Humidifying device and storage box

Abstract

The embodiment of the invention belongs to the technical field of humidifying equipment, and provides a humidifying device and a storage box, and the storage box comprises a box body, an inner container, an air duct and the humidifying device. The humidifying device comprises a liquid storage part, a humidifying part and a butt joint assembly. The humidifying device further comprises a humidifying assembly. The humidifying assembly comprises a fan assembly. The liquid storage part is used for supplying liquid to the humidifying part; the humidifying part is provided with a humidifying air outlet; an air inlet and an air outlet of the air duct are communicated with the storage cavity; the fan assembly is used for sucking airflow in the storage cavity into the air duct through the air inlet and discharging the airflow to the storage cavity from the air outlet; the humidifying air outlet is converged into the air duct, so that air flow humidified by the humidifying part is discharged to the storage cavity from the air outlet of the air duct; according to the humidifying device provided by the invention, the humidifying stability is improved, the humidity fluctuation in the storage box is reduced, and the use performance of the storage box is improved.

Description

Technical Field

[0001] This application relates to the field of humidification equipment technology. In particular, it relates to a humidification device and a storage box. Background Technology

[0002] A storage box is a container used to store and protect items. For example, a cigar cabinet is stored in a storage box. Cigars continue to age under suitable temperature and humidity conditions, and their flavors and aromas become more complex and richer over time.

[0003] In the prior art, storage boxes used for storing cigars are usually called cigar cabinets. The humidity in the storage box has a significant impact on the quality of the cigars. Storage boxes are often equipped with a humidifying water tank. The humidifying water tank consists of a tank body and a fan. The tank body stores water. Thus, the airflow in the storage box is guided by the fan to the water tank body, where the water humidifies the airflow; subsequently, the water-vaporized airflow flows out of the water tank body and circulates within the storage cavity of the storage box, humidifying the storage cavity.

[0004] However, existing storage boxes have the problem of poor humidification. Summary of the Invention

[0005] Some embodiments of this application provide a humidification device and a storage box, which improves the stability of the humidification device, enhances the humidification capacity of the storage box, reduces humidity fluctuations in the storage box, and improves the performance of the storage box.

[0006] In a first aspect, some embodiments of this application provide a storage box. The storage box includes a box body, an inner liner, and a humidification assembly. The box body has a cavity. The inner liner is located in the cavity, and the inner liner forms a storage cavity. The humidification assembly is disposed in the cavity and is used to humidify the storage cavity. The humidification assembly includes a liquid storage component, a humidification section, an air duct, and a fan assembly. The liquid storage component is used to supply liquid to the humidification section; the humidification section has a humidification air outlet; the air duct has an air inlet and an air outlet, both of which are connected to the storage cavity; the fan assembly is used to draw airflow from the storage cavity into the air duct through the air inlet and discharge the airflow from the air outlet to the storage cavity; the humidification air outlet merges into the air duct, so that the airflow humidified by the humidification section is discharged from the air outlet of the air duct to the storage cavity.

[0007] By connecting the two ends of the air duct to the storage chamber via air inlets and exhaust outlets respectively, airflow within the humidification component is achieved; liquid is supplied to the humidification unit via a liquid storage device, thus enabling liquid flow within the humidification component. In this way, the airflow circulation process and the liquid delivery process within the storage tank are separated, avoiding mutual interference between airflow and liquid flow. This improves the humidification stability of the humidification component, prevents problems of excessively high or low humidity in localized areas, and enhances the performance of the storage tank. Simultaneously, by converging the humidification exhaust outlet into the air duct, the humidified airflow from the humidification unit is discharged from the exhaust outlet of the air duct to the storage chamber, achieving the humidification effect of the humidification unit on the airflow within the air duct.

[0008] In some embodiments of this application, the humidification assembly includes a humidifying element and a housing. An air inlet and an air outlet are formed on the housing.

[0009] The housing has a mounting section, a humidification section, and an exhaust section. The mounting section has a first mounting cavity and a second mounting cavity. The second mounting cavity of the mounting section is connected to the storage cavity through an air inlet.

[0010] The humidification section has a humidification chamber. The humidifying element is located in the humidification chamber.

[0011] The exhaust section has an exhaust chamber. The exhaust chamber of the exhaust section is connected to the storage chamber through an exhaust port.

[0012] The humidification chamber of the humidification unit is connected to the second mounting chamber of the mounting unit. The humidification chamber of the humidification unit is also connected to the exhaust chamber of the exhaust unit. The second mounting chamber, the humidification chamber, and the exhaust chamber form an air duct.

[0013] The liquid storage component has a liquid storage chamber. The liquid storage component is detachably installed in the first mounting chamber. The liquid storage chamber of the liquid storage component is connected to the humidification chamber of the humidification unit.

[0014] The humidifying element is located inside the humidifying chamber.

[0015] The fan assembly is located in the second mounting cavity of the mounting section, and the air outlet of the fan assembly is connected to the humidification cavity of the humidification section.

[0016] By dividing the housing into three main areas—the installation section, the humidification section, and the exhaust section—and placing the fan assembly, liquid storage unit, and humidification unit in different areas, the liquid storage unit has a liquid storage function, the fan assembly has a flow guiding function, the humidification unit has a humidification function, and the exhaust chamber of the exhaust section has an exhaust function. In this way, each area of ​​the housing has a clear division of labor, ensuring the stability of the airflow guiding process, the liquid delivery process, the airflow humidification process, and the airflow exhaust process. This effectively controls the humidity in the storage chamber, improves the humidification capacity of the storage box's humidification components, and enhances the performance of the storage box.

[0017] In some embodiments of this application, the housing has an opening. The mounting portion is located on the side of the housing near the opening.

[0018] The humidification section and the exhaust section are located on the side of the housing facing away from the opening. The exhaust section is located on top of the humidification section.

[0019] Considering that the air duct assembly of the storage box is located on the side opposite to the vent, by placing the humidification unit and the exhaust unit on the side opposite to the vent of the shell, the airflow humidified by the humidification chamber flows to the exhaust chamber, and then the humidified airflow flows to the air duct assembly through the exhaust port on the shell. This structure has the advantages of corresponding positions and easy connection, reduces the resistance and energy loss in the airflow, and improves the reliability and stability of the humidification of the storage chamber by the humidification unit.

[0020] In some embodiments of this application, the housing includes a side panel and a cover plate. The cover plate is attached to the top of the side panel.

[0021] The first mounting cavity of the mounting section, the second mounting cavity of the mounting section, the humidification cavity of the humidification section, and the exhaust cavity of the exhaust section are formed by at least a cover plate and a side plate. A pick-and-place opening is formed on the side of the cover plate and the side plate near the opening. The pick-and-place opening is used to communicate with the second mounting cavity.

[0022] The access port design allows users to easily access the liquid storage unit and fan assembly inside the installation chamber, facilitating regular inspection, cleaning, and maintenance, reducing maintenance difficulty and time. At the same time, accessing the liquid storage unit through the port does not affect the normal operation of the humidifier and fan assembly, ensuring that the use of other components is not interfered with, thus improving the overall ease of operation of the humidifier assembly.

[0023] In some embodiments of this application, the housing further includes a first partition. The first partition extends along a first direction. The first direction intersects the height direction of the humidification assembly.

[0024] The first partition is located within the mounting cavity of the mounting section. The first partition divides the mounting cavity into a first mounting cavity and a second mounting cavity. The first mounting cavity is located at the top of a portion of the second mounting cavity.

[0025] A liquid storage device is detachably installed in the first mounting cavity. A fan assembly is installed in the second mounting cavity.

[0026] By incorporating a first partition, the mounting cavity is divided into a first mounting cavity and a second mounting cavity. The liquid storage component and the fan assembly are located in separate areas, with clear functional zoning to avoid mutual interference. Furthermore, considering that the liquid storage component is located in the first mounting cavity, the design of the first partition prevents liquid leakage from the storage component into the second mounting cavity, avoiding any impact on the normal operation of the fan assembly and improving its safety. Simultaneously, since the fan assembly is typically heavy, placing it in the second mounting cavity lowers the center of gravity of the entire humidification assembly, improving its stability, preventing tipping, and enhancing the structural stability of the storage tank.

[0027] In some embodiments of this application, the housing further includes a second partition. The second partition extends along the height direction of the humidification assembly. The bottom of the second partition is connected to the first partition, and the top of the second partition is connected to the cover plate.

[0028] The first partition, the second partition, the cover plate, and the side plates together form the humidification chamber.

[0029] The second baffle extends along the height of the humidification component, so that the airflow direction is along the height of the humidification component. The humidified airflow can be transported from the humidification chamber to the exhaust chamber and discharged through the exhaust port, thereby improving the humidification efficiency.

[0030] By enclosing the first partition, the second partition, the cover plate, and the side plates, an independent humidification chamber is formed, preventing accidental leakage of the humidified airflow and ensuring the stability and efficiency of the humidification effect.

[0031] In some embodiments of this application, the cover plate includes a first plate and a second plate. The first plate includes a first extension and a second extension. The second extension is connected to the side of the first extension facing away from the opening. The first extension is located at the top of the mounting cavity. A portion of the second extension is bent toward the humidification cavity.

[0032] The second plate is connected to the side of the second extension section away from the humidification chamber, and together with the bent second extension section and the side plate, forms an exhaust chamber. An exhaust vent is formed on the second plate.

[0033] The second extension section bends towards the humidification chamber, which helps guide the humidified airflow into the exhaust chamber, optimizes the airflow path, and improves humidification efficiency.

[0034] The second plate has an exhaust vent to ensure that the humidified airflow can be discharged smoothly, preventing the humidified airflow from accumulating in the exhaust chamber and affecting the humidification effect.

[0035] In some embodiments of this application, the housing further includes an air inlet plate. The air inlet plate is connected to a portion of the side plate and the side of the first partition plate near the opening. The air inlet plate is located on the side of the second mounting cavity near the opening.

[0036] Multiple air inlet holes are spaced apart on the air inlet plate. These air inlets form air intakes and communicate with the second mounting cavity.

[0037] The design of multiple air inlets on the air inlet plate ensures that the fan assembly receives sufficient gas flow from the storage chamber. The air inlets communicate with the second mounting chamber. By spaced the air inlets, airflow is ensured to enter the second mounting chamber evenly, improving ventilation and preventing localized areas from experiencing poor airflow.

[0038] In some embodiments of this application, the fan assembly includes a fan mounting base and a fan. The fan mounting base has a fan mounting cavity. The fan mounting cavity has an air inlet and an air outlet. The fan is mounted at the air inlet, and the fan mounting cavity communicates with a humidification cavity through the air outlet.

[0039] The fan mounting base provides a fixed installation position, allowing the fan to be securely installed at the air inlet, preventing displacement or vibration during operation. By setting the air inlet and outlet on the fan mounting cavity, the airflow path is clearly defined, ensuring that the airflow in the storage cavity can smoothly enter from the air inlet, be pressurized by the fan, and then exit from the air outlet into the humidification cavity.

[0040] In some embodiments of this application, the humidification assembly further includes a vent pipe. The vent pipe is disposed in the liquid storage chamber, and along the height direction of the humidification assembly, the horizontal plane of the bottom end of the vent pipe is higher than the horizontal plane of the bottom end of the humidification component; the top end of the vent pipe is connected to the atmosphere.

[0041] By incorporating a vent pipe and utilizing the working principle of a Marshall bottle, during the operation of the humidification component, the humidification chamber of the humidification unit and the liquid storage chamber of the liquid storage component are connected. Furthermore, the top of the vent pipe, located within the liquid storage chamber, is open to the atmosphere. The humidification chamber of the humidification unit is also open to the atmosphere through the exhaust chamber of the exhaust unit. Thus, during the process of the liquid storage component supplying liquid to the humidification unit, the liquid level in the humidification chamber of the humidification unit remains at the same level as the bottom of the vent pipe. Simultaneously, with the humidification component and humidification unit fixedly installed, and the humidification component having a fixed humidification area, the height to which the humidification component is immersed in the liquid in the humidification chamber is fixed. This ensures a constant amount of liquid evaporated by the humidification component per unit time, thereby guaranteeing stable humidity of the airflow humidified by the humidification component. This results in a stable humidity level within the storage chamber, reducing humidity fluctuations and improving the humidity stability of the storage box.

[0042] In some embodiments of this application, a vent is provided at the top of the liquid storage component. The vent communicates with the liquid storage chamber. The direction from the top end to the bottom end of the vent tube is parallel to the height direction of the humidification component.

[0043] The vent is directly connected to the atmosphere, ensuring that the air pressure inside the liquid storage chamber is always balanced with the external atmospheric pressure. This avoids pressure changes caused by liquid flow within the storage chamber and ensures that the liquid can flow out smoothly. Since no negative pressure is created, liquid can continuously flow into the humidification chamber, ensuring a continuous liquid supply to the humidifier and preventing humidification interruptions.

[0044] In some embodiments of this application, a vent pipe fixing tube is provided on the inner top wall of the liquid storage device. The top end of the vent pipe is fixedly connected to the vent pipe fixing tube.

[0045] The inner circumferential wall of the vent tube fixing tube is fixedly connected to the outer circumferential wall of the top end of the vent tube. The orthographic projection of the vent tube fixing tube on the top wall of the liquid storage device surrounds the outer circumference of the vent hole.

[0046] By fixing the top end of the vent tube to the inner top wall of the liquid storage component via a vent tube fixing tube, the vent tube fixing tube can limit the vent tube, preventing it from moving or falling off during use and increasing structural stability. At the same time, this fixed connection method improves the sealing between the vent tube and the vent tube fixing tube, preventing gas leakage and helping to maintain the gas pressure balance in the liquid storage chamber.

[0047] In some embodiments of this application, a vent pipe support is provided on the inner bottom wall of the liquid storage device. The vent pipe support includes a support base and a support rod. The support base is connected to the inner bottom wall of the liquid storage device. The support rod is connected to the top of the support base.

[0048] The bottom end of the vent pipe is fitted onto the support rod and connected to the top end of the support base.

[0049] When impurities accumulate in the liquid in the storage chamber, the bottom of the vent pipe is higher than the impurity layer deposited at the bottom of the storage chamber due to the support base. This can prevent impurities from clogging the bottom of the vent pipe and ensure that the liquid flow path is unobstructed.

[0050] In some embodiments of this application, at least one of the following limitations is satisfied:

[0051] Along the width of the storage tank, the vent pipe is located at the center line of the liquid storage component.

[0052] Along the length of the storage tank, the vent pipe is located at the center line of the liquid storage component.

[0053] Along the length of the storage tank, the vent pipe is located at the center line of the liquid storage component, which can ensure a more uniform air pressure distribution in the liquid storage chamber and avoid problems such as excessively high or low local air pressure.

[0054] Along the length of the storage tank, the vent pipe is located at the centerline of the liquid storage component and centered in the width direction. This centerline positioning of the vent pipe helps to balance the liquid flow within the storage chamber, preventing liquid accumulation or poor flow on one side and ensuring a continuous liquid supply to the humidifier.

[0055] In some embodiments of this application, the housing further includes a first partition plate. The first partition plate separates the exhaust chamber of the exhaust section and the humidification chamber of the humidification section.

[0056] The first partition plate has a first mounting port.

[0057] A second mounting port is formed at the top of the exhaust chamber of the exhaust section, and the second mounting port is arranged opposite to the first mounting port.

[0058] The humidification assembly also includes a cover plate component that blocks the second mounting port and is detachably connected to the housing;

[0059] The exhaust vent is constructed on the cover plate component, and the exhaust vent connects the exhaust chamber and the storage chamber.

[0060] The humidification assembly also includes a humidification component, which is detachably disposed at the bottom of the cover plate component, and at least a portion of the humidification component is disposed within the humidification chamber via a first mounting port.

[0061] When the humidifier needs to be replaced, the cover plate is removed from the housing. The humidifier is then moved out of the first and second mounting ports along with the cover plate. The humidifier is then removed from the cover plate, and a new humidifier is installed on the cover plate. The new humidifier and the cover plate are then installed onto the housing through the second mounting port. The humidifier is then inserted into the humidification chamber through the first mounting port, thus completing the replacement of the humidifier.

[0062] In some embodiments of this application, the humidifying component includes a humidifying element. The humidifying element includes humidifying fibers. A portion of the humidifying fibers is located near the bottom of the humidifying chamber, below the liquid level in the humidifying chamber. The top of the humidifying fibers is fixedly connected to the top of the humidifying component.

[0063] The humidifying fiber draws liquid from the bottom to the top through capillary action, ensuring that the airflow can be humidified at all points of the humidifying fiber, thus improving humidification efficiency.

[0064] In some embodiments of this application, the humidifying component also includes a support;

[0065] The support structure includes an upper frame and a lower frame;

[0066] The upper frame is located inside the exhaust chamber, and the top and cover plate components of the upper frame are detachably connected;

[0067] The lower frame is located at the bottom of the upper frame;

[0068] The humidifying fiber is located in the lower frame and inside the humidifying chamber.

[0069] The humidifying fiber is located in the lower frame, and the humidifying component is detachably connected to the upper frame and the cover plate component.

[0070] In some embodiments of this application, the lower frame structure has at least one mounting frame, and humidifying fibers are disposed within the mounting frame.

[0071] The humidifying fiber is placed inside the mounting frame, which reduces the obstruction of the lower frame on the windward and leeward sides of the humidifying fiber and improves the airflow rate when the air flows through the humidifying fiber.

[0072] In some embodiments of this application, the upper frame includes a plug-in component and a stop component;

[0073] The plug-in component is located at the top of the upper frame, and the plug-in component is constructed with a slot;

[0074] The stop component includes a third connecting arm and a third stop member; one end of the third connecting arm is connected to the plug-in component, and the third stop member is disposed at the end of the third connecting arm away from the plug-in component. The third stop member corresponds to the slot of at least a portion of the slot, and the third stop member and the slot of the slot are spaced apart.

[0075] The bottom of the cover plate component has a plug-in part that is inserted into a slot, and a third stop is stopped at the end of the plug-in part that is away from the slot.

[0076] After the connector is inserted into the slot, the third stop stops the connector at the end opposite to the slot, making it difficult for the connector to be removed from the slot. When it is necessary to remove the upper frame from the cover plate assembly, the third stop is moved. Under the action of the third connecting arm, the third stop releases its stop on the connector, allowing the connector to be removed from the slot, thereby separating the upper frame from the cover plate assembly.

[0077] In some embodiments of this application, the slot is constructed on the side of the plug-in component, and the third connecting arm is disposed on the plug-in component below the slot.

[0078] The connector is inserted horizontally into the slot via the groove, which reduces the vertical space occupied by the connector and the connector component.

[0079] In some embodiments of this application, the bottom of the upper frame has a sealing plate, the bottom surface of the sealing plate faces the first mounting opening, the sealing plate overlaps the top of the first partition plate, and blocks the first mounting opening.

[0080] The sealing plate separates the humidification chamber and the exhaust chamber, making it difficult for the airflow in the humidification chamber to flow from the first installation port into the exhaust chamber.

[0081] In some embodiments of this application, the cover plate component includes a second plate and a connector;

[0082] The second plate covers the second mounting port, and the second plate and the housing are detachably connected. The exhaust port is constructed on the second plate.

[0083] The connector is located at the bottom of the second plate, and the connector and the humidification component are detachably connected.

[0084] The detachable connection of the connectors and humidification components reduces the amount of structure required on the second plate, thus improving the structural strength of the second plate.

[0085] In some embodiments of this application, a first limiting member is provided on the peripheral edge of the second mounting port;

[0086] The second plate has a snap-fit ​​structure on its circumferential edge, which includes a second connecting arm and a second limiting member.

[0087] The bottom end of the second connecting arm is connected to the bottom of the second plate, and the top end of the second connecting arm extends to the top of the second plate. In its natural state, the top end of the second connecting arm extends further away from the second plate than the bottom end.

[0088] The second limiting member is disposed on one side of the peripheral edge of the second connecting arm facing the second mounting port. The second limiting member is engaged at the bottom of the first limiting member, and the second connecting arm and the first limiting member are elastically fitted together.

[0089] The tip of the second connecting arm can move elastically toward the second plate to separate the second limiting member from the first limiting member.

[0090] The second plate is detachably connected to the housing via a snap-fit ​​structure.

[0091] In some embodiments of this application, the circumferential edge of the second plate is provided with a receiving notch, the snap-fit ​​structure is disposed within the receiving notch, and the first limiting member corresponds to the receiving notch.

[0092] The snap-fit ​​structure is set within the receiving notch to reduce the length of the snap-fit ​​structure extending beyond the peripheral edge of the second plate, thereby reducing the gap between the peripheral edge of the second plate and the peripheral edge of the second mounting opening, and improving the shielding effect of the second plate on the second mounting opening.

[0093] In some embodiments of this application, the peripheral edge of the second mounting port is located around the top opening of the exhaust chamber, and the bottom edge of the second plate abuts against the top end face of the exhaust chamber.

[0094] The top end face of the exhaust chamber can support the second plate and stop it at the bottom end of the second plate, so that the second plate is not easy to fall into the exhaust chamber after installation.

[0095] In some embodiments of this application, the humidifying element extends along the width and height directions of the storage box, and both ends of the humidifying element along the length direction of the storage box are connected to the side plates of the shell.

[0096] The humidifier divides the humidification chamber into a first humidification chamber and a second humidification chamber. The first humidification chamber is located inside the humidification chamber near the opening. The first humidification chamber is connected to the humidification liquid inlet. The second humidification chamber is connected to the humidification air outlet.

[0097] By connecting the humidifying element to the side panels of the casing at both ends along the length of the storage box, the humidification chamber is divided into a first humidification chamber and a second humidification chamber. The first humidification chamber is responsible for the entry and initial humidification of the liquid, while the second humidification chamber is responsible for the exhaust of the gas, ensuring smooth gas discharge and reducing the possibility of gas stagnation and blockage. Simultaneously, because the humidifying element is connected to the side panels of the casing at both ends along the length of the storage box, all airflow entering the first humidification chamber is humidified by the humidifying element, improving the humidity uniformity of the airflow. The uniform humidification effect of the humidification chamber and the humidifying element ensures stable humidity within the storage room, avoiding problems of excessively high or low humidity in localized areas.

[0098] In some embodiments of this application, a humidification air inlet pipe is provided at the bottom of the humidification section, the top end of the humidification air inlet pipe is higher than the bottom end of the vent pipe, the humidification air inlet pipe is connected to the first humidification chamber, and the bottom end of the humidification air inlet pipe is connected to the air outlet of the fan assembly.

[0099] The top of the humidifying air inlet pipe is higher than the bottom of the vent pipe and connects to the first humidifying chamber. This prevents liquid from entering the fan assembly through the humidifying air inlet pipe, thus avoiding damage or performance degradation to the fan assembly. The bottom of the humidifying air inlet pipe connects to the air outlet of the fan assembly. Airflow is introduced into the humidifying chamber through the air outlet of the fan assembly, and the airflow enters the first humidifying chamber through the humidifying air inlet pipe, which helps to evenly distribute the airflow and ensure humidification effect.

[0100] In some embodiments of this application, a liquid storage docking assembly is provided on the liquid storage component. A humidification inlet is formed on the second partition. A humidification docking assembly is provided at the humidification inlet. The liquid storage docking assembly and the humidification docking assembly are detachably docked to connect the liquid storage chamber and the humidification chamber.

[0101] By incorporating a liquid storage docking assembly and a humidification docking assembly, the liquid storage component can deliver liquid to the humidification chamber in real time. This process is simple and quick, reducing the complexity and time cost for users. Simultaneously, the liquid in the storage component flows to the humidification chamber through the liquid storage docking assembly and the humidification docking assembly, reducing the risk of liquid spillage.

[0102] In some embodiments of this application, the liquid storage device includes a connecting pipe having a connecting cavity; the connecting cavity of the connecting pipe communicates with the liquid outlet and the liquid storage cavity of the liquid storage device.

[0103] The humidification assembly also includes a docking assembly for docking the liquid storage unit and the humidification section; the liquid storage unit is used to supply liquid to the humidification section; the docking assembly includes:

[0104] Liquid storage docking assembly, the liquid storage docking assembly includes:

[0105] The first connecting seat is located in the storage cavity and is installed on the connecting pipe;

[0106] The first mating member, at least a portion of which is located in the connecting cavity; the first mating member and the connecting pipe are slidably connected.

[0107] The first elastic element is connected between the first connecting seat and the first mating member in a compressed state;

[0108] Humidifier docking assembly, the humidifier docking assembly includes:

[0109] The second connector is installed at the humidifier inlet and has a connection channel communicating with the humidifier chamber.

[0110] The second docking member, at least a portion of which is located in the connection channel; the second docking member and the second connecting seat are slidably connected.

[0111] The second elastic element is connected between the second connecting seat and the second mating member in a compressed state;

[0112] Among them, the elastic force of the first elastic element is greater than that of the second elastic element.

[0113] When the liquid storage docking assembly and the humidification docking assembly are docked, the first docking member abuts against the second docking member, and the second elastic member is compressed to open the connection channel of the second docking member; after the second docking member opens the connection channel, the second docking member abuts against the first docking member, and the first elastic member is compressed to open the liquid storage outlet of the first docking member.

[0114] When the liquid storage docking assembly and the humidification docking assembly separate, the first elastic element releases its elastic force, and the first docking component, under the elastic force of the first elastic element, blocks the liquid storage outlet; after the first docking component blocks the liquid storage outlet, the second docking component, under the elastic force of the second elastic element, blocks the connection channel.

[0115] When the liquid storage component and the humidification part in the humidification assembly are not connected, the first connecting component is sealed at the liquid outlet; the second connecting component is sealed at the connection channel.

[0116] During the process of switching from unconnected to connected between the liquid storage component and the humidification unit in the humidification assembly, the liquid storage connection assembly and the humidification connection assembly have the following characteristics:

[0117] First docking state: The second docking member and the second connecting seat extend into the connecting cavity and abut against the first docking member; the first docking member pushes the second docking member to move away from the liquid storage docking assembly, so that the second docking member opens the connecting channel;

[0118] Second docking state: Under the pressure of the humidifying docking assembly, the first docking component moves away from the humidifying docking assembly to open the liquid outlet.

[0119] Third docking state: The liquid storage chamber of the liquid storage component and the humidification chamber of the humidification unit are connected.

[0120] During the process of switching from docking to non-docking between the liquid storage component and the humidification unit in the humidification assembly, the liquid storage docking assembly and the humidification docking assembly have the following characteristics:

[0121] Fourth docking state: Under the elastic restoring force of the first elastic element, the first docking component moves towards the humidification docking assembly to block the liquid outlet.

[0122] Fifth docking state: Under the elastic restoring force of the second elastic element, the second docking member moves towards the liquid storage docking assembly so that the second docking member blocks the connection channel;

[0123] Sixth docking state: The second docking part and the second connecting seat are disengaged from the first docking part, and the second docking part and the second connecting seat are disengaged from the connecting cavity.

[0124] In some embodiments of the humidification assembly provided in this application, by setting up a liquid storage docking assembly and a humidification docking assembly, during the process of switching from non-docked to docked between the liquid storage component and the humidification part, the second docking component of the humidification docking assembly first opens the connection channel, and then the first docking component of the liquid storage docking assembly opens the liquid storage outlet, so as to realize the step-by-step connection between the humidification chamber and the liquid storage chamber. The connection sequence of the liquid storage chamber and the humidification chamber is determined according to the liquid flow direction of the supplied liquid. This humidification assembly not only improves the sealing performance of the humidification assembly when the liquid storage component supplies liquid to the humidification part, but also improves the docking efficiency of the humidification assembly and avoids the generation of too much residual water during the docking process.

[0125] When the liquid storage unit and the humidification unit switch from the docked state to the un docked state, the first and second docking parts respectively close the liquid outlet and the connecting channel, thus sealing the liquid outlet and the connecting channel and enhancing the sealing performance of the liquid storage unit and the humidification unit. During the switching process, liquid will not leak from the liquid storage chamber or the humidification chamber, avoiding the generation of residual water and ensuring the safe storage of the liquid.

[0126] In some embodiments of this application, the liquid storage docking assembly is disposed on the side of the liquid storage component facing the humidification docking assembly, and the inner cavity of the liquid storage docking assembly is connected to the inner cavity of the liquid storage component.

[0127] When the liquid storage docking component and the humidification docking component are docked, the inner cavity of the liquid storage docking component and the inner cavity of the humidification docking component are connected, so that the liquid storage component supplies liquid to the humidification cavity;

[0128] The humidification docking assembly is configured to allow any residual liquid in the docking area between the liquid storage docking assembly and the humidification docking assembly to flow into the humidification chamber when separated from the liquid storage docking assembly.

[0129] When the liquid storage docking assembly and the humidification docking assembly are separated, the liquid inside the humidification docking assembly can quickly flow into the humidification chamber, reducing the residual water in the docking area between the humidification docking assembly and the liquid storage docking assembly, thus making it less likely for residual water to spill into the installation chamber.

[0130] In some embodiments of this application, a vent pipe is provided inside the liquid storage device. When the liquid storage device supplies liquid to the humidification chamber, the bottom end of the vent pipe is located below the liquid level of the liquid storage device, and the bottom end of the vent pipe is not lower than the liquid level of the humidification chamber.

[0131] The top of the inner cavity of the humidification docking component is not lower than the bottom of the vent pipe.

[0132] Since the bottom of the vent pipe is not lower than the liquid level in the humidification chamber, and the top of the inner cavity of the humidification docking assembly is not lower than the bottom of the vent pipe, the liquid level in the humidification chamber is lower than the top of the inner cavity of the humidification docking assembly. In other words, there is a height difference between the top of the inner cavity of the humidification docking assembly and the set liquid level in the humidification chamber. According to the siphon principle, during the separation process of the humidification docking assembly and the liquid storage docking assembly, when the liquid storage docking assembly and the humidification docking assembly separate, the liquid in the inner cavity of the humidification docking assembly flows quickly into the drain channel and flows from the drain channel into the humidification chamber, reducing the residual water in the docking area of ​​the humidification docking assembly and the liquid storage docking assembly, thus making it less likely for residual water to spill into the installation cavity.

[0133] In some embodiments of this application, the humidification docking assembly is configured with a drain channel, which is used to connect the inner cavity of the humidification docking assembly and the humidification cavity.

[0134] The drain channel serves as a guide, allowing the liquid inside the humidification assembly to flow into the humidification chamber, thus reducing splashing during the flow.

[0135] In some embodiments of this application, the top end of the drain channel is connected to the bottom end of the inner cavity of the humidification docking assembly, and the bottom end of the drain channel is in communication with the humidification cavity.

[0136] This allows liquid, such as water, at the bottom of the humidification docking assembly's inner cavity to flow into the humidification chamber through the drainage channel, thus improving the water drainage rate within the humidification docking assembly's inner cavity.

[0137] In some embodiments of this application, the bottom end of the humidification docking assembly has a drain pipe, the top end of the drain pipe is connected to the bottom end of the inner cavity of the humidification docking assembly, the bottom end of the drain pipe is connected to the humidification cavity, and the inner cavity of the drain pipe forms a drain channel.

[0138] When the liquid storage docking assembly and the humidification docking assembly are separated, the water in the inner cavity of the humidification docking assembly flows rapidly downward to the drain pipe and flows along the drain pipe into the humidification cavity, reducing the residual water in the docking area of ​​the humidification docking assembly and the liquid storage docking assembly, thus making it less likely for residual water to spill into the installation cavity.

[0139] In some embodiments of this application, the bottom end of the drain pipe on the side opposite to the liquid storage docking assembly is provided with a communication port, and the drain channel is connected to the humidification chamber through the communication port.

[0140] The connecting port is connected to the humidification chamber. Water inside the humidification assembly can flow into the humidification chamber not only from the bottom end of the drain pipe, but also from the connecting port, improving the water discharge efficiency of the humidification assembly.

[0141] In some embodiments of this application, the width of the connecting port along the radial direction of the drain pipe increases from top to bottom.

[0142] This allows water flowing to the bottom of the drain pipe to be quickly discharged into the humidification chamber, improving the water discharge efficiency of the humidification docking assembly.

[0143] In some embodiments of this application, the humidification docking assembly includes a second connecting seat, a first elastic member, and a second docking member;

[0144] The second connecting seat 533 is disposed in the housing between the mounting cavity and the humidification cavity. The second connecting seat 533 has a connecting channel with a first liquid inlet and a first liquid outlet. The first liquid inlet is configured to communicate with the inner cavity of the liquid storage docking assembly and the inner cavity of the liquid storage component. The connecting channel communicates with the humidification cavity through the first liquid outlet.

[0145] At least a portion of the second mating member is movably disposed within the connection channel;

[0146] The first elastic element is disposed within the connecting channel and is disposed in a compressed state between the second connecting seat 533 and the second mating member;

[0147] When the humidification docking assembly and the liquid storage docking assembly are not docked, the second docking component stops and seals the first liquid inlet under the elastic force of the first elastic component.

[0148] When the humidification docking component and the liquid storage docking component are docked, the liquid storage docking component abuts against the second docking part, so that the second docking part opens the first liquid inlet.

[0149] When the humidification assembly and the liquid storage assembly are connected, water in the liquid storage unit flows into the humidification chamber through the liquid storage assembly, the first liquid inlet, and the first liquid outlet to supply water to the humidification chamber. When the humidification assembly and the liquid storage assembly are not connected, the second connection component can block the first liquid inlet to reduce the outflow of liquid from the first liquid inlet in the humidification chamber.

[0150] In some embodiments of this application, the second connecting seat 533 includes a first tube body and a first stop member;

[0151] The first tube is disposed in the housing, one end of the first tube extends into the humidification chamber, the other end of the first tube extends out of the humidification chamber, and the port of the end of the first tube extending out of the humidification chamber forms the first liquid inlet.

[0152] The first stop is located at the end of the first tube body away from the liquid storage component. The first stop and the first tube body form a connecting channel. The first stop stops at the end of the first elastic member away from the second docking member.

[0153] The first stopper stops the first elastic member at the end opposite to the second mating member, thereby improving the stopping effect on the first elastic member.

[0154] In some embodiments of this application, the first stop member is configured with a first liquid outlet, and the first tube body is connected to the humidification chamber through the first liquid outlet.

[0155] Water in the first tube flows into the humidification chamber through the first outlet.

[0156] In some embodiments of this application, the first liquid outlet is located at the bottom end of the first stop member, and the top end of the drainage channel is connected to the first liquid outlet.

[0157] By utilizing the position of the first liquid outlet of the first stop component to set up the drainage channel, the connection structure between the drainage channel and the humidification docking assembly is simplified.

[0158] In some embodiments of this application, the first stop includes an end portion and a peripheral portion, the peripheral portion is connected to the first tube body, the end portion is sealed at one end of the peripheral portion away from the first tube body, and the first liquid outlet is constructed at the bottom of the peripheral portion.

[0159] So that the first liquid outlet is located at the bottom of the first stop, so that the water in the inner cavity of the humidification docking assembly can be discharged into the humidification chamber.

[0160] In some embodiments of this application, the humidification assembly further includes a flipping component, which is rotatably disposed in the housing. The flipping component is configured to: open the humidification outlet under the action of the fan's air force when the fan is working; and close the humidification outlet under its own gravity when the fan stops working.

[0161] In this embodiment of the storage box, when the fan is working, the flipping component rotates under the action of the fan and opens the humidification air outlet, so that the humid air from the humidification component can enter the storage chamber through the humidification air outlet to humidify the storage chamber; when the fan stops working, the flipping component rotates under its own weight and closes the humidification air outlet, and overcomes the small airflow at the humidification air outlet through its own weight, so that the flipping component can still maintain the closed state of the humidification air outlet under the influence of the small airflow, so that when the fan stops working, the humid air in the humidification component is difficult to enter the storage chamber through the humidification air outlet.

[0162] In some embodiments of this application, the flipping component is disposed outside the humidification chamber;

[0163] The flipping component includes a flap that is rotatably configured relative to the housing. The flap is configured such that when the fan is working, it rotates in a set direction under the action of the fan's airflow and opens the humidification outlet; when the fan stops working, it rotates in the opposite direction under the action of the gravity of the flipping component and covers the side of the humidification outlet away from the humidification chamber.

[0164] The flip-plate has a simple structure and is easy to process and manufacture.

[0165] In some embodiments of this application, the flap has a hinged end and a movable end, the hinged end being rotatably disposed relative to the housing, and the movable end rotating about the hinged end to open or close the humidification air outlet.

[0166] The flipping component also includes a counterweight, which is located at the hinge end of the flip plate. The counterweight is rotatably positioned relative to the housing. The center of gravity of the counterweight and the center of gravity of the flip plate are located on opposite sides of a vertical plane passing through the axis of rotation. The torque of the counterweight rotating around the axis is less than the torque of the flip plate rotating around the axis.

[0167] When the fan is working, the counterweight can provide assistance to the tilting component to make it rotate around the axis in a set direction, thereby reducing the wind force required to open the humidification outlet and reducing the fan's energy consumption and noise.

[0168] In some embodiments of this application, the counterweight includes a first connecting arm and a counterweight portion, one end of the first connecting arm is disposed at a hinge end, and the counterweight portion is disposed at the end of the first connecting arm away from the hinge end.

[0169] The length of the lever arm of the entire counterweight can be increased by the first connecting arm. While keeping the torque value of the counterweight constant, the required weight of the counterweight can be reduced, thereby reducing the mass of the required counterweight and reducing the material consumption of the counterweight.

[0170] In some embodiments of this application, the counterweight includes a counterweight rod, the axis of which is parallel to the rotation axis of the flipping component.

[0171] On the one hand, it can reduce the space occupied by the counterweight rod in the radial direction, thereby reducing the space occupied by the flipping component; on the other hand, the axis of the counterweight rod is parallel to the rotation axis of the flipping component, so that the torque at each position of the counterweight rod in the axial direction is roughly the same, which reduces the axial variation of the force exerted by the counterweight on the hinge end, improves the stability of the counterweight's assistance to the flipping component, and improves the stability of the flipping component when it rotates relative to the shell.

[0172] In some embodiments of this application, the flipping component further includes a rotating shaft, which is rotatably disposed in the housing, and the flip plate and the counterweight are both fixedly disposed on the rotating shaft.

[0173] When assembling the flipping component and the housing, it is only necessary to rotatably assemble the shaft and the housing, which simplifies the assembly structure between the flipping component and the housing.

[0174] In some embodiments of this application, an auxiliary component is constructed on the side of the flap facing the humidification air outlet, and the auxiliary component protrudes from the flap towards the humidification air outlet;

[0175] When the flap covers the humidification air outlet, at least part of the auxiliary components extend into the humidification air outlet.

[0176] The auxiliary components can improve the structural strength of the flap, making it less prone to deformation. They can also increase the surface area of ​​the flap's windward side, thus widening the airflow path along the auxiliary components to the edge of the humidification outlet. This reduces the energy of the airflow reaching the edge of the humidification outlet, making it less likely for airflow to escape from the gap between the flap and the edge of the humidification outlet, and decreasing the possibility of airflow from the humidification chamber flowing into the storage chamber.

[0177] In some embodiments of this application, the inner liner has a conveying air duct, which is disposed on the rear wall of the inner liner and has a connected air duct inlet and air duct outlet.

[0178] The air inlet of the air duct is connected to the storage chamber;

[0179] The air outlet of the air duct is connected to the storage chamber, and the air outlet of the air duct is located above the air inlet of the air duct.

[0180] The exhaust vent is directed towards the air inlet of the duct or is partially connected to the air inlet of the duct, so that some of the air discharged from the exhaust vent enters the air inlet of the duct and some air directly enters the storage chamber.

[0181] In this application's storage box, a portion of the airflow flowing from the exhaust vent into the bottom of the storage cavity flows to the air inlet of the air duct and is then transported upwards along the air duct to the air outlet. From the air outlet, it flows into the upper region of the storage cavity, improving the humidification efficiency of the upper region of the storage cavity. Due to the gravity of water molecules, humid air flows downwards at a faster rate than upwards. Therefore, the airflow flowing from the air outlet into the storage cavity can quickly flow downwards, allowing the airflow to rapidly diffuse throughout the entire storage cavity. This reduces the humidity difference between the upper and lower regions of the storage cavity and improves the uniformity of humidity within the storage cavity.

[0182] In some embodiments of this application, the housing is constructed with a humidification chamber and an exhaust chamber. The humidification chamber has an air outlet, and the exhaust chamber is connected to the humidification chamber through the air outlet. The exhaust chamber has an exhaust vent.

[0183] The humidification assembly also includes an air guide, which is disposed in the exhaust chamber and configured to guide the air out of the outlet to the exhaust outlet.

[0184] The air guide component directs the airflow from the outlet, making it easier for the air to flow towards the exhaust vent.

[0185] In some embodiments of this application, the air guide includes at least two air guide fins, and an air guide channel is formed between two adjacent air guide fins. One end of the air guide channel faces the air outlet, and the other end of the air guide channel faces the exhaust port.

[0186] After the humidified air in the humidification chamber is blown into the exhaust chamber from the air outlet, at least part of the humidified air flows from the end of the air guide channel toward the air outlet and flows along the air guide channel toward the direction closer to the exhaust port. Then it flows out of the air guide channel from the end away from the air outlet. At least part of the humidified air that flows out of the air guide channel flows into the storage chamber through the exhaust port to humidify the storage chamber.

[0187] In some embodiments of this application, the air outlet is a strip-shaped air outlet that extends along a first direction and the air outlet is directed toward the side of the exhaust chamber.

[0188] There are two exhaust vents, which are arranged at intervals along the first direction at the top of the exhaust chamber;

[0189] The positions of the air outlet and the two exhaust outlets correspond;

[0190] The air guide fins and the air outlet are arranged opposite each other. There are multiple air guide fins, which are arranged at intervals along the first direction to form two air guide fin groups that correspond to the two air outlets respectively.

[0191] The air inlet ends of both air guide fin assemblies face the air outlet; the air outlet ends of both air guide fin assemblies are away from the air outlet and extend towards their respective exhaust vents.

[0192] Two air guide fins guide the airflow from the air outlet in two directions, causing the airflow to be discharged from two exhaust vents arranged along the first direction. This reduces the humidity variation of the air in the storage chamber along the first direction and improves the uniformity of humidity in the storage chamber.

[0193] In some embodiments of this application, the end of the air guide fin that is away from the air outlet is tilted toward the corresponding exhaust port relative to the end that is closer to the air outlet.

[0194] The tilt angle of multiple air guide fins in the air guide fin assembly relative to the center line of the air outlet gradually increases from the end furthest from the corresponding exhaust outlet to the end closest to the corresponding exhaust outlet.

[0195] The first and second air guide fin groups can guide the airflow blown out of the air outlet in two directions, so that the airflow is split into two paths and discharged from two air outlets arranged along the first direction, which reduces the humidity variation of the air in the storage cavity along the first direction and improves the humidity uniformity in the storage cavity.

[0196] In some embodiments of this application, the exhaust vent is located at one end of the top of the housing near the rear wall;

[0197] The shell also has a fan cavity, which has an air inlet and an air outlet. The air inlet is located on the front side of the shell. The fan cavity is connected to the storage cavity through the air inlet and to the humidification cavity through the air outlet.

[0198] The humidification assembly also includes a fan, which is located inside the fan chamber and is configured to circulate the air in the storage chamber, humidification chamber and exhaust chamber in sequence.

[0199] The air inlet of the fan chamber is located on the front side of the casing. Therefore, when the fan is working, the air in the storage chamber enters the fan chamber from the front side of the casing, flows through the humidification chamber and the exhaust chamber, and returns to the storage chamber through the exhaust port. When the airflow from the exhaust port flows towards the end of the storage chamber away from the take-in / take-out port, the airflow from the end of the storage chamber away from the take-in / take-out port flows towards the take-in / take-out port and continues to flow from the air inlet on the front side of the casing to the fan chamber. This cycle allows the humidified airflow to circulate from back to front along the depth direction of the storage chamber, increasing the coverage of the humidified airflow along the depth direction of the storage chamber and reducing the difference in air humidity along the depth direction in the storage chamber, thus improving the uniformity of air humidity in the storage chamber.

[0200] In some embodiments of this application, at least one air guide plate is provided inside the exhaust vent, and the air guide plate is inclined relative to the horizontal direction.

[0201] The air guide plate can further guide the airflow from the exhaust port, allowing the airflow in the exhaust chamber to flow upwards from the exhaust port along the inclined direction of the air guide plate into the storage chamber.

[0202] In some embodiments of this application, the top end of the air guide plate extends at an angle away from the front side of the housing from the bottom end.

[0203] The airflow in the exhaust chamber can flow upwards along the air guide plate from the exhaust port and toward the rear wall of the storage chamber, so that the humid air can flow to the end of the storage chamber near the rear wall to humidify the depth of the storage chamber.

[0204] In some embodiments of this application, the inner liner also has two sidewalls disposed opposite to each other, with the sidewalls and the rear wall being adjacent to each other;

[0205] There are two exhaust vents, which are arranged at intervals on the top of the humidification component along the first direction, and the two exhaust vents are respectively set close to the two side walls;

[0206] The top of the air guide plate inside the exhaust vent is inclined and extends towards the corresponding side wall from the bottom.

[0207] The air guide plate can direct the airflow from the exhaust vent towards the rear wall or the side wall, increasing the airflow direction and thus improving the humidification efficiency of the humidification unit in the storage chamber.

[0208] In some embodiments of this application, an overflow outlet is provided on the side plate. The overflow outlet is connected to the humidification chamber.

[0209] The overflow design effectively prevents the liquid level in the humidification chamber from becoming too high, avoiding excess liquid from overflowing into other chambers or the external environment, thus protecting the humidification components and the inner tank.

[0210] Secondly, some embodiments of this application provide a humidification device. The humidification device includes a liquid storage component, a humidification section, and a docking assembly. The liquid storage component has a liquid storage chamber and a liquid storage outlet; the liquid storage component includes a connecting pipe, the connecting pipe having a connecting cavity; the connecting cavity of the connecting pipe communicates with the liquid storage outlet and the liquid storage chamber of the liquid storage component. The humidification section has a humidification inlet and a humidification chamber. The docking assembly is used to dock the liquid storage component and the humidification section; the liquid storage component is used to supply liquid to the humidification section; the docking assembly includes a first docking assembly and a second docking assembly.

[0211] The first docking assembly includes a first connecting seat, a first docking member, and a first elastic member. The first connecting seat is located in the storage cavity and installed on the connecting tube; at least a portion of the first docking member is located in the connecting cavity; the first docking member and the connecting tube are slidably connected; the first elastic member is connected between the first connecting seat and the first docking member in a compressed state.

[0212] The second docking assembly includes a second connecting seat, a second docking member, and a second elastic member. The second connecting seat is installed at the humidification inlet and has a connection channel communicating with the humidification chamber; at least a portion of the second docking member is located within the connection channel. The second docking member and the second connecting seat are slidably connected. The second elastic member is connected between the second connecting seat and the second docking member in a compressed state. The elastic force of the first elastic member is greater than that of the second elastic member.

[0213] When the first docking component and the second docking component are docked, the first docking component abuts against the second docking component, and the second elastic component is compressed, so that the second docking component opens the connection channel; after the second docking component opens the connection channel, the second docking component abuts against the first docking component, and the first elastic component is compressed, so that the first docking component opens the liquid outlet.

[0214] When the first docking component and the second docking component separate, the first elastic element releases its elastic force, and the first docking component, under the elastic force of the first elastic element, blocks the liquid outlet; after the first docking component blocks the liquid outlet, the second docking component, under the elastic force of the second elastic element, blocks the connection channel.

[0215] The humidification device provided in some embodiments of this application, by setting a first docking component and a second docking component, allows the second docking component of the second docking component to open the connection channel first during the process of switching from non-docked to docked between the liquid storage component and the humidification section. Subsequently, the first docking component of the first docking component opens the liquid outlet of the liquid storage component, thereby realizing the step-by-step connection between the humidification chamber and the liquid storage chamber. The connection sequence between the liquid storage chamber and the humidification chamber is determined according to the liquid flow direction. This humidification device not only improves the sealing performance of the humidification device when the liquid storage component supplies liquid to the humidification section, but also improves the docking efficiency of the humidification device and avoids the generation of excessive residual water during the docking process.

[0216] When the liquid storage unit and the humidification unit switch from the docked state to the un docked state, the first and second docking parts respectively close the liquid outlet and the connecting channel, thus sealing the liquid outlet and the connecting channel and enhancing the sealing performance of the liquid storage unit and the humidification unit. During the switching process, liquid will not leak from the liquid storage chamber or the humidification chamber, avoiding the generation of residual water and ensuring the safe storage of the liquid.

[0217] In some embodiments of this application, the first connecting seat includes a first connecting portion and a second connecting portion that are interconnected, with the first connecting portion connected to a connecting pipe. A first end of the second connecting portion is detachably connected to the first connecting portion, and a second end of the second connecting portion is detachably connected to the outer periphery of the connecting pipe.

[0218] By making the first connecting part and the second connecting part, as well as the connecting pipe, detachable connections are made, the assembly and disassembly process of the first connecting seat is simplified. At the same time, the first connecting part, the second connecting part, and the connecting pipe can be manufactured and replaced independently, which improves the flexibility of producing individual components. Moreover, when replacement or repair is required, only specific components need to be replaced, rather than replacing the first connecting part, the second connecting part, and the connecting pipe, thus reducing the difficulty and cost of maintenance.

[0219] In some embodiments of this application, the first connecting portion includes a connecting body. The second connecting portion includes multiple snap fasteners. The connecting body has a connecting body cavity with connecting openings at both ends. The first end of the connecting body cavity communicates with a liquid storage cavity through the connecting opening. The second end of the connecting body cavity communicates with the connecting cavity through the connecting opening. The multiple snap fasteners are arranged sequentially at intervals along the circumference of the connecting body. The first end of the snap fastener is connected to the connecting body, and the second end of the snap fastener is connected to the outer periphery of the connecting tube.

[0220] The connecting body is connected to the outer circumference of the connecting pipe via clips, thus ensuring a secure connection between the connecting body and the connecting pipe and preventing the connecting body from loosening or falling off during liquid transportation. Simultaneously, multiple clips are spaced apart along the circumference of the fixing body, allowing the first connecting seat to bear force evenly at the connection point, avoiding damage or deformation caused by excessive force at a single point, and improving the stability and durability of the connection between the first connecting seat and the connecting pipe.

[0221] In some embodiments of this application, an anti-detachment element is provided on the inner periphery of the first connecting seat. The first mating member and the anti-detachment element in the connecting cavity are configured to cooperate. The anti-detachment element divides the connecting cavity into a first sub-connecting cavity and a second sub-connecting cavity that are interconnected. The first sub-connecting cavity is located on the side of the second sub-connecting cavity near the liquid storage cavity.

[0222] By incorporating an anti-detachment component, the connecting cavity is divided into a first sub-connecting cavity and a second sub-connecting cavity, with the first sub-connecting cavity located on the side closer to the liquid storage cavity. This segmented design allows for better control of the movement path and position of the first docking component, ensuring a smooth docking process.

[0223] In some embodiments of this application, the connecting body has a first connecting opening and a second connecting opening, the first end of the connecting body cavity is connected to the liquid storage cavity through the first connecting opening, and the second end of the connecting body cavity is connected to the connecting cavity through the second connecting opening.

[0224] The first connection opening faces the inner bottom wall of the liquid storage component.

[0225] By orienting the first connection opening toward the inner bottom wall of the liquid reservoir, the liquid can flow more smoothly when entering the connection body cavity. This design reduces liquid flow resistance and turbulence, improving liquid flow efficiency. Simultaneously, because the first connection opening faces the inner bottom wall of the first structure, as much liquid as possible can flow out of the reservoir, ensuring complete drainage and reducing the amount of residual liquid.

[0226] In some embodiments of this application, the first mating member includes a first mating segment and a second mating segment that are interconnected. The first mating segment is located in a first sub-connecting cavity, and at least a portion of the second mating segment is disposed in the second sub-connecting cavity.

[0227] The first docking section has a docking cavity with a docking opening. The first end of the docking cavity is connected to the connecting cavity through the docking opening. A first docking through hole is provided at the end of the first docking section near the second docking section, and the first docking through hole is connected to the docking cavity. The connection between the first docking section and the second docking section is equipped with an anti-detachment component, which is used to restrict the first connecting section from moving towards the liquid outlet.

[0228] The connection between the first and second connecting sections is fitted with an anti-detachment component. This component restricts the first connecting section from moving towards the liquid outlet, ensuring the stability and sealing of the first connecting section within the connecting cavity. The anti-detachment component not only prevents the first connecting section from falling off but also enhances the sealing effect between the first connecting section and the connecting cavity, preventing liquid leakage.

[0229] In some embodiments of this application, the first docking assembly further includes a first seal. The number of first seals is at least one. The first seal is disposed at the connection between the first connecting seat and the connecting pipe. And / or, the first seal is disposed at the abutment between the first docking section and the anti-detachment component.

[0230] By incorporating a first seal at the contact point between the first mating section and the anti-detachment component, liquid leakage can be effectively prevented when the humidifier is in an un-mating state. The first seal provides an additional sealing layer, ensuring the first mating assembly effectively seals the liquid outlet. Simultaneously, the first seal acts as a buffer between the first mating section and the anti-detachment component, reducing direct contact and friction between them, thereby reducing wear and extending the service life of the humidifier.

[0231] In some embodiments of this application, the second connecting seat includes a first connecting section and a second connecting section connected to each other. The first connecting section is disposed at the humidification inlet. A first stop is disposed on the side of the first connecting section near the humidification chamber.

[0232] The first connecting section has a connecting channel. The first stop has a second connecting cavity. The connecting channel communicates with the humidification cavity through the second connecting cavity.

[0233] The segmented design of the first connecting section and the first stop provides multiple layers of sealing protection. The first connecting section is located at the humidification inlet to ensure a seal with the external environment; the first stop is located on the side close to the humidification chamber to further enhance the internal sealing effect.

[0234] The connection channel is connected to the humidification chamber through the second connection chamber, ensuring that the liquid can flow smoothly from the first connection section to the humidification chamber, and preventing the liquid from remaining in the connection channel during the docking process.

[0235] In some embodiments of this application, the second docking member includes a docking body and docking connecting segments. The cross-sectional area of ​​the docking body gradually increases along the direction from the first connecting segment to the first stop. The cross-sectional area of ​​the docking body is smaller than the inner diameter of the connecting channel. Multiple docking connecting segments are sequentially spaced apart along the circumference of the docking body. The first end of each docking connecting segment is connected to the docking body. The second end of each docking connecting segment extends towards the first stop. The inner circumferences of the docking connecting segments and the first connecting segment are slidably connected.

[0236] Along the direction from the first connecting section to the first stop, the cross-sectional area of ​​the docking body gradually increases, thus gradually increasing the sealing effect during docking and ensuring the airtightness of the humidification device. The cross-sectional area of ​​the docking body is smaller than the inner diameter of the connecting channel, so that the liquid can flow smoothly from the second docking assembly to the first connecting section during docking, avoiding liquid residue in the connecting channel during docking.

[0237] Multiple docking connection segments are sequentially spaced along the circumference of the docking body to ensure precise positioning of the second docking component within the connection channel, guaranteeing alignment and sealing during the docking process and improving docking accuracy. The design of the docking connection segments also increases the stability of the humidification device. The multiple connection segments better distribute stress, reducing structural deformation and damage during the docking process.

[0238] In some embodiments of this application, the second docking assembly further includes a second seal. The number of second seals is at least one. The second seal is disposed on the outer periphery of the first connecting section opposite to the humidification chamber. And / or, the second seal is disposed at the connection between the first connecting section and the first stop.

[0239] A second sealing element is disposed within an annular groove formed on the outer periphery of the humidification chamber opposite to the first connecting section. Thus, when the first and second docking assemblies are docked, the second connecting seat and the second docking element extend into the connecting cavity and abut against the first docking element, improving the sealing performance of the connecting pipe and the second docking assembly and preventing liquid leakage.

[0240] A first stop member has an annular groove near its end in the first connecting section, and a second seal member is disposed in the annular groove. The second seal member seals the first connecting section and the first stop member. A cross rib is provided near the middle of the first connecting section in the first stop member, and the cross rib extends axially along the first connecting section. One end of the second elastic member is connected to the cross rib. The other end of the second elastic member is connected to the second mating member. Attached Figure Description

[0241] To more clearly illustrate the implementation methods in the embodiments of this application or related technologies, the accompanying drawings used in the description of the embodiments or related technologies will be briefly introduced below. Obviously, the accompanying drawings described below are some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings.

[0242] Figure 1 This is a schematic diagram of the structure of a storage box provided in some embodiments of this application;

[0243] Figure 2 A first-view structural schematic diagram of the humidification assembly of a storage box provided in some embodiments of this application;

[0244] Figure 3 A second-view structural schematic diagram of the humidification assembly of a storage box provided in some embodiments of this application;

[0245] Figure 4 A third-view structural schematic diagram of the humidification assembly of a storage box provided in some embodiments of this application;

[0246] Figure 5 for Figure 4 Schematic diagram of the structure in the AA direction;

[0247] Figure 6 for Figure 4 Schematic diagram of the structure in the middle BB direction;

[0248] Figure 7 This is a schematic diagram of the structure of the humidification component of the storage box provided in some embodiments of this application;

[0249] Figure 8 A first-view structural schematic diagram of the housing of a storage box provided in some embodiments of this application;

[0250] Figure 9 A second-view structural schematic diagram of the housing of a storage box provided in some embodiments of this application;

[0251] Figure 10 This is a schematic diagram of the structure of the liquid storage component of the storage tank provided in some embodiments of this application;

[0252] Figure 11A schematic diagram of the structure of the liquid storage component of the storage box provided in some embodiments of this application;

[0253] Figure 12 A first-view structural schematic diagram of the liquid storage component of a storage box provided in some embodiments of this application with the liquid storage cap removed;

[0254] Figure 13 A second-view structural schematic diagram of the liquid storage component of a storage box provided in some embodiments of this application with the liquid storage cap removed;

[0255] Figure 14 A schematic diagram of the structure of the liquid storage cap of the liquid storage component of the storage box provided in some embodiments of this application;

[0256] Figure 15 This is a schematic diagram of the structure of the fan assembly of the storage box provided in some embodiments of this application;

[0257] Figure 16 Schematic diagrams of the structure of the shell of the storage box provided in some embodiments of this application;

[0258] Figure 17 This is a schematic diagram of the structure of the humidifying component in a storage box provided in some embodiments of this application;

[0259] Figure 18 This application provides structural schematic diagrams of the cover plate component and humidification component in a storage box according to some embodiments;

[0260] Figure 19 Schematic diagrams of the structure of the housing and docking assembly in the storage box provided in some embodiments of this application;

[0261] Figure 20 for Figure 6 A structural diagram of part P1;

[0262] Figure 21 Schematic diagram of the structure of the docking assembly of the storage box provided in some embodiments of this application Figure 1 ;

[0263] Figure 22 Schematic diagram of the structure of the docking assembly of the storage box provided in some embodiments of this application Figure 2 ;

[0264] Figure 23 Schematic diagram of the structure of the docking assembly of the storage box provided in some embodiments of this application Figure 3 ;

[0265] Figure 24 Schematic diagram of the structure of the docking assembly of the storage box provided in some embodiments of this application Figure 4 ;

[0266] Figure 25A schematic diagram of the structure of the first connecting seat of the storage box provided in some embodiments of this application;

[0267] Figure 26 A schematic diagram of the structure of the first docking member of the storage box provided in some embodiments of this application;

[0268] Figure 27 This is a schematic diagram of the structure of the humidification docking assembly of the storage box provided in some embodiments of this application;

[0269] Figure 28 Schematic diagram of the structure of the second connecting seat and the second docking member of the storage box provided in some embodiments of this application;

[0270] Figure 29 A first-view structural schematic diagram of the first stop of the storage box provided in some embodiments of this application;

[0271] Figure 30 A second-view structural schematic diagram of the first stop of the storage box provided in some embodiments of this application;

[0272] Figure 31 for Figure 6 A structural diagram of part P2 in the middle;

[0273] Figure 32 Schematic diagram of the structure of the flipping component of the storage box provided in some embodiments of this application;

[0274] Figure 33 A schematic diagram of the structure of the inner liner, humidification component and air delivery duct of the storage box provided in some embodiments of this application;

[0275] Figure 34 for Figure 6 A schematic diagram of the structure in the CC direction.

[0276] Figure label:

[0277] 10: Air guide component; 11: Air guide fin; 12: Air guide channel; 13: Air guide fin assembly; 13a: First air guide fin assembly; 13b: Second air guide fin assembly;

[0278] 20: Inner liner; 214: Air inlet of the duct; 215: Air outlet of the duct;

[0279] 100: Box;

[0280] 210: Storage cavity; 212: Side wall;

[0281] 500: Humidification component;

[0282] 510a: Mounting cavity; 510b: First mounting cavity; 510c: Second mounting cavity; 510d: Humidification cavity; 510e: First humidification cavity; 510f: Second humidification cavity; 510g: Exhaust cavity;

[0283] 511: Side panel; 512: Cover plate; 512a: First plate; 512b: First extension section; 512c: Second extension section; 513: First partition; 514: Second partition; 515: Air inlet plate; 516: Removal cover; 516a: Window;

[0284] 520: Liquid storage component; 520a: Liquid storage chamber; 520e: Connecting pipe; 524: Liquid storage docking assembly; 521: Vent pipe;

[0285] 520b: Vent hole; 520c: Liquid storage box; 520d: Liquid storage cap; 521: Vent tube; 522: Vent tube fixing tube; 523: Vent tube support; 523a: Support base; 523b: Support rod; 524: Liquid storage docking assembly; 525: First connecting seat; 525a: Connecting body; 525b: Buckle; 526: First docking piece; 526a: First docking section; 526b: Second docking section; 527: First elastic element; 528: First sealing element; 529: Anti-detachment element;

[0286] 530: Humidifier component; 532: Humidifier docking assembly; 533: Second connector; 533a: First connecting section; 534: Second docking component; 534a: Docking body; 534b: Docking connection section; 535: Second elastic component; 536: Second sealing component; 537: Humidifier air inlet pipe;

[0287] 540: Fan assembly; 541: Fan mounting base; 541a: Fan mounting cavity; 541b: Fan inlet; 541c: Fan outlet; 542: Fan;

[0288] 545: First stop; 546: Assembly plate; 547: Peripheral part; 548: End; 549: First liquid outlet;

[0289] 551: Air guide plate; 552: Second mounting port;

[0290] 560: First partition plate; 561: First mounting port;

[0291] 570: Drainage channel; 571: Drainage pipe; 572: Connecting port; 573: Limiting part; 574: First inlet;

[0292] 70: Flip-over component;

[0293] 710: Flip plate; 711: Hinge end; 712: Movable end; 713: Auxiliary component; 720: Counterweight; 721: First connecting arm; 722: Counterweight part; 730: Rotating shaft;

[0294] 80: Cover plate component; 810: Second plate; 811: Exhaust vent; 811a: First exhaust vent; 811b: Second exhaust vent; 812: Snap-fit ​​structure; 813: Second connecting arm; 814: Second limiting member; 815: Accommodating notch; 820: Connector; 821: Insertion part;

[0295] 90: Humidifying component; 910: Support bracket; 911: Upper frame; 912: Connecting component; 913: Slot; 914: Stop component; 915: Third connecting arm; 916: Third stop component; 917: Sealing plate; 918: Lower frame; 919: Mounting frame; 920: Humidifying fiber. Detailed Implementation

[0296] To make the objectives, implementation methods and advantages of this application clearer, the exemplary implementation methods of this application will be clearly and completely described below with reference to the accompanying drawings of the exemplary embodiments of this application. Obviously, the described exemplary embodiments are only some embodiments of this application, and not all embodiments.

[0297] It should be noted that the brief descriptions of terms in this application are only for the convenience of understanding the embodiments described below, and are not intended to limit the embodiments of this application. Unless otherwise stated, these terms should be understood in their ordinary and common meaning.

[0298] Furthermore, the terms “comprising” and “having”, and any variations thereof, are intended to cover but not exclusively include, for example, a product or device that includes a series of components is not necessarily limited to those that are explicitly listed, but may include other components that are not explicitly listed or that are inherent to such product or device.

[0299] In the description of this application, it should be understood that the terms "center", "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. They 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. Therefore, they should not be construed as limitations on this application.

[0300] The terms "first" and "second" 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. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, unless otherwise stated, "a plurality of" means two or more.

[0301] In the description of this application, it should be noted that, unless otherwise expressly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; 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; and they can refer to the internal connection between two components. Those skilled in the art can understand the specific meaning of the above terms in this application based on the specific circumstances.

[0302] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0303] The humidity in the storage compartments used to store cigars has a significant impact on the quality of the cigars. These compartments are equipped with a humidifying water tank, which consists of a tank body and a fan. The tank body stores water. Airflow from the storage chamber is guided by the fan into the tank body, where the water humidifies the airflow. The water-laden airflow then exits the tank body and flows within the storage chamber, further humidifying it.

[0304] However, existing storage boxes have the problem of poor humidification.

[0305] This application provides a storage box in some embodiments. The storage box can be used to store various items, such as cigars. For ease of description, the following description will focus on the use of a storage box for storing cigars.

[0306] It is understandable that storage boxes can also be used to store plastics, metals, wood, fabrics, etc. This application does not restrict the types of items that can be stored in storage boxes.

[0307] Reference Figure 1 and Figure 2As shown, the storage box includes a box body 100, an inner liner, and a humidification component 500. The box body 100 has a cavity. The inner liner is located in the cavity. The inner liner forms a storage cavity. The storage cavity formed by the inner liner is used to store cigars. The humidification component 500 is disposed in the cavity. The humidification component 500 is disposed near the bottom of the cavity, and the humidification component 500 is used to humidify the storage cavity to maintain the humidity of the cigar storage environment, prevent the cigars from drying out or becoming too wet, thereby ensuring the quality of the cigars.

[0308] Reference Figure 3 , Figure 4 and Figure 5 As shown, the humidification assembly 500 includes a liquid storage unit 520, a humidification section, an air duct, and a fan assembly 540. The liquid storage unit 520 is used to supply liquid to the humidification section; the humidification section has a humidification air outlet; the air duct has an air inlet and an air outlet, both of which are connected to the storage cavity; the fan assembly 540 is used to draw airflow from the storage cavity into the air duct through the air inlet and discharge the airflow from the air outlet to the storage cavity; the humidification air outlet merges into the air duct, so that the airflow humidified by the humidification section is discharged from the air outlet of the air duct to the storage cavity.

[0309] By connecting the two ends of the air duct to the storage chamber via air inlets and exhaust outlets respectively, airflow within the humidification component 500 is achieved; liquid is supplied to the humidification unit by the liquid storage component 520, thus enabling liquid flow within the humidification component. In this way, the airflow circulation process and the liquid delivery process within the storage tank are separated, avoiding mutual interference between airflow and liquid flow, thereby improving the humidification stability of the humidification unit, preventing problems of excessively high or low humidity in localized areas, and enhancing the performance of the storage tank. Simultaneously, by merging the humidification exhaust outlet into the air duct, the humidified airflow from the humidification unit is discharged from the exhaust outlet of the air duct to the storage chamber, achieving the humidification effect of the humidification unit on the airflow within the air duct.

[0310] Reference Figure 5 and Figure 6As shown, the humidification assembly 500 includes a housing 510 and a humidifying element 530. An air inlet and an air outlet are formed on the housing. The housing 510 has a mounting portion, a humidifying portion, and an exhaust portion. The mounting portion has a first mounting cavity 510b and a second mounting cavity 510c. The second mounting cavity 510c of the mounting portion communicates with a storage cavity through the air inlet. The humidifying portion has a humidifying cavity 510d. The exhaust portion has an exhaust cavity 510g. The humidifying element 530 is located in the humidifying cavity 510d. The second mounting cavity 510c, the humidifying cavity 510d, and the exhaust cavity 510g form an air duct; the humidifying cavity 510d of the humidifying portion communicates with the second mounting cavity 510c of the mounting portion. The humidifying cavity 510d of the humidifying portion communicates with the exhaust cavity 510g of the exhaust portion. A liquid storage element 520 is detachably installed in the mounting cavity 510a. The liquid storage chamber 520a of the liquid storage component 520 is connected to the humidification chamber 510d of the humidification unit. A humidification component 530 is installed inside the humidification chamber 510d. The design of the liquid storage component 520 ensures that the humidification component 530 can continuously receive liquid, avoiding humidification interruptions due to insufficient liquid. The humidification chamber 510d is connected to the exhaust chamber 510g. The fan assembly 540 is located in the second mounting chamber 510c of the mounting section. The fan outlet 541c of the fan assembly 540 is connected to the humidification chamber 510d of the humidification unit. The fan assembly 540 introduces airflow into the humidification chamber 510d of the humidification unit at a certain speed range, ensuring the stability and uniformity of the airflow. An exhaust port is provided on the housing 510, and the exhaust chamber 510g of the exhaust unit is connected to the storage chamber through the exhaust port.

[0311] For example, refer to Figure 7 As shown, during the use of the storage box, the fan assembly 540 in the second mounting cavity 510c of the mounting section is in operation. First, the fan assembly 540 guides the airflow from the storage cavity 210 through the air inlet to the second mounting cavity 510c of the mounting section. The airflow then flows through the fan outlet 541c to the humidification cavity 510d of the humidification section. Simultaneously, the liquid storage component 520 in the first mounting cavity 510b of the mounting section and the humidification component 530 in the humidification section operate. The humidification component 530 in the humidification cavity 510d of the humidification section humidifies the airflow, while the liquid storage component 520 transports the liquid from the liquid storage cavity 520a to the humidification cavity 510d of the humidification section, so that the humidification component 530 humidifies the airflow. Subsequently, the humidified airflow enters the exhaust cavity 510g of the exhaust section and is discharged through the exhaust port 811 on the housing. The airflow direction is shown in the figure. Figure 7 The direction indicated by the solid black arrow in the middle.

[0312] By dividing the housing into an installation section, a humidification section, and an exhaust section, wherein the installation section has a first installation cavity 510b and a second installation cavity 510c, the humidification section has a humidification cavity 510d, and the exhaust section has an exhaust cavity 510g, and placing the fan assembly 540 and the liquid storage component 520 in the first installation cavity 510b and the second installation cavity 510c of the installation section respectively, and placing the humidification component 530 in the humidification cavity 510d of the humidification section, wherein the liquid storage component 520 has a liquid storage function, the fan assembly 540 has a flow guiding function, the humidification component 530 has a humidification function, and the exhaust cavity 510g of the exhaust section has an exhaust function, in this way, each area has a clear division of labor, ensuring the stability of the gas guiding process, the liquid conveying process, the airflow humidification process, and the airflow exhaust process, effectively controlling the humidity in the storage cavity 210, avoiding the quality degradation of cigars due to improper humidity, and extending the shelf life of cigars. At the same time, this zoned design allows each part of the humidifier unit 500 to operate independently, facilitating disassembly, cleaning, and maintenance. Users can maintain or replace individual components without affecting the operation of the entire humidifier unit 500.

[0313] Furthermore, by connecting the second mounting cavity 510c of the mounting section to the storage cavity 210 via the air inlet, connecting the humidification cavity 510d of the humidification section to the second mounting cavity 510c of the mounting section, connecting the humidification cavity 510d of the humidification section to the exhaust cavity 510g of the exhaust section, connecting the exhaust cavity 510g of the exhaust section to the storage cavity 210 via the exhaust port 811, and connecting the fan outlet 541c of the fan assembly 540 to the humidification cavity 510d, the airflow in the storage cavity 210 is first drawn into the fan assembly 540. The airflow is then humidified by the humidifier 530 and discharged from the humidifier assembly 500 through the exhaust chamber 510g and exhaust port 811, forming an airflow circulation. This airflow circulation process makes humidity adjustment more flexible and rapid, achieving continuous and efficient humidification of the airflow in the storage chamber 210 by the humidifier assembly 500. Simultaneously, by connecting the liquid storage chamber 520a of the liquid storage component 520 to the humidification chamber 510d of the humidifier, the liquid storage component 520 supplies liquid to the humidification chamber 510d, thus enabling liquid flow within the humidifier assembly 500. In this way, the airflow circulation process and the liquid delivery process within the storage box are separated, avoiding mutual interference between airflow and liquid flow, thereby improving the humidification stability of the humidifier assembly 500, preventing excessively high or low humidity in localized areas, ensuring uniform humidity distribution within the storage chamber 210, and improving the performance of the storage box.

[0314] In addition, by rationally arranging the humidifier 530, liquid storage unit 520, and fan assembly 540 in different areas of the housing, the overall volume of the humidifier assembly 500 is reduced, and the space utilization rate is improved.

[0315] For example, the liquid can be tap water. The liquid can also be distilled water and a mineral solution to prevent the growth of scale and bacteria.

[0316] As one feasible implementation method, refer to Figure 7 , Figure 8 , Figure 9 As shown, the housing 100 has an opening. The mounting part is located on the side of the housing near the opening. This allows the user to remove and install the liquid storage component 520 located in the first mounting cavity 510b, facilitating the addition of liquid or cleaning of the liquid storage component 520, making operation simpler. Considering that the air duct assembly of the storage box is located on the side opposite to the opening, by placing the humidifying part and the exhaust part on the side of the housing opposite to the opening, the airflow humidified by the humidifying cavity 510d flows to the exhaust cavity 510g, and then the humidified airflow flows to the air duct assembly through the exhaust port 811 on the housing. This structure has the advantages of corresponding positions and easy connection, reducing airflow resistance and energy loss, and improving the reliability and stability of the humidifying component 500 to humidify the storage cavity 210.

[0317] The exhaust section is located at the top of the humidification section. Placing the exhaust section at the top of the humidification section utilizes the principle of natural convection to effectively discharge the humidified airflow, thereby improving exhaust efficiency.

[0318] In one possible implementation, the housing includes a side plate 511 and a cover plate 512. The cover plate 512 is attached to the top of the side plate 511.

[0319] The first mounting cavity 510b of the mounting section, the second mounting cavity 510c, the humidification cavity 510d of the humidification section, and the exhaust cavity 510g of the exhaust section are formed at least by a cover plate 512 and a side plate 511. A pick-and-place opening is formed on the side of the cover plate 512 and the side plate 511 near the opening. The pick-and-place opening is used to communicate with the second mounting cavity 510c of the mounting section.

[0320] For example, refer to Figure 8 As shown, the cover plate 512 and the side plate 511 have access ports on the side near the opening. This access port design allows users to easily access the liquid storage unit 520 and the fan assembly 540 inside the mounting cavity 510a, facilitating regular inspection, cleaning, and maintenance, and reducing maintenance difficulty and time. Simultaneously, accessing the liquid storage unit 520 through the access port will not affect the normal operation of the humidifier 530 and the fan assembly 540, ensuring that the use of other components is not interfered with, and improving the overall ease of operation of the humidifier assembly 500.

[0321] For example, refer to Figure 10 and Figure 11As shown, a dispensing cover 516 is provided at the dispensing port to facilitate observation of the remaining liquid level in the storage chamber 520a. The dispensing cover 516 and the side plate 511 are rotatably connected. A window 516a is provided on the dispensing cover 516. The user can see the liquid level in the storage container 520 through the window 516a. In addition, a handle is provided on the dispensing cover 516 for easy opening of the dispensing cover 516 and removal of the storage box.

[0322] As one feasible implementation method, refer to Figure 8 and Figure 9 As shown, the housing also includes a first partition 513. The first partition 513 extends along a first direction. The first direction intersects the height direction of the humidification assembly 500. The first direction is referenced to... Figure 8 The direction indicated by X in the middle.

[0323] The first partition 513 is located within the mounting cavity 510a of the mounting section. The first partition 513 divides the mounting cavity 510a into a first mounting cavity 510b and a second mounting cavity 510c. The first mounting cavity 510b is located on top of a portion of the second mounting cavity 510c.

[0324] A liquid reservoir 520 is detachably installed in the first mounting cavity 510b. A fan assembly 540 is installed in the second mounting cavity 510c. A first partition 513 divides the mounting cavity 510a into the first mounting cavity 510b and the second mounting cavity 510c. The liquid reservoir 520 and the fan assembly 540 are located in different areas, with clear functional zoning to avoid mutual interference. Furthermore, considering that the liquid reservoir 520 is located in the first mounting cavity 510b, the design of the first partition 513 prevents liquid leakage from the liquid reservoir 520 into the second mounting cavity 510c, avoiding liquid leakage affecting the normal operation of the fan assembly 540 and improving the safety of the fan assembly 540.

[0325] Reference Figure 7 and Figure 8 As shown, a portion of the second mounting cavity 510c is located at the bottom of the first mounting cavity 510b, and a portion of the second mounting cavity 510c is located at the bottom of the humidification cavity 510d. Thus, the fan assembly 540 is located at the bottom of the liquid storage component 520 and the humidification component 530. The fan assembly 540 at the bottom of the humidification component 530 helps maintain the temperature of the humidification component 530 at a relatively stable preset value, preventing temperature changes in the liquid in the humidification cavity 510d and the humidification component 530, and avoiding temperature changes affecting the evaporation rate of the liquid in the humidification cavity 510d, thereby improving the humidification effect of the humidification component 530 on the airflow. Furthermore, this layout of the humidification component 530, the liquid storage component 520, and the fan assembly 540 allows the airflow in the humidification component 500 to form an upward flow path. As the humidified airflow rises, its temperature gradually decreases, making condensation less likely and reducing water droplet formation.

[0326] For example, the first partition 513 is provided with mounting protrusions to facilitate the installation of the fan 542. The mounting protrusions provide a fixed mounting position for the fan 542 in the second mounting cavity 510c, so that the fan assembly 540 can be more securely installed in the second mounting cavity 510c, preventing the fan assembly 540 from shifting or vibrating during operation.

[0327] For example, the liquid storage device 520 includes a liquid storage box.

[0328] In some embodiments, a snap-fit ​​is provided on either the liquid reservoir 520 or the first partition 513, and a slot is provided on the other. The liquid reservoir 520 and the first partition 513 are detachably connected by the engagement of the snap-fit ​​and the slot. Thus, the user can easily remove or install the liquid reservoir 520 from the housing by simply pressing or pulling the snap-fit.

[0329] In other embodiments, a slide rail is provided on the side plate 511, and correspondingly, a groove that mates with the slide rail is provided on the side of the liquid reservoir 520. The user can slide the liquid reservoir 520 into or out of the first mounting cavity 510b along the slide rail to achieve a detachable connection between the liquid reservoir 520 and the mounting cavity 510a.

[0330] In some other embodiments, magnets are embedded at the connection points between the liquid storage component 520 and the first partition 513, thereby achieving a detachable connection between the liquid storage component 520 and the first partition 513 through magnetic force. This design is simple to operate; the liquid storage component 520 can be automatically adsorbed and fixed simply by bringing it close to the first partition 513.

[0331] By detachably installing the liquid storage component 520 in the first mounting cavity 510b, the user can easily disassemble and install the liquid storage component 520, facilitating the cleaning and maintenance of the liquid storage cavity 520a of the liquid storage component 520. Furthermore, when the liquid storage component 520 is damaged or needs replacement, only the damaged part needs to be replaced, rather than the entire humidification assembly 500, reducing the maintenance and replacement costs of the humidification assembly 500.

[0332] As one feasible implementation method, refer to Figures 6 to 8 As shown, the housing also includes an air inlet plate 515. The air inlet plate 515 is connected to a portion of the side plate 511 and the side of the first partition plate 513 near the opening. The air inlet plate 515 is located on the side of the second mounting cavity 510c near the opening.

[0333] Multiple air inlets are spaced apart on the air inlet plate 515. These air inlets form air intakes. The design of multiple air inlets on the air inlet plate 515 ensures that the fan assembly 540 receives sufficient gas flow from the storage chamber 210. The air inlets communicate with the second mounting chamber 510c. By spaced the air inlets, it is ensured that airflow can enter the second mounting chamber 510c evenly, improving ventilation and preventing localized areas from experiencing poor airflow.

[0334] As one feasible implementation method, refer to Figures 1 to 12 As shown, the housing also includes a second partition 514. The second partition 514 extends along the height direction of the humidification assembly 500. The bottom of the second partition 514 is connected to the first partition 513, and the top of the second partition 514 is connected to the cover plate 512. Thus, the second partition 514 extends along the height direction of the humidification assembly 500 (i.e., the height direction of the housing 100). The height direction of the humidification assembly 500 is referenced... Figure 8 The direction shown in the middle Z. That is to say, the airflow direction is along the height direction of the box 100. The humidified airflow can be transported from the humidification chamber 510d to the exhaust chamber 510g and discharged through the exhaust port 811, thereby improving the humidification efficiency.

[0335] The first partition 513, the second partition 514, the cover plate 512, and the side plate 511 together form a humidification chamber 510d. By enclosing the first partition 513, the second partition 514, the cover plate 512, and the side plate 511, an independent humidification chamber 510d is formed, preventing accidental leakage of the humidified airflow and ensuring the stability and efficiency of the humidification effect.

[0336] As one feasible implementation method, refer to Figure 16 The cover plate 512 includes a first plate body 512a and a cover plate component 80. The cover plate component 80 includes a second plate body 810. The first plate body 512a includes a first extension 512b and a second extension 512c. The second extension 512c is connected to the side of the first extension 512b facing away from the opening. The first extension 512b is located at the top of the mounting cavity 510a. A portion of the second extension 512c is bent towards the humidification cavity 510d, which helps guide the humidified airflow into the exhaust cavity 510g, optimizes the airflow path, and improves humidification efficiency.

[0337] The second plate 810 is connected to the side of the second extension 512c opposite to the humidification chamber 510d, and together with the bent second extension 512c and the side plate 511, forms the exhaust chamber 510g. An exhaust port 811 is formed on the second plate 810 to ensure that the humidified airflow can be discharged smoothly and to prevent the humidified airflow from accumulating in the exhaust chamber 510g, which would affect the humidification effect.

[0338] As one feasible implementation method, refer to Figure 15 As shown, the fan assembly 540 includes a fan mounting base 541 and a fan 542. The fan mounting base 541 has a fan mounting cavity 541a. The fan mounting cavity 541a has a fan inlet 541b and a fan outlet 541c. The fan 542 is mounted at the fan inlet 541b, and the fan mounting cavity 541a is connected to the humidification cavity 510d through the fan outlet 541c. The fan mounting base 541 provides a fixed mounting position, allowing the fan 542 to be securely mounted at the fan inlet 541b, preventing the fan 542 from shifting or vibrating during operation. By setting a fan inlet 541b and a fan outlet 541c on the fan mounting cavity 541a, the airflow path is defined, ensuring that the airflow in the storage cavity 210 can smoothly enter from the fan inlet 541b, be pressurized by the fan 542, and be discharged from the fan outlet 541c into the humidification cavity 510d.

[0339] For example, during the humidification process of the humidification component 500, firstly, the fan 542 is started, guiding the airflow in the storage chamber 210 through the fan inlet 541b to the fan mounting chamber 541a; subsequently, the airflow in the fan mounting chamber 541a flows into the humidification chamber 510d through the fan outlet 541c. The humidification element 530 in the humidification chamber 510d humidifies the airflow so that it can fully absorb liquid, ensuring that the humidity of the airflow is close to the preset value. By setting the fan 542, the airflow in the storage chamber 210 can continuously flow and undergo humidification treatment through the forced circulation of the fan 542. Forced airflow circulation can avoid dead corners of air circulation in the storage chamber 210, ensuring that the humidity in every corner can be effectively controlled, providing a more uniform humidity environment. This design helps to maintain a constant humidity in the storage chamber 210, avoid humidity fluctuations, and provide a stable storage environment.

[0340] To further reduce humidity fluctuations inside the storage box, this application provides the following embodiments.

[0341] As one feasible implementation method, refer to Figure 7 , Figure 12 , Figure 13 As shown, the humidification assembly 500 also includes a vent pipe 521. The vent pipe 521 is disposed in the liquid storage chamber 520a. Along the height direction of the humidification assembly 500, the horizontal plane of the bottom end of the vent pipe 521 is higher than the horizontal plane of the bottom end of the humidification element 530. The top end of the vent pipe 521 is connected to the atmosphere. By connecting to the atmosphere, the vent pipe 521 maintains pressure balance inside and outside the liquid storage chamber 520a. When the liquid level in the humidification chamber 510d drops, the liquid in the liquid storage chamber 520a flows into the humidification chamber 510d, while air is simultaneously replenished through the vent pipe 521 to prevent negative pressure formation and ensure smooth liquid flow.

[0342] For example, a Mariotte bottle is a device used to maintain a constant liquid outflow rate, and its working principle is based on the principles of air pressure balance and liquid hydrostatic pressure. A Mariotte bottle typically includes a sealed bottle body, an inlet pipe, and an outlet pipe. In this embodiment, the liquid storage component 520 and the vent pipe 521 are designed based on the working principle of the Mariotte bottle. The direction from the top end to the bottom end of the vent pipe 521 is parallel to the height direction of the humidification assembly 500.

[0343] For example, under the condition that the temperature and airflow velocity of the storage room are constant, the humidity of the storage room depends on the humidity of the humidification component 500. Whether the humidification component 500 can discharge airflow with stable humidity through the exhaust chamber 510g and the exhaust port 811 depends on whether the liquid level of the humidification chamber 510d is stable, whether the humidification area of ​​the humidification element 530 is fixed, and whether the height of the humidification element 530 immersed in the humidification chamber 510d is fixed.

[0344] During the humidification process of the humidification component 500 in the storage chamber, firstly, the bottom end of the humidification element 530 is located below the liquid level of the humidification chamber 510d, and the humidification element 530 draws liquid from the humidification chamber 510d to humidify the airflow. The liquid level of the humidification chamber 510d is flush with the plane where the bottom end of the vent pipe 521 is located. Subsequently, as the humidification element 530 draws liquid from the humidification chamber 510d during the humidification process, the liquid level of the humidification chamber 510d drops. At this time, the liquid level difference between the storage chamber 520a and the humidification chamber 510d increases, and the pressure balance inside and outside the vent pipe 521 is broken. The sum of the negative pressure inside the storage chamber 520a and the liquid level difference between the storage chamber 520a and the humidification chamber 510d is greater than 1 atmosphere. Then, due to the pressure difference, the liquid in the storage chamber 520a flows into the humidification chamber 510d, replenishing the liquid in the humidification chamber 510d. The vent pipe 521 allows air to enter the liquid storage chamber 520a, replenishing the gas volume lost due to liquid outflow and preventing excessive negative pressure. Liquid in the liquid storage chamber 520a flows into the humidification chamber 510d, raising the liquid level in the humidification chamber 510d to be flush with the bottom of the vent pipe 521. The humidifying element 530 continues to draw liquid from the humidification chamber 510d for humidification. When the liquid level drops, the liquid in the liquid storage chamber 520a is automatically replenished to maintain a stable liquid level in the humidification chamber 510d, which remains flush with the bottom of the vent pipe 521.

[0345] In this way, through the above process, the liquid level in the humidification chamber 510d is always at the same level as the bottom of the vent pipe 521. Thus, the height of the humidifying element 530 immersed in the liquid in the humidification chamber 510d is constant. Based on the fixed humidification area of ​​the humidifying element 530, the amount of liquid evaporated by the humidifying element 530 per unit time is kept constant. This ensures the humidity of the airflow humidified by the humidifying element 530 is stable, and the humidity in the storage room is kept at a stable level. This reduces the fluctuation of humidity in the storage box and prevents the cigars from drying out or becoming excessively humid.

[0346] As one feasible implementation method, refer to Figures 12 to 14 As shown, a vent 520b is provided on the top of the liquid storage component 520. The vent 520b communicates with the liquid storage chamber 520a. The direction from the top end to the bottom end of the vent pipe 521 is parallel to the height direction of the humidification assembly 500. In this way, the vent 520b is directly connected to the atmosphere, ensuring that the air pressure in the liquid storage chamber 520a is always balanced with the external atmospheric pressure. This avoids air pressure changes caused by liquid flow in the liquid storage chamber 520a, ensuring that the liquid in the liquid storage chamber 520a can flow out smoothly. Since no negative pressure is formed, the liquid can continuously flow into the humidification chamber 510d, ensuring that the humidification component 530 can continuously receive liquid supply and avoiding humidification interruption.

[0347] For example, the liquid storage component 520 includes a liquid storage box 520c and a liquid storage cap 520d. The liquid storage box 520c has a liquid storage cavity 520a open at one end. The liquid storage cap 520d closes to the opening of the liquid storage cavity 520a of the liquid storage box 520c.

[0348] For example, the liquid storage cap 520d is provided with a vent hole 520b. The liquid storage cap 520d is provided with a liquid replenishment port, and the liquid replenishment cap is closed at the liquid replenishment port so that the user can replenish the liquid storage box 520c through the liquid replenishment port.

[0349] As one feasible implementation, a vent pipe fixing pipe 522 is provided on the inner top wall of the liquid storage component 520. The top end of the vent pipe 521 is fixedly connected to the vent pipe fixing pipe 522.

[0350] The inner peripheral wall of the vent tube fixing tube 522 is fixedly connected to the outer peripheral wall of the top end of the vent tube 521. The orthographic projection of the vent tube fixing tube 522 onto the top wall of the liquid storage component 520 surrounds the outer periphery of the vent hole 520b. This surrounding design ensures unobstructed airflow around the vent hole 520b, preventing airflow obstruction. The unobstructed airflow helps maintain the air pressure balance between the liquid storage chamber 520a and the external atmospheric pressure, ensuring smooth liquid flow.

[0351] For example, the inner diameter of the vent tube fixing tube 522 is not less than the outer diameter of the vent tube 521. The inner circumference of the vent tube fixing tube 522 wraps around the outer circumference of the top end of the vent tube 521. By fixing the top end of the vent tube 521 to the inner top wall of the liquid storage component 520 through the vent tube fixing tube 522, the vent tube fixing tube 522 can limit the vent tube 521, preventing it from moving or falling off during use, thus increasing structural stability. At the same time, this fixed connection method improves the sealing between the vent tube 521 and the vent tube fixing tube 522, preventing gas leakage and helping to maintain the gas pressure balance in the liquid storage chamber 520a.

[0352] For example, the top end of the vent tube 521 is snapped into the vent tube fixing tube 522. The snap-fit ​​connection between the vent tube 521 and the vent tube fixing tube 522 enables detachable installation and facilitates later maintenance of the vent tube 521.

[0353] In one feasible implementation, a vent pipe support 523 is provided on the inner bottom wall of the liquid storage component 520. The vent pipe support 523 includes a support base 523a and a support rod 523b. The support base 523a is connected to the inner bottom wall of the liquid storage component 520. The support rod 523b is connected to the top end of the support base 523a.

[0354] The bottom end of the vent pipe 521 is fitted onto the support rod 523b and connected to the top end of the support base 523a.

[0355] For example, refer to Figure 7 and Figure 13 As shown, the bottom end of the vent pipe 521 is fixed to the inner bottom wall of the liquid storage component 520 by the vent pipe support 523, while the top end of the vent pipe 521 is fixed to the inner top wall of the liquid storage component 520 by the vent pipe fixing pipe 522. The two ends of the vent pipe 521 are fixed by the vent pipe support 523 and the vent pipe fixing pipe 522 respectively, which prevents the vent pipe 521 from moving or falling off during use, and prevents the problem of unbalanced air pressure in the liquid storage chamber 520a caused by the change in the position of the vent pipe 521. This improves the control of the liquid level in the humidification chamber 510d, avoids abnormal fluctuations in the liquid level in the liquid storage chamber 520a, and avoids poor humidification effect of the humidification component 530 on the airflow due to abnormal fluctuations in the liquid level in the humidification chamber 510d.

[0356] For example, refer to Figure 7 , Figure 13As shown, the support base 523a is connected to the inner bottom wall of the liquid storage component 520. The support base 523a has a certain height, so that when impurities accumulate in the liquid in the liquid storage chamber 520a, the bottom of the vent pipe 521 is higher than the impurity layer deposited at the bottom of the liquid storage chamber 520a due to the support base 523a, preventing impurities from clogging the bottom of the vent pipe 521 and ensuring unobstructed liquid flow. The support rod 523b is positioned above the support base 523a, with at least a portion extending into the vent pipe 521. This effectively supports the vent pipe 521, preventing it from tilting or shifting due to liquid impact and ensuring it remains in the preset position. Furthermore, because the support component occupies a small bottom area, cleaning the bottom of the liquid storage chamber 520a is more convenient, making it easier to remove accumulated impurities.

[0357] In one feasible implementation, the vent pipe 521 is located at the centerline of the liquid storage component 520 along the width direction of the storage tank. The width direction of the storage tank is referenced... Figure 8 The direction is shown in the middle Y. The vent pipe 521 is located at the center line of the liquid storage component 520, which can ensure a more uniform gas pressure distribution in the liquid storage chamber 520a and avoid the problem of excessively high or low local gas pressure.

[0358] In some embodiments, the vent pipe 521 is located at the centerline of the liquid storage unit 520 along the length of the storage tank. The length of the storage tank is referenced... Figure 8 As shown in the X direction, the vent pipe 521 is located at the center line of the liquid storage component 520, which can ensure a more uniform gas pressure distribution in the liquid storage component 520 and avoid the problem of excessively high or low local gas pressure.

[0359] In other embodiments, the vent pipe 521 is located at the centerline of the liquid storage chamber 520a along the length of the storage tank and is centered in the width direction. This design of the vent pipe 521 at the centerline helps to balance the liquid flow in the liquid storage chamber 520a, avoids the problem of liquid accumulation on one side or poor flow, and ensures that the humidifier 530 can continuously receive a liquid supply.

[0360] To achieve ease of use for the humidifying fiber 920, this application provides the following embodiments.

[0361] As one feasible implementation method, refer to Figure 5 As shown, the housing also includes a first partition plate 560. The exhaust chamber 510g of the exhaust section and the humidification chamber 510d of the humidification section are separated by the first partition plate 560, and a first mounting port 561 is provided on the first partition plate 560. A second mounting port 552 is formed on the top of the exhaust chamber 510g of the exhaust section. The first mounting port 561 and the second mounting port 552 are arranged opposite to each other.

[0362] Reference Figure 5 , Figure 6 , Figure 18 The humidification assembly 500 may also include a cover plate component 80. The cover plate component 80 covers the second mounting port 552 and is detachably connected to the housing. An exhaust port 811 is constructed on the cover plate component 80, and the exhaust port 811 communicates the exhaust chamber 510g and the storage chamber 210.

[0363] The humidification assembly may also include a humidification component 90. The humidification component 90 is detachably disposed at the bottom of the cover plate component 80. At least a portion of the humidification component 90 is disposed within the humidification chamber 510d via a first mounting port 561.

[0364] The humidifying component 90 is absorbent and breathable. For example, the humidifying component 90 may include humidifying fiber 920 or humidifying cotton, etc. The humidifying fiber 920 may be a fiber that is absorbent and breathable.

[0365] refer to Figure 5 , Figure 6 , Figure 17 and Figure 18 The humidifying component 90 is detachably disposed at the bottom of the cover plate component 80. At least a portion of the humidifying component 90 is disposed within the humidifying chamber 510d via the first mounting port 561. The bottom end of the humidifying component 90 is disposed below the liquid level of the humidifying chamber 510d. The humidifying component 90 above the liquid level divides the humidifying chamber 510d above the liquid level into a first humidifying chamber 510e and a second humidifying chamber 510f. The first humidifying chamber 510e is connected to the fan outlet 541c of the fan 542, and the second humidifying chamber 510f is connected to the exhaust chamber 510g.

[0366] The humidifying component 90 is absorbent. The humidifying component 90 below the liquid level in the humidifying chamber 510d absorbs water and transports the water upward to the humidifying component 90 above the liquid level in the humidifying chamber 510d.

[0367] Taking humidifying fiber 920 as an example, humidifying fiber 920 has many capillary structures. When part of the humidifying fiber 920 is immersed in water, the humidifying fiber 920 can quickly absorb water under the action of wetting and capillary structure. Water molecules rise in the capillary structure of the humidifying fiber 920, so that the humidifying fiber 920 above the liquid surface also adsorbs water.

[0368] The humidifying component 90 is breathable. When the fan 542 is working, the air in the storage chamber 210 flows through the fan inlet 541b and fan outlet 541c of the fan 542 to the first humidifying chamber 510e, passes through the humidifying fibers 920 above the liquid level in the humidifying chamber 510d, and then flows to the second humidifying chamber 510f. As the air passes through the humidifying fibers 920, it carries away some of the moisture adsorbed by the fibers, increasing the humidity of the air. The humidified air in the second humidifying chamber 510f flows from the humidifying outlet to the storage chamber 210 to humidify the storage chamber 210. The humidifying fibers 920 increase the contact area between air and moisture, thereby improving the humidification efficiency of the humidifying component 500 in the storage chamber 210.

[0369] In an implementation where the humidifying component 90 includes humidifying fibers 920, refer to Figures 4 to 18 The humidifying component 90 may also include a support 910. The support 910 may include an upper frame 911. The upper frame 911 is located within the exhaust chamber 510g, and the top of the upper frame 911 is detachably connected to the cover plate component 80.

[0370] For example, refer to Figure 5. Figure 6 , Figure 17 and Figure 18 The upper frame 911 may include a plug-in component 912. The plug-in component 912 is located on the top of the upper frame 911 and has a slot 913. The slot 913 may be a cuboid slot, a cylindrical slot, or a slot of other shapes. The opening of the slot 913 may face upward or toward the side of the plug-in component 912.

[0371] The upper frame 911 may also include a stop member 914. The stop member 914 includes a third connecting arm 915, the extension direction of which may be generally parallel to the center line of the slot 913. The third connecting arm 915 may be a flexible arm.

[0372] In the implementation where the slot of the slot 913 faces upward, the bottom end of the third connecting arm 915 can be located on the plug-in component 912.

[0373] In the implementation where the slot of the slot 913 faces the side of the plug-in member 912, one end of the third connecting arm 915 extending in the direction of extension can be disposed on the plug-in member 912 below the slot 913.

[0374] The stop member 914 may also include a third stop member 916. The third stop member 916 is disposed at the end of the third connecting arm 915 away from the insertion member 912, the third stop member 916 corresponds to at least a portion of the slot 913, and the third stop member 916 and the slot 913 are spaced apart.

[0375] refer to Figure 5 , Figure 18 The bottom of the cover plate component 80 has a plug-in portion 821, the shape of which is adapted to the shape of the slot 913. The plug-in portion 821 is inserted into the slot 913.

[0376] In the implementation where the slot of the slot 913 faces upward, the insertion part 821 is inserted into the slot 913 from top to bottom through the slot.

[0377] In the implementation where the slot of slot 913 faces the side of the insertion component 912, refer to Figure 5 The insertion part 821 is inserted into the slot 913 horizontally via the slot, which reduces the vertical space occupied by the insertion part 821 and the insertion component 912.

[0378] refer to Figure 17 and Figure 18 After the insertion part 821 is inserted into the slot 913, the third stop 916 stops the insertion part 821 at the end away from the slot 913, so that the insertion part 821 is not easily moved out of the slot 913.

[0379] When it is necessary to remove the upper frame 911 from the cover plate component 80, the third stop 916 is moved. Under the action of the third connecting arm 915, the third stop 916 releases the stop on the insertion part 821. At this time, the insertion part 821 can be moved out of the slot 913, thereby separating the upper frame 911 from the cover plate component 80.

[0380] In some other possible implementations of the embodiments of this application, the upper frame 911 and the cover plate component 80 can be connected by fastening bolts to achieve a detachable connection between the upper frame 911 and the cover plate component 80.

[0381] In some possible implementations of the embodiments of this application, reference is made to Figure 14 and Figure 18 The frame may also include a lower frame 918. The lower frame 918 is located at the bottom of the upper frame 911. The lower frame 918 and the upper frame 911 can be installed as a single unit.

[0382] At least a portion of the lower frame 918 is disposed within the humidification chamber 510d via the first mounting port 561.

[0383] Humidifying fibers 920 are disposed on the lower frame 918. Exemplarily, the lower frame 918 may be formed with at least one mounting frame 919, within which the humidifying fibers 920 are disposed, so as to dispose of the humidifying fibers 920 on the lower frame 918.

[0384] For example, the number of mounting frames 919 can be two, and the two mounting frames 919 are arranged side by side to improve the connection strength of the humidifying fibers 920.

[0385] In other implementations, the edge of the humidifying fiber 920 can be fixed to the lower frame 918 by fastening bolts.

[0386] The humidifying fiber 920 is located inside the humidifying chamber 510d. The humidifying fiber 920 and the lower frame 918 inside the humidifying chamber 510d together divide the humidifying chamber 510d above the liquid level into a first humidifying chamber 510e and a second humidifying chamber 510f.

[0387] In some possible implementations of the embodiments of this application, reference is made to Figure 17 The bottom of the upper frame 911 may have a sealing plate 917. The bottom surface of the sealing plate 917 faces the first mounting port 561. The sealing plate 917 overlaps the top of the first partition plate 560 and blocks the first mounting port 561 to separate the humidification chamber 510d and the exhaust chamber 510g, so that the airflow in the humidification chamber 510d is not easily allowed to flow from the first mounting port 561 into the exhaust chamber 510g.

[0388] In some possible implementations of the embodiments of this application, reference is made to Figure 4 and Figure 5 The cover plate component 80 may include a second plate 810. The second plate 810 covers the second mounting port 552. An exhaust port 811 is formed in the second plate 810. The second plate 810 and the housing are detachably connected.

[0389] In some implementations, a first limiting member 553 may be provided on the peripheral edge of the second mounting port 552. The first limiting member 553 may be block-shaped, sheet-shaped, column-shaped, or other shapes. The first limiting member 553 protrudes from the peripheral edge of the second mounting port 552 toward the inside of the second mounting port 552.

[0390] refer to Figures 4 to 18 The circumferential edge of the second plate 810 may be provided with a snap-fit ​​structure 812. The snap-fit ​​structure 812 may be a flexible snap-fit ​​structure.

[0391] The snap-fit ​​structure 812 may include a second connecting arm 813, which may be a long strip, a plate, or a rod. The second connecting arm 813 may be an elastic arm. The second connecting arm 813 may extend at an angle relative to the horizontal direction. The bottom end of the second connecting arm 813 is connected to the bottom of the second plate 810. The top end of the second connecting arm 813 extends above the second plate 810 to facilitate user movement of the top end. In its natural state, the top end of the second connecting arm 813 extends further away from the second plate 810 than its bottom end.

[0392] The snap-fit ​​structure 812 may further include a second limiting member 814, which may be block-shaped, sheet-shaped, column-shaped, or other shapes. The second limiting member 814 is disposed on the side of the second connecting arm 813 facing the peripheral edge of the second mounting opening 552. The second limiting member 814 is snapped into the bottom of the first limiting member 553, and the second connecting arm 813 and the first limiting member 553 are elastically engaged so that the second limiting member 814 and the peripheral edge of the second mounting opening 552 are tightly engaged, thereby making the second plate 810 and the housing detachably connected.

[0393] The top end of the second connecting arm 813 can move elastically toward the second plate 810. The second connecting arm 813 drives the second limiting member 814 to move toward the second plate 810, so that the second limiting member 814 and the first limiting member 553 are separated. At this time, the second plate 810 can be removed from the housing by moving the second plate 810 upward.

[0394] In some other implementations, the second plate 810 and the housing can be detachably connected by fastening bolts.

[0395] In some possible implementations of the embodiments of this application, the top of the upper frame 911 can be detachably disposed at the bottom of the second plate 810.

[0396] In some other possible implementations of the embodiments of this application, reference is made to Figures 4 to 18 The cover plate component 80 may also include a connector 820. The connector 820 is disposed at the bottom of the second plate 810, and the connector 820 and the humidifying component 90 are detachably connected. By detachably connecting the connector 820 and the humidifying component 90, the structure constructed on the second plate 810 can be reduced, thereby improving the structural strength of the second plate 810.

[0397] In an implementation where the cover plate component 80 has a plug portion 821 at its bottom, the plug portion 821 may be located at the bottom of the connector 820.

[0398] In some possible implementations of the embodiments of this application, reference is made to Figures 4 to 18 The circumferential edge of the second plate 810 may be provided with a receiving notch 815, which is recessed from the circumferential edge of the second plate 810 into the interior of the second plate 810. The first limiting member 553 corresponds to the receiving notch 815. The snap-fit ​​structure 812 is disposed within the receiving notch 815 to reduce the length of the snap-fit ​​structure 812 extending beyond the circumferential edge of the second plate 810, thereby reducing the gap between the circumferential edge of the second plate 810 and the circumferential edge of the second mounting opening 552, and improving the shielding effect of the second plate 810 on the second mounting opening 552.

[0399] In some possible implementations of the embodiments of this application, the peripheral edge of the second mounting port 552 can be located outside the top opening of the exhaust cavity 510g, and the bottom edge of the second plate 810 abuts against the end face of the top of the exhaust cavity 510g. In this way, the end face of the top of the exhaust cavity 510g can support the second plate 810 and stop at the bottom of the second plate 810, so that the second plate 810 is not easy to fall into the exhaust cavity 510g after installation.

[0400] As one feasible implementation, the humidifying element 530 extends along the width and height directions of the storage box, that is, along... Figure 8 The humidifier 530 extends in a plane formed by the X and Z directions. Its two ends along the length of the storage box are connected to the side plates 511 of the casing.

[0401] The humidifier 530 divides the humidification chamber 510d into a first humidification chamber 510e and a second humidification chamber 510f. The first humidification chamber 510e is located inside the humidification chamber 510d near the opening. The first humidification chamber 510e is connected to the humidification liquid inlet. The second humidification chamber 510f is connected to the humidification air outlet.

[0402] For example, during the humidification process of the humidification component 500, the fan 542 is activated. The fan 542 guides the airflow in the storage chamber through the fan inlet 541b to the fan mounting cavity 541a; subsequently, the airflow in the fan mounting cavity 541a flows into the first humidification cavity 510e through the fan outlet 541c. Then, the humidification element 530 humidifies the airflow; subsequently, the humidified airflow enters the second humidification cavity 510f, flows through the humidification outlet to the exhaust cavity 510g, and finally is discharged through the exhaust cavity 510g. By connecting the two ends of the humidification element 530 along the length of the storage box to the side plates 511 of the shell respectively, the humidification cavity 510d is divided into the first humidification cavity 510e and the second humidification cavity 510f. The first humidification cavity 510e is responsible for the entry of liquid and preliminary humidification, and the second humidification cavity 510f is responsible for the exhaust of gas, ensuring that the gas can be discharged smoothly and reducing the possibility of gas stagnation and blockage. Meanwhile, since the two ends of the humidifier 530 along the length of the storage box are connected to the side plate 511 of the shell respectively, it ensures that all airflow entering the first humidification chamber 510e is humidified by the humidifier 530, which improves the humidity uniformity of the airflow. The uniform humidification effect of the humidification chamber 510d, i.e. the humidifier 530, ensures the humidity stability in the storage room and avoids the problem of excessively high or low humidity in some areas.

[0403] For example, along the length of the storage box, the opposite ends of the humidifier 530 are connected to the side plates 511 of the housing by adhesive sponge. The side plates 511 of the housing provide stable support for the humidifier 530, preventing it from shaking or shifting during use. At the same time, the humidifier 530, as part of the internal support structure, helps to improve the pressure resistance and deformation resistance of the humidification assembly 500.

[0404] For example, the humidifier 530 includes humidifying fibers 920. The portion of the humidifying fiber 920 near the bottom of the humidification chamber 510d is located below the liquid level in the humidification section; that is, the height of the bottom end of the humidifying fiber 920 is lower than the height of the bottom end of the vent pipe 521. This allows the humidifying fiber 920 to fully absorb the liquid in the humidification chamber 510d, ensuring efficient and continuous humidification. The humidifying fiber 920 draws liquid from the bottom to the top through capillary action, ensuring that the airflow can be humidified at all points on the humidifying fiber 920, improving humidification efficiency. Simultaneously, based on the airflow driven by the fan assembly 540, the humidifying fiber 920 can effectively absorb liquid and evenly release the humidified airflow, preventing moisture accumulation in the humidification chamber 510d and ensuring the stability of the humidification effect. The top of the humidifying fiber 920 is fixedly connected to the top of the humidifying chamber 510d, ensuring that the fiber maintains a stable position within the humidifying chamber 510d, preventing the humidifying fiber 920 from moving or falling off within the humidifying chamber 510d, and improving the safety and reliability of the humidifying component 500.

[0405] In one feasible implementation, a humidifying air inlet pipe 537 is provided at the bottom of the humidifying unit. The top end of the humidifying air inlet pipe 537 is higher than the bottom end of the vent pipe 521 and communicates with the first humidifying chamber 510e. This prevents liquid from entering the fan assembly 540 through the humidifying air inlet pipe 537, thus avoiding damage or performance degradation to the fan assembly 540. The bottom end of the humidifying air inlet pipe 537 communicates with the fan outlet 541c of the fan assembly 540. Airflow is introduced into the humidifying chamber 510d through the fan outlet 541c of the fan assembly 540, and the airflow enters the first humidifying chamber 510e through the humidifying air inlet pipe 537, which helps to evenly distribute the airflow and ensure the humidification effect.

[0406] To further reduce the generation of residual water when the liquid storage unit 520 and the humidification unit are connected or separated, this application provides the following embodiments:

[0407] As one feasible implementation method, refer to Figure 19 and Figure 20The storage tank also includes a humidification device. The humidification device includes a liquid storage component 520, a humidification section, and a docking assembly. The docking assembly includes a liquid storage docking assembly 524 and a humidification docking assembly 532. The liquid storage component 520 is provided with the liquid storage docking assembly 524. A humidification inlet is formed on the second partition 514. The humidification docking assembly 532 is provided at the humidification inlet. The liquid storage docking assembly 524 and the humidification docking assembly 532 are detachably docked to connect the liquid storage chamber 520a and the humidification chamber 510d.

[0408] For example, during the use of the humidifier, the liquid storage component 520 is first placed in the mounting cavity 510a. At this time, the liquid storage docking assembly 524, located at the liquid outlet of the liquid storage component 520, and the humidification docking assembly 532, located at the humidification inlet of the humidification section, are docked to allow liquid to flow smoothly from the liquid storage cavity 520a to the humidification cavity 510d. By setting the liquid storage docking assembly 524 and the humidification docking assembly 532, liquid is delivered from the liquid storage component 520 to the humidification cavity 510d in real time. The process is simple and quick, reducing the complexity of operation and time costs for the user. Simultaneously, the liquid in the liquid storage component 520 flows to the humidification cavity 510d through the liquid storage docking assembly 524 and the humidification docking assembly 532, reducing the risk of liquid spillage.

[0409] Since the installation of a humidification device can improve docking efficiency and reduce residual water production, the humidification device will be described in detail below.

[0410] Reference Figure 21 As shown, the liquid storage docking assembly 524 includes a first connecting seat 525, a first elastic member 527, and a first docking member 526. The first connecting seat 525 is mounted on the connecting pipe 520e. At least a portion of the first docking member 526 is located in the connecting cavity. The first docking member 526 and the connecting pipe 520e are slidably connected. The first elastic member 527 is connected between the first connecting seat 525 and the first docking member 526 in a compressed state.

[0411] In one feasible implementation, the first connecting seat 525 includes a first connecting portion and a second connecting portion that are interconnected. The first connecting portion is located in the liquid storage chamber 520a. The first connecting portion is connected to the connecting pipe 520e. The first end of the second connecting portion is detachably connected to the first connecting portion. The second end of the second connecting portion is detachably connected to the outer periphery of the connecting pipe 520e.

[0412] By making the first connecting part and the second connecting part, as well as the connecting pipe 520e, detachable connections are made, the assembly and disassembly process of the first connecting seat 525 is simplified. At the same time, the first connecting part, the second connecting part, and the connecting pipe 520e can be manufactured and replaced independently, improving the flexibility of manufacturing individual components. Furthermore, when replacement or repair is required, only specific components need to be replaced, rather than replacing the entire first connecting part, the second connecting part, and the connecting pipe 520e, thus reducing maintenance difficulty and cost.

[0413] As one feasible implementation method, refer to Figure 25 As shown, the first connecting part includes a connecting body 525a. The second connecting part includes a plurality of snap fasteners 525b. The connecting body 525a has a connecting body cavity with connecting openings at both ends. The first end of the connecting body cavity communicates with the liquid storage cavity 520a through the connecting opening. The second end of the connecting body cavity communicates with the connecting cavity through the connecting opening.

[0414] Multiple clips 525b are arranged sequentially at intervals along the circumference of the connecting body 525a. The first end of the clip 525b is connected to the connecting body 525a, and the second end of the clip 525b is connected to the outer periphery of the connecting tube 520e.

[0415] For example, a connecting body 525a is disposed at the first end of a connecting tube 520e. The connecting tube 520e is located in a liquid storage chamber 520a. The connecting body 525a is connected to the outer periphery of the connecting tube 520e via a snap fastener 525b. This ensures a secure connection between the connecting body 525a and the connecting tube 520e, preventing the connecting body 525a from loosening or falling off during liquid transport. Simultaneously, multiple snap fasteners 525b are spaced apart circumferentially along the fixing body, allowing the first connecting seat 525 to bear force evenly at the connection point, avoiding damage or deformation caused by excessive force at a single point, and improving the stability and durability of the connection between the first connecting seat 525 and the connecting tube 520e.

[0416] The design of the snap-fit ​​525b makes the installation and removal of the first connector 525 more convenient. The user simply needs to slip the first connector 525 onto its outer circumference, and the snap-fit ​​525b will automatically lock onto the outer circumference of the connecting pipe 520e, achieving a secure connection between the first connector 525 and the connecting pipe 520e. When removing the first connector 525 from the connecting pipe 520e, simply moving the snap-fit ​​525b will loosen the connection, offering advantages in terms of ease of maintenance and replacement.

[0417] The first end of the connecting body cavity is connected to the liquid storage cavity 520a through a connecting opening, and the second end of the connecting body cavity is connected to the connecting cavity through another connecting opening. In this way, the liquid in the liquid storage cavity 520a can flow smoothly into the connecting cavity.

[0418] In some embodiments, the first connecting portion includes a connecting body 525a. The second connecting portion includes a connecting cylinder. The connecting body 525a has a connecting body cavity with connecting openings at both ends. The first end of the connecting body cavity communicates with the liquid storage cavity 520a. The second end of the connecting body cavity communicates with the connecting cavity.

[0419] The first end of the connecting cylinder is connected to the connecting body 525a. The second end of the connecting cylinder is threaded to the outer circumference of the connecting pipe 520e.

[0420] By connecting the second end of the connecting cylinder to the outer circumference of the connecting pipe 520e with a threaded connection, a firm connection is achieved between the second end of the connecting cylinder and the connecting pipe 520e. At the same time, the threaded connection facilitates the assembly and disassembly of the connecting cylinder and the connecting pipe 520e.

[0421] As one feasible implementation, the connecting body 525a has a first connecting opening and a second connecting opening. The first end of the connecting body cavity is connected to the liquid storage cavity 520a through the first connecting opening, and the second end of the connecting body cavity is connected to the connecting cavity through the second connecting opening.

[0422] The first connection opening faces the inner bottom wall of the liquid storage component 520. By aligning the first connection opening with the inner bottom wall of the liquid storage component 520, the liquid can flow more smoothly when entering the connection body cavity. This design reduces liquid flow resistance and turbulence, improving liquid flow efficiency. Simultaneously, because the first connection opening faces the inner bottom wall of the liquid storage component 520, as much liquid as possible can flow out of the liquid storage cavity 520a, ensuring complete drainage and reducing the amount of residual liquid.

[0423] As one feasible implementation method, refer to Figure 22 As shown, an anti-detachment element 529 is provided on the inner periphery of the first connecting seat 525. The first mating member 526 and the anti-detachment element 529 in the connecting cavity are configured to cooperate.

[0424] The anti-detachment component 529 divides the connecting cavity into a first sub-connecting cavity and a second sub-connecting cavity that are interconnected. The first sub-connecting cavity is located on the side of the second sub-connecting cavity near the liquid storage cavity 520a.

[0425] By incorporating an anti-detachment component 529, the connecting cavity is divided into a first sub-connecting cavity and a second sub-connecting cavity, with the first sub-connecting cavity located on the side closest to the liquid storage cavity 520a. This segmented design allows for better control of the movement path and position of the first docking component 526, ensuring a smooth docking process.

[0426] When the liquid storage component 520 and the humidification part are not connected, under the compression of the first elastic component 527, the first connecting component 526 and the anti-detachment component 529 abut against each other to seal the liquid storage outlet.

[0427] During the process of switching from unconnected to connected, the first connecting member 526 moves relative to the anti-detachment member 529 toward the direction of closer to the liquid storage chamber 520a to open the liquid storage outlet.

[0428] During the process of switching from docking to non-docking between the liquid storage component 520 and the humidification unit, the first docking component 526 moves towards the humidification chamber 510d relative to the humidification docking assembly 532, and the middle part of the first docking component 526 abuts against the anti-detachment component 529 to seal the liquid storage outlet.

[0429] The anti-detachment component 529 divides the connecting cavity into a first sub-connecting cavity and a second sub-connecting cavity, ensuring the stability of the first mating member 526 within the connecting cavity. During docking and disengagement, the anti-detachment component 529 also effectively prevents the first mating member 526 from accidentally detaching, enhancing the reliability of the liquid storage docking assembly 524. Simultaneously, the anti-detachment component 529 increases the contact area between the first mating member 526 and the connecting cavity, thereby improving the sealing effect. Especially during docking and disengagement, the anti-detachment component 529 ensures that the first mating member 526 remains in the correct position, preventing liquid leakage.

[0430] For example, the anti-detachment component 529 has anti-detachment protrusions.

[0431] As one feasible implementation method, refer to Figure 26 As shown, the first docking member 526 includes a first docking segment 526a and a second docking segment 526b that are interconnected. The first docking segment 526a is located in a first sub-connecting cavity, and at least a portion of the second docking segment 526b is disposed in a second sub-connecting cavity. This segmented design allows for better control of the movement path and position of the first docking member 526 within the connecting cavity, ensuring a smooth docking process.

[0432] The first docking segment 526a has a docking cavity with a docking opening. The first end of the docking cavity is connected to the connecting cavity through the docking opening. A first docking through hole is provided at the end of the first docking segment 526a near the second docking segment 526b, and the first docking through hole is connected to the docking cavity.

[0433] The connection between the first docking section 526a and the second docking section 526b is fitted with an anti-detachment component 529. The anti-detachment component 529 restricts the movement of the second docking section 526b too close to the liquid outlet, ensuring the stability and sealing of the first docking section 526 within the connection cavity. The anti-detachment component 529 not only prevents the first docking section 526 from falling off but also enhances the sealing effect between the first docking section 526 and the connection cavity, preventing liquid leakage.

[0434] When the liquid storage unit 520 and the humidification unit are not connected, the first connecting section 526a is located in the first sub-connecting cavity, the end of the first connecting section 526a near the second connecting section 526b abuts against the anti-detachment member 529 to seal the liquid storage outlet, and the second connecting section 526b is located in the second sub-connecting cavity.

[0435] During the process of switching from unconnected to connected, the first connecting member 526 moves relative to the humidifying connecting assembly 532 towards the liquid storage chamber 520a. At this time, both the first connecting segment 526a and the second connecting segment 526b move relative to the anti-detachment member 529 towards the liquid storage chamber 520a. The end of the first connecting segment 526a near the second connecting segment 526b no longer abuts against the anti-detachment member 529, thus opening the liquid outlet. The liquid in the connecting chamber can flow to the humidifying connecting assembly 532 through the first connecting through hole. In this way, the liquid in the liquid storage chamber 520a flows through the connecting body cavity to the connecting cavity, and then flows through the connecting cavity and the first connecting through hole to the humidifying connecting assembly 532, thereby realizing the liquid supply function of the liquid storage chamber 520a.

[0436] During the process of switching from docking to non-docking between the liquid storage component 520 and the humidifying part, the first docking component 526 moves relative to the humidifying docking assembly 532 toward the humidifying chamber 510d. At this time, both the first docking segment 526a and the second docking segment 526b move relative to the anti-detachment component 529 toward the direction away from the liquid storage chamber 520a and toward the humidifying chamber 510d. The end of the first docking segment 526a near the second docking segment 526b abuts against the anti-detachment component 529 to seal the liquid outlet and achieve the sealing of the liquid storage component 520.

[0437] For example, along the direction from the liquid storage docking assembly 524 to the humidification docking assembly 532, the outer diameter of the second docking segment 526b gradually decreases. As a result, since the first elastic member 527 is sleeved on the first docking member 526, the elastic force of the first elastic member 527 per unit area on the second docking segment 526b is amplified, the compressive force on the first sealing member 528 increases, and the sealing of the liquid storage outlet by the first docking member 526 is improved.

[0438] In one possible implementation, the liquid storage docking assembly 524 further includes a first seal 528. The number of first seals 528 is at least one. The first seal 528 is disposed at the connection between the first connector 525 and the connecting tube 520e.

[0439] In some embodiments, a first seal 528 is disposed at the abutment of a first mating section 526a and an anti-detachment member 529.

[0440] For example, an annular groove is provided at the end of the connecting body 525a near the connecting pipe 520e, and the first sealing member 528 is disposed in the annular groove. In this way, the connecting body 525a is connected to the connecting pipe 520e through the first sealing member 528, which reduces the direct contact between the connecting body 525a and the connecting pipe 520e and reduces wear.

[0441] For example, by providing a first seal 528 at the contact point between the first mating section 526a and the anti-detachment component 529, liquid leakage can be effectively prevented when the liquid storage component 520 and the humidifying section are not mated. The first seal 528 provides an additional sealing layer, ensuring the sealing of the liquid storage outlet by the liquid storage assembly 524. Simultaneously, the first seal 528 acts as a buffer between the first mating section 526a and the anti-detachment component 529, reducing direct contact and friction between them, thereby reducing wear and extending the service life of the humidifying assembly 500.

[0442] The humidification assembly 500 provided in some embodiments of this application can have multiple first seals 528, providing multiple layers of sealing protection. The first seals 528 are respectively disposed at the connection between the first connecting seat 525 and the connecting pipe 520e, and at the abutment between the first mating section 526a and the anti-detachment member 529, ensuring the sealing performance of the humidification assembly 500 at multiple critical locations and preventing liquid leakage. The first seals 528 not only provide a sealing function but also increase the stability of the humidification assembly 500 to a certain extent. In particular, the seal disposed at the abutment between the first mating section 526a and the anti-detachment member 529 can effectively buffer the impact force during the mating process, reducing wear and deformation of the first mating member 526.

[0443] For example, the first seal 528 may be an O-ring.

[0444] Reference Figure 21 and Figure 22 As shown, the humidifier docking assembly 532 includes a second connecting seat 533, a second elastic member 535, and a second docking member 534. The second connecting seat 533 is installed at the humidifier inlet. The second connecting seat 533 has a connecting channel communicating with the humidifier section. The second elastic member 535 is connected between the second connecting seat 533 and the second docking member 534 in a compressed state. The second docking member 534 and the second connecting seat 533 are slidably connected.

[0445] As one feasible implementation method, refer to Figure 27 and Figure 28As shown, the second connecting seat 533 includes a first connecting section 533a and a first stop 545 that are interconnected. The first connecting section 533a is located at the humidification inlet. The first stop 545 is located on the side of the first connecting section 533a near the humidification chamber. The segmented design of the first connecting section 533a and the first stop 545 provides multiple layers of sealing protection. The first connecting section 533a, located at the humidification inlet, ensures sealing against the external environment; the first stop 545, located on the side near the humidification chamber, further enhances the internal sealing effect.

[0446] The second connector 533 has a connection channel. The humidifying docking assembly 532 forms a drain channel 570. The connection channel is connected to the humidifying chamber 510d through the drain channel 570, ensuring that liquid can flow smoothly from the first connecting section 533a to the humidifying chamber 510d, and preventing liquid from remaining in the connection channel during docking.

[0447] For example, a fixing ear is provided on the outer periphery of the first connecting segment 533a. The fixing ear is connected to the humidifying part to improve the connection stability between the humidifying docking assembly 532 and the humidifying part.

[0448] It is understandable that the diameter of the opening of the second connector 533 on the side opposite to the humidification chamber 510d is smaller than the diameter of the connecting channel.

[0449] As one feasible implementation method, refer to Figure 22 As shown, the second docking component 534 includes a docking body 534a and a docking connecting section 534b. Along the direction from the first connecting section 533a to the first stop 545, the cross-sectional area of ​​the docking body 534a gradually increases, thus gradually increasing the sealing effect during docking and ensuring the airtightness of the humidification assembly 500. The cross-sectional area of ​​the docking body 534a is smaller than the inner diameter of the connecting channel, allowing liquid to flow smoothly from the humidification docking assembly 532 to the first connecting section 533a during docking, preventing liquid residue from remaining in the connecting channel during the docking process.

[0450] Multiple docking connection segments 534b are sequentially spaced along the circumference of the docking body 534a to ensure precise positioning of the second docking member 534 within the connection channel, guaranteeing alignment and sealing during docking and improving docking accuracy. The design of the docking connection segments 534b increases the stability of the humidification assembly 500. The multiple connection segments better distribute stress, reducing structural deformation and damage during docking. The first end of the docking connection segment 534b is connected to the docking body 534a. The second end of the docking connection segment 534b extends towards the first stop member 545. The docking connection segment 534b and the first connection segment 533a are slidably connected on their inner circumferences.

[0451] For example, the docking connection section 534b can be a guide wing. Meanwhile, a narrow groove is provided within the first connection section 533a. The guide wing slides within the narrow groove to allow the second docking member 534 to slide stably within the connection channel. The gap between the guide winglets is used for liquid flow.

[0452] In one possible implementation, the humidification docking assembly 532 further includes a second seal 536. The number of second seals 536 is at least one. The second seal 536 is disposed on the outer periphery of the first connecting section 533a opposite to the humidification chamber 510d. The second seal 536 is disposed at the connection between the first connecting section 533a and the first stop 545.

[0453] For example, an annular groove is provided on the outer periphery of the humidification cavity 510d opposite to the first connecting section 533a, and the second sealing member 536 is disposed in the annular groove. In this way, when the liquid storage docking assembly 524 and the humidification docking assembly 532 are docked, the second connecting seat 533 and the second docking member 534 extend into the connecting cavity and abut against the first docking member 526, thereby improving the sealing performance of the connecting cavity and avoiding the problem of liquid leakage.

[0454] For example, the first stop 545 has an annular groove at its end near the first connecting section 533a, and the second seal 536 is disposed in the annular groove. The second seal 536 is used to seal the first connecting section 533a and the first stop 545.

[0455] For example, along the direction from the first connecting segment 533a to the first stop 545, the outer diameter of the mating body 534a gradually increases. Thus, since the second elastic member 535 is fitted onto the mating body 534a, the elastic force per unit area of ​​the second elastic member 535 on the mating body is amplified, increasing the compressive force on the second sealing member 536 and improving the sealing of the connection channel by the second mating member 534. Simultaneously, along the direction from the first stop 545 to the first connecting segment 533a, the outer diameter of the mating body 534a gradually decreases, reducing the space occupied by the liquid flow and allowing for smoother liquid flow.

[0456] For example, the second seal 536 may be an O-ring.

[0457] The elastic force of the first elastic element 527 is greater than that of the second elastic element 535.

[0458] When the liquid storage unit 520 and the humidification unit are not connected, the first connecting piece 526 seals the liquid outlet. The second connecting piece 534 seals the connection channel to ensure the airtightness of the liquid storage chamber 520a and the humidification chamber 510d, preventing liquid leakage. Simultaneously, this separate sealing design effectively prevents external air from entering the liquid storage chamber 520a and the humidification chamber 510d, avoiding liquid leakage or the entry of external contaminants.

[0459] During the process of switching from unconnected to connected, the liquid storage unit 520 and the humidification unit are in the following state:

[0460] First docking status: Refer to Figure 22 As shown, the second docking member 534 and the second connecting seat 533 extend into the connecting cavity and abut against the first docking member 526. The first docking member 526 pushes the second docking member 534 to move away from the liquid storage docking assembly 524, so that the second docking member 534 opens the connecting channel.

[0461] Second docking status: Refer to Figure 23 As shown, the first docking member 526 moves away from the humidifying docking assembly 532 under the pressure of the humidifying docking assembly 532 to open the liquid storage outlet.

[0462] Third docking status: Refer to Figure 24 As shown, the liquid storage chamber 520a of the liquid storage component 520 is connected to the humidification chamber 510d of the humidification unit.

[0463] For example, during the process of switching from unconnected to connected, the liquid storage docking assembly 524 and the humidification docking assembly 532 first make initial contact, and the second docking member 534 and the second connecting seat 533 first extend into the connection cavity and abut against the first docking member 526.

[0464] Subsequently, because the elastic force of the first elastic member 527 is greater than the elastic force of the second elastic member 535, the first docking member 526 pushes the second docking member 534 to move away from the liquid storage docking assembly 524, so that the second docking member 534 opens the connection channel. The direction of movement of the second docking member 534 is referenced. Figure 9 The direction is indicated by the solid black arrow. At this time, the humidification chamber 510d is connected to the connecting channel. Because the humidification chamber 510d is a chamber that needs to be replenished with liquid, the liquid level in the humidification chamber 510d is low and the liquid volume is small, so the liquid in the humidification chamber 510d will not overflow from the connecting channel.

[0465] Finally, under the pressure of the humidifying docking assembly 532, the first docking member 526 moves away from the humidifying docking assembly 532, and the direction of movement of the liquid storage docking assembly 524 is referenced. Figure 24 The direction indicated by the black hollow arrow is to open the liquid outlet. At this time, the liquid storage chamber 520a is connected to the connecting chamber, and the liquid in the liquid storage chamber 520a flows sequentially through the connecting chamber and the connecting channel to the humidification chamber 510d. The direction of liquid flow is as follows: Figure 24The direction is indicated by the black single arrow in the middle. The liquid storage chamber 520a is the chamber that needs to be supplied with liquid, and the first chamber is full of liquid. Because the elastic force of the first elastic member 527 is greater than the elastic force of the second elastic member 535, the liquid storage chamber 520a is only connected after the humidification chamber 510d is connected, in order to avoid excessive residual water caused by premature outflow of liquid in the liquid storage chamber 520a.

[0466] In the storage box provided in some embodiments of this application, by setting up a liquid storage docking assembly 524 and a humidification docking assembly 532, during the process of switching from non-docked to docked between the liquid storage component 520 and the humidification section, the second docking member 534 of the humidification docking assembly 532 first opens the connection channel, and then the first docking member 526 of the liquid storage docking assembly 524 opens the liquid outlet, so as to realize the step-by-step connection between the humidification chamber 510d and the liquid storage chamber 520a. The connection sequence of the liquid storage chamber 520a and the humidification chamber 510d is determined according to the liquid flow. This not only improves the sealing performance of the humidification assembly 500 when the liquid storage component 520 supplies liquid to the humidification section, but also avoids the generation of excessive residual water during the docking process.

[0467] In the storage box of this application embodiment, a first elastic element 527 is provided in the liquid storage docking assembly 524, which connects the first connecting seat 525 and the first docking member 526. A second elastic element 535 is provided in the humidification docking assembly 532, which connects the second connecting seat 533 and the second docking member 534. The elastic forces of the first elastic element 527 and the second elastic element 535 are different, with the elastic force of the first elastic element 527 being greater than that of the second elastic element 535. Thus, during the docking process between the liquid storage member 520 and the humidification part, the connection channel of the humidification docking assembly 532 in the humidification part opens first, followed by the liquid storage outlet of the liquid storage member 520. The liquid storage member 520 and the humidification part open sequentially in a certain order, ensuring the deformation and movement sequence of each component during the docking process of the liquid storage docking assembly 524 and the humidification docking assembly 532. This avoids confusion and misoperation, and achieves the sequentiality and reliability of the docking process.

[0468] In the storage tank provided in some embodiments of this application, the liquid storage docking assembly 524 and the humidification docking assembly 532 enable rapid connection between the liquid storage component 520 and the humidification unit, reducing the time the liquid remains in the connecting pipe 520e and thus reducing the generation of residual water. Furthermore, even if a small amount of liquid leaks during the docking process, the leaked liquid will remain in the connecting cavity of the connecting pipe 520e, avoiding any hazards caused by the leak.

[0469] For example, the first elastic element 527 may be a compression spring. When the compression spring is subjected to a compressive force, the compression spring stores potential energy; when the compressive force is released, the spring releases the potential energy.

[0470] For example, the first elastic element 527 may be a compression spring. When the compression spring is subjected to a compressive force, the spring stores potential energy; when the compressive force is released, the compression spring releases the potential energy.

[0471] During the process of switching from docking to non-docking between the liquid storage unit 520 and the humidification unit, the liquid storage unit 520 and the mounting unit are in the following state:

[0472] Fourth docking state: Under the action of the elastic restoring force of the first elastic member 527, the first docking member 526 moves towards the humidification docking assembly 532 to block the liquid outlet.

[0473] Fifth docking state: Under the action of the elastic restoring force of the second elastic member 535, the second docking member 534 moves towards the liquid storage docking assembly 524 so that the second docking member 534 blocks the connection channel.

[0474] Sixth docking state: The second docking member 534 and the second connecting seat 533 are disengaged from the first docking member 526, and the second docking member 534 and the second connecting seat 533 are disengaged from the connecting cavity.

[0475] For example, when the liquid storage component 520 and the humidification unit are in a docked state, the first docking component 526 and the second docking component 534 respectively open the liquid storage outlet and the connecting channel, so that the liquid storage chamber and the humidification chamber are connected.

[0476] When the liquid storage unit 520 and the humidification unit begin to switch from the docking state to the un docking state, the first elastic element 527 and the second elastic element 535 begin to release elastic potential energy.

[0477] Since the elastic force of the first elastic member 527 is greater than that of the second elastic member 535, during the process of switching from docking to non-docking between the liquid storage member 520 and the humidifying part, firstly, under the action of the elastic force of the first elastic member 527, the first docking member 526 moves towards the humidifying docking assembly 532, and the first docking member 526 blocks the liquid outlet of the liquid storage, ensuring the sealing of the liquid storage chamber 520a.

[0478] Subsequently, under the elastic force of the second elastic member 535, the second docking member 534 moves towards the liquid storage docking assembly 524. The second docking member 534 moves to the connection channel, blocks the connection channel, and ensures the sealing of the humidification chamber 510d.

[0479] Then, the second docking member 534 and the second connecting seat 533 no longer abut against the first docking member 526 and gradually detach from the connecting cavity.

[0480] Finally, the second docking member 534 and the second connecting seat 533 completely disengage from the connecting cavity, completing the switch from the docking state to the non-docking state.

[0481] When the liquid storage unit 520 and the humidification unit switch from a docked state to a non-docked state, the first docking member 526 and the second docking member 534 respectively close the liquid outlet and the connecting channel, thus sealing the liquid outlet and the connecting channel and enhancing the sealing performance of the liquid storage unit 520 and the humidification unit. During the switching process, liquid will not leak from the liquid storage chamber 520a or the humidification chamber 510d, avoiding the generation of residual water and ensuring the safe storage of the liquid.

[0482] Since the liquid storage component 520 contains a large amount of liquid, the separation process between the liquid storage component 520 and the humidifying part is designed such that the first docking component 526 first blocks the liquid outlet, preventing the liquid storage component 520 from continuing to supply liquid to the humidifying part. If the switching from the docking state to the non-docking state of the liquid storage component 520 and the humidifying part is set such that the humidifying docking component 532 first blocks the humidifying part, and then the liquid storage docking component 524 blocks the liquid outlet, then after the humidifying docking component 532 blocks the humidifying part, the liquid in the liquid storage component 520 will still flow into the connecting cavity, resulting in excessive residual water in the connecting cavity. Therefore, in the humidifying component 500 provided in some embodiments of this application, by setting the elastic force of the first elastic member 527 of the liquid storage docking component 524 to be greater than the elastic force of the second elastic member 535 of the humidifying docking component 532, the first docking component 526 first blocks the liquid storage component 520, preventing the liquid storage component 520 from generating excessive residual water.

[0483] To further reduce the residual water generated during the separation process of the liquid storage docking assembly 524 and the humidification docking assembly 532, the following embodiments are provided.

[0484] The housing may have a second partition 514 located between the mounting cavity 510a and the humidification cavity 510d. The mounting cavity 510a and the humidification cavity 510d may be separated by the second partition 514.

[0485] The second partition 514 may be provided with a humidification docking assembly 532, and the liquid storage component 520 may be provided with a liquid storage docking assembly 524 on the side facing the second partition 514. When the humidification docking assembly 532 and the liquid storage docking assembly 524 are docked, the liquid storage chamber 520a of the liquid storage component 520 and the humidification chamber 510d are connected. At this time, the water in the liquid storage component 520 can flow into the humidification chamber 510d through the liquid storage docking assembly 524 and the humidification docking assembly 532 to supply water to the humidification chamber 510d.

[0486] Reference Figure 20 , Figure 29 and Figure 30As shown, a drainage channel 570 can be constructed at the bottom of the humidifying docking assembly 532. The inner cavity of the humidifying docking assembly 532 is connected to the humidifying cavity 510d through the drainage channel 570. When the liquid storage docking assembly 524 and the humidifying docking assembly 532 are separated, any water that may remain in the docking area of ​​the liquid storage docking assembly 524 and the humidifying docking assembly 532 can flow along the drainage channel 570 into the humidifying cavity 510d, thereby reducing the amount of water remaining in the docking area of ​​the humidifying docking assembly 532 and the liquid storage docking assembly 524, and making it less likely for water to spill into the mounting cavity 510a.

[0487] The drain channel 570 has a guiding function, allowing water in the inner cavity of the humidification docking assembly 532 to flow into the humidification chamber 510d through the drain channel 570, thereby reducing water splashing during the process of water flowing from the inner cavity of the humidification docking assembly 532 to the humidification chamber 510d.

[0488] For example, the top end of the drain channel 570 is connected to the inner cavity of the humidification docking assembly 532, and the bottom end of the drain channel 570 is connected to the humidification cavity 510d. Since the top end of the inner cavity of the humidification docking assembly 532 is higher than the liquid level in the humidification cavity 510d, according to the siphon principle, during the separation of the humidification docking assembly 532 and the liquid storage docking assembly 524, when the liquid storage docking assembly 524 and the humidification docking assembly 532 separate, the water in the inner cavity of the humidification docking assembly 532 flows quickly into the drain channel 570 and flows from the drain channel 570 into the humidification cavity 510d, reducing the residual water in the docking area of ​​the humidification docking assembly 532 and the liquid storage docking assembly 524, thereby making it less likely for residual water to spill into the mounting cavity 510a.

[0489] The top of the drain channel 570 can be connected to the bottom of the inner cavity of the humidification docking assembly 532, so that water at the bottom of the inner cavity of the humidification docking assembly 532 can also flow into the humidification cavity 510d through the drain channel 570. This improves the drainage rate of water in the inner cavity of the humidification docking assembly 532, reduces the amount of water remaining in the docking area between the humidification docking assembly 532 and the liquid storage docking assembly 524, and makes it less likely for water to spill into the installation cavity 510a.

[0490] In some embodiments, refer to Figure 29 As shown, the bottom end of the humidification docking assembly 532 may have a drain pipe 571. The top end of the drain pipe 571 is connected to the bottom end of the inner cavity of the humidification docking assembly 532, and the bottom end of the drain pipe 571 is connected to the humidification cavity 510d. The inner cavity of the drain pipe 571 forms a drain channel 570.

[0491] When the liquid storage docking assembly 524 and the humidification docking assembly 532 are separated, the water in the inner cavity of the humidification docking assembly 532 flows rapidly downward to the drain pipe 571 and flows along the drain pipe 571 into the humidification cavity 510d, reducing the residual water in the docking area of ​​the humidification docking assembly 532 and the liquid storage docking assembly 524, thus making it less likely for residual water to spill into the mounting cavity 510a.

[0492] In some possible implementations of the embodiments of this application, reference is made to Figure 29 The bottom end of the drain pipe 571, on the side opposite to the liquid storage docking assembly 524, can be equipped with a connecting port 572, which can connect to the bottom port of the drain pipe 571. The connecting port 572 is connected to the humidification chamber 510d. Water in the inner cavity of the humidification docking assembly 532 can flow not only from the bottom port of the drain pipe 571 to the humidification chamber 510d, but also from the connecting port 572 to the humidification chamber 510d, thus improving the water discharge efficiency of the humidification docking assembly 532.

[0493] In some possible implementations of the embodiments of this application, the width of the connecting port 572 along the radial direction of the drain pipe 571 increases from top to bottom, so that the water flowing to the bottom end of the drain pipe 571 can be quickly discharged into the humidification chamber 510d, thereby improving the water discharge efficiency in the humidification docking assembly 532.

[0494] In some possible implementations of this application, the bottom end of the humidifying docking assembly 532 may have a connecting block located within the humidifying chamber 510d, and a drain channel 570 is provided within the connecting block. The drain channel 570 may extend vertically. The drain channel 570 may extend obliquely relative to the vertical direction. The drain channel 570 may extend in a curved shape. The top end of the drain channel 570 communicates with the bottom end of the inner cavity of the humidifying docking assembly 532, and the bottom end of the drain channel 570 communicates with the humidifying chamber 510d.

[0495] In some possible implementations of the embodiments of this application, reference is made to Figures 19 to 30 The humidification docking assembly 532 may include a second connector 533.

[0496] In some embodiments, the second connecting seat 533 can be a first tube body disposed on the second partition 514. One end of the first tube body extends into the humidification chamber 510d, and the other end extends out of the humidification chamber 510d. The inner cavity of the first tube body serves as a connecting channel. The end of the first tube body extending out of the humidification chamber 510d forms a first liquid inlet 574. The first liquid inlet 574 is used to communicate with the liquid storage docking assembly 524 and the liquid storage element 520. The end of the first tube body extending into the humidification chamber 510d forms a first liquid outlet 549. The first liquid outlet 549 communicates with the humidification chamber 510d.

[0497] In other embodiments, reference is made to... Figures 19 to 30 The second connecting seat 533 may include a first tube body and a first stop 545.

[0498] A first tube is disposed on the second partition 514, with one end extending into the humidification chamber 510d and the other end extending out of the humidification chamber 510d. The end of the first tube extending out of the humidification chamber 510d forms a first liquid inlet 574. A first stop 545 is located inside the humidification chamber 510d. The first stop 545 is disposed at the end of the first tube opposite to the liquid storage component 520. The first stop 545 and the first tube form a connecting channel.

[0499] refer to Figures 19 to 30 The first stop 545 may include an end portion 548 and a peripheral portion 547. The peripheral portion 547 is tubular, and the axis of the peripheral portion 547 may be aligned with the axis of the first tube body. The peripheral portion 547 is connected to the first tube body, and the end portion 548 is sealed at the end of the peripheral portion 547 that is away from the first tube body.

[0500] In some embodiments, one end of the first tube extending into the humidification chamber 510d can be indirectly connected to the humidification chamber 510d via the first stop 545. For example, refer to... Figure 30 The first stop 545 may be configured with a first liquid outlet 549, and the first tube body is indirectly connected to the humidification chamber 510d through the first liquid outlet 549. Water in the first tube body flows into the humidification chamber 510d through the first liquid outlet 549.

[0501] The first outlet 549 may be constructed at the bottom of the peripheral portion 547 of the first stop 545 so as to construct the first outlet 549 at the bottom end of the first stop 545.

[0502] The humidification docking assembly 532 may include a second docking member 534, which is movably disposed within the first tube.

[0503] The humidifying docking assembly 532 may include a second elastic element 535, which may be a spring or an elastic washer, etc. The second elastic element 535 is disposed between the second docking member 534 and the first stop member 545, and the direction of the elastic force of the second elastic element 535 on the second docking member 534 is from the first stop member 545 to the second docking member 534.

[0504] When the humidification docking assembly 532 and the liquid storage docking assembly 524 are not docked, the second docking member 534 stops and seals the end of the first tube body away from the first stop member 545 under the elastic force of the second elastic member 535.

[0505] In some embodiments, reference Figures 19 to 30The first stop 545 can be snapped onto the second partition 514. Exemplarily, at least two mounting plates 546 can be provided around the periphery of the first stop 545. The side of the second partition 514 facing the humidification chamber 510d can be provided with a locking claw that engages with the mounting plate 546. The mounting plate 546 and the locking claw engage to detachably mount the first stop 545 onto the second partition 514, facilitating the disassembly, assembly, and maintenance of the second mating member 534 and the second elastic member 535.

[0506] In other embodiments, the first stop 545 may be integrally formed with the first tube body to simplify the number of parts in the humidification docking assembly 532 and improve the assembly efficiency of the humidification docking assembly 532.

[0507] A limiting part 573 may be constructed on the side of the first stop member 545 facing the second elastic member 535. The limiting part 573 may be a limiting protrusion or a limiting post, etc. The end of the second elastic member 535 away from the second docking member 534 is sleeved on the limiting part 573. The limiting part 573 can restrict the degree of freedom of the end of the second elastic member 535 away from the second docking member 534 along the radial direction of the first tube body, thereby improving the stability of the extension and contraction path of the second elastic member 535. This allows the second docking member 534 to properly block the end of the first tube body away from the first stop member 545.

[0508] To further improve the humidification effect of the humidification unit 500, a flipping component 70 is provided when the humidification unit 500 is working to prevent humid air from still entering the storage chamber through the humidification outlet.

[0509] In some possible implementations of the embodiments of this application, reference is made to Figures 31 to 32 The humidification assembly may also include a tilting member 70, which is rotatably mounted on the housing. When the fan assembly 540 is operating, the tilting member 70 opens the humidification outlet under the force of the airflow from the fan assembly 540. When the fan assembly 540 stops operating, the tilting member 70 closes the humidification outlet under its own weight.

[0510] In the configuration where the inlet 701 of the fan assembly 540 is connected to the storage chamber 210, and the outlet 702 of the fan assembly 540 is connected to the humidification chamber 510d, the flipping component 70 can be located outside the humidification chamber 510d, covering the side of the humidification outlet facing away from the humidification chamber 510d. When the fan assembly 540 is working, the air outlet of the fan assembly 540 flows from the humidification chamber 510d to the storage chamber 210. The air pressure on the side of the flipping component 70 facing the humidification chamber 510d is greater than the air pressure on the side of the flipping component 70 facing away from the humidification chamber 510d. Under the action of the air pressure difference on both sides, the flipping component 70 rotates relative to the shell towards the side facing away from the humidification chamber 510d, and opens the humidification outlet, allowing the air in the humidification chamber 510d to flow from the humidification outlet into the storage chamber 210.

[0511] When the fan assembly 540 stops working, the air pressure difference on both sides of the flipping component 70 decreases. The flipping component 70 overcomes the small airflow at the humidification outlet by its own gravity, so that the flipping component 70 can still keep the humidification outlet closed under the influence of the small airflow. This makes it difficult for the humidified air in the humidification chamber 510d to enter the storage chamber 210 through the humidification outlet when the fan assembly 540 stops working, making it difficult for the air in the humidification chamber 510d to form a circulating flow path with the air in the storage chamber 210.

[0512] In the configuration where the inlet 701 of the fan assembly 540 is connected to the humidification chamber 510d, and the outlet 702 of the fan assembly 540 is connected to the storage chamber 210, the tilting component 70 can be located inside the humidification chamber 510d, covering the side of the humidification outlet near the humidification chamber 510d. When the fan assembly 540 is working, the air outlet of the fan assembly 540 flows from the storage chamber 210 to the humidification chamber 510d. The air pressure on the side of the tilting component 70 away from the humidification chamber 510d is greater than the air pressure on the side of the tilting component 70 facing the humidification chamber 510d. Under the action of the air pressure difference on both sides, the tilting component 70 rotates relative to the housing towards the humidification chamber 510d, opening the humidification outlet, allowing air in the storage chamber 210 to flow from the humidification outlet into the humidification chamber 510d.

[0513] When the fan assembly 540 stops working, the air pressure difference on both sides of the flipping component 70 decreases. The flipping component 70 overcomes the small airflow at the humidification outlet by its own gravity, so that the flipping component 70 can still keep the humidification outlet closed under the influence of the small airflow. This makes it difficult for the air in the storage chamber 210 to form a circulating flow path with the air in the humidification chamber 510d when the fan assembly 540 stops working.

[0514] The following embodiment takes the connection between the inlet 701 of the fan assembly 540 and the storage chamber 210, and the connection between the outlet 702 of the fan assembly 540 and the humidification chamber 510d as an example to further describe the flipping component 70.

[0515] In some possible implementations of the embodiments of this application, reference is made to Figures 31 to 32 The flipping component 70 may include a rotating shaft 730 and a flip plate 710.

[0516] The flap 710 may have a hinge end 711, which can be rotatably set relative to the housing via a pivot 730.

[0517] The flap 710 may have a movable end 712, which rotates around the pivot 730 to open or cover the humidification air outlet.

[0518] The humidifying air outlet can be a long strip-shaped humidifying air outlet. Correspondingly, the flap 710 can be a long strip-shaped plate. The extension direction of the flap 710 can be consistent with the extension direction of the humidifying air outlet. The axis of the rotating shaft 730 can be consistent with the extension direction of the humidifying air outlet to improve the compatibility between the flap 710 and the humidifying air outlet.

[0519] In some embodiments, reference Figures 5 to 30 The rotating shaft 730 is rotatably mounted on the housing, and the hinge end 711 of the flap 710 can be fixedly mounted on the rotating shaft 730. The rotating shaft 730 rotates synchronously with the flap 710 so that the flap 710 can open or cover the humidification air outlet.

[0520] In other embodiments, the rotating shaft 730 may also be fixedly mounted on the housing, and the hinge end 711 of the flap 710 may be rotatably mounted relative to the rotating shaft 730. The flap 710 may rotate around the rotating shaft 730 so that the flap 710 may open or cover the humidification air outlet.

[0521] The flipping component 70, consisting of a rotating shaft 730 and a flap 710, has a simple structure and is easy to assemble, which simplifies the structure of the flipping component 70 and the storage box.

[0522] The flap 710 is configured such that when the fan assembly 540 is working, it rotates along the set direction D under the action of the wind force of the fan assembly 540 and opens the humidification air outlet; when the fan assembly 540 stops working, it rotates in the opposite direction of the set direction D under the action of gravity of the flipping component 70 and covers the side of the humidification air outlet away from the humidification chamber 510d.

[0523] The 710 flip plate has a simple structure and is easy to process and manufacture.

[0524] The 710 flap can be placed horizontally or tilted over the humidifier outlet (see reference). Figure 5 ).

[0525] In the implementation where the flap 710 horizontally covers the humidification air outlet, the hinge end 711 and the movable end 712 can be located at the two ends of the flap 710 in the horizontal direction, respectively.

[0526] In the implementation method where the flap 710 tilts to cover the humidifier air outlet, refer to Figure 31 and Figure 32 The hinge end 711 is located above the movable end 712.

[0527] When the fan assembly 540 is working, the flap 710 rotates along the set direction D under the action of the wind force of the fan assembly 540 and opens the humidification air outlet.

[0528] When the fan assembly 540 stops working, the flap 710 rotates around the shaft 730 in the opposite direction of the set direction D under its own gravity, and covers the side of the humidification outlet away from the humidification chamber 510d, making it difficult for the air in the humidification chamber 510d to flow from the humidification outlet into the storage chamber 210.

[0529] In some possible implementations of the embodiments of this application, reference is made to Figure 31 and Figure 32 The flipping component 70 may also include a counterweight 720, which may be disposed at the hinge end 711 of the flip plate 710.

[0530] The counterweight 720 is rotatably mounted relative to the housing.

[0531] In an implementation where the rotating shaft 730 is rotatably mounted on the housing, and the hinge end 711 of the flap 710 is fixedly mounted on the rotating shaft 730, see reference. Figure 31 and Figure 32 The counterweight 720 can be fixedly mounted on the rotating shaft 730. In this way, the counterweight 720 is indirectly mounted on the hinge end 711 of the flap 710 through the rotating shaft 730. The whole consisting of the flap 710, the rotating shaft 730 and the counterweight 720 is rotatably mounted relative to the housing through the rotating shaft 730. It is only necessary to rotatably assemble the rotating shaft 730 and the housing, which simplifies the assembly structure between the flap 710 component and the housing.

[0532] In the implementation where the rotating shaft 730 is fixedly mounted on the housing and the hinge end 711 of the flap 710 is rotatably mounted relative to the rotating shaft 730, the counterweight 720 can be directly mounted on the hinge end 711 of the flap 710, so that the whole consisting of the flap 710 and the counterweight 720 is rotatably mounted relative to the rotating shaft 730.

[0533] refer to Figure 31 and Figure 32The center of gravity O2 of the counterweight 720 and the center of gravity O1 of the flap 710 are located on opposite sides of the vertical plane M passing through the axis of the rotating shaft 730. The torque of the counterweight 720 relative to the rotating shaft 730 is less than the torque of the flap 710 relative to the rotating shaft 730. For example, the torque of the flap 710 relative to the rotating shaft 730 is the product of the weight G1 of the flap 710 and the lever arm L1 of the flap 710; the torque of the counterweight 720 relative to the rotating shaft 730 is the product of the weight G2 of the counterweight 720 and the lever arm L2 of the counterweight 720. Since G1*L1 > G2*L2, the presence of the counterweight 720 does not alter the normal operation of the flap 710. When the fan assembly 540 is operating, the flap 710 rotates along the set direction D under the force of the fan assembly 540, opening the humidification outlet. When the fan assembly 540 stops operating, the flap 710 rotates in the opposite direction of the set direction D under the force of the tilting component 70, covering the side of the humidification outlet facing away from the humidification chamber 510d. Furthermore, when the fan assembly 540 is operating, the counterweight 722 provides assistance to the tilting component 70, enabling it to rotate around the axis 730 along the set direction D, thereby reducing the wind force required to open the humidification outlet and lowering the energy consumption and noise of the fan assembly 540.

[0534] In some possible implementations of the embodiments of this application, reference is made to Figure 31 and Figure 32 The counterweight 720 may include a first connecting arm 721, which may be plate-shaped or rod-shaped. One end of the first connecting arm 721 extending in the direction of extension may be located close to the rotation axis of the flipping component 70.

[0535] The counterweight 720 may include a counterweight portion 722. The counterweight portion 722 is disposed at one end of the first connecting arm 721 away from the axis of rotation of the flipping component 70.

[0536] The length of the lever arm L2 of the entire counterweight 720 can be increased by the first connecting arm 721. With the value of G2*L2 remaining unchanged, the required weight G2 of the counterweight 720 can be reduced, thereby reducing the mass of the required counterweight 722 and reducing the material consumption of the counterweight 722.

[0537] In some embodiments, the counterweight 722 can be a counterweight rod, the axis of which can be parallel to the rotation axis of the flipping component 70. On the one hand, this can reduce the space occupied by the counterweight rod in the radial direction, thereby reducing the space occupied by the flipping component 70. On the other hand, the parallelism between the axis of the counterweight rod and the rotation axis of the flipping component 70 makes the torque at each position of the counterweight rod in the axial direction approximately the same, reducing the axial variation of the force exerted by the counterweight 720 on the hinge end 711, improving the stability of the counterweight 720's assistance to the flipping component 70, and improving the stability of the flipping component 70 when it rotates relative to the housing.

[0538] In other embodiments, the counterweight 722 can be a counterweight block, which has a simple structure and is easy to manufacture. The counterweight block is located at one end of the first connecting arm 721 away from the rotation axis of the flipping member 70. The counterweight block can also be located at the middle position of the flipping member 70 along the axial direction to improve the stability of the flipping member 70 when it rotates relative to the housing.

[0539] In some possible implementations of the embodiments of this application, reference is made to Figure 31 and Figure 32 An auxiliary component 713 may be constructed on the side of the flap 710 facing the humidification air outlet, and the auxiliary component 713 protrudes from the flap 710 facing the humidification air outlet. The side of the flap 710 facing the humidification air outlet is also the windward side of the flap 710. The auxiliary component 713 can improve the structural strength of the flap 710 and make the flap 710 less prone to deformation.

[0540] When the flap 710 covers the humidification outlet, at least a portion of the auxiliary component 713 extends into the humidification outlet. When the fan assembly 540 stops operating, when the smaller airflow in the humidification chamber 510d flows to the windward side of the flap 710, at least a portion of the airflow first flows to the auxiliary component 713 and then flows along the auxiliary component 713 towards the edge of the humidification outlet. Because the auxiliary component 713 increases the surface area of ​​the windward side of the flap 710, the flow path of the airflow along the auxiliary component 713 to the edge of the humidification outlet is increased, reducing the energy of the airflow flowing to the edge of the humidification outlet. This makes it less likely for the airflow to flow out from the gap between the flap 710 and the edge of the humidification outlet, reducing the possibility of the airflow in the humidification chamber 510d flowing into the storage chamber 210.

[0541] In some other possible implementations of this application, the flipping component 70 may include a first rotating plate and a second rotating plate. Both the first rotating plate and the second rotating plate are rotatably connected to the housing.

[0542] When the fan assembly 540 stops working, the first rotating plate covers part of the humidification air outlet under its own gravity, and the second rotating plate covers the other part of the humidification air outlet under its own gravity. The first rotating plate and the second rotating plate separate the humidification chamber 510d and the storage chamber 210.

[0543] When the fan assembly 540 is working, the first rotating plate and the second rotating plate rotate relative to the housing under the action of the wind force of the fan assembly 540, and open the humidification air outlet so that the humidification chamber 510d and the storage chamber 210 are connected.

[0544] To further improve the humidification effect of the humidification component 500, this application provides the following embodiments:

[0545] In some possible implementations of the embodiments of this application, the peripheral edge of the second mounting port 552 can be located outside the top opening of the exhaust cavity 510g, and the bottom edge of the cover plate 810 abuts against the end face of the top of the exhaust cavity 510g. In this way, the end face of the top of the exhaust cavity 510g can support the cover plate 810 and stop at the bottom of the cover plate 810, so that the cover plate 810 is not easy to fall into the exhaust cavity 510g after installation.

[0546] In some possible implementations of the embodiments of this application, reference is made to Figure 1 and Figure 34 The rear wall 213 of the inner liner 20 may be provided with an air inlet 214. The number of air inlets 214 may be one or more. For example, refer to Figure 33 There can be two air inlets 214 in the air duct.

[0547] The rear wall 213 of the inner liner 20 may also be provided with an air duct outlet 215. The number of air duct outlets 215 may be one or more. For example, refer to Figure 8 There can be two air outlets 215 in the air duct.

[0548] The air outlet 215 can be located above the air inlet 214 of the air duct, so that the air inlet 214 of the air duct is closer to the housing and the exhaust port 811 on the housing than the air outlet 215 of the air duct.

[0549] The humidification assembly 500 may also include a conveying air duct 100, which is disposed on the rear wall 213 and is connected to a ventilation duct inlet 214 and an air duct outlet 215.

[0550] The exhaust vent 811 is oriented towards the air inlet 214 of the duct, or is partially connected to the air inlet 214, so that some of the air discharged from the exhaust vent 811 enters the air inlet 214 of the duct, and some of the air discharged from the exhaust vent 811 directly enters the storage chamber 210. The air entering the air inlet 214 from the exhaust vent 811 is transported upward along the conveying duct 100 to the air outlet 215 of the duct, and flows from the air outlet 215 to the upper area of ​​the storage chamber 210, thereby improving the humidification efficiency of the upper area of ​​the storage chamber 210.

[0551] For example, the exhaust port 811 and the air inlet 214 of the air duct can be connected by a connecting pipe. The connecting pipe is located inside the storage cavity 210. A connecting hole can be opened on the wall of the connecting pipe so that some air in the connecting pipe can flow from the connecting hole into the storage cavity 210, thereby connecting the exhaust port 811 partially with the air inlet 214 of the air duct.

[0552] Due to the gravitational pull of water molecules, humid air flows downwards at a faster rate than it flows upwards. Therefore, the airflow from the air outlet 215 into the storage cavity 210 can flow downwards quickly, allowing the airflow to spread rapidly throughout the entire storage cavity 210. This reduces the humidity difference between the upper and lower areas of the storage cavity 210 and improves the uniformity of humidity within the storage cavity 210.

[0553] In some possible implementations of the embodiments of this application, reference is made to Figure 34 The humidification assembly 500 may also include an air guide 10 disposed within the exhaust chamber 510g, the air guide 10 being configured to guide the air outlet of the humidification outlet to the exhaust outlet 811.

[0554] In some possible implementations of the embodiments of this application, the air guide 10 can be constructed on the upper frame 911, so that the upper frame 911 can be used to connect with the cover plate component 80 and guide the air outlet of the humidification outlet to the exhaust outlet 811.

[0555] In some embodiments, reference Figure 34 The air guide 10 may include at least two air guide fins 11, with an air guide channel 12 formed between two adjacent air guide fins 11. One end of the air guide channel 12 faces the humidification outlet, and the other end faces the exhaust outlet 811. After the humidified air in the humidification chamber 510d is blown into the exhaust chamber 510g from the humidification outlet, at least a portion of the humidified air flows from the end of the air guide channel 12 toward the humidification outlet and flows along the air guide channel 12 toward the direction close to the exhaust outlet 811. Then, it flows out of the air guide channel 12 from the end away from the humidification outlet. At least a portion of the humidified air flowing out of the air guide channel 12 flows into the storage chamber 210 through the exhaust outlet 811 to humidify the storage chamber 210.

[0556] The air guide channel 12 can guide at least part of the airflow from the humidification outlet, so that the airflow from the humidification outlet can flow to the exhaust port 811 as much as possible, reducing the stagnation of airflow in the exhaust chamber 510g, thereby improving the humidification efficiency of the storage chamber 210.

[0557] In some possible implementations of the embodiments of this application, reference is made to Figures 4 to 34 The humidifying air outlet can be a strip-shaped humidifying air outlet, which can extend along the first direction D1. The first direction D1 can be consistent with the width direction of the storage box, or have an angle with the width direction of the storage box. The air outlet of the humidifying air outlet is directed to the side of the exhaust chamber 510g, or in other words, the humidifying air outlet is a side-discharge air outlet.

[0558] There can be two exhaust vents 811, which are arranged at intervals along the first direction D1 on the top of the exhaust chamber 510g. The positions of the humidification outlet and the two exhaust vents 811 correspond.

[0559] The air guide fins 11 and the humidification air outlet are arranged opposite to each other. There are multiple air guide fins 11, which are arranged at intervals along the first direction D1 and form two air guide fin groups 13 corresponding to the two air outlets 811 respectively.

[0560] The air inlet ends of the two air guide fin groups 13 are both facing the humidification air outlet; the air outlet ends of the two air guide fin groups 13 are both away from the humidification air outlet and extend towards the corresponding exhaust outlets 811.

[0561] For example, refer to Figure 33 and Figure 34 The exhaust vent 811 may include a first exhaust vent 811a. The air guide fin assembly 13 may include a first air guide fin assembly 13a, which corresponds to the first exhaust vent 811a. The air inlet end of the first air guide fin assembly 13a faces the humidification outlet, and the air outlet end of the first air guide fin assembly 13a faces the first exhaust vent 811a.

[0562] The exhaust vent 811 may also include a second exhaust vent 811b. The air guide fin assembly 13 may also include a second air guide fin assembly 13b, which corresponds to the second exhaust vent 811b. The air inlet end of the second air guide fin assembly 13b faces the humidification outlet, and the air outlet end of the second air guide fin assembly 13b faces the second exhaust vent 811b.

[0563] In the airflow discharged from the humidification outlet, the portion of the airflow discharged from the humidification outlet corresponding to the first guide fin group 13a flows towards the first exhaust outlet 811a under the guidance of the first guide fin group 13a. The portion of the airflow discharged from the humidification outlet corresponding to the second guide fin group 13b flows towards the second exhaust outlet 811b under the guidance of the second guide fin group 13b. (Reference) Figure 33 The airflow from the first air outlet 811a and the second air outlet 811b is discharged into the storage cavity 210 to humidify the storage cavity 210.

[0564] The first air guide fin group 13a and the second air guide fin group 13b can guide the airflow blown out from the humidification outlet in two directions, so that the airflow is split into two paths and discharged from two exhaust ports 811 arranged along the first direction D1, thereby reducing the humidity variation of the air in the storage cavity 210 along the first direction D1 and improving the humidity uniformity in the storage cavity 210.

[0565] In some possible implementations of this application, the end of the air guide fin 11 facing away from the humidification outlet is inclined toward the corresponding exhaust port 811 relative to the end near the humidification outlet, so that the end of the air guide channel 12 formed between two adjacent air guide fins 11 facing away from the humidification outlet is inclined toward the corresponding exhaust port 811 relative to the end near the humidification outlet, thereby improving the guiding effect of the air guide channel 12.

[0566] In some embodiments, reference Figure 33 and Figure 34 The tilt angle α of the plurality of air guide fins 11 in the air guide fin assembly 13 relative to the centerline of the humidification outlet gradually increases from the end away from the corresponding exhaust port 811 to the end closer to the corresponding exhaust port 811. For example, referring to Figure 34 α2 is greater than α1, so that the width of the air guide channel 12 formed between two adjacent air guide fins 11 gradually increases from the end near the humidification air outlet to the end away from the humidification air outlet along the first direction D1, so that the airflow flowing along the air guide channel 12 in the direction away from the humidification air outlet diffuses out, reduces the resistance of the air guide fins 11 to the airflow, thereby increasing the airflow speed and thus improving the humidification efficiency of the humidification component 500 to the storage chamber 210.

[0567] In other embodiments, the tilting direction of the multiple air guide fins 11 in the air guide fins 11 may also be the same, so as to arrange multiple air guide fins 11 and facilitate the processing and manufacturing of the humidification assembly 500.

[0568] In some possible implementations of the embodiments of this application, reference is made to Figures 1 to 34 At least one air guide plate 551 can be provided inside the exhaust port 811. The air guide plate 551 can be inclined relative to the horizontal direction. The air guide plate 551 can further guide the air out of the exhaust port 811, so that the airflow in the exhaust chamber 510g can flow upward from the exhaust port 811 along the inclined direction of the air guide plate 551 into the storage chamber 210.

[0569] In some embodiments, reference Figure 4 and Figure 34 The top of the air guide plate 551 can be inclined and extended away from the front side of the housing from the bottom, so that the airflow in the exhaust chamber 510g can flow from the exhaust port 811 along the air guide plate 551 inclined upward and toward the rear wall 213 of the storage chamber 210, so that the humid air can flow to the end of the storage chamber 210 near the rear wall 213 to humidify the depth of the storage chamber 210.

[0570] Furthermore, since the air inlet 214 is constructed on the rear wall 213 of the inner liner 20, the top end of the air guide plate 551 extends at an angle toward the rear wall 213, which makes it easier for at least part of the exhaust air from the exhaust port 811 to flow toward the air inlet 214, and then flow upward along the conveying air duct 100 from the air outlet 215 to the upper region of the storage chamber 210.

[0571] In some possible implementations of the embodiments of this application, reference is made to Figure 8 and Figure 10 The top of the air guide plate 551 extends at an angle toward the corresponding side wall 212, so that the air guide plate 551 can guide the air outlet 811 toward the rear wall 213 and the air outlet 811 toward the side wall 212, thereby increasing the air outlet direction of the air outlet 811 and improving the humidification efficiency of the humidification component 500 on the storage chamber 210.

[0572] In some possible implementations of this application, the air guide 10 can also be an air duct, with one end of the air duct facing the humidification outlet and the other end facing the exhaust outlet 811. After the humidified air in the humidification chamber 510d is blown into the exhaust chamber 510g from the humidification outlet, at least part of the humidified air flows along the air duct toward the exhaust outlet 811 and flows from the exhaust outlet 811 into the storage chamber 210 to humidify the storage chamber 210.

[0573] As one feasible implementation, an overflow outlet is provided on the side plate 511. The overflow outlet communicates with the humidification chamber 510d. The overflow outlet design effectively prevents the liquid level in the humidification chamber 510d from becoming too high, avoiding excess liquid overflowing into other chambers or the external environment, thereby protecting the humidification component 500 and the inner tank 20. Furthermore, draining excess water through the overflow outlet maintains a stable water level in the humidification chamber 510d, ensuring the uniformity and stability of the humidification effect. Timely drainage of excess water through the overflow outlet prevents water from entering the electrical component area, reducing the risk of leakage and short circuits, and improving equipment safety.

[0574] 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.

[0575] For ease of explanation, the above description has been provided in conjunction with specific embodiments. However, the above exemplary discussion is not intended to be exhaustive or to limit the embodiments to the specific forms disclosed above. Various modifications and variations can be obtained based on the above teachings. The selection and description of the above embodiments are for the purpose of better explaining the principles and practical applications, thereby enabling those skilled in the art to better utilize the embodiments and various different variations of embodiments suitable for specific application considerations.

Claims

1. A storage box, characterized in that, include: Box (100), having a cavity; Inner liner (20), the inner liner is located in the cavity, and the inner liner (20) forms a storage cavity; A humidification assembly (500) is disposed in the cavity, and the humidification assembly (500) is used to humidify the storage cavity; The humidification unit (500) includes: Liquid storage unit (520); Humidifier; liquid storage unit (520) for supplying liquid to the humidifier; the humidifier has a humidifying air outlet; The air duct has an air inlet and an air outlet, both of which are connected to the storage cavity; A fan assembly (540) is used to draw airflow from the storage cavity into the air duct through the air inlet and discharge the airflow from the air outlet into the storage cavity. The humidification outlet merges into the air duct, so that the airflow humidified by the humidification unit is discharged from the exhaust port of the air duct to the storage cavity.

2. The storage box according to claim 1, characterized in that, The humidification assembly (500) includes a humidifying element (530) and a housing (510); the housing (510) has the air inlet and the air outlet formed thereon, and the housing has: The mounting part has: First mounting cavity (510b); The second mounting cavity (510c) of the mounting part is connected to the storage cavity through the air inlet; A humidifying unit having a humidifying chamber (510d); The humidifying element (530) is located in the humidifying chamber (510d); The exhaust section has an exhaust chamber (510g), and the exhaust chamber (510g) of the exhaust section is connected to the storage chamber through the exhaust port; The humidification chamber (510d) of the humidification unit is connected to the second mounting chamber (510c) of the mounting unit, and the humidification chamber (510d) of the humidification unit is connected to the exhaust chamber (510g) of the exhaust unit; the second mounting chamber (510c), the humidification chamber (510d), and the exhaust chamber (510g) form the air duct; The fan assembly (540) is located in the second mounting cavity (510c), and the fan outlet (541c) of the fan assembly (540) is connected to the humidification cavity (510d) of the humidification unit; The liquid storage component (520) is detachably installed in the first mounting cavity (510b); the liquid storage cavity (520a) of the liquid storage component (520) is connected to the humidification cavity (510d) of the humidification unit.

3. The storage box according to claim 2, characterized in that, The housing (100) has an opening; the mounting portion is located on the side of the housing (510) near the opening; The humidifying section and the exhaust section are located on the side of the housing (510) opposite to the opening; the exhaust section is located on top of the humidifying section.

4. The storage box according to claim 3, characterized in that, The housing (510) includes: Side panel (511); Cover plate (512), cover plate (512) is connected to the top of side plate (511); The first mounting cavity (510b), the second mounting cavity (510c), the humidification cavity (510d) of the humidification part, and the exhaust cavity (510g) of the exhaust part are formed at least by a cover plate (512) and a side plate (511); the cover plate (512) and the side plate (511) have a pick-and-place opening on the side near the opening, and the pick-and-place opening is used to communicate with the second mounting cavity (510c) of the mounting part.

5. The storage box according to claim 4, characterized in that, The housing (510) also includes: The first partition (513) extends along a first direction, which intersects the height direction of the humidification assembly (500); The first partition (513) is located in the mounting cavity (510a) of the mounting part, and the first partition (513) divides the mounting cavity (510a) into a first mounting cavity (510b) and a second mounting cavity (510c). The first mounting cavity (510b) is located on top of a portion of the second mounting cavity (510c). A liquid storage device (520) is detachably installed in the first mounting cavity (510b), and a fan assembly (540) is installed in the second mounting cavity (510c).

6. The storage box according to claim 5, characterized in that, The housing (510) also includes: The second partition (514) extends along the height direction of the humidification assembly (500), the bottom of the second partition (514) is connected to the first partition (513), and the top of the second partition (514) is connected to the cover plate (512). The first partition (513), the second partition (514), the cover plate (512), and the side plate (511) together form a humidification chamber (510d).

7. The storage box according to any one of claims 5-6, characterized in that, Cover plate (512) includes: First plate (512a); First plate (512a) includes: The first extension (512b) is located at the top of the mounting cavity (510a); The second extension (512c) is connected to the side of the first extension (512b) away from the opening; a portion of the second extension (512c) bends toward the humidification chamber (510d); The second plate (810) is connected to the side of the second extension section (512c) away from the humidification chamber (510d), and together with the bent second extension section (512c) and the side plate (511), it forms the exhaust chamber (510g). The exhaust vent is formed on the second plate (810).

8. The storage box according to claim 7, characterized in that, The fan assembly (540) includes: A fan mounting base (541) has a fan mounting cavity (541a), which has a fan inlet (541b) and a fan outlet (541c). The fan mounting cavity (541a) is connected to the humidification cavity (510d) through the fan outlet (541c). Fan (542), the fan (542) is installed at the fan inlet (541b).

9. The storage box according to claim 1, characterized in that, The humidification unit (500) also includes: A vent pipe (521) is disposed in the liquid storage chamber (520a). Along the height direction of the humidification component (500), the horizontal plane at the bottom of the vent pipe (521) is higher than the horizontal plane at the bottom of the humidification component (530); the top of the vent pipe (521) is connected to the atmosphere.

10. The storage box according to claim 2, characterized in that, The housing also includes a first partition plate (560) separating the exhaust chamber (510g) and the humidification chamber (510d); the first partition plate (560) is provided with a first mounting port (561); The exhaust chamber (510g) of the exhaust section has a second mounting port (552) formed on its top, and the second mounting port (552) and the first mounting port (561) are arranged opposite to each other; The humidification unit (500) also includes: The cover plate component (80) covers the second mounting port (552) and is detachably connected to the housing; An exhaust vent (811) is constructed on the cover plate component (80), and the exhaust vent (811) connects the exhaust chamber (510g) and the storage chamber; A humidifying component (90) is detachably disposed at the bottom of a cover plate component (80), and at least a portion of the humidifying component (90) is disposed within a humidifying chamber (510d) via a first mounting port (561).

11. The storage box according to claim 10, characterized in that, The humidification component includes a humidification element; The humidifying element (530) includes a humidifying fiber (920), the portion of which is near the bottom of the humidifying chamber (510d) is located below the liquid level in the humidifying chamber (510d), and the top of the humidifying fiber (920) is fixedly connected to the top of the humidifying element.

12. The storage box according to claim 11, characterized in that, The humidifying component (90) includes a bracket (910); The support frame (910) includes an upper frame (911) and a lower frame (918); The upper frame (911) is located inside the exhaust chamber (510g), and the top of the upper frame (911) and the cover plate component (80) are detachably connected; The lower frame (918) is located at the bottom of the upper frame (911); The humidifying fiber (920) is disposed in the lower frame (918) and the humidifying fiber (920) is located in the humidifying chamber (510d).

13. The storage box according to claim 12, characterized in that, The lower frame (918) is constructed with at least one mounting frame (919), and a humidifying fiber (920) is provided inside the mounting frame (919).

14. The storage box according to claim 12, characterized in that, The upper frame (911) includes a plug-in component (912) and a stop component (914); The plug-in component (912) is located on top of the upper frame (911), and the plug-in component (912) is constructed with a slot (913); The stop member (914) includes a third connecting arm (915) and a third stop member (916); one end of the third connecting arm (915) is connected to the plug-in member (912), and the third stop member (916) is disposed at the end of the third connecting arm (915) away from the plug-in member (912). The third stop member (916) corresponds to the slot of at least a portion of the slot (913), and the slot of the third stop member (916) and the slot of the slot (913) are spaced apart. The bottom of the cover plate component (80) has a plug-in portion (821) which is inserted into the slot (913), and a third stop (916) stops at one end of the plug-in portion (821) away from the slot (913).

15. The storage box according to claim 3, characterized in that, The humidifier (530) extends along the width and height of the storage box, and both ends of the humidifier (530) along the length of the storage box are connected to the side plates (511) of the shell (510); The humidification unit has a humidification inlet, and the liquid storage unit (520) has a liquid storage outlet; The humidifier (530) divides the humidification chamber (510d) into a first humidification chamber (510e) and a second humidification chamber (510f). The first humidification chamber (510e) is located inside the humidification chamber (510d) near the opening. The first humidification chamber (510e) is connected to the humidification liquid inlet, and the second humidification chamber (510f) is connected to the humidification air outlet of the humidification unit.

16. The storage box according to claim 15, characterized in that, The bottom of the humidification unit is provided with a humidification air inlet pipe (537). The top end of the humidification air inlet pipe (537) is higher than the bottom end of the vent pipe (521). The humidification air inlet pipe (537) is connected to the first humidification chamber (510e). The bottom end of the humidification air inlet pipe (537) is connected to the fan outlet (541c) of the fan assembly (540).

17. The storage box according to claim 1, characterized in that, A liquid storage docking assembly (524) is provided on the liquid storage component (520), and a humidification inlet is formed on the second partition (514). A humidification docking assembly (532) is provided at the humidification inlet. The liquid storage docking assembly (524) and the humidification docking assembly (532) are detachably docked to connect the liquid storage chamber (520a) and the humidification chamber (510d).

18. The storage box according to claim 15, characterized in that, The liquid storage unit (520) includes: The connecting tube (520e) has a connecting cavity; the connecting cavity of the connecting tube (520e) connects the liquid outlet and the liquid storage cavity of the liquid storage component (520); The humidification unit has a humidification inlet; The humidification assembly (500) further includes a docking assembly for docking with the liquid storage unit (520) and the humidification section; the liquid storage unit (520) is used to supply liquid to the humidification section; the docking assembly includes: Liquid reservoir docking assembly (524), comprising: The first connecting seat (525) is located in the liquid storage chamber (520a) and is installed on the connecting pipe (520e); A first docking member (526), ​​at least a portion of which is located in the connecting cavity; the first docking member (526) and the connecting tube (520e) are slidably connected; The first elastic element (527) is connected between the first connecting seat (525) and the first mating member (526) in a compressed state; Humidifying docking assembly (532), the humidifying docking assembly (532) includes: The second connecting seat (533) is installed at the humidification inlet, and the second connecting seat (533) has a connecting channel communicating with the humidification part; The second docking member (534) is located in the connection channel at least in part; the second docking member (534) is slidably connected to the second connecting seat (533); The second elastic element (535) is connected between the second connecting seat (533) and the second mating member (534) in a compressed state; Among them, the elastic force of the first elastic element (527) is greater than the elastic force of the second elastic element (535); When the liquid storage docking assembly (524) and the humidification docking assembly (532) are docked, the first docking member (526) abuts against the second docking member (534), and the second elastic member (535) is compressed so that the second docking member (534) opens the connection channel; After the second docking member (534) opens the connection channel, the second docking member (534) abuts against the first docking member (526), ​​and the first elastic member (527) is compressed so that the first docking member (526) opens the liquid outlet. When the liquid storage docking assembly (524) and the humidification docking assembly (532) are separated, the first elastic element (527) releases its elastic force, and the first docking component (526) blocks the liquid storage outlet under the elastic force of the first elastic element (527); After the first docking member (526) blocks the liquid outlet, the second docking member (534) blocks the connection channel under the elastic force of the second elastic member (535).

19. The storage box according to claim 18, characterized in that, A liquid storage docking assembly (524) is disposed on the side of the liquid storage component (520) facing the humidification docking assembly (532), and the inner cavity of the liquid storage docking assembly (524) is connected to the liquid storage cavity of the liquid storage component (520); When the liquid storage docking assembly (524) and the humidification docking assembly (532) are docked, the inner cavity of the liquid storage docking assembly (524) and the inner cavity of the humidification docking assembly (532) are connected so that the liquid storage component (520) supplies liquid to the humidification chamber (510d); The humidification docking assembly (532) is configured to allow any residual liquid in the docking area of ​​the liquid storage docking assembly (524) and the humidification docking assembly (532) to flow into the humidification chamber (510d) when separated from the liquid storage docking assembly (524).

20. The storage box according to claim 19, characterized in that, A vent pipe (521) is provided inside the liquid storage unit (520). When the liquid storage unit (520) supplies liquid to the humidification chamber (510d), the bottom end of the vent pipe (521) is located below the liquid level of the liquid storage unit (520), and the bottom end of the vent pipe (521) is not lower than the liquid level of the humidification chamber (510d). The top of the inner cavity of the humidification docking assembly (532) is not lower than the bottom of the vent tube (521).

21. The storage box according to claim 20, characterized in that, The humidification docking assembly (532) is constructed with a drain channel (570) for connecting the inner cavity of the humidification docking assembly (532) and the humidification chamber (510d).

22. The storage box according to claim 21, characterized in that, The top end of the drain channel (570) is connected to the bottom end of the inner cavity of the humidification docking assembly (532), and the bottom end of the drain channel (570) is connected to the humidification cavity (510d).

23. The storage box according to claim 22, characterized in that, The bottom end of the humidification docking assembly (532) has a drain pipe (571), the top end of the drain pipe (571) is connected to the bottom end of the inner cavity of the humidification docking assembly (532), the bottom end of the drain pipe (571) is connected to the humidification chamber (510d), and the inner cavity of the drain pipe (571) forms a drain channel (570).

24. The storage box according to claim 23, characterized in that, The bottom end of the drain pipe (571) opposite to the liquid storage docking assembly (524) is provided with a connecting port (572), and the drain channel (570) is connected to the humidification chamber (510d) through the connecting port (572).

25. The storage box according to claim 24, characterized in that, The width of the connecting port (572) increases from top to bottom along the radial direction of the drain pipe (571).

26. The storage box according to claim 2, characterized in that, The humidification unit (500) also includes: A flipping component (70) is rotatably disposed in the housing. The flipping component (70) is configured to: open the humidification outlet under the action of the wind force of the fan assembly (540) when the fan assembly (540) is working; and close the humidification outlet under its own gravity when the fan assembly (540) stops working.

27. The storage box according to claim 26, characterized in that, The flip-over component (70) is located outside the humidification chamber (510d); The flipping component (70) includes a flap (710) and a rotating shaft (730). The flap (710) is rotatably connected to the housing via the rotating shaft (730). The flap (710) is configured such that when the fan assembly (540) is working, it rotates in a set direction under the action of the wind force of the fan assembly (540) and opens the humidification air outlet; when the fan assembly (540) stops working, it rotates in the opposite direction under the action of the gravity of the flipping component (70) and covers the side of the humidification air outlet away from the humidification chamber (510d).

28. The storage box according to claim 27, characterized in that, The flap (710) has a hinged end (711) and a movable end (712). The hinged end (711) is rotatably disposed relative to the housing, and the movable end (712) rotates about the hinged end (711) to open or close the humidification air outlet. The flipping component (70) also includes a counterweight (720), which is disposed at the hinge end (711) of the flip plate (710). The counterweight (720) is rotatably disposed relative to the housing. The center of gravity of the counterweight (720) and the center of gravity of the flip plate (710) are located on both sides of a vertical plane passing through the axis of the rotating shaft (730). The torque of the counterweight (720) rotating around the rotating shaft (730) is less than the torque of the flip plate (710) rotating around the rotating shaft (730).

29. The storage box according to any one of claims 2-5, characterized in that, The inner liner (20) has a conveying air duct (100), which is located on the rear wall (213) of the inner liner (20). The conveying air duct (100) has a connected air duct inlet (214) and air duct outlet (215). The air inlet (214) of the air duct is connected to the storage cavity; The air outlet (215) of the air duct is connected to the storage cavity, and the air outlet (215) of the air duct is located above the air inlet (214) of the air duct. The exhaust port (811) is oriented towards the air inlet (214) or is partially connected to the air inlet (214) so ​​that some of the air discharged from the exhaust port (811) enters the air inlet (214) and some of the air directly enters the storage cavity.

30. The storage box according to claim 29, characterized in that, The humidifying chamber (510d) has a humidifying air outlet, and the exhaust chamber (510g) is connected to the humidifying chamber (510d) through the humidifying air outlet. The exhaust chamber (510g) has an exhaust port (811). The humidification assembly 500 also includes an air guide (10) disposed in the exhaust chamber (510g) and configured to guide the air outlet of the humidification outlet to the exhaust port (811).

31. The storage box according to claim 30, characterized in that, The air guide (10) includes at least two air guide fins (11), and an air guide channel (12) is formed between two adjacent air guide fins (11). One end of the air guide channel (12) faces the humidification outlet, and the other end of the air guide channel (12) faces the exhaust outlet (811).

32. The storage box according to claim 31, characterized in that, The humidifying air outlet is a strip-shaped humidifying air outlet, which extends along the first direction, and the air outlet of the humidifying air outlet is directed toward the side of the exhaust chamber (510g). There are two exhaust vents (811), and the two exhaust vents (811) are arranged at intervals along the first direction on the top of the exhaust chamber (510g); The positions of the humidification air outlet and the two exhaust outlets (811) correspond; The air guide fins (11) and the humidification air outlet are arranged opposite to each other. There are multiple air guide fins (11), and the multiple air guide fins (11) are arranged at intervals along the first direction to form two air guide fin groups (13) that correspond to the two air outlets (811) respectively. The air inlet of both air guide fin groups (13) faces the humidification outlet; the air outlet of both air guide fin groups (13) is away from the humidification outlet and extends toward the corresponding exhaust port (811).

33. The storage box according to claim 32, characterized in that, The end of the air guide fin (11) away from the humidification outlet is inclined toward the corresponding exhaust port (811) relative to the end near the humidification outlet; The tilt angle of the multiple air guide fins (11) in the air guide fin assembly (13) relative to the center line of the humidification outlet gradually increases from the end away from the corresponding exhaust port (811) to the end closer to the corresponding exhaust port (811).

34. A humidifying device, characterized in that, include: The liquid storage component (520) has a liquid storage chamber (520a) and a liquid storage outlet; The liquid storage unit (520) includes: The connecting tube (520e) has a connecting cavity; the connecting cavity of the connecting tube (520e) connects the liquid outlet of the liquid storage and the liquid storage cavity (520a) of the liquid storage component (520); The humidification section has a humidification inlet and a humidification chamber (510d); A docking assembly for docking the liquid storage unit (520) and the humidifying section; the liquid storage unit (520) for supplying liquid to the humidifying section; the docking assembly includes: Liquid reservoir docking assembly (524), comprising: The first connecting seat (525) is located in the liquid storage chamber (520a) and is installed on the connecting pipe (520e); A first docking member (526), ​​at least a portion of which is located in the connecting cavity; the first docking member (526) and the connecting tube (520e) are slidably connected; The first elastic element (527) is connected between the first connecting seat (525) and the first mating member (526) in a compressed state; Humidifying docking assembly (532), the humidifying docking assembly (532) includes: The second connecting seat (533) is installed at the humidification inlet, and the second connecting seat (533) has a connecting channel communicating with the humidification part; The second docking member (534) is located in the connection channel at least in part; the second docking member (534) is slidably connected to the second connecting seat (533); The second elastic element (535) is connected between the second connecting seat (533) and the second mating member (534) in a compressed state; Among them, the elastic force of the first elastic element (527) is greater than the elastic force of the second elastic element (535); When the liquid storage docking assembly (524) and the humidification docking assembly (532) are docked, the first docking member (526) abuts against the second docking member (534), and the second elastic member (535) is compressed so that the second docking member (534) opens the connection channel; After the second docking member (534) opens the connection channel, the second docking member (534) abuts against the first docking member (526), ​​and the first elastic member (527) is compressed so that the first docking member (526) opens the liquid outlet. When the liquid storage docking assembly (524) and the humidification docking assembly (532) are separated, the first elastic element (527) releases its elastic force, and the first docking component (526) blocks the liquid storage outlet under the elastic force of the first elastic element (527); After the first docking member (526) blocks the liquid outlet, the second docking member (534) blocks the connection channel under the elastic force of the second elastic member (535).

35. The humidification device according to claim 34, characterized in that, The first connecting seat (525) includes: The first connecting part is connected to the connecting pipe (520e); The second connecting part is connected to the first connecting part. The first end of the second connecting part is detachably connected to the first connecting part, and the second end of the second connecting part is detachably connected to the outer periphery of the connecting tube (520e).

36. The humidification device according to claim 35, characterized in that, The first connecting part includes: A connecting body (525a) has a connecting body cavity with connecting openings at both ends. The first end of the connecting body cavity is connected to the liquid storage cavity (520a) through the connecting opening, and the second end of the connecting body cavity is connected to the connecting cavity through the connecting opening. The second connecting part includes: Multiple clips (525b) are arranged sequentially at intervals along the circumference of the connecting body (525a); the first end of the clip (525b) is connected to the connecting body (525a), and the second end of the clip (525b) is connected to the outer periphery of the connecting tube (520e).

37. The humidification device according to claim 36, characterized in that, The connecting body (525a) has: The first connection opening connects the first end of the connecting body cavity to the liquid storage cavity (520a); the first connection opening faces the inner bottom wall of the liquid storage component (520). The second connection opening connects the second end of the connecting body cavity to the connecting cavity.

38. The humidification device according to claim 35, characterized in that, The inner circumference of the first connecting seat (525) is provided with an anti-detachment component (529), and the first mating component (526) and the anti-detachment component (529) in the connecting cavity are configured to cooperate with each other; The anti-detachment component (529) divides the connecting cavity into a first sub-connecting cavity and a second sub-connecting cavity that are interconnected. The first sub-connecting cavity is located on the side of the second sub-connecting cavity near the liquid storage cavity (520a).

39. The humidification device according to claim 38, characterized in that, The first docking member (526) includes a first docking segment (526a) and a second docking segment (526b) connected to each other, the first docking segment (526a) being located in the first sub-connecting cavity, and at least a portion of the second docking segment (526b) being located in the second sub-connecting cavity; The first docking section (526a) has a docking cavity with a docking opening, and the first end of the docking cavity is connected to the connecting cavity through the docking opening; the first docking section (526a) is provided with a first docking through hole at the end near the second docking section (526b), and the first docking through hole is connected to the docking cavity; The connection between the first docking section (526a) and the second docking section (526b) is provided with an anti-detachment component (529), which is used to restrict the first docking section (526a) from moving toward the liquid outlet.

40. The humidification device according to claim 39, characterized in that, The liquid storage docking assembly (524) also includes a first seal (528), and the number of first seals (528) is at least one; The first seal (528) is disposed at the connection between the first connecting seat (525) and the connecting pipe (520e); and / or, the first seal (528) is disposed at the abutment of the first mating section (526a) and the anti-detachment member (529).

41. The humidifying device according to any one of claims 34-40, characterized in that, The second connecting seat (533) includes: A first connecting section (533a) is disposed at the humidification inlet and has the connecting channel. A first stop (545) is connected to a first connecting section (533a); the first stop (545) is disposed on the side of the first connecting section (533a) near the humidification chamber (510d); the first stop (545) has a second connecting cavity; The connection channel is connected to the humidification chamber (510d) through the second connection chamber.

42. The humidification device according to claim 41, characterized in that, The second docking component (534) includes: The cross-sectional area of ​​the docking body (534a) gradually increases along the direction from the first connecting segment (533a) to the first stop (545); the cross-sectional area of ​​the docking body (534a) is smaller than the inner diameter of the connecting channel. A docking connection segment (534b) is arranged in sequence at intervals along the circumference of the docking body (534a). The first end of the docking connection segment (534b) is connected to the docking body (534a), and the second end of the docking connection segment (534b) extends toward the first stop (545). The docking connection segment (534b) and the inner circumference of the first connection segment (533a) are slidably connected.

43. The humidification device according to claim 42, characterized in that, The humidification docking assembly (532) also includes a second seal (536), and the number of second seals (536) is at least one; The second seal (536) is disposed on the outer periphery of the first connecting section (533a) away from the humidification chamber (510d); and / or, the second seal (536) is disposed at the connection between the first connecting section (533a) and the first stop (545).

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