Air guide structure and humidifier

Abstract

The utility model relates to an air guide structure and a humidifier, and belongs to the field of electric appliances. The air guide structure comprises a shell assembly, the shell assembly is provided with an atomization cavity and an air duct cavity, the shell assembly is provided with a plurality of air passing openings used for communicating the atomization cavity with the air duct cavity, and the shell assembly is provided with a mist outlet channel communicating with the atomization cavity; the number of the baffles is multiple, and the multiple baffles are arranged at the multiple air passing openings in a covering mode correspondingly; the air blowing assembly is arranged on the shell assembly; and the atomization assembly is located in the atomization cavity and can move relative to the shell assembly, the atomization assembly can sequentially abut against the multiple baffles when moving relative to the shell assembly, and one of the multiple air passing openings can be opened when the atomization assembly abuts against the baffles. When the atomization assembly abuts against the baffle, the air passing opening is opened, the air channel cavity, the atomization cavity and the mist outlet channel are communicated, the blowing assembly introduces external airflow into the air channel cavity, atomized gas can be smoothly discharged through the mist outlet channel, and the efficient humidification effect is achieved.

Description

TECHNICAL FIELD

[0001] The utility model relates to the field of electric appliances, in particular to a wind guide structure and a humidifier. BACKGROUND

[0002] In the prior art, the humidifier lacks a wind guide structure, resulting in low mist output efficiency. From the user's experience, low mist output efficiency means that the indoor humidity increases slowly, and the user's desired comfortable humidity range cannot be reached in a short time, especially in dry seasons or environments. The user has to wait for a long time for humidification, which easily causes frustration and reduces the user's satisfaction with the product. SUMMARY

[0003] Therefore, it is necessary to provide a wind guide structure and a humidifier to solve the problem of the lack of a wind guide structure in the humidifier.

[0004] A wind guide structure, comprising: a housing assembly, the housing assembly being provided with an atomization cavity and an air duct cavity, the housing assembly being provided with a plurality of air passing openings for communicating the atomization cavity and the air duct cavity, the plurality of air passing openings being arranged at intervals along the length direction of the atomization cavity and / or the air duct cavity, the housing assembly being provided with a mist outlet channel communicating with the atomization cavity; a plurality of baffles, the plurality of baffles being respectively arranged at the plurality of air passing openings; a blowing assembly, the blowing assembly being arranged on the housing assembly, the blowing assembly being used for blowing air towards the air duct cavity; and an atomization assembly, the atomization assembly being located in the atomization cavity and being capable of moving relative to the housing assembly, the atomization assembly being capable of sequentially abutting against the plurality of baffles when moving relative to the housing assembly, and the atomization assembly being capable of opening one of the plurality of air passing openings when abutting against the baffle.

[0005] The above discloses a wind guide structure for a humidifier, which can dynamically control the opening and closing of a certain air passage according to the movement state of the atomization assembly by setting multiple air passages and baffles. When the atomization assembly abuts against the baffle, the air passage is opened, the air duct cavity, the atomization cavity and the mist outlet channel are communicated, the blowing assembly introduces the external airflow into the air duct cavity, so that the atomized gas can smoothly pass through the mist outlet channel and be discharged, realizing the humidification function. This design not only improves the efficiency of gas flow, but also ensures the uniformity and stability of the atomization effect, ensures that the mist can be quickly and timely delivered to the environment where the user is located, greatly improves the mist discharge efficiency during the humidification process, and improves the user experience. When the atomization assembly does not abut against the baffle, the air passage is closed, the atomization cavity and the air duct cavity are effectively separated, the mist discharge speed is gradually slowed down, and the mist discharge amount is gradually reduced. At this time, the user knows that the humidifier is insufficient in water, which not only avoids the idling of the humidifier in the case of water shortage, reduces the waste of energy, but also prolongs the service life of the equipment. At the same time, this design also improves the safety of the humidifier, preventing overheating or damage of the equipment due to water shortage. At the same time, the wind guide structure also has the advantages of simple structure, easy manufacturing and maintenance. The connection and cooperation between the shell assembly, the baffle, the blowing assembly and the atomization assembly are reasonably designed, which not only facilitates assembly and disassembly, but also effectively reduces the manufacturing cost and maintenance cost.

[0006] In one embodiment, the shell assembly includes a shell body and a partition assembly, the partition assembly is arranged on the shell body, a plurality of air passages are arranged along the length direction of the partition assembly, and a plurality of baffles are arranged along the length direction of the partition assembly and correspondingly cover the plurality of air passages. By arranging the partition assembly on the shell body and arranging the plurality of air passages along the length direction of the partition assembly, the plurality of baffles correspondingly cover the plurality of air passages, so that the opening of different air passages can be flexibly adjusted according to the water level. By controlling the opening and closing state of the baffle, the amount of air entering different areas can be accurately adjusted to realize efficient and stable control of the mist discharge effect. When the water level is low, the air passage is closed, the mist discharge amount is reduced, and the user knows that the humidifier is insufficient in water storage. The humidifier can be watered or powered off to avoid waste of energy. If the water level is not enough, continuous atomization may cause damage to the atomization assembly, so this structure is beneficial to the protection of the humidifier and prolongs the service life of the humidifier.

[0007] In one of the embodiments, the baffle assembly comprises fixing housings and mounting plates, the fixing housings are two in number, the two fixing housings are arranged on the shell body respectively and form a limiting space between the two fixing housings, the baffle plates are arranged on the mounting plates and located at the limiting space, the fixing housings are provided with accommodating grooves, the mounting plates are two in number and arranged at the accommodating grooves of the fixing housings one by one, the shell body is provided with the atomization cavity, the air duct cavity and the mist outlet channel, and the atomization assembly is located in the atomization cavity. By arranging the two fixing housings on the shell body respectively and stably, the limiting space is formed between the two fixing housings, and the baffle plates are stably limited in the limiting space. This not only prevents the baffle plates from shaking or shifting during work, ensures the accuracy of the air flow regulation, but also greatly enhances the stability and structural strength of the entire baffle assembly, so that the humidifier is more reliable during operation. This makes the humidifier maintain the integrity of the internal structure during daily use, even if it is subjected to a certain degree of vibration or external impact, and ensures stable operation of the equipment. At the same time, the baffle plates are arranged on the mounting plates and located at the limiting space, which cooperates with the atomization cavity, the air duct cavity and the mist outlet channel of the shell body to skillfully guide the direction of the air flow. When the atomization assembly works in the atomization cavity, the baffle plates can flexibly adjust the size and direction of the air flow in the air duct cavity according to actual needs, ensure that the atomized water vapor can be efficiently emitted to the outside through the mist outlet channel, and thus significantly improve the humidification effect of the humidifier, creating a more comfortable and humid air environment for the user.

[0008] In one of the embodiments, the fixing housing comprises a fixing body, a fixing short plate and a fixing long plate, the fixing body is arranged on the shell body, the fixing short plate and the fixing long plate are arranged on the fixing body and arranged oppositely, the fixing short plate, the fixing long plate and the fixing body enclose the accommodating groove, and the baffle plate is clamped between the fixing short plate and the fixing long plate. By arranging the fixing short plate and the fixing long plate oppositely on the fixing body, the three enclose the accommodating groove together, which improves the overall strength and durability of the structure and can effectively resist external impact and vibration, ensuring the stability of the equipment during long-term operation. The baffle plate is clamped between the fixing short plate and the fixing long plate. This clamping design enables the baffle plate to be accurately positioned and firmly fixed, avoiding the baffle plate from shifting or loosening during operation, thereby ensuring the accuracy and reliability of the opening and closing of the air passage and further optimizing the control effect of the air flow channel.

[0009] In one of the embodiments, the shell body includes a main shell, a blowing shell and an air outlet shell, the blowing shell and the air outlet shell are arranged on the main shell, the blowing assembly is arranged on the blowing shell, the atomization cavity includes a working cavity and a mist guiding cavity, the working cavity and the mist guiding cavity are communicated, the air outlet shell is provided with the mist guiding cavity, and the main shell is provided with the working cavity and the air duct cavity. By organically combining the blowing shell and the air outlet shell, a stable foundation is provided for the operation of each functional component. The blowing assembly is arranged on the blowing shell, which can accurately introduce external air to provide sufficient airflow for subsequent atomization and mist outlet links. The atomization cavity is uniquely divided into the communicated working cavity and the mist guiding cavity, which are arranged by the main shell and the air outlet shell respectively. This layout makes the atomization process more efficient. In the working cavity, the atomization assembly converts water vapor into small particles, which are then quickly transmitted to the air outlet position through the mist guiding cavity. At the same time, the air duct cavity arranged on the main shell cooperates with the working cavity to guide the airflow to carry the atomized water vapor, which is smoothly discharged from the air outlet shell, thereby improving the efficiency and uniformity of the mist outlet and ensuring that the humidifier can effectively improve the humidity of the surrounding environment in a short time to create a comfortable humid space for the user.

[0010] In one of the embodiments, the partition plate assembly and the main shell are integrally formed. By integrally forming the main shell and the partition plate assembly, the connection gap between the two is eliminated, avoiding the problem of air leakage caused by loose connection, thereby improving the sealing performance and operation stability of the equipment. At the same time, the integrally formed structure enhances the overall strength and durability of the entire shell assembly. Since the main shell and the partition plate assembly are manufactured as a whole, their structure is more stable and can better resist external impact, vibration and temperature changes, thereby prolonging the service life of the equipment. At the same time, this design also reduces the risk of failure caused by loose or worn-out connecting parts, improving the reliability of the equipment. In addition, the integrally formed design simplifies the manufacturing and assembly process, reducing production costs. Traditional split structure needs to manufacture the main shell and the partition plate assembly separately and then assemble them, while the integrally formed structure is directly formed by a mold in one step, reducing the processing steps and assembly time and improving the production efficiency. This design also reduces the number of parts, reducing inventory management and logistics costs.

[0011] In one of the embodiments, the fixed body, the fixed short plate and the fixed long plate are integrally formed. By integrally forming the fixed body, the fixed short plate and the fixed long plate, the three form a tightly integrated whole, greatly enhancing the structural strength. This enables the humidifier to maintain a stable structural state when facing various external forces such as vibrations and collisions during use, reducing the risk of parts loosening and falling off, and ensuring stable operation of the humidifier. At the same time, it provides more uniform and stable support force for the air deflector assembly, ensuring that the baffle can be stably installed on the fixed shell, ensuring that the external airflow can pass through the air outlet without interference, maintaining efficient and good humidification effect.

[0012] In one of the embodiments, the two installation plates are oppositely arranged, and the baffles are arranged on the two installation plates respectively. The adjacent baffles on the installation plates form the air passageways, and the baffles on one of the installation plates extend to the air passageway of the other installation plate. By arranging the baffles on the two opposite installation plates respectively, the air passageways are formed between the adjacent baffles, and the baffles on one of the installation plates extend to the air passageway of the other installation plate. This staggered layout can achieve fine control of multiple air passageways, and precise control enables the atomized gas in the humidifier to flow out smoothly, thereby optimizing the mist effect. At the same time, the cooperation of the oppositely arranged installation plates and baffles enhances the stability of the entire baffle assembly. The staggered baffles support each other, so that the baffle assembly is not easy to deform or be damaged when subjected to airflow impact, ensuring long-term stable operation of the humidifier.

[0013] In one of the embodiments, the shell assembly further comprises a guide member arranged on the shell assembly, the guide member being provided with a guide groove, and part of the atomization assembly extending into the guide groove and being capable of moving in the guide groove relative to the shell assembly. By arranging the guide member on the shell assembly, the guide groove of the guide member provides a precise movement track for the atomization assembly. Part of the atomization assembly extends into the guide groove, and during operation, whether it is caused by water level changes or movement caused by adjustment needs, it can be smoothly performed under the constraint of the guide groove, avoiding damage or performance degradation of the components caused by shaking or deviation, greatly improving the stability and reliability of the movement of the atomization assembly. Moreover, since the atomization assembly can move smoothly in the guide groove, the cooperation with the baffle always remains accurate, which ensures that the atomized water vapor can be efficiently carried by the airflow and discharged through the air outlet shell under different working conditions, optimizing the mist effect and enabling the humidifier to continuously and stably provide suitable humidity for the surrounding environment.

[0014] In one of the embodiments, the guide member comprises a first guide strip and a second guide strip, the first guide strip and the second guide strip are arranged on the shell body and extend along the height direction of the shell body, and the guide slot is formed between the first guide strip and the second guide strip. By extending the first guide strip and the second guide strip along the height direction of the shell body, the guide slot formed between the first guide strip and the second guide strip provides a very precise movement track for the atomization assembly. During the up-and-down movement of the atomization assembly, the atomization assembly is tightly constrained in the guide slot, avoiding horizontal deviation or shaking, ensuring that the atomization assembly can always maintain the optimal relative positional relationship with other assemblies, thereby stably performing the atomization work and guaranteeing the stability and continuity of the mist output effect. At the same time, the two guide strips are tightly connected with the shell body, which to some extent enhances the structural strength of the shell body, so that the shell can better disperse stress when bearing external force, reduces the influence of vibration or collision on the internal assemblies, and further improves the durability of the entire humidifier. Moreover, during installation, the atomization assembly only needs to be inserted along the direction of the guide slot, which is convenient to operate and less prone to errors. During later maintenance, the atomization assembly can also be easily taken out along the guide slot, reducing the maintenance difficulty and time cost and improving the maintainability of the equipment, thereby providing great convenience for users.

[0015] In one of the embodiments, the atomization assembly comprises an atomization head top block and a guide block, the atomization head is located in the atomization cavity, the top block and the guide block are arranged on the atomization head, the top block can abut against the baffle, and the guide block is located in the guide slot. By placing the atomization head in the atomization cavity of the shell assembly, the liquid in the atomization cavity can be directly used for efficient atomization. This design reduces the path and energy loss of liquid delivery, ensures the continuity and stability of the atomization process, and improves the atomization efficiency. The top block is arranged on the atomization head and can abut against the baffle, thereby realizing the opening and closing of the air passage. This design enables the atomization assembly to accurately control the communication and separation of the air passage during movement, thereby optimizing the synergistic effect of the atomized gas and the air flow. When the air passage is opened, the atomization cavity and the air duct cavity are communicated, and the atomized gas can be efficiently delivered to the mist outlet channel. The guide block is arranged on the atomization head and located in the guide slot of the shell assembly. The guide slot provides a precise movement track for the atomization assembly, ensuring that the atomization assembly always maintains a stable trajectory during movement, thereby avoiding uneven atomization effect or equipment failure caused by movement deviation or shaking.

[0016] The second aspect of the present application discloses a humidifier, which comprises the above-mentioned air guide structure and an electric control device arranged on the air guide structure.

[0017] The second aspect discloses a humidifier, by setting the electric control device on the air guide structure, the operation state of the atomization assembly and the air blowing assembly can be accurately controlled, the synergistic effect of the atomized gas and the airflow is ensured, and the atomization effect and the gas delivery efficiency are optimized. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 It is a first perspective view of the air guide structure;

[0019] Figure 2 It is a sectional view of the air guide structure;

[0020] Figure 3 It is an exploded view of the air guide structure;

[0021] Figure 4 It is a second perspective view of the air guide structure;

[0022] Figure 5 It is a partial enlarged view of the A area of Figure 4

[0023] Figure 6 It is a second perspective view of the air guide structure;

[0024] Figure 7 It is a partial enlarged view of the B area of Figure 6

[0025] Figure 8 It is a perspective view of the shell assembly;

[0026] Figure 9 It is a partial enlarged view of the C area of Figure 8

[0027] Figure 10 It is a perspective view of the baffle;

[0028] Figure 11 It is a perspective view of the atomization assembly.

[0029] Wherein, the correspondence between the reference signs and the component names is:

[0030] 1 shell assembly, 11 shell body, 111 main shell, 112 air blowing shell, 113 air outlet shell, 12 partition assembly, 121 fixed shell, 1211 fixed main body, 1212 fixed short plate, 1213 fixed long plate, 122 mounting plate, 13 guide piece, 131 first guide piece, 132 second guide piece, 101 atomization cavity, 1011 working cavity, 1012 mist guiding cavity, 102 air duct cavity, 103 air passing opening, 104 mist outlet channel, 105 accommodating groove, 106 guide groove;

[0031] 2 baffle;

[0032] 3 air blowing assembly;​​​

[0033] 4 Atomizing components, 41 Atomizing head, 42 Top block, 43 Guide block. Detailed Implementation

[0034] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0035] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.

[0036] The air guide structure and humidifier of some embodiments of the present invention are described below with reference to the accompanying drawings.

[0037] Example 1

[0038] like Figures 1 to 11 As shown, this embodiment discloses an air guiding structure, including: a shell assembly 1, which has an atomizing chamber 101 and an air duct chamber 102, and a plurality of air passages 103 for connecting the atomizing chamber 101 and the air duct chamber 102. The plurality of air passages 103 are spaced apart along the length direction of the atomizing chamber 101 and / or the air duct chamber 102. The shell assembly 1 has a mist outlet channel 104 communicating with the atomizing chamber 101; baffles 2, which are multiple and are respectively covered at the plurality of air passages 103; a blowing assembly 3, which is disposed on the shell assembly 1 and is used to blow air toward the air duct chamber 102; and an atomizing assembly 4, which is located inside the atomizing chamber 101 and can move relative to the shell assembly 1. When the atomizing assembly 4 moves relative to the shell assembly 1, it can sequentially abut against the plurality of baffles 2. When the atomizing assembly 4 abuts against the baffles 2, it can open one of the plurality of air passages 103.

[0039] The application discloses a wind guide structure for a humidifier, which can dynamically control the opening and closing of a certain air passage 103 according to the movement state of an atomization assembly 4 by arranging a plurality of air passages 103 and baffles 2. When the atomization assembly 4 abuts against the baffle 2, the air passage 103 is opened, the air duct cavity 102, the atomization cavity 101 and the mist outlet passage 104 are communicated, the air flow outside is introduced into the air duct cavity 102 by the blowing assembly 4, the atomized gas can be smoothly discharged through the mist outlet passage 104, and the humidification function is realized. The design not only improves the efficiency of gas flow, but also ensures the uniformity and stability of the atomization effect, ensures that the mist can be quickly and timely delivered to the environment where the user is located, greatly improves the mist outlet efficiency in the humidification process, and improves the experience of the user. When the atomization assembly 4 does not abut against the baffle 2, the air passage 103 is closed, the atomization cavity 101 and the air duct cavity 102 are effectively separated, the mist outlet speed is gradually slowed down, and the mist outlet amount is gradually reduced. At this time, the user knows that the water in the humidifier is insufficient, which not only avoids the idling of the humidifier in the case of water shortage, reduces the waste of energy, but also prolongs the service life of the equipment. Meanwhile, the design also improves the safety of the humidifier, prevents the equipment from overheating or damage due to water shortage. Meanwhile, the wind guide structure also has the advantages of simple structure, easy manufacturing and maintenance. The connection and cooperation design between the shell assembly 1, the baffle 2, the blowing assembly 3 and the atomization assembly 4 is reasonable, which not only facilitates assembly and disassembly, but also effectively reduces the manufacturing cost and maintenance cost.

[0040] As shown in Figure 2 , Figure 3 and Figure 6 , in addition to the features of the above-mentioned embodiments, the present embodiment is further limited in that the shell assembly 1 comprises a shell body 11 and a partition assembly 12, the partition assembly 12 is arranged on the shell body 11, a plurality of air passages 103 are arranged along the length direction of the partition assembly 12, and a plurality of baffles 2 are arranged along the length direction of the partition assembly 12 and correspondingly cover the plurality of air passages 103. By arranging the partition assembly 12 on the shell body 11 and arranging the plurality of air passages 103 along the length direction of the partition assembly 12, and arranging the plurality of baffles 2 corresponding to the air passages 103, the opening of different air passages 103 can be flexibly adjusted according to the water level. By controlling the opening and closing state of the baffle 2, the amount of air entering different areas can be accurately adjusted, and the control of the mist outlet effect is efficient and stable. When the water level is low, the air passage 103 is closed, the mist outlet amount is reduced, the user knows that the water storage in the humidifier is insufficient, and the humidifier can be watered or powered off, thereby avoiding waste of energy. If the water level is not enough, continuous atomization may cause damage to the atomization assembly 4, so this structure is beneficial to the protection of the humidifier and prolongs the service life of the humidifier.

[0041] As shown in Figure 2、 Figure 6 and Figure 7 As shown in the drawings, in addition to the features of the above-mentioned embodiments, the present embodiment is further limited in that: the baffle assembly 12 comprises a fixing shell 121 and a mounting plate 122, the number of the fixing shell 121 is two, the two fixing shells 121 are respectively arranged on the shell body 11 and form a limiting space between the two fixing shells 121, a plurality of baffles 2 are arranged on the mounting plate 122 and located at the limiting space, the fixing shell 121 is provided with a containing groove 105, the number of the mounting plate 122 is two, the two mounting plates 122 are respectively arranged at the two containing grooves 105 of the two fixing shells 121, the shell body 11 is provided with an atomization cavity 101, an air duct cavity 102 and an out-mist passage 104, and the atomization assembly 4 is located in the atomization cavity 101. By stably arranging the two fixing shells 121 on the shell body 11 respectively, a limiting space is formed between them, and a plurality of baffles 2 are stably limited therein. This not only prevents the baffles 2 from shaking or displacing during work, ensures the accuracy of their air flow adjustment, but also greatly enhances the stability and structural strength of the entire baffle assembly 12, making the humidifier more reliable during operation. This makes the humidifier maintain the integrity of the internal structure during daily use, even if it is subjected to a certain degree of vibration or external impact, and ensures stable operation of the equipment. At the same time, the baffles 2 are arranged on the mounting plate 122 and located at the limiting space, which cooperates with the atomization cavity 101, the air duct cavity 102 and the out-mist passage 104 of the shell body 11 to skillfully guide the direction of the air flow. When the atomization assembly 4 works in the atomization cavity 101, the baffles 2 can flexibly adjust the size and direction of the air flow in the air duct cavity 102 according to actual needs, ensuring that the atomized water vapor can be efficiently emitted to the outside through the out-mist passage 104, thereby significantly improving the humidifying effect of the humidifier and creating a more comfortable and humid air environment for the user.

[0042] As Figure 8 and Figure 9As shown, in addition to the features of the above embodiments, this embodiment further defines: the fixed housing 121 includes a fixed main body 1211, a fixed short plate 1212, and a fixed long plate 1213. The fixed main body 1211 is disposed on the outer shell body 11, and the fixed short plate 1212 and the fixed long plate 1213 are disposed on the fixed main body 121 and arranged opposite to each other. The fixed short plate 122, the fixed long plate 123, and the fixed main body 121 enclose and form a receiving groove 105, and the baffle 2 is sandwiched between the fixed short plate 1212 and the fixed long plate 1213. By arranging the fixed short plate 1212 and the fixed long plate 1213 opposite to each other on the fixed main body 1211, the three together enclose and form the receiving groove 105, improving the overall strength and durability of the structure, effectively resisting external impacts and vibrations, and ensuring the stability of the equipment during long-term operation. The baffle 2 is clamped between the fixed short plate 1212 and the fixed long plate 1213. This clamping design allows the baffle 2 to be accurately positioned and firmly fixed, preventing the baffle 2 from shifting or loosening during operation. This ensures the accuracy and reliability of the opening and closing of the air vent 103 and further optimizes the control effect of the airflow channel.

[0043] like Figure 2 and Figure 3 As shown, in addition to the features of the above embodiments, this embodiment further defines: the outer shell body 11 includes a main shell 111, a blowing shell 112, and an air outlet shell 113. The blowing shell 112 and the air outlet shell 113 are disposed on the main shell 111. The blowing assembly 3 is disposed on the blowing shell 112. The atomizing chamber 101 includes a working chamber 1011 and a mist guiding chamber 1012, which are connected. The air outlet shell 113 is provided with the mist guiding chamber 1012. The main shell 111 is provided with the working chamber 1011 and the air duct chamber 102. By organically combining the blowing shell 112 and the air outlet shell 113, a stable foundation is provided for the operation of each functional component. The blowing assembly 3, disposed on the blowing shell 112, can accurately introduce outside air, providing sufficient airflow for subsequent atomization and mist output stages. The atomizing chamber 101 is uniquely divided into a connected working chamber 1011 and a mist-guiding chamber 1012, which are respectively set in the main housing 111 and the air outlet housing 113. This layout makes the atomization process more efficient. Inside the working chamber 1011, the atomizing component converts water vapor into tiny particles, which are then quickly transported to the air outlet position through the mist-guiding chamber 1012. Simultaneously, the air duct chamber 102 in the main housing 111 works in conjunction with the working chamber 1011 to guide the airflow carrying the atomized water vapor, smoothly expelling it from the air outlet housing 113. This improves the efficiency and uniformity of mist output, ensuring that the humidifier can effectively increase the humidity of the surrounding environment in a short time, creating a comfortable and humid space for the user.

[0044] like Figure 3 and Figure 6As shown, in addition to the features of the above embodiments, this embodiment further defines that the partition assembly 12 and the main housing 111 are integrally formed. By integrally forming the main housing 111 and the partition assembly 12, the connection gap between them is eliminated, avoiding airflow leakage problems caused by loose connections, thereby improving the sealing performance and operational stability of the equipment. At the same time, the integrally formed structure enhances the overall strength and durability of the entire housing assembly 1. Since the main housing 111 and the partition assembly 12 are manufactured as a whole, their structure is more robust and can better resist external impacts, vibrations, and temperature changes, extending the service life of the equipment. This design also reduces the risk of failure due to loose or worn connectors, improving the reliability of the equipment. Furthermore, the integrally formed design simplifies the manufacturing and assembly process, reducing production costs. Traditional split structures require the main housing 111 and the partition assembly 12 to be manufactured separately and then assembled, while the integrally formed structure is directly formed in one step by a mold, reducing processing steps and assembly time, and improving production efficiency. This design also reduces the number of parts, lowering inventory management and logistics costs.

[0045] like Figures 6 to 9 As shown, in addition to the features of the above embodiments, this embodiment further defines that the fixed main body 1211, the fixed short plate 1212, and the fixed long plate 1213 are integrally formed. By integrally forming the fixed main body 121, the fixed short plate 122, and the fixed long plate 123, the three form a tightly integrated whole, greatly enhancing the structural strength. This allows the humidifier to maintain a stable structural state when facing various external forces such as vibration and collision during use, reducing the risk of component loosening or falling off, and ensuring stable operation of the humidifier. At the same time, it provides a more uniform and stable support force for the air guide plate assembly 22, ensuring that the baffle 2 can be stably installed on the fixed housing 12, ensuring that the external airflow can pass through the air outlet 103 without interference, maintaining a highly efficient and good humidification effect.

[0046] like Figure 6 and Figure 10As shown, in addition to the features of the above embodiments, the present embodiment is further limited in that: the two mounting plates 122 are oppositely arranged, a plurality of baffles 2 are arranged on each of the two mounting plates 122, the adjacent baffles 2 on the mounting plates 122 form air passages 103 therebetween, and the baffles 2 on one of the mounting plates 122 extend to the air passages 103 of the other mounting plate 122. By arranging a plurality of baffles 2 on each of the oppositely arranged two mounting plates 122, the adjacent baffles 2 form air passages 103 therebetween, and the baffles 2 on one of the mounting plates 122 extend to the air passages 103 of the other mounting plate 122, this staggered arrangement can achieve fine control of a plurality of air passages 103, and precise control allows the atomized gas inside the humidifier to flow out smoothly, thereby optimizing the mist effect. At the same time, the cooperation of the oppositely arranged mounting plates 122 and baffles 2 enhances the stability of the entire baffle assembly. The staggered baffles 2 support each other, so that the baffle assembly is not easy to deform or damage when subjected to airflow impact, ensuring long-term stable operation of the humidifier.

[0047] As shown in Figure 4 and Figure 5 As shown, in addition to the features of the above embodiments, the present embodiment is further limited in that: the housing assembly 1 further comprises a guide 13, the guide 13 is arranged on the housing assembly 1, the guide 13 is provided with a guide groove 106, and part of the atomization assembly 4 extends into the guide groove 106 and can move in the guide groove 106 relative to the housing assembly 1. By arranging the guide 13 on the housing assembly 1, the guide groove 106 of the guide 13 provides a precise movement track for the atomization assembly 4, and part of the atomization assembly 4 extends into the guide groove 106. During operation, whether it is caused by water level changes or movement caused by adjustment needs, it can be smoothly carried out under the constraint of the guide groove 106, avoiding component damage or performance decline caused by shaking and deviation, greatly improving the stability and reliability of the movement of the atomization assembly 4. Moreover, since the atomization assembly 4 can move smoothly in the guide groove 106, the cooperation with the baffles 2 is always precise, which ensures that the atomized water vapor can be efficiently carried by the airflow and discharged through the air outlet housing 113 under different working conditions, optimizing the mist effect and enabling the humidifier to continuously and stably provide suitable humidity for the surrounding environment.

[0048] As shown in Figure 4 and Figure 5As shown, in addition to the features of the above embodiments, the present embodiment is further defined as: the guide member 13 comprises a first guide strip 131 and a second guide strip 132, the first guide strip 131 and the second guide strip 132 are arranged on the shell body 11 and extend along the height direction of the shell body 11, and the guide groove 106 is formed between the first guide strip 131 and the second guide strip 132. By extending the first guide strip 131 and the second guide strip 132 along the height direction of the shell body 11, the guide groove 106 formed between the two provides a very precise movement track for the atomization assembly 4. During the up and down movement of the atomization assembly 4, it is tightly constrained in the guide groove 107, avoiding horizontal deviation or shaking, ensuring that it can always maintain the best relative positional relationship with other assemblies, thereby stably performing atomization work and guaranteeing the stability and continuity of the mist effect. At the same time, the two guide strips are closely connected with the shell body 11, which to some extent enhances the structural strength of the shell body 11, so that the shell can better disperse stress when subjected to external force, reduce the impact of vibration or collision on internal components, and further improve the durability of the entire humidifier. Moreover, during installation, the atomization assembly 4 only needs to be inserted along the direction of the guide groove 106, which is convenient to operate and less prone to errors. During later maintenance, the atomization assembly 4 can also be easily removed along the guide groove 106, reducing maintenance difficulty and time cost, improving the maintainability of the equipment, and providing great convenience for users.

[0049] As shown in Figure 2 and Figure 11 As shown, in addition to the features of the above embodiments, the present embodiment is further defined as: the atomization assembly 4 comprises a top block 42 and a guide block 43 of the atomization head 41, the atomization head 41 is located in the atomization cavity 101, the top block 42 and the guide block 43 are arranged on the atomization head 41, the top block 42 can abut against the baffle 2, and the guide block 43 is located in the guide groove 106. By placing the atomization head 41 in the atomization cavity 101 of the shell assembly 1, it can directly utilize the liquid in the atomization cavity 101 for efficient atomization. This design reduces the path and energy loss of liquid delivery, ensures the continuity and stability of the atomization process, and improves the atomization efficiency. The top block 42 is arranged on the atomization head 41 and can abut against the baffle 2, thereby realizing the opening and closing of the air passage 103. This design enables the atomization assembly 4 to accurately control the communication and separation of the air passage during movement, optimizing the synergistic effect of atomized gas and air flow. When the air passage 103 is opened, the atomization cavity 101 communicates with the air duct cavity 102, and the atomized gas can be efficiently delivered to the mist outlet passage 104. The guide block 43 is arranged on the atomization head 41 and located in the guide groove 107 of the shell assembly 1. The guide groove 107 provides a precise movement track for the atomization assembly 4, ensuring that the atomization assembly 4 always maintains a stable trajectory during movement, avoiding uneven atomization effect or equipment failure caused by movement deviation or shaking.

[0050] Embodiment 2

[0051] As Figures 1 to 11 shown, the embodiment discloses a humidifier, comprising: the above-mentioned air guide structure; an electric control device, the electric control device is arranged on the air guide structure.

[0052] The second aspect of the present application discloses a humidifier, by arranging the electric control device on the air guide structure, the running state of the atomization assembly 4 and the blowing assembly 3 can be accurately controlled, the synergistic effect of atomized gas and airflow is ensured, and the atomization effect and gas delivery efficiency are optimized.

[0053] The technical features of the above-mentioned embodiments can be combined arbitrarily, in order to make the description simple, all possible combinations of the technical features in the above-mentioned embodiments are not described, however, as long as the combination of the technical features does not exist contradictory, it should be considered that it is the scope of the present application.

[0054] The above-mentioned embodiments only express several implementation manners of the present application, the description is more specific and detailed, but it should not be understood as the limitation of the scope of the present application. It should be pointed out that for ordinary skilled in the art, on the premise of not departing from the concept of the present application, a number of modifications and improvements can be made, which all belong to the protection scope of the present application. Therefore, the protection scope of the present application patent should be subject to the appended claims.

Claims

1. A wind guide structure, characterized by, The air guide structure comprises: A shell assembly (1) is provided with an atomization cavity (101) and an air duct cavity (102), the shell assembly (1) is provided with a plurality of air passing openings (103) for communicating the atomization cavity (101) and the air duct cavity (102), a plurality of the air passing openings (103) are arranged at intervals along the length direction of the atomization cavity (101) and / or the air duct cavity (102), and the shell assembly (1) is provided with an atomization outlet channel (104) communicating with the atomization cavity (101); A plurality of baffle plates (2) are arranged at the air passing openings (103) respectively; An air blowing assembly (3) is arranged on the shell assembly (1) and is used for blowing air towards the air duct cavity (102); An atomization assembly (4) is located in the atomization cavity (101) and can move relative to the shell assembly (1), the atomization assembly (4) can abut against the baffle plates (2) in sequence when moving relative to the shell assembly (1), and the atomization assembly (4) can open one of the air passing openings (103) when abutting against the baffle plates (2).

2. The air guiding structure according to claim 1, wherein, The shell assembly (1) comprises a shell body (11) and a partition plate assembly (12), the partition plate assembly (12) is arranged on the shell body (11), a plurality of the air passing openings (103) are arranged at intervals along the length direction of the partition plate assembly (12), and a plurality of the baffle plates (2) are arranged at intervals along the length direction of the partition plate assembly (12) and cover the air passing openings (103) one by one.

3. The air guiding structure according to claim 2, wherein, The partition plate assembly (12) comprises a fixed shell (121) and a mounting plate (122), the number of the fixed shell (121) is two, the two fixed shells (121) are arranged on the shell body (11) respectively and form a limiting space between the two fixed shells (121), a plurality of the baffle plates (2) are arranged on the mounting plate (122) and located at the limiting space, the fixed shell (121) is provided with a containing groove (105), the number of the mounting plate (122) is two, the two mounting plates (122) are arranged at the two containing grooves (105) of the two fixed shells (121) one by one, the shell body (11) is provided with the atomization cavity (101), the air duct cavity (102) and the atomization outlet channel (104), and the atomization assembly (4) is located in the atomization cavity (101).

4. The air guiding structure according to claim 3, wherein The fixed shell (121) comprises a fixed main body (1211), a fixed short plate (1212) and a fixed long plate (1213), the fixed main body (1211) is arranged on the shell body (11), the fixed short plate (1212) and the fixed long plate (1213) are arranged on the fixed main body (1211) and oppositely arranged, and the fixed short plate (1212), the fixed long plate (1213) and the fixed main body (1211) enclose the containing groove (105), and the baffle (2) is clamped between the fixed short plate (1212) and the fixed long plate (1213).

5. The wind guide structure according to claim 4, wherein The shell body (11) comprises a main shell (111), a blowing shell (112) and an air outlet shell (113), the blowing shell (112) and the air outlet shell (113) are arranged on the main shell (111), the blowing assembly (3) is arranged on the blowing shell (112), the atomizing cavity (101) comprises a working cavity (1011) and a mist guiding cavity (1012), the working cavity (1011) and the mist guiding cavity (1012) are communicated, the air outlet shell (113) is provided with the mist guiding cavity (1012), and the main shell (111) is provided with the working cavity (1011) and the air duct cavity (102).

6. The air guiding structure according to claim 5, wherein, The baffle assembly (12) and the main shell (111) are integrally formed; And / or the fixed main body (1211), the fixed short plate (1212) and the fixed long plate (1213) are integrally formed.

7. The wind guide structure according to claim 3, wherein Two installation plates (122) are oppositely arranged, a plurality of baffles (2) are arranged on the two installation plates (122) respectively, the over-air ports (103) are formed between adjacent baffles (2) on the installation plate (122), and the baffle (2) on one installation plate (122) extends to the over-air port (103) of the other installation plate (122).

8. The wind guide structure according to claim 2, wherein The shell assembly (1) further comprises a guide (13), the guide (13) is arranged on the shell assembly (1), the guide (13) is provided with a guide groove (106), and part of the atomizing assembly (4) extends into the guide groove (106) and can move relative to the shell assembly (1) in the guide groove (106).

9. The air guiding structure according to claim 8, wherein, The guide (13) comprises a first guide strip (131) and a second guide strip (132), the first guide strip (131) and the second guide strip (132) are arranged on the shell body (11) and extend along the height direction of the shell body (11), and the guide groove (106) is formed between the first guide strip (131) and the second guide strip (132). And / or the atomization assembly (4) comprises an atomization head (41), a top block (42) and a guide block (43), the atomization head (41) is located in the atomization cavity (101), the top block (42) and the guide block (43) are arranged on the atomization head (41), the top block (42) can abut against the baffle (2), and the guide block (43) is located in the guide groove (106).

10. A humidifier characterised in that, The humidifier comprises: The air guiding structure according to any one of claims 1 to 9; An electric control device is arranged on the air guiding structure.

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