Material transfer device

Abstract

The utility model discloses a material transfer device which is characterized in that a cavity is formed in a vehicle body, and an opening is further formed in one side of the vehicle body; the storage part comprises a storage frame arranged in the cavity in a sliding mode, a plurality of partition plates are distributed on the storage frame, and a storage cavity used for containing materials is reserved between every two adjacent partition plates; the restraining part is arranged in the storage rack, and one end of the restraining part is connected with each partition plate; according to the utility model, through the cooperation between the storage rack and each partition plate, when a worker places the materials, the materials can be sequentially placed in each storage cavity side by side without stacking the materials, and when the materials are taken out, the materials in the corresponding partition plate can be taken out by firstly releasing the constraint of the constraint component on each material and pulling out the storage rack from the vehicle body; and other adjacent materials do not interfere with the material taking process, and are convenient to take and place.

Description

TECHNICAL FIELD

[0001] The utility model relates to transportation device technical field especially relates to a material transfer device. BACKGROUND

[0002] The thermal insulation material is one of the materials widely used in the field of new energy vehicles, and is commonly used for heat insulation and thermal insulation of battery packs in the power battery system, so as to keep the battery within the optimal working temperature range, improve the thermal management efficiency of the battery system, and prolong the battery life.

[0003] When transporting the thermal insulation material, the thermal insulation materials are usually placed on the transport trolley by means of stacking one by one, but when a specific thermal insulation material needs to be taken out, it is difficult to take out due to the stacking of the thermal insulation material and the adjacent other thermal insulation materials, so that the thermal insulation material is inconvenient to take and place. Therefore, the present application provides a material transfer device which can facilitate the taking and placing of thermal insulation materials. SUMMARY

[0004] The main purpose of the utility model is to provide a material transfer device which can facilitate the taking and placing of thermal insulation materials.

[0005] To achieve the above purpose, the utility model provides a material transfer device, which comprises:

[0006] A vehicle body is provided with a cavity, and an opening is formed on one side of the vehicle body to connect the cavity with the external environment;

[0007] A storage component is arranged in the cavity and comprises a storage rack arranged in the cavity in a sliding manner towards or away from the opening. A plurality of partition plates are arranged on the storage rack. Each partition plate is arranged vertically on the storage rack, and a storage cavity for placing materials is formed between adjacent two partition plates. The materials are placed in a side-standing posture in each storage cavity.

[0008] A constraint component is arranged in the storage rack, and one end of the constraint component is connected with each partition plate. The constraint component is used to limit the movement of the materials on the storage rack.

[0009] Further, a sliding slot is formed in each partition plate in the shape of a "mouth".

[0010] The constraint component comprises a movable plate arranged in each sliding slot in a sliding manner. The movable plate in each sliding slot is provided with two movable plates arranged oppositely. One end of the movable plate can protrude out of the sliding slot and abut against the materials in the corresponding storage cavity. An adjusting assembly is further arranged in the storage rack. One end of the adjusting assembly is connected with each movable plate. The adjusting assembly is used to drive the two movable plates on each partition plate to move towards or away from each other.

[0011] Further, a first cavity is formed in one side of the storage rack;

[0012] The adjusting assembly comprises a handle rotatably arranged on the storage rack, one end of the handle is rotatably inserted into the first cavity, a pushing member is further arranged in the storage rack, the pushing member comprises a second abutting block vertically slidably arranged in each sliding slot, each second abutting block is arranged between the corresponding two movable plates, and each second abutting block is detachably connected with the corresponding movable plate, a rotating assembly is further rotatably arranged in the storage rack, the rotating assembly drives each second abutting block to vertically reciprocate in the corresponding sliding slot when rotating, thereby controlling the connection or separation of each second abutting block and the corresponding movable plate, a belt transmission assembly is arranged in the first cavity, one end of the belt transmission assembly is connected with the end of the handle inserted into the first cavity, and the other end is connected with the rotating assembly, when the handle rotates, the handle drives the rotating assembly to rotate in the storage rack through the belt transmission assembly, until the rotating assembly drives each second abutting block to contact with the corresponding two movable plates and pushes the two corresponding movable plates away from each other.

[0013] Further, a plurality of second cavities are formed in the storage rack, each second cavity corresponds to each partition plate, and each second cavity is arranged below the corresponding partition plate and communicates with the sliding slot on the corresponding partition plate, and one side of each movable plate is provided with a protruding inclined surface;

[0014] The rotating assembly comprises a transmission rod rotatably arranged in the storage rack, the transmission rod is arranged in the storage rack along the distribution direction of the partition plates, and the transmission rod penetrates through each second cavity, further comprising a first abutting block arranged in each second cavity, and each first abutting block is eccentrically arranged on the transmission rod, one end of the transmission rod close to the handle is connected with the belt transmission assembly, the transmission rod is used for driving each first abutting block to rotate together with the axis of the transmission rod as the center, each second abutting block is arranged above the corresponding first abutting block, when the transmission rod drives each first abutting block to rotate to a predetermined position, each first abutting block applies an upward pushing force to the corresponding second abutting block, and a first elastic unit is further arranged between each second abutting block and the corresponding sliding slot, the first elastic unit applies a downward pulling force to the corresponding second abutting block.

[0015] Further, a reset component is arranged between the two movable plates on the same partition plate, the reset component comprises a plurality of second elastic units equidistantly arranged between the two corresponding movable plates, and the second elastic units apply a pulling force to the two corresponding movable plates to move closer to each other.

[0016] Furthermore, a second caster wheel is provided below the storage rack. When the storage rack is moved toward the opening, the second caster wheel is used to support and assist the movement of the storage rack.

[0017] A limiting groove is provided at the sliding connection between the storage rack and the vehicle body, and the limiting groove is provided along the moving direction of the storage rack. The end of the limiting groove away from the second universal wheel is a closed end. Two limiting blocks are also provided in the cavity of the vehicle body. Each limiting block is slidably disposed in the corresponding limiting groove. The limiting blocks are used to prevent the storage rack from detaching from the vehicle body.

[0018] The beneficial effects of this utility model are reflected in:

[0019] This invention, through the cooperation between the storage rack and each partition plate, allows workers to place materials side by side in each storage cavity without stacking them. When retrieving materials, the constraint components on each material are first released, and the storage rack is then pulled out of the vehicle body to retrieve the material from the corresponding partition plate. Adjacent materials will not interfere with the material retrieval process, making it convenient to pick up and put down materials. Attached Figure Description

[0020] Figure 1 This is a perspective view of the material transfer device described in this utility model;

[0021] Figure 2 yes Figure 1 Enlarged view of point A in the middle;

[0022] Figure 3 This is a first sectional view of the material transfer device described in this utility model;

[0023] Figure 4 yes Figure 3 Enlarged view at point B;

[0024] Figure 5 This is a second sectional view of the material transfer device described in this utility model;

[0025] Figure 6 yes Figure 5 A magnified view at point C;

[0026] Figure 7 This is a structural view of the vehicle body.

[0027] Explanation of reference numerals in the attached figures:

[0028] 1. Vehicle body; 11. Chamber; 111. Opening; 12. Protective plate; 13. First caster wheel; 14. Limiting block; 2. Storage component; 21. Storage rack; 211. First cavity; 212. Second cavity; 213. Limiting groove; 22. Divider plate; 221. Sliding groove; 23. Storage cavity; 24. Second caster wheel; 3. Restraining component; 31. Movable plate; 32. Adjustment component; 321. Handle; 322. Pushing component; 3221. Transmission rod; 3222. First abutment block; 3223. Second abutment block; 3224. First elastic unit; 323. Belt drive component; 3231. Synchronous pulley; 3232. Synchronous belt; 4. Reset component; 41. Second elastic unit. Detailed Implementation Plan

[0029] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. Unless otherwise specified, the embodiments and features in the embodiments of this application can be combined with each other.

[0030] See Figures 1-7 .

[0031] This utility model discloses a material transfer device, comprising:

[0032] The vehicle body 1 has a chamber 11 therein, and an opening 111 is provided on one side of the vehicle body 1 to connect the chamber 11 with the external environment.

[0033] The storage component 2 includes a storage rack 21 that is slidably disposed in the chamber 11 toward or away from the opening 111. The storage rack 21 is also provided with a plurality of partition plates 22 evenly distributed on it. Each partition plate 22 is vertically disposed on the storage rack 21, and a storage cavity 23 for placing materials is formed between two adjacent partition plates 22. By cooperating with the storage rack 21 and the storage cavity 23 formed between the partition plates 22, materials can be placed in each storage cavity 23 in a row.

[0034] A constraint component 3 is disposed in the storage rack 21, and one end of the constraint component 3 is connected to each partition plate 22. The constraint component 3 is used to restrict the movement of materials on the storage rack 21.

[0035] In specific implementation, when transporting materials, the staff slides the storage rack 21 towards the direction close to the opening 111 until the storage rack 21 is pulled out of the vehicle body 1. The staff places the materials side by side in each storage cavity 23 in sequence. After the materials are placed, the restraint component 3 is used to restrain each material on the storage rack 21, so as to prevent the materials from jittering during transportation and even accidentally falling off the storage rack 21. Subsequently, the storage rack 21 is moved towards the direction close to the chamber 11 until the storage rack 21 is received into the chamber 11. When the corresponding material needs to be taken out, the storage rack 21 is pulled out of the vehicle body 1 again, and after the restraint on each material by the restraint component 3 is released, the material can be taken out from the corresponding storage cavity 23.

[0036] In this utility model, through the cooperation between the storage rack 21 and each partition plate 22, when the staff places materials, the materials can be placed side by side in each storage cavity 23 in sequence without stacking the materials. When taking out the materials, first release the restraint on each material by the restraint component 3, and pull out the storage rack 21 from the vehicle body 1, then the materials in the corresponding partition plate 22 can be taken out. The adjacent other materials will not interfere with the material taking process, and it is convenient to take and place materials.

[0037] It should be noted that a protection plate 12 is rotatably provided on one side of the vehicle body 1 close to the opening 111. When the storage rack 21 is received into the vehicle body 1, the protection plate 12 rotates towards the direction close to the opening 111 until the protection plate 12 closes the opening 111, so as to protect the materials and prevent the storage rack 21 from being accidentally pulled out of the vehicle body 1.

[0038] It should be noted that the bottom of the vehicle body 1 is provided with first universal wheels 13 for supporting and assisting the movement of the vehicle body 1.

[0039] In one embodiment, a sliding groove opening 221 in the shape of a "mouth" is formed on one side of each partition plate 22 corresponding to the storage cavity 23;

[0040] The restraint component 3 includes movable plates 31 slidably arranged in each sliding groove opening 221. There are two movable plates 31 in each sliding groove opening 221 and they are arranged oppositely. One end of the movable plate 31 can extend out of the sliding groove opening 221 to abut against the materials in the corresponding storage cavity 23. An adjusting component 32 is further provided in the storage rack 21. One end of the adjusting component 32 is connected to each movable plate 31, and the adjusting component 32 is used to drive the two movable plates 31 on each partition plate 22 to approach or move away from each other.

[0041] With this design, after the materials are placed in the respective storage cavities 23, the operator uses the adjusting component 32 to move the two movable plates 31 on each partition plate 22 away from each other with the corresponding partition plate 22 as the center. This causes the movable plates 31 to move closer to the center of the corresponding storage cavity 23 until the movable plates 31 contact the materials in the corresponding storage cavity 23 and apply a pushing force to the materials in the direction of moving closer to the center of the corresponding storage cavity 23, thereby confining the materials in the corresponding storage cavity 23. When it is necessary to remove the materials, the adjusting component 32 is used again to move the two movable plates 31 on each partition plate 22 closer to each other with the corresponding partition plate 22 as the center. At this time, the movable plates 31 separate from the corresponding materials, and the materials are no longer constrained.

[0042] In one embodiment, a first cavity 211 is provided in one side of the storage rack 21;

[0043] The adjustment assembly 32 includes a handle 321 rotatably mounted on the storage rack 21, one end of which is rotatably inserted into the first cavity 211. The storage rack 21 also includes a pushing component 322, which includes second abutment blocks 3223 vertically slidably mounted in each sliding slot 221. Each second abutment block 3223 is positioned between two corresponding movable plates 31, and each second abutment block 3223 is detachably connected to the corresponding movable plate 31. The assembly also includes a rotating component rotatably mounted in the storage rack 21. When the rotating component rotates, it drives each second abutment block 3223 to... The sliding groove 221 should move vertically back and forth to control the connection or separation of each second abutment block 3223 with the corresponding movable plate 31. The first cavity 211 is provided with a belt drive assembly 323. One end of the belt drive assembly 323 is connected to one end of the handle 321 inserted into the first cavity 211, and the other end is connected to the rotating assembly. When the handle 321 is rotated, the handle 321 drives the rotating assembly to rotate in the storage rack 21 through the belt drive assembly 323 until the rotating assembly drives each second abutment block 3223 to contact the corresponding movable plates 31 on both sides and pushes the two corresponding movable plates 31 away from each other.

[0044] With this design, when materials need to be restrained, the operator turns the handle 321. At this time, the handle 321 drives the rotating component to rotate in the storage rack 21 through the belt drive assembly 323 until the rotating component drives each second abutment block 3223 to contact the corresponding movable plates 31 on both sides. At this time, each second abutment block 3223 drives the two corresponding movable plates 31 on the corresponding partition plate 22 to move away from each other, thereby restraining the materials in each storage cavity 23. When materials need to be removed, the handle 321 is reversed to separate each second abutment block 3223 from the corresponding movable plate 31, at which time each movable plate 31 loses its restraint.

[0045] In one embodiment, the storage rack 21 has a plurality of second cavities 212, each second cavity 212 corresponding to each partition plate 22, and each second cavity 212 is located below the corresponding partition plate 22 and communicates with the sliding groove 221 on the corresponding partition plate 22. Each movable plate 31 has a protruding inclined surface on its opposite side.

[0046] The rotating assembly includes a transmission rod 3221 rotatably disposed in the storage rack 21. The transmission rod 3221 is disposed within the storage rack 21 along the distribution direction of the partition plate 22 and passes through each of the second cavities 212. It also includes first abutment blocks 3222 disposed in each of the second cavities 212, with each first abutment block 3222 eccentrically disposed on the transmission rod 3221. The end of the transmission rod 3221 near the handle 321 is connected to a belt drive assembly 323. The transmission rod 3221 drives each first abutment block 3222 to rotate together around the axis of the transmission rod 3221. Each of the aforementioned second abutment blocks 3223 is positioned above the corresponding first abutment block 3222, and the top of each second abutment block 3223 is provided with another inclined surface corresponding to the inclined surface on the corresponding movable plate 31. When the transmission rod 3221 drives each first abutment block 3222 to rotate to a predetermined position, each first abutment block 3222 applies an upward pushing force to the corresponding second abutment block 3223. A first elastic unit 3224 is also provided between each second abutment block 3223 and the corresponding sliding groove 221, and the first elastic unit 3224 applies a downward pulling force to the corresponding second abutment block 3223.

[0047] With this design, when materials need to be restrained, rotating the handle 321 causes the handle 321 to drive the transmission rod 3221 to rotate via the belt drive assembly 323. The transmission rod 3221 then drives each of the first abutment blocks 3222 to rotate together until each of the first abutment blocks 3222 rotates to a predetermined position. At this point, each of the first abutment blocks 3222 applies an upward thrust to the corresponding second abutment block 3223, causing the second abutment block 3223 to move upward and its inclined surface to contact the inclined surface on the corresponding movable plate 31. The first elastic unit 3224 is stretched, and each second abutment block 3223 presses against the corresponding movable plates 31 on both sides, thereby causing the two movable plates 31 to move away from each other. When it is necessary to remove the material, the reverse handle 321 causes each transmission rod 3221 to drive each first abutment block 3222 away from the predetermined position. At this time, each first elastic unit 3224 loses its constraint and applies a downward pulling force to the corresponding second abutment block 3223, thereby causing the second abutment block 3223 to separate from the corresponding movable plates 31 on both sides. At this time, each movable plate 31 loses its constraint.

[0048] It should be noted that the belt drive assembly 323 includes two synchronous pulleys 3231 respectively disposed on one end of the handle 321 inserted into the first cavity 211 and the other end of the transmission rod 3221 near the handle 321, and a synchronous belt 3232 connecting the two synchronous pulleys 3231. When the handle 321 rotates, the synchronous pulley 3231 disposed on the handle 321 drives the other synchronous pulley 3231 disposed on the transmission rod 3221 to rotate through the synchronous belt 3232, thereby realizing that the handle 321 drives the transmission rod 3221 to rotate.

[0049] Preferably, the first elastic unit 3224 can be a tension spring as in the prior art.

[0050] In one embodiment, a reset component 4 is provided between two movable plates 31 on the same partition plate 22. The reset component 4 includes a plurality of second elastic units 41 equidistantly distributed between the two corresponding movable plates 31. The second elastic units 41 apply a pulling force to bring the two corresponding movable plates 31 closer to each other.

[0051] With this design, when the second abutting block 3223 presses against the corresponding movable plates 31 on both sides, the two movable plates 31 move away from each other, and the second elastic units 41 between the two movable plates 31 are stretched. When the second abutting block 3223 separates from the corresponding movable plates 31 on both sides, the second elastic units 41 between the two movable plates 31 lose their constraint and drive the two movable plates 31 to move closer to each other, thereby resetting each movable plate 31.

[0052] It should be noted that the tension of the first elastic unit 3224 is greater than the sum of the tensions of the second elastic units 41 between the two corresponding movable plates 31, so that after the first abutting block 3222 separates from the corresponding second abutting block 3223, the second abutting block 3223 can smoothly separate from the corresponding movable plates 31 on both sides.

[0053] It should be noted that rollers may be provided on the contact surface between the second abutment block 3223 and the corresponding movable plates 31 on both sides, so that the second abutment block 3223 can more easily contact and separate from the movable plates 31 on both sides without interfering with the movement of the movable plates 31 on both sides driven by the second abutment block 3223.

[0054] It should be noted that when the movable plate 31 is rectangular, the second elastic units 41 between the two movable plates 31 can be distributed sequentially at the four corners of the movable plate 31, so that the force on the two movable plates 31 is more uniform.

[0055] Preferably, the second elastic unit 41 can be a tension spring as in the prior art.

[0056] In one embodiment, a second caster wheel 24 is provided below the storage rack 21. When the storage rack 21 is moved toward the opening 111, the second caster wheel 24 is used to support and assist the movement of the storage rack 21.

[0057] A limiting groove 213 is provided at the sliding connection between the storage rack 21 and the vehicle body 1, and the limiting groove 213 is provided along the moving direction of the storage rack 21. The end of the limiting groove 213 away from the second universal wheel 24 is a closed end. Two limiting blocks 14 are also provided in the cavity 11 of the vehicle body 1. Each limiting block 14 is slidably disposed in the corresponding limiting groove 213. The limiting block 14 is used to prevent the storage rack 21 from detaching from the vehicle body 1.

[0058] With this design, when the storage rack 21 is pulled out of the vehicle body 1, the storage rack 21 moves toward the opening 111 of the chamber 11. At this time, each limiting block 14 slides relative to the corresponding limiting groove 213 until each limiting block 14 contacts the end of the corresponding limiting groove 213 away from the second universal wheel 24. At this time, each limiting block 14 prevents the storage rack 21 from continuing to move, thereby preventing the storage rack 21 from accidentally detaching from the vehicle body 1.

[0059] The above description is merely a preferred embodiment of this utility model and is not intended to limit the utility model. Any modifications, equivalent substitutions, or improvements made within the spirit and principles of this utility model should be included within the protection scope of this utility model. Furthermore, "multiple," "multiple groups," and "several" refer to two or more.

Claims

1. A material transfer device, characterized in that, Comprising: A vehicle body (1), in which a chamber (11) is formed, and an opening (111) for connecting the chamber (11) with the external environment is formed on one side of the vehicle body (1); A storage component (2), including a storage rack (21) slidably arranged in the chamber (11) in a direction close to or away from the opening (111), and a plurality of partition plates (22) are distributed on the storage rack (21). Each partition plate (22) is vertically arranged on the storage rack (21), and a storage cavity (23) for placing materials is formed between two adjacent partition plates (22). The materials are placed side by side in a standing posture in each storage cavity (23); A restraint component (3), arranged in the storage rack (21), and one end of the restraint component (3) is connected to each partition plate (22). The restraint component (3) is used to restrict the movement of the materials on the storage rack (21).

2. The material transfer device according to claim 1, characterized in that, A sliding slot opening (221) in the shape of a "mouth" is formed in each partition plate (22); The restraint component (3) includes movable plates (31) slidably arranged in each sliding slot opening (221). There are two movable plates (31) in each sliding slot opening (221) and they are arranged oppositely. One end of the movable plate (31) can extend out of the sliding slot opening (221) to abut against the materials in the corresponding storage cavity (23). An adjusting component (32) is further arranged in the storage rack (21). One end of the adjusting component (32) is connected to each movable plate (31). The adjusting component (32) is used to drive the two movable plates (31) on each partition plate (22) to approach or move away from each other.

3. The material transfer device according to claim 2, characterized in that, [[ID= The adjusting component (32) includes a handle (321) rotatably mounted on the storage rack (21), one end of which is rotatably inserted into the first cavity (211). The storage rack (21) also includes a pushing component (322), which includes second abutment blocks (3223) vertically slidably mounted in each of the sliding slots (221). Each second abutment block (3223) is positioned between two corresponding movable plates (31), and each second abutment block (3223) is detachably connected to the corresponding movable plate (31). The adjusting component also includes a rotating component rotatably mounted in the storage rack (21). When the rotating component rotates, it drives each second abutment block (3223) to move in the corresponding... The sliding groove (221) moves vertically back and forth, thereby controlling the connection or separation of each of the second abutment blocks (3223) and the corresponding movable plate (31). The first cavity (211) is provided with a belt drive assembly (323). One end of the belt drive assembly (323) is connected to one end of the handle (321) inserted into the first cavity (211), and the other end is connected to the rotating assembly. When the handle (321) rotates, the handle (321) drives the rotating assembly to rotate in the storage rack (21) through the belt drive assembly (323) until the rotating assembly drives each of the second abutment blocks (3223) to contact the corresponding movable plates (31) on both sides and pushes the two corresponding movable plates (31) away from each other.

4. The material transfer device according to claim 3, characterized in that, The storage rack (21) has a plurality of second cavities (212), each second cavity (212) corresponds to each of the partition plates (22), and each second cavity (212) is located below the corresponding partition plate (22) and communicates with the sliding groove (221) on the corresponding partition plate (22). Each movable plate (31) has a protruding inclined surface on its opposite side. The rotating assembly includes a transmission rod (3221) rotatably disposed in the storage rack (21). The transmission rod (3221) is disposed in the storage rack (21) along the distribution direction of the partition plate (22) and passes through each of the second cavities (212). It also includes a first abutment block (3222) disposed in each of the second cavities (212). Each first abutment block (3222) is eccentrically disposed on the transmission rod (3221). One end of the transmission rod (3221) near the handle (321) is connected to a belt drive assembly (323). The transmission rod (3221) is used to drive each of the first abutment blocks. (3222) Rotate together with the axis of the transmission rod (3221) as the center. Each second abutment block (3223) is positioned above the corresponding first abutment block (3222). When the transmission rod (3221) drives each first abutment block (3222) to rotate to a predetermined position, each first abutment block (3222) applies an upward thrust to the corresponding second abutment block (3223). A first elastic unit (3224) is also provided between each second abutment block (3223) and the corresponding sliding groove (221). The first elastic unit (3224) applies a downward pull to the corresponding second abutment block (3223).

5. The material transfer device according to claim 2, characterized in that, A reset component (4) is provided between two movable plates (31) on the same partition plate (22). The reset component (4) includes a plurality of second elastic units (41) evenly distributed between the two corresponding movable plates (31). The second elastic units (41) apply a pulling force to the two corresponding movable plates (31) to bring them closer together.

6. The material transfer device according to claim 1, characterized in that, The storage rack (21) is provided with a second universal wheel (24) below it. When the storage rack (21) is moved toward the opening (111), the second universal wheel (24) is used to support and assist the storage rack (21) in moving. A limiting groove (213) is provided at the sliding connection between the storage rack (21) and the vehicle body (1), and the limiting groove (213) is provided along the moving direction of the storage rack (21). The end of the limiting groove (213) away from the second universal wheel (24) is a closed end. Two limiting blocks (14) are also provided in the cavity (11) of the vehicle body (1). Each limiting block (14) is slidably disposed in the corresponding limiting groove (213). The limiting block (14) is used to prevent the storage rack (21) from detaching from the vehicle body (1).

Images