and the first side splint 73 and the second side splint 74 are symmetrically slidably installed on both sides of the middle splint 711. The inside of the first side splint 73 and the second side splint 74 are both installed with movable probes 72, and the outer walls of the first side splint 73 and the second side splint 74 are both installed with fourth driving rods 77; the side walls of the first cabinet 1 are provided with fifth driving rods 78 for driving the moving block 75 to move;

[0098] In the third state, when the insulating boot positioning assembly 4 carries the insulating boot onto the base 71, the first side clamping plate 73 and the second side clamping plate 74 move inward synchronously to clamp and position the insulating boot;

[0099] The probe 423 discharges electricity from the inside of the insulating boot, and the movable probe 72 detects the insulation performance of the insulating boot from the outside. After the detection is completed, the insulating boot positioning assembly 4 is separated from the insulating boot and returned to the top of the supporting assembly 5;

[0100] The moving block 75 moves along the moving groove 11 to the top of the liquid collecting box 61, and the turning motor 76 drives the base 71 to turn over, so that the water in the insulating boot is poured into the liquid collecting box 61;

[0101] In the fourth state, the hot air blower 64 discharges hot air into the insulating boots to dry the insulating boots. After drying, the base 71 moves downward and returns to its original position, with the opening of the insulating boots facing downward.

[0102] In the above scheme:

[0103] 1. When the insulating boots move onto the base, the first clamping plate and the second clamping plate move inward synchronously to clamp and position the two sets of insulating boots;

[0104] 2. During the test, the probe can discharge and the current is conducted through the water. If the insulating boot is in good condition, the external probe cannot detect the current. If there is a local leakage, the probe can detect the current.

[0105] 3. The insulation performance test component is designed to be able to tilt and rotate. In this way, after the insulation test is completed, it can be tilted to the top of the liquid collecting tank, and then the flip electrode drives the base to flip to pour out the water. Since the sole of the insulating boot is hard, the clamping of the splint can ensure its stability. After the water is poured out, the hot air blower discharges hot air again to dry the inside of the insulating boot;

[0106] 4. After drying is completed, the fifth driving rod drives the moving block to retract along the moving groove, so that the insulating boot moves to above the storage assembly. At this time, the boot opening of the insulating boot is just placed above the receiving assembly, making it easy for the receiving assembly to receive it.

[0107] In this embodiment, a storage assembly 8 is installed inside the insulating boot storage area, and the storage assembly 8 includes a conveyor belt 81. Multiple groups of base plates 811 are installed on the surface of the conveyor belt 81. Two groups of receiving assemblies 82 are symmetrically provided on the surface of each base plate 811, and each group of insulating boots corresponds to one group of receiving assemblies 82; the receiving assembly 82 includes a sixth driving rod 825, and the sixth driving rod 825 is vertically arranged on the base plate 811. The top of the sixth driving rod 825 is connected to the upper seat body 823, and a pressure probe 824 is installed on the top of the upper seat body 823. A composite lampshade 822 is installed at the bottom of the upper seat body 823, and an ultraviolet lamp and a heat lamp bead are integrated in the composite lampshade. The bottom end of the composite lampshade 822 is provided with a lower cover body 821, and the sixth driving rod 78 is placed in the composite lampshade 822 and the lower cover body 821.

[0108] In the above scheme:

[0109] 1. The receiving assembly can be extended into the insulating boot to support the insulating boot, so that the insulating boot can be stored upside down, making the receiving of the insulating boot easier and more efficient;

[0110] 2. The lampshade is equipped with a UV lamp that can release UV light to disinfect the insulating boots. The lampshade is also equipped with a heat bulb that releases heat to further dry the insulating boots. This can prevent athlete's foot from being transmitted when different people wear insulating boots.

[0111] When receiving the insulating boot, the sixth driving rod drives the upper seat body to move upward. When the upper seat body contacts the insulating boot, the pressure probe contacts the insulating boot, and the composite lampshade can be powered on and work; when the sixth driving rod is retracted, the upper seat body drives the insulating boot down.

[0112] It should be noted that, in this document, relational terms such as first and second, etc., are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply the existence of any such actual relationship or order between these entities or operations. Moreover, the terms "comprises," "comprising," or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article, or device comprising a series of elements includes not only those elements, but also other elements not explicitly listed, or elements inherent to such process, method, article, or device. In the absence of further limitations, an element defined by the phrase "comprising a ..." does not exclude the presence of other identical elements in the process, method, article, or device comprising the element.

[0113] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the various embodiments of the present invention.

Claims

1. The intelligent storage and collection system for power grid safety equipment is characterized by: It includes a cloud platform that communicates with the cabinet host and mobile terminals; the cloud platform includes a login module and multiple safety device access modules, each of which has a built-in door opening unit for taking out items, a door opening unit for storing items, and a statistical display unit; Multiple safety equipment access modules are independently communicatively connected to the first cabinet, the second cabinet, the third cabinet, the fourth cabinet, and the fifth cabinet. The first cabinet is used to store insulating boots, the second cabinet is used to store safety helmets, the third cabinet is used to store insulating rods, the fourth cabinet is used to store insulating gloves, and the fifth cabinet is used to store insulating blankets. The first, second, third, fourth, and fifth cabinets all have built-in electronic door locks and tag identifiers. Information tags are affixed to the outer surfaces of the insulating boots, safety helmets, insulating rods, insulating gloves, and insulating blankets. The top of the first cabinet is an insulating boot cleaning area, and the bottom is an insulating boot storage area. The inner entrance of the insulating boot cleaning area is equipped with a material support assembly, the output end of the material support assembly is equipped with an air-drying water guide assembly, and the output end of the air-drying water guide assembly is equipped with an insulation performance detection assembly; the inner top of the insulating boot cleaning area is equipped with an insulating boot positioning assembly for horizontal sliding. The first cabinet includes the following states: In the first state, the insulating boot positioning assembly clamps and positions the insulating boot, flushes the outer wall of the insulating boot, and injects water into the interior of the insulating boot. The water in the insulating boot is used as a conductive medium for insulation testing; In the second state, the air-drying water guide assembly dries the outer wall of the insulating boot; In the third state, the insulation performance testing component tests the insulation performance of the insulating boots and pours water into the air-drying water guide component after the test is completed; In the fourth state, the air-drying water guide assembly dries the inside of the insulating boot.

2. The intelligent storage and collection system for power grid safety devices according to claim 1, characterized in that: The plurality of safety equipment access modules are respectively an insulating boot access module, a safety helmet access module, an insulating rod access module, an insulating glove access module and an insulating blanket access module.

3. The intelligent storage and collection system for power grid safety devices according to claim 1, characterized in that: The material supporting assembly includes a placing and conveying platform, the surface of which is used to place multiple groups of insulating boots to be stored, a rectangular frame is installed at the inner end of the placing and conveying platform, and multiple groups of rollers are rotatably installed inside the rectangular frame. The outer walls of the rollers are embedded with array-arranged bristles, and the outer walls of the rollers are provided with multiple water spray holes. The central axes of the multiple rollers are all connected in parallel to the water pipe; when the insulating boots pass through the rollers, the water spray holes rinse the bottom of the insulating boots, and the bristles brush the dirt on the bottom of the insulating boots.

4. The intelligent storage and collection system for power grid safety devices according to claim 3, characterized in that: The air-drying water guide assembly includes a liquid collecting box, a grid plate is installed inside the liquid collecting box, the bottom of the grid plate is a cavity structure, multiple groups of hot air blowers are installed on the side walls of the liquid collecting box, and an inclined liquid baffle is provided on the inner wall of the liquid collecting box; the liquid inside and outside the insulating boots converge into the liquid collecting box, and the hot air discharged by the hot air blower is discharged upward through the grid plate to dry the insulating boots; the liquid baffle is used to block the liquid.

5. The intelligent storage and collection system for power grid safety devices according to claim 4, characterized in that: The bottom side wall of the liquid collecting box is connected to the liquid collecting tank, and the liquid collecting tank extends outward to the bottom of the material supporting assembly. A valve body is installed at the connection point between the liquid collecting box and the liquid collecting tank.

6. The intelligent storage and collection system for power grid safety devices according to claim 5, characterized in that: The insulating boot positioning assembly includes an upper slider, which is slidably mounted on the inner top surface of the first cabinet. The bottom surface of the upper slider is vertically slidably mounted with an outer top assembly. The two groups of outer top assemblies are used to clamp and position two insulating boots.

7. The intelligent storage and collection system for power grid safety devices according to claim 6, characterized in that: The outer top assembly includes a probe rod, the interior of the probe rod is a cavity structure, an inner sleeve is installed on the inner top of the probe rod, a second driving rod is installed inside the inner sleeve, the output end of the second driving rod is hinged with four groups of rocker rods, the outer ends of the rocker rods are hinged to the middle of the inner wall of the outer top plate, the top end of the probe rod is connected to the first driving rod and the guide rod, the top ends of the first driving rod and the guide rod are fixedly connected to the upper slider; the first driving rod drives the probe rod to extend into the insulating boot, and the second driving rod drives the four groups of outer top plates to move outward, and the outer top plates resist and position the insulating boots.

8. The intelligent storage and collection system for power grid safety devices according to claim 7, characterized in that: An L-shaped connecting arm is vertically provided on the bottom surface of the upper slider, and a third driving rod is vertically provided on the bottom surface of the extended end of the connecting arm. The bottom end of the third driving rod is connected to the upper positioning ring, and a water guide ring is installed at the bottom of the upper positioning ring. The inner wall of the spray ring tube is provided with a spray pipe and a water injection pipe arranged in a circular array, and each insulating boot corresponds to two sets of water injection pipes; when the water guide ring is placed on the top, the water injection pipe sprays water into the insulating boot; when the water guide ring descends, the spray pipe and the water injection pipe spray water to clean the outer wall of the insulating boot.

9. The intelligent storage and collection system for power grid safety devices according to claim 8, characterized in that: The insulation performance detection component includes a base, and a first cabinet body has symmetrically opened two sides of a movable groove inclined upward, and movable blocks are installed at both ends of the base, and the movable blocks are embedded in the movable grooves. A flip motor for driving the base to rotate is installed on the outer wall of the movable block, and a middle clamping plate is vertically provided in the middle of the surface of the base, and a first side clamping plate and a second side clamping plate are symmetrically and slidably installed on both sides of the middle clamping plate, and movable probes are installed inside the first side clamping plate and the second side clamping plate, and a fourth driving rod is installed on the outer wall of the first side clamping plate and the second side clamping plate; a fifth driving rod for driving the movable block to move is provided on the side wall of the first cabinet body; In the third state, when the insulating boot positioning assembly carries the insulating boot onto the base, the first side clamping plate and the second side clamping plate move inward synchronously to clamp and position the insulating boot; The probe discharges from the inside of the insulating boot, and the movable probe detects the insulation performance of the insulating boot from the outside. After the detection is completed, the insulating boot positioning assembly is separated from the insulating boot and returned to the top of the support assembly; The moving block moves along the moving groove to the top of the liquid collecting tank, and the turning motor drives the base to turn over, so that the water in the insulating boots is poured into the liquid collecting tank; In the fourth state, the hot air blower discharges hot air into the insulating boots to dry the insulating boots; after drying, the base moves downward and resets, with the opening of the insulating boot facing downward.

10. The intelligent storage and collection system for power grid safety devices according to claim 9, characterized in that: A storage assembly is installed inside the insulating boot storage area, and the storage assembly includes a conveyor belt. Multiple groups of base plates are installed on the surface of the conveyor belt. Two groups of receiving assemblies are symmetrically provided on the surface of each base plate, and each group of insulating boots corresponds to one group of receiving assemblies; the receiving assembly includes a sixth driving rod, and the sixth driving rod is vertically arranged on the base plate. The top of the sixth driving rod is connected to the upper seat body, and a pressure probe is installed on the top of the upper seat body. A composite lampshade is installed on the bottom of the upper seat body, and an ultraviolet lamp and a heat lamp bead are integrated in the composite lampshade. A lower cover body is provided at the bottom end of the composite lampshade, and the sixth driving rod is placed inside the composite lampshade and the lower cover body.

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