A plasma drilling device for the top radar mounting position of an electric logistics vehicle

Abstract

This invention relates to the technical field of plasma drilling equipment, and in particular to a plasma drilling device for the top radar mounting position of an electric logistics vehicle. The device includes a first guide member and two sets of first sliders, each set of first sliders being slidably mounted on the first guide member. It also includes a rotating device, a driving device, a power device, a supporting device, two sets of second guide members, two sets of second sliders, and two sets of plasma guns. The bottom ends of the two sets of first sliders are connected to the middle of the top ends of the two sets of second guide members via the rotating device, which drives the two sets of second guide members to rotate. The two sets of second sliders are slidably mounted on the two sets of second guide members via the driving device, which drives the two sets of second sliders to slide. The two sets of plasma guns are respectively mounted on the bottom ends of the two sets of second sliders. This device improves the convenience of drilling holes of different sizes at two different locations, increases the efficiency of drilling large-diameter circular holes, reduces limitations in use, and improves ease of use.

Description

Technical Field

[0001] This invention relates to the technical field of plasma drilling equipment, and in particular to a plasma drilling equipment for the top radar mounting position of an electric logistics vehicle. Background Technology

[0002] With the continuous development and popularization of electric vehicle technology, electric logistics vehicles are being used more and more widely in the logistics industry. In order to improve the intelligence and automation level of vehicles, many electric logistics vehicles are equipped with radar systems, so it is necessary to make holes for the radar mounting positions.

[0003] Currently, among existing hole-opening devices, such as the patent with authorization announcement number CN215615715U, this utility model belongs to the field of hole-opening technology and provides a plasma hole-opening device, including a base, a mounting bracket, a rotating shaft, and a cutter holder for mounting a cutter. The mounting bracket is mounted on the base, and the middle part of the rotating shaft is rotatably connected to the mounting bracket through a bearing. The bottom of the rotating shaft is provided with a connecting plate, and the connecting plate is connected to the cutter holder through an adjustment component. The adjustment component includes a connecting screw and an elongated hole located on the connecting plate. One end of the connecting screw is fixedly connected to the cutter holder, and the other end passes through the elongated hole and is slidably connected to the elongated hole. A locking nut is threadedly connected to the end of the connecting screw near the elongated hole. The locking nut is used to fix the cutter holder after adjustment.

[0004] However, it was found during the use of the device that it could only perform drilling operations at one location at a time, which was not convenient for drilling holes of different sizes at different locations. Furthermore, the drilling speed was slow when drilling holes with larger diameters, which reduced the ease of use and work efficiency. Summary of the Invention

[0005] To address the aforementioned technical problems, this invention provides a plasma drilling device for the top radar mounting position of an electric logistics vehicle. This device improves the convenience of drilling holes of different sizes at two different locations, increases the efficiency of drilling large-diameter circular holes, reduces usage limitations, and enhances ease of use.

[0006] This invention discloses a plasma drilling device for the top radar mounting position of an electric logistics vehicle, comprising a first guide member and two sets of first sliders, the two sets of first sliders being slidably mounted on the first guide member; it also includes a rotating device, a driving device, a power device, a supporting device, two sets of second guide members, two sets of second sliders, and two sets of plasma guns. The bottom ends of the two sets of first sliders are connected to the middle of the top ends of the two sets of second guide members via the rotating device, which drives the two sets of second guide members to rotate. The two sets of second sliders are slidably mounted on the two sets of second guide members via the driving device, which drives the two sets of second sliders to slide. The two sets of plasma guns are respectively mounted on the bottom ends of the two sets of second sliders. A power device is provided on the first guide member, which drives the two sets of first sliders to slide. The first guide member is mounted on the supporting device, which drives the first guide member to move and adjust. The supporting device drives the first guide member to move its position, causing the first guide member to move the two sets of plasma guns to the position where drilling is required. The drive device moves two sets of second sliders horizontally, which in turn moves two sets of plasma guns horizontally. Then, a rotating device rotates two sets of second guide members, which in turn move the two sets of plasma guns circumferentially around the two sets of first sliders. This allows the two sets of plasma guns to simultaneously drill holes at two different locations, improving the equipment's ability to drill holes of different sizes at two different locations. When a larger diameter hole needs to be drilled, the power device moves the two sets of first sliders closer together, thus connecting the two sets of second guide members. The distance between the two sets of second sliders is then adjusted, thereby adjusting the distance between the two sets of plasma guns. After adjustment, a support device rotates the first guide members, which in turn move the two sets of plasma guns circumferentially, allowing both sets of plasma guns to simultaneously drill a single circular hole. This improves the equipment's efficiency in drilling larger diameter circular holes, reduces limitations in equipment use, and enhances ease of use.

[0007] Preferably, the power unit includes an adjustment device, a first motor, two sets of first friction wheels, two sets of first bases, two sets of splined shafts, two sets of splined sleeves, two sets of second friction wheels, two sets of first lead screws, two sets of first pulleys, two sets of second pulleys, and two sets of belts. The first motor is mounted on the top of the first guide member. The two sets of first friction wheels are respectively mounted on the left and right output ends of the first motor. Both sets of first bases are mounted on the outer walls of the first guide member. The two sets of splined shafts are rotatably mounted on the two sets of first bases. The two sets of splined sleeves are respectively fitted onto the ends of the two sets of splined shafts. The two sets of second friction wheels are respectively mounted on the outer walls of the two sets of splined sleeves, and the two sets of second friction wheels are respectively positioned opposite to the two sets of first friction wheels. An adjustment device is provided on the first base, which is used to drive the two sets of splined sleeves to move and adjust. The two sets of first lead screws are respectively rotatably mounted on the inner walls of the first guide member. The two sets of first sliders are respectively screwed onto the outer walls of the two sets of first lead screws. The two sets of first pulleys are respectively mounted on the outer walls of the first lead screws. The first set of lead screws is mounted on the outer walls of two sets of first lead screws, and the second set of pulleys is mounted on the outer walls of two sets of splined shafts. Two sets of belts are respectively fitted onto the outer walls of the first and second pulleys. By turning on the first motor, the first motor drives the two sets of first friction wheels to rotate. The adjusting device moves the two sets of splined sleeves, causing the splined sleeves to move the two sets of second friction wheels, bringing them into contact with the first friction wheels. When the first friction wheels rotate, they drive the second friction wheels to rotate, which in turn drives the two sets of splined shafts to rotate. The splined shafts, through the first and second pulleys and belts, drive the first lead screws to rotate, causing the first lead screws to drive the two sets of first sliders to slide. By controlling the separation of one set of second friction wheels from the first friction wheels, one set of plasma guns stops moving, improving the convenience of opening holes at different positions with the two sets of plasma guns and enhancing the ease of use of the equipment.

[0008] Preferably, the adjusting device includes telescopic rods, springs, second bases, third bases, and multiple sets of electromagnets. The multiple sets of telescopic rods are respectively installed on the outer walls of the two sets of first bases. Multiple sets of springs are respectively fitted onto the outer walls of the multiple sets of telescopic rods. Both sets of second bases are installed on the outer walls of the first guide members. Two sets of first friction wheels are rotatably installed on the two sets of second bases. Two sets of third bases are respectively installed at the ends of the multiple sets of telescopic rods, and are rotatably fitted onto the two sets of second friction wheels. Multiple sets of electromagnets are respectively installed on the two sets of third... On the outer walls of the base and the two sets of second bases; by multiple sets of springs pushing the two sets of third bases to move, the two sets of third bases drive the two sets of second friction wheels to move and then contact the two sets of first friction wheels. By energizing multiple sets of electromagnets to generate repulsive magnetic forces, the multiple sets of electromagnets push the two sets of third bases to move, thereby causing the two sets of third bases to drive the two sets of second friction wheels to move and then separate from the two sets of first friction wheels. This improves the convenience of control and adjustment of the first motor driving the rotation of the two sets of spline shafts, and improves the adjustment flexibility of the two sets of plasma guns moving to different positions.

[0009] Preferably, the support device includes a moving device, a linear motor, a bracket, a third guide member, a cover, a second lead screw, and a second motor. The bracket is mounted on the moving end of the linear motor, the third guide member is mounted on the outer wall of the bracket, the cover is slidably mounted on the third guide member, the two ends of the first guide member are slidably mounted on the inner wall of the cover, the moving device is provided inside the cover, the moving device is used to drive the first guide member to rotate horizontally, the second lead screw is rotatably mounted on the inner wall of the third guide member, the cover is screwed onto the second lead screw, the second motor is mounted on the outer wall of the third guide member, and the output end of the second motor is connected to the second lead screw. The linear motor drives the bracket to move its position, so that the bracket drives the two sets of plasma guns to move above the position where the hole needs to be opened. After the position of the two sets of plasma guns is adjusted, the two sets of second motors drive the two sets of second lead screws to rotate. After the two sets of second lead screws rotate, they drive the cover to move downward, so that the cover drives the two sets of plasma guns to move downward and close to the workpiece, and then the two sets of plasma guns open the hole in the workpiece, improving the convenience of equipment use.

[0010] Preferably, the driving device includes two sets of third lead screws, two sets of third motors, and a hexagonal component. The two sets of third lead screws are rotatably mounted on the inner sidewalls of the two sets of second guide members, and the two sets of second sliders are screwed onto the outer sidewalls of the two sets of third lead screws. The two sets of third motors are mounted on the outer sidewalls of the two sets of second guide members, and their output ends are connected to the two sets of third lead screws. The hexagonal component is mounted on the end of the first set of third lead screws, and the end of the second set of third lead screws is provided with a hexagonal groove, which corresponds to the position of the hexagonal component. The two sets of third motors drive the two sets of third lead screws to rotate, thereby driving the two sets of second sliders to move, improving the convenience of moving the two sets of plasma guns to different positions for opening. When the two sets of first sliders move closer to each other, the two sets of second guide members are spliced ​​together. At this time, the hexagonal component is inserted into the hexagonal groove, thereby driving the two sets of third lead screws to rotate with one set of third motors, improving the convenience of adjusting the two sets of plasma guns to move in opposite directions.

[0011] Preferably, the device also includes a hose, an air filter, and a pump body. The hose inlet is connected to the top of the enclosure, the hose outlet is connected to the pump body inlet, and the pump body outlet is connected to the air filter. The pump body draws air into the enclosure through the hose, thereby collecting the smoke and dust generated during the operation of the two sets of plasma guns. The collected smoke and dust is transported to the air filter, where it is purified, thus improving the environmental performance of the equipment.

[0012] Preferably, the moving device includes a gear ring, a fourth motor, and a gear. The gear ring is mounted on the inner side wall of the housing, the fourth motor is mounted on the outer side wall of the first guide member, and the gear is located on the output end of the fourth motor and meshes with the gear ring. The fourth motor drives the gear to rotate, which in turn drives the first guide member to rotate by meshing with the gear ring, thereby improving the ease of use of the two sets of plasma gun moving openings.

[0013] Preferably, the rotating device includes two sets of housings and two sets of fifth motors. The two sets of housings are respectively installed at the bottom ends of the two sets of first sliders. The top middle parts of the two sets of second guide members are respectively rotatably installed at the bottom ends of the two sets of housings. The two sets of fifth motors are respectively disposed inside the two sets of housings. The output ends of the two sets of fifth motors are respectively concentrically connected to the two sets of second guide members. The two sets of fifth motors drive the two sets of second guide members to rotate, so that the two sets of second guide members drive the two sets of plasma guns to move circumferentially.

[0014] Preferably, it also includes a flexible sleeve, which is disposed on the outer side wall of the bottom end of the cover; when the cover moves downward, the flexible sleeve contacts the top surface of the workpiece, thereby sealing the bottom end of the cover and the workpiece, reducing the diffusion of smoke and dust through the opening.

[0015] Preferably, it also includes multiple sets of air inlets, all of which are located on the outer wall of the hood; when the pump draws air into the hood, outdoor air enters the hood through the multiple sets of air inlets, thereby improving the convenience of dust and smoke transportation inside the hood.

[0016] Compared with the prior art, the beneficial effects of the present invention are as follows: The support device drives the first guide member to move to a different position, causing the first guide member to move the two sets of plasma guns to the required drilling position. The drive device then drives the two sets of second sliders to move horizontally, causing the two sets of second sliders to move the two sets of plasma guns horizontally. Finally, the rotating device drives the two sets of second guide members to rotate, causing the two sets of second guide members to move the two sets of plasma guns circumferentially around the two sets of first sliders as axes. This allows the two sets of plasma guns to simultaneously drill holes at two different positions, improving the equipment's ability to drill holes of different sizes at two different positions. The convenience of drilling holes is enhanced when larger diameter holes are required. A power unit drives two sets of first sliders to move closer together, thus connecting two sets of second guides. Adjusting the distance between the two sets of second sliders adjusts the distance between the two sets of plasma guns. After adjustment, a support device rotates the first guides, causing them to move circumferentially, allowing both plasma guns to simultaneously drill a hole in a single circular opening. This improves the efficiency of drilling larger diameter holes, reduces limitations in equipment use, and enhances ease of use. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the isometric structure of the present invention;

[0018] Figure 2 This is a partial isometric structural diagram of the connection between the linear motor and the support frame, etc.

[0019] Figure 3 This is a partial isometric structural diagram showing the connection between the third guide component and the cover, etc.

[0020] Figure 4 This is a partial isometric structural diagram showing the connection between the first slider and the chassis, etc.

[0021] Figure 5 This is a partial isometric structural diagram showing the connection between the third base and the electromagnet, etc.

[0022] Figure 6 This is a partial isometric structural diagram showing the connection between the second slider and the plasma gun, etc.

[0023] Figure 7 This is an isometric structural diagram of the connection between the air filter and the pump body, etc.

[0024] Figure 8 This is a partial isometric structural diagram of the connection between the first lead screw and the first pulley, etc.

[0025] Figure 9 This is an isometric structural diagram of the connection between the cover and the flexible sleeve, etc.

[0026] Figure 10 This is a partial isometric structural diagram showing the connection between the second guide member and the second slider, etc.

[0027] Figure 11 This is a partial isometric structural diagram showing the connection between the air intake and the cover, etc.

[0028] Figure 12 This is a partial isometric structural diagram showing the connection between the gear and the fourth motor, etc.

[0029] In the attached diagram, the following components are marked: 101, first guide; 102, first slider; 103, second guide; 104, second slider; 105, plasma gun; 201, first motor; 202, first friction wheel; 203, first base; 204, splined shaft; 205, splined sleeve; 206, second friction wheel; 207, first lead screw; 208, first pulley; 209, second pulley; 210, belt; 301, telescopic rod; 302, spring; 303, second base; 304... 305. Electromagnet; 401. Linear motor; 402. Bracket; 403. Third guide; 404. Cover; 405. Second lead screw; 406. Second motor; 501. Third lead screw; 502. Third motor; 503. Hexagonal component; 601. Hoses; 602. Air filter; 603. Pump body; 701. Gear ring; 702. Fourth motor; 703. Gear; 801. Chassis; 802. Fifth motor; 901. Flexible sleeve; 1001. Air inlet. Detailed Implementation

[0030] To facilitate understanding of the present invention, a more complete description will be given below with reference to the accompanying drawings. The present invention can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete.

[0031] Example 1

[0032] The present invention provides a plasma drilling device for the top radar mounting position of an electric logistics vehicle, comprising a first guide member 101 and two sets of first sliders 102, the two sets of first sliders 102 being slidably mounted on the first guide member 101; further comprising a rotating device, a driving device, a power device, a supporting device, two sets of second guide members 103, two sets of second sliders 104, and two sets of plasma guns 105; the bottom ends of the two sets of first sliders 102 are connected to the middle of the top ends of the two sets of second guide members 103 via the rotating device, the rotating device being used to drive the two sets of second guide members 103 to rotate; the two sets of second sliders 104 are slidably mounted on the two sets of second guide members 103 via the driving device, the driving device being used to drive the two sets of second sliders 104 to slide; the two sets of plasma guns 105 are respectively mounted on the bottom ends of the two sets of second sliders 104; a power device is provided on the first guide member 101, the power device being used to drive the two sets of first sliders 102 to slide; the first guide member 101 is mounted on the supporting device, the supporting device being used to drive the first guide member 101 to move and adjust;

[0033] The power unit includes an adjustment device, a first motor 201, two sets of first friction wheels 202, two sets of first bases 203, two sets of splined shafts 204, two sets of splined sleeves 205, two sets of second friction wheels 206, two sets of first lead screws 207, two sets of first pulleys 208, two sets of second pulleys 209, and two sets of belts 210. The first motor 201 is mounted on the top of the first guide member 101. The two sets of first friction wheels 202 are respectively mounted on the left and right output ends of the first motor 201. The two sets of first bases 203 are both mounted on the outer side wall of the first guide member 101. The two sets of splined shafts 204 are rotatably mounted on the two sets of first bases 203. The two sets of splined sleeves 205 are respectively fitted onto the ends of the two sets of splined shafts 204. The two sets of second friction wheels 206... Friction wheels 206 are respectively installed on the outer walls of two sets of spline sleeves 205, and the two sets of second friction wheels 206 are respectively positioned opposite to the two sets of first friction wheels 202. An adjustment device is provided on the first base 203. The adjustment device is used to drive the two sets of spline sleeves 205 to move and adjust. Two sets of first lead screws 207 are respectively rotatably installed on the inner wall of the first guide member 101. Two sets of first sliders 102 are respectively screwed onto the outer walls of the two sets of first lead screws 207. Two sets of first pulleys 208 are respectively installed on the outer walls of the two sets of first lead screws 207. Two sets of second pulleys 209 are respectively installed on the outer walls of the two sets of spline shafts 204. Two sets of belts 210 are respectively fitted onto the outer walls of the two sets of first pulleys 208 and the two sets of second pulleys 209.

[0034] In this embodiment, the support device moves the first guide member 101 to a different position, causing the first guide member 101 to move the two sets of plasma guns 105 to the required drilling position. The drive device then moves the two sets of second sliders 104 horizontally, causing the two sets of second sliders 104 to move the two sets of plasma guns 105 horizontally. Next, the rotating device rotates the two sets of second guide members 103, causing the two sets of second guide members 103 to move the two sets of plasma guns 105 circumferentially around the two sets of first sliders 102 as axes. This allows the two sets of plasma guns 105 to simultaneously drill holes at two different positions, improving the equipment's ability to drill holes of different sizes at two different locations. For ease of use, when a larger diameter hole needs to be drilled, the power device drives the two sets of first sliders 102 to move closer to each other, thereby splicing the two sets of second guides 103. Then, by adjusting the distance between the two sets of second sliders 104, the distance between the two sets of plasma guns 105 is adjusted. After the two sets of plasma guns 105 are adjusted, the support device drives the first guide 101 to rotate, thereby causing the first guide 101 to drive the two sets of plasma guns 105 to move circumferentially, so that the two sets of plasma guns 105 can drill a hole at the same time, improving the efficiency of drilling holes with larger diameter holes, reducing the limitations of equipment use, and improving the ease of use of the equipment.

[0035] Example 2

[0036] Based on Embodiment 1, the present invention provides a plasma drilling device for the top radar mounting position of an electric logistics vehicle. The adjustment device includes a telescopic rod 301, a spring 302, a second base 303, a third base 304, and multiple sets of electromagnets 305. The multiple sets of telescopic rods 301 are respectively installed on the outer walls of two sets of first bases 203. The multiple sets of springs 302 are respectively fitted onto the outer walls of the multiple sets of telescopic rods 301. The two sets of second bases 303 are both installed on the outer walls of the first guide member 101. The two sets of first friction wheels 202 are respectively rotatably installed on the two sets of second bases 303. The two sets of third bases 304 are respectively installed at the ends of the multiple sets of telescopic rods 301, and the two sets of third bases 304 are respectively rotatably fitted onto the two sets of second friction wheels 206. The multiple sets of electromagnets 305 are respectively installed on the outer walls of the two sets of third bases 304 and the two sets of second bases 303.

[0037] The support device includes a moving device, a linear motor 401, a bracket 402, a third guide 403, a cover 404, a second lead screw 405, and a second motor 406. The bracket 402 is mounted on the moving end of the linear motor 401. The third guide 403 is mounted on the outer wall of the bracket 402. The cover 404 is slidably mounted on the third guide 403. The two ends of the first guide 101 are slidably mounted on the inner wall of the cover 404. A moving device is provided inside the cover 404. The moving device is used to drive the first guide 101 to rotate horizontally. The second lead screw 405 is rotatably mounted on the inner wall of the third guide 403. The cover 404 is screwed onto the second lead screw 405. The second motor 406 is mounted on the outer wall of the third guide 403. The output end of the second motor 406 is connected to the second lead screw 405.

[0038] The driving device includes two sets of third lead screws 501, two sets of third motors 502, and a hexagonal component 503. The two sets of third lead screws 501 are rotatably mounted on the inner sidewalls of the two sets of second guides 103, and the two sets of second sliders 104 are screwed onto the outer sidewalls of the two sets of third lead screws 501. The two sets of third motors 502 are mounted on the outer sidewalls of the two sets of second guides 103, and the output ends of the two sets of third motors 502 are connected to the two sets of third lead screws 501. The hexagonal component 503 is mounted on the end of the first set of third lead screws 501, and the end of the second set of third lead screws 501 is provided with a hexagonal groove, which corresponds to the position of the hexagonal component 503.

[0039] It also includes a hose 601, an air filter 602 and a pump body 603. The input end of the hose 601 is connected to the top of the cover 404, and the output end of the hose 601 is connected to the input end of the pump body 603. The output end of the pump body 603 is connected to the air filter 602.

[0040] The moving device includes a gear ring 701, a fourth motor 702, and a gear 703. The gear ring 701 is installed on the inner side wall of the cover 404, the fourth motor 702 is installed on the outer side wall of the first guide member 101, and the gear 703 is disposed on the output end of the fourth motor 702 and meshes with the gear ring 701.

[0041] The rotating device includes two sets of housings 801 and two sets of fifth motors 802. The two sets of housings 801 are respectively installed at the bottom ends of the two sets of first sliders 102. The top middle parts of the two sets of second guide members 103 are respectively rotatably installed at the bottom ends of the two sets of housings 801. The two sets of fifth motors 802 are respectively arranged inside the two sets of housings 801. The output ends of the two sets of fifth motors 802 are respectively concentrically connected to the two sets of second guide members 103.

[0042] It also includes a flexible sleeve 901, which is disposed on the outer side wall of the bottom end of the cover 404;

[0043] It also includes multiple sets of air inlets 1001, all of which are located on the outer wall of the cover 404.

[0044] In this embodiment, by turning on the first motor 201, the first motor 201 drives the two sets of first friction wheels 202 to rotate. The adjusting device moves the two sets of spline sleeves 205, causing the two sets of spline sleeves 205 to move the two sets of second friction wheels 206, so that the two sets of second friction wheels 206 contact the two sets of first friction wheels 202 respectively. When the two sets of first friction wheels 202 rotate, they drive the two sets of second friction wheels 206 to rotate, thereby causing the two sets of second friction wheels 206 to rotate the two sets of spline shafts 204. The two sets of spline shafts 204 drive the two sets of first lead screws 207 to rotate via the first pulley 208, the second pulley 209, and the belt 210. The two sets of first lead screws 207 drive the two sets of first sliders 102 to slide and adjust. By controlling one set of second friction wheels 206... Separating from the first friction wheel 202, one set of plasma guns 105 stops moving, improving the convenience of opening holes at different positions for the two sets of plasma guns 105, and improving the ease of use of the equipment. Multiple sets of springs 302 push the two sets of third bases 304 to move, causing the two sets of third bases 304 to move and then contact the two sets of first friction wheels 202. By energizing multiple sets of electromagnets 305 to generate repulsive magnetic forces, the multiple sets of electromagnets 305 push the two sets of third bases 304 to move, causing the two sets of third bases 304 to move and then separate from the two sets of first friction wheels 202. This improves the control and adjustment convenience of the first motor 201 driving the rotation of the two sets of spline shafts 204, and improves the adjustment flexibility of the two sets of plasma guns 105 moving to different positions.

[0045] like Figures 1 to 12As shown, the plasma drilling device for the top radar mounting position of an electric logistics vehicle according to the present invention, during operation, moves the first guide member 101 to a new position via a support device, causing the first guide member 101 to move two sets of plasma guns 105 to the required drilling position. A drive device then moves two sets of second sliders 104 horizontally, causing the two sets of second sliders 104 to move the two sets of plasma guns 105 horizontally. Finally, a rotating device rotates the two sets of second guide members 103, causing the two sets of second guide members 103 to move the two sets of plasma guns 105 circumferentially around the two sets of first sliders 102 as axes. Two sets of plasma guns 105 are used to simultaneously drill holes at two different locations. When a larger diameter hole needs to be drilled, the power device drives the two sets of first sliders 102 to move closer to each other, thereby splicing the two sets of second guides 103. Then, by adjusting the distance between the two sets of second sliders 104, the distance between the two sets of plasma guns 105 is adjusted. After the two sets of plasma guns 105 are adjusted, the support device drives the first guide 101 to rotate, thereby causing the first guide 101 to drive the two sets of plasma guns 105 to move circumferentially, so that the two sets of plasma guns 105 drill a hole at the same time.

[0046] The main functions achieved by this invention are: to facilitate the making of holes of different sizes at two different locations, to improve the efficiency of making holes with larger diameters, to reduce limitations in use, and to improve ease of use;

[0047] The two sets of second guide members 103 are spliced ​​together. At this time, the hexagonal member 503 is inserted into the hexagonal groove, so that one set of third motors 502 drives the two sets of third lead screws 501 to rotate, improving the convenience of the two sets of plasma guns 105 moving and adjusting in opposite directions.

[0048] The plasma gun 105, first motor 201, electromagnet 305, linear motor 401, second motor 406, third motor 502, air filter 602, pump body 603, fourth motor 702 and fifth motor 802 of the plasma drilling device for the top radar mounting position of the electric logistics vehicle of the present invention are commercially available. Technical personnel in this industry only need to install and operate it according to the accompanying instruction manual, without requiring any creative work from those skilled in the art.

[0049] The above description is only a preferred embodiment of the present invention. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the technical principles of the present invention, and these improvements and modifications should also be considered within the scope of protection of the present invention.

Claims

1. A top radar mounting position plasma trepanning device of an electrically powered delivery vehicle, comprising a first guide (101) and two groups of first sliders (102), the two groups of first sliders (102) are respectively slidingly installed on the first guide (101); characterized in that, The rotating device, the driving device, the power device, the supporting device, two groups of second guiding members (103), two groups of second sliding blocks (104) and two groups of plasma guns (105) are further included. Bottom ends of the two groups of first sliding blocks (102) are connected with middle parts of top ends of the two groups of second guiding members (103) through the rotating device. The rotating device is used for driving the two groups of second guiding members (103) to rotate. The two groups of second sliding blocks (104) are respectively slidably installed on the two groups of second guiding members (103) through the driving device. The driving device is used for driving the two groups of second sliding blocks (104) to slide. The two groups of plasma guns (105) are respectively installed at bottom ends of the two groups of second sliding blocks (104). The power device is arranged on the first guiding member (101) and is used for driving the two groups of first sliding blocks (102) to slide. The first guiding member (101) is installed on the supporting device, and the supporting device is used for driving the first guiding member (101) to move and adjust. The power device includes an adjusting device, a first motor (201), two groups of first friction wheels (202), two groups of first bases (203), two groups of spline shafts (204), two groups of spline sleeves (205), two groups of second friction wheels (206), two groups of first lead screws (207), two groups of first belt pulleys (208), two groups of second belt pulleys (209) and two groups of belts (210). The first motor (201) is installed at a top end of the first guiding member (101). The two groups of first friction wheels (202) are respectively installed on left and right output ends of the first motor (201). The two groups of first bases (203) are both installed on outer side walls of the first guiding member (101). The two groups of spline shafts (204) are respectively rotationally installed on the two groups of first bases (203). The two groups of spline sleeves (205) are respectively and correspondingly installed at end portions of the two groups of spline shafts (204). The two groups of second friction wheels (206) are respectively installed on outer side walls of the two groups of spline sleeves (205), and the two groups of second friction wheels (206) are respectively and oppositely arranged at positions of the two groups of first friction wheels (202). The adjusting device is arranged on the first base (203) and is used for driving the two groups of spline sleeves (205) to move and adjust. The two groups of first lead screws (207) are respectively rotationally installed on inner side walls of the first guiding member (101). The two groups of first sliding blocks (102) are respectively and correspondingly screwed on outer side walls of the two groups of first lead screws (207). The two groups of first belt pulleys (208) are respectively installed on outer side walls of the two groups of first lead screws (207). The two groups of second belt pulleys (209) are respectively installed on outer side walls of the two groups of spline shafts (204). The two groups of belts (210) are respectively sleeved on outer side walls of the two groups of first belt pulleys (208) and the two groups of second belt pulleys (209). The support device comprises a moving device, a linear motor (401), a support (402), a third guide (403), a cover body (404), a second lead screw (405) and a second motor (406), the support (402) is installed on the moving end of the linear motor (401), the third guide (403) is installed on the outer side wall of the support (402), the cover body (404) is slidably installed on the third guide (403) in an up-down manner, the two ends of the first guide (101) are slidably installed on the inner side wall of the cover body (404), the moving device is arranged in the cover body (404) and is used for driving the first guide (101) to rotate horizontally, the second lead screw (405) is rotatably installed on the inner side wall of the third guide (403), the cover body (404) is screwedly matched on the second lead screw (405), the second motor (406) is installed on the outer side wall of the third guide (403), and the output end of the second motor (406) is connected with the second lead screw (405); The driving device comprises two groups of third lead screws (501), two groups of third motors (502) and a hexagonal piece (503), the two groups of third lead screws (501) are rotatably installed on the inner side walls of the two groups of second guides (103) respectively, the two groups of second sliding blocks (104) are screwedly matched on the outer side walls of the two groups of third lead screws (501) respectively, the two groups of third motors (502) are installed on the outer side walls of the two groups of second guides (103) respectively, the output ends of the two groups of third motors (502) are connected with the two groups of third lead screws (501) respectively, the hexagonal piece (503) is installed at the end of the first group of third lead screws (501), the end of the second group of third lead screws (501) is provided with a hexagonal recess, and the hexagonal recess corresponds to the position of the hexagonal piece (503); The rotating device comprises two groups of machine boxes (801) and two groups of fifth motors (802), the two groups of machine boxes (801) are installed at the bottom ends of the two groups of first sliding blocks (102) respectively, the two groups of second guides (103) are rotatably installed at the top ends of the two groups of machine boxes (801) respectively, the two groups of fifth motors (802) are arranged in the two groups of machine boxes (801) respectively, and the output ends of the two groups of fifth motors (802) are connected with the two groups of second guides (103) concentrically.

2. The top radar mounting position plasma boring apparatus of the electric animal flow vehicle according to claim 1, wherein, The adjusting device comprises telescopic rods (301), springs (302), second bases (303), third bases (304) and groups of electromagnets (305), groups of telescopic rods (301) are respectively installed on the outer side walls of the two groups of first bases (203), groups of springs (302) are respectively matched and sleeved on the outer side walls of the groups of telescopic rods (301), the two groups of second bases (303) are both installed on the outer side wall of the first guide (101), the two groups of first friction wheels (202) are respectively rotationally installed on the two groups of second bases (303), the two groups of third bases (304) are respectively installed at the end portions of the groups of telescopic rods (301), and the two groups of third bases (304) are respectively rotationally sleeved on the two groups of second friction wheels (206), and the groups of electromagnets (305) are respectively installed on the outer side walls of the two groups of third bases (304) and the two groups of second bases (303).

3. The top radar mounting position plasma boring apparatus of the electric animal flow vehicle according to claim 1, wherein, The air filter (602) is communicated with the output end of the pump body (603).

4. The top radar mounting position plasma boring apparatus of the electric animal flow car according to claim 1, wherein, The moving device comprises a tooth ring (701), a fourth motor (702) and a gear (703), the tooth ring (701) is installed on the inner side wall of the cover body (404), the fourth motor (702) is installed on the outer side wall of the first guide (101), the gear (703) is arranged on the output end of the fourth motor (702), and the gear (703) is engaged with the tooth ring (701).

5. The top radar mounting position plasma boring apparatus of an electric animal transportation vehicle according to claim 1, wherein, The flexible sleeve (901) is arranged on the outer side wall of the bottom end of the cover body (404).

6. The top radar mount plasma boring apparatus of an electrically powered delivery vehicle of claim 1, wherein, A plurality of air inlet holes (1001) are arranged on the outer side wall of the cover body (404).

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