Disinfection cabinet

Abstract

The disinfection cabinet comprises a cabinet body, a disinfection lamp and a disinfection heat source, the cabinet body is provided with a disinfection cavity and a first partition piece arranged in the disinfection cavity, the disinfection cavity comprises an irradiation cavity and a hot drying cavity which are located on the two sides of the first partition piece respectively, and the disinfection lamp and the disinfection heat source act on the irradiation cavity and the hot drying cavity respectively. The first partition piece comprises a shading part and a first heat escape structure, the shading part prevents light of the sterilizing lamp from penetrating through the shading part to enter the heat drying cavity, and heat in the heat drying cavity is diffused to the irradiation cavity through the first heat escape structure.

Description

TECHNICAL FIELD

[0001] The utility model relates to life electric appliance technical field especially relates to a disinfection cabinet. BACKGROUND

[0002] The disinfection cabinet can be used for disinfecting and bacteriostatic preserving of kitchenware, cooking utensils, cups and bottles, etc. The disinfection mode adopted by the existing disinfection cabinet includes ultraviolet disinfection, high-temperature disinfection, ozone disinfection, etc. Ultraviolet disinfection belongs to a kind of irradiation disinfection, and ultraviolet disinfection cannot be applied to the disinfection of plastic utensils, which is easy to cause aging and discoloration of plastic products. High-temperature steam generated by high-temperature disinfection is easy to produce condensate water after cooling, which causes utensils to be damp, and also causes deformation of plastic utensils. Although ozone disinfection can disinfect plastic utensils, the surface of the utensils is easy to leave a peculiar smell, thereby reducing user experience. SUMMARY

[0003] In view of this, the utility model provides a disinfection equipment compatible with at least two disinfection modes of irradiation disinfection and high-temperature disinfection.

[0004] The disinfection cabinet of the utility model includes a cabinet body, a disinfection lamp and a disinfection heat source. The cabinet body has a disinfection cavity and a first partition provided in the disinfection cavity. The disinfection cavity includes an irradiation cavity and a heat drying cavity located on both sides of the first partition respectively. The disinfection lamp and the disinfection heat source act on the irradiation cavity and the heat drying cavity respectively. The first partition includes a light shielding part and a first heat dissipation structure. The light shielding part blocks the light of the disinfection lamp from penetrating through the light shielding part and entering the heat drying cavity. The first heat dissipation structure allows the heat in the heat drying cavity to diffuse to the irradiation cavity through the first heat dissipation structure.

[0005] Compared with the prior art, the disinfection cabinet of the utility model is compatible with at least two disinfection modes of irradiation disinfection and high-temperature disinfection, thereby realizing the integration of the irradiation disinfection function and the high-temperature disinfection function in the same equipment. The light of the disinfection lamp is used for irradiating the utensils in the irradiation cavity. The light shielding part blocks the irradiation light from entering the heat drying cavity to protect the utensils in the heat drying cavity from irradiation aging and discoloration. The heat of the disinfection heat source is used for heating the utensils in the heat drying cavity, and the heat can also diffuse to the irradiation cavity through the first heat dissipation structure to heat the utensils in the irradiation cavity. When a user uses the disinfection cabinet of the utility model, the utensils resistant to irradiation and high temperature can be placed in the irradiation cavity, and the utensils resistant to high temperature but not resistant to irradiation can be placed in the heat drying cavity.

[0006] In some embodiments, the first heat dissipation structure includes a first heat dissipation channel communicating the heat drying cavity and the irradiation cavity.

[0007] In some embodiments, the first partition is provided with a first heat dissipation gap at the edge. The first heat dissipation gap and the inner wall of the disinfection cavity form the first heat dissipation channel.

[0008] In some embodiments, the inner wall of the sterilization cavity is provided with a plurality of first connectors, which are respectively arranged at different height positions, and the first partition is detachably connected with each of the first connectors.

[0009] In some embodiments, the first connector comprises an envelope portion and is connected to the inner wall of the sterilization cavity by a fastener, the fastener penetrates the wall of the sterilization cavity and is embedded in the envelope portion; and / or,

[0010] The first connector comprises a support rib protruding from the inner wall of the sterilization cavity to support the first partition, and the first partition is in sliding fit with the support rib.

[0011] In some embodiments, the sterilization cavity is further provided with a second partition located on the side of the first partition away from the irradiation cavity, a heat drying cavity is formed between the first partition and the second partition, the sterilization heat source is arranged on the side of the second partition away from the heat drying cavity, and the second partition comprises a second heat escaping structure through which the heat of the sterilization heat source passes to diffuse to the heat drying cavity.

[0012] In some embodiments, the cabinet body comprises a front side wall and a rear side wall arranged opposite to each other and used to form the inner wall of the sterilization cavity, the sterilization cavity penetrates the front side wall and forms an opening, the first partition is provided with a first heat escaping gap opening communicating the heat drying cavity and the irradiation cavity at the edge relatively close to the rear side wall, and the second heat escaping structure comprises a second heat escaping gap opening communicating the heat drying cavity and the region where the sterilization heat source is located, the second heat escaping gap opening is arranged at the edge of the second partition relatively close to the rear side wall.

[0013] In some embodiments, the front side wall comprises a threshold structure spaced apart from the rear side wall and arranged opposite to the rear side wall, the threshold structure protrudes from or is flush with the side of the second partition relatively close to the first partition, and the edge of the second partition relatively close to the threshold structure is concave and forms a sample taking gap.

[0014] In some embodiments, the first partition further comprises a heat insulation portion arranged apart from the light shielding portion, the irradiation cavity is formed on the side of the light shielding portion relatively far away from the heat insulation portion, the heat drying cavity is formed on the side of the heat insulation portion relatively far away from the light shielding portion, and the light shielding portion and the heat insulation portion form a sample placing cavity therebetween.

[0015] In some embodiments, the first heat escaping structure realizes fluid communication between the heat drying cavity and the irradiation cavity, the light shielding portion blocks the light of the sterilization lamp from penetrating the light shielding portion to enter the sample placing cavity, and the first heat escaping structure blocks the fluid communication between the heat drying cavity and the sample placing cavity.

[0016] In some embodiments, the first heat escaping structure comprises a first heat escaping channel and a plurality of sample placing side plates, the light shielding portion and the heat insulation portion are arranged apart from and opposite to each other, are connected into one body through the plurality of sample placing side plates, and together with the plurality of sample placing side plates form the sample placing cavity, and the first heat escaping channel is formed between the side of the plurality of sample placing side plates away from the sample placing cavity and the inner wall of the sterilization cavity.

[0017] In some embodiments, the light shielding part, the heat insulation part and the plurality of storage side plates are detachably connected, and the shape of the storage cavity is changed when the light shielding part, the heat insulation part and the plurality of storage side plates are reassembled. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 Part structure perspective view of a disinfection cabinet according to an embodiment of the present application;

[0019] Figure 2 Part structure perspective view of a disinfection cabinet according to an embodiment of the present application;

[0020] Figure 3 Schematic view of a first connecting piece of a disinfection cabinet according to an embodiment of the present application;

[0021] Figure 4 Sectional view of a disinfection cabinet according to an embodiment of the present application.

[0022] Reference signs: 10, cabinet body; 11, disinfection cavity; 112, irradiation cavity; 113, hot drying cavity; 114, heat source installation cavity; 12, door sill structure; 13, rear side wall; 20, door body; 30, disinfection lamp; 40, disinfection heat source; 50, first partition piece; 51, light shielding part; 52, first heat escaping gap; 53, edge bonding glue; 54, heat insulation part; 56, storage side plate; 57, storage cavity; 60, second partition piece; 61, second heat escaping gap; 62, taking piece gap; 71, first connecting piece; 711, envelope part; 712, support rib. DETAILED DESCRIPTION

[0023] The technical solutions in the embodiments of the present application will be described clearly and completely below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments of the present application. Based on the embodiments in the present application, all the other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0024] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which the present application belongs. The terminology used in the description of the present application herein only for the purpose of describing specific embodiments of the present application, and is not intended to limit the present application. The term "or / and" used herein includes any and all combinations of one or more related listed items.

[0025] Reference Figures 1-2The utility model provides a sterilizing cabinet, the sterilizing cabinet can disinfect and sterilize utensils while storing utensils, the sterilizing cabinet of the utility model can be used to store and disinfect kitchen utensils, cooking utensils, cup utensils and bottle utensils etc. The sterilizing cabinet of the utility model is compatible with at least two sterilization modes of irradiation sterilization and high temperature sterilization, the irradiation sterilization generates one or more ultraviolet rays or light rays which can destroy the genetic material of bacteria, and the high temperature sterilization refers to killing bacteria through high temperature.

[0026] The sterilizing cabinet of the utility model includes cabinet 10, door body 20, sterilizing lamp 30 and sterilizing heat source 40, cabinet 10 has the sterilizing cavity 11 of open mouth, referring to Figures 1-2 , cabinet 10 includes the front side wall and rear side wall 13 of opposite arrangement and forming the inner wall of sterilizing cavity 11, the front side wall is provided with the open mouth of communicating sterilizing cavity 11, door body 20 is movably connected to cabinet 10 and is used to open and close sterilizing cavity 11, when door body 20 moves to cover the open mouth, sterilizing cavity 11 is closed, at this time, door body 20 and rear side wall 13 are spaced apart and arranged oppositely. Sterilizing lamp 30 and sterilizing heat source 40 are all installed in cabinet 10. Optionally, sterilizing lamp 30 includes ultraviolet lamp, and sterilizing heat source 40 includes heat pipe and / or steam generator.

[0027] Cabinet 10 further includes first partition 50 and second partition 60 arranged in sterilizing cavity 11, sterilizing cavity 11 includes irradiation cavity 112 and heat drying cavity 113 respectively located on both sides of first partition 50, and further includes heat source installation cavity 114 located on the side of second partition 60 away from first partition 50, heat drying cavity 113 is located between first partition 50 and second partition 60, so that irradiation cavity 112, first partition 50, heat drying cavity 113, second partition 60 and heat source installation cavity 114 are sequentially arranged. First partition 50 and second partition 60 are both plate-shaped structures, and they are also used as storage objects for bearing sterilized utensils, the utensils borne by first partition 50 are located in irradiation cavity 112, and the utensils borne by second partition 60 are located in heat drying cavity 113.

[0028] Referring to Figures 1-2 , sterilizing lamp 30 is installed in irradiation cavity 112, sterilizing heat source 40 is installed in heat source installation cavity 114, sterilizing lamp 30 is specially used for irradiation sterilization of the utensils in irradiation cavity 112, after the start of sterilizing heat source 40, the inside of heat drying cavity 113 is heated, the heat in heat drying cavity 113 can be used not only for high temperature sterilization of the utensils in heat drying cavity 113, but also for diffusion into irradiation cavity 112 to perform high temperature sterilization on the utensils in irradiation cavity 112. Second partition 60 separates heat drying cavity 113 and heat source installation cavity 114, so that the user will not touch sterilizing heat source 40 when taking out or putting utensils into heat drying cavity 113, thereby reducing the risk of the user being scalded by sterilizing heat source 40.

[0029] Therefore, the user can put the irradiation-resistant and high-temperature-resistant appliance into the irradiation cavity 112 to make the appliance in the irradiation cavity 112 receive the double-combined disinfection of the irradiation and the high temperature, and put the high-temperature-resistant but irradiation-resistant appliance into the hot baking cavity 113 to make the appliance in the hot baking cavity 113 receive the high-temperature disinfection. In the utility model, the irradiation-resistant appliance refers to the appliance that can be irradiated by the disinfection lamp 30 for a long time without aging, fading and damage.

[0030] In order to realize the double-combined disinfection of the irradiation and the high temperature in the irradiation cavity 112, and the high-temperature disinfection in the hot baking cavity 113, the disinfection cabinet of the utility model further limits that the first partition piece 50 comprises the light shielding part 51 and the first heat escaping structure. The light shielding part 51 is made of a light shielding material, and the light generated by the disinfection lamp 30 cannot refract through the light shielding part 51. Therefore, the light shielding part 51 can block the light of the disinfection lamp 30 from penetrating the light shielding part 51 and entering the hot baking cavity 113, so as to protect the appliance in the hot baking cavity 113 from being irradiated by the light of the disinfection lamp 30. The first heat escaping structure allows the heat in the hot baking cavity 113 to diffuse into the irradiation cavity 112 through the first heat escaping structure.

[0031] In some embodiments, the first heat escaping structure comprises a first heat escaping channel that communicates the hot baking cavity 113 and the irradiation cavity 112, and the second heat escaping structure comprises a second heat escaping channel that communicates the hot baking cavity 113 and the heat source installation cavity 114. The air in the heat source installation cavity 114 is first heated to enter the hot baking cavity 113 through the second heat escaping channel, and the heat diffuses from the heat source installation cavity 114 to the hot baking cavity 113 along with the air flow. Then, the air in the hot baking cavity 113 is heated to enter the irradiation cavity 112 through the first heat escaping channel, and the heat diffuses from the hot baking cavity 113 to the irradiation cavity 112 along with the air flow.

[0032] Optionally, the top wall of the disinfection cavity 11, the irradiation cavity 112, the first partition piece 50, the hot baking cavity 113, the second partition piece 60, the heat source installation cavity 114 and the bottom wall of the disinfection cavity 11 are sequentially arranged in the vertical direction in the orientation close to the ground to accelerate the heat diffusion.

[0033] Specifically, referring to Figures 1-2The first partition 50 is provided with a first heat dissipation gap 52 close to the edge of the rear side wall 13, and the first heat dissipation gap 52 and the rear side wall 13 form a first heat dissipation channel. The second partition 60 is provided with a second heat dissipation gap 61 close to the edge of the rear side wall 13, and the second heat dissipation gap 61 and the rear side wall 13 form a second heat dissipation channel. Based on the wall attachment effect of the fluid, the heated air in the heat source installation cavity 114 flows along the rear side wall 13 first through the second heat dissipation channel into the heat baking cavity 113, and then the heated air in the heat baking cavity 113 flows along the rear side wall 13 through the first heat dissipation channel into the irradiation cavity 112. The hot air can keep the flow rate and flow stable during flowing along the rear side wall 13, and accelerate the diffusion of heat from the heat source installation cavity 114 to the heat baking cavity 113 and the irradiation cavity 112.

[0034] Optionally, the first partition 50 comprises a light shielding plate and a bordering glue 53. The light shielding plate itself is a light shielding cloth. The light shielding plate is provided with the first heat dissipation gap 52 close to the edge of the rear side wall 13. The bordering glue 53 is arranged on the edge of the light shielding plate away from the rear side wall 13 to protect the user from being cut by the light shielding plate. In addition, the bordering glue 53 can limit and stop the appliance carried by the first partition 50 to prevent the appliance from falling.

[0035] Optionally, the front side wall comprises a threshold structure 12 spaced apart from and opposite to the rear side wall 13. The threshold structure 12 is flush with one side of the second partition 60 close to the first partition 50, or the threshold structure 12 protrudes from one side of the second partition 60 close to the first partition 50. The threshold structure 12 can limit and stop the appliance carried by the second partition 60 to prevent the appliance from falling. In order to facilitate the user to take out and clean the second partition 60, the edge of the second partition 60 close to the threshold structure 12 is recessed inward to form a taking gap 62 for the fingers to extend into.

[0036] Optionally, the inner wall of the disinfection cavity 11 is provided with a second connecting piece. The second partition 60 can be lapped on the second connecting piece, or can be detachably assembled and fixed with the second connecting piece. In other embodiments, the second partition 60 and the inner wall of the disinfection cavity 11 can also form a fixed and undetachable connection.

[0037] Referring to Figures 1-3The inner wall of the disinfection cavity 11 is further provided with a plurality of first connecting members 71, which are distributed at different vertical positions, and the first partition 50 is detachably connected with each first connecting member 71. The user can detach the first partition 50 from one first connecting member 71 and install the first partition 50 to another first connecting member 71 to change the vertical position of the first partition 50, and the volumes of the irradiation cavity 112 and the heat drying cavity 113 are changed after the first partition 50 is detached and reinstalled, so that the space volumes of the irradiation cavity 112 and the heat drying cavity 113 are no longer fixed and cannot be adjusted, and the volumes of the irradiation cavity 112 and the heat drying cavity 113 can better adapt to the shape and size of the instrument placed in each cavity, thereby realizing efficient and sufficient use of the space of the disinfection cavity 11.

[0038] Optionally, the first partition 50 can be lapped on the first connecting member 71, can be inserted and matched with the first connecting member 71, or can be interference fitted or slidingly fitted with the first connecting member 71.

[0039] Referring to Figure 3 The first connecting member 71 comprises an envelope part 711 and a support rib 712, and the cavity wall of the disinfection cavity 11 is fixedly connected with the first connecting member 71 through a fastener, the fastener is embedded in the envelope part 711 after penetrating through the cavity wall of the disinfection cavity 11, and the support rib 712 protrudes relative to the inner wall of the disinfection cavity 11 to bear the first partition 50, and the first partition 50 is slidingly fitted with the support rib 712. In this way, the fastener is not exposed in the disinfection cavity 11, the user will not be scratched by the fastener when taking out or putting into the disinfection cavity 11, and the instrument will not be scratched by the fastener, and the user can also extract the first partition 50 out of the disinfection cavity 11 along the support rib 712 to clean the first partition 50.

[0040] Referring to Figure 4 In some embodiments, the first partition 50 is a hollow thin-walled shell structure, and the light shielding part 51 is a plate-shaped structure. In addition to the light shielding part 51 and the first heat dissipation structure, the first partition 50 further comprises a heat insulation part 54 which is arranged in a spaced manner with the light shielding part 51. The heat insulation part 54 is a plate-shaped structure made of a material with low thermal conductivity. The heat insulation part 54 is located on the side of the light shielding part 51 relatively close to the second partition 60. The irradiation cavity 112 is formed on the side of the light shielding part 51 relatively far from the heat insulation part 54. The heat drying cavity 113 is formed on the side of the heat insulation part 54 relatively far from the light shielding part 51. The light shielding part 51 and the heat insulation part 54 form a storage cavity 57 therebetween. The top wall of the disinfection cavity 11, the irradiation cavity 112, the light shielding part 51, the storage cavity 57, the heat insulation part 54, the heat drying cavity 113, the second partition 60, the heat source installation cavity 114, and the bottom wall of the disinfection cavity 11 are sequentially arranged in the vertical direction in the orientation close to the ground.

[0041] The heat insulation section 54 prevents heat from transferring and diffusing from the heating chamber 113 into the storage cavity 57, thus maintaining the temperature inside the storage cavity 57 below the temperatures of the heating chamber 113 and the irradiation chamber 112. The heat insulation section 54 also serves as a holder for the sterilized appliances, which are located within the storage cavity 57. The light-shielding section 51 not only blocks the light from the sterilization lamp 30 from entering the heating chamber 113 but also blocks it from entering the storage cavity 57. Therefore, the storage cavity 57 is suitable for placing appliances that are not resistant to irradiation or high temperatures. An ozone generator or other types of sterilization devices can be installed inside the storage cavity 57 or in other locations within the cabinet 10. The ozone or other sterilization gases generated by the ozone generator or other sterilization devices can be introduced into the storage cavity 57 to sterilize the appliances held by the heat insulation section 54. Alternatively, the ozone generator can be omitted, and the storage cavity 57 can be used as a regular container.

[0042] Optionally, the first heat-escape structure not only enables fluid communication between the heating cavity 113 and the irradiation cavity 112, allowing heat to diffuse from the heating cavity 113 to the irradiation cavity 112, but also blocks the fluid communication between the heating cavity 113 and the storage cavity 57, preventing heat from diffusing from the heating cavity 113 into the storage cavity 57. Specifically, see [link to relevant documentation]. Figure 4 The first heat escaping structure includes a first heat escaping channel and multiple side panels 56. The light-shielding part 51 and the heat-insulating part 54 are connected as one unit through multiple side panels 56. Together with the multiple side panels 56, they form a storage cavity 57. The side panels 56 are also made of a material with low thermal conductivity. The first heat escaping channel is formed between the side of the side panel 56 away from the storage cavity 57 and the inner wall of the disinfection chamber 11. When hot air flows through the first heat escaping channel along the side of the side panel 56 away from the storage cavity 57, the side panel 56 can block the heat from diffusing into the storage cavity 57.

[0043] Furthermore, in some embodiments, the first partition 50 is a detachable structure, and the light-shielding part 51, the heat-insulating part 54, and the multiple storage side panels 56 are detachably connected. The user can change the interval between the light-shielding part 51 and the heat-insulating part 54 by disassembling the first partition 50. Therefore, the shape and volume of the storage cavity 57 can be changed by disassembling and reassembling the light-shielding part 51, the heat-insulating part 54, and the multiple storage side panels 56. With this configuration, the user can adjust the volume of the storage cavity 57 according to actual storage and disinfection needs, and switch the first connecting part 71 connected to the first partition 50, thereby indirectly adjusting the volume of the irradiation cavity 112 and the heating cavity 113 until the spatial volume of each of the irradiation cavity 112, the storage cavity 57, and the heating cavity 113 is adapted to the shape and size of the appliances contained in each of the irradiation cavity 112, the storage cavity 57, and the heating cavity 113, thus achieving full and efficient utilization of the space of the disinfection cavity 11 and avoiding waste of the space of the disinfection cavity 11.

[0044] Optionally, when the first partition 50 is a hollow thin-walled shell structure with a heat insulation part 54 and a storage cavity 57, the end of the first partition 50 that is relatively far from the rear side wall 13 can be provided with a storage opening that connects the storage cavity 57 and the outside of the disinfection cabinet, or it can be provided with a closed structure to close the storage cavity 57. When a storage opening is formed, the appliance can be taken out or put into the storage cavity 57 after opening the door 20.

[0045] The technical features of the above-described embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0046] Those skilled in the art should recognize that the above embodiments are only used to illustrate the present utility model and are not intended to limit the present utility model. Any appropriate changes and variations made to the above embodiments within the scope of the essential spirit of the present utility model shall fall within the scope of protection claimed by the present utility model.

Claims

1. A sterilizer cabinet characterized by, The cabinet (10) has a sterilization cavity (11) and a first partition (50) arranged in the sterilization cavity (11), the sterilization cavity (11) comprises an irradiation cavity (112) and a heat drying cavity (113) arranged on two sides of the first partition (50) respectively, the sterilization lamp (30) and the sterilization heat source (40) act on the irradiation cavity (112) and the heat drying cavity (113) respectively, the first partition (50) comprises a light shielding part (51) and a first heat dissipation structure, the light shielding part (51) blocks the light of the sterilization lamp (30) from penetrating the light shielding part (51) and entering the heat drying cavity (113), and the first heat dissipation structure allows heat in the heat drying cavity (113) to diffuse to the irradiation cavity (112).

2. The cabinet of claim 1, wherein, The first heat dissipation structure comprises a first heat dissipation channel communicating the heat drying cavity (113) and the irradiation cavity (112).

3. The cabinet of claim 2, wherein, The first partition (50) is provided with a first heat dissipation notch (52) at the edge, and the first heat dissipation notch (52) and the inner wall of the sterilization cavity (11) form the first heat dissipation channel.

4. The cabinet of claim 1, wherein, The inner wall of the sterilization cavity (11) is provided with a plurality of first connecting pieces (71), and the plurality of first connecting pieces (71) are distributed at different height positions, and the first partition (50) and each first connecting piece (71) are detachably connected.

5. The cabinet of claim 4, wherein, The first connecting piece (71) comprises an envelope part (711) and is connected to the inner wall of the sterilization cavity (11) by a fastener, the fastener penetrates the cavity wall of the sterilization cavity (11) and is embedded in the envelope part (711); and / or, The first connecting piece (71) comprises a support rib (712) protruding from the inner wall of the sterilization cavity (11) to support the first partition (50), and the first partition (50) and the support rib (712) are in sliding fit.

6. The cabinet according to any one of claims 1 to 5, wherein The sterilization cavity (11) is further provided with a second partition (60) arranged on the side of the first partition (50) away from the irradiation cavity (112), the heat drying cavity (113) is formed between the first partition (50) and the second partition (60), the sterilization heat source (40) is arranged on the side of the second partition (60) away from the heat drying cavity (113), and the second partition (60) comprises a second heat dissipation structure for heat of the sterilization heat source (40) to pass through and diffuse to the heat drying cavity (113).

7. The cabinet of claim 6, wherein, The cabinet body (10) comprises front and rear side walls (13) arranged opposite to each other and used for forming inner walls of the sterilization cavity (11), the sterilization cavity (11) penetrates the front side wall and forms an opening, the first partition (50) is provided with a first heat escape gap (52) communicating the heat drying cavity (113) and the irradiation cavity (112) at an edge close to the rear side wall (13), the second heat escape structure comprises a second heat escape gap (61) communicating the heat drying cavity (113) and an area where the sterilization heat source (40) is located, and the second heat escape gap (61) is provided at an edge close to the rear side wall (13) of the second partition (60).

8. The cabinet of claim 7, wherein, The front side wall comprises a threshold structure (12) spaced apart from the rear side wall (13) and arranged opposite to each other, the threshold structure (12) is protruded or flush with one side of the second partition (60) close to the first partition (50), and an edge of the second partition (60) close to the threshold structure (12) is concave and forms a sample taking gap (62).

9. The cabinet according to any one of claims 1 to 5, wherein The first partition (50) further comprises a heat insulation part (54) arranged apart from the light shielding part (51), the irradiation cavity (112) is formed at a side of the light shielding part (51) away from the heat insulation part (54), the heat drying cavity (113) is formed at a side of the heat insulation part (54) away from the light shielding part (51), and a storage cavity (57) is formed between the light shielding part (51) and the heat insulation part (54).

10. The cabinet of claim 9, wherein, The first heat escape structure realizes fluid communication between the heat drying cavity (113) and the irradiation cavity (112), the light shielding part (51) blocks light of the sterilization lamp (30) from penetrating the light shielding part (51) and entering the storage cavity (57), and the first heat escape structure blocks fluid communication between the heat drying cavity (113) and the storage cavity (57).

11. The cabinet of claim 10, wherein, The first heat escape structure comprises a first heat escape channel and a plurality of storage side plates (56), the light shielding part (51) and the heat insulation part (54) are arranged apart from and opposite to each other, connected into an integrated whole through the plurality of storage side plates (56), and collectively surround the plurality of storage side plates (56) to form the storage cavity (57), and the first heat escape channel is formed between a side of the plurality of storage side plates (56) away from the storage cavity (57) and the inner wall of the sterilization cavity (11).

12. The cabinet of claim 11, wherein, The light shielding part (51), the heat insulation part (54) and the plurality of storage side plates (56) are detachably connected, and the shape of the storage cavity (57) changes with reassembly of the light shielding part (51), the heat insulation part (54) and the plurality of storage side plates (56).

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