Anti-adhesion tissue stationary liquid treatment container

Abstract

The utility model relates to the related technical field of tissue stationary liquid, in particular to an anti-adhesion tissue stationary liquid treatment container which comprises a wide-mouth bottle, an anti-adhesion net plate is arranged in the wide-mouth bottle, and a sealing assembly is arranged at a bottle opening of the wide-mouth bottle. According to the anti-adhesion tissue stationary liquid treatment container, a threaded connection structure composed of the threaded groove and the threaded block provides a basic sealing and fastening function, the thread pitch and thread form integrating degree is high, strong axial pressure can be generated in the screwing process, the sealing cover is promoted to be tightly attached to the extending bottle opening, stationary liquid volatilization channels are greatly reduced, and the sealing effect is improved. A limiting locking structure composed of a limiting block, a limiting hole, a telescopic spring and the like is used for reinforcing and supplementing threaded connection, the connecting strength of the sealing cover and the extending bottle opening is further enhanced, the sealing cover can be effectively prevented from loosening when the container is vibrated and collided by external force or slight pressure change is generated due to chemical reaction of stationary liquid in the container, and the service life of the sealing cover is prolonged. And the sealing long-term effect is ensured.

Description

Technical Field

[0001] This utility model relates to the field of tissue fixative technology, and in particular to a tissue fixative treatment container that prevents adhesion. Background Technology

[0002] Tissue fixatives are essential reagents used in pathological research, medical diagnosis, and biological experiments to preserve and fix biological tissue samples. Their core function is to react with biomolecules such as proteins and nucleic acids within tissue cells through chemical substances, rapidly coagulating or precipitating these substances. This keeps the morphology and structure of cells and tissues as close as possible to that of living tissues, preventing autolysis and putrefaction. This provides a stable and morphologically intact sample base for subsequent experimental operations such as section preparation, staining observation, and immunohistochemical analysis. However, traditional tissue fixative containers have many problems in practical applications and cannot meet the needs of modern pathological research and medical diagnosis. Therefore, there is a particular need for a tissue fixative container that prevents adhesion.

[0003] Traditional tissue fixative containers lack effective anti-adhesion measures. During fixation, tissue samples easily stick together or adhere to the container walls. Once adhesion occurs, it not only affects the uniform penetration of the fixative into the tissue, leading to poor fixation results, but also causes tissue damage and tearing when the tissue samples are subsequently removed, compromising tissue integrity and affecting the accuracy and reliability of pathological analysis. At the same time, the sealing cap of traditional tissue fixative containers is not tightly fitted to the container body, easily resulting in gaps. This allows the fixative to evaporate, causing reagent waste, contaminating the laboratory environment, and posing a health hazard to operators. In addition, poor sealing allows external dust, bacteria, and other impurities to easily enter the container, contaminating the fixative and tissue samples, affecting the tissue fixation effect and subsequent research. Utility Model Content

[0004] The purpose of this invention is to provide a tissue fixative processing container that prevents adhesion. The container has multiple layers of anti-adhesion mesh and multiple sets of isolation balls inside, which avoids direct contact between samples and effectively prevents tissue adhesion through spatial layout. At the same time, a sealing structure is added at the bottle mouth, which solves the problems of traditional tissue fixative processing containers that lack effective anti-adhesion measures and have insufficient sealing.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a tissue fixation solution treatment container for preventing adhesion, comprising a wide-mouth bottle, wherein an anti-adhesion mesh plate is provided inside the wide-mouth bottle, the surface of the anti-adhesion mesh plate is provided with mesh holes, an isolation ball is filled between the anti-adhesion mesh plate and the bottle wall of the wide-mouth bottle, a stirring assembly is provided at the bottom of the wide-mouth bottle, and a sealing assembly is provided at the mouth of the wide-mouth bottle;

[0006] The sealing assembly includes an extended bottle neck, the bottom end of which is fixedly connected to the surface of the mouth of a wide-mouth bottle. A threaded groove is formed on the outer wall of the extended bottle neck, and a sealing cap is threadedly connected to the outer wall of the extended bottle neck. A threaded block is threadedly connected to the inner side of the sealing cap, and a silicone rope is connected to the upper surface of the sealing cap. A positioning hole is formed on the inner side of the extended bottle neck, and a telescopic spring is fixedly connected to the inner end of the positioning hole. A limit plate is fixedly connected to the other end of the telescopic spring, and a limit block is fixedly connected to the outer end of the limit plate. A limit hole is formed on the inner side of the sealing cap.

[0007] Preferably, the anti-sticking mesh is provided in multiple sets at equal intervals inside the wide-mouth bottle, and the mesh holes are evenly distributed in multiple sets on the surface of the anti-sticking mesh.

[0008] Preferably, the isolation balls are filled in multiple sets in different sizes in the gaps between the anti-adhesion mesh plates and between the anti-adhesion mesh plates and the bottle wall of the wide-mouth bottle.

[0009] Preferably, the stirring assembly includes a bottom shell, the upper surface of which is mounted on the outer side of the bottom of the wide-mouth bottle, a drive motor is installed inside the bottom shell, a rotating shaft is connected to the output end of the drive motor, a stirring shaft is fixedly connected above the rotating shaft, a spiral blade is fixedly connected to the surface of the stirring shaft, and a waterproof sealing plate is fixedly connected to the inner bottom side of the wide-mouth bottle.

[0010] Preferably, the rotating shaft and the drive motor cooperate to form a rotating structure, and the rotating shaft passes through the bottom of the wide-mouth bottle and is fixedly connected to the stirring shaft inside the wide-mouth bottle.

[0011] Preferably, the surface of the spiral blade is smooth, and the surface of the waterproof sealing plate is coated with waterproof sealant.

[0012] Preferably, the sealing cap is threadedly connected to the extended bottle mouth via a threaded block and a threaded groove, and the dimensions of the threaded block and the threaded groove are closely matched.

[0013] Preferably, the limiting plate and the limiting block cooperate to form a telescopic structure, and the outer wall size of the limiting block matches the inner wall size of the limiting hole.

[0014] Compared with the prior art, the beneficial effects of this utility model are:

[0015] 1. This anti-adhesion tissue fixative processing container, through the arrangement of anti-adhesion mesh plates, mesh openings, and isolation balls, divides the interior of a wide-mouth bottle into multiple relatively independent spaces by setting up multiple sets of equally spaced anti-adhesion mesh plates. Tissue samples can be placed in different mesh plate areas in layers, avoiding direct contact between samples and effectively preventing tissue adhesion from the spatial layout. The uniformly distributed mesh openings on the mesh plate surface ensure that the tissue fixative can flow freely between the spaces, allowing the fixative to fully contact each tissue sample and ensuring the uniformity and integrity of tissue fixation. Isolation balls of different sizes can better adapt to gaps of various shapes and sizes, playing a comprehensive anti-adhesion role and ensuring that tissue samples remain dispersed and independent during the fixation process, providing reliable samples for high-quality pathological research.

[0016] 2. This anti-adhesion tissue fixative treatment container, through the setting of the sealing components, provides a basic sealing and fastening function through the threaded connection structure composed of the extended bottle mouth, threaded groove, and threaded block. The high pitch and thread profile fit generates strong axial pressure during tightening, causing the sealing cap to fit tightly with the extended bottle mouth, significantly reducing the evaporation channels of the fixative. The limiting and locking structure composed of components such as the limiting block, limiting hole, and telescopic spring further strengthens the connection between the sealing cap and the extended bottle mouth, and effectively prevents the sealing cap from loosening when the container is subjected to external vibration, collision, or slight pressure changes caused by the chemical reaction of the fixative inside, ensuring the long-term effectiveness of the seal. Attached Figure Description

[0017] Figure 1 This is a side view of the structure of the present utility model;

[0018] Figure 2 This is a schematic diagram of the internal structure of this utility model;

[0019] Figure 3 This is a schematic diagram of the structure of the anti-adhesion mesh plate and the isolation ball of this utility model.

[0020] Figure 4 This is a schematic diagram of the stirring assembly structure of this utility model;

[0021] Figure 5 This is a schematic diagram of the sealing assembly structure of this utility model;

[0022] Figure 6 This utility model Figure 5 Enlarged structural diagram at point A in the middle.

[0023] In the diagram: 1. Wide-mouth bottle; 2. Anti-stick mesh plate; 3. Mesh; 4. Isolation ball; 5. Stirring assembly; 501. Bottom shell; 502. Drive motor; 503. Rotating shaft; 504. Stirring shaft; 505. Spiral blade; 506. Waterproof sealing plate; 6. Sealing assembly; 601. Extended bottle mouth; 602. Threaded groove; 603. Sealing cap; 604. Threaded block; 605. Silicone rope; 606. Positioning hole; 607. Telescopic spring; 608. Limiting plate; 609. Limiting block; 610. Limiting hole. Detailed Implementation

[0024] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0025] Please see Figure 1-6 This utility model provides a technical solution: a tissue fixation solution treatment container for preventing adhesion, including a wide-mouth bottle 1, an anti-adhesion mesh plate 2 is provided inside the wide-mouth bottle 1, the surface of the anti-adhesion mesh plate 2 is provided with mesh holes 3, an isolation ball 4 is filled between the anti-adhesion mesh plate 2 and the bottle wall of the wide-mouth bottle 1, a stirring assembly 5 is provided at the bottom of the wide-mouth bottle 1, and a sealing assembly 6 is provided at the bottle mouth of the wide-mouth bottle 1.

[0026] The sealing assembly 6 includes an extended bottle neck 601, the bottom end of which is fixedly connected to the surface of the mouth of the wide-mouth bottle 1. A threaded groove 602 is formed on the outer wall of the extended bottle neck 601. A sealing cap 603 is threadedly connected to the outer wall of the extended bottle neck 601. A threaded block 604 is threadedly connected to the inner side of the sealing cap 603. A silicone rope 605 is connected to the upper surface of the sealing cap 603. A positioning hole 606 is formed on the inner side of the extended bottle neck 601. A telescopic spring 607 is fixedly connected to the inner end of the positioning hole 606. A limit plate 608 is fixedly connected to the other end of the telescopic spring 607. A limit block 609 is fixedly connected to the outer end of the limit plate 608. A limiting hole 610 is provided on the inner side of the sealing cap 603. When sealing the wide-mouth bottle 1, the sealing cap 603 is aligned with the extended bottle opening 601, so that the threaded block 604 on the inner side of the sealing cap 603 is aligned with the threaded groove 602 on the outer wall of the extended bottle opening 601. The sealing cap 603 is then rotated. As the sealing cap 603 is continuously rotated, when the limiting hole 610 moves to the position aligned with the limiting block 609, the compressed telescopic spring 607 returns to its elastic deformation, pushing the limiting plate 608 and the limiting block 609 outwards and precisely engaging them in the limiting hole 610. At this point, the inner side of the sealing cap 603 aligns with the extended bottle opening. The 601 and 602 threads fit tightly together, and the multi-layered sealing structure formed between the sealing cap 603 and the wide-mouth bottle 1 effectively prevents the evaporation of the fixative and prevents external dust, bacteria, and other impurities from entering the wide-mouth bottle 1. This ensures that the tissue sample fixation process inside the wide-mouth bottle 1 is in a stable and sealed environment, guaranteeing the fixation effect and sample safety. When it is necessary to open the sealing cap 603, the operator pulls the silicone rope 605. The silicone rope 605 transmits the tension to the sealing cap 603. As the tension increases, the edge of the limiting hole 610 on the inner side of the sealing cap 603 applies a pushing force to the limiting block 609, forcing the limiting block to... The positioning block 609 drives the limiting plate 608 to move into the positioning hole 606. At this time, the telescopic spring 607 is compressed and stores elastic potential energy. When the limiting block 609 is completely retracted into the positioning hole 606, the limiting block 609 and the limiting hole 610 are released from the limiting constraint. Then the operator can rotate the sealing cap 603. Since the threaded groove 602 on the outer wall of the extended bottle mouth 601 is threadedly connected to the threaded block 604 on the inner side of the sealing cap 603, by rotating the sealing cap 603, the sealing cap 603 is gradually rotated out along the threaded groove 602, thereby realizing the opening of the sealing cap 603, which facilitates the insertion or removal of tissue samples, the addition of fixative, and other operations into the wide-mouth bottle 1.

[0027] Furthermore, multiple sets of anti-adhesion mesh plates 2 are evenly spaced inside the wide-mouth bottle 1, and multiple sets of mesh holes 3 are evenly distributed on the surface of the anti-adhesion mesh plates 2. Through the arrangement of the anti-adhesion mesh plates 2 and mesh holes 3, the multiple sets of equally spaced anti-adhesion mesh plates 2 divide the interior of the wide-mouth bottle 1 into multiple relatively independent spaces. Tissue samples can be placed in different mesh plate areas in layers, avoiding direct contact between samples and effectively preventing tissue adhesion from the spatial layout. The evenly distributed mesh holes 3 on the surface of the mesh plate ensure that the tissue fixative can flow freely between the spaces, so that the fixative can fully contact each tissue sample, ensuring the uniformity and integrity of tissue fixation.

[0028] Furthermore, multiple sets of isolation balls 4 of varying sizes are filled in the gaps between the anti-adhesion mesh plates 2 and between the anti-adhesion mesh plates 2 and the wall of the wide-mouth bottle 1. Through the arrangement of the isolation balls 4, the isolation balls 4 of varying sizes fill the gaps between the anti-adhesion mesh plates 2 and between the anti-adhesion mesh plates 2 and the wall of the wide-mouth bottle 1, further preventing tissue samples from getting close and adhering. When the stirring component 5 is working, the flow of the fixative liquid will drive the isolation balls 4 to roll continuously. During the rolling process, the isolation balls 4 will continuously change position, forming a dynamic separating force on the surrounding tissue samples, pushing the tissues that are close to each other apart. Even if the tissue samples are displaced due to the flow of liquid, the isolation balls 4 can block them in time, preventing tissues from adhering to each other, tissues from adhering to the bottle wall or mesh plate. In addition, the isolation balls of different sizes can better adapt to gaps of various shapes and sizes, playing a comprehensive role in preventing adhesion, ensuring that the tissue samples always remain dispersed and independent during the fixation process, providing reliable samples for high-quality pathological research.

[0029] Furthermore, the stirring assembly 5 includes a bottom shell 501, the upper surface of which is mounted on the outer bottom of the wide-mouth bottle 1. A drive motor 502 is installed inside the bottom shell 501, and the output end of the drive motor 502 is connected to a rotating shaft 503. A stirring shaft 504 is fixedly connected above the rotating shaft 503, and spiral blades 505 are fixedly connected to the surface of the stirring shaft 504. A waterproof sealing plate 506 is fixedly connected to the bottom inside the wide-mouth bottle 1. Through the arrangement of the stirring assembly 5, when it is necessary to fix the tissue sample inside the wide-mouth bottle 1, the drive motor 502 in the stirring assembly 5 is activated. Installed inside the bottom shell 501, which is securely mounted on the outer side of the bottom of the wide-mouth bottle 1, the drive motor 502 is protected and supported. When the drive motor 502 is powered on, it converts electrical energy into mechanical energy, and its output drives the rotating shaft 503 to rotate. The rotating shaft 503 passes through the bottom of the wide-mouth bottle 1 and is fixedly connected to the upper stirring shaft 504, thus transmitting the rotational power to the stirring shaft 504. The spiral blades 505 fixed to the surface of the stirring shaft 504 then begin to rotate. The unique spiral shape of the spiral blades 505 generates axial and radial thrust on the stationary liquid during rotation, causing the stationary liquid to move along... The stirring shaft 504 circulates vertically in the axial direction, while simultaneously propelling the fixative in a circular motion within the wide-mouth bottle 1. This creates a complex circulating flow path within the container, ensuring the fixative is evenly distributed to all corners of the bottle 1 and fully contacts the tissue sample. The waterproof sealing plate 506, fixedly connected to the bottom of the wide-mouth bottle 1, plays a crucial role in this process. It isolates the drive motor 502, the rotating shaft 503, and the fixative inside the bottle 1, preventing leakage and damage to the motor. This ensures the continuous and stable operation of the stirring assembly 5 and also guarantees... The sealed interior of the wide-mouth bottle 1 prevents leakage of the fixative and the entry of external impurities. With the continuous operation of the stirring assembly 5, the circulation of the fixative not only accelerates the tissue fixation speed but also prevents uneven fixation of tissue samples due to excessively high or low local fixative concentrations. At the same time, the flowing fixative pushes the isolation ball 4 to roll continuously, which, together with the anti-adhesion mesh plate 2, further enhances the anti-adhesion effect, ensuring that the tissue samples remain dispersed throughout the fixation process, providing a good sample foundation for subsequent high-quality pathological studies. After the tissue fixation is completed, the drive motor 502 is turned off, and the stirring assembly 5 stops working.

[0030] Furthermore, the rotating shaft 503 and the drive motor 502 cooperate to form a rotating structure. The rotating shaft 503 passes through the bottom of the wide-mouth bottle 1 and is fixedly connected to the stirring shaft 504 inside the wide-mouth bottle 1. Through the setting of the drive motor 502 and the rotating shaft 503, the rotating structure formed by the drive motor 502 and the rotating shaft 503 provides a stable and strong power source for the stirring shaft 504 and the spiral blades 505. After the drive motor 502 is powered on, it efficiently converts electrical energy into mechanical energy by its own electromagnetic conversion principle, driving the rotating shaft 503 to rotate at high speed. The rotating shaft 503 passes through the bottom of the wide-mouth bottle 1 and is fixedly connected to the stirring shaft 504, which can accurately and stably transmit the power of the drive motor 502 to the inside of the wide-mouth bottle 1, ensuring that the stirring shaft 504 and the spiral blades 505 rotate at a constant speed, thereby driving the fixative to continuously circulate and flow, so that the fixative and tissue sample are in full contact, which greatly improves the efficiency and uniformity of tissue fixation, and also avoids problems such as poor stirring effect caused by unstable power transmission.

[0031] Furthermore, the surface of the spiral blade 505 is smooth, and the surface of the waterproof sealing plate 506 is coated with waterproof sealant. The spiral blade 505 slides into the waterproof sealing plate 506. The smooth surface of the spiral blade 505 effectively reduces fluid resistance during the stirring of the fixative, allowing the fixative to flow more smoothly under the propulsion of the spiral blade 505, forming a highly efficient circulating stirring effect. This avoids situations where excessive resistance leads to poor flow and uneven stirring of the fixative. The waterproof sealant coated on the surface of the waterproof sealing plate 506 forms a tight waterproof barrier. On the one hand, it prevents the fixative in the wide-mouth bottle 1 from leaking into the area where the drive motor 502 is located, protecting the drive motor 502 from liquid corrosion and extending its service life. On the other hand, it ensures that the inside of the wide-mouth bottle 1 is sealed, preventing the fixative from evaporating and external impurities from entering, ensuring the safety and effectiveness of the tissue fixation process. These two elements work together to ensure the stable and reliable operation of the stirring assembly 5.

[0032] Furthermore, the sealing cap 603 is threadedly connected to the extension bottle neck 601 via a threaded block 604 and a threaded groove 602. The dimensions of the threaded block 604 and the threaded groove 602 are closely matched. Through the arrangement of the threaded groove 602 and the threaded block 604, the threaded connection method of the threaded block 604 and the threaded groove 602 provides a firm and tight connection structure between the sealing cap 603 and the extension bottle neck 601. When the sealing cap 603 is rotated, the threaded block 604 spirals forward along the threaded groove 602, gradually achieving a tight fit between the sealing cap 603 and the extension bottle neck 601. This tight threaded fit can effectively increase the friction between the sealing cap 603 and the extension bottle neck 601, preventing the sealing cap 603 from loosening on its own when the container is subjected to collisions, shaking, or changes in internal pressure, ensuring the sealing of the container, effectively preventing the evaporation of fixative and the entry of external dust, bacteria, and other contaminants into the container, creating a stable and safe environment for the fixation of tissue samples.

[0033] Furthermore, the limiting plate 608, through the cooperation of the telescopic spring 607 and the limiting block 609, forms a telescopic structure. The outer wall dimension of the limiting block 609 matches the inner wall dimension of the limiting hole 610. Through the setting of the limiting block 609 and the limiting hole 610, and the matching size design of the limiting block 609 and the limiting hole 610, a precise limiting and locking structure is formed in conjunction with the telescopic spring 607. When the sealing cap 603 is tightened on the extended bottle mouth 601, the telescopic spring 607 pushes the limiting block 609 to extend outward and precisely engage with the limiting hole 610. Within 10, a mechanical limit is formed, further enhancing the connection stability between the sealing cap 603 and the extended bottle mouth 601, preventing the sealing cap 603 from accidentally rotating and loosening during use, and ensuring that the container's sealing performance is not compromised. When it is necessary to open the sealing cap 603, pulling the silicone rope causes the limit block 609 to retract into the positioning hole 606, releasing the limit lock, making it convenient for operators to quickly and easily open the sealing cap 603. The entire process is simple to operate and safe and reliable, effectively ensuring the convenience and sealing performance of the tissue fixation fluid treatment container.

[0034] Working principle: First, before using the container, the operator checks the condition of the sealing assembly 6 to ensure that the threaded block 604 and limiting hole 610 of the sealing cap 603, as well as the threaded groove 602 and limiting block 609 of the extension bottle mouth 601, are undamaged and fit well. Then, the sealing cap 603 is opened, and the silicone rope 605 is pulled to compress the telescopic spring 607, causing the limiting block 609 to retract into the positioning hole 606. After releasing the limiting block, the sealing cap 603 is rotated to unscrew it from the extension bottle mouth 601. Subsequently, according to the quantity, size, and type of the tissue sample, the tissue sample is evenly placed in different layers of the mesh area using the layered structure of the anti-adhesion mesh plate 2. The mesh openings 3 of the anti-adhesion mesh plate 2 allow the fixative to pass through freely, ensuring that all parts of the sample can contact the fixative. After placing the sample, pour an appropriate amount of tissue fixative into the wide-mouth bottle 1. The fixative penetrates through the mesh 3 to each layer, submerging the tissue sample and filling the gaps between the anti-adhesion mesh plates 2 and the bottle wall, also immersing the isolation ball 4. Align the sealing cap 603 with the extended bottle mouth 601, aligning the threaded block 604 with the threaded groove 602. Slowly rotate the sealing cap 603. As the sealing cap 603 is screwed in, when the limiting hole 610 corresponds to the limiting block 609, the telescopic spring 607 returns to its original deformation, pushing the limiting block 609 into the limiting hole 610, completing the double locking of the sealing cap 603 and ensuring the wide-mouth bottle 1 is sealed. Then, start the drive motor 502 of the stirring assembly 5. After the motor is powered on, it converts electrical energy into mechanical energy, driving the rotating shaft 503 to rotate at high speed. The rotating shaft 503, passing through the bottom of the wide-mouth bottle 1, stably transmits power to the stirring shaft 504, causing the spiral blades 505 to rotate. The unique shape of the spiral blades 505 generates axial and radial thrust on the fixative during rotation, creating a complex flow path within the wide-mouth bottle 1 that combines vertical circulation with circular motion. On one hand, the circulating flow of the fixative ensures full contact with the tissue sample, accelerating the fixation process and guaranteeing uniform fixation. On the other hand, the flowing fixative pushes the isolation balls 4 of varying sizes to continuously roll. During this rolling process, the isolation balls 4 continuously separate adjacent tissue samples, preventing sample adhesion and avoiding sample sticking to the mesh and bottle wall, further enhancing the anti-adhesion effect. During the fixation process, the operator can observe the sample through the transparent wide-mouth bottle. 1. Observe the fixation status of the tissue sample and the flow of the fixative in the bottle. If any abnormality is found, adjust the speed of the stirring component 5 or check the sealing of the container at any time. After the tissue sample is fixed, turn off the drive motor 502, the stirring component 5 stops working, and the flow of the fixative gradually stops. Pull the silicone rope 605 again to retract the limiting block 609 into the positioning hole 606, releasing the limitation on the sealing cap 603. Then rotate the sealing cap 603 to unscrew it from the extension bottle mouth 601 to open the wide-mouth bottle 1. Finally, use a special tool to carefully remove the tissue sample from the anti-adhesion mesh plate 2 for subsequent pathological research operations such as sectioning, staining, and observation. After removing the sample, clean and disinfect the wide-mouth bottle 1, anti-adhesion mesh plate 2, isolation ball 4, and other components.This completes the process of using a tissue fixative treatment container that prevents adhesion, preparing it for the next use.

[0035] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A tissue fixative treatment container for preventing adhesion, comprising a wide-mouth bottle (1), characterized in that: The wide-mouth bottle (1) is provided with an anti-sticking mesh plate (2) inside, and the surface of the anti-sticking mesh plate (2) is provided with mesh holes (3). The space between the anti-sticking mesh plate (2) and the bottle wall of the wide-mouth bottle (1) is filled with isolation balls (4). The bottom of the wide-mouth bottle (1) is provided with a stirring assembly (5), and the mouth of the wide-mouth bottle (1) is provided with a sealing assembly (6). The sealing assembly (6) includes an extended bottle mouth (601), the bottom end of which is fixedly connected to the surface of the mouth of the wide-mouth bottle (1). The outer wall of the extended bottle mouth (601) is provided with a threaded groove (602). A sealing cap (603) is threadedly connected to the outer wall of the extended bottle mouth (601). A threaded block (604) is threadedly connected to the inner side of the sealing cap (603). A silicone rope (605) is connected to the upper surface of the sealing cap (603). A positioning hole (606) is provided on the inner side of the extended bottle mouth (601). A telescopic spring (607) is fixedly connected to the inner end of the positioning hole (606). A limit plate (608) is fixedly connected to the other end of the telescopic spring (607). A limit block (609) is fixedly connected to the outer end of the limit plate (608). A limit hole (610) is provided on the inner side of the sealing cap (603).

2. The tissue fixative treatment container for preventing adhesion according to claim 1, characterized in that: The anti-sticking mesh plate (2) is provided in multiple sets at equal intervals inside the wide-mouth bottle (1), and the mesh holes (3) are evenly distributed in multiple sets on the surface of the anti-sticking mesh plate (2).

3. The tissue fixative treatment container for preventing adhesion according to claim 1, characterized in that: The isolation balls (4) are filled in multiple sets and of different sizes in the gaps between the anti-adhesion mesh plates (2) and between the anti-adhesion mesh plates (2) and the bottle wall of the wide-mouth bottle (1).

4. The tissue fixative treatment container for preventing adhesion according to claim 1, characterized in that: The stirring assembly (5) includes a bottom shell (501), the upper surface of which is mounted on the outer side of the bottom of the wide-mouth bottle (1). A drive motor (502) is installed inside the bottom shell (501). A rotating shaft (503) is connected to the output end of the drive motor (502). A stirring shaft (504) is fixedly connected above the rotating shaft (503). Spiral blades (505) are fixedly connected to the surface of the stirring shaft (504). A waterproof sealing plate (506) is fixedly connected to the bottom inside the wide-mouth bottle (1).

5. The tissue fixative treatment container for preventing adhesion according to claim 4, characterized in that: The rotating shaft (503) and the drive motor (502) cooperate to form a rotating structure. The rotating shaft (503) passes through the bottom of the wide-mouth bottle (1) and is fixedly connected to the stirring shaft (504) inside the wide-mouth bottle (1).

6. The tissue fixative treatment container for preventing adhesion according to claim 4, characterized in that: The surface of the spiral blade (505) is smooth, and the surface of the waterproof sealing plate (506) is coated with waterproof sealant.

7. The tissue fixative treatment container for preventing adhesion according to claim 1, characterized in that: The sealing cap (603) is threadedly connected to the extended bottle mouth (601) via a threaded block (604) and a threaded groove (602), the size of which is closely matched with the size of the threaded groove (602).

8. The tissue fixative treatment container for preventing adhesion according to claim 1, characterized in that: The limiting plate (608) and the limiting block (609) cooperate to form a telescopic structure through the cooperation of the telescopic spring (607) and the limiting block (609). The outer wall size of the limiting block (609) matches the inner wall size of the limiting hole (610).

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