CN211380207U - A shoe cabinet for automatically storing and storing shoes - Google Patents

Abstract

The utility model discloses a shoe cabinet for automatically storing shoes, which comprises a shoe cabinet body and a plurality of partitions arranged in the shoe cabinet body. A first cavity is arranged between the back plate of the shoe cabinet body and the plurality of partitions. The first cavity is provided with a transmission mechanism, the transmission mechanism is provided with a shoe-taking part, a second cavity is arranged between the partition plate and the side plate of the shoe cabinet body, and the shoe-taking part can move up and down in the second cavity, The shoe retrieval unit may transport the shoes within the shoe cabinet body through the transport mechanism and place the shoes on the partition, or remove the shoes from the partition and transport them within the shoe cabinet body. The utility model utilizes the coordinated movement between the linear optical axes, and combines with the shoe part to organize and place the shoes without using hands, which saves time and is clean and hygienic. The space between the partitions in the shoe cabinet can be adjusted, and the space of the partition for taking shoes can be increased, which can make taking shoes more convenient, and at the same time, it can increase the available space and improve the space utilization rate.

Description

A shoe cabinet for automatically storing and storing shoes

technical field

The utility model relates to the field of intelligent shoe cabinets, in particular to a shoe cabinet for automatically storing shoes.

Background technique

With the continuous improvement of people's living standards, people create more and more smart furniture to serve themselves, these smart furniture make people's life more convenient and efficient. The shoe cabinet is an indispensable piece of furniture in home life. Store our shoes in the shoe cabinet, which is neat and space-saving.

However, most of the current shoe cabinets only have a simple storage function, which requires people to place and organize them by hand, which not only wastes time, but also involves too many hand-organized shoes, which will inevitably lead to hidden health hazards.

Utility model content

The utility model provides a shoe cabinet for automatically storing and storing shoes, which eliminates the need for people to place and arrange shoes, saves time, and is clean and hygienic.

In order to achieve the above purpose, the utility model provides a shoe cabinet for automatically storing and storing shoes, which includes a shoe cabinet body and a plurality of partitions arranged in the shoe cabinet body, and the back plate of the shoe cabinet body is connected to a plurality of the partitions. A first cavity is arranged between the plates, a transmission mechanism is arranged in the first cavity, a shoe-taking part is arranged on the transmission mechanism, and a side plate of the shoe cabinet body is arranged between the partition plate and the shoe cabinet body. The second cavity, the shoe taking part can move up and down in the second cavity, the shoe taking part can transport the shoes in the shoe cabinet body through the transmission mechanism and put the shoes on the partitions, or remove shoes from the partitions and transport them within the shoe cabinet body.

Further, the transmission mechanism includes a first transverse linear optical axis, a second transverse linear optical axis, a third transverse linear optical axis, a first longitudinal linear optical axis, a second longitudinal linear optical axis and a third longitudinal linear optical axis;

The first lateral linear optical axis is rotatably arranged on the top of the shoe cabinet body, and the second lateral linear optical axis is parallel to the first lateral linear optical axis and is rotatably arranged on the shoe cabinet At the bottom of the body, the plane where the first and second transverse linear optical axes are located is parallel to the back plate, and the first and second transverse linear optical axes pass through the longitudinal synchronous belt The longitudinal synchronous belt makes the first transverse linear optical axis rotate synchronously with the second transverse linear optical axis, and the two ends of the third transverse linear optical axis are respectively connected with the first transverse linear optical axis through transverse sliders. The linear optical axis and the second transverse linear optical axis are slidably connected, and the first transverse linear optical axis is connected with the transverse drive motor fixed on the inner wall of the shoe cabinet body;

The first longitudinal linear optical axis is rotatably arranged on the left side of the shoe cabinet body, and the second longitudinal linear optical axis is parallel to the first longitudinal linear optical axis and is rotatably arranged on the shoe On the right side of the cabinet body, the plane where the first longitudinal linear optical axis and the second longitudinal linear optical axis are located is parallel to the back plate and not in the plane where the first transverse linear optical axis and the second transverse linear optical axis are located , the first longitudinal linear optical axis and the second longitudinal linear optical axis are connected by a transverse timing belt, and the transverse timing belt makes the first longitudinal linear optical axis and the second longitudinal linear optical axis rotate synchronously, Both ends of the third longitudinal linear optical axis are respectively slidably connected to the first longitudinal linear optical axis and the second longitudinal linear optical axis through longitudinal sliders, and the first longitudinal linear optical axis is fixed to the shoe cabinet. The longitudinal drive motor on the inner wall of the body is connected;

the transverse slider is fixedly connected with the longitudinal synchronous belt, and the longitudinal sliding block is fixedly connected with the transverse synchronous belt;

A center slider is arranged between the third longitudinal linear optical axis and the third transverse linear optical axis, and the center slider can be on the third longitudinal linear optical axis and the third transverse linear optical axis Sliding, the shoe taking part is fixed on the central slider, and the shoe taking part can put shoes on the partition board or take off the shoes from the partition board.

Further, there are two longitudinal synchronous belts in total, and the two longitudinal synchronous belts are respectively arranged at both ends of the first transverse linear optical axis and the second transverse linear optical axis, and there are two transverse synchronization belts in total, The two transverse synchronous belts are respectively arranged at both ends of the first longitudinal linear optical axis and the second longitudinal linear optical axis.

Further, the central slider is respectively connected with the third longitudinal linear optical axis and the third transverse linear optical axis through two linear bearings.

Further, the shoe-removing portion can support shoes, the partition plate is provided with a hollow portion, and the shoe-taking portion can pass through the hollow portion.

Further, the shoe-removing portion includes a main rod fixedly connected with the central slider and a side rod fixed on one side of the main rod, and the hollow portion includes a main rod hollow with a shape adapted to the main rod. The hollow part of the side bar whose part and shape are adapted to the side bar direction.

Further, a rack is fixed on the inner wall of the shoe cabinet body, the rack is arranged along the height direction of the shoe cabinet body, a partition drive motor is fixed on the partition, and the output end of the partition drive motor is connected There are gears, the gears are meshed with the racks, the shoe cabinet body is provided with more than two support rods, the partitions are respectively connected with each of the support rods through linear bearings, and the support rods are connected to the support rods. The racks are parallel.

Further, the middle part of the side plate is provided with a shoe opening.

The utility model provides a shoe cabinet for automatically storing and storing shoes, which utilizes the coordinated movement between the linear optical axes and combines with the shoe-receiving part to organize and place the shoes without using hands, which saves time and is clean and hygienic. The space between the partitions in the shoe cabinet can be adjusted, and the space of the partition for taking shoes can be increased, which can make taking shoes more convenient, and at the same time, it can increase the available space and improve the space utilization rate.

Description of drawings

In order to illustrate the embodiments of the present invention or the technical solutions in the prior art more clearly, the following briefly introduces the accompanying drawings used in the description of the embodiments or the prior art. Obviously, the accompanying drawings in the following description The drawings are some embodiments of the present invention. For those of ordinary skill in the art, other drawings can also be obtained from these drawings without creative work.

1 is a schematic structural diagram of a shoe cabinet for automatically storing and storing shoes disclosed by the utility model, and for the sake of clarity, the cabinet door of the shoe cabinet is not drawn in the figure;

2 is a sectional plan view of a shoe cabinet for automatically storing and storing shoes disclosed by the utility model, and the shoe-receiving part in the figure is in the second cavity;

3 is a schematic diagram of the combined structure of a shoe cabinet for automatically storing shoes and a shoe removing device for an intelligent shoe cabinet disclosed by the utility model;

4 is a schematic diagram of the transmission structure and the structure of the shoe section in the utility model;

5 is a schematic structural diagram of a shoe cabinet for automatically storing and storing shoes disclosed by the utility model, with the shoe cabinet body removed;

6 is an enlarged schematic view of part A in FIG. 5, that is, a schematic view of the connection between the longitudinal drive motor and the first longitudinal linear optical axis in the present invention;

FIG. 7 is an enlarged schematic view of part B in FIG. 5 , that is, a schematic view of the connection between the gear and the rack in the present invention.

In the figure: 1, the shoe cabinet body; 2, the partition plate; 3, the first transverse linear optical axis; 4, the second transverse linear optical axis; 5, the third transverse linear optical axis; 6, the first longitudinal linear optical axis; 7. The second longitudinal linear optical axis; 8. The third longitudinal linear optical axis; 9. The longitudinal synchronous belt; 10. The transverse slider; 11. The transverse drive motor; 12. The transverse synchronous belt; Longitudinal drive motor; 15, center slider; 16, shoe removal; 17, support rod; 18, rack; 19, partition drive motor; 20, gear; 21, shoe opening; 22, shoe removal device; 101 102, the first cavity; 103, the side plate; 104, the second cavity; 161, the main rod; 162, the side rod; 201, the hollow part; 202, the main rod hollow part; 203, the side rod hollow department;

Detailed ways

In order to make the purposes, technical solutions and advantages of the embodiments of the present utility model clearer, the technical solutions in the embodiments of the present utility model will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present utility model. The embodiments described above are a part of the embodiments of the present invention, but not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative work fall within the protection scope of the present invention.

As shown in Figures 1 and 2, a shoe cabinet for automatically accessing shoes includes a shoe cabinet body 1 and a plurality of partitions 2 arranged in the shoe cabinet body 1, a backboard 101 of the shoe cabinet body 1 and a number of partitions There is a first cavity 102 between 2, a transmission mechanism is arranged in the first cavity 102, a shoe fetching part 16 is arranged on the transmission mechanism, and a second cavity is arranged between the partition 2 and the side plate 103 of the shoe cabinet body 1. The cavity 104, the shoe-taking part can move up and down in the second cavity 104, and the shoe-taking part can transport the shoes in the shoe cabinet body 1 through the transmission mechanism and put the shoes on the partition 2, or remove the shoes from the partition 2 and transport it in the shoe cabinet body 1.

As shown in FIG. 3 , in the shoe cabinet for automatically storing shoes in this embodiment, an opening is provided at the bottom of the side plate 103 on one side of the second cavity. The shoes are sent into the shoe cabinet, and then the shoe-taking part is driven by the transmission mechanism to take off the shoes from the shoe-removing device 22, move to the side of the partition suitable for placing the shoes in the second cavity, and then move to the space between the partitions. Exercise and finally put your shoes on the partition. In addition to the method disclosed in this embodiment, it is also possible to not set an opening on the side panel, open the door of the shoe cabinet, place the shoes at any position on the partition of the shoe cabinet, and the transmission mechanism can take the shoes from the partition. down, and put them in a suitable position without manual sorting, or directly hand over the shoes to the shoe pick-up department and transport them to the appropriate position by the transmission mechanism. Compared with manually arranging shoe cabinets and placing shoes, the shoe cabinet disclosed by the utility model greatly reduces manual labor, reduces the contact between personnel and shoes, and is convenient and hygienic.

Further, as shown in Figures 4 and 5, the transmission mechanism includes a first transverse linear optical axis 3, a second transverse linear optical axis 4, a third transverse linear optical axis 5, a first longitudinal linear optical axis 6, and a second longitudinal linear optical axis. Linear optical axis 7 and third longitudinal linear optical axis 8;

The first transverse linear optical axis 3 is rotatably arranged at the top of the shoe cabinet body 1, and the second transverse linear optical axis 4 is parallel to the first transverse linear optical axis 3 and is rotatably arranged at the bottom of the shoe cabinet body 1, The plane where the first transverse linear optical axis 3 and the second transverse linear optical axis 4 are located is parallel to the back plate 101, the first transverse linear optical axis 3 and the second transverse linear optical axis 4 are connected by a longitudinal synchronous belt 9, and the longitudinal synchronous belt 9 makes The first transverse linear optical axis 3 and the second transverse linear optical axis 4 rotate synchronously, and the two ends of the third transverse linear optical axis 5 are respectively connected with the first transverse linear optical axis 3 and the second transverse linear optical axis 4 through the transverse slider 10. Sliding connection, the first transverse linear optical axis 3 is connected with the transverse drive motor 11 fixed on the inner wall of the shoe cabinet body 1;

The first longitudinal linear optical axis 6 is rotatably arranged on the left side of the shoe cabinet body 1, and the second longitudinal linear optical axis 7 is parallel to the first longitudinal linear optical axis 6 and is rotatably arranged on the right side of the shoe cabinet body 1. side, the plane where the first longitudinal linear optical axis 6 and the second longitudinal linear optical axis 7 are located is parallel to the backplane 101 and not in the plane where the first transverse linear optical axis 3 and the second transverse linear optical axis 4 are located. The shaft 6 and the second longitudinal linear optical axis 7 are connected by a transverse timing belt 12, and the transverse timing belt 12 makes the first longitudinal linear optical axis 6 and the second longitudinal linear optical axis 7 rotate synchronously, and the two ends of the third longitudinal linear optical axis 8 rotate synchronously. The longitudinal slider 13 is slidably connected with the first longitudinal linear optical axis 6 and the second longitudinal linear optical axis 7 respectively, and the first longitudinal linear optical axis 6 is connected with the longitudinal drive motor 14 fixed on the inner wall of the shoe cabinet body 1;

The transverse slider 10 is fixedly connected with the longitudinal synchronous belt 9, and the longitudinal sliding block 13 is fixedly connected with the transverse synchronous belt 12;

A center slider 15 is provided between the third longitudinal linear optical axis 8 and the third transverse linear optical axis 5, and the center slider 15 can slide on the third longitudinal linear optical axis 8 and the third transverse linear optical axis 5. A shoe-receiving part 16 is fixed on the block 15 , and the shoe-receiving part 16 can place the shoes on the partition 2 or remove the shoes from the partition 2 .

The output shaft of the transverse drive motor 11 is connected to one end of the first transverse linear optical axis 3 through a belt, and the transverse drive motor 11 drives the first transverse linear optical axis 3 to rotate, thereby driving the longitudinal synchronous belt 9 to rotate, and is fixed on the longitudinal synchronous belt 9 The transverse slider 10 moves along the Y direction under the traction of the longitudinal synchronous belt 9, the Y direction is the direction of the first longitudinal linear optical axis 3, and the third transverse linear optical axis 5 moves along the Y direction with the transverse slider 10. 6, the output shaft of the longitudinal drive motor 14 is connected to one end of the first longitudinal linear optical axis 6 through a belt, and the longitudinal drive motor 14 drives the first longitudinal linear optical axis 6 to rotate, thereby driving the transverse synchronous belt 12 to rotate, The longitudinal slider 13 fixed on the transverse timing belt 12 moves along the X direction under the traction of the transverse timing belt 12, and the X direction is the direction of the first transverse linear optical axis 6, and the third longitudinal linear optical axis 8 follows the longitudinal direction. The slider 13 moves in the X direction. The third transverse linear optical axis 5 and the third longitudinal linear optical axis 8 form a "cross" shape but are not on the same plane. The optical axis 5 and the third longitudinal linear optical axis 8 move in the X and Y directions respectively, and the position of this "intersection point" will also send changes, that is, the position of the center slider 15 will send changes, which can be transmitted through the third horizontal linear optical axis and The movement of the third longitudinal linear optical axis makes the center slider move arbitrarily in the X and Y directions.

It should be noted that the X direction and the Y direction are limited to two relative directions for the sake of clarity, and are not limited to the absolute direction.

Further, there are two longitudinal synchronous belts 9, two longitudinal synchronous belts 9 are respectively arranged on both ends of the first transverse linear optical axis 3 and the second transverse linear optical axis 4, the transverse synchronous belt 12 has two total, and the two transverse The timing belts 12 are respectively arranged on both ends of the first longitudinal linear optical axis 6 and the second longitudinal linear optical axis 7 . The two longitudinal synchronous belts are respectively fixedly connected with the lateral sliders on the respective sides, and the two lateral synchronous belts are respectively fixedly connected with the longitudinal sliders on the respective sides. The two longitudinal synchronous belts are respectively arranged at the two ends of the first transverse linear optical axis and the second transverse linear optical axis, which can balance the force of the first transverse linear optical axis and the second transverse linear optical axis, and can also pull the two at the same time. The horizontal slider can balance the force of the third horizontal linear optical axis between the two horizontal sliders, and the movement is stable. Similarly, two horizontal synchronous belts are arranged.

Further, the central slider 15 is respectively connected with the third longitudinal linear optical axis 8 and the third transverse linear optical axis 5 through two linear bearings.

Further, the shoe-receiving portion 16 can support the shoes, the partition 2 is provided with a hollow portion 201, and the shoe-taking portion 16 can pass through the hollow portion 201. When the shoes need to be placed, the shoe taking part (16) supports the shoes and passes through the hollow part (201) from top to bottom, and the shoes are placed on the partition plate. When the shoes need to be taken out, the The shoe part (16) is passed through the hollow part (201) from bottom to top, and the shoes placed on the partition board are held up, and the shoes are removed from the partition board.

Further, the shoe-taking part 16 includes a main rod 161 fixedly connected with the central slider 15 and a side rod 162 fixed on one side of the main rod 161 , and the hollow part 201 includes a main rod hollow part 202 and The side bar hollow part 203 whose shape is adapted to the side bar 162 direction. The shoe-receiving portion 16 and the hollow portion 201 are complementary in shape, and the shoe-receiving portion can move up and down relative to the partition, and simultaneously both the shoe-receiving portion and the partition can support the shoe stably.

Further, as shown in FIG. 7 , a rack 18 is fixed on the inner wall of the shoe cabinet body 1, and the rack 18 is arranged along the height direction of the shoe cabinet body 1. The output end is connected with a gear 20, and the gear 20 meshes with the rack 18. The shoe cabinet body 1 is provided with more than two support rods 17. The partition plate 2 is respectively connected with each support rod 17 through a linear bearing. The bars 18 are parallel.

In this embodiment, two support rods are provided, both of which are perpendicular to the partition, the two diagonal corners of the partition are respectively connected with the support rod, and the partition can slide along the support rod through linear bearings, except for the connection on the partition At the opposite corner of the support rod, the partition drive motor is fixedly arranged at the other corner of the partition board, and the meshing of the gear and the rack is combined with the connection between the partition board and the support rod to fix the partition board. It is also possible to connect the support rod to the edge of the partition, or to set the partition drive motor on the edge. The partition drive motor drives the gear to rotate, the gear meshes with the rack, and drives the partition to move along the rack, so that the distance between the partitions can be adjusted as required, and the distance between the partitions that need to transport shoes is increased. In this way, more partitions can be set within a limited height to increase the number of shoes that can be stored.

Further, the middle part of the side plate 103 is provided with a shoe opening 21 . The shoe-taking part 16 takes the shoes from the partition 2 and transports them to the shoe-taking port through a transport mechanism, so that people can take the shoes without bending over, which is more convenient.

The preferred implementation of this embodiment is to use it in combination with a shoe-removing device. The shoe-removing device is used to take off the shoes and transport them into the shoe cabinet from the opening under the side panel. When transporting to the shoe cabinet, the shoe-removing device will remove the shoes. Raise slightly so that there is a gap under the sole for the shoe to insert and remove. After the shoes are taken out, the shoes are moved to the side of the partition suitable for placing the shoes in the second cavity under the transport of the transport mechanism, and then moved to the top of the partition, and the shoes are taken through the partition from top to bottom. , leave the shoes on the partition, and complete the action of putting shoes. When the shoes need to be taken, the taking part passes through the partition from bottom to top, and the shoes are taken away from the partition. Under the transportation of the transportation mechanism, the shoes are transported to the opening of the shoes, and people can take the shoes without bending over.

Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present utility model, but not to limit them; although the present utility model has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that : it can still modify the technical solutions recorded in the foregoing embodiments, or perform equivalent replacements to some or all of the technical features; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the various embodiments of the present utility model Scope of technical solutions.

Claims (8)

1. A shoe cabinet for automatically accessing shoes, comprising a shoe cabinet body (1) and several partitions (2) arranged in the shoe cabinet body (1), characterized in that the shoe cabinet body (1) A first cavity (102) is provided between the back plate (101) of the The shoe part (16) is provided with a second cavity (104) between the partition (2) and the side plate (103) of the shoe cabinet body (1), and the shoe part (16) can be Moving up and down in the second cavity (104), the shoe taking part (16) can transport the shoes in the shoe cabinet body (1) through the transmission mechanism and place the shoes on the partition (2), or remove the shoes from the partition (2) and transport them in the shoe cabinet body (1). 2. The shoe cabinet for automatically storing and storing shoes according to claim 1, wherein the transmission mechanism comprises a first transverse linear optical axis (3), a second transverse linear optical axis (4), a third transverse linear optical axis (4), and a third a transverse linear optical axis (5), a first longitudinal linear optical axis (6), a second longitudinal linear optical axis (7) and a third longitudinal linear optical axis (8); The first transverse linear optical axis (3) is rotatably arranged on the top of the shoe cabinet body (1), and the second transverse linear optical axis (4) is connected to the first transverse linear optical axis (3). ) is parallel and rotatable arranged at the bottom of the shoe cabinet body (1), the plane where the first transverse linear optical axis (3) and the second transverse linear optical axis (4) are located and the back plate (101) ) parallel, the first transverse linear optical axis (3) and the second transverse linear optical axis (4) are connected by a longitudinal timing belt (9), the longitudinal timing belt (9) makes the first transverse linear The optical axis (3) rotates synchronously with the second transverse linear optical axis (4), and the two ends of the third transverse linear optical axis (5) are respectively connected to the first transverse linear optical axis through the transverse slider (10). The shaft (3) is slidably connected with the second transverse linear optical axis (4), and the first transverse linear optical axis (3) is connected with the transverse drive motor (11) fixed on the inner wall of the shoe cabinet body (1); The first longitudinal linear optical axis (6) is rotatably arranged on the left side of the shoe cabinet body (1), and the second longitudinal linear optical axis (7) and the first longitudinal linear optical axis ( 6) Parallel and rotatable arranged on the right side of the shoe cabinet body (1), the plane where the first longitudinal linear optical axis (6) and the second longitudinal linear optical axis (7) are located and the back plate (101) parallel to and not in the plane of the first transverse linear optical axis (3) and the second transverse linear optical axis (4), the first longitudinal linear optical axis (6) and the second longitudinal linear optical axis The shaft (7) is connected by a transverse timing belt (12), which makes the first longitudinal linear optical axis (6) and the second longitudinal linear optical axis (7) rotate synchronously, and the Both ends of the third longitudinal linear optical axis (8) are slidably connected to the first longitudinal linear optical axis (6) and the second longitudinal linear optical axis (7) through longitudinal sliders (13), respectively. The linear optical axis (6) is connected with the longitudinal drive motor (14) fixed on the inner wall of the shoe cabinet body (1); The transverse sliding block (10) is fixedly connected with the longitudinal synchronous belt (9), and the longitudinal sliding block (13) is fixedly connected with the transverse synchronous belt (12); A center slider (15) is provided between the third longitudinal linear optical axis (8) and the third transverse linear optical axis (5), and the center slider (15) can be positioned on the third longitudinal linear axis The optical axis (8) and the third horizontal linear optical axis (5) slide on, and the shoe-receiving part (16) is fixed on the central slider (15), and the shoe-receiving part (16) can Shoes are placed on or removed from said partition (2). 3 . The shoe cabinet for automatically storing and storing shoes according to claim 2 , wherein there are two longitudinal synchronous belts ( 9 ) in total, and the two longitudinal synchronous belts ( 9 ) are respectively arranged on the At both ends of the first transverse linear optical axis (3) and the second transverse linear optical axis (4), there are two transverse synchronous belts (12), and the two transverse synchronous belts (12) are respectively arranged on the Both ends of the first longitudinal linear optical axis (6) and the second longitudinal linear optical axis (7). 4. The shoe cabinet for automatically storing and storing shoes according to claim 2, characterized in that the central slider (15) is connected to the third longitudinal linear optical axis (8) and the third longitudinal linear optical axis (8) through two linear bearings respectively. The third transverse linear optical axis (5) is connected. 5. The shoe cabinet for automatically storing and storing shoes according to claim 2, characterized in that the shoe-receiving portion (16) can support shoes, and the partition plate (2) is provided with a hollow portion (201). ), the shoe-taking part (16) can pass through the hollow part (201). 6 . The shoe cabinet for automatically storing shoes according to claim 5 , wherein the shoe taking part ( 16 ) comprises a main rod ( 161 ) fixedly connected with the central slider ( 15 ) and A side rod (162) fixed on one side of the main rod (161), the hollow part (201) comprises a main rod hollow part (202) whose shape is adapted to the main rod (161), and the shape is the same as the The side bar (162) is adapted to the side bar cutout (203). 7. The shoe cabinet for automatically storing and storing shoes according to claim 1, wherein a rack (18) is fixed on the inner wall of the shoe cabinet body (1), and the rack (18) runs along the The shoe cabinet body (1) is arranged in the height direction, a partition drive motor (19) is fixed on the partition plate (2), and a gear (20) is connected to the output end of the partition drive motor (19). (20) meshing with the rack (18), the shoe cabinet body (1) is provided with two or more support rods (17), and the partition plate (2) is connected to each of the A support rod (17) is connected, and the support rod (17) is parallel to the rack (18). 8 . The shoe cabinet for automatically storing and storing shoes according to claim 1 , wherein the middle part of the side plate ( 103 ) is provided with a shoe opening ( 21 ). 9 .

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