Kit packaging device

Abstract

The utility model discloses a kit packaging device. The kit packaging device comprises a basic half box body (1), an extension half box body (2) and a baffle (3), the basic half box body and the stretching half box body are assembled together through a stretching and expanding mechanism to form a stretching and expanding box body; the baffle is transversely arranged in the telescopic expansion box body, and the baffle and the telescopic expansion box body are locked together through a clamping hook locking mechanism. And a telescopic locking mechanism is arranged on the telescopic expansion box body. According to the kit packaging device disclosed by the utility model, a plurality of kits can be integrated together to form a form capable of being stably placed, so that the situation that the kits topple over in the daily management and transportation process can be avoided, the stability of the forms of the reagents in the kits is ensured, and the normal application of the reagents is ensured.

Description

Technical Field

[0001] The utility model relates to a medical consumables arranging device, in particular to a reagent box container device. Background Art

[0002] In the daily work of the hospital laboratory, the test kits are transported from the reagent cold storage to the corresponding instruments on a daily basis. Most test kits are tall and thin. During transportation, if you are not careful, the test kits may fall over, which may lead to the following consequences:

[0003] 1) Bubbles are generated in the reagent kit. When the instrument draws the reagent, the amount of reagent drawn will be less due to the presence of bubbles, thus affecting the test results;

[0004] 2) Some test kits contain magnetic beads. Tipping over the test kit may cause the magnetic beads to remain on the lid of the test kit, affecting the concentration of the magnetic beads in the reagent and thus affecting the test results.

[0005] 3) Some instruments will stop using the reagent in the test kit immediately when bubbles are detected in the test kit, resulting in the specimens tested in the instrument lacking the items detected by the reagent. The inspector needs to pick out the specimens with the missing items and retest them, which increases the workload of the inspector and affects the TAT.

[0006] In short, during daily transportation management, we should try our best to avoid the situation where the test kits are tipped over.

[0007] The current problem is that it is difficult to avoid the occurrence of test kit dumping due to the current management and transportation methods of the test kits. Summary of the Invention

[0008] The purpose of the utility model is to provide a reagent kit container device, which can integrate a plurality of reagent kits together to form a shape that can be stably placed.

[0009] In order to achieve the above technical objectives, the present invention adopts the following technical solutions:

[0010] A reagent kit container device includes a basic half box, an extension half box and a baffle; the basic half box and the extension half box are assembled together through a telescopic extension mechanism to form a telescopic extension box; the baffle lies across the telescopic extension box and is locked to the telescopic extension box through a hook locking mechanism.

[0011] Furthermore, the basic half box and the extended half box are assembled together through a telescopic expansion mechanism, and its specific structural form is: one side of the basic half box serves as an extension side, and the extension side is open without side walls; the opposite two sides of the extended half box serve as a contraction side and an expansion side respectively, and the contraction side and the expansion side are both open without side walls; the extension side of the basic half box is assembled and connected with the contraction side of the extended half box through the telescopic expansion mechanism.

[0012] Furthermore, the telescopic expansion mechanism is a telescopic plate mechanism; the extension side of the basic half box is assembled and connected with the contraction side of the extension half box through the telescopic expansion mechanism. Specifically, the extension side of the bottom plate of the basic half box is assembled and connected with the contraction side of the bottom plate of the extension half box through the telescopic plate mechanism.

[0013] Furthermore, the telescopic plate mechanism is specifically implemented in the form of a structure in which the bottom plate of the basic half box body is arranged into a bar configuration at a portion close to the extension side; an extension plate is extended outward from the contraction side of the bottom plate of the extended half box body, and the extension plate is arranged into a bar configuration; the bars of the bottom plate of the basic half box body and the bars of the extension plate of the extended half box body are assembled together in a mutually embedded form to form the telescopic plate mechanism.

[0014] Furthermore, a limited transverse partition is provided in the telescopic plate mechanism.

[0015] Furthermore, a telescopic locking mechanism is provided on the telescopic expansion box.

[0016] Furthermore, the telescopic locking mechanism is two pairs of rocker arm clamping mechanisms arranged on both sides of the telescopic expansion box body, and the specific implementation structure of the rocker arm clamping mechanism is: a row of several clamping grooves are provided on the outer wall of the basic half box body; a connecting rod is provided on the outer wall of the extension half box body, and the connecting rod is assembled on the outer wall of the extension half box body through a hinge; a snap-in block is provided on the swinging end of the connecting rod; the connecting rod can swing to the snap-in groove on the basic half box body based on the outer wall of the extension half box body, and the snap-in block on the swinging end of the connecting rod can be snapped into the snap-in groove; the connecting rod and the snap-in groove are combined to constitute the rocker arm clamping mechanism.

[0017] Furthermore, the baffle is locked together with the telescopic expansion box through a hook locking mechanism, and its specific structural form is: hooks that can swing up and down are provided at the two corners on the upper side of the baffle, and the hooks are connected to the baffle assembly through hinges. The hooks can swing up and down based on the corners of the baffle, and when swinging downward, the hook heads of the hooks face downward; hook grooves are provided at the edges on both sides of the upper opening of the extension half box and the basic half box; when the baffle lies across the telescopic expansion box, the hook on the baffle is swung downward, and the hook can swing to the position of the hook groove, and the hook head can be locked in the hook groove; the hook and the hook groove are combined to form the hook locking mechanism.

[0018] Compared with the existing technology, the reagent kit container device of the present invention has the following advantages: the reagent kit container device of the present invention can integrate several reagent kits together to form a shape that can be placed stably. In this way, the reagent kits can be prevented from tipping over during daily management and transportation, thereby ensuring the stability of the reagent shape in the reagent kit and guaranteeing the normal use of the reagents. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 This is a schematic diagram of the structure of the test kit container device of the utility model;

[0020] Figure 2 for Figure 1 Schematic diagram of the swing end of the middle connecting rod;

[0021] Figure 3 This is a schematic diagram of integrating a test kit using the test kit container device of the present invention. DETAILED DESCRIPTION

[0022] The present invention will be further described below with specific embodiments:

[0023] This embodiment provides a reagent kit container device, which is used to integrate a plurality of reagent kits 7 together to form a stable placement shape, thereby preventing the reagent kits 7 from tipping over during daily management and transportation.

[0024] See also Figure 1 The reagent kit container device of this embodiment includes two half boxes. For the convenience of description, one of the large half boxes is called the basic half box 1, and the other smaller half box is called the extended half box 2.

[0025] The basic half box 1 as a whole is configured as "a box with an open top and no side wall on one side in the length direction". For the convenience of description, the side of the basic half box 1 without side wall is called the "extended side" (the right side of the basic half box 1 in the figure).

[0026] The extended half box 2 as a whole is like "a box with an open top and no side walls on both sides in the length direction". For the convenience of description, one of the two side walls of the extended half box 2 is called the "contraction side" (the left side of the extended half box 2 in the figure), and the other side is called the "expansion side" (the right side of the extended half box in the figure).

[0027] The extension side of the basic half box 1 is assembled and connected with the contraction side of the extension half box 2 through a telescopic extension mechanism. The basic half box 1 is assembled with the extension half box 2 through the telescopic extension mechanism to form a telescopic extension box.

[0028] Based on the telescopic expansion mechanism, the basic half box 1 and the extension half box 2 can be moved closer or farther away, so that the entire telescopic expansion box can be "contracted to become smaller" or "expanded to become larger".

[0029] In this embodiment, the telescopic expansion mechanism is actually a telescopic plate mechanism 4 provided between the bottom plates of the basic half box 1 and the extension half box 2. The previously mentioned "basic half box 1 is assembled with the extension half box 2 through the telescopic expansion mechanism" is actually that the extension side of the bottom plate of the basic half box 1 is assembled and connected with the contraction side of the bottom plate of the extension half box 2 through the telescopic plate mechanism 4, thereby realizing the assembly between the basic half box 1 and the extension half box 2.

[0030] The telescopic plate mechanism 4 is specifically implemented in the following structural form:

[0031] The bottom plate of the basic half box 1 at a side close to the extension half box 2, or in other words, at a side close to the extension side, is configured as a grid bar configuration. Correspondingly, the bottom plate of the extension half box 2 at a side close to the basic half box 1, or in other words, at the contraction side of the extension half box 2, extends outward for a section. For the convenience of description, the extended section is referred to as an extension plate, which is also configured as a grid bar configuration. The "grid bars of the bottom plate of the basic half box 1" and the "grid bars of the extension plate of the extension half box 2" are assembled together in a mutually embedded form to form the telescopic plate mechanism 4.

[0032] In addition, in order to prevent the "bars of the bottom plate of the basic half box 1" and the "bars of the extension plate of the extended half box 2" from separating, limited horizontal partitions are set on the bars of both. When the limited horizontal partitions of the two are pressed against each other, the telescopic plate mechanism 4 can no longer be extended, thereby preventing the bars of the basic half box 1 and the bars of the extended half box 2 from separating.

[0033] In addition, in order to lock the telescopic extension position of the telescopic extension box, a telescopic locking mechanism is provided on the telescopic extension box. Specifically, the telescopic locking mechanism is provided between the basic half box 1 and the extension half box 2.

[0034] In this embodiment, the telescopic locking mechanism adopts a rocker arm clamping mechanism 5, and the specific implementation structure of the rocker arm clamping mechanism 5 is as follows:

[0035] A row of five square snap grooves 52 are provided on the outer wall of the basic half box 1 (the specific number of snap grooves can be set as needed). This row of snap grooves 52 is arranged along the telescopic direction of the telescopic extension box, and the five snap grooves 52 are distributed at discrete intervals; accordingly, a connecting rod 51 is provided on the outer wall of the extension half box 2, and the connecting rod 51 is assembled on the outer wall of the extension half box 2 through a hinge, that is, the connecting rod 51 can swing based on the outer wall of the extension half box 2, and it swings on the horizontal plane.

[0036] For the convenience of description, the end of the connecting rod 51 that is assembled and connected to the extended half box 2 is called the hinge end, and the other end of the connecting rod 51 is called the swing end. Figure 2 A snap-in block 53 is provided on the swinging end of the connecting rod 51. The connecting rod 51 can swing along the outer wall of the extension half-box 2 to the snap-in slot 52 on the base half-box 1, whereupon the snap-in block 53 snaps into the snap-in slot 52. The combination of the connecting rod 51 and the snap-in slot 52 forms the swing-rod snap-in mechanism 5.

[0037] The connecting rod 51 not only locks the basic half box 1 and the extended half box 2, but also seals the side gap between the basic half box 1 and the extended half box 2. In this way, the reagent kit that is in the side gap in the telescopic extension box will not slide out from the side gap.

[0038] It should be noted that, in this embodiment, rocker arm latching mechanisms 5 are provided on both side edges of the telescopic expansion box, so that a more stable locking effect can be achieved.

[0039] The reagent kit container device of this embodiment includes a baffle 3, which is used to close the extended side of the extension half box 2 and even the extended side of the basic half box 1; thereby closing the open side of the entire telescopic extension box, and then forming a complete box without a gap.

[0040] Specifically,

[0041] The configuration of the baffle 3 matches the inner configuration of the basic half box 1 and the extended half box 2, or in other words, it matches the inner configuration of the entire telescopic extension box. The baffle 3 can span the inside of the basic half box 1 or the extended half box 2, or in other words, span the inside of the telescopic extension box, thereby achieving the effect of partitioning the internal space of the basic half box 1 or the extended half box 2.

[0042] At each corner of the baffle 3's upper side are hooks 31 that swing upward and downward. These hooks 31 are hinged to the baffle 3, allowing them to swing upward and downward based on the corners of the baffle 3. When swinging downward, the hooks 31 face downward. Correspondingly, hook slots 61 are located on both sides of the upper edges of the extension half-box 2 and the base half-box 1. These slots run along the upper edges of both the extension half-box 2 and the base half-box 1. When the baffle 3 lies across the extended half box 2 or the basic half box 1, the hook 31 on the baffle 3 is swung downward, and the hook 31 can be swung to the position of the hook groove 61. Under the pressure of external force, the hook head of the hook 31 can be inserted into the hook groove 61, thereby achieving the effect of snap-on locking. In this way, the position of the baffle 3 in the extended half box 2 or the basic half box 1 can be locked, or in other words, its position in the telescopic extension box can be locked, thereby achieving the function of adjusting the capacity of the telescopic extension box and compacting the test kit in the telescopic extension box to prevent it from shaking and tipping over.

[0043] The structural form of the combination of the hook 31 and the hook groove 61 actually constitutes a locking mechanism. For the convenience of distinguishing the description, the locking mechanism is called a hook locking mechanism. Its function is generally to lock the baffle 3 in the horizontal position in the telescopic expansion box.

[0044] It should be noted that in this embodiment, rubber pads are provided inside the hook 31 and the hook groove 61. This increases the friction at the connection between the hook 31 and the hook groove 61, facilitating a secure connection between the hook 31 and the hook groove 61 and preventing the hook 31 from shifting horizontally within the hook groove 61, which would create a gap between the reagent kits 7 and prevent the reagents from being stabilized.

[0045] See also Figure 3 The specific method of using the reagent kit container device of this embodiment is as follows:

[0046] First, the distance between the base half-case 1 and the extension half-case 2 is widened, and a certain number of reagent kits 7 are neatly arranged and placed in the telescopic extension case formed by the base half-case 1 and the extension half-case 2. Then, the distance between the base half-case 1 and the extension half-case 2 is appropriately adjusted, and the connecting rod 51 is swung to the snap groove 52 and snapped into the snap groove 52, thereby locking the relative position between the base half-case 1 and the extension half-case 2, or in other words, locking the extension length of the telescopic extension case. Then, the baffle 3 is placed in the telescopic extension case, so that the baffle 3 abuts one end of the neatly arranged reagent kits 7, thereby gathering all the reagent kits 7 in the telescopic extension case together. When it is necessary to reduce or increase the number of reagent kits 7 in the telescopic extension case, it is only necessary to adjust the extension length of the telescopic extension case, or in other words, adjust the relative distance between the base half-case 1 and the extension half-case 2, then lock the position and adjust the position of the baffle 3 in the telescopic extension case, which is very convenient.

[0047] It should be noted that, in other embodiments, the telescopic expansion mechanism can be implemented using various mechanisms in the prior art, as long as it can achieve the functional effect of "enabling the distance between the extended half box 2 and the basic half box 1 to be telescopic."

[0048] The reagent kit container device of this embodiment can integrate several reagent kits together to form a shape that can be placed stably. In this way, the reagent kits can be prevented from tipping over during daily management and transportation, thereby ensuring the stability of the reagent shape in the reagent kit and guaranteeing the normal use of the reagents.

[0049] Furthermore, the test kit container is expandable and contractible, allowing for flexible adjustment of storage space based on the number of test kits to be integrated. The uncapped design of the test kit container allows for no height restrictions and accommodates test kits of varying sizes.

[0050] The above are only preferred embodiments of the present invention and are not intended to limit the scope of protection of the present invention. Therefore, any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A reagent container device, characterized in that: The reagent kit container device comprises a basic half box (1), an extended half box (2) and a baffle (3); The basic half box (1) and the extended half box (2) are assembled together through a telescopic extension mechanism to form a telescopic extension box; The baffle (3) lies across the telescopic expansion box, and the baffle (3) is locked together with the telescopic expansion box via a hook locking mechanism.

2. The reagent kit container according to claim 1, characterized in that: The basic half box (1) and the extended half box (2) are assembled together through a telescopic expansion mechanism, and the specific structural form thereof is: One side of the basic half box (1) serves as an extended side, and the extended side is open without a side wall; The two opposite sides of the extended half box (2) serve as a contraction side and an expansion side respectively, and both the contraction side and the expansion side are open without side walls; The extension side of the basic half box (1) is assembled and connected with the contraction side of the extension half box (2) through the telescopic expansion mechanism.

3. The reagent kit container according to claim 2, characterized in that: The telescopic expansion mechanism is a telescopic plate mechanism (4); the extension side of the basic half box (1) is assembled and connected with the retracted side of the extension half box (2) through the telescopic expansion mechanism. Specifically, the extension side of the bottom plate of the basic half box (1) is assembled and connected with the retracted side of the bottom plate of the extension half box (2) through the telescopic plate mechanism (4).

4. The reagent kit container according to claim 3, wherein: The telescopic plate mechanism (4) is specifically implemented in the following structural form: The bottom plate of the basic half box (1) is provided with a grid bar configuration at a portion close to the extension side; An extension plate extends outward from the contraction side of the bottom plate of the extended half box (2), and the extension plate is arranged in a grid bar configuration; The gratings of the bottom plate of the basic half box (1) and the gratings of the extension plate of the extension half box (2) are assembled together in a mutually embedded form, thereby forming the telescopic plate mechanism (4).

5. The reagent kit container according to claim 4, characterized in that: A limited transverse barrier is provided in the telescopic plate mechanism (4).

6. The reagent kit container according to claim 1, characterized in that: The telescopic extension box is provided with a telescopic locking mechanism.

7. The reagent kit container according to claim 6, characterized in that: The telescopic locking mechanism is composed of two pairs of rocker arm clamping mechanisms (5) arranged on both sides of the telescopic expansion box. The specific implementation structure of the rocker arm clamping mechanism (5) is as follows: A row of a plurality of snap grooves (52) is provided on the outer side wall of the basic half box (1); A connecting rod (51) is provided on the outer side wall of the extended half box (2), and the connecting rod (51) is assembled on the outer side wall of the extended half box (2) through a hinge; A snap-in block (53) is provided on the swing end of the connecting rod (51); The connecting rod (51) can swing to the buckle groove (52) on the basic half box (1) based on the outer side wall of the extended half box (2), and the snap-in block (53) on the swinging end of the connecting rod (51) can be snapped into the buckle groove (52); The connecting rod (51) and the snap groove (52) are combined together to form the swing arm snap connection mechanism (5).

8. The reagent kit container according to claim 1, characterized in that: The baffle (3) is locked together with the telescopic expansion box through a hook locking mechanism, and its specific structural form is: A hook (31) capable of swinging up and down is provided at both corners of the upper side of the baffle (3). The hook (31) is assembled and connected to the baffle (3) via a hinge. The hook (31) can swing up and down based on the corners of the baffle (3), and when swinging downward, the hook head of the hook (31) faces downward. Hook grooves (61) are provided on both sides of the upper opening edges of the extended half box (2) and the basic half box (1); When the baffle (3) is positioned across the telescopic expansion box, the hook (31) on the baffle (3) is swung downward, and the hook (31) is swung to the position of the hook slot (61), and the hook head of the hook (31) is able to be engaged with the hook slot (61); The hook (31) and the hook groove (61) are combined together to form the hook locking mechanism.

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