Steam modules for sweepers and sweepers

Abstract

This application provides a steam module for a sweeping machine and the sweeping machine itself. The assembly housing has an assembly chamber inside, and a heat-conducting shell is assembled within the assembly chamber. The heat-conducting shell has mutually isolated drainage channels and a receiving chamber inside. The inlet of the drainage channel is configured to connect to a clean water tank, and the outlet of the drainage channel is configured to release steam. A heating element is assembled within the receiving chamber of the heat-conducting shell, and the heating element is configured to transfer heat through the heat-conducting shell to the drainage channel, thereby heating and evaporating the liquid flowing through the drainage channel into steam. By integrating the aforementioned steam module, this sweeping machine incorporates steam functionality, enabling it to emit steam in addition to sweeping and mopping while cleaning the floor. The steam can better clean stubborn stains on the floor, improving the overall cleaning ability of the sweeping machine.

Description

Technical Field

[0001] This application relates to the field of household appliance technology, and in particular to a steam module for a sweeping machine and the sweeping machine itself. Background Technology

[0002] Robotic vacuum cleaners are gradually becoming indispensable cleaning appliances in households, playing a vital role in home cleaning. However, current robotic vacuum cleaners only have basic sweeping and mopping functions, which are insufficient for effectively cleaning floors. For stubborn stains, a steam function is still needed to effectively remove them. Therefore, how to smoothly integrate a steam function into a robotic vacuum cleaner without affecting its overall size has become a technical problem that urgently needs to be solved by those skilled in the art. Utility Model Content

[0003] Therefore, it is necessary to provide a steam module for a sweeping machine and a sweeping machine in response to the aforementioned technical problems.

[0004] This application provides a steam module for a sweeping machine, the steam module for the sweeping machine comprising:

[0005] An assembly housing, the interior of which has an assembly chamber;

[0006] A heat-conducting shell is assembled in the assembly chamber of the assembly shell. The interior of the heat-conducting shell has mutually isolated drainage channels and receiving chambers. The channel inlet of the drainage channel is configured to connect to a clean water tank, and the channel outlet of the drainage channel is configured to release steam.

[0007] A heating element is assembled in the receiving chamber of the heat-conducting shell. The heating element is configured to transfer heat through the heat-conducting shell to the flow channel, thereby heating and evaporating the liquid flowing through the flow channel into steam.

[0008] In one embodiment, the steam module for the sweeper further includes:

[0009] Electrode sheet, the electrode sheet being disposed on the surface of the heating element;

[0010] An insulating structure is provided, which insulatingly covers the exterior of the heating element and the electrode element, and the insulating structure, together with the electrode element and the heating element, is assembled in the receiving cavity of the heat-conducting shell.

[0011] In one embodiment, the heating element is configured as a PTC heating element; and / or,

[0012] The number of electrode plates is configured to be two, with each electrode plate respectively disposed on two surfaces of the heating element; and / or,

[0013] The drainage channel is arranged around the assembly chamber; and / or

[0014] The heat-conducting shell is made of aluminum.

[0015] In one embodiment, the insulating structure is configured as an insulating film that insulatingly covers the exterior of the heating element and the electrode sheet; and / or,

[0016] The insulating structure is configured to have an insulating cavity with an opening, through which the heating element and the electrode are assembled.

[0017] In one embodiment, the steam module for the sweeper further includes:

[0018] A fixing gasket is assembled in the insulating cavity of the insulating structure. The surface of the fixing gasket is provided with a limiting slope, which gradually increases in the direction towards the cavity opening in the insulating cavity.

[0019] The heating element and the electrode are disposed on the limiting inclined surface of the fixing pad, and the limiting inclined surface is configured to restrict the heating element and the electrode from detaching from the insulating inner cavity through the cavity opening.

[0020] In one embodiment, the steam module for the sweeper further includes:

[0021] A heat insulation structure is assembled in the assembly chamber of the assembly shell, and the heat insulation structure is heat-insulatingly disposed between the heat-conducting shell and the assembly shell.

[0022] In one embodiment, the heat insulation structure includes two heat insulation plates, which are respectively disposed on two surfaces of the heat-conducting shell. The two surfaces of the heat-conducting shell are heat-insulated from the two inner walls of the assembly chamber by the two heat insulation plates; and / or,

[0023] The insulation structure is configured as insulation cotton.

[0024] In one embodiment, the steam module for the sweeper further includes:

[0025] A temperature controller, which is connected to the heat-conducting shell, is used to acquire the temperature data of the heat-conducting shell.

[0026] In one embodiment, the steam module for the sweeper further includes:

[0027] A temperature fuse is connected in series with the temperature controller, the heating element, and the electrode plate.

[0028] In one embodiment, the assembly housing includes a first housing and a second housing, the first housing having a first chamber inside, and the second housing having a second chamber inside, the first chamber and the second chamber being configured to form the assembly chamber; and / or,

[0029] The drainage channel includes a drainage pipe and an inlet component and an outlet component disposed at both ends of the drainage pipe. The drainage pipe is configured to be made of a metal material with heat conduction function, and at least one of the inlet component and the outlet component is configured to be made of rubber material.

[0030] This application provides a sweeping machine, the sweeping machine comprising:

[0031] Chassis;

[0032] A clean water tank, which is assembled on the chassis;

[0033] A steam nozzle, which is mounted on the chassis;

[0034] The steam module for the sweeper has its inlet channel connected to the clean water tank, and its outlet channel connected to the steam nozzle.

[0035] In the aforementioned steam module for sweeping machines and the sweeping machine itself, the sweeping machine integrates the steam function, enabling it to emit steam in addition to sweeping and mopping when cleaning the floor. The steam can be used to better clean stubborn stains on the floor, thus improving the overall cleaning ability of the sweeping machine. Attached Figure Description

[0036] Figure 1 This is an assembly diagram of a steam module for a sweeper on a chassis, provided in one embodiment of this application.

[0037] Figure 2 This is a schematic diagram of the structure of a steam module for a sweeper provided in one embodiment of this application.

[0038] Figure 3 For the sake of Figure 2 The diagram shows a plan view of the steam module used in a sweeper.

[0039] Figure 4 For the sake of Figure 3 The image shows an AA cross-sectional view of the steam module used in a sweeper.

[0040] Figure 5 For the sake of Figure 3 The image shown is an exploded view of the steam module used in a sweeper.

[0041] Figure 6 This is a schematic diagram of the structure of a heat-conducting shell provided in one embodiment of this application.

[0042] Figure 7 For the sake of Figure 6 The diagram shows a planar view of the heat-conducting shell.

[0043] Figure 8 For the sake of Figure 7 The BB cross-sectional view of the heat-conducting shell is shown.

[0044] Icon labels:

[0045] 100. Chassis; 101. Steam outlet; 200. Steam module; 1000. Assembly shell; 2000. Heat-conducting shell; 3000. Heating element; 4000. Electrode plate; 5000. Insulation structure; 6000. Fixing gasket; 7000. Thermal insulation structure; 8000. Temperature controller; 9000. Temperature fuse; 1010. Assembly chamber; 1100. First shell; 1200. Second shell; 2100. Drainage channel; 2200. Receiving chamber; 5100. Insulating inner cavity; 6100. Limiting slope; 7100. Heat insulation plate; 2110. Inlet component; 2120. Outlet component. Detailed Implementation

[0046] To make the above-mentioned objectives, features, and advantages of this application more apparent and understandable, the specific embodiments of this application are described in detail below with reference to the accompanying drawings. Many specific details are set forth in the following description to provide a thorough understanding of this application. However, this application can be implemented in many other ways different from those described herein, and those skilled in the art can make similar modifications without departing from the spirit of this application. Therefore, this application is not limited to the specific embodiments disclosed below.

[0047] In the description of this application, it should be understood that if terms such as "center", "longitudinal", "lateral", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", "axial", "radial", "circumferential" appear, these terms 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.

[0048] Furthermore, where the terms "first" and "second" appear, these terms are for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined with "first" or "second" may explicitly or implicitly include at least one of that feature. In the description of this application, where the term "multiple" appears, "multiple" means at least two, such as two, three, etc., unless otherwise explicitly specified.

[0049] In this application, unless otherwise expressly specified and limited, the terms "installation," "connection," "joining," and "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 mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components, unless otherwise expressly limited. Those skilled in the art can understand the specific meaning of the above terms in this application based on the specific circumstances.

[0050] In this application, unless otherwise expressly specified and limited, the use of descriptions such as "above" or "below" the second feature indicates that the first and second features are in direct contact or indirect contact via an intermediate medium. Furthermore, "above," "on top of," and "over" the second feature can mean that the first feature is directly above or diagonally above the second feature, or simply that the first feature is at a higher horizontal level than the second feature. Similarly, "below," "below," and "under" the second feature can mean that the first feature is directly below or diagonally below the second feature, or simply that the first feature is at a lower horizontal level than the second feature.

[0051] It should be noted that if an element is referred to as being "fixed to" or "set on" another element, it can be directly on the other element or there may be an intervening element. If an element is considered to be "connected to" another element, it can be directly connected to the other element or there may be an intervening element. If so, the terms "vertical," "horizontal," "upper," "lower," "left," "right," and similar expressions used in this application are for illustrative purposes only and do not represent the only possible implementation.

[0052] See Figures 1 to 8As shown, this application provides a steam module 200 for a sweeper. The steam module 200 for a sweeper includes an assembly shell 1000, a heat-conducting shell 2000, a heating element 3000, an electrode plate 4000, and an insulating structure 5000. The assembly shell 1000 has an assembly chamber 1010 inside for accommodating other components. The heat-conducting shell 2000 is assembled in the assembly chamber 1010 of the assembly shell 1000. The heat-conducting shell 2000 has a drainage channel 2100 and a receiving chamber 2200 inside. The heating element 3000 is assembled in the receiving chamber 2200 of the heat-conducting shell 2000. The heating element 3000 is configured to transfer heat through the heat-conducting shell 2000 to the drainage channel 2100, thereby heating the liquid flowing through the drainage channel 2100, causing the liquid to evaporate into steam. The steam can be used in the sweeper to clean areas of the floor awaiting cleaning.

[0053] Electrode 4000 is disposed on the surface of heating element 3000. Electrode 4000 provides electrical energy to heating element 3000 and allows current to pass through heating element 3000, causing heating element 3000 to heat up. Insulating structure 5000 is insulatingly covered on the outside of heating element 3000 and electrode 4000, and insulating structure 5000, electrode 4000, and heating element 3000 are assembled together in the receiving chamber 2200 of heat-conducting shell 2000.

[0054] Therefore, the heating element 3000 generates heat, which is transferred to the heat-conducting shell 2000, and then the heat-conducting shell 2000 transfers the heat to the liquid in the drainage channel 2100. When the liquid temperature reaches its boiling point, it begins to vaporize and generate steam. The steam is discharged through the outlet of the drainage channel 2100 and can be used for applications such as heating and steam ironing.

[0055] The design of the aforementioned steam module 200 ensures high heat transfer efficiency, rapid steam generation, and precise temperature control, making it suitable for various applications requiring steam and heat. The special design of the heat-conducting shell 2000 ensures both efficient heat transfer and safe operation, preventing hazards caused by high-temperature steam leakage.

[0056] In one embodiment, the heating element 3000 is configured as a PTC heating element 3000. The PTC heating element 3000 has self-limiting temperature characteristics; when the temperature rises to a certain level, its resistance increases sharply, thereby limiting the current flow and preventing overheating, thus improving the safety of the steam module 200. Two electrode plates 4000 are configured, each disposed on a different surface of the heating element 3000. These two electrode plates allow the current to flow evenly through the heating element 3000, improving heating efficiency and uniformity.

[0057] The flow channel 2100 and the assembly chamber 1010 are isolated from each other inside the heat-conducting shell 2000, and the flow channel 2100 is arranged around the assembly chamber 1010. This design is beneficial for the uniform distribution and conduction of heat. For example, the flow channel 2100 is designed with a meandering shape, which increases the contact area between the steam and the heat-conducting shell 2000 and improves the heat exchange efficiency. The inner wall of the flow channel 2100 is smoothly treated to reduce steam flow resistance and allow the steam to flow smoothly. The cross-section of the flow channel 2100 is elliptical, which has a larger contact area than a circular cross-section while maintaining hydrodynamic properties.

[0058] The drainage channel 2100 may include a drainage pipe and an inlet component 2110 and an outlet component 2120 disposed at both ends of the drainage pipe. The drainage pipe is configured as a heat-conducting metal material, and at least one of the inlet component 2110 and the outlet component 2120 is configured as a rubber material, which facilitates the connection of the inlet component 2110 and the outlet component 2120 to the clean water tank and the steam nozzle. Furthermore, the drainage pipe may be integrally formed with the heat-conducting shell 2000, or it may be a separate assembly structure, which is not limited here.

[0059] The receiving chamber 2200 is located at the center of the heat-conducting shell 2000 and has a recessed structure. Its depth matches the thickness of the heating element 3000, ensuring that the heating element 3000 can be fully embedded and in close contact with the heat-conducting shell 2000. In addition, the bottom of the receiving chamber 2200 has multiple tiny protrusions. These protrusions increase the contact area with the heating element 3000 and form tiny air channels to prevent deformation caused by thermal stress between the heating element 3000 and the heat-conducting shell 2000.

[0060] The heat-conducting shell 2000 is made of aluminum, which has excellent thermal conductivity, enabling rapid heat transfer and improved heating efficiency. Furthermore, aluminum has a high thermal conductivity and is relatively lightweight, facilitating a lightweight design for the overall device.

[0061] In one embodiment, the insulating structure 5000 is configured as an insulating film that insulatingly covers the exterior of the heating element 3000 and the electrode plate 4000. The insulating structure 5000 is configured to have an insulating cavity 5100 with an opening through which the heating element 3000 and the electrode plate 4000 are assembled. This design effectively prevents current leakage and ensures safe operation.

[0062] In one embodiment, the steam module 200 includes a retaining pad 6000 fitted into an insulating cavity 5100 of an insulating structure 5000. The surface of the retaining pad 6000 is provided with a limiting slope 6100, which gradually increases in elevation within the insulating cavity 5100 towards the cavity opening. A heating element 3000 and an electrode 4000 are disposed on the limiting slope 6100 of the retaining pad 6000, which is configured to prevent the heating element 3000 and the electrode 4000 from detaching from the insulating cavity 5100 through the cavity opening. This design enhances the stability of the assembly, preventing it from loosening or falling off during use due to vibration or other external forces.

[0063] In one embodiment, the steam module 200 includes a heat insulation structure 7000, which is fitted into the assembly chamber 1010 of the assembly shell 1000 and is heat-insulatingly disposed between the heat-conducting shell 2000 and the assembly shell 1000. The heat insulation structure 7000 is designed to effectively block heat transfer between the heat-conducting shell 2000 and the assembly shell 1000, preventing heat from being conducted from the heat-conducting shell 2000 to the assembly shell 1000, thereby maintaining the temperature stability of the assembly shell 1000.

[0064] In one embodiment, the thermal insulation structure 7000 includes two thermal insulation plates 7100, which are respectively disposed on two surfaces of the thermally conductive shell 2000. The two surfaces of the thermally conductive shell 2000 are thermally insulated from the two inner walls of the assembly chamber 1010 by the two thermal insulation plates 7100. The thermal insulation plates 7100 are made of a material with low thermal conductivity, which can effectively block the heat transfer path. For example, the thermal insulation structure 7000 is configured as thermal insulation cotton, and the thermal insulation plates 7100 are made of thermal insulation cotton in a plate-like structure. The thermal insulation cotton is made of a porous material containing a large number of tiny pores, which can effectively block the conduction of heat. The thermal insulation cotton fills the space between the thermally conductive shell 2000 and the inner wall of the assembly chamber 1010, forming a continuous and complete thermal insulation layer. The insulation cotton is lightweight and has good heat insulation effect. It can adapt to different shaped installation spaces, fill the irregular gaps between the heat-conducting shell 2000 and the inner wall of the assembly chamber 1010, and ensure the uniformity of the heat insulation effect.

[0065] The heat insulation plate 7100 is tightly fitted to the heat-conducting shell 2000, ensuring that the heat generated by the heat-conducting shell 2000 is not directly transferred to the inner wall of the assembly chamber 1010. Simultaneously, the heat insulation plate 7100 maintains good contact with the inner wall of the assembly chamber 1010, forming a complete heat insulation barrier. The heat insulation structure 7000 reduces heat transfer to the assembly shell 1000, improving heating efficiency and lowering the surface temperature of the assembly shell 1000, thus enhancing operational safety.

[0066] In one embodiment, the steam module 200 includes a temperature controller 8000 connected to the heat-conducting shell 2000 to acquire temperature data of the heat-conducting shell 2000, thereby enabling real-time monitoring of the temperature of the heat-conducting shell 2000. For example, the temperature controller 8000 can control the working state of the heating element 3000 according to set temperature parameters to achieve precise temperature control and avoid excessively high or low temperatures affecting the performance.

[0067] The temperature controller 8000 is electrically connected to the heating element 3000. It can control the operating state of the heating element 3000 and adjust its output power according to actual needs, thereby precisely controlling the temperature of the heat-conducting shell 2000. The temperature controller 8000 can have a built-in temperature sensor that can monitor the temperature changes of the heat-conducting shell 2000 in real time and automatically adjust the operating state of the heating element 3000 according to preset temperature parameters, achieving precise temperature control.

[0068] When the temperature controller 8000 is connected to the electrode plate 4000, the temperature controller 8000 can monitor the working status of the electrode plate 4000 and adjust the system's operating parameters according to the temperature changes of the electrode plate 4000, ensuring that the electrode plate 4000 operates within a suitable temperature range. The temperature controller 8000 adopts a closed-loop control principle, continuously adjusting the control parameters through a feedback mechanism to maintain the system temperature within the set range, thereby improving the system's stability and reliability.

[0069] In a preferred embodiment, the temperature controller 8000 is connected to both the heating element 3000 and the electrode plate 4000, forming a complete temperature control system. The temperature controller 8000 monitors the temperatures of the heating element 3000 and the electrode plate 4000 through multiple temperature acquisition channels, and controls them according to the temperature requirements of different components to ensure the entire system operates at optimal temperatures. The temperature controller 8000 also has over-temperature protection; when the temperature of any component exceeds a safe threshold, it automatically cuts off the power to the corresponding component to prevent system damage due to overheating.

[0070] Through the design of the aforementioned heat insulation structure 7000, an effective thermal insulation layer is formed between the heat-conducting shell 2000 and the assembly shell 1000, preventing the heat generated by the heat-conducting shell 2000 from being transferred to the assembly shell 1000, and protecting the assembly shell 1000 and its surrounding environment from high temperatures. Simultaneously, the application of the temperature controller 8000 ensures precise control of the system temperature, improving the overall efficiency and reliability of the device.

[0071] In one embodiment, the steam module 200 includes a temperature fuse 9000 connected in series in a series circuit of a temperature controller 8000, a heating element 3000, and an electrode 4000. The temperature fuse 9000 contains a fusible element made of a low-melting-point alloy, such as a heating wire. When the ambient temperature exceeds a preset threshold, the fusible element melts, causing the circuit to break, thereby cutting off the power supply between the temperature controller 8000, the heating element 3000, and the electrode 4000 connected to it, preventing equipment damage or fire hazard due to overheating.

[0072] The temperature fuse 9000 also includes connection terminals extending from the side of the housing 1000 for electrical connection to the temperature controller 8000, heating element 3000, or electrode plate 4000. The connection terminals are made of a highly conductive copper alloy with a tin-plated surface to prevent oxidation and corrosion, ensuring a long-term stable electrical connection.

[0073] In practical applications, the 9000 temperature fuse can be equipped with different melting points depending on the application scenario. When the temperature of the protected equipment is normal, the fuse remains solid, and the circuit remains conductive. When the temperature rises abnormally and reaches the melting point of the fuse, the fuse melts rapidly, breaking the circuit and cutting off the power supply to prevent damage to the equipment due to overheating. This protection mechanism is one-time use; after blowing, the 9000 temperature fuse needs to be replaced. This ensures the reliability of the protection and avoids the potential failure risk of resettable protection devices.

[0074] The temperature fuse 9000, when connected to the temperature controller 8000, provides additional safety in case the temperature control system fails; when connected to the heating element 3000, it cuts off the power supply when the heating element 3000 overheats abnormally; and when connected to the electrode plate 4000, it disconnects the circuit when the electrode plate 4000 experiences abnormal temperature. This multi-protection mechanism significantly improves the safety performance of the equipment.

[0075] In one embodiment, the assembly housing 1000 includes a first housing 1100 and a second housing 1200. The first housing 1100 has a first chamber inside, and the second housing 1200 has a second chamber inside. The first and second chambers are configured to form an assembly chamber 1010. This split design facilitates assembly and maintenance, while also enhancing structural stability.

[0076] The first housing 1100 may be made of a high-temperature resistant insulating material, such as ceramic or high-temperature engineering plastic, to ensure structural stability and insulation performance under high-temperature conditions. The upper part of the first housing 1100 has an opening for easy installation and maintenance of internal components. The second housing 1200 matches the first housing 1100 and is made of the same or compatible materials. The edge of the second housing 1200 has a sealing groove, which, when combined with the first housing 1100, forms a tight seal to prevent dust and moisture from the external environment from entering the assembly chamber 1010. The exterior of the second housing 1200 has mounting holes for easy fixing of the temperature fuse 9000 to the equipment requiring protection.

[0077] In one embodiment, the first housing 1100 and the second housing 1200 are connected by a snap-fit ​​structure for easy disassembly and maintenance. The snap-fit ​​structure includes a protrusion on the edge of the first housing 1100 and a corresponding groove on the second housing 1200, which engage tightly to ensure the overall stability of the assembled housing 1000.

[0078] This application provides a sweeping machine, which includes at least a chassis 100, a clean water tank, a steam nozzle, and the aforementioned steam module 200. The clean water tank is mounted on the chassis 100, and the steam nozzle is mounted on the chassis 100. Figure 1 As shown, the steam nozzle can be led out to the chassis 100 through the steam outlet 101; the inlet of the channel 2100 of the steam module 200 is connected to the clean water tank, and the outlet of the channel 2100 of the steam module 200 is connected to the steam nozzle. Therefore, water can be obtained through the clean water tank, and then heated into steam by the steam module 200 and sprayed out from the steam nozzle for cleaning the ground waiting area.

[0079] Therefore, by integrating the aforementioned steam module 200, this sweeper can achieve steam mopping function. Because it uses a small-sized, high-efficiency PTC heating element 3000 to replace the traditional heating tube, the steam module 200 can be more compactly integrated into the main unit of the sweeper, effectively reducing the overall size of the sweeper while ensuring the efficient realization of the steam mopping function.

[0080] The steam module 200 is mounted on the chassis 100 of the sweeper and is used for steam cleaning of the floor. In addition, the sweeper can also be equipped with a water tank, steam nozzles, and a control system. The water tank stores cleaning water, and the steam module 200 is connected to the water tank to heat the water into steam. The steam nozzles are located at the bottom of the sweeper and are used to spray steam onto the floor. The control system controls the operating status of the steam module 200 and the timing and intensity of the steam spray.

[0081] The water tank is designed with a detachable structure, making it convenient for users to add cleaning water and clean the tank. The water tank can be equipped with a water level indicator window, allowing users to intuitively understand the water level in the tank.

[0082] The steam nozzles can be designed in a fan shape and evenly distributed on the front bottom surface of the sweeper. Made of high-temperature resistant materials, the steam nozzles can withstand prolonged high-temperature operation without deformation. The steam nozzles are connected to the heating device via high-temperature resistant silicone tubing to ensure smooth steam delivery to the ground.

[0083] The control system includes a main control board and an operation panel. The operation panel is located on top of the sweeper and features a steam intensity adjustment button and indicator lights. Users can select between low, medium, and high steam intensity levels based on different floor materials and the degree of soiling. The main control board controls the heating device's power and steam injection frequency according to user settings.

[0084] During use, the working principle of the steam module 200 of the sweeper is as follows:

[0085] First, the user adds an appropriate amount of water to the water tank and then starts the robot vacuum's steam cleaning function. The control system activates the steam module 200, heating the water in the tank into high-temperature steam. The steam is then delivered through pipes to the steam nozzles and evenly sprayed onto the floor. The high-temperature steam effectively breaks down oil and stubborn stains on the floor, while also killing bacteria and eliminating mites. As the robot vacuum moves forward, the continuous steam spray, combined with the wiping action of the mop assembly, achieves a deep clean of the floor.

[0086] The robot vacuum's steam module 200 features a compact design, mounted on the chassis 100 without increasing the overall height of the vacuum, maintaining its excellent maneuverability. Working in conjunction with other cleaning components, the steam module 200 achieves a comprehensive four-in-one cleaning effect, combining sweeping, vacuuming, mopping, and steaming, significantly improving the efficiency and quality of household cleaning.

[0087] The technical features of the above 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.

[0088] The embodiments described above are merely illustrative of several implementation methods of this application, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the patent application. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this application, and these all fall within the protection scope of this application. Therefore, the protection scope of this patent application should be determined by the appended claims.

Claims

1. A steam module for a sweeper, characterized in that, The steam module for the sweeper includes: Assembly shell (1000), the interior of which has an assembly chamber (1010); A heat-conducting shell (2000) is assembled in the assembly chamber (1010) of the assembly shell (1000). The interior of the heat-conducting shell (2000) has mutually isolated drainage channels (2100) and receiving chambers (2200). The inlet of the drainage channel (2100) is configured to connect to a clean water tank, and the outlet of the drainage channel (2100) is configured to release steam. A heating element (3000) is assembled in the receiving chamber (2200) of the heat-conducting shell (2000). The heating element (3000) is configured to transfer heat through the heat-conducting shell (2000) to the drainage channel (2100), thereby heating and evaporating the liquid flowing through the drainage channel (2100) into steam.

2. The steam module for a sweeper according to claim 1, characterized in that, The steam module for the sweeper also includes: Electrode sheet (4000), the electrode sheet (4000) is disposed on the surface of the heating sheet (3000); An insulating structure (5000) is provided, which is insulatingly covered on the outside of the heating element (3000) and the electrode element (4000), and the insulating structure (5000) is assembled together with the electrode element (4000) and the heating element (3000) in the receiving chamber (2200) of the heat-conducting shell (2000).

3. The steam module for a sweeper according to claim 2, characterized in that, The heating element (3000) is configured as a PTC heating element (3000); and / or, The number of electrode plates (4000) is configured to be two, and the two electrode plates (4000) are respectively disposed on two surfaces of the heating plate (3000); and / or, The drainage channel (2100) is arranged around the assembly chamber (1010); and / or, The heat-conducting shell (2000) is made of aluminum.

4. The steam module for a sweeper according to claim 2, characterized in that, The insulating structure (5000) is configured as an insulating film that insulatingly covers the exterior of the heating element (3000) and the electrode element (4000); and / or, The insulating structure (5000) is configured to have an insulating cavity (5100) with an opening, through which the heating element (3000) and the electrode element (4000) are assembled.

5. The steam module for a sweeper according to claim 4, characterized in that, The steam module for the sweeper also includes: A fixing gasket (6000) is assembled in the insulating cavity (5100) of the insulating structure (5000). The surface of the fixing gasket (6000) is provided with a limiting slope (6100), which gradually increases in the direction towards the cavity opening in the insulating cavity (5100). The heating element (3000) and the electrode (4000) are disposed on the limiting slope (6100) of the fixing pad (6000), and the limiting slope (6100) is configured to restrict the heating element (3000) and the electrode (4000) from disengaging from the insulating inner cavity (5100) through the cavity opening.

6. The steam module for a sweeper according to claim 1, characterized in that, The steam module for the sweeper also includes: A heat insulation structure (7000) is assembled in the assembly chamber (1010) of the assembly shell (1000), and the heat insulation structure (7000) is heat-insulatingly disposed between the heat-conducting shell (2000) and the assembly shell (1000).

7. The steam module for a sweeper according to claim 6, characterized in that, The thermal insulation structure (7000) includes two thermal insulation plates (7100), which are respectively disposed on two surfaces of the thermally conductive shell (2000). The two surfaces of the thermally conductive shell (2000) are thermally insulated from the two inner walls of the assembly chamber (1010) by the two thermal insulation plates (7100); and / or, The insulation structure (7000) is configured as insulation cotton.

8. The steam module for a sweeper according to claim 2, characterized in that, The steam module for the sweeper also includes: A temperature controller (8000) is connected to the heat-conducting shell (2000) and is used to acquire the temperature data of the heat-conducting shell (2000).

9. The steam module for a sweeper according to claim 8, characterized in that, The steam module for the sweeper also includes: A temperature fuse (9000) is connected in series with the temperature controller (8000), the heating element (3000), and the electrode (4000).

10. The steam module for a sweeper according to claim 1, characterized in that, The assembly housing (1000) includes a first housing (1100) and a second housing (1200), the first housing (1100) having a first chamber inside, and the second housing (1200) having a second chamber inside, the first chamber and the second chamber being configured to form the assembly chamber (1010); and / or, The drainage channel (2100) includes a drainage pipe and an inlet component and an outlet component disposed at both ends of the drainage pipe. The drainage pipe is configured to be made of a metal material with heat conduction function, and at least one of the inlet component and the outlet component is configured to be made of rubber material.

11. A sweeping machine, characterized in that, The sweeper includes: Chassis (100); A clean water tank, which is mounted on the chassis (100). Steam nozzle, the steam nozzle being mounted on the chassis (100). According to any one of claims 1-10, the inlet of the steam module for a sweeper is connected to the clean water tank, and the outlet of the steam module for a sweeper is connected to the steam nozzle.

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