A kit for multiplexed detection

Abstract

The utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample joint detection applied to kit field, and the utility model discloses a kit for multiple sample

Description

Technical Field

[0001] This utility model relates to the field of reagent kits, and in particular to a reagent kit for multi-sample combined detection. Background Technology

[0002] Multi-sample combined detection kits are important tools in the field of medical testing. They are mainly used to process multiple samples (such as blood, feces, etc.) for combined detection and are widely used in clinical diagnosis, disease screening and laboratory research.

[0003] A vaginitis combined detection kit, with authorization announcement number CN206244803U, is disclosed in the prior art, including a kit body. This vaginitis combined detection kit integrates multiple detection functions, provides comprehensive detection, can assess vaginal health from multiple perspectives, is simple to operate, convenient to use, can be disassembled, and has low maintenance costs.

[0004] The prior art discloses a reagent kit for the combined detection of multiple gene mutations, with authorization announcement number CN213893368U. The reagent kit for the combined detection of multiple gene mutations provided by this utility model has a simple and reasonable structural design, facilitates transportation and storage, and reduces the impact of light and vibration during transportation on the reagents; it is easy and quick to operate, and provides visual markings for users, reducing the possibility of adding too many, adding the wrong, or missing samples.

[0005] In the prior art, traditional reagent kits often adopt a single-chamber design or lack a clear error-proofing structure. The placement of sample boxes and reagent kits relies on manual judgment, which can easily lead to problems such as misplacement or reverse insertion when novice operators operate, resulting in cross-contamination or detection failure. The multi-sample joint detection reagent kit proposed in this application, through targeted structural design and replaceable components, is adapted to users with different levels of operational proficiency, thereby improving detection efficiency and accuracy. Utility Model Content

[0006] 1. Technical problems to be solved

[0007] The core of this utility model lies in solving the problems of single-chamber design or lack of clear error prevention structure in the existing technology, which easily leads to misplacement and reverse insertion when novice operators operate. At the same time, it sets up replaceable components to adapt to users with different levels of operating proficiency.

[0008] 2. Technical Solution

[0009] To solve the above problems, the present invention adopts the following technical solution.

[0010] A multi-sample combined detection kit includes a box assembly. The box assembly includes a square box. A cavity 1 is formed on the upper left side of the square box, and a storage box 1 is placed inside the cavity 1. A cavity 2 is formed on the upper right side of the square box, and a storage box 2 is placed inside the cavity 2. A lid is hinged to the upper end of the square box, and an observation window is fixedly connected to the center of the lid. A storage drawer is slidably connected to the lower front side of the square box. A temperature control assembly is fixedly connected between the cavity 1 and the cavity 2. The component includes a partition cavity, with heat-conducting side plates fixedly connected to the front and rear inner walls of the partition cavity, a heat source insert plate placed at the inner end of the partition cavity, and a differential docking assembly movably connected to the lower inner wall of the cavity two. The differential docking assembly includes an irregularly shaped slot opened on the lower inner wall of the cavity two, with multiple springs fixedly connected to the lower inner wall of the irregularly shaped slot, and irregularly shaped sliders fixedly connected to the upper ends of the multiple springs. A downward-pressing linkage irregularly shaped frame is fixedly connected to the right end of the storage box two, and the downward-pressing linkage irregularly shaped frame and the irregularly shaped slider are interlocked.

[0011] Furthermore, the lower end of the storage box two is fixedly connected to a misoperation suppression component, which includes a rectangular docking block fixedly connected to the lower end of the storage box two, and a rectangular docking slot is provided on the lower inner wall of the cavity two.

[0012] Furthermore, a tapered docking rod is fixedly connected to the lower end of the storage box, and a tapered docking slot is provided on the lower inner wall of the cavity.

[0013] Furthermore, an information traceability component is fixedly connected to the right end of the square box. The information traceability component includes a smart control panel, and a transparent protective cover is hinged to the right end of the smart control panel.

[0014] Additionally, the front end of the square box is optionally and preferably fixedly connected with a visual cueing sign component.

[0015] Furthermore, the visual cue sign component includes two number sequence cue blocks, which are located on the front sides of storage box one and storage box two, respectively.

[0016] Furthermore, a strip-shaped matching block is fixedly connected to the front end of storage box one and the front end of the square box, and a direction matching block is fixedly connected to the front end of storage box two and the square box.

[0017] 3. Beneficial Effects

[0018] Compared with existing technologies, the advantages of this utility model are:

[0019] (1) This solution uses the irregular snap-fit ​​structure of the differential docking component and the elastic reset effect of the spring to forcibly limit the placement order and direction of the second storage box. Combined with the rectangular and conical mutual exclusion design of the misoperation suppression component, it avoids misoperation such as cross-cavity misplacement and reverse insertion from the physical structure, provides hard constraints for novices, and significantly reduces the risk of sample contamination or detection failure caused by lack of operation skills.

[0020] (2) At the same time, the temperature control component transmits the temperature of the heat source insertion piece evenly to cavity one and cavity two through the heat-conducting side plate, thereby providing a stable temperature environment for the sample and avoiding sample failure due to temperature fluctuations. The intelligent control panel and transparent protective cover of the information traceability component enable real-time input of detection data and safety protection. The observation window and storage drawer of the box component simplify the process of checking the status and taking out tools, reducing the burden of operation for novices, especially suitable for non-professional scenarios such as primary medical initial examination and student experiments.

[0021] (3) The visual prompting sign component forms a lightweight guide through number sequence prompt blocks, bar matching blocks and direction matching blocks, retaining the core operation logic while reducing redundant constraints, which meets the needs of skilled operators for efficient processes. At the same time, the sign component has a simple structure, which is conducive to controlling the overall manufacturing cost. Attached Figure Description

[0022] Figure 1 This is an isometric view of the box assembly of this utility model;

[0023] Figure 2 For the present utility model Figure 1 Enlarged view of a partial truncation of the differential docking component;

[0024] Figure 3 This is a structural diagram of the rectangular mating plug of this utility model;

[0025] Figure 4 This is a structural diagram of the tapered docking rod of this utility model;

[0026] Figure 5 This is a structural diagram of the information traceability component of this utility model;

[0027] Figure 6 This is a structural diagram of the visual cue sign component of this utility model;

[0028] Figure 7 For the present utility model Figure 6 Enlarged view of a partial truncated section of the visual cue sign component.

[0029] Explanation of the labels in the diagram:

[0030] 1. Box assembly; 100. Cavity 1; 101. Box lid; 102. Storage box 1; 103. Storage box 2; 104. Square box; 105. Storage drawer; 106. Observation window; 107. Cavity 2; 2. Temperature control assembly; 200. Partition cavity; 201. Heat-conducting side plate; 202. Temperature source insertion plate; 3. Differential docking assembly; 300. Irregular slot; 301. Spring; 302. Irregular slider; 304. Downward linkage irregular frame; 4. Misoperation suppression assembly; 400. Rectangular docking block; 401. Rectangular docking slot; 402. Conical docking rod; 403. Conical docking slot; 5. Information traceability assembly; 500. Intelligent control panel; 501. Transparent protective cover; 6. Visual prompting and marking assembly; 600. Strip matching block; 601. Number sequence prompt block; 602. Direction matching block. Detailed Implementation

[0031] The technical solution will now be clearly and completely described with reference to the accompanying drawings in the embodiments of this utility model.

[0032] Example 1:

[0033] Please see Figures 1-5 The system includes a box assembly 1, which comprises a square box 104. A cavity 100 is formed on the upper left side of the square box 104, and a storage box 102 is placed inside the cavity 100. A cavity 2 107 is formed on the upper right side of the square box 104, and a storage box 2 103 is placed inside the cavity 2 107. A lid 101 is hinged to the upper end of the square box 104, and an observation window 106 is fixedly connected to the center of the lid 101. A storage drawer 105 is slidably connected to the lower front side of the square box 104. A temperature control assembly 2 is fixedly connected between the cavity 100 and the cavity 2 107. The temperature control assembly 2 includes a partition... The partition cavity 200 has heat-conducting side plates 201 fixedly connected to its front and rear inner walls. A heat source insert plate 202 is placed at the inner end of the partition cavity 200. A differential docking assembly 3 is movably connected to the lower inner wall of the cavity 2 107. The differential docking assembly 3 includes an irregularly shaped slot 300 opened on the lower inner wall of the cavity 2 107. Multiple springs 301 are fixedly connected to the lower inner wall of the irregularly shaped slot 300. An irregularly shaped slider 302 is fixedly connected to the upper end of the multiple springs 301. A downward-pressing linkage irregularly shaped frame 304 is fixedly connected to the right end of the storage box 2 103. The downward-pressing linkage irregularly shaped frame 304 and the irregularly shaped slider 302 are interlocked.

[0034] The lower end of storage box 2 103 is fixedly connected to a misoperation suppression component 4. The misoperation suppression component 4 includes a rectangular docking block 400 fixedly connected to the lower end of storage box 2 103. A rectangular docking slot 401 is provided on the lower inner wall of cavity 2 107. A conical docking rod 402 is fixedly connected to the lower end of storage box 1 102. A conical docking slot 403 is provided on the lower inner wall of cavity 1 100. An information traceability component 5 is fixedly connected to the right end of square box 104. The information traceability component 5 includes a smart control panel 500. A transparent protective cover 501 is hinged to the right end of the smart control panel 500.

[0035] Please see Figures 1-5 In this design, the square box 104 of the box assembly 1 is divided into a left cavity 100 and a right cavity 2 107, which are used to place storage boxes 102 and 2 103 respectively, enabling the classified storage of different samples or reagents. The box cover 101, which is hinged at the top, can be closed to protect the internal components. The observation window 106 in the middle allows for direct viewing of the internal state of the cavity. The storage drawer 105 at the bottom front can centrally store testing tools or consumables, improving operational convenience. The partition cavity 200 has a built-in temperature source insert 202, which can optionally be a phase change cold source. The heat-conducting side plates 201 on the front and rear inner walls evenly conduct heat to both sides of the cavity, ensuring that the sample or reagent in the storage box is within a suitable temperature range and avoiding the impact of temperature fluctuations on detection accuracy. The differential docking component 3 at the bottom of the cavity 2 107 achieves precise positioning of the storage box 2 103 through structural adaptation. The spring 301 in the irregular slot 300 supports the irregular slider 302. When the storage box 2 103 is placed in, the downward-pressing linkage irregular frame 304 on its right end engages with the irregular slider 302, and the elastic force of the spring ensures that the two fit tightly together. Only then can the placement position of storage box 2 103 be fully opened smoothly, allowing storage box 2 103 to be inserted smoothly and preventing incorrect placement or reverse insertion. The misoperation suppression component 4 further enhances the error prevention function. The rectangular docking block 400 at the lower end of storage box 2 103 matches the rectangular docking slot 401 at the bottom of cavity 2 107, while the conical docking rod 402 at the lower end of storage box 1 102 can only be inserted into the conical docking slot 403 of cavity 1 100. The rectangular and conical irregular designs create mutual exclusion. The structure completely avoids the accidental placement of two storage boxes across the cavity. The information traceability component 5 realizes the recording and protection of test data. The intelligent control panel 500 on the right end of the square box 104 can record sample information, test parameters and other data. The transparent protective cover 501 connected by its hinge can protect the panel from contamination when closed without affecting the viewing of information, ensuring the integrity of the traceability chain. This embodiment is designed for novice users with less testing experience. The multi-structure cooperation provides clear operation feedback, reduces the risk of misoperation, and is suitable for primary medical initial testing, student experiments and other scenarios.

[0036] Example 2:

[0037] Please see Figures 6-7 A visual cueing component 6 is fixedly connected to the front end of the square box 104. The visual cueing component 6 includes two number sequence cueing blocks 601, which are located on the front side of the first storage box 102 and the second storage box 103, respectively. A strip matching block 600 is fixedly connected to the front end of the first storage box 102 and the square box 104, and a direction matching block 602 is fixedly connected to the front end of the second storage box 103 and the square box 104, respectively.

[0038] The visual cueing component 6 enhances operational guidance through multiple markings. The number sequence indicator block 601 on the front of storage box 102 and storage box 2 103 indicates the operation sequence. The strip matching block 600 on the front of storage box 102 and the square box 104, and the direction matching block 602 on the front of storage box 2 103 and the square box 104, intuitively indicate the correct placement direction through shape and position correspondence, reducing human error. As an alternative solution, the visual cueing component 6 meets the needs of skilled operators for efficient processes. At the same time, the component has a simple structure, which helps to control the overall manufacturing cost.

[0039] The above are merely preferred embodiments of this utility model; they encompass all the protection scope of this utility model. Any equivalent substitutions or modifications made by those skilled in the art within the technical scope disclosed in this utility model, based on the technical solution and its improved concept, should be covered within the protection scope of this utility model.

Claims

1. A multi-sample combined detection kit, comprising a housing assembly (1), characterized in that: The box assembly (1) includes a square box (104). A cavity 1 (100) is provided on the upper left side of the square box (104). A storage box 1 (102) is placed inside the cavity 1 (100). A cavity 2 (107) is provided on the upper right side of the square box (104). A storage box 2 (103) is placed inside the cavity 2 (107). A box cover (101) is hinged to the upper end of the square box (104). An observation window (106) is fixedly connected to the middle of the box cover (101). A storage drawer (105) is slidably connected to the lower front side of the square box (104). A temperature control assembly (2) is fixedly connected between the cavity 1 (100) and the cavity 2 (107). The temperature control assembly (2) includes a partition. The middle cavity (200) has heat-conducting side plates (201) fixedly connected to the front and rear inner walls of the middle cavity (200) respectively. A heat source insert plate (202) is placed at the inner end of the middle cavity (200). A differential docking assembly (3) is movably connected to the lower inner wall of the second cavity (107). The differential docking assembly (3) includes a shaped slot (300) opened on the lower inner wall of the second cavity (107). A plurality of springs (301) are fixedly connected to the lower inner wall of the shaped slot (300). A shaped slider (302) is fixedly connected to the upper end of the plurality of springs (301). A downward linkage shaped frame (304) is fixedly connected to the right end of the second storage box (103). The downward linkage shaped frame (304) and the shaped slider (302) are mutually engaged.

2. The multi-sample combined detection kit according to claim 1, characterized in that: The lower end of the storage box 2 (103) is fixedly connected to a misoperation suppression component (4). The misoperation suppression component (4) includes a rectangular docking block (400) fixedly connected to the lower end of the storage box 2 (103). The lower inner wall of the cavity 2 (107) is provided with a rectangular docking slot (401).

3. The multi-sample combined detection kit according to claim 2, characterized in that: The lower end of the storage box (102) is fixedly connected to a tapered docking rod (402), and the lower inner wall of the cavity (100) is provided with a tapered docking slot (403).

4. The multi-sample combined detection kit according to claim 1, characterized in that: The right end of the square box (104) is fixedly connected to an information traceability component (5), which includes a smart control panel (500).

5. The multi-sample combined detection kit according to claim 4, characterized in that: The right end of the intelligent control panel (500) is hinged to a transparent protective cover (501), and the front end of the square box (104) is fixedly connected to a visual prompting label component (6).

6. The multi-sample combined detection kit according to claim 5, characterized in that: The visual cueing component (6) includes two number sequence cue blocks (601), which are located on the front sides of storage box one (102) and storage box two (103), respectively.

7. A multi-sample combined detection kit according to claim 6, characterized in that: The front ends of the storage box one (102) and the square box body (104) are respectively fixedly connected to strip matching blocks (600), and the front ends of the storage box two (103) and the square box body (104) are respectively fixedly connected to direction matching blocks (602).

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