Medical information encrypted storage cabinet with multi-layer drawer structure

Abstract

The utility model belongs to the field of medical information storage, especially relate to a medical information encrypted storage cabinet of multilayer drawer structure, including support seat, maintenance door, cabinet body and support plate etc.

Description

Technical Field

[0001] This utility model belongs to the field of medical information storage, and in particular relates to a multi-layer drawer structure for encrypted medical information storage cabinet. Background Technology

[0002] With the continuous advancement of medical informatization, the methods of storing medical information are undergoing constant innovation and optimization. Medical information encompasses all data provided by patients during medical activities, as well as various data recorded by medical staff based on their medical expertise. This information from different stages references and influences each other, collectively constructing a comprehensive and continuous medical history record for the patient. Faced with such a vast and complex medical information system, storage cabinets, as an important information carrier, have emerged to ensure the proper and efficient storage and management of this information, playing an irreplaceable and crucial role in the field of medical information storage.

[0003] However, traditional storage cabinets have gradually revealed many drawbacks in dealing with the ever-increasing demand for medical information storage. On the one hand, their internal usable space is relatively limited, making it difficult to meet the ever-expanding demand for medical information storage, resulting in the accumulation of information and difficulty in retrieval, which seriously affects the efficiency of information management. On the other hand, traditional storage cabinets have obvious deficiencies in security protection, with low protection levels and a lack of effective encryption technology and security measures, making them easy to become risk points for information leakage, posing a potential threat to the privacy and security of patients and the normal operation of medical institutions.

[0004] Therefore, there is a particular need for a multi-layered drawer structure for encrypted medical information storage cabinets to solve the above problems. Utility Model Content

[0005] To overcome the shortcomings of traditional storage cabinets, such as limited internal space, insufficient security, difficulty in meeting the needs of medical information storage, and the risk of information leakage, this utility model provides a multi-layer drawer structure for encrypted medical information storage cabinets.

[0006] This utility model is achieved through the following technical means: a multi-layer drawer structure medical information encryption storage cabinet, including a support base, a maintenance door, a cabinet body, support plates, slide rails, a cabinet door, a drawer body, and a slider. The support base has a T-shaped structure with a rear-mounted accommodating space. The maintenance door is installed at the rear of the support base. Two cabinet bodies are fixed to the support base in a side-by-side arrangement. Multiple support plates are evenly divided into two groups, with each group of support plates arranged vertically and equidistantly, and fixed inside each cabinet body, dividing the interior of the cabinet body into multiple storage spaces. Multiple slide rails are evenly divided into two groups, with each group of slide rails arranged with two vertical parallel lines. The drawers are arranged at equal intervals and embedded inside each cabinet. Each cabinet door is rotatably connected to the front of each cabinet via a pivot and completely covers the cabinet surface from the front. Multiple drawer bodies are evenly divided into two groups. Each group of drawer bodies is slidably placed between each group of support plates and located inside the corresponding cabinet, corresponding to multiple placement spaces inside the cabinet. Two sliders are fixed to the rear of each drawer body in a side-by-side arrangement and slide in cooperation with the corresponding slide rails. A locking component is also included to lock the position of the drawer body, which is set between the support base, cabinet door and drawer body.

[0007] Further explanation: The locking assembly includes a fingerprint door lock controller, a dual-axis motor, gears, racks, connecting rods, latches, and a pressure sensor. Two first sliding grooves are arranged laterally in the inner rear part of the support base and directly connect to the receiving space of the support base. Each second sliding groove is located at the rear of each cabinet. The fingerprint door lock controller is installed on the upper part of the support base and has a fingerprint recognition module. The dual-axis motor is installed in the upper inner part of the receiving space, with its two output shafts facing left and right respectively. The fingerprint door lock controller is electrically connected to the dual-axis motor. Each gear is fixed to each output shaft of the dual-axis motor. Multiple latches are evenly divided into two groups, with each group of latches spaced apart along a vertical line and slidably connected to each first sliding groove. Between each second slide groove, and each locking rod passes through the corresponding slide rail and engages with the corresponding slider, each connecting rod is fixed between one end of each set of locking rods and located inside the receiving space, each rack is fixed to the upper end of each connecting rod and is located in front of the corresponding gear and meshes with it, two pressure sensors are installed vertically inside the receiving space and respectively contact the inner top and inner bottom of the receiving space, one pressure sensor is located above the connecting rod and in contact with it, and the other pressure sensor is located below the connecting rod, the distance between the bottom end of the connecting rod and the top end of the other pressure sensor is equal to the distance between the top end of the locking rod and the bottom end of the corresponding slide rail, and both pressure sensors are electrically connected to the fingerprint door lock controller.

[0008] To further explain, it also includes a first magnet strip and a second magnet strip. Each first magnet strip with an L-shaped structure is embedded and fixed to the front of each cabinet body, with its front side on the same vertical plane as the front side of the cabinet body. Each second magnet strip with the same structure as the first magnet strip is embedded and fixed to the rear of each cabinet door, with its rear side on the same vertical plane as the rear side of the cabinet door.

[0009] Further explanation: It also includes push plates, partitions, and first springs. Each push plate slides inside the body of each drawer. Two partitions are fixed to the top of each push plate in a side-by-side arrangement and are located inside the corresponding drawer body. The upper part of each partition is designed with a wave-shaped structure with multiple closely distributed arc surfaces. The top of the arc surfaces is on the same horizontal plane as the top of the corresponding drawer body and contacts the bottom of the corresponding support plate. The front end of each partition is on the same vertical plane as the front end of the corresponding push plate, and the rear end is in front of the rear end of the corresponding push plate and maintains a certain distance from the rear inner side of the corresponding drawer body. This distance is greater than the distance between the rear end of the slider and the front end of the cabinet. Multiple first springs are evenly distributed in three rows and three columns as a group. One end of each group of first springs is fixed to the bottom of each push plate, and the other end is fixed to the inner bottom of the corresponding drawer body.

[0010] Further explanation: It also includes a locking block and a second spring. Multiple slots are evenly divided into two groups. Multiple slots in each group are equidistantly arranged in the manner of two vertical parallel lines and are opened inside each cabinet. Two locking blocks are slidably connected to the rear of each drawer body in a side-by-side layout. The number of locking blocks and slots are the same and they are engaged one-to-one. One end of each second spring is fixed to the inward end of each locking block, and the other end is fixed to the corresponding drawer body.

[0011] To further explain, it also includes label boxes, each of which is embedded and fixed to the top of each drawer body.

[0012] Beneficial effects: The multi-layered drawer structure provides ample storage space, and different types of information can be placed in different drawers, making it convenient for medical personnel to classify, store, and manage large amounts of information. At the same time, the addition of a locking component enables encryption and locking of the drawers. Only authorized medical personnel can open the drawers through fingerprint verification, effectively preventing the leakage and loss of information and ensuring the security of medical information.

[0013] By using the push plate, partition, and first spring in combination, the information can be smoothly pushed out of the drawer when the drawer is opened to retrieve information, making it easier for medical staff to view and retrieve the required information and improving operational efficiency.

[0014] The combined action of the locking block and the second spring can limit the position of the drawer body inside the cabinet, preventing the drawer body from accidentally sliding out of the cabinet after unlocking. Attached Figure Description

[0015] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0016] Figure 2 This is a three-dimensional structural diagram of the cabinet body, the first magnetic strip, and the fingerprint door lock controller of this utility model.

[0017] Figure 3 This is a three-dimensional structural diagram of the cabinet door and the second magnet strip component of this utility model.

[0018] Figure 4 This is a partial sectional view of the drawer body component of this utility model.

[0019] Figure 5 This is a three-dimensional structural diagram of the dual-axis motor, gears, and racks of this utility model.

[0020] Figure 6 This is a three-dimensional structural diagram of the connecting rod, clamping rod, and pressure sensor components of this utility model.

[0021] Figure 7 This is a three-dimensional structural diagram of the rack, connecting rod, and locking rod of this utility model.

[0022] Figure 8 This is a partial sectional view of the support base, cabinet body, and drawer body components of this utility model.

[0023] Figure 9 This utility model Figure 8 Enlarged diagram of point A in the middle.

[0024] Figure 10 This utility model Figure 8 Enlarged diagram of point B in the middle.

[0025] The markings in the attached diagram are as follows: 1. Support base; 11. Maintenance door; 12. First slide rail; 2. Cabinet body; 21. First magnet strip; 22. Support plate; 23. Slide rail; 24. Second slide rail; 3. Cabinet door; 31. Second magnet strip; 4. Fingerprint door lock controller; 5. Drawer body; 51. Label box; 52. Slider; 6. Push plate; 61. Partition; 62. First spring; 7. Dual-axis motor; 71. Gear; 72. Rack; 73. Connecting rod; 74. Locking rod; 75. Pressure sensor; 8. Locking slot; 81. Locking block; 82. Second spring. Detailed Implementation

[0026] The present invention will be further described below with reference to specific embodiments. The illustrative embodiments and descriptions of the present invention are used to explain the present invention, but are not intended to limit the present invention.

[0027] Example: A multi-layered drawer structure for encrypted medical information storage cabinet, such as... Figures 1-10 As shown, the system includes a support base 1, a maintenance door 11, a cabinet 2, support plates 22, slide rails 23, cabinet doors 3, drawer bodies 5, label boxes 51, and sliders 52. The support base 1 has a T-shaped structure with a rear opening for access. The maintenance door 11 is bolted to the rear of the support base 1 for easy access to its access space. Two cabinet bodies 2 are welded to the support base 1 in a side-by-side arrangement. Twelve support plates 22 are evenly divided into two groups, with six support plates 22 in each group arranged vertically and equidistantly, and welded to the interior of each cabinet body 2, dividing the interior of each cabinet body 2 into five storage spaces. Twenty slide rails 23 are evenly divided into two groups, with ten slide rails 23 in each group arranged equidistantly along two vertical parallel lines, and welded to the interior of each cabinet body 2. Each cabinet door 3 is rotatably connected to the front of each cabinet body 2 via a pivot, completely covering the surface of the cabinet body 2 from the front. Ten drawer bodies 5 are evenly divided into two... Each group comprises five drawer bodies 5 slidably positioned between support plates 22 and located inside the corresponding cabinet body 2, corresponding to five placement spaces inside the cabinet body 2. Each label box 51 is attached to the upper front side of each drawer body 5 by adhesive bonding, facilitating the placement of labels on each drawer body 5 for the classification and labeling of information inside the drawer body 5. Two sliders 52 are welded to the rear of each drawer body 5 in a side-by-side arrangement and slide in cooperation with the corresponding slide rails 23, allowing the drawer body 5 to move smoothly inside the cabinet body 2 through the sliding relationship between the sliders 52 and the slide rails 23. The front and rear ends of each slide rail 23 are closed to prevent the sliders 52 from disengaging during sliding, ensuring that the drawer body 5 remains stable when pulled out and will not come out of the cabinet body 2. A locking component is also included to lock the position of the drawer body 5, which is located between the support base 1, the cabinet door 3, and the drawer body 5.

[0028] like Figure 1 , Figure 2 and Figures 5-9As shown, the locking assembly includes a fingerprint door lock controller 4, a dual-axis motor 7, a gear 71, a rack 72, a connecting rod 73, a locking lever 74, and a pressure sensor 75. Two first sliding grooves 12 are arranged laterally in the inner rear part of the support base 1 and directly connect to the receiving space of the support base 1. Each second sliding groove 24 is opened in the rear part of each cabinet 2. The fingerprint door lock controller 4 is connected to the upper front side of the support base 1 by bolts, and a fingerprint recognition module is provided in its lower right corner. The dual-axis motor 7 is connected to the receiving space by bolts. The upper inner part of the fingerprint door lock has two output shafts facing left and right respectively. The fingerprint door lock controller 4 is electrically connected to the dual-axis motor 7. Each gear 71 is connected to each output shaft of the dual-axis motor 7 via a key connection. The ten locking levers 74 are evenly divided into two groups, with five locking levers 74 in each group spaced apart by a vertical line. They are slidably connected between each first slide groove 12 and each second slide groove 24, and each locking lever 74 passes through the corresponding slide rail 23 and engages with the corresponding slider 52, so that the slider 52 is locked on the slide rail 23. The drawer body 5 is indirectly locked in position, and the top of the latch 74 is designed with a beveled structure, making its top diameter smaller than the body diameter, ensuring that the latch 74 can smoothly engage with the slider 52. Each connecting rod 73 is welded to the lower end of each set of latches 74 and is located inside the receiving space. Each rack 72 is welded to the upper end of each connecting rod 73 and is located directly in front of the corresponding gear 71, meshing with it. Two pressure sensors 75 are arranged vertically and connected to the inside of the receiving space by bolts. The pressure sensors 75 respectively contact the inner top and bottom of the receiving space, with the upper pressure sensor 75 located above and in contact with the connecting rod 73, and the lower pressure sensor 75 located below the connecting rod 73. The distance between the bottom of the connecting rod 73 and the top of the lower pressure sensor 75 is equal to the distance between the top of the latch 74 and the bottom of the corresponding slide rail 23, ensuring that when the latch 74 is completely disengaged from the slide rail 23, the connecting rod 73 just contacts the lower pressure sensor 75. Both pressure sensors 75 are electrically connected to the fingerprint door lock controller 4.

[0029] like Figure 2 and Figure 3 As shown, it also includes a first magnet strip 21 and a second magnet strip 31. Each first magnet strip 21 with an L-shaped structure is connected to the front of each cabinet body 2 by adhesive bonding, and its front side is on the same vertical plane as the front side of the cabinet body 2. Each second magnet strip 31 with the same structure as the first magnet strip 21 is connected to the rear of each cabinet door 3 by adhesive bonding, and its rear side is on the same vertical plane as the rear side of the cabinet door 3, ensuring that the second magnet strip 31 can closely contact and adhere to the first magnet strip 21, so as to achieve a stable closure and seal between the cabinet door 3 and the cabinet body 2.

[0030] like Figure 4As shown, it also includes a push plate 6, a partition 61, and a first spring 62. Each push plate 6 is slidably placed inside each drawer body 5. Two partitions 61 are welded to the top of each push plate 6 in a side-by-side arrangement and are located inside the corresponding drawer body 5, thereby dividing the interior of the drawer body 5 into three storage areas for easy classification and storage of information. The upper part of each partition 61 is designed with a wave-shaped structure, with multiple closely distributed arc surfaces. The top of the arc surfaces is kept at the same level as the top of the corresponding drawer body 5 and contacts the bottom of the corresponding support plate 22. The frontmost edge of each partition 61 is in contact with the frontmost edge of the corresponding push plate 6. The front end remains on the same vertical plane, while the rear end is ahead of the rear end of the corresponding push plate 6 and maintains a certain distance from the rear inner side of the corresponding drawer body 5. This distance is greater than the distance between the rear end of the slider 52 and the front end of the cabinet 2, ensuring that when the drawer body 5 is pulled forward, the rear end of the partition 61 is completely offset from the front end of the cabinet 2. Nine first springs 62 are evenly distributed in three rows and three columns as a group. The upper end of each group of first springs 62 is connected to the bottom end of each push plate 6 by welding, and the lower end is connected to the inner bottom end of the corresponding drawer body 5 by welding, so that a tight sliding connection is established between the push plate 6 and the drawer body 5.

[0031] like Figure 10 As shown, it also includes a locking block 81 and a second spring 82. Twenty slots 8 are evenly divided into two groups. Ten slots 8 in each group are equidistantly arranged in the manner of two vertical parallel lines and are opened inside each cabinet body 2. Two locking blocks 81 are slidably connected to the rear of each drawer body 5 in a side-by-side arrangement. The number of locking blocks 81 and slots 8 is the same, and they are engaged one-to-one. This allows the drawer body 5 to be limited inside the cabinet body 2 by the engagement relationship between the locking blocks 81 and slots 8. The end of the locking block 81 that engages with the slot 8 is designed as a hemispherical arc structure. When the locking block 81 slides and engages with the slot 8, the hemispherical arc structure fits tightly with the edge of the slot 8 and partially overlaps, reducing the frictional resistance during the sliding process and ensuring that the locking block 81 can enter and lock more smoothly in the slot 8, preventing jamming. The outer end of each second spring 82 is connected to the inward end of each locking block 81 by welding, and the inner end is connected to the corresponding drawer body 5 by welding.

[0032] Initially, the first spring 62 is in a compressed state, the latch 74 and the slider 52 are in a latching state, locking the position of the drawer body 5, and the latch block 81 and the slot 8 are in a latching state, limiting the position of the drawer body 5 and ensuring that the drawer body 5 is stably placed inside the cabinet 2. Medical staff first register their fingerprints through the fingerprint door lock controller 4 to establish personal identity verification information. When it is necessary to store information, they unlock the fingerprint door lock controller 4 through fingerprint verification. After successful verification, the fingerprint door lock controller 4 starts the dual-axis motor 7, whose output shaft drives the gear 71 to rotate clockwise. The gear 71 meshes with the rack 72 in the forward direction, driving the rack 72 to move the connecting rod 73 downward. The locking lever 74 moves downward with the connecting rod 73, gradually disengaging from the slide rail 23 and the slider 52. When the connecting rod 73 moves to the appropriate position, so that the locking lever 74 is completely disengaged from the slide rail 23 and the slider 52, the connecting rod 73 just contacts the lower pressure sensor 75. The lower pressure sensor 75 senses the pressure change and transmits the signal to the fingerprint door lock controller 4. After receiving the signal, the fingerprint door lock controller 4 immediately controls the dual-axis motor 7 to close, thereby unlocking the drawer body 5. Then, rotate cabinet door 3 forward to open cabinet body 2, causing the second magnet strip 31 to disengage from the first magnet strip 21, releasing the fixed state of cabinet door 3. Next, pull drawer body 5 forward. During this process, the locking block 81 moves forward with drawer body 5, exiting the locking slot 8, and slides into drawer body 5 under the pressure of the inner wall of cabinet body 2, compressing the second spring 82. When drawer body 5 is fully pulled out, partition 61 is offset from cabinet body 2, the first spring 62 returns to its original state, pushing push plate 6 to move partition 61 upward. Then, place information documents into drawer body 5. After contacting the push plate 6 and placing it in place, put the label with relevant information into the label box 51 for easy retrieval of information later. Then push the partition 61 down to retract the push plate 6 into the drawer body 5 and compress the first spring 62. Push the drawer body 5 back again. During this process, the locking block 81 moves back with the drawer body 5 to align with the locking slot 8. The second spring 82 returns to its original state, pushing the locking block 81 out of the drawer body 5 and locking it into the locking slot 8, limiting the position of the drawer body 5 and preventing the drawer body 5 from sliding out of the cabinet 2. Finally, rotate the cabinet door 3 backward to close the cabinet body 2, causing the second magnet strip 31 to attract the first magnet strip 21, fixing the position of the cabinet door 3 and preventing it from opening arbitrarily. Then, restart the dual-axis motor 7, controlling its output shaft to drive the gear 71 to rotate counterclockwise. The gear 71 meshes with the rack 72 in the opposite direction, driving the rack 72 to move the connecting rod 73 upward. The locking rod 74 moves upward with the connecting rod 73, gradually approaching the slide rail 23 and the slider 52. When the connecting rod 73 moves to the appropriate position, and the locking rod 74 and the slider 52 return to the locked state, the connecting rod 73 just contacts the upper pressure sensor 75. The upper pressure sensor 75 senses the pressure change and transmits the signal to the fingerprint door lock controller 4. After receiving the signal, the fingerprint door lock controller 4 immediately controls the dual-axis motor 7 to close, thus completing the locking operation of the drawer body 5.

[0033] When the drawer body 5 is pulled out again to look for information, the push plate 6 moves smoothly upward under the elastic force generated by the first spring 62 returning to its original state, slowly pushing the information out of the drawer body 5, making it convenient for medical staff to quickly find the information they need.

[0034] It should be understood that the above description is for illustrative purposes only and is not intended to limit the present invention. Those skilled in the art will understand that variations of the present invention will be included within the scope of the claims herein.

Claims

1. A multi-layer drawer structure medical information encryption storage cabinet, comprising a support base (1), a maintenance door (11), a cabinet body (2), support plates (22), slide rails (23), cabinet doors (3), drawer bodies (5), and sliders (52). The support base (1) is a T-shaped structure with a rear accommodating space. The maintenance door (11) is installed at the rear of the support base (1). Two cabinet bodies (2) are fixed to the support base (1) in a side-by-side arrangement. Multiple support plates (22) are evenly divided into two groups. Each group of support plates (22) is arranged vertically and at equal intervals and fixed inside each cabinet body (2), dividing the interior of the cabinet body (2) into multiple storage spaces. Multiple slide rails (23) The slide rails (23) are evenly divided into two groups. Each group of slide rails (23) are arranged equidistantly with two vertical parallel lines and are fixedly embedded inside each cabinet (2). Each cabinet door (3) is rotatably connected to the front of each cabinet (2) via a pivot and completely covers the surface of the cabinet (2) from the front. Multiple drawer bodies (5) are evenly divided into two groups. Each group of drawer bodies (5) is slidably placed between each group of support plates (22) and located inside the corresponding cabinet (2), corresponding to multiple placement spaces inside the cabinet (2). Two sliders (52) are fixedly attached to the rear of each drawer body (5) in a side-by-side arrangement and slide in cooperation with the corresponding slide rails (23). Its characteristics are: It also includes a locking component for locking the position of the drawer body (5), which is located between the support base (1), the cabinet door (3) and the drawer body (5).

2. The medical information encrypted storage cabinet with a multi-layer drawer structure according to claim 1, characterized in that: The locking assembly includes a fingerprint door lock controller (4), a dual-axis motor (7), gears (71), racks (72), connecting rods (73), locking levers (74), and a pressure sensor (75). Two first slides (12) are arranged horizontally in the inner rear part of the support base (1) and directly connect to the receiving space of the support base (1). Each second slide (24) is opened in the rear part of each cabinet (2). The fingerprint door lock controller (4) is installed on the upper part of the support base (1) and has a fingerprint recognition module. The dual-axis motor (7) is installed in the upper inner part of the receiving space, with its two output shafts facing left and right respectively. The fingerprint door lock controller (4) is electrically connected to the dual-axis motor (7). Each gear (71) is fixed to each output shaft of the dual-axis motor (7). Multiple locking levers (74) are evenly divided into two groups, with each group of locking levers (74) spaced apart by a vertical line and slidably connected to each first slide (12) and each second slide (75). Between the two slides (24), each lever (74) passes through the corresponding slide rail (23) and engages with the corresponding slider (52). Each connecting rod (73) is fixed between one end of each set of levers (74) and located inside the receiving space. Each rack (72) is fixed at the upper end of each connecting rod (73) and located in front of the corresponding gear (71) and meshes with it. Two pressure sensors (75) are installed in the receiving space in a vertical arrangement and contact the inner top and inner bottom of the receiving space respectively. One pressure sensor (75) is located above the connecting rod (73) and contacts it, while the other pressure sensor (75) is located below the connecting rod (73). The distance between the bottom end of the connecting rod (73) and the top end of the other pressure sensor (75) is equal to the distance between the top end of the lever (74) and the bottom end of the corresponding slide rail (23). Both pressure sensors (75) are electrically connected to the fingerprint door lock controller (4).

3. The medical information encrypted storage cabinet with a multi-layer drawer structure according to claim 2, characterized in that: It also includes a first magnet strip (21) and a second magnet strip (31). Each first magnet strip (21) of the L-shaped structure is embedded and fixed to the front of each cabinet (2), with its front side on the same vertical plane as the front side of the cabinet (2). Each second magnet strip (31) with the same structure as the first magnet strip (21) is embedded and fixed to the rear of each cabinet door (3), with its rear side on the same vertical plane as the rear side of the cabinet door (3).

4. The medical information encryption storage cabinet with a multi-layer drawer structure according to claim 3, characterized in that: It also includes push plates (6), dividers (61), and a first spring (62). Each push plate (6) is slidably placed inside each drawer body (5). Two dividers (61) are fixed to the top of each push plate (6) in a side-by-side arrangement and are located inside the corresponding drawer body (5). The upper part of each divider (61) is designed with a wave-shaped structure, with multiple closely distributed arc surfaces. The top of the arc surface is kept on the same horizontal plane as the top of the corresponding drawer body (5) and forms contact with the bottom of the corresponding support plate (22). Furthermore, the front end of each partition (61) is on the same vertical plane as the front end of the corresponding push plate (6), and the rear end is in front of the rear end of the corresponding push plate (6) and maintains a certain distance from the rear inner side of the corresponding drawer body (5). This distance is greater than the distance between the rear end of the slider (52) and the front end of the cabinet (2). Multiple first springs (62) are evenly distributed in three rows and three columns as a group. One end of each group of first springs (62) is fixed to the bottom end of each push plate (6), and the other end is fixed to the inner bottom end of the corresponding drawer body (5).

5. A multi-layer drawer structure medical information encryption storage cabinet according to claim 4, characterized in that: It also includes a locking block (81) and a second spring (82). Multiple slots (8) are evenly divided into two groups. Multiple slots (8) in each group are equidistantly arranged in the manner of two vertical parallel lines and opened inside each cabinet (2). Two locking blocks (81) are slidably connected to the rear of each drawer body (5) in a side-by-side layout. The number of locking blocks (81) and slots (8) is the same, and they are locked together one by one. One end of each second spring (82) is fixed to the inward end of each locking block (81), and the other end is fixed to the corresponding drawer body (5).

6. A multi-layer drawer structure medical information encryption storage cabinet according to claim 5, characterized in that: It also includes label boxes (51), each label box (51) being embedded and fixed to the upper part of each drawer body (5).

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