Cleaning base station and cleaning system

Abstract

The utility model provides a cleaning base station and a cleaning system, and relates to the technical field of cleaning. The cleaning base station comprises a base station body, a storage device and a drying assembly. The storage device is arranged on the base station body and comprises a plurality of storage positions, and the storage positions are used for storing cleaning assemblies of the cleaning equipment. The drying assembly is arranged in the base station body, and at least part of the structure of the drying assembly is opposite to at least part of the storage positions. A drying area is formed among the storage device, part of the drying assembly and part of the base station body, the multiple storage positions are located in the drying area, and the drying assembly is used for drying the cleaning assembly located in the drying area. According to the cleaning base station provided by the embodiment of the invention, the cleaning assembly can be stored and dried, the drying efficiency is relatively high, and the problem that the cleaning efficiency of the cleaning robot is affected due to the fact that the cleaning assembly of the cleaning robot is cleaned and dried for a long time by the base station in the related technology can be solved.

Description

Technical Field

[0001] This application relates to the field of clean technology, and in particular to a clean base station and a clean system. Background Technology

[0002] In recent years, with the improvement of people's living standards, home cleaning has gradually entered the era of automation and intelligence. Cleaning equipment such as robot vacuum cleaners, also known as automatic cleaning machines, intelligent vacuum cleaners, and robotic vacuum cleaners, have emerged to free people from home cleaning work and effectively reduce their workload in this area.

[0003] In existing technologies, during the cleaning process, the cleaning components (such as rags, roller brushes, and side brushes) of a cleaning robot need to be cleaned and dried by a base station after a period of use in order to continue cleaning.

[0004] However, cleaning and drying the cleaning components of a cleaning robot via a base station usually takes a long time, which affects the cleaning efficiency of the robot. Utility Model Content

[0005] This application provides a cleaning base station and a cleaning system. The cleaning base station is used to solve the problem in the above-mentioned related technologies that the base station takes a long time to clean and dry the cleaning components of the cleaning robot, which affects the cleaning efficiency of the cleaning robot.

[0006] To achieve the above objectives, the embodiments of this application provide the following technical solutions:

[0007] The first aspect of this application provides a clean base station, including:

[0008] Base station body;

[0009] A storage device is disposed in the base station body, the storage device including multiple storage slots, the storage slots being used to store cleaning components of the cleaning equipment;

[0010] A drying component is disposed within the base station body, and at least a portion of the structure of the drying component is disposed opposite to at least a portion of the storage bits; wherein,

[0011] A drying area is formed between the storage device, part of the drying component, and part of the base station body. A plurality of storage bits are located within the drying area. The drying component is used to dry the cleaning component located within the drying area.

[0012] The cleaning base station in this embodiment effectively utilizes space by integrating the drying component and storage device into the base station body, forming a drying area. This compact design reduces the equipment's footprint and is suitable for use in space-constrained environments. After use, the cleaning component of the cleaning equipment can be directly placed in the storage compartment for drying without additional manual intervention. This automated design improves ease of use and efficiency. Compared to related technologies that directly clean and dry the cleaning component installed on the cleaning equipment, this solution allows for direct replacement of the cleaning component with a clean one, enabling the cleaning equipment to quickly resume cleaning operations, thereby improving the cleaning efficiency of the cleaning equipment.

[0013] Furthermore, drying the cleaning components during storage prevents mold growth or material damage caused by moisture, thus extending their lifespan. Dry cleaning components are more effective for reuse, as damp cleaning tools can reduce cleaning efficiency or, in some cases, damage the surface being cleaned. By drying during storage, the turnaround time for cleaning components is reduced, allowing them to be used again more quickly and improving overall efficiency. Integrating storage and drying functions into a single base station reduces equipment complexity and cost while simplifying installation and maintenance. This design allows the number and configuration of storage bays to be adjusted as needed to accommodate different types and quantities of cleaning components.

[0014] In one possible implementation, the drying assembly includes a fan and an air duct assembly; wherein,

[0015] The air duct assembly includes an air inlet and an air outlet, the fan is connected to the air inlet, and at least a portion of the structure of the air outlet is disposed opposite to at least a portion of the storage space;

[0016] The fan is used to deliver air to the drying area through the air duct assembly.

[0017] By configuring the drying unit as a combination of a fan and duct assembly, air can be effectively introduced into the drying area. This design ensures that the airflow acts directly on the cleaned components within the storage compartment, thereby improving drying efficiency. Because the airflow acts directly on the area to be dried, unnecessary heat loss is reduced, and the directional airflow can more effectively remove moisture from the surface of the cleaned components, shortening the drying time.

[0018] By aligning at least a portion of the air outlet structure with at least a portion of the storage compartments, airflow can evenly cover all storage compartments within the drying area. This uniform airflow distribution helps prevent localized over-drying or under-drying. The air outlet design, directly aligned with the storage compartments, allows for better control of airflow direction and intensity, improving drying efficiency and ensuring that cleaning components reach the ideal dryness level in a shorter time. This design allows for adjusting the position and angle of the air outlet to achieve optimal drying results based on the needs of different cleaning components, enhancing the system's flexibility and adaptability.

[0019] In one possible implementation, the drying assembly further includes a heating assembly; wherein,

[0020] The heating element is disposed between the fan and the air outlet, and the air blown out by the fan passes through the heating element and is then blown from the air outlet to the drying area.

[0021] By placing a heating element between the fan and the air outlet, the airflow is heated before reaching the outlet, thus increasing the air temperature. The hot air can more effectively evaporate moisture from the surface of the cleaning components, accelerating the drying process. This layout ensures that the airflow is uniformly heated before entering the drying zone, providing a stable and consistent heat distribution, ensuring that all cleaning components in all storage compartments receive uniform heating. Directly heating the airflow reduces heat loss and improves energy efficiency. Compared to heating within the drying zone, this method transfers heat to the airflow more efficiently, reducing overall energy consumption. Because the heating element directly heats the flowing airflow, the system can respond more quickly to temperature regulation needs, enabling rapid control and adjustment of the drying temperature, improving system flexibility and responsiveness. Placing the heating element between the fan and the air outlet effectively isolates the heating element from the cleaning components, reducing the risk of direct contact and enhancing system safety.

[0022] In one possible implementation, the drying assembly further includes a heating assembly; wherein,

[0023] The heating element is located within the drying area and is used to heat the airflow passing through the drying area.

[0024] By placing the heating element directly within the drying area, the airflow passing through the area can be directly heated, thereby improving heat transfer efficiency. Hot air can contact the cleaning components more directly, enhancing the drying effect. Placing the heating element within the drying area allows for a more uniform temperature distribution, ensuring all cleaning components receive consistent heating and preventing localized overheating or uneven drying. This layout allows for more precise temperature control within the drying area, enabling flexible adjustments to heating intensity and time based on the material and drying requirements of different cleaning components, improving system adaptability. Direct heating within the drying area reduces heat loss during transfer, improving energy efficiency and lowering overall energy consumption. Integrating the heating element within the drying area simplifies the design of air ducts and airflow paths, reducing system complexity and potential points of failure.

[0025] In one possible implementation, the number of air outlets is multiple; wherein,

[0026] The plurality of air outlets are spaced apart along the first direction;

[0027] The air outlet area is positively correlated with the distance from the air outlet to the air inlet.

[0028] By adjusting the area of ​​the air outlet to be positively correlated with its distance from the air inlet, sufficient airflow intensity and coverage can be ensured even at locations far from the air inlet. This contributes to a uniform airflow distribution throughout the drying area. As airflow moves through the duct, pressure gradually decreases. Increasing the area of ​​the more distant air outlets compensates for this pressure loss, ensuring relatively consistent airflow at each outlet and achieving a more balanced drying effect. This design effectively utilizes the kinetic energy of the airflow, reducing energy consumption increases due to pressure loss and thus improving the overall energy efficiency of the system.

[0029] By ensuring adequate airflow at each outlet, the drying speed and effectiveness of all cleaning components within the drying area can be improved, shortening the overall drying time. This design can be adjusted according to different drying needs and equipment layouts to achieve optimal airflow distribution and drying results, enhancing the system's flexibility and adaptability. Optimizing the area and location of the outlets reduces airflow velocity fluctuations, minimizes turbulence and noise generation, and improves the quietness of equipment operation.

[0030] In one possible implementation, in the first direction, the air inlet is located in the middle of the air duct assembly, and the air duct assembly has a symmetrical structure with respect to the air inlet.

[0031] By placing the air inlet in the center of the duct assembly, airflow can diffuse evenly to both sides, ensuring a more uniform airflow distribution throughout the entire duct assembly and contributing to consistent drying results within the drying area. The symmetrical structure reduces turbulence and irregular flow within the duct, minimizing energy loss and improving airflow transmission efficiency, thereby enhancing overall drying efficiency. Furthermore, symmetrical structures are generally easier to design and manufacture because symmetry reduces complexity and variability, lowering production costs and time. A central air inlet and symmetrical structure help balance pressure on both sides of the duct, preventing excessively high or low pressure on one side and ensuring relatively consistent airflow at each outlet. A symmetrical airflow path reduces turbulence and eddies, thus lowering operating noise and improving equipment quietness. Symmetrical designs are generally more aesthetically pleasing and provide better structural stability, enhancing overall equipment reliability.

[0032] In one possible implementation, the fan includes an air outlet; wherein,

[0033] The air outlet is fixedly connected to the air inlet of the air duct assembly.

[0034] By incorporating air outlets, the airflow generated by the fan can be concentrated and guided to the air inlet of the duct assembly, reducing airflow diffusion and energy loss, thereby improving airflow concentration and kinetic energy. By directly guiding airflow into the duct assembly, the air outlets reduce turbulence and irregular flow before entering the duct, improving the overall efficiency and performance of the system. Because the air outlets effectively guide and concentrate airflow, unnecessary energy loss is reduced, thus lowering system energy consumption and improving energy utilization efficiency. Through a smooth airflow transition, the air outlets reduce the generation of turbulence and eddies, lowering noise during equipment operation and enhancing the user experience. The fixed connection between the air outlets and the duct assembly provides structural stability, reducing the risk of loosening or airflow leakage due to vibration or other factors.

[0035] In one possible implementation, the drying assembly is located between the top of the base station body and the storage device in the height direction of the base station body.

[0036] This configuration utilizes gravity to help evaporated moisture naturally drain downwards, preventing moisture buildup in the drying area and improving drying efficiency. Placing the drying components at the top, between the storage unit and the drying unit, effectively utilizes vertical space, resulting in a more compact overall design and saving floor space. Hot air rises, and placing the drying components above utilizes natural convection to enhance hot air circulation throughout the storage area, improving drying performance. Positioning the drying components at the top also facilitates maintenance and repair, as they are more easily accessible and operable, reducing downtime and maintenance costs.

[0037] In one possible implementation, the number of drying components is multiple; wherein,

[0038] The plurality of drying components are arranged around the plurality of storage locations.

[0039] This configuration ensures that each storage compartment receives heat and airflow from different directions, resulting in a more uniform drying effect and avoiding incomplete drying in certain areas. Multi-point heating and airflow accelerate the drying process of the cleaning components, shortening the overall drying time and improving equipment efficiency. Multiple drying components can be controlled independently, adjusting heating and airflow intensity according to the needs of different storage compartments, enabling more flexible operation and more precise temperature control. The multiple drying components provide redundancy; even if one component fails, others can continue operating, ensuring system reliability and continuity. By enabling or disabling some drying components as needed, energy consumption can be optimized, unnecessary energy waste reduced, and overall energy efficiency improved.

[0040] In one possible implementation, the storage device includes a carrier board; wherein,

[0041] The carrier plate is provided with the plurality of storage bits;

[0042] The support plate can be opened and closed on the base station body, and the drying area is formed between the support plate, the portion of the base station body opposite to the support plate, and the drying component.

[0043] In this embodiment, the closable design of the support plate allows it to be stored away when not in use, saving space. This flexibility enables the base station to perform more functions within a limited space. The closable support plate design makes it easier to access items in the storage compartments; users can easily open the support plate for operation, improving usability. When the support plate is closed, it forms a relatively enclosed drying area together with the base station body and the drying components. This enclosed environment helps to maintain the concentration of heat and airflow, improving drying efficiency and effectiveness. When closed, the support plate protects the items in the storage compartments from external environmental influences such as dust and moisture, ensuring the safety and cleanliness of the items. By forming a closed drying area, heat loss can be reduced, energy utilization efficiency can be improved, and overall energy consumption can be reduced. The enclosed design reduces the risk of users coming into contact with the drying components during operation, improving equipment safety.

[0044] In one possible implementation, the support plate has a cavity structure; wherein,

[0045] The cavity structure has the storage slot on the cavity wall facing the base station body, and the storage includes a through-hole structure;

[0046] The cavity structure is connected to the air outlet and the through hole structure. The air blown out by the fan enters the cavity structure from the air outlet and flows through the storage position into the space between the carrier plate and the base station body.

[0047] This configuration ensures that the air blown out by the fan passes through the cleaning components located in the storage compartment, thereby improving drying efficiency.

[0048] In one possible implementation, the base station body includes a dust collection component; wherein,

[0049] The support plate is located on the outside of the dust collection component.

[0050] This design allows the support plate to function as both a storage unit and a cover for opening the base station body when cleaning debris from the dust collection unit. In other words, a single component performs two functions, optimizing the internal space layout of the base station and making it more compact. The reduced number of components simplifies the overall structure of the cleaning base station, potentially lowering material and assembly costs. Furthermore, the simplified design may reduce the need for molds and processing steps, further saving costs. Users can access the drying components and dust collection box simply by operating a single support plate during cleaning and maintenance, improving user experience and ease of operation.

[0051] In one possible implementation, the cleaning component is detachably connected to the storage location.

[0052] This design allows users to easily remove the cleaning components for cleaning, maintenance, or replacement, maintaining the hygiene and functionality of the equipment and extending its lifespan. The detachable design reduces the need for professional technical support, allowing users to perform simple replacements and maintenance themselves, thus lowering maintenance costs. When internal inspections or maintenance are required, removing the cleaning components provides better visibility and operating space, reducing the risk of misoperation and improving safety.

[0053] A second aspect of this application provides a cleaning system, including cleaning equipment and a cleaning base station as described in any of the first aspects above.

[0054] The cleaning system in this application embodiment, by setting up a cleaning base station in the first aspect, can dry other cleaning components that match the cleaning equipment while the cleaning equipment is working. In this way, when the cleaning component installed on the cleaning equipment needs to be replaced, a new, dried cleaning component can be directly replaced, which can reduce the turnaround time of the cleaning components and enable them to be put into use again more quickly, thereby improving the overall work efficiency. Attached Figure Description

[0055] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0056] Figure 1 This is a schematic diagram of the structure of a clean base station provided in an embodiment of this application;

[0057] Figure 2 This is a schematic diagram illustrating the open state of a clean base station, provided in an embodiment of this application.

[0058] Figure 3 This is a cross-sectional structural diagram of a clean base station provided in an embodiment of this application;

[0059] Figure 4 This is a schematic diagram of the structure of a drying component for a clean base station provided in an embodiment of this application;

[0060] Figure 5 A cross-sectional structural diagram of a drying component for a clean base station provided in an embodiment of this application;

[0061] Figure 6 A schematic diagram of the air outlet of a drying component for a clean base station provided in an embodiment of this application;

[0062] Figure 7 This is another structural schematic diagram of a drying component for a clean base station provided in an embodiment of this application;

[0063] Figure 8 This is a partial structural diagram of a clean base station provided in an embodiment of this application;

[0064] Figure 9 This is a partial structural diagram of another clean base station provided in an embodiment of this application;

[0065] Figure 10 This is a partial structural diagram of another clean base station provided in an embodiment of this application.

[0066] Explanation of reference numerals in the attached figures:

[0067] 100 - Clean base station; 10 - Base station body; 11 - Storage space;

[0068] 12-Dust collection component; 13-Cover plate; 20-Storage device;

[0069] 21-Carrier plate; 22-Storage bay; 23-Cavity structure;

[0070] 30 - Drying assembly; 31 - Fan; 311 - Air outlet;

[0071] 32-Air duct assembly; 321-Air inlet; 322-Air outlet;

[0072] 323 - Air guide plate; 33 - Heating element; 34 - Sealing element;

[0073] 40 - Drying area; 200 - Cleaning components. Detailed Implementation

[0074] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this utility model, not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this utility model.

[0075] To improve the automation level of cleaning equipment and further reduce the workload of users in home cleaning, a cleaning base station has been designed to match the cleaning equipment. When the cleaning equipment completes part of the cleaning work and needs to clean its cleaning components (such as a rag), it can return to the cleaning base station, where the cleaning components on the cleaning equipment are cleaned and dried before the cleaning equipment can continue its cleaning work.

[0076] However, cleaning and drying the cleaning components of a cleaning robot via a base station usually takes a long time, which affects the cleaning efficiency of the robot.

[0077] To address the aforementioned technical problems, this application provides a cleaning base station and a cleaning system. The cleaning system includes multiple replaceable cleaning components (such as rags). The cleaning base station can centrally dry these replacement cleaning components. When the cleaning equipment completes a portion of the cleaning work and needs to clean a cleaning component, a dried cleaning component can be directly replaced, allowing the cleaning equipment to quickly resume cleaning operations and thus improving cleaning efficiency.

[0078] The clean base station and clean system provided in the embodiments of this application will be described in detail below with reference to the accompanying drawings.

[0079] Figure 1 This is a schematic diagram of the structure of a clean base station provided in an embodiment of this application. Figure 2 This is a schematic diagram of the open state of a clean base station provided in an embodiment of this application.

[0080] It should be noted that, for ease of description, in this embodiment of the application, the height direction of the cleaning base station is taken as the z-direction, the depth direction of the cleaning base station is taken as the y-direction, and the width direction of the cleaning base station is taken as the x-direction.

[0081] This application provides a clean base station 100, such as Figure 1 As shown, the cleaning base station 100 may include a base station body 10, a storage device 20, and a drying assembly 30. The storage device 20 is disposed within the base station body 10 and includes multiple storage slots 22 for storing cleaning assemblies 200 of the cleaning equipment. The drying assembly 30 is disposed within the base station body 10, with at least a portion of its structure positioned opposite to at least a portion of the storage slots 22. A drying area 40 is formed between the drying assembly 30, a portion of the storage device 20, and a portion of the base station body 10. The multiple storage slots 22 are located within the drying area 40, and the drying assembly 30 is used at least to dry the cleaning assemblies 200 located within the drying area 40.

[0082] For example, the storage device 20 can be opened and closed on the base station body 10. In the opening and closing direction of the storage device 20, the drying component 30 is located on the side of the storage device 20 facing the base station body 10.

[0083] It should be noted that in the embodiments of this application, "orientation" refers to orientation in a broad sense and is not limited to a front-facing arrangement, and "away from" refers to away from in a broad sense and is not limited to a back-to-back parallel arrangement.

[0084] It should be noted that "drying zone 40" refers to a relatively broad area, specifically the area through which the air blown out by the drying component 30 passes. The cleaning component 200 to be dried is located within this drying zone 40. Since the storage position 22 is used to place the cleaning component 200, the area where the storage position 22 is located is part of the drying zone 40.

[0085] It is understandable that, since airflow can fill the entire space, the drying area 40 is not limited to the location of storage unit 22, but also includes some areas near storage unit 22. The boundary of the drying area 40 may include parts of the structure of storage device 20, parts of the structure of drying assembly 30, and parts of the structure of base station body 10.

[0086] It should be noted that the cleaning component 200 to be dried can be a spare cleaning component 200 used to replace the cleaning component 200 on the cleaning equipment, for example, it can be a mop component, etc.

[0087] like Figure 3 As shown, in one possible implementation, the relative structures of the storage device 20 and the base station body 10, the relative structures of the base station body 10 and the storage device 20, the relative structures of the drying assembly 30, and the relative structures of the base station body 10 and the drying assembly 30 together form the drying area 40.

[0088] In some embodiments, a portion of the drying assembly 30 may serve as the boundary of the drying region 40, while another portion may be located within the drying region 40. The drying assembly 30 can dry the clean assembly 200 located within the drying region 40, and can also ensure that the interior of the base station body 10 is in a relatively dry state.

[0089] The cleaning base station 100 in this embodiment integrates the drying component 30 and the storage device 20 within the base station body 10, forming a drying area 40, which effectively utilizes space. This compact design reduces the equipment's footprint and is suitable for use in environments with limited space. After use, the cleaning component 200 of the cleaning equipment can be directly placed in the storage compartment 22 for drying without additional manual intervention. This automated design improves ease of use and efficiency. Compared to related technologies that directly clean and dry the cleaning component 200 installed on the cleaning equipment, this solution allows for direct replacement of the cleaning component 200 with a clean one, enabling the cleaning equipment to quickly continue cleaning operations, thereby improving the cleaning efficiency of the cleaning equipment.

[0090] Furthermore, drying the cleaning components 200 during storage prevents mold growth or material damage caused by moisture, thus extending their lifespan. Dry cleaning components 200 can perform cleaning work more effectively upon reuse, as damp cleaning tools may reduce cleaning effectiveness or, in some cases, damage the surface to be cleaned. By simultaneously drying during storage, the turnaround time of the cleaning components 200 is reduced, allowing them to be used again more quickly and improving overall work efficiency. Integrating storage and drying functions into a single base station reduces equipment complexity and cost while simplifying installation and maintenance. This design allows the number and configuration of storage bays 22 to be adjusted as needed to accommodate different types and quantities of cleaning components 200.

[0091] See also Figure 2 and Figure 3As shown, the storage device 20 may include a carrier plate 21. The carrier plate 21 is provided with a plurality of storage slots 22. The carrier plate 21 can be opened and closed on the base station body 10, and a drying area 40 is formed between at least a portion of the carrier plate 21, a portion of the base station body 10 opposite to the carrier plate 21, and the drying assembly 30.

[0092] For example, the support plate 21 has a cavity structure 23. A storage compartment 22 is provided on the cavity wall facing the base station body 10, and the storage compartment 22 includes a through-hole structure. The cavity structure 23 is connected to the air outlet 322 and the through-hole structure. Air blown by the fan 31 enters the cavity structure 23 from the air outlet 322, flows through the storage compartment 22, and then through the through-hole structure at the storage compartment 22 into the space between the support plate 21 and the base station body 10. In use, the support plate 21 can be closed to the base station body 10, allowing the air blown by the fan 31 to pass through the cleaning component 200 to be dried located in the storage compartment 22, thus improving drying efficiency.

[0093] In some embodiments, multiple air guides (not shown in the figure) can be provided inside the cavity structure 23 to divide the cavity structure 23 into different areas, optimize the airflow path inside the cavity structure 23, and improve drying efficiency.

[0094] It should be noted that there is a gap between the storage device 20 and the base station body 10. This gap can be used for ventilation, for example, to facilitate the return air of the fan 31. It can also be used to accommodate part of the cleaning component 200; for example, when part of the structure of the cleaning component 200 extends beyond the storage position 22, sufficient space can be provided for the cleaning component 200. Additionally, this gap between the storage device 20 and the base station body 10 can also serve as part of the drying area 40. In this embodiment, the boundary forming the drying area 40 is not further defined.

[0095] For example, multiple storage compartments 22 are fixedly mounted on the support plate 21. When the support plate 21 is opened, the multiple storage compartments 22 move along with the support plate 21. Correspondingly, the cleaning component 200 located on the storage compartment 22 also moves along with the movement of the support plate 21. This allows for easy disassembly of the cleaning component 200.

[0096] Furthermore, in this embodiment, the storage bits 22 can be distributed in an array, a linear arrangement, or an irregular shape. In this embodiment, the number and arrangement of the storage bits 22 are not limited and can be determined based on the size and requirements of the base station body 10.

[0097] In this embodiment, the closable design of the support plate 21 allows it to be stored away when not in use, saving space. This flexibility enables the base station to perform more functions within a limited space. The closable support plate 21 design makes it easier to access items in the storage compartment 22; users can easily open the support plate 21 for operation, improving ease of use. When the support plate 21 is closed, it forms a relatively enclosed drying area 40 together with the base station body 10 and the drying assembly 30. This enclosed environment helps to maintain the concentration of heat and airflow, improving drying efficiency and effect. When closed, the support plate 21 protects the items in the storage compartment 22 from external environmental influences such as dust and moisture, ensuring the safety and cleanliness of the items. By forming a closed drying area 40, heat loss can be reduced, energy utilization efficiency can be improved, and overall energy consumption can be reduced. The enclosed design reduces the risk of users coming into contact with the drying assembly 30 during operation, improving equipment safety.

[0098] See also Figure 2 As shown, the base station body 10 may include a dust collection component 12. The support plate 21 is located outside the dust collection component 12.

[0099] For example, the dust collection component 12 can be a dust collection box or a dust collection bag. The dust collection bag can be replaced or the garbage in the dust collection box can be disposed of by opening the support plate 21.

[0100] This configuration allows the support plate 21 to function as both a component supporting the storage compartment 22 and a cover for opening the base station body 10 when processing waste in the dust collection component 12. In other words, one component performs two functions, optimizing the internal space layout of the base station body 10 and making the cleaning base station 100 more compact. The reduced number of components simplifies the overall structure of the cleaning base station 100, potentially lowering material and assembly costs. Furthermore, the simplified design may reduce the need for molds and processing steps, further saving costs. During cleaning and maintenance, users only need to operate the support plate 21 to access the drying component 30 and the dust collection box, improving user experience and ease of operation.

[0101] It should be noted that in some embodiments, the dust collection component 12 may not be provided on the base station body 10, or the dust collection component 12 may be provided in other locations. In the embodiments of this application, the presence or absence of the dust collection component 12 and the location of the dust collection component 12 are not further limited.

[0102] In one possible implementation, the cleaning component 200 is detachably connected to the storage compartment 22. This arrangement allows users to easily remove the cleaning component 200 for cleaning, maintenance, or replacement, maintaining the hygiene and functionality of the device and extending its lifespan. The detachable design reduces the need for professional technical support, allowing users to perform simple replacements and maintenance themselves, thus lowering maintenance costs. When internal inspections or maintenance of the device are required, removing the cleaning component 200 provides better visibility and operating space, reducing the risk of misoperation and improving safety.

[0103] The drying component 30 will be described below with reference to the accompanying drawings.

[0104] See also Figure 2 As shown, in the height direction (z direction) of the base station body 10, the drying component 30 can be located between the top of the base station body 10 and the storage device 20.

[0105] For example, in the height direction (z-direction) of the base station body 10, a receiving space 11 is included below the top of the base station body 10, and the drying assembly 30 can be disposed within this receiving space 11. The receiving space 11 can be located on one side near the top of the storage device 20. Figure 2 As shown, the base station body 10 includes a cover plate 13, which covers the outside of the accommodating space 11, thereby concealing the drying assembly 30 inside the base station body 10. The cover plate 13 is detachably connected to the base station body 10, facilitating easy access to the drying assembly 30 for maintenance.

[0106] Of course, in some embodiments, a portion of the structure of the accommodating space 11 may partially overlap with the storage device 20 in the z-direction. In this embodiment, the specific location of the accommodating space 11 is not further limited.

[0107] By positioning the drying assembly 30 between the top of the base station body 10 and the storage device 20, gravity can be used to help evaporated moisture naturally drain downwards, preventing moisture accumulation in the drying area 40 and improving drying efficiency. Placing the drying assembly 30 between the top and the storage device 20 effectively utilizes vertical space, making the overall base station design more compact and saving floor space. Hot air rises, and placing the drying assembly 30 at the top utilizes natural convection to enhance the circulation of hot air throughout the storage area, improving drying performance. Placing the drying assembly 30 at the top also facilitates maintenance and repair, as it is easier to access and operate, reducing downtime and maintenance costs.

[0108] In some embodiments, the drying component 30 can be fixedly connected to the base station body 10, which can improve the stability of the drying component 30 and thus reduce noise.

[0109] like Figure 4 As shown, the drying assembly 30 may include a fan 31 and an air duct assembly 32. The air duct assembly 32 may include an air inlet 321 and an air outlet 322. The fan 31 is connected to the air inlet 321, so that the air blown out by the fan 31 can enter the air inlet 321, so that the fan 31 can deliver air to the drying area 40 through the air duct assembly 32.

[0110] By configuring the drying assembly 30 as a combination of a fan 31 and an air duct assembly 32, air can be effectively introduced into the drying zone 40. This design ensures that the airflow acts directly on the cleaning assembly 200 within the storage compartment 22, thereby improving drying efficiency. Because the airflow acts directly on the area to be dried, unnecessary heat loss is reduced, and the directional airflow can more effectively remove moisture from the surface of the cleaning assembly 200, shortening the drying time.

[0111] It should be noted that in this embodiment, the drying area 40 is located on the plane enclosed by the x and z directions. In other embodiments, the drying area 40 may also be located on the plane enclosed by the y and z directions. In this embodiment, the setting direction of the drying area 40 is not further limited.

[0112] In this embodiment, the example is taken where the drying area 40 is located on a plane enclosed by the x and z directions.

[0113] In some embodiments, at least a portion of the structure of the air outlet 322 is disposed opposite to at least a portion of the storage positions 22. This may include various corresponding situations, such as a portion of the air outlet 322 being disposed opposite to a portion of the storage positions 22, all the air outlets 322 being disposed opposite to a portion of the storage positions 22, a portion of the air outlets 322 being disposed opposite to all the storage positions 22, or all the air outlets 322 being disposed opposite to all the storage positions 22.

[0114] For example, in the z-direction, the air outlet 322 is located directly above the drying area 40 and at the center of the drying area 40 (center position in the x-direction), so that the air outlet 322 faces the drying area 40, thereby setting the entire structure of the air outlet 322 relative to at least a portion of the storage (e.g., the area covered by the storage bit 22 in the x-direction is larger than the area covered by the air outlet 322).

[0115] In some other embodiments, the air outlet 322 may be offset from the center of the drying area 40 so that the air outlet 322 may be positioned opposite to a portion of the storage compartment 22.

[0116] In some embodiments, the coverage area of ​​the air outlet 322 in the x direction may be greater than the coverage area of ​​the drying area 40 in the x direction, so that some air outlets 322 can be arranged opposite to all storage positions 22.

[0117] By aligning at least a portion of the structure of the air outlet 322 with at least a portion of the storage positions 22, airflow can evenly cover all storage positions 22 within the drying area 40. This uniform airflow distribution helps avoid localized over-drying or under-drying. The design of the air outlet 322, directly aligned with the storage positions 22, allows for better control of the airflow direction and intensity, improving drying efficiency and ensuring that the cleaning components 200 reach the ideal dryness level in a shorter time. This design allows for adjustment of the position and angle of the air outlet 322 according to the needs of different cleaning components 200 to achieve optimal drying results, enhancing the system's flexibility and adaptability.

[0118] In some embodiments, such as Figure 5 As shown, the drying assembly 30 may further include a heating assembly 33. The heating assembly 33 is disposed between the air outlet 322 of the fan 31 and the air outlet 322 of the air duct assembly 32. The air blown out by the fan 31 passes through the heating assembly 33 and is then blown from the air outlet 322 of the air duct assembly 32 towards the drying area 40.

[0119] By placing a heating element 33 between the fan 31 and the air outlet 322, the airflow is heated before reaching the air outlet 322, thereby increasing the air temperature. The hot air can more effectively evaporate moisture from the surface of the cleaning components 200, thus accelerating the drying process. This arrangement ensures that the airflow is uniformly heated before entering the drying zone 40, providing a stable and consistent heat distribution, ensuring that all cleaning components 200 within the storage compartments 22 receive uniform heating.

[0120] By directly heating the airflow, heat loss can be reduced and energy efficiency improved. Compared to heating within the drying zone 40, this method can more effectively transfer heat to the airflow, thereby reducing overall energy consumption. Since the heating element 33 directly heats the flowing airflow, the system can respond more quickly to temperature regulation needs, enabling rapid control and adjustment of the drying temperature, thus improving system flexibility and responsiveness. Positioning the heating element 33 between the fan 31 and the air outlet 322 effectively isolates the heating element from the cleaning component 200, reducing the risk of direct contact and enhancing system safety.

[0121] See also Figure 5 As shown, the fan 31 may include an air outlet 311. The air outlet 311 is fixedly connected to the air inlet 321 of the air duct assembly 32.

[0122] For example, the air outlet 311 can be plugged into the air inlet 321, and the air outlet 311 and the air inlet 321 are sealed together. In one possible implementation, a seal 34 can be provided between the air outlet 311 and the air inlet 321 to ensure a sealed connection between them.

[0123] By setting the air outlet 311, the airflow generated by the fan 31 can be concentrated and guided to the air inlet 321 of the duct assembly 32, reducing airflow diffusion and energy loss, thereby improving the concentration and kinetic energy of the airflow. By directly introducing the airflow into the duct assembly 32, the air outlet 311 can reduce turbulence and irregular flow of the airflow before entering the duct, improving the overall efficiency and performance of the system. Since the air outlet 311 can effectively guide and concentrate the airflow, unnecessary energy loss is reduced, thereby reducing the system's energy consumption and improving energy utilization efficiency. Through a smooth airflow transition, the air outlet 311 can reduce the generation of turbulence and eddies, reduce noise during equipment operation, and improve the user experience. The fixed connection between the air outlet 311 and the duct assembly 32 provides structural stability, reducing problems such as loose connections or airflow leakage caused by vibration or other factors.

[0124] like Figure 6 As shown, there can be multiple air outlets 322. These multiple air outlets 322 are spaced apart along a first direction. The air outlet area of ​​each air outlet 322 is positively correlated with the distance from the air outlet 322 to the air inlet 321. That is, in the first direction, the air outlet 322 closer to the air inlet 321 has a smaller air outlet area, and the air outlet 322 farther from the air inlet 321 has a larger air outlet area.

[0125] It should be noted that "first direction" refers to the arrangement direction of the air outlets 322. The first direction differs depending on the location and orientation of the air duct assembly 32. For example, in this embodiment, when the side of the air duct assembly 32 with the air outlets 322 extends along the x-direction, the first direction refers to the x-direction. In other embodiments, if the side of the air duct assembly 32 with the air outlets 322 extends along the y-direction, the first direction refers to the y-direction; if the side of the air duct assembly 32 with the air outlets 322 extends along the z-direction, the first direction refers to the z-direction. The direction with the largest dimension on the side of the air duct assembly 322 with the air outlets 322 can be used as the extension direction. When the side of the air duct assembly 32 with the air outlets 322 is a curved surface, the first direction is the direction of the curve formed by the curved surface.

[0126] For example, the side of the air duct assembly 32 facing the storage position 22 is provided with an air guide plate 323, and the air outlet 322 is disposed on the air guide plate 323.

[0127] By adjusting the area of ​​the air outlet 322 to be positively correlated with its distance from the air inlet 321, sufficient airflow intensity and coverage can be maintained even at locations far from the air inlet 321. This helps achieve a uniform airflow distribution throughout the entire drying zone 40. As the airflow moves through the duct, the pressure gradually decreases. By increasing the area of ​​the more distant air outlets 322, pressure loss can be compensated for, ensuring a relatively consistent airflow at each outlet 322, thus achieving a more balanced drying effect. This design effectively utilizes the kinetic energy of the airflow, reducing energy consumption increases due to pressure loss, thereby improving the overall energy efficiency of the system.

[0128] By ensuring that each air outlet 322 provides an appropriate airflow, the drying speed and effectiveness of all cleaning components 200 within the drying zone 40 can be improved, shortening the overall drying time. This design can be adjusted according to different drying needs and equipment layouts to achieve optimal airflow distribution and drying effect, enhancing the system's flexibility and adaptability. By optimizing the area and position of the air outlets 322, fluctuations in airflow velocity can be reduced, turbulence and noise generation can be minimized, improving the quietness of equipment operation.

[0129] It should be noted that, in this embodiment, the specific functional relationship between the air outlet area of ​​the air outlet 322 and the distance from the air outlet 322 to the air inlet 321 is not further limited. Furthermore, in this embodiment, the number of air outlets 322 is not further limited. It can be set according to the size of the cleaning base station 100.

[0130] For example, the air duct assembly 32 may include a first structural member and a second structural member disposed opposite to each other along the y-direction, with an air duct formed between the first structural member and the second structural member. The first structural member and the second structural member are engaged and connected. An air inlet 321 is provided on the side of the air duct assembly 32 facing the fan 31, and an air outlet 322 is provided on the side of the air duct assembly 32 facing the storage position 22.

[0131] It should be noted that in other embodiments, the air duct assembly 32 may also have other structures, and the specific structure of the air duct assembly 32 is not further limited.

[0132] See also Figure 6 As shown, the air duct assembly 32 has one side with an air outlet 322 extending along the x-direction, which is the first direction. In this first direction, the air inlet 321 is located in the middle of the air duct assembly 32, and the air duct assembly 32 is symmetrical with respect to the air inlet 321. That is, the dimensions of the sides of the air duct assembly 32 with air outlets 322 on both sides of the air inlet 321 are the same. This can also be understood as the number of air outlets 322 on both sides of the air inlet 321 in the first direction being the same, or the total air outlet size of the air outlets 322 being the same.

[0133] By positioning the air inlet 321 in the center of the air duct assembly 32, airflow can diffuse evenly to both sides, ensuring a more uniform airflow distribution throughout the entire air duct assembly 32. This contributes to achieving consistent drying results within the drying zone 40. The symmetrical structure reduces turbulence and irregular flow within the air duct, minimizing energy loss and improving airflow transmission efficiency, thereby enhancing overall drying efficiency. Furthermore, symmetrical structures are generally easier to design and manufacture because symmetry reduces complexity and variability, lowering production costs and time. The central air inlet and symmetrical structure help balance pressure on both sides of the air duct, preventing excessively high or low pressure on one side, thus ensuring relatively consistent airflow at each outlet 322. The symmetrical airflow path reduces turbulence and eddies, thereby reducing operating noise and improving the equipment's quietness. Symmetrical designs are generally more aesthetically pleasing and provide better structural stability, enhancing the overall reliability of the equipment.

[0134] It should be noted that in some other embodiments, the air inlet 321 may not be located in the middle of the air duct assembly 32. In this embodiment, the location of the air inlet 321 in the first direction is not further limited.

[0135] In some embodiments, the drying assembly 30 can be fixedly connected to the base station body 10 through the air duct assembly 32. For example, the fan 31 is fixedly connected to the air duct assembly 32, and the air duct assembly 32 is fixedly connected to the base station body 10. This allows the drying assembly 30 to be a module, which is convenient for maintenance.

[0136] In the embodiments of this application, the heating components include, but are not limited to, electric heating wire heaters, ceramic heaters, PTC heaters (positive temperature coefficient thermistors), infrared heaters, microwave heaters, induction heaters, etc. In the embodiments of this application, the specific type of heating component is not further limited.

[0137] It should be noted that the above embodiments describe an example in which the heating element 33 of the drying assembly 30 is disposed inside the air duct assembly 32. In other embodiments, the heating element 33 in the drying assembly 30 may be disposed in other locations; for example, the drying assembly 30 may be disposed in the drying zone 40.

[0138] It should be noted that in some embodiments, such as Figure 7As shown, the air duct assembly 32 can extend to multiple surfaces. For example, the air duct assembly 32 can be arranged around the drying area 40, and an air outlet 322 is provided on the side facing the drying area 40. This allows for all-round air supply to the drying area 40, improving drying efficiency. In this embodiment, the specific shape and size of the air duct assembly 32 are not further limited, and can be set according to specific circumstances.

[0139] like Figure 8 As shown, the drying assembly 30 may include a heating assembly 33. The heating assembly 33 is located within the drying zone 40 and is used to heat the airflow passing through the drying zone 40.

[0140] In some embodiments, the heating component 33 may be fixed to the base station body 10 and correspond to at least a portion of the storage slots 22. In other embodiments, the heating component 33 may be disposed on the storage slots 22 of the storage device 20. For example, a heating component may be provided on the side of the storage slot 22 facing away from the base station body 10. When the cleaning component 200 is disposed on the storage slot 22, the heating component may heat the cleaning component 200 located on the storage slot 22 to improve drying efficiency.

[0141] By directly placing the heating element 33 within the drying zone 40, the airflow passing through this zone can be directly heated, thereby improving heat transfer efficiency. Hot air can then directly contact the cleaning components 200, enhancing the drying effect. Placing the heating element 33 within the drying zone 40 allows for a more uniform temperature distribution, ensuring all cleaning components 200 receive consistent heating and preventing localized overheating or uneven drying. This layout allows for more precise temperature control within the drying zone 40, enabling flexible adjustments to heating intensity and time based on the material and drying requirements of different cleaning components 200, thus improving system adaptability. Direct heating within the drying zone 40 reduces heat loss during transfer, improving energy efficiency and lowering overall energy consumption. Integrating the heating element 33 within the drying zone 40 simplifies the design of air ducts and airflow paths, reducing system complexity and potential points of failure.

[0142] It should be noted that, Figure 8 The embodiment shown differs from the other in that the heating element in the drying assembly 30 is positioned differently. Figure 1-7 The embodiments shown may differ, but the placement, specific shape, connection relationships, and principles of other structures can all be the same. Figure 1-7 The embodiments shown are the same, therefore, for Figure 8 The placement, specific shape, connection relationship, and principle of other structures in the embodiments shown will not be described in detail.

[0143] Of course, in some embodiments, the drying component 30 may only include a fan 31, which blows air into the drying area 40, thus achieving the effect of drying the cleaning component 200 in the drying area 40.

[0144] In some other embodiments, the drying assembly 30 may consist only of a fan 31 and a heating assembly. The heating assembly may be located on the side where the fan 31 exits the air, so that the air blown out by the fan 31 passes through the heating assembly before entering the drying zone 40. Alternatively, the heating assembly may be located within the drying zone 40, so that the airflow within the drying zone 40 is hot. The hot airflow within the drying zone 40 is circulated by the fan 31, thereby achieving the drying effect.

[0145] In other embodiments, such as Figure 9 As shown, there can be multiple drying components 30. These multiple drying components 30 are arranged around multiple storage locations 22.

[0146] For example, multiple drying components 30 can be arranged around the outer periphery of the drying area 40, so that the cleaning components 200 within the drying area 40 can be dried from all directions, thereby improving drying efficiency.

[0147] It should be noted that when multiple drying components 30 are provided, they can share a single fan 31, with the air duct components 32 of each drying component 30 positioned at different locations. This can save costs. Of course, each drying component 30 can also correspond to a separate fan 31. In this embodiment, the specific structure of each drying component 30 is not further limited when there are multiple drying components 30.

[0148] This configuration ensures that each storage compartment 22 receives heat and airflow from different directions, resulting in a more uniform drying effect and avoiding incomplete drying in certain areas. Multi-point heating and airflow accelerate the drying process of the cleaning components 200, shortening the overall drying time and improving equipment efficiency. Multiple drying components 30 can be independently controlled, adjusting heating and airflow intensity according to the needs of different storage compartments 22, enabling more flexible operation and more precise temperature control. The multiple drying components 30 provide redundancy; even if one component fails, others can continue operating, ensuring system reliability and continuity. By enabling or disabling some drying components 30 as needed, energy consumption can be optimized, unnecessary energy waste reduced, and overall energy efficiency improved.

[0149] Figure 9 The embodiments shown are different from those of the drying component 30 in terms of its placement and structure. Figure 1-7The embodiments shown may differ, but the placement, specific shape, connection relationships, and principles of other structures can all be the same. Figure 1-7 The embodiments shown are the same, therefore, for Figure 9 The placement, specific shape, connection relationship, and principle of other structures in the embodiments shown will not be described in detail.

[0150] In other embodiments, such as Figure 10 As shown, each storage position 22 can correspond to a drying component 30. This allows for precise drying of the cleaning component 200 on a specific storage position 22 using a specific drying component 30, thus saving energy. In this embodiment, the air duct component 32 and the heating component of the drying component 30 can be configured according to specific circumstances. In this embodiment, the structure of the drying component 30 is not further limited.

[0151] Figure 10 The embodiments shown are similar to those in the drying assembly 30 except for the placement and structure. Figure 1-7 The embodiments shown may differ, but the placement, specific shape, connection relationships, and principles of other structures can all be the same. Figure 1-7 The embodiments shown are the same, therefore, for Figure 10 The placement, specific shape, connection relationship, and principle of other structures in the embodiments shown will not be described in detail.

[0152] This application also provides a cleaning system, including cleaning equipment and a cleaning base station 100 as described in any of the above embodiments. The cleaning equipment includes, but is not limited to, robotic vacuum cleaners, robotic mopping robots, floor scrubbers, vacuum cleaners, window cleaning robots, pool cleaning robots, carpet cleaners, and multi-functional cleaning robots.

[0153] The cleaning system in this application embodiment, by setting up the cleaning base station 100 in any of the above embodiments, can dry other cleaning components 200 that are matched with the cleaning equipment while the cleaning equipment is working. In this way, when the cleaning component 200 installed on the cleaning equipment needs to be replaced, a new, dried cleaning component 200 can be directly replaced, which can reduce the turnaround time of the cleaning component 200 and enable it to be put into use again more quickly, thereby improving the overall work efficiency.

[0154] The various embodiments or implementation methods described in this specification are presented in a progressive manner. Each embodiment focuses on the differences from other embodiments, and the same or similar parts between the embodiments can be referred to each other.

[0155] In the description of this application, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this application.

[0156] In the description of this application, it should be understood that the terms “comprising” and “having” as used herein, and any variations thereof, are intended to cover non-exclusive inclusion, for example, a process, method, system, product, or apparatus that includes a series of steps or units is not necessarily limited to those steps or units that are expressly listed, but may include other steps or units that are not expressly listed or that are inherent to such process, method, product, or apparatus.

[0157] Unless otherwise expressly specified and limited, the terms "installation," "connection," "linking," "fixing," etc., should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the connection within two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this application according to the specific circumstances. Furthermore, the terms "first," "second," etc., are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated.

[0158] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this application, and are not intended to limit them. Although this application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some or all of the technical features therein. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of this application.

Claims

1. A clean base station, characterized in that, include: Base station body; A storage device is disposed in the base station body, the storage device including multiple storage slots, the storage slots being used to store cleaning components of the cleaning equipment; A drying component is disposed within the base station body, and at least a portion of the structure of the drying component is disposed opposite to at least a portion of the storage bits; wherein, A drying area is formed between the drying component, part of the storage device, and part of the base station body. Multiple storage bits are located within the drying area. The drying component is used to dry the cleaning component located within the drying area.

2. The clean base station according to claim 1, characterized in that, The drying assembly includes a fan and an air duct assembly; wherein... The air duct assembly includes an air inlet and an air outlet, the fan is connected to the air inlet, and at least a portion of the structure of the air outlet is disposed opposite to at least a portion of the storage space; The fan is used to deliver air to the drying area through the air duct assembly.

3. The clean base station according to claim 2, characterized in that, The drying assembly further includes a heating element; wherein... The heating element is disposed between the fan and the air outlet, and the air blown out by the fan passes through the heating element and is then blown from the air outlet to the drying area.

4. The clean base station according to claim 2, characterized in that, The drying assembly further includes a heating element; wherein... The heating element is located within the drying area and is used to heat the airflow passing through the drying area.

5. The clean base station according to any one of claims 2-4, characterized in that, The number of air outlets is multiple; among them... The plurality of air outlets are spaced apart along the first direction; The air outlet area is positively correlated with the distance from the air outlet to the air inlet.

6. The clean base station according to claim 5, characterized in that, In the first direction, the air inlet is located in the middle of the air duct assembly, and the air duct assembly has a symmetrical structure with respect to the air inlet.

7. The clean base station according to any one of claims 2-4, characterized in that, The fan includes an air outlet; wherein... The air outlet is fixedly connected to the air inlet of the air duct assembly.

8. The clean base station according to any one of claims 1-4, characterized in that, In the height direction of the base station body, the drying component is located between the top of the base station body and the storage device.

9. The clean base station according to any one of claims 1-4, characterized in that, The number of drying components is multiple; among them... The plurality of drying components are arranged around the plurality of storage locations.

10. The clean base station according to any one of claims 2-4, characterized in that, The storage device includes a carrier plate; wherein... The carrier plate is provided with the plurality of storage bits; The support plate can be opened and closed on the base station body, and the drying area is formed between the support plate, the portion of the base station body opposite to the support plate, and the drying component.

11. The clean base station according to claim 10, characterized in that, The bearing plate has a hollow structure; wherein... The cavity structure has the storage slot on the cavity wall facing the base station body, and the storage includes a through-hole structure; The cavity structure is connected to the air outlet and the through hole structure. The air blown out by the fan enters the cavity structure from the air outlet and flows through the storage position into the space between the carrier plate and the base station body.

12. The clean base station according to claim 10, characterized in that, The base station body includes a dust collection component; wherein... The support plate is located on the outside of the dust collection component.

13. The clean base station according to any one of claims 1-4, characterized in that, The cleaning component is detachably connected to the storage compartment.

14. A cleaning system, characterized in that, Includes cleaning equipment and a cleaning base station as described in any one of claims 1-13.

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