A stereoscopic sorting storage device for detecting samples of rubber products

Abstract

The utility model discloses a kind of three-dimensional sorting storage devices for rubber product detection sample, it is related to sample storage device technical field, including main frame, several storage modules mounted by pulling component, marking panel and matched locking assembly, setting in module internal receiving assembly and temperature and humidity control assembly.Multiple replaceable receiving inserts are arranged in each storage module, for placing sample unit of different structure, satisfy the classification storage requirement of rubber detection sample.The device also includes foldable protective structure and airtight protection piece, for building heat insulation or visual storage environment.Through temperature and humidity control and modular structure cooperation, the efficiency and environmental adaptability of sample storage are improved.The device compact structure, convenient operation is suitable for laboratory rubber sample sorting, identification, storage and environmental protection.

Description

Technical Field

[0001] This utility model relates to the field of sample storage device technology, and in particular to a three-dimensional sorting and storage device for rubber product testing samples. Background Technology

[0002] In the process of rubber product performance testing or laboratory analysis, sample sorting, labeling, storage, and environmental maintenance are key aspects of the entire quality control process. With the increasing complexity of product testing projects and the growing diversity and batch sizes of test samples, traditional sample storage methods, such as fixed racks and general-purpose drawer cabinets, are no longer sufficient to meet the demands for diverse storage, rapid sample identification and management, and specific temperature and humidity control.

[0003] Existing sample storage systems are mostly simple in structure and limited in function. They usually cannot achieve personalized storage and identification management at the sample unit level. Some devices lack environmental control structures or have low space utilization efficiency, resulting in low efficiency for laboratory personnel in sample retrieval, environmental control and storage maintenance, and even causing sample damage or data confusion, affecting the accuracy of detection.

[0004] Solving the aforementioned technical problems is the challenge facing this utility model. Utility Model Content

[0005] To address the shortcomings of existing technologies, this utility model provides a reasonably designed, safe, and reliable three-dimensional sorting and storage device for rubber product testing samples. It enables three-dimensional sorting, classification, and storage of rubber testing samples in a controllable environment, improving sample management efficiency and storage stability. It is suitable for the standardized storage of various types of rubber product testing samples.

[0006] The technical solution adopted by this utility model to solve its technical problem is: a three-dimensional sorting and storage device for rubber product testing samples, including: a main frame, a top base at the top end and a bottom base at the bottom end, and an outer cover plate for sealing on the outside.

[0007] Several storage modules are evenly arranged along the length of the main frame, and each storage module is installed into the main frame by a pull-out component, and each storage module has a marking panel on its front end.

[0008] Several sets of locking components cooperate with the marking panel, and the marking panel is fixed to the main frame by the locking components;

[0009] Several sets of storage components are respectively set inside each of the storage modules, and each set of storage components has several storage compartments for placing rubber test samples, and each storage compartment has a sample unit for storing test samples.

[0010] Temperature and humidity control components are also provided, which are mounted on the main frame and work in conjunction with temperature channels located in each storage module to maintain the storage environment.

[0011] More preferably, the storage module includes:

[0012] The first base is located at the top of the storage module and cooperates with the pull-out assembly;

[0013] The second base is located at the bottom of the storage module and cooperates with the pull-out assembly;

[0014] A storage rectangular frame is located between the first base and the second base, and a temperature channel that cooperates with the temperature and humidity control component is horizontally arranged on it. The temperature channel is vertically arranged, and the marking panel is located on the front end face of the storage rectangular frame.

[0015] And a stabilizing backplate, which is arranged parallel to the marking panel and located on the back of the storage rectangular frame.

[0016] More preferably, the storage component includes:

[0017] Several support frames are arranged in the storage rectangular frame along the pull-out direction of the storage module;

[0018] Two sets of storage base plates are respectively set on both sides of the support frame, and each storage base plate has several insertion holes.

[0019] Two sets of storage plugs are respectively set on both sides of the support frame, and each storage plug is inserted into the insertion hole. Each set of storage plugs forms several storage compartments. The sample unit is stored on the storage substrate through the storage plugs.

[0020] Furthermore, two preferred structural designs for storage plugs are provided, as follows:

[0021] In the first structure, the storage plug-in includes

[0022] A storage rectangular rack is arranged parallel to the storage rectangular rack;

[0023] Several first partitions are horizontally arranged in the storage rectangular frame;

[0024] Several second partitions are vertically arranged in the storage rectangular frame and are perpendicular to the first partition;

[0025] And several plug-in terminals are provided at one side edge of the storage rectangular frame, the first partition and the second partition, and the plug-in terminals are inserted and fixed in the insertion holes of the storage substrate.

[0026] In the second structure, the storage plug-in includes:

[0027] A strip-shaped partition has several slots evenly distributed along its length on its side;

[0028] Several connecting rods, one end of which mates with the insertion hole and the other end of which mates with the socket;

[0029] It also includes several partitions, one end of which is provided with a clamping part that cooperates with the strip partition, and the partition is fixed to the strip partition by a stabilizing screw provided on the clamping part; and two adjacent partitions together with the strip partition form a storage compartment.

[0030] Based on the structural design of the aforementioned storage plug, the following are some preferred sample unit structural designs:

[0031] Firstly, the sample unit is a tray-type perforated mold base, which has a rectangular structure. The top of the tray has several through holes for inserting rubber test samples. The edges of the through holes are provided with limiting flange structures. The bottom of the tray has pin holes that match the storage plug and are easy to position and fix.

[0032] Secondly, the sample unit is a sample box with a sealed lid. The external dimensions of the sample box match the internal dimensions of the storage compartment. The sample box is used to independently store rubber test samples.

[0033] Third, the sample unit is a cylindrical clamping storage tube. The storage tube has a cylindrical structure and is equipped with an elastic buffer material inside for clamping and fixing the rubber sample. The two ends of the storage tube are equipped with detachable sealing caps or soft plugs, and the outer wall is marked with a code for identification. It is fixed in the storage compartment by a snap-fit ​​component.

[0034] Based on the structure of the storage component described above, the storage component further includes:

[0035] Two protective frames are arranged parallel to the storage rectangular frame and are respectively located on both sides of the storage rectangular frame;

[0036] Two sets of folding units are respectively located on both sides of the storage rectangular frame, and each set of folding units includes two folding units respectively located at the front end and rear end of the storage rectangular frame, and the protective frame is installed on the storage rectangular frame through the folding units;

[0037] Two sets of protective components are disposed on the protective frame, and together with the storage rectangular frame, they form an independent storage environment for preserving the sample.

[0038] More preferably, the locking assembly includes:

[0039] An electromagnet is mounted on the main frame;

[0040] A magnetic conductor is disposed on the marking panel of the storage module;

[0041] And an electronic control unit, through which the electromagnet is controlled.

[0042] Furthermore, the temperature and humidity control component is a compression refrigeration / heating cycle system, which includes a compressor, condenser, expansion valve, evaporator, heater, and humidity adjustment unit. The system is coordinated and controlled by a central controller, and the regulated air is delivered to each storage module through the temperature channel.

[0043] This invention employs a three-dimensional structural design, maximizing the utilization of limited space by compactly arranging several storage modules vertically and horizontally within the main frame. Compared to traditional planar storage methods, it can store more rubber test samples in a smaller footprint, significantly alleviating storage space pressure in laboratories or warehouses.

[0044] Each storage module in this invention can be independently pulled out from the main frame via a pull-out component. Combined with the marking panel at the front, this allows users to quickly locate and conveniently access specific batches or types of samples. The internal storage components of the module subdivide the space into storage compartments, and with the addition of diverse sample units, it achieves the classification, orderly placement, and precise management of rubber samples of different shapes and sizes, eliminating the problems of sample confusion or difficulty in locating samples.

[0045] This invention introduces a temperature and humidity control component, and delivers regulated air or media to each storage module through a temperature channel, ensuring that the temperature and humidity of the storage environment remain stable within the ideal range required by the samples. In particular, in some embodiments, the cooperation of the protective frame, folding unit, and protective components can create an independent, more airtight or thermally insulated microenvironment within the storage module, effectively isolating the samples from external environmental fluctuations, significantly extending the shelf life of rubber test samples, and ensuring the accuracy and reliability of the test results.

[0046] The locking assembly in this invention reliably locks the storage module within the main frame, preventing accidental slippage and ensuring operator safety and equipment stability. The electromagnetic locking assembly, combined with the electrical control unit and control system, provides interfaces for remote or automated operation, enhancing the device's intelligence level and allowing for easy integration into more complex automated sorting systems in the future, further improving efficiency. Attached Figure Description

[0047] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0048] Figure 2 This is a partial structural schematic diagram of the present invention;

[0049] Figure 3 This is a schematic diagram showing the combination of the storage module, the storage component, and the protective component of this utility model;

[0050] Figure 4 This is a schematic diagram of the storage module of this utility model;

[0051] Figure 5 This is a schematic diagram showing the storage module and some of the storage components of this utility model in combination;

[0052] Figure 6 This is an exploded view of the storage plug-in of this utility model;

[0053] The attached diagram is labeled as follows: 100, main frame; 110, top base; 120, bottom base; 130, outer cover plate; 200, storage module; 210, first base; 220, second base; 230, storage rectangular frame; 240, temperature channel; 250, stabilizing back plate; 260, marking panel; 300, pull-out assembly; 400, locking assembly; 500, storage assembly; 510, support frame; 520, storage base plate; 530, insertion hole; 540, storage plug; 541, storage rectangular frame; 542, first partition; 543, second partition; 544, plug-in end; 551, strip partition; 552, plug-in connecting rod; 553, partition plate; 554, clamping plate; 555, stabilizing screw; 600, protective assembly; 610, protective frame; 620, folding unit; 630, protective component. Detailed Implementation

[0054] See Figures 1 to 6 As shown, a three-dimensional sorting and storage device for rubber product testing samples includes: a main frame 100, with a top base 110 at its top end and a bottom base 120 at its bottom end, and an outer cover plate 130 for sealing the outside; the main frame 100 serves as the load-bearing skeleton of the entire device, providing stable structural support; the top base 110 and the bottom base 120 enhance the overall rigidity and stability of the main frame 100; and the outer cover plate 130 encloses the internal space of the main frame 100, forming a relatively independent and protected internal environment.

[0055] Several storage modules 200 are evenly arranged along the length of the main frame 100, and each storage module 200 is installed into the main frame 100 via a pull-out assembly 300. Each storage module 200 has a marking panel 260 on its front end. The storage module 200 is the basic unit for actually storing rubber test samples. It can freely move in and out of the main frame 100 along its length via the pull-out assembly 300, facilitating sample access for the user. The marking panel 260 not only displays the number or content information of the storage module 200 but also provides an operating interface for the user.

[0056] Several sets of locking components 400 cooperate with the marking panel 260, and the marking panel 260 is fixed to the main frame 100 by the locking components 400; the locking components 400 are used to reliably lock the storage module 200 when it is fully pushed into the main frame 100, to prevent the storage module 200 from accidentally sliding out in a non-operating state, and to ensure the stability and safety of the device.

[0057] Several sets of storage components 500 are respectively disposed inside each of the storage modules, and each set of storage components 500 has several storage compartments for placing rubber test samples, and each storage compartment has a sample unit 560 for storing the test samples; the storage component 500 is a sample management structure inside the storage module 200, and the storage compartments inside it can further subdivide the space of the storage module 200 to achieve refined management of single or small batches of samples. The sample unit 560, as a container or carrier that directly holds the rubber test samples, is placed in these storage compartments to ensure that the samples are stored in categories, easy to find and retrieve;

[0058] A temperature and humidity control component is provided, which is mounted on the main frame 100 and works in conjunction with the temperature channels 240 located in each storage module 200 to maintain the storage environment. The temperature and humidity control component is responsible for regulating the microenvironment inside the storage module 200 and delivering regulated air or medium to each storage module 200 through the temperature channels 240, thereby providing a stable and suitable temperature and humidity environment for the rubber test samples to delay sample aging and maintain the stability of its performance.

[0059] More preferably, the storage module 200 includes:

[0060] The first base 210 is located at the top of the storage module 200 and cooperates with the pull-out assembly 300;

[0061] The second base 220 is located at the bottom of the storage module 200 and cooperates with the pull-out assembly 300 to ensure that the storage module 200 moves smoothly and stably along the guide rail during the pull-out process.

[0062] The storage rectangular frame 230 is located between the first base 210 and the second base 220, and a temperature channel 240 that cooperates with the temperature and humidity control component is horizontally arranged on it. The temperature channel 240 is vertically arranged, and the marking panel 260 is arranged at the front end of the storage rectangular frame 230. These channels serve as the transport path for the temperature and humidity regulating medium, ensuring that the regulating medium generated by the temperature and humidity control component can be evenly diffused into each storage compartment of the storage module 200, thereby achieving overall temperature and humidity control.

[0063] And a stabilizing backplate 250, which is arranged parallel to the marking panel 260 and located on the back of the storage rectangular frame 230; the stabilizing backplate 250 provides structural enclosure and reinforcement for the storage module 200, and at the same time helps to form a closed environment inside the module, which, together with the temperature channel 240, achieves more effective temperature and humidity control.

[0064] More preferably, the storage component 500 includes:

[0065] Several support frames 510 are arranged in the storage rectangular frame along the pull-out direction of the storage module 200;

[0066] Two sets of storage base plates 520 are respectively disposed on both sides of the support frame 510, and each storage base plate 520 has a plurality of insertion holes 530.

[0067] Two sets of storage plugs 540 are respectively disposed on both sides of the support frame 510, and each storage plug 540 is plugged into the insertion hole 530. Each set of storage plugs 540 forms several storage compartments. The sample unit 560 is stored on the storage substrate 520 through the storage plugs 540.

[0068] Furthermore, two preferred structural designs for the storage plug 540 are provided, as detailed below:

[0069] In the first structure, the storage plug-in 540 includes

[0070] The storage rectangular frame 541 is arranged parallel to the storage rectangular frame 230;

[0071] Several first partitions 542 are horizontally arranged in the storage rectangular frame 541;

[0072] Several second partitions 543 are vertically arranged in the storage rectangular frame 541 and are perpendicular to the first partition 542;

[0073] And a number of plug-in ends 544 are disposed on one side edge of the storage rectangular frame 541, the first partition 542 and the second partition 543, and the plug-in ends 544 are plugged into and fixed in the plug holes 530 of the storage substrate 520.

[0074] The insertion end 544 is a flange or snap-fit ​​structure, used to form a snap-fit ​​or limiting connection with the insertion hole 530. The first partition 542 and the second partition 543 together define a preset number of storage compartments.

[0075] In the second structure, the storage plug-in 540 includes:

[0076] The strip-shaped partition 551 has several slots evenly provided along its length on its side;

[0077] Several connecting rods 552, one end of which mates with the insertion hole 530 and the other end of which mates with the insertion port;

[0078] And several partition plates 553, one end of which is provided with a clamping part 554 that cooperates with the strip partition plate 551, and the partition plate 553 is fixed to the strip partition plate 551 by a stabilizing screw 555 provided on the clamping part 554; and two adjacent partition plates 553 together with the strip partition plate 551 form a storage compartment.

[0079] The size of the storage compartment can be adjusted according to the insertion position of the partition plate 553.

[0080] Based on the structural design of the aforementioned storage plug 540, several sample unit 560 structural designs are preferably provided as follows:

[0081] Firstly, the sample unit 560 is a tray-type perforated mold base. The tray-type perforated mold base has a rectangular structure and several through holes on its top for inserting rubber test samples. The edges of the through holes are provided with limiting flange structures. The bottom of the tray is provided with pin holes that match the storage plug-in 540 and are easy to position and fix.

[0082] Secondly, the sample unit 560 is a sample box with a sealed lid. The external dimensions of the sample box match the internal dimensions of the storage compartment. The sample box is used to independently store rubber test samples.

[0083] Third, the sample unit 560 is a cylindrical clamping storage tube. The storage tube has a cylindrical structure and is equipped with an elastic buffer material inside for clamping and fixing the rubber sample. The two ends of the storage tube are equipped with detachable closed caps or soft plugs, and the outer wall is marked with a code for identification. It is fixed in the storage compartment by a snap-fit ​​component.

[0084] Based on the structure of the storage component 500 described above, the storage component 500 further includes:

[0085] Two protective frames 610 are arranged parallel to the storage rectangular frame 230 and are respectively located on both sides of the storage rectangular frame 230;

[0086] Two sets of folding units 620 are respectively disposed on both sides of the storage rectangular frame 230, and each set of folding units 620 includes two folding units 620 respectively disposed at the front end and rear end of the storage rectangular frame 230, and the protective frame 610 is installed on the storage rectangular frame 230 through the folding units;

[0087] Two sets of protective components 630 are disposed on the protective frame 610, and together with the storage rectangular frame 230, they constitute an independent storage environment for preserving samples.

[0088] The folding unit 620 is a multi-section telescopic rod structure, comprising several coaxially fitted rod segments. These segments are locked together via limiting latches or friction engagement. One end of the multi-section telescopic rod structure is hinged to the protective frame 610, and the other end is hinged to the storage rectangular frame 230. When the multi-section telescopic rod structure is fully extended, it supports the protective frame 610 in the unfolded position. When the multi-section telescopic rod structure is retracted, it folds the protective frame 610 towards the storage rectangular frame 230 for storage. This multi-section telescopic rod structure provides stable linear support and maximizes space saving during storage.

[0089] In addition, it can also be configured as a folding telescopic frame structure.

[0090] The protective component 630 includes several protective covers, one end of which is rotatably connected to the protective frame 610, and the other end of which is fixedly connected to the protective frame 610 through a locking structure.

[0091] The protective cover is made of thermal insulation board, which is composed of multiple layers of composite materials, including at least one inner insulation layer, such as polyurethane foam, vacuum insulation board or aerogel, and an outer protective layer, such as a metal plate or engineering plastic plate. The edge of the thermal insulation board is provided with a sealing structure, such as a groove with a sealing strip. The sealing structure is tightly fitted with the inner side of the protective frame 610 and the corresponding edge of the storage rectangular frame 230. The thermal insulation board can effectively block the exchange of heat between the inside and outside, thus forming a highly insulated independent storage environment together with the protective frame 610 and the storage rectangular frame 230.

[0092] In addition, the protective cover is made of a transparent sealing plate, which is made of a highly transparent and impact-resistant material, such as polycarbonate or acrylic sheet. The edge of the transparent sealing plate is provided with a sealing strip, which is tightly fitted to the inner edge of the protective frame 610 and the corresponding edge of the storage rectangular frame 230. Through the pressing action of the sealing strip, the transparent sealing plate, the protective frame 610 and the storage rectangular frame 230 together form an airtight or semi-airtight independent storage environment, which is convenient for observing the condition of the internal samples.

[0093] More preferably, the locking assembly 400 includes:

[0094] An electromagnet is mounted on the main frame 100;

[0095] A magnetic conductor is disposed on the marking panel 260 of the storage module 200;

[0096] And an electronic control unit, through which the electromagnet is controlled.

[0097] In addition, it also includes an electromagnetic lock that is compatible with the structure of the locking assembly 400.

[0098] The electromagnet is a suction cup type, and its attraction force can be selected according to the required locking force. The electromagnetic adsorption locking mechanism is connected to the control system of the device, and remote or automatic locking / unlocking is achieved through control commands. The magnetic conductor is made of a high magnetic permeability material, such as soft iron, to improve adsorption efficiency. In addition, the electromagnetic adsorption locking mechanism can automatically unlock or remain unlocked in the event of a power outage to deal with emergencies.

[0099] Furthermore, the structure of the aforementioned pull-out component 300 is basically the same as that of existing pull-out tracks and other structures, so this article will not elaborate further.

[0100] Furthermore, the temperature and humidity control component is a compression refrigeration / heating cycle system, which includes a compressor, condenser, expansion valve, evaporator, heater, and humidity adjustment unit; the system is coordinated and controlled by a central controller, and the regulated air is delivered to each storage module 200 through the temperature channel 240.

[0101] Specifically, the humidity control unit includes a moisture absorption and dehumidification module or an ultrasonic humidification module to dehumidify or humidify as needed.

[0102] The piping and duct systems are equipped with insulation layers and sealing structures to reduce energy loss and ensure the accuracy of airflow.

[0103] The central controller has data logging and remote monitoring functions to facilitate real-time tracking of temperature and humidity changes and fault diagnosis.

[0104] The compression refrigeration / heating cycle system has an energy-saving mode that optimizes energy consumption while meeting the set temperature and humidity range.

[0105] The technical features of this utility model not described can be implemented by or by using existing technology, and will not be repeated here. Of course, the above description is not a limitation of this utility model, and this utility model is not limited to the examples above. Any changes, modifications, additions or substitutions made by those skilled in the art within the scope of this utility model should also be within the protection scope of this utility model.

Claims

1. A three-dimensional sorting and storage device for rubber product testing samples, characterized in that, include: The main frame (100) has a top base (110) at its top and a bottom base (120) at its bottom, and an outer cover plate (130) for sealing on its outer side. Several storage modules (200) are evenly arranged along the length of the main frame (100), and each storage module (200) is installed into the main frame (100) through a pull-out component (300), and each storage module (200) has a marking panel (260) on its front end. Several sets of locking components (400) cooperate with the marking panel (260), and the marking panel (260) is fixed to the main frame (100) by the locking components (400); Several sets of storage components (500) are respectively disposed inside each of the storage modules, and each set of storage components (500) has several storage compartments for placing rubber test samples, and each storage compartment has a sample unit (560) for storing test samples. The temperature and humidity control components are disposed on the main frame (100) and cooperate with the temperature channels (240) located in each storage module (200) to maintain the storage environment.

2. The three-dimensional sorting and storage device for rubber product testing samples as described in claim 1, characterized in that, The storage module (200) includes: The first base (210) is located at the top of the storage module (200) and cooperates with the pull-out assembly (300); The second base (220) is located at the bottom of the storage module (200) and cooperates with the pull-out assembly (300); The storage rectangular frame (230) is located between the first base (210) and the second base (220), and a temperature channel (240) that cooperates with the temperature and humidity control component is horizontally arranged on it. The temperature channel (240) is vertically arranged, and the marking panel (260) is located on the front end face of the storage rectangular frame (230). And a stabilizing back plate (250), which is arranged parallel to the marking panel (260) and located on the back of the storage rectangular frame (230).

3. The three-dimensional sorting and storage device for rubber product testing samples as described in claim 2, characterized in that, The storage component (500) includes: Several support frames (510) are arranged in the storage rectangular frame along the pull-out direction of the storage module (200); Two sets of storage base plates (520) are respectively disposed on both sides of the support frame (510), and each storage base plate (520) has several insertion holes (530). Two sets of storage plugs (540) are respectively set on both sides of the support frame (510), and each storage plug (540) is plugged into the insertion hole (530). Each set of storage plugs (540) forms several storage compartments. The sample unit (560) is stored on the storage substrate (520) through the storage plugs (540).

4. The three-dimensional sorting and storage device for rubber product testing samples as described in claim 3, characterized in that, The storage plug-in (540) includes A storage rectangular rack (541) is arranged parallel to the storage rectangular rack (230); Several first partitions (542) are horizontally arranged in the storage rectangular frame (541); Several second partitions (543) are vertically arranged in the storage rectangular frame (541) and perpendicular to the first partition (542); And several plug-in terminals (544) are disposed on one side edge of the storage rectangular frame (541), the first partition (542) and the second partition (543), and the plug-in terminals (544) are plugged into and fixed in the insertion holes (530) of the storage substrate (520).

5. A three-dimensional sorting and storage device for rubber product testing samples as described in claim 3, characterized in that, The storage plug-in (540) includes: A strip-shaped partition (551) has several slots evenly provided along its length on its side; Several connecting rods (552) are connected at one end to the insertion hole (530) and at the other end to the socket; And several partitions (553), one end of which is provided with a clamping part (554) that cooperates with the strip partition (551), and the partitions (553) are fixed to the strip partition (551) by a stabilizing screw (555) provided on the clamping part (554); and two adjacent partitions (553) together with the strip partition (551) form a storage compartment.

6. A three-dimensional sorting and storage device for rubber product testing samples as described in claim 3, characterized in that, The sample unit (560) is a tray-type perforated mold base. The tray-type perforated mold base has a rectangular structure and several through holes on its top for inserting rubber test samples. The edges of the through holes are provided with limiting flange structures. The bottom of the tray is provided with pin holes that match the storage plug (540) and are easy to position and fix.

7. A three-dimensional sorting and storage device for rubber product testing samples as described in claim 3, characterized in that, The sample unit (560) is a cylindrical clamping storage tube. The storage tube has a cylindrical structure and is equipped with an elastic buffer material inside for clamping and fixing the rubber sample. The two ends of the storage tube are equipped with detachable closed caps or soft plugs, and the outer wall is marked with a code for identification. It is fixed in the storage compartment by a snap-fit ​​component.

8. A three-dimensional sorting and storage device for rubber product testing samples as described in claim 3, characterized in that, The storage component (500) also includes: Two protective frames (610) are arranged parallel to the storage rectangular frame (230) and are respectively located on both sides of the storage rectangular frame (230); Two sets of folding units (620) are respectively disposed on both sides of the storage rectangular frame (230), and each set of folding units (620) includes two folding units (620) respectively disposed at the front end and rear end of the storage rectangular frame (230), and the protective frame (610) is installed on the storage rectangular frame (230) through the folding units; And two sets of protective components (630) are disposed on the protective frame (610), and together with the storage rectangular frame (230), they constitute an independent storage environment for preserving the sample.

9. A three-dimensional sorting and storage device for rubber product testing samples as described in claim 1, characterized in that, The locking assembly (400) includes: An electromagnet is mounted on the main frame (100); A magnetic conductor is disposed on the marking panel (260) of the storage module (200); And an electronic control unit, through which the electromagnet is controlled.

10. A three-dimensional sorting and storage device for rubber product testing samples as described in claim 1, characterized in that, The temperature and humidity control component is a compression refrigeration / heating cycle system, which includes a compressor, condenser, expansion valve, evaporator, heater and humidity adjustment unit. The system is coordinated and controlled by a central controller and the regulated air is delivered to each storage module (200) through the temperature channel (240).

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