A climbing vehicle
By designing a climbing vehicle for ship cabins, using guide rail components and mobile power supply equipment, the problem of low storage and access efficiency of high-rise materials in ship cabins is solved, and efficient material handling is achieved in the freezing environment.
Patent Information
- Application Number
- CN202211395972.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2022-11-09
- Publication Date
- 2025-03-25
- Estimated Expiration
- 2042-11-09
AI Technical Summary
The lack of suitable high-level pickup equipment in the ship cabins leads to low storage and withdrawal efficiency of high-rise materials, especially in the environment of the refrigerated cabins, which can be used at low temperatures.
A climbing vehicle is designed, including a guide rail assembly, a climbing vehicle main body and a mobile power supply equipment. The guide rail assembly is fixed to the side of the shelf through the ground rail and the sky rail. The climbing vehicle main body walks along the guide rail and lifts and lowers. The mobile power supply equipment provides power to adapt to the freezing environment.
It has achieved efficient storage and withdrawal of high-rise materials in the ship compartment, overcome the stability problems in the swaying environment of the ship, and effectively used in the refrigerated compartment, improving the efficiency of material storage and transportation.
Smart Images

Figure CN115649713B_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of ship logistics equipment, and in particular to a climbing vehicle used for assisting in storing and accessing materials in a ship cabin. Background Art
[0002] The storage and retrieval of materials on shelves is a basic link in logistics. For land storage, automated stereoscopic warehouses are widely used as a solution for the storage and retrieval of large quantities of heavy materials, while small quantities of light materials are mostly stored and retrieved by manual handling. The height of the shelves in automated stereoscopic warehouses is usually more than 10 meters. When used with stackers and shuttles, materials can be automatically stored and retrieved according to the set program. Small quantities of light materials are stored on light shelves with a height of about 2 meters, which is within the ergonomic height range. Operators directly pick up and place materials on the shelves. If the materials on the high shelves are not convenient for humans to directly pick up and place, a manned high-level pickup truck is introduced to cooperate with the operation. This small equipment can move freely in the warehouse, and its platform can carry personnel and materials to be lifted and lowered. The storage and retrieval of materials is completed by combining manual handling with equipment lifting and horizontal transportation.
[0003] Compared with land, shipboard has smaller cabin space. Material storage and transportation equipment needs to maximize space utilization on the basis of adapting to the cabin size. On the other hand, affected by the swinging environment, ship equipment needs to consider stability and dynamic load. Existing equipment refers to land-based storage facilities to meet the needs of ship storage. Heavy materials are stored and retrieved by shelves and stackers, and light materials are stored on shelves and handled by manpower. At present, there is no high-level picking equipment that is suitable for ship occasions to solve the needs of high-level material storage and retrieval. The space utilization rate is limited, especially in the frozen compartment for storing food. The ambient temperature reaches -18°C, and the internal equipment needs to solve the problem of anti-skid and anti-freeze. In actual use, only low-height shelves are arranged in the freezer, and materials are handled by manpower. There is no auxiliary handling equipment that can be used in a frozen environment. Summary of the invention
[0004] The purpose of the present invention is to provide a climbing vehicle for storing and retrieving materials at high places on shelves in ship cabins, which can lift personnel and materials up and down, and move them in lanes. It can not only overcome the stability problem when the ship is swaying, but also meet the requirements for use in refrigerated cabins.
[0005] The technical solution of the present invention is: a climbing vehicle, including a guide rail assembly, a climbing vehicle body, and a mobile power supply device. The guide rail assembly clamp is installed on the side of the shelf to facilitate assembly and disassembly, and is arranged along the alley, consistent with the length of the alley, to provide operation guidance; the climbing vehicle body is installed on the guide rail assembly and can move along the alley to store and access materials on the shelves on both sides of the alley. The mobile power supply device clamp is installed on the side of the shelf to provide power for the climbing vehicle body.
[0006] Furthermore, the guide rail assembly includes a ground rail, a ground rail joint, a ceiling rail, a ceiling rail joint, a guide rail mounting seat, a guide rail pressure plate, a horseshoe clamp, an adjusting bolt, and an adjustable supporting foot. The cross-section of the ground rail is I-shaped. The ground rail joint splices multiple sections of the ground rail. The ground rail clamp is installed at the bottom of the column foot on the side of the shelf by the guide rail mounting seat, the guide rail pressure plate, and the horseshoe clamp. The adjusting bolt on the horseshoe clamp adjusts the height of the ground rail. An adjustable supporting foot is installed at the bottom of each guide rail mounting seat and the ground rail joint, which can be spirally extended and retracted, and the bottom of the adjustable supporting foot is supported on the cabin floor; the cross-section of the ceiling rail is I-shaped, with teeth on one side. The ceiling rail joint splices multiple sections of the ceiling rail. The guide rail mounting seat, the guide rail pressure plate, and the horseshoe clamp are installed at the top of the column foot on the side of the shelf by the guide rail mounting seat, the guide rail pressure plate, and the horseshoe clamp. The adjusting bolt on the horseshoe clamp adjusts the height of the ceiling rail, and the ceiling rail is parallel to the ground rail.
[0007] Furthermore, the main body of the aerial platform vehicle includes a traveling vehicle assembly, a traveling drive assembly, a lifting drive assembly, a lifting chain assembly, a lifting pulley assembly, a lifting platform assembly, a guardrail assembly, and an electrical assembly. The traveling vehicle assembly is a gantry structure, including 2 crossbeams and 2 columns. An open area is formed in the middle of the gantry, corresponding to the material access channel of the shelf. Two traveling rollers and four lateral rollers are symmetrically arranged on the bottom crossbeam, and four lateral rollers are symmetrically arranged on the top crossbeam. The column has a rectangular cross-section with a cavity inside and a through groove on the side. The bottom crossbeam of the traveling vehicle assembly corresponds to the ground rail, the traveling rollers are pressed on the top surface of the ground rail, the lateral rollers are fitted with the sides of the ground rail, the top crossbeam corresponds to the ceiling rail, and the lateral rollers are fitted with the sides of the ceiling rail. The traveling drive assembly is fixed to the outer side of the column end of the traveling vehicle assembly, and the output The end is a gear, which cooperates with the ceiling rail to form a gear rack drive; the lifting chain assembly includes a bearing seat, a sprocket, and a chain, all of which are installed in the column cavity of the traveling vehicle assembly, wherein the bearing seat and the sprocket are fixed at both ends of the column; the lifting pulley assembly includes a pulley body and a composite roller, which are installed in the column cavity of the traveling vehicle assembly and can rise or fall along the column, the composite roller fits the inner wall of the column, and the two ends of the pulley body are fixedly connected to the two ends of the chain of the lifting chain assembly to form a closed-loop transmission; the lifting drive assembly is installed on the outside of the column end of the traveling vehicle assembly, connected to the sprocket of the lifting chain assembly, and drives the lifting pulley assembly to rise or fall; the lifting platform assembly has a boss structure, the boss passes through the column through slot of the traveling vehicle assembly, is fixed on the lifting pulley assembly, and rises or falls with the lifting pulley assembly.
[0008] Furthermore, the guardrail assembly is of hinged door type, including a guardrail body and a striker lock, and is installed on the side of the lifting platform assembly.
[0009] Furthermore, the electrical components include a junction box, a button box, a lifting travel switch, and a traveling travel switch, which are installed in a distributed manner, wherein the junction box is installed on the outside of the column of the traveling vehicle assembly, the button box is placed on the guardrail assembly, the lifting travel switch is installed on the top and bottom of the inner side of the column of the traveling vehicle assembly, and the traveling travel switch is installed on the outer end of the column of the traveling vehicle assembly.
[0010] Furthermore, the mobile power supply equipment includes a hoisting plate, a back connection plate, a hanging seat, a tensioning seat, a busbar, and a current collector, which are arranged along the lane. The hoisting plate is groove-shaped, and the hoisting plate is spliced in multiple sections using the back connection plate. The hoisting plate is clamped and installed on the top of the column foot on the side of the shelf by the hanging seat and the horseshoe clamp; the tensioning seat is clamped at the end of the entire row of shelves, and the busbar is installed under the hoisting plate, and the two ends are fixed on the tensioning seat; the current collector is installed on the traveling vehicle assembly, and is connected to the busbar to transmit electricity to the main body of the climbing vehicle;
[0011] Furthermore, the installation height of the guide rail assembly is flush with the placement layer of the shelf, and all material access openings of the shelf are staggered in height;
[0012] Furthermore, the main body of the aerial platform vehicle is loaded with shelves of different heights, and the height difference between two placement layers of the shelves is consistent with the installation height difference of the ground rail and the ceiling rail.
[0013] It can be seen from the technical solution of the present invention that the present invention has the following technical effects:
[0014] The aerial platform vehicle of the present invention is attached to and installed on the side of the shelf in the aisle, and is generally arranged symmetrically in a gantry style. It can be installed on the shelf on either side of the aisle, has no independent installation interface with the cabin, and does not need to be processed and installed on the top plate and bottom plate of the cabin, which greatly reduces the requirements for the cabin interface.
[0015] The rail type of the present invention can overcome the risk of equipment capsizing in a ship swaying environment. The multi-section spliced I-shaped ceiling rail and floor rail are fixed to the rail mounting seat using a rail pressure plate, and then clamped to the side of the shelf by a horseshoe clamp, and the height position is adjusted by adjusting bolts. It is very convenient to install, adjust, and disassemble. Using a clamping and fixing method, the rail mounting seat and the corresponding rail pressure plate can move in the length direction of the ceiling rail and the floor rail, and have strong adaptability to the shelf. Even if the shelf column feet are unevenly arranged, the installation can be completed by adjusting the position of the rail mounting seat and the corresponding rail pressure plate. The adjustable support foot at the bottom of the floor rail transfers the vertical load to the cabin floor, and will not bring excessive additional load to the shelf.
[0016] The present invention uses gear rack forced drive combined with roller guide pairs to achieve walking, and uses chain closed-loop transmission combined with roller guidance to achieve lifting. There are sufficient constraints in all directions, which resolves the technical risk of equipment operation being out of position in the swaying environment of the ship. The gear rack transmission, chain transmission, and roller pair all have ice-breaking effects and are insensitive to the environment. The aerial platform can adapt well to freezing environments and solves the technical problem of assisting the storage and retrieval of materials in the ship's freezing compartment.
[0017] The present invention has a compact structure, light weight, and is easy to manufacture. It is suitable for material storage and transportation in a narrow space, and can adapt to shelves of different heights to a certain extent. It can serve as an important basis for further improving logistics storage and transportation efficiency and has significant economic benefits. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] Figure 1 It is a structural schematic diagram of the aerial platform vehicle of the present invention;
[0019] Figure 2 for Figure 1 A schematic diagram of the structure of the guide rail assembly;
[0020] Figure 3 for Figure 1 The structural diagram of the main body of the aerial platform vehicle;
[0021] Figure 4 for Figure 1 A schematic diagram of the structure of the mobile power supply device;
[0022] Figure 5 for Figure 3 A schematic diagram of the structure of the traveling vehicle assembly, the traveling drive assembly, the ceiling rail and the ground rail of the main body of the aerial platform;
[0023] Figure 6 for Figure 3 A schematic diagram of the partial structure of the lifting drive assembly, lifting chain assembly, and lifting pulley assembly of the main body of the aerial platform;
[0024] Figure 7 for Figure 3 A partial enlarged view of the main body of the aerial platform.
[0025] In the figure: guide rail assembly 1, climbing vehicle body 2, mobile power supply equipment 3; ground rail 11, ground rail joint 12, ceiling rail 13, ceiling rail joint 14, guide rail mounting seat 15, guide rail pressure plate 16, shoe-shaped clamp 17, adjustment bolt 18, adjustable support foot 19; walking vehicle assembly 21, walking drive assembly 22, lifting drive assembly 23, lifting chain assembly 24, lifting pulley assembly 25, lifting platform assembly 26, guardrail assembly 27, electrical assembly 28; lifting plate 31, back connection Connecting plate 32, hanging seat 33, tensioning seat 34, busbar 35, collector 36; crossbeam 2101, column 2102, walking roller 2103, lateral roller 2104, gear 2201; bearing seat 2401, sprocket 2402, chain 2403, pulley body 2501, composite roller 2502; guardrail body 2701, striker lock 2702, junction box 2801, button box 2802, lifting travel switch 2803, walking travel switch 2804. DETAILED DESCRIPTION
[0026] The technical solution of the present invention is described in detail below with reference to the accompanying drawings.
[0027] like Figures 1 to 7 As shown, an aerial platform provided by an embodiment of the present invention comprises: a guide rail assembly 1, a aerial platform body 2, and a mobile power supply device 3. The guide rail assembly 1 is clamped and installed on the side of the shelf to facilitate assembly and disassembly. The aerial platform body 2 is installed on the guide rail assembly 1 and can walk along the lane to store and retrieve materials on the shelves on both sides of the lane. The mobile power supply device 3 is clamped and installed on the side of the shelf to provide power for the aerial platform body 2.
[0028] like Figure 2 As shown, the ground rail 11 of the guide rail assembly 1 is I-shaped, and multiple sections are spliced by the ground rail joint 12. The ceiling rail 13 is I-shaped, with teeth on the bottom surface, and multiple sections are spliced by the ceiling rail joint 14. The guide rail pressure plate 16 presses the ground rail 11 and the ceiling rail 13 onto the guide rail mounting seat 15. The guide rail mounting seat 15 is clamped on the column foot on the side of the shelf by the horseshoe clamp 17. The horseshoe clamp 17 is equipped with an adjusting bolt 18, which vertically supports the placement layer of the shelf. Rotating the adjusting bolt 18 can adjust the height of the ground rail 11 and the ceiling rail 13 accordingly. An adjustable support foot 19 is set below each guide rail mounting seat 15 of the ground rail 11 and each ground rail joint 12, which supports the cabin floor. Through the threaded adjustment method, it adapts to the distance from the cabin floor and transfers the load borne by the ground rail 11 to the cabin floor.
[0029] The guide rail assembly 1 is installed on the shelf, and has no independent installation interface with the cabin. All parts are installed by threaded fasteners, which is convenient for installation, disassembly and adjustment.
[0030] like Figure 3As shown, the main body 2 of the aerial platform is symmetrical in structure, wherein the traveling vehicle assembly 21 is a gantry structure, forming an unobstructed intermediate working area; the traveling drive assembly 22 and the lifting drive assembly 23 are installed at the top and bottom of the outer side of the gantry; the lifting chain assembly 24 and the lifting pulley assembly 25 are installed in the cavity of the column 2102 of the traveling vehicle assembly 21; the lifting platform assembly 26 has a vertical boss structure, which extends into the cavity through the through slot of the column 2102 and is fixedly connected to the lifting pulley assembly 25; the guardrail assembly 27 is hinged and can be opened and closed 90 degrees; the electrical assembly 28 is a combination of multiple small parts, which are distributed in the spare space of the overall layout.
[0031] The hanging seat 33 of the mobile power supply equipment 3 is clamped on the top of the side column foot of the shelf through the clamping hoop 17, the hanging plate 31 is spliced with multiple sections of the back connecting plate 32 and fixed under the hanging seat 33, and the busbar 35 is set with a hanging point at a certain distance below the hanging plate, and the end is fixed to the top of the shelf at the end of the alley by the tensioning seat 34, and the collector 36 is fixed on the outer top of the main body of the aerial platform 2 to transmit electricity.
[0032] The traveling vehicle assembly 21 is formed into a frame by cross beams 2101 at the top and bottom and columns 2102 at both sides, two traveling rollers 2103 at the bottom of the inner side of the frame are pressed on the top surface of the ground rail 11, and eight lateral rollers 2104 at the top and bottom of the inner side of the frame correspond to the sides of the ground rail 11 and the ceiling rail 13. The entire traveling vehicle assembly 21 slides along the ceiling rail 13 and the ground rail 11.
[0033] The output end of the travel drive assembly 22 is the gear 2201, which forms a gear rack transmission with the overhead rail 13 to drive the aerial platform body 2 to move in the lane. The meshing travel mode overcomes the influence of the ship's swaying. The roller guide and gear drive do not require high precision, are not sensitive to the environment, and are suitable for freezing environment conditions.
[0034] The lifting chain assembly 24 and the lifting pulley assembly 25 are integrally embedded in the two side columns 2102 of the traveling vehicle assembly 21, wherein the bearing seat 2401 and the sprocket 2402 are fixed at both ends of the column 2102. After the open-loop chain 2403 passes through the sprocket 2402, the two ends are connected to the pulley body 2501 to realize a closed loop. Composite rollers 2502 are installed around the pulley body 2501 to form a roller kinematic pair with the inner wall of the column 2102. The lifting drive assembly 23 drives the sprocket 2402 to rotate, driving the chain 2403 to pull the lifting pulley assembly 25 up or down.
[0035] The lifting execution part has no exposed parts and does not occupy external space. The roller guide and sprocket drive do not require high precision and are not sensitive to the environment, and can adapt to freezing environment conditions.
[0036] The lifting platform assembly 26 is the load-bearing part for people to stand and place materials in the present invention. Before the installation of the lifting platform assembly 26, the aerial platform vehicle body 2 is in a flat gantry state with a compact structure. The two sets of lifting platform assemblies 26 have a boss structure, which extends into the column 2102 and is fixed to the lifting pulley body 2501. They rise or fall independently under the drive of the two sets of lifting drive assemblies 23.
[0037] The guardrail of the guardrail assembly 27 is fixed to the lifting platform assembly 26 in a hinged manner, and rises or falls together. The guardrail body 2701 protects personnel and goods from falling off the platform. When closed, the strike lock 2702 is in a locked state. The strike lock 2702 can be vertically slid and unlocked by manual lifting, and then the guardrail body 2702 can be rotated and opened by hand.
[0038] The lines drawn from the travel drive assembly 22, the lifting drive assembly 23, and the collector 36 are all connected to the junction box 2801 of the electrical assembly 28; the button box 2802 is placed on the guardrail assembly 27, and the lines are also connected to the junction box 2801; the lifting travel switches 2803 are set at the top and bottom of the lifting direction, and the travel travel switches 2804 are set on both sides of the walking direction, and the lines are also all connected to the junction box. The button box 2802 is the control terminal of the present invention, which controls the operation in each direction.
[0039] The working principle of the present invention is: Figure 3 In the process, the operator opens the guardrail assembly 27 on one side, stands on the lifting platform assembly 26, closes the guardrail assembly 27, and operates Figure 7 The button box 2802 in the control unit controls the travel drive assembly 22 to be powered on or off. Figure 1 The main body 2 of the climbing vehicle moves or stops along the guide rail assembly 1. After reaching the storage and retrieval operation position, the button box 2802 is operated to control the lifting drive assembly 23 to be energized or de-energized, so that the lifting platform assemblies 26 on both sides can be raised or lowered or stopped. The side where the personnel stand is used as a personnel platform, and the other side is used as a cargo platform for placing materials. The materials are transferred between the shelf and the lifting platform assembly 26 by manpower. After the transfer is completed, the button box 2802 is operated again to control the lifting and walking movements. After reaching the lane entrance, the material transfer between the lane entrance and the shelf storage position is completed.
[0040] Although the present invention has been disclosed as above with preferred embodiments, the embodiments do not limit the present invention. Any equivalent changes or modifications made without departing from the spirit and scope of the present invention also belong to the protection scope of the present invention. Therefore, the protection scope of the present invention should be based on the content defined by the claims of the present invention.
Claims
1. A climbing vehicle, comprising a guide rail assembly (1), a climbing vehicle body (2), and a mobile power supply device (3), characterized in that: The guide rail assembly (1) is clamped and mounted on the side of the shelf to facilitate assembly and disassembly, and is arranged along the lane and consistent with the length of the lane to provide a running guide; the main body of the climbing vehicle (2) is mounted on the guide rail assembly (1) and can travel along the lane to store and retrieve materials on the shelves on both sides of the lane; the mobile power supply device (3) is clamped and mounted on the side of the shelf to provide power for the main body of the climbing vehicle (2); the guide rail assembly (1) comprises a ground rail (11), a ground rail joint (12), a ceiling rail (13), a ceiling rail joint (14), a guide rail mounting seat (15), a guide rail pressure plate (16), a shoe-shaped clamp (17), an adjustment bolt (18), and an adjustable support foot (19); the cross-section of the ground rail (11) is an I-shaped, and the ground rail joint (12) splices multiple sections of the ground rail (11), which are connected by the guide rail mounting seat (15), the guide rail pressure plate (16), the shoe-shaped clamp (17), the adjustment bolt (18), and the adjustable support foot (19); The rail pressure plate (16) and the horseshoe clamp (17) are used to clamp the ground rail (11) at the bottom of the column foot on the side of the shelf. The adjusting bolt (18) on the horseshoe clamp (17) adjusts the height of the ground rail (11). An adjustable support foot (19) is installed at the bottom of each guide rail mounting seat (15) and the ground rail joint (12), which can be spirally extended and retracted. The bottom of the adjustable support foot (19) is supported on the cabin bottom plate. The cross section of the ceiling rail (13) is an I-shaped shape with teeth on one side. The ceiling rail joint (14) splices multiple sections of the ceiling rail (13). The guide rail mounting seat (15), the guide rail pressure plate (16) and the horseshoe clamp (17) are used to clamp the ceiling rail (13) at the top position of the column foot on the side of the shelf. The adjusting bolt (18) on the horseshoe clamp (17) adjusts the height of the ceiling rail (13). The ceiling rail (13) is parallel to the ground rail (11).
2. The aerial platform vehicle according to claim 1, characterized in that: The main body (2) of the aerial platform climbing vehicle comprises a traveling vehicle assembly (21), a traveling drive assembly (22), a lifting drive assembly (23), a lifting chain assembly (24), a lifting pulley assembly (25), a lifting platform assembly (26), a guardrail assembly (27), and an electrical assembly (28). The traveling vehicle assembly (21) is a gantry structure, comprising two crossbeams (2101) and two uprights (2102). An open area is formed in the middle of the gantry, corresponding to the material access channel of the shelf. Two traveling rollers (2103) and four lateral rollers (2104) are symmetrically arranged on the bottom crossbeam (2101). The top crossbeam (2101) is a gantry structure. Four lateral rollers (2104) are symmetrically arranged, the column (2102) has a rectangular cross section, a cavity inside, and a through groove on the side; the bottom crossbeam (2101) of the traveling vehicle assembly (21) corresponds to the ground rail (11), the traveling roller (2103) is pressed on the top surface of the ground rail (11), the lateral roller (2104) is in contact with the side of the ground rail (11), the top crossbeam (2101) corresponds to the ceiling rail (13), and the lateral roller (2104) is in contact with the side of the ceiling rail (13); the traveling drive assembly (22) is fixed to the outer side of the end of the column (2102) of the traveling vehicle assembly (21), and the output end is a gear (2201) , cooperates with the overhead rail (13) to form a gear rack drive; the lifting chain assembly (24) includes a bearing seat (2401), a sprocket (2402), and a chain (2403), all of which are installed in the cavity of the column (2102) of the traveling vehicle assembly (21), wherein the bearing seat (2401) and the sprocket (2402) are fixed at both ends of the column (2102); the lifting pulley assembly (25) includes a pulley body (2501) and a composite roller (2502), which are installed in the cavity of the column (2102) of the traveling vehicle assembly (21) and can rise or fall along the column (2102), and the composite roller (2502) is connected to the column (2102). The inner wall of the column (2102) is fitted, and the two ends of the pulley body (2501) are fixedly connected to the two ends of the chain (2403) of the lifting chain assembly (24) to form a closed-loop transmission; the lifting drive assembly (23) is installed on the outer side of the end of the column (2102) of the traveling vehicle assembly (21), and is connected to the sprocket (2402) of the lifting chain assembly (24) to drive the lifting pulley assembly (25) to rise or fall; the lifting platform assembly (26) has a boss structure, and the boss passes through the through groove of the column (2102) of the traveling vehicle assembly (21), is fixed on the lifting pulley assembly (25), and rises or falls with the lifting pulley assembly (25).
3. The aerial platform vehicle according to claim 2, characterized in that: The guardrail assembly (27) is of hinged door type, comprising a guardrail body (2701) and a striker lock (2702), and is installed on the side of the lifting platform assembly (26).
4. The aerial platform vehicle according to claim 2, characterized in that: The electrical component (28) comprises a junction box (2801), a button box (2802), a lifting travel switch (2803), and a travel travel switch (2804), which are installed in a distributed manner, wherein the junction box (2801) is installed on the outside of the column (2102) of the traveling vehicle component (21), the button box (2802) is placed on the guardrail component (27), the lifting travel switch (2803) is installed on the top and bottom of the inner side of the column (2102) of the traveling vehicle component (21), and the travel travel switch (2804) is installed on the outer end of the column (2102) of the traveling vehicle component (21).
5. The aerial platform vehicle according to claim 1, characterized in that: The mobile power supply device (3) comprises a hoisting plate (31), a back connection plate (32), a hanging seat (33), a tensioning seat (34), a busbar (35), and a current collector (36). The hoisting plate (31) is groove-shaped. The hoisting plate (31) is spliced into multiple sections using the back connection plate (32). The hoisting plate (31) is clamped and installed on the top of the column foot on the side of the shelf using the hanging seat (33) and a horseshoe clamp (17). The tensioning seat (34) is clamped at the end of the entire row of shelves. The busbar (35) is installed under the hoisting plate (31) and its two ends are fixed on the tensioning seat (34). The current collector (36) is installed on the traveling vehicle assembly (21) and is connected to the busbar (35) to transmit power to the main body of the aerial platform vehicle (2).
6. The aerial platform vehicle according to claim 1, characterized in that: The installation height of the guide rail assembly (1) is flush with the placement layer of the shelf, and is staggered in height from all material access openings of the shelf.
Citation Information
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