Extraction operation room and intelligent sample storage and extraction system

The multi-stage Z-direction take-out arm and X-direction pushing system improve biological sample storage efficiency by reducing space, enhancing sealing and heat retention, and enabling industrialized management with a maintained cold chain.

JP7804096B2Active Publication Date: 2026-01-21SHANGHAI ORIGINCELL BIOLOGICAL CRYO EQUIP CO LTD
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Patent Information

Application Number
JP2024554204
Authority / Receiving Office
JP · JP
Patent Type
Patents
Current Assignee / Owner
Priority Date
2022-05-10
Filing Date
2023-04-03
Publication Date
2026-01-21
Estimated Expiration
2043-04-03

AI Technical Summary

Technical Problem

Conventional biological sample storage systems occupy large spaces, have poor sealing and heat retention, and are inconvenient for transferring and retrieving samples, making it difficult to maintain a cold chain throughout the process and achieve industrial line-like operational management.

Method used

A multi-stage Z-direction take-out arm and X-direction pushing system are employed, allowing for multi-section movement in the Z-axis and X-axis directions, respectively, with integrated mechanisms for lid and storage box handling, ensuring efficient sample retrieval and storage while maintaining a cold chain.

Benefits of technology

The system reduces space occupation, lowers costs, enhances sealing and heat retention, and facilitates efficient, intelligent sample management, enabling an industrialized storage and retrieval line with a consistent cold chain.

✦ Generated by Eureka AI based on patent content.

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Abstract

A take-out operation room is provided. In the take-out operation room, a multi-stage Z-direction take-out arm (11) and an X-direction push system (12) are provided, and the multi-stage Z-direction take-out arm realizes the movement of multiple sections in the Z-axis direction, thereby realizing the movement of the take-out member in the Z-axis direction, and the depth or length of the movement in the Z-axis is greatly improved. A corresponding X-direction push system is also provided, and the X-direction push system realizes the movement of the cover or storage box of the sample storage tank in the X-axis direction. The operation space is provided in both the Z-axis and X-axis directions, and the take-out structure is rationally designed, occupies little space, is low in cost, is intelligent and easy to operate, and has high sealing and heat preservation properties. In addition, an intelligent sample storage and take-out system is provided, which ensures the use of cold chain throughout the process, and realizes the connection of multiple devices in sample storage and take-out to form an industrialized storage and take-out line, thereby greatly improving the efficiency of sample storage and take-out and facilitating the management of the industrialized storage and take-out line.
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Description

[Technical Field]

[0001] The present invention relates to the field of biological sample storage, and more particularly to the retrieval and storage of biological samples, and more particularly to a retrieval chamber and an intelligent sample storage and retrieval system. [Background technology]

[0002] In the prior art, the efficiency of biological sample transportation and transfer is too low to ensure the use of a cold chain throughout the sample storage and retrieval process. The structural design of conventional biological sample storage equipment occupies a large space, and when storing samples in multiple sample storage tanks, it is inconvenient to transfer, store, and retrieve samples, making it impossible to ensure the use of a cold chain throughout the process. Furthermore, it is difficult to achieve operational management similar to that of an industrial line. Summary of the Invention [Problem to be solved by the invention]

[0003] The first objective of the present invention is to provide an extraction operation room to solve the problems of the prior art, such as the inappropriate mechanical design of the lid and storage box of the extraction sample storage tank, which occupies a large space and has poor sealing and heat retention.

[0004] The second object of the present invention is to provide an intelligent sample storage and retrieval system to solve the problems of the prior art, namely, that the sample storage and retrieval system is not flexible, and in the case of multiple sample storage tanks, it is inconvenient to connect, move, store and retrieve samples, and it is not possible to ensure the use of a cold chain throughout the process, and it is not possible to achieve operational management like an industrial line. [Means for solving the problem]

[0005] In order to solve the technical problem, the present invention adopts the following technical solution: a take-out operation room, comprising a multi-stage Z-direction take-out arm and an X-direction pushing system, the multi-stage Z-direction take-out arm being an arm that can move in multiple sections in the Z-axis direction, the multi-stage Z-direction take-out arm being provided with a take-out member, the multi-stage Z-direction take-out arm being able to move the take-out member in the Z-axis direction; The X-direction pushing system is provided at a position corresponding to the removal member, and the X-direction pushing system can push the lid or storage box of the sample storage tank removed by the removal member to a predetermined position.

[0006] Preferably, the multi-stage Z-direction take-out arm includes a first Z-direction take-out arm, a second Z-direction take-out arm, and a lateral drive receiving arm, wherein the lateral drive receiving arm is provided on the first Z-direction take-out arm and can move the lateral drive receiving arm in the Z-axis direction; the second Z-direction take-out arm is provided on the lateral drive receiving arm and can move the second Z-direction take-out arm laterally in the X-direction; and the take-out member is provided on the second Z-direction take-out arm and can move the take-out member up and down in the Z-axis direction.

[0007] Preferably, the first Z-direction fetch arm includes a Z-direction driving sub-electric cylinder A, a Z-direction driving sub-electric cylinder B, a Z-direction rail A, and a Z-direction rail B, the lateral driving receiving arm includes a driving rail C and a driving electric cylinder C, the Z-direction rail A and the Z-direction rail B are fixed vertically and symmetrically in the Z-axis direction within the fetch operation chamber, both ends of the driving rail C are slidably mounted on the Z-direction rail A and the Z-direction rail B, respectively, the Z-direction driving sub-electric cylinder A and the Z-direction driving sub-electric cylinder B drive both ends of the driving rail C to move it up and down, the second Z-direction fetch arm is slidably mounted on the driving rail C, the driving electric cylinder C drives the second Z-direction fetch arm, the second Z-direction fetch arm includes a Z-direction driving electric cylinder D, and the Z-direction driving electric cylinder D is provided with a lifter that is driven to move up and down.

[0008] Preferably, the X-direction push system includes an X-direction push member and a lid storage area, the X-direction push member and the lid storage area being arranged opposite each other, and the X-direction push member can push the lid or storage box removed by the removal member into the lid storage area or a predetermined position.

[0009] Preferably, the X-direction pushing system includes an X-direction pushing member and a lid storage area, the X-direction pushing member and the lid storage area being respectively disposed on both sides of the multi-stage Z-direction retrieval arm in the X-axis direction, the X-direction pushing member being able to push the lid or storage box retrieved by the retrieval member into the lid storage area or a predetermined position, the X-direction pushing member including a push base holder, a push drive motor, an X-axis moving push plate and a push guide rod, the push base holder being fixed to an underside of one side of the multi-stage Z-direction retrieval arm, the push drive motor and the push guide rod being fixed to the push base holder, the X-axis moving push plate being driven by the push drive motor to move along the push guide rod, the X-axis moving push plate being able to move and extend from one side of the multi-stage Z-direction retrieval arm to the other, and a receiving storage opening being provided near the lid storage area on the side of the lid storage area close to the X-axis moving push plate.

[0010] Preferably, the device further includes a Y-direction receiving system, which is capable of receiving the storage box and transporting the storage box to a corresponding position on the X-direction pushing system.

[0011] Preferably, the Y-direction receiving system includes a Y-direction rail, a Y-direction moving tray, and a box storage receiving channel, the Y-direction rail extending in the Y-axis direction and arranged below the push base holder, the box storage receiving channel being slidably arranged on the Y-direction rail, the box storage receiving channel having a predetermined length in the X-axis direction, and the Y-direction moving tray being slidably arranged on the box storage receiving channel in the X-axis direction.

[0012] Preferably, the Y-direction receiving system further includes a box storage push member, which is provided at a position corresponding to the box storage receiving channel and can push the Y-direction moving tray in the box storage receiving channel.

[0013] Preferably, the box preservation push member includes a box preservation push drive motor and a box preservation push plate, the box preservation push drive motor is provided on a lower end surface of the push base holder, the box preservation push plate is slidably provided on the lower end surface of the push base holder, and the box preservation push drive motor drives the box preservation push plate to extend and retract in the X-axis direction.

[0014] Preferably, the box storage push plate includes a first box storage push sub-plate, a second box storage push sub-plate, and a box storage push head, the upper end surface of the first box storage push sub-plate is slidably mounted on the lower end surface of the push base holder, one end of the first box storage push sub-plate and one end of the second box storage push sub-plate are fixed at a right angle, the other end of the second box storage push sub-plate and the box storage push head are fixed at a right angle, and the box storage push plate is in an inverted "Z" shape.

[0015] Preferably, the Y-direction receiving system includes a Y-direction drive motor, a Y-direction rotation shaft screw, and a box storage receiving channel receiving nut, wherein the Y-direction drive motor rotatably drives one end of the Y-direction rotation shaft screw, and the other end of the Y-direction rotation shaft screw is rotatably mounted on an end of the Y-direction rail away from the push base holder; The box storage receiving channel receiving nut is fixed to one end of the box storage receiving channel, and the Y-direction rotating shaft screw is engaged with the box storage receiving channel receiving nut; The Y-direction drive motor is drivably installed below the connection point between the first box storage push sub-plate and the second box storage push sub-plate, and the box storage receiving channel can be moved to a position corresponding to the box storage push head.

[0016] Preferably, the Y-direction receiving system further includes a cryostat, the cryostat being disposed below the box storage receiving channel or fixed to a lower end surface of the box storage receiving channel; The cryostat has an internal cavity, and a plurality of nitrogen inlet holes communicating with the cavity are provided in the upper end surface of the cryostat, and the cavity of the cryostat communicates with a nitrogen supply tube.

[0017] Preferably, the cryostat is box-shaped, cylindrical, or hemispherical.

[0018] Preferably, the lid storage area includes a lid storage case and a lid storage drive member, a receiving storage opening is opened on a side of the lid storage case close to the X-direction push member, and a lid removal opening is opened on an end face of the lid storage case close to the removal member, The lid storage drive member can move the lid storage case in the X-axis direction.

[0019] Preferably, the lid storage drive member includes a storage drive base, a storage drive rail, and a storage drive rack; The storage drive base is fixed in the removal operation chamber and is located below the other side of the multi-stage Z-direction removal arm, the storage drive rail is provided on the storage drive base, and the storage drive rack has one end slidably mounted on the storage drive rail and the other end fixed to the lid storage case.

[0020] Preferably, the storage drive base is provided above the lid storage case, and a first storage sub-drive rail and a second storage sub-drive rail are symmetrically provided on both sides of an upper end surface of the storage drive base, On the upper end surface of the storage drive base, two rows of driving direction channels in the X-axis direction are provided on both sides outside the first storage sub-drive rail and the second storage sub-drive rail; the storage drive rack includes a storage drive sliding plate, a storage drive first clamping plate, and a storage drive second clamping plate, the storage drive sliding plate being slidably mounted on the first storage sub-drive rail and the second storage sub-drive rail; The upper end of the storage drive first clamping plate is fixed vertically to one side of the storage drive sliding plate, and the lower end of the storage drive first clamping plate passes through the drive direction channel on one side and is fixed to the lid storage case; The upper end of the second clamping plate for storage drive is fixed vertically to the other side of the sliding plate for storage drive, and the lower end of the second clamping plate for storage drive passes through the driving direction channel on the other side and is fixed to the lid storage case.

[0021] Preferably, the storage box further includes a storage box return member, the storage box return member being arranged at a position opposite the box storage push plate, the storage box return member including a return push plate, and the return push plate being extendable and retractable along the X axis.

[0022] Preferably, the storage box returning member includes a returning member base plate and a returning member drive motor, The return member base plate is provided below the lid storage case at a position opposite the box storage push member, the return push plate is driven by a return member drive motor and is slidably provided on the return member base plate, and a return section is provided on the side of the return push plate closer to the box storage push head.

[0023] Preferably, the take-out member is provided with a positive electromagnetic member, the lid upper end surface is provided with a negative magnetic member, and the basket upper end surface is provided with a negative magnetic member.

[0024] Preferably, the multi-stage Z-direction take-out arm further includes an X-arm, the X-arm being provided on the second Z-direction take-out arm, and the second Z-direction take-out arm being capable of raising and lowering the X-arm along the Z-axis, the take-out member being provided on the X-arm, and the X-arm being capable of moving the take-out member along the X-axis; The lower end of the removal member is provided with a removal handle extending on both sides, and the upper end surface of the lid is provided with a receiving groove that receives the removal handle in the X-axis direction and limits removal from the receiving groove in the Z-axis direction.

[0025] Preferably, the apparatus includes a transfer interface member, the above-mentioned unloading chamber, and a sample storage tank; the take-out operation chamber is provided in a sealed manner at the upper end of the sample storage tank, and a seal joint port is provided in the take-out operation chamber; The transfer joint member is provided on one side of the outside of the sample storage tank, and the transfer joint member can receive a transfer box and drive the transfer box to join the opening of the transfer box to the seal joint port.

[0026] Preferably, the transfer joint member includes a moving rail, a moving trolley, and a joint drive member, the moving rail being provided on one side of the outside of the sample storage tank, the moving trolley being provided on the moving rail, the moving trolley being able to move the transfer box along the moving rail, and the joint drive member being able to drive the transfer box to seal and join the opening of the transfer box to the sealing joint port.

[0027] Preferably, the moving rail is C-shaped, U-shaped or concave-shaped.

[0028] Preferably, the joining drive member includes a joining drive motor, a joining vertical rail, and a joining lifting frame, and the joining drive motor drives the joining lifting frame to lift and lower it along the joining vertical rail; The moving rail is provided on the upper end of the connecting vertical rail, and both of them are provided in a T-shape or an inverted L-shape, and one end of the moving rail passes through the connecting lifting frame; The upper end of the joining lifting frame is two free ends that are not continuous, and a lifting support plate is provided at each of the two free ends, and a lifting support plate is provided between the two lifting support plates, and the transport box can be placed or installed on the lifting support plate.

[0029] Preferably, the moving trolley includes a trolley base, a trolley battery, and an electrical connection board; a trolley slide slot is provided on the lower end surface of the trolley base, the trolley slide slot is slidably mounted on the moving rail, a trolley battery is provided on the lower end of the trolley base, and the trolley battery is electrically connected to an electrical connection board; A power contact plate is provided on the moving rail at a position below the trolley base corresponding to the electrical connection board.

[0030] Preferably, the moving trolley further includes a distance measuring sensor, a single-chip computer, a trolley motor, and a trolley wheel, and the distance measuring sensor is provided on a lower end surface of the trolley base; The single-chip computer is electrically connected to a distance sensor and a trolley motor, respectively, and the trolley motor drives the trolley wheels to move along the moving rail.

[0031] Preferably, the moving rail includes a first sub-rail, a second sub-rail, and a moving car support plate, the first sub-rail and the second sub-rail are symmetrically provided on the upper end surfaces of both sides of the moving car support plate, and two sets of trolley slide slots are provided on both sides of the lower end surface of the trolley base, and the two sets of trolley slide slots are slidably provided on the first sub-rail and the second sub-rail, respectively; the power contact plate is provided on the carriage support plate; The car support plate is provided with a wheel mat, and the trolley wheels move on the wheel mat.

[0032] Preferably, a trolley positioning pillar is provided on the upper end surface of the trolley base of the moving trolley, and a positioning hole corresponding to the trolley positioning pillar is provided on the lifting support plate.

[0033] Preferably, the removal operation chamber further includes a lid-opening mechanism, which is provided at a position opposite the seal joint port, and which is capable of opening the lid of the transfer box at the opening of the transfer box where the seal joint port is joined.

[0034] Preferably, the lid-opening mechanism includes a lid-opening fixed base, a lid-opening drive member, a lid-opening large-diameter rod, a lid-opening small-diameter rod, and a lid-opening disk, The lid-opening fixed base is fixed within the removal operation chamber, the lid-opening drive member is provided on the lid-opening fixed base, one end of the lid-opening large diameter rod is rotatably provided on the lid-opening fixed base, one end of the lid-opening small diameter rod is rotatably provided on the other end of the lid-opening large diameter rod, a lid-opening disk is fixed to the other end of the lid-opening small diameter rod, and the lid-opening drive member drives and rotates the lid-opening small diameter rod.

[0035] Preferably, the opening disk includes a main body disk, an opening positioning rod, and an opening electromagnetic member; The opening body disk is fixed to the other end of the opening small diameter rod, and the opening body disk is provided with an opening positioning rod and an opening electromagnetic positive member; The box lid of the transport box is provided with a transport box positioning hole, the open-lid positioning rod can be inserted into the transport box positioning hole, and the box lid of the transport box is provided with an electromagnetically negative member of the transport box lid, and the open-lid electromagnetically positive member and the transport box lid electromagnetically negative member can attract each other.

[0036] Preferably, the cover-opening drive member includes a cover-opening drive motor, a cover-opening drive guide rail, and a cover-opening drive slide base; The lid-opening drive motor drives the lid-opening drive slide base to raise and lower it on the lid-opening drive guide rail, and a lid-opening rotation shaft extends outward from the lid-opening drive slide base, one end of which is fixed to the lid-opening drive slide base, and the other end of which is rotatably or fixedly attached to the lid-opening small diameter rod.

[0037] Preferably, the sample storage tank includes a sample tank body, a built-in liquid nitrogen tank, a rotating disk, a sample storage rotating shaft member, a sample storage motor, a basket, and a lid; A lid is provided on the upper end surface of the sample tank body, The built-in liquid nitrogen tank is provided in the sample tank body, and an adapter slot is provided on the upper end surface of the built-in liquid nitrogen tank; the sample storage motor rotates the sample storage rotating shaft member, a lower end of the sample storage rotating shaft member is rotatably mounted in the adapter slot, a rotating disk is fixedly mounted on an outer periphery of the sample storage rotating shaft member, and the basket is mounted on the rotating disk; The sample storage rotating shaft member includes a central rotating shaft and a receiving rotating shaft, the sample storage motor drives the central rotating shaft, a nitrogen-filled cavity is provided inside the central rotating shaft, the lower end of the central rotating shaft is coaxially connected to the receiving rotating shaft, and the lower end of the receiving rotating shaft is rotatably mounted in the adapter slot.

[0038] Preferably, a heat insulating layer is provided inside the tank wall of the sample tank body.

[0039] Preferably, a defrosting mechanism and a code scanning identification device are further provided in the removal operation chamber, the defrosting mechanism being provided near the seal joint port, and the code scanning identification device being provided at a position close to the defrosting mechanism.

[0040] Preferably, the unloading operation chamber is further provided with an observation window and a removable operation door. [Effects of the Invention]

[0041] The first beneficial effect of the present invention is as follows: The removal operation chamber is provided with a multi-stage Z-direction removal arm and an X-direction pushing system. The multi-stage Z-direction removal arm realizes multi-section movement in the Z-axis direction, thereby realizing multi-section movement of the removal member in the Z-axis direction and significantly improving the depth or length of movement in the Z-axis. A corresponding X-direction pushing system is also provided, which realizes movement of the sample storage tank lid or storage box in the X-axis direction. Operation space is provided in both the Z-axis and X-axis directions, and the removal structure has a reasonable design, small occupied space, low cost, intelligent and easy operation, and high sealing and heat retention properties.

[0042] The second beneficial effect of the present invention is as follows: In the intelligent sample storage and retrieval system, the use of the cold chain throughout the process is ensured, and the connection of multiple devices in sample storage and retrieval can be realized to form an industrialized storage and retrieval line, which greatly improves the efficiency of sample storage and retrieval and facilitates the management of the industrialized storage and retrieval line. [Brief explanation of the drawings]

[0043] [Figure 1] FIG. 1 is a structural schematic diagram of a multi-stage Z-direction take-out arm. [Figure 2] 1 is an enlarged view of the X-direction push system and box storage push member (partial enlargement of FIG. 1). [Figure 3] 1 is a structural schematic diagram of an intelligent sample storage and retrieval system. [Figure 4] FIG. 4 is a cross-sectional view of half of FIG. [Figure 5] FIG. 2 is a structural schematic diagram of a transfer joining member. [Figure 6] FIG. 2 is a structural schematic diagram of a moving trolley. [Figure 7] FIG. 1 is a structural schematic diagram of a moving trolley on a moving rail. [Figure 8] FIG. 2 is a structural schematic diagram of a lid-opening mechanism. [Figure 9] FIG. 1 is a schematic diagram of half of the sample storage tank. [Figure 10] FIG. 10 is a structural schematic diagram of the multi-stage Z-direction take-out arm and lid storage area. [Figure 11] Schematic diagram of the structure of the removal handle and receiving groove. DETAILED DESCRIPTION OF THE INVENTION

[0044] The technical solution of the present invention will be further explained below with reference to the examples and drawings.

[0045] After removal, the biological samples are stored in biological sample cryotubes. Multiple biological sample cryotubes are stored together in a storage box 1000, and the multiple storage boxes 1000 are stored in a sample storage tank 2000 for low temperature storage. A basket 3000 is provided in the sample storage tank 2000, and the multiple storage boxes 1000 are stored in the basket 3000, making storage and removal easy. The conventional low-temperature environment of the sample storage tank 2000 is provided by a nitrogen supply, i.e., a liquid nitrogen tank. To remove the biological sample cryotubes from the sample storage tank 2000, first open the lid 4000 of the sample storage tank 2000, remove the storage box 1000 from the basket, place the storage box 1000 in a transport box 701, and transport the sample using the transport box 701. Note that the sealing performance of the lid 4000 is important, and a lid-opening mechanism for removal may be provided to ensure a low-temperature environment within the sample storage tank 2000. Next, the sample storage tank is opened to remove the basket 3000, and the target cryotube is removed from the basket 3000. Of course, the storage and removal process is different from the above process, and will not be described in detail here.

[0046] Example 1 In the above operation process, the present invention discloses an unloading operation chamber 1 that can unload the sample storage tank 2000 in a sealed low-temperature environment, open the cover 4000, and then unload the cryotube from the basket 3000. This provides operation space in both the Z-axis and X-axis directions, and the unloading structure has a reasonable design, occupies little space, is low-cost, is intelligent and easy to operate, and has high sealing and heat retention properties.

[0047] This embodiment provides a removal operation room, which includes a multi-stage Z-direction removal arm 11 and an X-direction push system 12. The multi-stage Z-direction removal arm 11 is an arm that allows movement over multiple sections in the Z-axis direction. The multi-stage Z-direction removal arm 11 is provided with a removal member 111, which can move the removal member 111 in the Z-axis direction. The X-direction push system 12 is provided at a position corresponding to the removal member 111, and the X-direction push system 12 can push the lid 4000 or storage box 1000 of the sample storage tank 2000 removed by the removal member 111 to a predetermined position.

[0048] The multi-stage Z-direction take-out arm 11 (in this embodiment, the Z direction is the vertical direction, and the same will not be described in detail below) disclosed in this invention may be a Z-direction manipulator or a Z-direction drive arm, and is not limited thereto. Arms that realize multi-section and multi-distance movement are within the scope of protection of this invention. The cooperation of the multi-stage Z-direction take-out arm 11 and the X-direction push system 12 greatly reduces the occupied space, is low cost, is intelligent and easy to operate, and has high sealing and heat retention. In the prior art, three-axis manipulators are often designed, which not only occupy a large space but also have poor sealing and heat retention.

[0049] In this embodiment, as a preferred embodiment of the multi-stage Z-direction take-out arm 11, the multi-stage Z-direction take-out arm 11 includes a first Z-direction take-out arm 112, a second Z-direction take-out arm 113, and a lateral drive receiving arm 114; The lateral drive receiving arm 114 is mounted on the first Z-direction retrieval arm 112, and the first Z-direction retrieval arm can move the lateral drive receiving arm in the Z-axis direction. The second Z-direction retrieval arm 113 is mounted on the lateral drive receiving arm 114, and the lateral drive receiving arm can move the second Z-direction retrieval arm laterally in the X-axis direction. The retrieval member 111 is mounted on the second Z-direction retrieval arm 113, and the second Z-direction retrieval arm can move the retrieval member up and down in the Z-axis direction. The first Z-direction retrieval arm can move the lateral drive receiving arm vertically in the Z-direction, and the lateral drive receiving arm allows the second Z-direction retrieval arm to vertically move the operating movement portion of the first Z-direction retrieval arm. The second Z-direction retrieval arm itself has an operable vertical movement portion in the Z-axis direction, providing two sections of operating portions in the vertical direction of the Z-axis, thereby significantly increasing the depth and length of vertical operation. In addition, a lateral drive receiving arm is provided to move the second Z-direction fetch arm in the lateral X direction, thereby enabling the second Z-axis fetch arm to move in the X-axis direction. This design has a small footprint, high stability, and a wide operating distance.

[0050] In order to cooperate well with the X-direction pushing system, this embodiment further discloses a more specific form of the multi-stage Z-direction take-out arm, namely, the first Z-direction take-out arm includes a Z-direction driving sub-electric cylinder A115, a Z-direction driving sub-electric cylinder B116, a Z-direction rail A117, and a Z-direction rail B118, and the lateral driving receiving arm 114 includes a driving rail C119 and a driving electric cylinder C120, The Z-direction rails A117 and B118 are fixed vertically and symmetrically in the Z-axis direction within the removal operation chamber 1. Both ends of the drive rail C119 are slidably mounted on the Z-direction rails A and B, respectively. The Z-direction drive sub-electric cylinder A and Z-direction drive sub-electric cylinder B move both ends of the drive rail C119 up and down, respectively. The Z-direction rails A117 and B118 are symmetrically mounted, and the space between the Z-direction rails A and B provides the operating space for the X-direction push system 12. The position of the X-direction push system 12 can be determined according to the removal member, resulting in a more reasonable structural design. When the removal member removes the lid 4000 of the sample storage tank 2000, the removal position is between the Z-direction rails A and B. The X-direction push system is then positioned to push the lid to a predetermined position or into a lid storage area.

[0051] The second Z-direction take-out arm 113 is slidably mounted on the drive rail C119, the drive electric cylinder C120 drives the drive rail C119, the second Z-direction take-out arm 113 includes a Z-direction drive electric cylinder D121, and the Z-direction drive electric cylinder D121 is provided with a lifter 11, which is driven to move up and down.

[0052] The multi-stage Z-direction take-out arm 11 is provided on the sample storage tank 2000. The process for using the multi-stage Z-direction take-out arm to take out the lid or basket from the sample storage tank is as follows: Z-direction drive sub-electric cylinder A115 and Z-direction drive sub-electric cylinder B116 drive the drive rail C119 to move downward, which causes the second Z-direction take-out arm 113 mounted on the drive rail C119 to move downward. Of course, the drive electric cylinder C can also drive the second Z-direction take-out arm to move laterally on the drive rail C so that the take-out member mounted on the second Z-direction take-out arm moves laterally to an appropriate position. After the first Z-direction take-out arm moves, a second Z-direction take-out arm is provided to enable further take-out. The second Z-direction take-out arm is moved downward in the Z direction by the drive electric cylinder D, which causes the lifter to move downward and take out the lid of the sample storage tank.

[0053] Two embodiments of the removal member are disclosed herein. In one embodiment, the removal member 111 is provided with a positive electromagnetic member, a negative magnetic member on the top surface of the lid, and a negative magnetic member on the top surface of the basket. To remove the lid, the removal member moves downward to the top surface of the lid, and the positive and negative electromagnetic members cooperate to allow the removal member to remove the lid. To release the lid, the positive electromagnetic member is de-energized, allowing the lid to be released. Similarly, the removal of the basket by the removal member is also achieved by the positive and negative electromagnetic members working together.

[0054] In a preferred embodiment of the removal member of this embodiment, the multi-stage Z-direction removal arm 11 further includes an X-arm (not shown), which is attached to the second Z-direction removal arm 113 and can raise and lower the X-arm along the Z axis. The removal member is attached to the X-arm and can move the removal member along the X axis. The lower end of the removal member is provided with removal handles 1112 extending on both sides. As shown in FIG. 11 , a receiving groove 1113 is provided on the upper end surface of the lid 4000, which receives the removal handle 1112 in the X-axis direction and can limit removal from the receiving groove 1113 in the Z-axis direction.

[0055] When the removal member 111 is driven or indirectly driven by the second Z-direction removal arm 113 to reach a position where it can remove the lid 4000, the removal handle 1112 at the bottom end of the removal member is on the same horizontal line as the receiving groove 1113 in the X-axis direction, and the X-arm drives the removal member, i.e., drives the removal handle 1112 to move in the X-axis direction, so that the removal handle 1112 enters the receiving groove 1113 in the X-axis direction. Furthermore, since the removal handle limits the receiving groove in the Z-axis direction, the removal handle removes the lid in the Z-axis direction. Of course, the removal process involves moving the lid upward by the second Z-direction removal arm and the first Z-direction drive arm, allowing lateral movement in the X-axis direction by the lateral drive receiving arm, and placing the removed lid at the target position.

[0056] In order to store or retrieve the lids effectively and rationalize an efficient and low-cost structure, in the present invention, the retrieval operation room is provided with an X-direction pushing system 12, which pushes the lids 4000 retrieved by the multi-stage Z-direction retrieval arm 11 to a predetermined position, and here, a design structure called a lid storage area 13 is disclosed for the predetermined position.

[0057] In the preferred X-direction push system 12 of this embodiment, the X-direction push system 12 includes an X-direction push member 121 and a lid storage area 13, and the X-direction push member 13 and the lid storage area 13 are arranged opposite each other. Here, "oppositely arranged" means that the arrangement positions of the X-direction push member 12 and the lid storage area 13 in the X-axis direction allow the X-direction push member 12 to push the lid 4000 or storage box 1000 removed by the removal member 111 into the lid storage area 13. Of course, here, the X-direction push member 121 may also be configured to push the lid removed by the removal member to a predetermined position. This is within the above scope as long as it is arranged so as not to interfere with opening the lid of the sample storage tank and removing the basket or storage box. Because the receiving and removal handle is not limited in the X-axis direction by the preferably provided receiving groove of the removal member, the X-direction push member of the X-direction push system does not need to be arranged in any other direction, as long as it is capable of pushing in the X-axis direction. In this way, costs and structural design space are significantly reduced.

[0058] In a further preferred embodiment of the X-direction pushing system 12 of this embodiment, the X-direction pushing system 12 includes an X-direction pushing member 121 and a lid storage area 13, and the X-direction pushing member 121 and the lid storage area 13 are respectively provided on both sides of the multi-stage Z-direction taking-out arm 11 in the X-axis direction, and the X-direction pushing member 121 can push the lid or storage box taken out by the taking-out member into the lid storage area or a predetermined position.

[0059] The X-direction push member 121 includes a push base holder 122, a push drive motor 123, an X-axis moving push plate 124, and a push guide rod 125. The push base holder 122 is fixed to the underside of one side of the multi-stage Z-direction take-out arm 11. The push drive motor 123 and the push guide rod 125 are fixed to the push base holder 122. The X-axis moving push plate 124 is driven by the push drive motor 123 to move along the push guide rod 125. The X-axis moving push plate 124 can move and extend from one side to the other side of the multi-stage Z-direction take-out arm 11, close to the lid storage area 13.

[0060] A receiving and storing opening 131 is provided on the side of the lid storing area 13 close to the X-axis moving pushing plate 124 .

[0061] When a cryotube needs to be removed from the sample storage tank 2000, the multi-stage Z-direction removal arm 11 uses the removal member to remove the lid 4000 to a position corresponding to the X-direction push member 121. The push drive motor 123 drives the X-axis moving push plate 124 to move it via the push guide rod 125. As a result, the X-axis moving push plate 124 penetrates downward from one side of the multi-stage Z-direction removal arm 11 and pushes the lid 4000 into the lid storage area 13 on the other side of the multi-stage Z-direction removal arm 11. Thus, the lid 4000 is pushed into the lid storage area 13. This not only removes and stores the lid, but also facilitates the removal of a basket or sample storage box from the sample storage tank by the multi-stage Z-direction removal arm. Of course, a receiving storage opening is opened on the side of the lid storage area closer to the X-axis moving push plate, so the lid is pushed into the lid storage area by the X-direction push member and then received from the receiving storage opening.

[0062] In addition to the multi-stage Z-direction take-out arm 11 and the X-direction pushing system 12, the system further includes a Y-direction receiving system 14. The provision of the Y-direction receiving system 14 allows for more efficient reception of storage boxes that have been transported directly or indirectly by a transfer box. In a preferred embodiment, the Y-direction receiving system 14 receives the storage box 1000 and transports the storage box 1000 to a corresponding position on the X-direction pushing system 12. The provision of the Y-direction receiving system 14 makes it possible to receive the storage box 1000 in the Y-axis direction, and also enables operation of the take-out operation chamber 1 in the Y-axis direction, facilitating reception of the storage box.

[0063] In a further preferred embodiment of this embodiment, the Y-direction receiving system 14 includes a Y-direction rail 141, a Y-direction moving tray 142, and a box storage receiving channel 143, wherein the Y-direction rail 141 extends in the Y-axis direction and is arranged below the push base holder 122, the box storage receiving channel 143 is slidably arranged on the Y-direction rail 141, the box storage receiving channel 143 has a predetermined length in the X-axis direction, and the Y-direction moving tray 142 is slidably arranged on the box storage receiving channel 143 in the X-axis direction.

[0064] The Y-direction receiving system 14 further includes a box storage push member 15, which is arranged at a position corresponding to the box storage receiving channel 143 and can push the Y-direction moving tray 142 in the box storage receiving channel 143.

[0065] The box preservation push member 15 includes a box preservation push driving motor 151 and a box preservation push plate 152, the box preservation push driving motor 151 is provided on the lower end surface of the push base holder 122, the box preservation push plate 152 is slidably provided on the lower end surface of the push base holder 122, and the box preservation push driving motor 151 drives the box preservation push plate 152 to extend and retract in the X-axis direction.

[0066] In this embodiment, the Y-direction moving tray 142 receives the storage box 1000 that has been connected to the outside and transported. Here, a gripper 5000 may be provided in the removal operation chamber to grip the target storage box 1000 onto the Y-direction moving tray 142. Other gripping methods are also possible, but are not limited thereto. It is clear that when the Y-direction moving tray 142 receives the target storage box, a driving member is provided to drive the box storage receiving channel 143 for driving by the driving member, and this will not be described in detail here. The Y-direction moving tray 142 moves in the Y-axis direction by the box storage receiving channel 142, and the target storage box moves to a position corresponding to the box storage push member 15. The box storage push drive motor 151 of the box storage push member 15 drives the box storage push plate 152 to push the target storage box to a predetermined position in the X-axis direction.

[0067] Before the target storage box is pushed by the box storage push plate 152, the multi-stage Z-direction removal arm 11 removes the lid 4000 of the sample storage tank 2000, and the X-direction push system 12 pushes the lid 4000 into the lid storage area 13. The multi-stage Z-direction removal arm 11 then moves downward in a similar manner, causing the removal member 111 to move into the sample storage tank 2000 and remove the basket 3000. While the arrangement of the removal member has been described above, the upper end surface of the basket is also configured in accordance with the removal of the removal member. Preferably, the upper end surface of the basket is also configured without restriction in the X-axis direction. The structure and arrangement of the receiving groove 1113 for restricting the removal handle 1112 in the Z-axis direction are not described in detail here, as the removal process is the same as described above. The removal member removes the basket to a position corresponding to the box storage push member 15, and the box storage push drive motor 151 drives the box storage push plate 152, which moves in the X-axis direction and pushes the target storage box into the basket. As shown in FIG. 4 , the basket disclosed herein has multiple basket receiving trays 6 that can be received in the X-axis direction and are arranged vertically in an array, and the box storage push plate pushes the basket into the target basket receiving tray 6. Once the basket is received in the target basket receiving tray 6, the multi-stage Z-direction removal arm 11 lowers the basket to its initial state, thus achieving the purpose of storing the target storage box.

[0068] In a preferred embodiment of the box preservation push plate 15 of this embodiment, the box preservation push plate 15 includes a first box preservation push sub-plate 153, a second box preservation push sub-plate 154, and a box preservation push head 155. The upper end surface of the first box preservation push sub-plate 153 is slidably mounted on the lower end surface of the push base holder 122. One end of the first box preservation push sub-plate 153 and one end of the second box preservation push sub-plate 154 are fixed at a right angle, and the other end of the second box preservation push sub-plate 154 and the box preservation push head 155 are fixed at a right angle, so that the box preservation push plate 152 has an inverted "Z" shape. As described above, the X-direction push system 12 and the box preservation push member 15 are rationally arranged to be compact in structure, which is more convenient for the pushing operation of the X-direction push system 12 and the box preservation push member 15.

[0069] In this embodiment, in a further preferred embodiment of the Y-direction receiving system 14, the Y-direction receiving system 14 includes a Y-direction drive motor 144, a Y-direction rotation shaft screw 145, and a box storage receiving channel receiving nut 146, the Y-direction drive motor 144 rotatably drives one end of the Y-direction rotation shaft screw 145, and the other end of the Y-direction rotation shaft screw 145 is rotatably mounted on an end of the Y-direction rail 141 away from the push base holder 122, The box storage receiving channel receiving nut 146 is fixed to one end of the box storage receiving channel 143, and the Y-direction rotation shaft screw 145 is engaged with the box storage receiving channel receiving nut 146; The Y-direction drive motor is drivably installed below the connection point between the first box storage push sub-plate and the second box storage push sub-plate, and the box storage receiving channel can be moved to a position corresponding to the box storage push head.

[0070] The Y-direction drive motor 144 rotates the Y-direction rotary shaft screw 145, so that the box storage receiving channel receiving nut 146 moves linearly in the Y-axis direction along the Y-direction rotary shaft screw 145, and the Y box storage receiving channel 143 moves linearly in the Y-axis direction. In this way, the Y-direction moving tray 142 receives the target storage box and moves it in the Y direction to the corresponding position of the box storage push head 155, and the storage box is pushed into the basket by the box storage push head 155.

[0071] To further improve the stability of the low-temperature environment of the target storage box during removal, this embodiment preferably provides the following embodiment: The Y-direction receiving system 14 further includes a cryostat 16, which is disposed below the box storage receiving channel 143 or fixed to the lower end surface of the box storage receiving channel 143, has a receiving cavity therein, and a plurality of nitrogen inlet holes 161 are disposed on the upper end surface of the cryostat 16, which communicate with the receiving cavity, and the receiving cavity of the cryostat 16 is communicated with a nitrogen supply tube. The receiving cavity is disposed within the cryostat 16 and communicates with the nitrogen supply tube, so that the nitrogen supply tube supplies nitrogen to the receiving cavity of the cryostat 16. Because the nitrogen inlet holes are disposed, liquid nitrogen spills from the nitrogen inlet holes, continuously maintaining the low temperature of the box storage receiving channel 143.

[0072] In a more preferred embodiment of this embodiment, the cryostat is box-shaped, cylindrical, or hemispherical. The specific structure of the cryostat is not limited here. As shown in FIG. 2, the cryostat is a rectangular box, and the box storage receiving channel is provided in the rectangular box.

[0073] In this embodiment, preferably, an embodiment of a lid storage area is further disclosed, and the lid storage area 13 includes a lid storage case 132 and a lid storage drive member 133, and a receiving storage opening 131 is opened on a side of the lid storage case 132 close to the X-direction push member 121, and a lid removal opening 134 is opened on an end face of the lid storage case 132 close to the removal member, The lid storage drive member 133 can move the lid storage case 132 in the X-axis direction. In cooperation with the X-direction push system 12, the lid storage drive member moves the lid storage case in the X-axis direction to more stably receive the lid in the lid storage area.

[0074] Specifically, in a preferred embodiment of the lid storage drive member 133, the lid storage drive member 133 includes a storage drive base 135, a storage drive rail 136, and a storage drive rack 137; The storage drive base 135 is fixed within the removal operation chamber and is located below the other side of the multi-stage Z-direction removal arm 11, the storage drive rail 136 is provided on the storage drive base 135, and the storage drive rack 137 has one end slidably mounted on the storage drive rail 136 and the other end fixed to the lid storage case 132.

[0075] The storage drive base 135 is provided above the lid storage case 132, and a first storage sub-drive rail 138 and a second storage sub-drive rail 139 are provided symmetrically on both sides of the upper end surface of the storage drive base 135, respectively. On the upper end surface of the storage drive base 135, two rows of drive direction channels 1310 in the X-axis direction are provided on both sides outside the first storage sub-drive rail 138 and the second storage sub-drive rail 139, respectively. The storage drive rack 137 includes a storage drive sliding plate 1311, a first storage drive clamping plate 1312, and a second storage drive clamping plate 1313, and the storage drive sliding plate 1311 is slidably mounted on the first storage sub-drive rail 138 and the second storage sub-drive rail 139. The upper end of the first storage drive clamping plate is fixed vertically to one side of the storage drive sliding plate, and the lower end of the first storage drive clamping plate passes through the drive direction channel on one side and is fixed to the lid storage case. The upper end of the second storage drive clamping plate is fixed vertically to the other side of the storage drive sliding plate, and the lower end of the second storage drive clamping plate passes through the drive direction channel on the other side and is fixed to the lid storage case.

[0076] The storage drive base 135 is disposed above the lid storage case 132, allowing the lid storage case to be better connected to the X-axis pushing system. A storage drive motor is disposed on the storage drive base, and the storage drive motor drives the storage drive sliding plate to move in the X-axis direction, causing the first storage drive clamping plate and the second storage drive clamping plate to move in the X-axis direction, and the lid storage case to move in the X-axis direction. The upper end of the first storage drive clamping plate is fixed vertically to one side of the storage drive sliding plate, and the lower end of the first storage drive clamping plate passes through the drive direction channel on one side and is fixed to the lid storage case, making the overall structure compact and stable, improving the stability of the drive lid storage case, and further improving the cooperation between the X-axis pushing system and the lid removed by the removal member.

[0077] In a further preferred embodiment of this embodiment, the removal operation chamber 1 further includes a storage box return member 17, which is arranged opposite the box storage push plate 15, and which includes a return push plate 171, which is extendable and retractable along the X axis.

[0078] The storage box return member 17 includes a return member base plate 172 and a return member drive motor 173. The return member base plate 172 is provided below the lid storage case 132 at a position opposite the box storage push member 17, the return push plate 171 is driven by a return member drive motor 173 and is slidably provided on the return member base plate 172, and a return section 174 is provided on the side of the return push plate 171 closer to the box storage push head 155.

[0079] The process of removing a storage box from a sample storage tank will be further described below. First, the lid of the sample storage tank is removed and stored in the lid storage area using a multi-stage Z-direction removal arm and an X-direction push system. Next, the multi-stage Z-direction removal arm removes the basket to the target position, where the target position refers to removing the storage box storage stand of the target storage box linked to the basket to a position corresponding to the return unit. At this time, the return member drive motor moves the return push plate along the X-axis toward the target storage box, and the return unit pushes the target storage box onto the Y-direction moving tray. Of course, before this, the Y-direction moving tray moves to a position corresponding to the return unit of the storage box's return member. After receiving the target storage box, the Y-direction moving tray moves in the Y-axis direction through the box storage receiving channel to a position where it can be easily grasped by the gripper. The gripper then grasps the target storage box and transports it into the transfer box, which then moves the target storage box. When the target storage box is placed inside the transport box, the lid opening mechanism places the open box lid of the transport box on the transport box and seals it.

[0080] After the multi-stage Z-direction take-out arm and the box storage and return member work together to take out the target storage box, the multi-stage Z-direction take-out arm returns the basket to the sample storage tank and takes out and connects the lid of the sample storage tank. During the lid removal and connection process, a lid removal opening is opened on the end face of the lid storage case closest to the take-out member, that is, on the top end face of the lid storage case. When connecting the lid, the take-out member first moves to a position corresponding to the lid in the horizontal direction of the X-axis, that is, to a position where the take-out handle of the take-out member corresponds to the receiving groove of the lid in the horizontal direction of the X-axis. At this time, the lid storage drive member drives the lid storage case to move toward the take-out member, so that the lid of the lid storage case moves in the X-axis direction. When the take-out handle enters the receiving groove, the take-out member can take out the lid of the sample storage tank in the Z-axis direction. When the removal handle is engaged with the receiving groove, the lid storage drive member drives the lid storage case back along the forward path, and the removal member is driven by the multi-stage Z-direction removal arm to couple the lid to the sample storage tank, thus completing the process. Of course, the process of storing and removing the storage box also involves coupling the lid after the storage and removal are completed.

[0081] Example 2 In the prior art sample storage system, in terms of the storage and withdrawal process, the withdrawal structure of the sample storage tank is not reasonably designed, which is costly. In addition, multiple devices cannot be connected, making it impossible to realize an industrialized storage and withdrawal line from the sample library and ensuring the use of the cold chain throughout the industrialized storage and withdrawal line.

[0082] This embodiment provides an intelligent sample storage and removal system, which includes a transfer joint member 7, one of the removal operation chambers 1 described in the above embodiment 1, and a sample storage tank 2000, wherein the removal operation chamber 1 is sealed to the upper end of the sample storage tank 2000, and a sealing joint port 18 is provided in the removal operation chamber 1, and the transfer joint member 7 is provided on one side of the outside of the sample storage tank 2000, and the transfer joint member 7 can receive a transfer box 701 and drive the transfer box 701 to join the opening of the transfer box to the sealing joint port 18.

[0083] The operation process of the transfer structure of this embodiment is as follows: When a biological sample is removed from a sample storage tank, the cryotube containing the biological sample is placed in a storage box, which is then placed in a transfer box, and the storage box is transported using the transfer box. Because the transfer box itself has a cooling function, a low-temperature environment is maintained during this process. The transfer box is moved to the rotating joint, and the transfer joint is used to transport the transfer box, and the opening of the transfer box is joined to the sealing joint of the removal operation chamber. The removal operation chamber opens the transfer box in the removal operation chamber, and after opening, the target storage box is stored in the removal operation chamber. A sealing tape is provided at the sealing joint, and a sealing tape is provided at the opening of the transfer box, which can be joined to the sealing tape at the sealing joint. When these two are joined, a seal is achieved, ensuring a stable low-temperature environment.

[0084] Throughout this process, the target storage box is exposed to a low-temperature environment whether it is in the transfer box or in the unloading operation room with the lid open. Furthermore, the transfer joints are provided to facilitate the connection and unloading of multiple sample storage tanks, realizing an industrialized storage and unloading line and ensuring the use of a cold chain throughout the process.

[0085] The industrialized sample storage and extraction line is composed of multiple sample storage tanks, each equipped with the extraction operation room described in Example 1. Direct extraction, transfer, and direct storage and extraction throughout the entire industrialized line are performed in a very low-temperature environment, facilitating management and extraction of the industrialized line. It is also easy to connect two or more sample storage tanks. Considering the above-mentioned beneficial effects, a preferred embodiment of a transfer connection member 7 is provided in this example. The transfer connection member 7 includes a moving rail 702, a moving trolley 703, and a connection drive member 704. The moving rail 702 is installed on one side of the outer surface of the sample storage tank 2000, and the moving trolley 703 is installed on the moving rail 702, and the moving trolley 703 can move a transfer box along the moving rail 702. The connection drive member 7 can drive the transfer box to seal and connect the opening of the transfer box to the sealing joint. In this case, the connecting drive member drives the transfer box to seal and connect the opening of the transfer box to the sealing joint port, and the removal operation chamber is used to seal and remove the target storage box from the transfer box, thereby ensuring the use of the cold chain throughout the process. This eliminates the need for complex transfer joint members, and also eliminates the need for the entire transfer joint member to have a sealing structure, because when two or more sample storage tanks need to be connected, a transfer joint member is installed between them. This reliably ensures the use of the cold chain throughout the process.

[0086] In a more preferred embodiment of this embodiment, the moving rail 702 is C-shaped, U-shaped, or concave-shaped, as shown in Figure 3. Such a configuration facilitates direct removal or storage of the sample storage tank, and the moving rail is C-shaped, U-shaped, or concave-shaped, which facilitates the connection of two or more sample storage tanks.

[0087] In a more preferred embodiment of this embodiment, the joining drive member 704 includes a joining drive motor 705, a joining vertical rail 706, and a joining lifting frame 707, and the joining drive motor 705 drives the joining lifting frame 707 to move up and down along the joining vertical rail 706; The moving rail 702 is provided on the upper end of the connecting vertical rail 706, and both of them are provided in a T-shape or an inverted L-shape. One end of the moving rail 702 passes through the connecting lifting frame 707, The upper end of the joining lifting frame 707 is two free ends that are not connected, and a lifting support plate 708 is provided at each of the two free ends, and a lifting support plate 709 is provided between the two lifting support plates 708, and the transport box 701 can be placed or installed on the lifting support plate 709.

[0088] As shown in FIG. 5, in the initial state, the lifting support plate 709 is positioned to easily receive a transport box. When the transport box is moved and placed on the lifting support plate, the joining drive motor drives the joining lifting frame to rise along the joining vertical rail, thereby raising the lifting support plate and sealing the transport box to the sealing joint port of the unloading operation room. Here, the upper ends of the joining lifting frame are two unconnected free ends that are higher than the moving rails, making the lifting support plate higher than the moving rails. The lifting support plate is attached to lifting support plates at the two unconnected free ends, which support the lifting support plate vertically but do not limit the lifting support plate's movement on the moving rails by the moving trolley. If the transport box transported from outside is not suitable to be placed directly on the position corresponding to the joining lifting frame, a moving trolley can be used to move the lifting support plate to the appropriate position, and after placing the transport box on the lifting support plate, the moving trolley can be used to move the lifting support plate with the transport box on it to the two lifting receiving plates, and then the joining lifting frame can be used to perform the seal joining operation.

[0089] In a more preferred embodiment of this embodiment, the lifting support plate 709 is provided with a transfer box limiting plate 710, which can limit the position of the transfer box. In this configuration, the lifting support plate can receive the transfer box more accurately.

[0090] In this embodiment, preferably, an embodiment of an autonomously rechargeable mobile trolley 703 is provided, said mobile trolley including a trolley base 8, a trolley battery 801, and an electrical connection board 802; A trolley slide slot 803 is provided on the lower end surface of the trolley base 8, and the trolley slide slot 803 is slidably mounted on the moving rail 702. A trolley battery 801 is provided at the lower end of the trolley base 8, and the trolley battery 801 is electrically connected to an electrical connection board 802. A power contact plate 804 is provided on the moving rail 702 at a position below the trolley base corresponding to the electrical connection board.

[0091] A trolley positioning post 805 is provided on the upper surface of the trolley base of the movable trolley, and a positioning hole corresponding to the trolley positioning post 805 is provided in the lifting support plate 709. When the movable trolley needs to be moved individually, the connecting drive motor raises the lifting support plate 709 a predetermined distance, causing the trolley positioning post to disengage from the positioning hole in the lifting support plate, and the movable trolley slides on the movable rail through the trolley slide slot, electrically connecting the electrical connection board electrically connected to the trolley battery at the bottom of the trolley base to the power contact plate. A power supply structure is connected to the power contact plate itself, so that the trolley battery is charged by the power contact plate.

[0092] In a more preferred embodiment of this embodiment, the moving trolley further includes a distance measuring sensor 806, a single-chip computer 807, a trolley motor 808, and a trolley wheel 809, and the distance measuring sensor 806 is provided on the lower end surface of the trolley base 8; The single-chip computer is electrically connected to the distance sensor and the trolley motor, and controls the distance sensor and the trolley motor. The trolley motor drives the trolley wheels to move along the moving rail. The distance sensor measures the position of the trolley movement and makes the trolley movement path more accurate. The trolley motor drives the trolley wheels to move on the moving rail, thereby realizing the movement of the trolley on the moving rail.

[0093] In a more preferred embodiment of this embodiment, the moving rail 702 includes a first sub-rail 711, a second sub-rail 712, and a moving carriage support plate 713, and the first sub-rail and the second sub-rail are symmetrically provided on the upper end surfaces of both sides of the moving carriage support plate 713, and two sets of trolley slide slots are provided on both sides of the lower end surface of the trolley base, and the two sets of trolley slide slots are slidably provided on the first sub-rail and the second sub-rail, respectively; The power contact plate 804 is mounted on the carriage support plate; The carriage support plate is provided with a wheel mat 714 on which the trolley wheels move.

[0094] In a more preferred embodiment of this embodiment, a trolley positioning pillar is provided on the upper end surface of the trolley base of the moving trolley, and a positioning hole corresponding to the trolley positioning pillar is provided on the lifting support plate.

[0095] In the present invention, a lid-opening mechanism 9 of the removal operation chamber 1 is disclosed, and the removal operation chamber 1 further includes a lid-opening mechanism 9, which is provided at a position opposite the seal joint port, and the lid-opening mechanism can open the lid of the transfer box at the transfer box opening where the seal joint port is joined.

[0096] In a more preferred embodiment of this embodiment, the lid-opening mechanism includes a lid-opening fixed base 901, a lid-opening drive member 902, a lid-opening large-diameter rod 903, a lid-opening small-diameter rod 904, and a lid-opening disk 905, The lid-opening fixed base 901 is fixed within the removal operation chamber, the lid-opening drive member 902 is provided on the lid-opening fixed base 901, one end of the lid-opening large diameter rod 903 is rotatably provided on the lid-opening fixed base, one end of the lid-opening small diameter rod is rotatably provided on the other end of the lid-opening large diameter rod, and a lid-opening disk 905 is fixedly provided on the other end of the lid-opening small diameter rod, and the lid-opening drive member 902 drives the lid-opening small diameter rod to rotate.

[0097] The opening disk includes an opening main body disk, an opening positioning rod 906, and an opening electromagnetic member 907; The opening body disk is fixed to the other end of the opening small diameter rod, and the opening body disk is provided with an opening positioning rod and an opening electromagnetic positive member; The box lid of the transport box is provided with a transport box positioning hole, the lid opening positioning rod can be inserted into the transport box positioning hole, the box lid of the transport box is provided with an electromagnetically negative member of the transport box lid, and the lid opening electromagnetically positive member and the electromagnetically negative member of the transport box lid attract each other.

[0098] The lid-opening drive member drives the lid-opening small rod, one end of which is rotatably connected to the other end of the lid-opening large rod, and one end of which is rotatably connected to the lid-opening fixed base. Therefore, when the lid-opening drive member is driven, the lid-opening disk moves to the box lid of the transfer box, the lid-opening positioning rod attached to the lid-opening disk is inserted into the transfer box positioning hole, and the lid-opening electromagnetic positive member attracts the electromagnetic negative member of the box lid of the transfer box, thereby moving the lid-opening large rod and the lid-opening small rod to open the box lid of the transfer box. Of course, when the box lid of the transfer box needs to be connected to the transfer box by moving the lid-opening large rod and the lid-opening small rod, the power supply to the lid-opening electromagnetic positive member is turned off, and the box lid of the transfer box is released from the lid-opening electromagnetic member and connected.

[0099] In a more preferred embodiment of this embodiment, the cover-opening drive member 902 includes a cover-opening drive motor, a cover-opening drive guide rail 908, and a cover-opening drive slide base 909; The lid-opening drive motor 902 drives the lid-opening drive slide base 909 to move it up and down on the lid-opening drive guide rail 908, one end of the lid-opening rotation shaft is fixed to the lid-opening drive slide base, and the other end of the lid-opening rotation shaft is rotatably or fixedly attached to the lid-opening small diameter rod. As shown in Figure 8, the lid-opening drive motor drives the lid-opening drive slide base 909 to move it up and down on the lid-opening drive guide rail, thereby directly rotating the lid-opening small diameter rod and the lid-opening large diameter rod, and the lid-opening large diameter rod rotates with the lid-opening fixed base, thus moving the lid-opening disk.

[0100] In this embodiment, preferably, a sample storage tank embodiment is further provided, wherein the sample storage tank 2000 includes a sample tank body 20, a built-in liquid nitrogen tank 201, a rotating disk 202, a sample storage rotating shaft member 203, a sample storage motor 204, a basket 3000, and a lid 4000; A lid is provided on the upper end surface of the sample tank body, The built-in liquid nitrogen tank is provided in the sample tank body, and an adapter slot 205 is provided on the upper end surface of the built-in liquid nitrogen tank; The sample storage motor rotates the sample storage rotating shaft member, the lower end of which is rotatably mounted in the adapter slot 205, a rotating disk is fixedly mounted on the outer periphery of the sample storage rotating shaft member, and the basket is mounted on the rotating disk. When the target storage box needs to be removed, the sample storage motor rotates the sample storage rotating shaft member to rotate the rotating disk, and the basket containing the target storage box rotates below the lid, making it easy to remove.

[0101] The sample storage rotor assembly includes a central rotor 206 and a receiving rotor 207. The sample storage motor drives the central rotor 206. The central rotor has a nitrogen-filled cavity inside. The lower end of the central rotor is coaxially connected to the receiving rotor 207. The lower end of the receiving rotor is rotatably mounted in the adapter slot. The nitrogen-filled cavity is filled with liquid nitrogen, thereby providing a cooling structure.

[0102] In a more preferred embodiment of this embodiment, a heat insulating layer is provided inside the tank wall of the sample tank body.

[0103] In a more preferred embodiment of this embodiment, a defrosting mechanism 10 and a code scanning identification device 101 are further provided in the removal operation chamber, with the defrosting mechanism being provided near the seal joint and the code scanning identification device being provided close to the defrosting mechanism. As shown in FIG. 4, the defrosting mechanism 10 includes a defrosting drive motor and a defrosting brush. When defrosting is required, the defrosting drive motor rotates the defrosting brush, and the gripper grips the storage box to the defrosting brush, which then defrosts the storage box. After defrosting, the gripper grips the defrosted storage box to the code scanning identification device 101 for code scanning identification, and the storage box to be stored or removed is stored in the system.

[0104] In a more preferred embodiment of this embodiment, the unloading operation room is further provided with a sight window 102 and a removable operation door 103. The sight window is advantageous for observing the unloading or storage / unloading process, and the removable operation door is advantageous for maintenance of the unloading operation room.

[0105] The order of the above examples is for convenience of explanation and does not represent the superiority or inferiority of the examples. It should be noted that the above embodiments are only used to explain the technical solutions of the present invention and are not intended to limit the same. Although the present invention has been described in detail with reference to the above embodiments, those skilled in the art should understand that the technical solutions described in the above embodiments can be modified or some of the technical features can be replaced with equivalents. However, these modifications or replacements do not deviate from the essence of the corresponding technical solutions and the spirit and scope of the technical solutions of the embodiments of the present invention. [Explanation of symbols]

[0106] 1-Removal operation room, 11—multi-stage Z-direction extraction arm; 111—extraction member; 1112—extraction handle; 1113—receiving groove; 112 - first Z-direction take-out arm, 113 - second Z-direction take-out arm, 114 - lateral drive receiving arm, 115 - Z-direction drive sub-electric cylinder A, 116 - Z-direction drive sub-electric cylinder B, 117 - Z-direction rail A, 118 - Z-direction rail B, 119 - drive rail C, 120 - drive electric cylinder C, 121 - Z-direction drive electric cylinder D, 12—X-direction push system, 121—X-direction push member, 122—push base holder, 123—push drive motor, 124—X-axis moving push plate, 125—push guide rod, 13 - lid storage area, 131 - receiving storage opening, 132 - lid storage case, 133 - lid storage drive member, 134 - lid removal opening, 135 - storage drive base, 136 - storage drive rail, 137 - storage drive rack, 138 - first storage sub-drive rail, 139 - second storage sub-drive rail, 1310 - drive direction channel, 1311 - storage drive sliding plate, 1312 - storage drive first clamping plate, 1313 - storage drive second clamping plate, 14—Y-direction receiving system, 141—Y-direction rail, 142—Y-direction moving tray, 143—box storage receiving channel, 144—Y-direction drive motor, 145—Y-direction rotation shaft screw, 146—box storage receiving channel receiving nut; 15—box storage push member; 151—box storage push drive motor; 152—box storage push plate; 153—first box storage push subplate; 154—second box storage push subplate; 155—box storage push head; 16—low temperature maintaining member, 161—nitrogen inlet hole, 17 - storage box return member, 171 - return push plate, 172 - return member board, 173 - return member drive motor, 174 - return unit, 18-seal joint port, 1000 - storage box, 2000 - sample storage tank, 3000 - basket, 4000 - lid, 5000 - gripper, 6 - basket receiving tray, 7-transport joint member, 701-transport box, 702-moving rail, 703-moving trolley, 704-joint drive member, 705-joint drive motor, 706-joint longitudinal rail, 707-joint lifting frame, 708-lifting support plate, 709-lifting support plate, 710-transport box limiting plate, 711-first sub-rail, 712-second sub-rail, 713-transport cart support plate, 714-wheel mat, 8 - trolley base, 801 - trolley battery, 802 - electrical connection board, 803 - trolley slide slot, 804 - power contact plate, 805 - trolley positioning column, 806 - ranging sensor, 807 - single chip computer, 808 - trolley motor, 809 - trolley wheel, 9-lid opening mechanism, 901-lid opening fixed base, 902-lid opening drive member, 903-lid opening large diameter rod, 904-lid opening small diameter rod, 905-lid opening disk, 906-lid opening positioning rod, 907-lid opening electromagnetic member, 908-lid opening drive guide rail, 909-lid opening drive slide base, 20—sample tank body, 201—built-in liquid nitrogen tank, 202—rotating disk, 203—sample storage rotating shaft member, 204—sample storage motor, 205—adapter slot, 206—central rotating shaft, 207—receiving rotating shaft, 10 - defrosting mechanism, 101 - code scanning identification device, 102 - sight glass, 103 - removable operation door

Claims

1. A removal operation room, a multi-stage Z-direction take-out arm and an X-direction push system, wherein the multi-stage Z-direction take-out arm is an arm that allows movement of multiple distance sections in the Z-axis direction, and the multi-stage Z-direction take-out arm is provided with a take-out member, and the multi-stage Z-direction take-out arm can move the take-out member in the Z-axis direction; the X-direction pushing system is provided at a position corresponding to the removal member, and the X-direction pushing system can push the lid or storage box of the sample storage tank removed by the removal member to a predetermined position; the multi-stage Z-direction retrieval arm includes a first Z-direction retrieval arm, a second Z-direction retrieval arm, and a lateral drive receiving arm; the lateral drive receiving arm is provided on the first Z-direction retrieval arm, and the first Z-direction retrieval arm can move the lateral drive receiving arm in the Z-axis direction; the second Z-direction retrieval arm is provided on the lateral drive receiving arm, and the lateral drive receiving arm can move the second Z-direction retrieval arm laterally in the X-direction; the retrieval member is provided on the second Z-direction retrieval arm, and the second Z-direction retrieval arm can move the retrieval member up and down in the Z-axis direction; the X-direction push system includes an X-direction push member and a lid storage area, the X-direction push member and the lid storage area are arranged opposite to each other, and the X-direction push member can push the lid or the storage box removed by the removal member to the lid storage area or a predetermined position; The X-direction push member and the lid storage area are respectively provided on both sides of the multi-stage Z-direction take-out arm in the X-axis direction; The X-direction push member includes a push base holder, a push drive motor, an X-axis moving push plate, and a push guide rod; the push base holder is fixed to one side of the multi-stage Z-direction take-out arm under the arm, the push drive motor and the push guide rod are fixed to the push base holder, the X-axis moving push plate is driven by the push drive motor to move along the push guide rod, the X-axis moving push plate can move and extend from one side of the multi-stage Z-direction take-out arm to the other side, and is close to the lid storage area; A receiving storage port is provided on the side of the lid storage area close to the X-axis moving push plate, further comprising a Y-direction receiving system; the Y-direction receiving system can receive the storage box and transport the storage box to a corresponding position of the X-direction pushing system; the Y-direction receiving system includes a Y-direction rail, a Y-direction moving tray, and a box storage receiving channel; the Y-direction rail extends in the Y-axis direction and is provided below the push base holder, the box storage receiving channel is slidably mounted on the Y-direction rail, the box storage receiving channel has a predetermined length in the X-axis direction, and the Y-direction moving tray is slidably mounted in the box storage receiving channel in the X-axis direction; The Y-direction receiving system further includes a box storage push member, the box storage push member is provided at a position corresponding to the box storage receiving channel, and can push the Y-direction moving tray in the box storage receiving channel; the box preservation push member includes a box preservation push driving motor and a box preservation push plate, the box preservation push driving motor is provided on a lower end surface of the push base holder, the box preservation push plate is slidably provided on the lower end surface of the push base holder, the box preservation push driving motor drives the box preservation push plate to extend and retract in an X-axis direction; The box storage push plate includes a first box storage push sub-plate, a second box storage push sub-plate, and a box storage push head, an upper end surface of the first box storage push sub-plate is slidably mounted on a lower end surface of the push base holder, one end of the first box storage push sub-plate and one end of the second box storage push sub-plate are fixed at a right angle, and the other end of the second box storage push sub-plate and the box storage push head are fixed at a right angle, and the box storage push plate is in an inverted "Z" shape, The storage box further includes a storage box return member, the storage box return member is disposed at a position opposite to the box storage push plate, the storage box return member includes a return push plate, and the return push plate is extendable and retractable along the X axis; The storage box returning member includes a returning member base plate and a returning member drive motor; The return member base plate is provided below the lid storage case at a position opposite the box storage push member, the return push plate is driven by a return member drive motor and is slidably provided on the return member base plate, and a return section is provided on the side of the return push plate closer to the box storage push head, characterized in that the removal operation chamber.

2. The first Z-direction take-out arm includes a Z-direction drive sub-electric cylinder A, a Z-direction drive sub-electric cylinder B, a Z-direction rail A, and a Z-direction rail B, and the lateral drive receiving arm includes a drive rail C and a drive electric cylinder C, The Z-direction rail A and the Z-direction rail B are fixed vertically and symmetrically in the Z-axis direction within the take-out operation chamber, and both ends of the drive rail C are slidably provided on the Z-direction rail A and the Z-direction rail B, respectively, and the Z-direction driving sub-electric cylinder A and the Z-direction driving sub-electric cylinder B drive both ends of the drive rail C to move it up and down, The second Z-direction take-out arm is slidably mounted on the drive rail C, and the drive electric cylinder C drives the second Z-direction take-out arm. The take-out operation room according to claim 1, characterized in that the second Z-direction take-out arm includes a Z-direction drive electric cylinder D, and the Z-direction drive electric cylinder D is provided with a lifter, which is driven to move up and down.

3. the Y-direction receiving system includes a Y-direction drive motor, a Y-direction rotation shaft screw, and a box storage receiving channel receiving nut, the Y-direction drive motor rotatably drives one end of the Y-direction rotation shaft screw, and the other end of the Y-direction rotation shaft screw is rotatably mounted on an end of the Y-direction rail away from the push base holder; The box storage receiving channel receiving nut is fixed to one end of the box storage receiving channel, and the Y-direction rotation axis screw is engaged with the box storage receiving channel receiving nut; 3. The removal operation chamber according to claim 2, wherein the Y-direction drive motor is drivably mounted below the connection point between the first box storage push sub-plate and the second box storage push sub-plate, and the box storage receiving channel is movable to a position corresponding to the box storage push head.

4. The Y-direction receiving system further includes a cryostat, the cryostat being disposed below the box storage receiving channel or fixed to a lower end surface of the box storage receiving channel; 4. The removal operation chamber according to claim 3, wherein the low-temperature holding member has an internal storage cavity, and a plurality of nitrogen introduction holes communicating with the storage cavity are provided on the upper end surface of the low-temperature holding member, and the storage cavity of the low-temperature holding member is connected to a nitrogen supply tube.

5. 5. The unloading chamber according to claim 4, wherein the low-temperature maintaining member is box-shaped, cylindrical, or hemispherical.

6. The lid storage area includes a lid storage case and a lid storage drive member, a receiving storage opening is opened on a side of the lid storage case close to the X-direction push member, and a lid removal opening is opened on an end face of the lid storage case close to the removal member, The ejection operation chamber according to claim 4, wherein the lid storage drive member is capable of moving the lid storage case in the X-axis direction.

7. The lid storage drive member includes a storage drive base, a storage drive rail, and a storage drive rack; 7. The removal operation chamber according to claim 6, wherein the storage drive base is fixed within the removal operation chamber and is located below the other side of the multi-stage Z-direction removal arm, the storage drive rail is provided on the storage drive base, and the storage drive rack has one end slidably mounted on the storage drive rail and the other end fixed to the lid storage case.

8. the storage drive base is disposed above the lid storage case, and a first storage sub-drive rail and a second storage sub-drive rail are symmetrically disposed on both sides of an upper end surface of the storage drive base; On the upper end surface of the storage drive base, two rows of drive direction channels in the X-axis direction are provided on both sides outside the first storage sub-drive rail and the second storage sub-drive rail, respectively; the storage drive rack includes a storage drive sliding plate, a storage drive first clamping plate, and a storage drive second clamping plate, the storage drive sliding plate being slidably mounted on the first storage sub-drive rail and the second storage sub-drive rail; The upper end of the storage drive first clamping plate is fixed vertically to one side of the storage drive sliding plate, and the lower end of the storage drive first clamping plate passes through the drive direction channel on one side and is fixed to the lid storage case; The removal operation chamber according to claim 7, characterized in that an upper end of the second storage drive clamping plate is fixed vertically to the other side of the storage drive sliding plate, and a lower end of the second storage drive clamping plate passes through the drive direction channel on the other side and is fixed to the lid storage case.

9. 2. The unloading chamber according to claim 1, wherein the unloading member is provided with a positive electromagnetic member, the lid has an upper end surface with a negative magnetic member, and the basket has an upper end surface with a negative magnetic member.

10. the multi-stage Z-direction take-out arm further includes an X-arm, the X-arm being provided on the second Z-direction take-out arm, and the second Z-direction take-out arm being capable of raising and lowering the X-arm along the Z-axis; the take-out member being provided on the X-arm, and the X-arm being capable of moving the take-out member along the X-axis; The removal operation chamber according to claim 1, characterized in that the lower end of the removal member is provided with a removal handle extending on both sides, and the upper end surface of the lid is provided with a receiving groove, the receiving groove receiving the removal handle in the X-axis direction, and the removal handle restricts removal from the receiving groove in the Z-axis direction.

11. 1. An intelligent sample storage and retrieval system, comprising: a transfer interface member, the unloading chamber of claim 1, and a sample storage tank; the take-out operation chamber is provided in a sealed manner at the upper end of the sample storage tank, and a seal joint port is provided in the take-out operation chamber; the transfer joint member is provided on one side of the outside of the sample storage tank, the transfer joint member can receive a transfer box, and can drive the transfer box to join the opening of the transfer box to the seal joint port; the transfer joint member includes a moving rail, a moving trolley, and a joint driving member, the moving rail is provided on one side of the outside of the sample storage tank, the moving trolley is provided on the moving rail, the moving trolley can move the transfer box along the moving rail, and the joint driving member can drive the transfer box to seal and join the opening of the transfer box to the sealing joint port; The moving rail is C-shaped, U-shaped, or concave-shaped; The joining drive member includes a joining drive motor, a joining vertical rail, and a joining lifting frame, and the joining drive motor drives the joining lifting frame to lift and lower it along the joining vertical rail; The moving rail is provided on the upper end of the connecting vertical rail, and both of them are provided in a T-shape or an inverted L-shape, and one end of the moving rail passes through the connecting lifting frame; The upper end of the joining lifting frame is two free ends that are not continuous, a lifting support plate is provided at each of the two free ends, a lifting support plate is provided between the two lifting support plates, and the transfer box can be placed or installed on the lifting support plate, an intelligent sample storage and retrieval system.

12. The intelligent sample storage and retrieval system of claim 11, wherein the lifting support plate is provided with a transfer box limiting plate, which can limit the transfer box.

13. The moving trolley includes a trolley base, a trolley battery, and an electrical connection board; a trolley slide slot is provided on the lower end surface of the trolley base, the trolley slide slot is slidably mounted on the moving rail, a trolley battery is provided on the lower end of the trolley base, and the trolley battery is electrically connected to an electrical connection board; 13. The intelligent sample storage and retrieval system of claim 12, wherein a power contact plate is provided on the moving rail at a position corresponding to the electrical connection board below the trolley base.

14. The moving trolley further includes a distance measuring sensor, a single-chip computer, a trolley motor, and a trolley wheel, and the distance measuring sensor is provided on a lower end surface of the trolley base; The intelligent sample storage and retrieval system of claim 13, wherein the single-chip computer is electrically connected to a distance sensor and a trolley motor, respectively, and the trolley motor drives the trolley wheels to move along the moving rail.

15. The moving rail includes a first sub-rail, a second sub-rail, and a moving car support plate, the first sub-rail and the second sub-rail being symmetrically provided on the upper end surface of both sides of the moving car support plate, and two sets of trolley slide slots are provided on both sides of the lower end surface of the trolley base, respectively, and the two sets of trolley slide slots are slidably provided on the first sub-rail and the second sub-rail, the power contact plate is provided on the carriage support plate; 15. The intelligent sample storage and retrieval system of claim 14, wherein the car support plate is provided with a wheel mat, and the trolley wheels move on the wheel mat.

16. The intelligent sample storage and retrieval system of claim 15, wherein a trolley positioning pillar is provided on the upper end surface of the trolley base of the moving trolley, and a positioning hole corresponding to the trolley positioning pillar is provided on the lifting support plate.

17. The intelligent sample storage and retrieval system of claim 11, wherein the retrieval operation chamber further includes a lid opening mechanism, the lid opening mechanism being located opposite the seal joint port, and the lid opening mechanism can open the lid of the transfer box at the opening of the transfer box to which the seal joint port is attached.

18. the lid-opening mechanism includes a lid-opening fixed base, a lid-opening drive member, a lid-opening large-diameter rod, a lid-opening small-diameter rod, and a lid-opening disk; 18. The intelligent sample storage and extraction system of claim 17, wherein the fixed lid-opening base is fixed within the extraction operation chamber, the drive member for driving the fixed lid-opening base, one end of the large-diameter rod for rotating on the fixed lid-opening base, one end of the small-diameter rod for rotating on the other end of the large-diameter rod, and a disk for opening the lid is fixed on the other end of the small-diameter rod, and the drive member for driving the small-diameter rod for rotating.

19. The cover-opening disc includes a cover-opening main disc, a cover-opening positioning rod, and a cover-opening electromagnetic member; The opening body disk is fixed to the other end of the opening small diameter rod, and the opening body disk is provided with an opening positioning rod and an opening electromagnetic positive member; The intelligent sample storage and retrieval system of claim 18, wherein the lid of the transfer box is provided with a transfer box positioning hole, the lid opening positioning rod can be inserted into the transfer box positioning hole, and the lid of the transfer box is provided with an electromagnetically negative member of the transfer box lid, and the lid opening electromagnetically positive member and the transfer box lid electromagnetically negative member can attract each other.

20. The cover-opening drive member includes a cover-opening drive motor, a cover-opening drive guide rail, and a cover-opening drive slide base; 20. The intelligent sample storage and retrieval system of claim 19, wherein the lid-opening drive motor drives a lid-opening drive slide base to move up and down on the lid-opening drive guide rail, and a lid-opening rotation shaft extends outward from the lid-opening drive slide base, one end of the lid-opening rotation shaft is fixed to the lid-opening drive slide base, and the other end of the lid-opening rotation shaft is rotatably or fixedly attached to the lid-opening small-diameter rod.

21. The sample storage tank includes a sample tank body, a built-in liquid nitrogen tank, a rotating disk, a sample storage rotating shaft member, a sample storage motor, a basket, and a lid; A lid is provided on the upper end surface of the sample tank body, The built-in liquid nitrogen tank is provided in the sample tank body, and an adapter slot is provided on the upper end surface of the built-in liquid nitrogen tank; the sample storage motor rotates the sample storage rotating shaft member, a lower end of the sample storage rotating shaft member is rotatably mounted in the adapter slot, a rotating disk is fixedly mounted on an outer periphery of the sample storage rotating shaft member, and the basket is mounted on the rotating disk; The intelligent sample storage and retrieval system of any one of claims 12 to 20, characterized in that the sample storage rotating shaft member includes a central rotating shaft and a receiving rotating shaft, the sample storage motor drives the central rotating shaft, a nitrogen-filled cavity is provided inside the central rotating shaft, the lower end of the central rotating shaft is coaxially connected to the receiving rotating shaft, and the lower end of the receiving rotating shaft is rotatably provided in the adapter slot.

22. 22. The intelligent sample storage and retrieval system of claim 21, wherein a heat insulating layer is provided inside the tank wall of the sample tank body.

23. The intelligent sample storage and retrieval system of claim 22, further comprising a defrosting mechanism and a code scanning identification device in the retrieval operation chamber, the defrosting mechanism being located near the seal joint and the code scanning identification device being located close to the defrosting mechanism.

24. 24. The intelligent sample storage and retrieval system of claim 23, wherein the retrieval operation chamber is further provided with a viewing window and a removable operation door.

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