Novel disc-shaped experimental sample storage box

Abstract

The disc-shaped experimental sample storage box applied to the laboratory comprises a base, a groove, a small circular groove, a supporting column, a drying agent box, a box cover, a long-strip-shaped groove, a clamping groove and a small sliding piece, the base is of a cylinder structure with the groove in the front face, and the box cover of the storage box is opened or closed through the groove; small circular grooves which are radially and symmetrically distributed are formed in the upper part of the base and can be used for storing disc-shaped experimental samples; a drying agent storage box is arranged in the supporting column and can be used for storing a drying agent; the box cover can cover the base and is fixed on the supporting column, and two movable small sliding sheets are arranged in a long-strip-shaped groove in the box cover, so that the box cover is more convenient to take and use. The utility model provides a safer and more convenient storage box for storage of disc-shaped experimental samples.

Description

Technical Field

[0001] The utility model relates to a circular experimental sample storage box Background Art

[0002] A novel circular experimental sample storage box, with its unique form and application, has become an indispensable part of the laboratory. Taking infrared spectroscopy films as an example, it is an important tool for studying molecular structures. This spectroscopic analysis technique is widely used in the identification and analysis of organic compounds, polymers, inorganic compounds, and composite materials. However, there are certain limitations in the traditional methods for preparing infrared spectroscopy samples. Solid samples usually need to be pressed into thin slices through a tablet press mold for easy detection by an infrared spectrometer. However, the thickness of these tablets is usually below 0.5 mm, very fragile, and prone to damage during removal, transfer, or storage. Once damaged, it will not only lead to inaccurate experimental data but also may waste precious sample materials. To solve this problem, the utility model proposes an innovative solution - a circular experimental sample storage box. The design of this storage box aims to provide a safe and stable storage environment for circular samples, reducing the risk of damage during transfer and storage.

[0003] First of all, the size design of the storage box should closely match the size of the sample to ensure that each sample can obtain appropriate space. This not only avoids mutual extrusion and friction between samples but also effectively prevents damage to the samples when they move inside the storage box.

[0004] In terms of material selection, the storage box should be made of materials with high impact resistance and chemical corrosion resistance, such as ABS plastic or polycarbonate. These materials can not only withstand accidental impacts but also resist common chemical reagents in the laboratory, protecting the samples from contamination.

[0005] The sealing performance is another key element in the design of the storage box. The base (1), the lid (6), and the support pillar (4) can all be tightly connected to ensure the airtightness of the whole device, preventing the samples from being exposed to the air and reducing the effects of oxidation and moisture, thus maintaining the stability of the samples.

[0006] In addition, adding desiccants to the built-in desiccant box (5) can further maintain the stability of the storage environment and ensure that the samples are not affected by humidity changes. Storing desiccants in the desiccant box (5) can absorb moisture in the surrounding environment, thereby reducing the relative humidity of the environment. When substances are exposed to high-humidity environments, they may absorb moisture, leading to changes in their chemical or physical properties. In terms of chemical stability, desiccants can prevent certain chemical substances in the samples from reacting due to moisture absorption. For example, some organic compounds may undergo hydrolysis or polymerization reactions under humid conditions, affecting their purity and potency. By absorbing the moisture required for these reactions, desiccants help maintain the chemical stability of substances. Microbial growth generally requires moisture. By reducing the environmental humidity, desiccants can inhibit the growth of microorganisms. This is particularly important for storage because microbial contamination may cause the samples to deteriorate or produce harmful substances. Desiccants can also prevent corrosion, especially for samples that are vulnerable to corrosion. In a high-humidity environment, a water film may form on the surface of the samples, accelerating the corrosion process. By absorbing moisture, desiccants reduce the formation of the water film, thereby slowing down corrosion. Some samples may expand or deform in a humid environment, affecting their performance. Desiccants help maintain the original physical state of substances. Desiccants can also extend the shelf life of stored substances. Some desiccants have the property of color change, which can serve as an intuitive indicator of humidity changes. For example, blue silica gel desiccants turn pink after absorbing moisture. This color change can help monitor the humidity state of the storage environment and remind users to replace the desiccants. Desiccants can also prevent oxidation reactions. In some cases, the presence of moisture may promote oxidation reactions, resulting in the degradation of the sample substances. By absorbing moisture, desiccants help reduce the occurrence of oxidation reactions. Thus, protecting the internal disc-shaped experimental samples. In summary, in this utility model, the role of the built-in desiccant box is multifaceted. The desiccants in it provide a dry and stable environment for the samples by absorbing moisture, thereby protecting the substances from the damage of moisture and extending their storage life. The correct selection and use of desiccants are crucial for ensuring the quality and safety of the disc-shaped experimental samples.

[0007] Operational convenience is also an important factor to consider in the design of the storage box. The lid design should be easy to operate with one hand, facilitating quick access to the samples. Adding a transparent small sliding window allows the sample status to be viewed without opening the lid, further improving the operational convenience. Shockproof and buffer designs are the key to ensuring that the samples are not damaged during transportation and operation.

[0008] In addition, cleaning and maintenance are also aspects that cannot be ignored in the design of the storage box. The lining material is easy to disassemble and clean, maintaining the hygiene of the storage environment. The surface of the box body is easy to clean and corrosion-resistant, reducing the maintenance cost. The modular design allows modules to be added or reduced as needed to accommodate different numbers of samples.

[0009] Finally, safety and compliance are the foundation of the storage box design. Ensure that the storage box design complies with laboratory safety standards and industry norms, providing a safe operating environment for researchers. The disc-shaped experimental sample storage box can provide a comprehensive, efficient, and safe sample management solution, meeting the high standards of modern laboratory sample management requirements. Summary of the Invention

[0010] To achieve the purpose of protecting the newly made disc-shaped experimental samples similar to infrared spectroscopy films from being damaged after production and providing a more convenient storage environment for them, the technical solution adopted by the present utility model is as follows:

[0011] 1. A new type of disc-shaped experimental sample storage box for experiments, comprising a base (1), a groove (2), small round grooves (3), struts (4), a desiccant box (5), a box cover (6), a long strip groove (7), a card slot (8), and a small sliding piece (9). The base (1) is a cylindrical structure with a plurality of small round grooves (3) evenly distributed. There is a groove (2) on the front of the lower cylinder for connecting the box cover (6) and the base (1) and fixing them to prevent slipping. There are many small round grooves (3) on the upper cylinder. The small round grooves (3) are used to store disc-shaped experimental samples of the same size as the small round grooves (3), preventing the disc-shaped experimental samples from being damaged due to collision. The struts (4) fit the circular vacancy in the middle of the box cover (6), making the box cover (6) and the base (1) fit tightly to prevent the samples stored in the small round grooves (3) from being damaged due to mutual collision between the box cover (6) and the base (1). The desiccant box (5) can be pulled out upward and pushed back downward. It stores desiccants inside to prevent the disc-shaped experimental samples from getting damp, which can further maintain the stability of the storage environment and ensure that the samples are not affected by humidity changes. The desiccants stored in the desiccant box (5) can absorb the moisture in the surrounding environment, thereby reducing the relative humidity of the environment and making the storage space of the samples drier. The long strip groove (7) has a card slot (8) for fixing the small sliding piece (9) in the long strip groove (7) through a track, and the position of the long strip groove (7) can be controlled by rotating the box cover (6). The small sliding piece (9) can slide along the card slot (8), which is convenient for taking disc-shaped experimental samples from the small round grooves (3) for experimental operations during experiments.

[0012] 2. A new type of circular experimental sample storage box, characterized in that: the height ratio of the base (1) to the small circular groove (3) is 15:1, the radius ratio of the base (1) to the small circular groove (3) is 14:1, the height ratio of the base (1) to the support column (4) is 15:1, the height ratio of the small circular groove (3) to the support column (4) is 1:1, the radius ratio of the base (1) to the support column (4) is 21:4, the thickness ratio of the box cover (6) to the base (1) is 1:15, the height ratio of the box cover (6) to the base (1) is 1:3, the radius ratio of the central circle of the long strip groove (7) to the base (1) is 4:21, the radius ratio of the box cover (6) to the central circle of the long strip groove (7) is 5:1, the length ratio of the long strip groove (7) to the diameter length of the central circle of the long strip groove (7) is 1.9:1, and the length ratio of the small sliding piece (9) to the length of the long strip groove (7) is 1:3.8.

[0013] 3. A new type of circular experimental sample storage box, characterized in that: it stores various optical lenses for optical testing, polarized microscope samples, transmission electron microscope samples, circular dichroism spectrometer samples for studying the circular dichroism of optically active molecules, and stores circular samples formed by dry pressing technology. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a view of the box body part of a new type of circular experimental sample storage box of the present utility model.

[0015] Figure 2 It is a side sectional view of a new type of circular experimental sample storage box of the present utility model.

[0016] Figure 3 It is a view of the box cover of a new type of circular experimental sample storage box of the present utility model.

[0017] Figure 4 It is a detailed view of the sliding rail part of the box cover of a new type of circular experimental sample storage box of the present utility model.

[0018] Figure 5 It is a schematic diagram of the installation and use of a new type of circular experimental sample storage box of the present utility model.

[0019] Figure 1 In the figure: 1 - base; 2 - groove; 3 - small circular groove; 4 - support column; 5 - desiccant box.

[0020] Figure 2 In the figure: 1 - base; 2 - groove; 3 - small circular groove; 4 - support column.

[0021] Figure 3 In the figure: 6 - box cover; A - sliding piece device; B - sliding piece device.

[0022] Figure 4Chinese: A - Slide device; B - Slide device; 8 - Card slot; 9 - Small slide. Detailed implementation mode

[0023] When a new type of disc-shaped experimental sample storage box for experiments is in use, first open the box cover and put the items to be stored. During use, align the box cover with the corresponding small round slots by rotating, block the unnecessary positions by sliding the small slide, take out the items at the corresponding positions, and turn the long slot to the corresponding position after use.

[0024] The base (1), the support column (4), and the box cover (6) are all made of materials with high impact resistance and chemical corrosion resistance.

[0025] The base (1), the box cover (6), and the support column (4) can be tightly connected to ensure the preservation and fixation of the disc-shaped experimental samples stored in the small round slots (3) and prevent the disc-shaped experimental samples from being damaged.

[0026] There is a long slot (7) on the box cover (6) for fixing the small slide (9) and enabling the small slide (9) to slide in the card slot (8), which is convenient for taking and using during use.

[0027] The beneficial effects of the present utility model are as follows:

[0028] 1. The present utility model can effectively reduce the damage of disc-shaped experimental samples after production.

[0029] 2. The present utility model can more conveniently take and use disc-shaped experimental samples during the experiment.

[0030] 3. The present utility model can store and carry more disc-shaped experimental samples at the same time.

[0031] 4. The present utility model can prevent disc-shaped experimental samples from getting damp while storing them, and can provide a dry storage environment for disc-shaped experimental samples.

[0032] 5. The components of the present utility model are convenient for assembly, disassembly, and cleaning.

Claims

1. A novel disc-shaped experimental sample storage box, comprising a base (1), a groove (2), a small circular groove (3), a pillar (4), a desiccant box (5), a box cover (6), a long groove (7), a slot (8), and a small slide (9); the base (1) is a cylindrical structure with a plurality of small circular grooves (3) evenly distributed; the small circular grooves (3) are installed in the base (1); the long groove (7) is fixed on the box cover (6), and two tracks are provided on the long groove (7) for fixing two small slides (9); the small slide (9) is fixed to the long groove (7) through the tracks; the pillar (4) is used to connect the box cover (6) and the base (1); the desiccant box (5) is located inside the pillar (4); the box cover (6) is connected to the base (1) through the pillar (4), and the long groove (7) and the small slide (9) are devices on the inner side of the box cover (6), which can control the position of the long groove (7) by rotating the box cover (6).

2. According to claim 1, a novel disc-shaped experimental sample storage box is characterized in that: The height ratio of the base (1) to the small circular groove (3) is 15:1, the radius ratio of the base (1) to the small circular groove (3) is 14:1, the height ratio of the base (1) to the pillar (4) is 15:1, the height ratio of the small circular groove (3) to the pillar (4) is 1:1, and the radius ratio of the base (1) to the pillar (4) is 21:

4.

3. According to claim 1, a novel disc-shaped experimental sample storage box is characterized in that: The thickness ratio of the box cover (6) to the base (1) is 1:15, the height ratio of the box cover (6) to the base (1) is 1:3, the radius ratio of the center circle of the long groove (7) to the base (1) is 4:21, and the radius ratio of the box cover (6) to the center circle of the long groove (7) is 5:

1.

4. According to claim 1, a novel disc-shaped experimental sample storage box is characterized in that: The length ratio of the long groove (7) to the diameter of the center circle of the long groove (7) is 1.9:1, and the length ratio of the small sliding sheet (9) to the length of the long groove (7) is 1:3.

8.

5. According to claim 1, the novel disc-shaped experimental sample storage box is characterized by: The radius ratio of the desiccant box (5) to the base (1) is 21:4, and the height ratio of the desiccant box (5) to the base (1) is 3:

1.

6. According to claim 1, a novel disc-shaped experimental sample storage box is characterized by: Storage of optical lenses for optical testing, polarizing microscope samples, transmission electron microscope samples, circular dichroism spectrometer samples for studying the circular dichroism of optically active molecules.

7. According to claim 1, a novel disc-shaped experimental sample storage box is characterized by: Storage of round samples formed by dry pressing technology.

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