Folding dual-mode power supply child atomizer

Abstract

The invention relates to the technical field of child atomizers, and discloses a folding type dual-mode power supply child atomizer which comprises a folding mechanism, a standby battery bin is arranged at the upper left end of the interior of the folding mechanism, a switching assembly is arranged at the bottom end of the interior of the folding mechanism, and a display lamp is arranged on the left side wall of the folding mechanism. A circuit board is arranged at the right end of the interior of the folding mechanism, and an atomization mechanism is arranged in the middle of the interior of the folding mechanism. By means of the 0-180-degree turnover opening and closing design of the folding mechanism, the folding mechanism is matched with the folding pipe made of the flexible sealing material, the whole device can be folded and stored on the premise that the smoothness of the air channel is guaranteed, the size is greatly reduced, and home storage and outdoor carrying are facilitated; after the protection assembly is closed, closed protection is formed through a locking structure, dust and collision can be effectively prevented, and internal core components are protected; meanwhile, the storage assembly on the rear side of the folding mechanism can store the detached atomization mask assembly in order, and accessories are prevented from being lost or damaged.

Description

Technical Field

[0001] This invention relates to the field of children's nebulizer technology, specifically a foldable dual-mode powered children's nebulizer. Background Technology

[0002] As a commonly used medical device for treating respiratory diseases in children, nebulizers for children are generally bulky and inconvenient to store and carry. Most nebulizers adopt a one-piece fixed structure that cannot be folded to reduce their size. They take up a lot of space when stored at home and are difficult to put into a bag when going out for medical treatment or traveling, causing a lot of inconvenience to parents and children.

[0003] Meanwhile, existing atomizers have poor protective performance and lack an effective sealed protective structure. When idle or carried, dust and debris can easily enter the device and contaminate the core components. They may even be damaged due to bumps and knocks, affecting the lifespan of the device. In addition, accessories such as atomizing masks are mostly placed in a scattered manner without a dedicated storage structure, making them prone to loss, damage or contamination, which further reduces the ease of use.

[0004] In terms of nebulization performance and battery life adaptability, existing children's nebulizers also have significant shortcomings. Some nebulizers have unreasonable nebulization mechanism designs, with poor compatibility between the internal airway and the main structure of the device. If a folding design is attempted, it can easily lead to airway blockage or medication leakage, failing to balance portability and nebulization stability. Most nebulizers use a single power supply mode, only supporting AC power, making them unusable in outdoor scenarios without AC power (such as long-distance travel or medical treatment in remote areas), thus limiting their emergency use.

[0005] Meanwhile, the internal components of existing nebulizers are cluttered and lack an effective zoning and positioning structure. During operation, the components are prone to mutual interference, affecting the stability of nebulization and the reliability of equipment operation. In addition, the control operation of some nebulizers is complicated and the status display is not clear. Parents have difficulty operating them quickly and accurately while taking care of their children. This makes it impossible to accurately meet the safety and efficiency requirements of children's nebulization therapy, which limits the promotion and application of the equipment. Summary of the Invention

[0006] The purpose of this invention is to address the common problems of existing children's nebulizers, such as bulky size making them inconvenient to fold and carry, lack of protective structure and dedicated storage for accessories, poor compatibility between the nebulization mechanism and the main body making it difficult to balance portability and stable nebulization, and limited emergency use due to a single power supply mode. This invention provides a foldable dual-mode power supply children's nebulizer.

[0007] To achieve the above objectives, the present invention specifically adopts the following technical solution: A foldable dual-mode powered atomizer for children includes a folding mechanism. A spare battery compartment is located at the upper left end of the folding mechanism's interior. A switching component is located at the bottom end of the folding mechanism's interior. An indicator light is located on the left side wall of the folding mechanism. A circuit board is located at the right end of the folding mechanism's interior. An atomizing mechanism is located in the middle of the folding mechanism's interior, situated between the spare battery compartment and the circuit board. The top of the atomizing mechanism extends through the middle of the top of the folding mechanism's interior. An atomizing mask assembly is movably mounted on the front of the top of the atomizing mechanism. A microprocessor is located on the left side of the top of the folding mechanism's interior, positioned to the left of the atomizing mechanism. A storage component is located on the rear side of the folding mechanism. A control switch is located on the right side of the folding mechanism.

[0008] Furthermore, the folding mechanism includes a lower housing assembly, a folding page, and a protective assembly. The spare battery compartment, the switching assembly, the circuit board, and the atomizing mechanism are all located inside the lower housing assembly. With the folding page as the rotation axis, the cover is flipped upwards, allowing the lower housing assembly and the cover to unfold from 0° to 180°.

[0009] Furthermore, the folding page is located at the top rear end of the lower housing assembly. The top end of the folding page is connected to the rear end of the protective assembly. The lower housing assembly and the rear end of the folding page are rotatably connected through the folding page. The cover is flipped upwards, allowing the lower housing assembly and the cover to unfold at 30-40 degrees, revealing the internal atomizing mechanism, indicator lights, and other core components.

[0010] Furthermore, the lower housing assembly includes a housing and a partition layer. The partition layer is disposed in the inner compartment of the housing. The housing of the lower housing assembly is divided into multiple inner compartments by the partition layer, which respectively realize the partitioned storage and positioning of components such as the spare battery compartment, switching components, circuit board, and atomizing mechanism.

[0011] Furthermore, the protective component includes a cover and a latch. The latch is located at the front top of the cover. By holding the cover of the protective component in the folding mechanism, the latch at the front top of the cover is released from its locked state.

[0012] Furthermore, the switching component includes a charging channel, a switching port, and a charging port. The charging port is located at the bottom front end of the folding mechanism. Current enters the charging channel through the switching port of the switching component and is transmitted to the circuit board through the charging channel.

[0013] Furthermore, the charging channel is located at the right end of the switching port, and the charging port is located at the outer port of the switching port. The power is transmitted to the circuit board via the charging channel and then distributed to each power-consuming component by the circuit board.

[0014] Furthermore, the atomizing mechanism includes an airway adapter, an atomizing unit assembly, an atomizing chamber, a folded tube, and a delivery tube. The airway adapter is located at the top of the atomizing unit assembly, the atomizing chamber is located at the bottom of the atomizing unit assembly, the folded tube is located at the bottom of the atomizing chamber, and the delivery tube is located at the bottom of the folded tube. The operator injects the liquid medicine into the atomizing chamber of the atomizing mechanism, and then inserts the rear end of the connecting pipe of the atomizing mask assembly into the airway adapter at the top of the atomizing mechanism to complete the sealed connection of the atomizing channel.

[0015] Furthermore, the atomizing unit assembly includes an atomizing cover and an ultrasonic atomizing plate. The ultrasonic atomizing plate is disposed inside the atomizing cover, and the atomizing cover can protect the ultrasonic atomizing plate to prevent the liquid medicine from directly impacting the atomizing plate and causing damage.

[0016] Furthermore, the atomizing mask assembly includes a connecting port and a folding cover. The rear end of the connecting port is inserted into the top of the atomizing mechanism. The rear end of the folding cover and the front end of the connecting port are fixedly connected. The air enters the connecting port of the atomizing mask assembly through the airway adapter and is then transmitted to the folding cover through the connecting port.

[0017] Furthermore, the storage assembly includes a mask storage cavity, a folding cover, and a partition. The mask storage cavity is located on the rear side of the folding mechanism. The folding cover is rotatably connected to the top outer end of the mask storage cavity. The partition is located inside the mask storage cavity. The operator disassembles the atomizing mask assembly, cleans it, and then places it into the mask storage cavity of the storage assembly.

[0018] Compared with the prior art, the present invention provides a foldable dual-mode powered children's nebulizer, which has the following beneficial effects: 1. This foldable dual-mode powered children's nebulizer features a 0°-180° flip-open design with a flexible, sealed folding tube. This design allows for complete folding and storage while ensuring unobstructed airflow, significantly reducing its size for easy home storage and portability. The protective components, once closed, form a sealed enclosure through a locking structure, effectively preventing dust and impacts and protecting the internal core components. Additionally, the storage component at the rear of the folding mechanism neatly stores the disassembled nebulizer mask, preventing loss or damage and further enhancing ease of use.

[0019] 2. This foldable dual-mode powered nebulizer for children features a multi-component collaborative design in its nebulization mechanism. The folding tube bends synchronously with the device's folding without affecting medication delivery, and works in conjunction with the nebulization unit components to achieve stable nebulization. The microprocessor-controlled dual-mode power switching mechanism automatically adapts to both mains power and backup battery power modes, ensuring continuous and uninterrupted nebulization, suitable for both home use and emergency outings. Furthermore, the core components are partitioned and positioned to reduce mutual interference during operation. Combined with convenient control switches and status indicators, operation is simplified, precisely meeting the safety and efficiency requirements of nebulization therapy for children. Attached Figure Description

[0020] Figure 1 This is a three-dimensional perspective view of the left side of the overall structure of the present invention. Figure 2 This is a three-dimensional perspective view of the right side of the overall structure of the present invention. Figure 3 This is a three-dimensional perspective view of the front side of the atomizing mask assembly after installation. Figure 4 This is a three-dimensional perspective view of the rear side of the storage component and protective component of the present invention after they have been opened; Figure 5 This is a three-dimensional perspective view of the internal structural layout of the lower housing assembly of the present invention; Figure 6 A three-dimensional perspective view of the atomizing mechanism structure of this invention is shown. Figure 7 A three-dimensional perspective view of the top structure of the atomizing unit component of this invention; Figure 8 A detailed three-dimensional diagram illustrating the structure of the switching component of this invention; Figure 9 The right side shows a three-dimensional perspective view illustrating the structure of the atomizing mask assembly and storage assembly of the present invention.

[0021] In the diagram: 1. Folding mechanism; 11. Lower housing assembly; 111. Housing; 112. Compartment layer; 12. Folding flap; 13. Protective assembly; 131. Cover; 132. Lock; 2. Spare battery compartment; 3. Switching assembly; 31. Charging channel; 32. Switching port; 33. Charging port; 4. Indicator light; 5. Circuit board; 6. Atomizing mechanism; 61. Airway adapter; 62. Atomizing unit assembly; 621. Atomizing cover; 622. Ultrasonic atomizing plate; 63. Atomizing chamber; 64. Folding tube; 65. Delivery tube; 7. Atomizing mask assembly; 71. Connecting pipe port; 72. Folding cover; 8. Microprocessor; 9. Storage assembly; 91. Mask storage chamber; 92. Folding cover; 93. Chamber; 10. Control switch. Detailed Implementation

[0022] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention. Example 1:

[0023] like Figures 1-5 As shown, a foldable dual-mode powered children's nebulizer includes a folding mechanism 1. The folding mechanism 1 includes a lower housing assembly 11, a folding flap 12, and a protective assembly 13. The folding flap 12 is disposed at the top rear end of the lower housing assembly 11, and the top end of the folding flap 12 is connected to the rear end of the protective assembly 13. The lower housing assembly 11 and the rear end of the folding flap 12 are rotatably connected through the folding flap 12. The lower housing assembly 11 includes a housing 111 and a partition layer 112, which is disposed in the inner partition of the housing 111. The protective assembly 13 includes a cover 131 and a latch 132, which is disposed at the top front of the cover 131. In the first step, the operator holds the cover 131 of the protective component 13 in the folding mechanism 1, releases the locking state of the front latch 132 at the top of the cover 131, and then flips the cover 131 upward with the folding page 12 as the rotation axis, so that the lower housing component 11 and the cover 131 can be unfolded from 0° to 180°, revealing the core components such as the atomizing mechanism 6 and the indicator light 4 inside; the housing 111 of the lower housing component 11 is divided into multiple internal compartments by the partition layer 112, which respectively realizes the partition storage and positioning of components such as the spare battery compartment 2, the switching component 3, the circuit board 5, and the atomizing mechanism 6, so as to avoid mutual interference between the components when they are working.

[0024] like Figures 1-3 , Figure 8 and Figure 9 As shown, a spare battery compartment 2 is located at the upper left end of the interior of the folding mechanism 1, and a switching component 3 is located at the bottom of the interior of the folding mechanism 1. The switching component 3 includes a charging channel 31, a switching port 32, and a charging port 33. The charging port 33 is located at the bottom front end of the folding mechanism 1, the charging channel 31 is located at the right end of the switching port 32, and the charging port 33 is located at the outer port of the switching port 32. Current enters the charging channel 31 through the switching port 32 of the switching component 3, and is transmitted to the circuit board 5 through the charging channel 31. The circuit board 5 then distributes the current to various power-consuming components (microprocessor 8, atomizing mechanism 6, indicator light 4, etc.). At the same time, excess current can charge the spare battery in the spare battery compartment 2. At this time, the indicator light 4 will light up the corresponding charging status indicator light to indicate that the current mode is AC power supply + charging mode.

[0025] like Figures 3-7 and Figure 9As shown, an indicator light 4 is provided on the left side wall of the folding mechanism 1, a circuit board 5 is provided on the right side of the interior of the folding mechanism 1, and an atomizing mechanism 6 is provided in the middle of the interior of the folding mechanism 1. The spare battery compartment 2, the switching component 3, the circuit board 5 and the atomizing mechanism 6 are all located inside the lower housing assembly 11, and the atomizing mechanism 6 is located between the spare battery compartment 2 and the circuit board 5.

[0026] The top of the atomizing mechanism 6 penetrates the middle of the inner top of the folding mechanism 1. The atomizing mechanism 6 includes an airway adapter 61, an atomizing unit assembly 62, an atomizing chamber 63, a folding tube 64, and a delivery tube 65. The airway adapter 61 is located at the top of the atomizing unit assembly 62, the atomizing chamber 63 is located at the bottom of the atomizing unit assembly 62, the folding tube 64 is located at the bottom of the atomizing chamber 63, and the delivery tube 65 is located at the bottom of the folding tube 64. The atomizing unit assembly 62 includes an atomizing cover 621 and an ultrasonic atomizing plate 622. An ultrasonic nebulizer 622 is disposed inside the nebulizer cover 621. The microprocessor 8 controls the circuit board 5 to supply power to the nebulizer unit assembly 62 of the nebulizer mechanism 6. The ultrasonic nebulizer 622 inside the nebulizer unit assembly 62 starts to work, generating high-frequency vibrations to atomize the liquid medicine in the nebulizer chamber 63, forming fine atomized particles of 2-5μm (suitable for children's respiratory tract structure, easy to absorb). The nebulizer cover 621 can protect the ultrasonic nebulizer 622, preventing the liquid medicine from directly impacting the nebulizer and causing damage. Example 2:

[0027] like Figure 3 , Figure 4 and Figure 9 As shown, an atomizing mask assembly 7 is movably installed at the front of the top of the atomizing mechanism 6. The atomizing mask assembly 7 includes a connecting pipe 71 and a folding cover 72. The rear end of the connecting pipe 71 is inserted into the top of the atomizing mechanism 6, and the rear end of the folding cover 72 is fixedly connected to the front end of the connecting pipe 71. The operator injects the liquid medicine into the atomizing chamber 63 of the atomizing mechanism 6, and then inserts the rear end of the connecting pipe 71 of the atomizing mask assembly 7 into the airway adapter 61 at the top of the atomizing mechanism 6 to complete the sealed connection of the atomizing channel.

[0028] like Figure 1 , Figure 2 , Figure 4 and Figure 9As shown, a microprocessor 8 is located on the top left side of the folding mechanism 1. The microprocessor 8 is located to the left of the atomizing mechanism 6. A storage assembly 9 is located on the rear side of the folding mechanism 1. The storage assembly 9 includes a mask storage cavity 91, a folding cover 92, and a partition 93. The mask storage cavity 91 is located on the rear side of the folding mechanism 1. The folding cover 92 is rotatably connected to the top outer end of the mask storage cavity 91. The partition 93 is located inside the mask storage cavity 91. The operator disassembles the atomizing mask assembly 7, cleans it, and puts it into the mask storage cavity 91 of the storage assembly 9. The detachable parts of the atomizing mechanism 6, such as the airway adapter 61 and the atomizing cover 621, are cleaned, disinfected, dried, and then reassembled.

[0029] like Figure 2 and Figure 9 As shown, a control switch 10 is provided on the right side of the folding mechanism 1.

[0030] Working principle: such as Figures 1-9 As shown, before use, the operator first holds the cover 131 of the protective component 13 in the folding mechanism 1, releases the locking state of the front latch 132 at the top of the cover 131, and then flips the cover 131 upward with the folding page 12 as the rotation axis, so that the lower housing component 11 and the cover 131 can be unfolded from 0° to 180°, revealing the core components such as the atomizing mechanism 6 and the indicator light 4 inside; the housing 111 of the lower housing component 11 is divided into multiple internal compartments by the partition layer 112, which respectively realizes the partition storage and positioning of components such as the spare battery compartment 2, the switching component 3, the circuit board 5, and the atomizing mechanism 6, so as to avoid mutual interference between the components when they are working.

[0031] When not in use or when carrying, flip the cover 131 in reverse so that it fits against the top of the lower housing assembly 11, and lock it again with the latch 132 to complete the folding and storage. At this time, the cover 131 can protect the internal components from dust and impact. At the same time, the atomizing mask assembly 7 can be disassembled and placed into the mask storage cavity 91 of the storage assembly 9 on the rear side of the folding mechanism 1. The partition 93 inside the mask storage cavity 91 can divide the folding cover 72 and the connecting pipe 71 into sections. After placement, close the folding cover 92 to achieve orderly storage of accessories and avoid loss or damage.

[0032] The operator inserts the external charging cable into the charging port 33 at the bottom front of the folding mechanism 1. The current enters the charging channel 31 through the switching port 32 of the switching component 3, and is transmitted to the circuit board 5 through the charging channel 31. The circuit board 5 then distributes the current to each power-consuming component (microprocessor 8, atomizing mechanism 6, indicator light 4, etc.). At the same time, the excess current can charge the backup battery in the backup battery compartment 2. At this time, the indicator light 4 will light up the corresponding charging status indicator, indicating that the current mode is AC power supply + charging mode.

[0033] When the external mains power is disconnected, the switching port 32 of the switching component 3 will automatically detect the change in power supply status and quickly switch to the backup battery power supply mode. The battery in the backup battery compartment 2 supplies power to each electrical component through the circuit board 5. The indicator light 4 will switch to the battery power supply status indicator light at the same time. The operator can intuitively judge the current power supply mode and the remaining battery power through the indicator light 4. The entire switching process is controlled by the circuit board 5 and the microprocessor 8 in a coordinated manner without any power outage gap, ensuring that the atomization process is not interrupted.

[0034] Controlled by the microprocessor 8, the liquid medicine is atomized and delivered through the nebulizer 6, and finally inhaled by the child through the nebulizer mask assembly 7. First, the operator injects the liquid medicine into the nebulizer chamber 63 of the nebulizer 6, and then inserts the rear end of the connecting pipe 71 of the nebulizer mask assembly 7 into the airway adapter 61 at the top of the nebulizer 6 to complete the sealed connection of the nebulizer channel. Then, the operator presses the control switch 10 on the right side of the folding mechanism 1, and the control signal is transmitted to the microprocessor 8, which starts the nebulization program.

[0035] After nebulization is started, the microprocessor 8 controls the circuit board 5 to supply power to the nebulization unit assembly 62 of the nebulization mechanism 6. The ultrasonic nebulizer 622 in the nebulization unit assembly 62 starts to work, generating high-frequency vibration to nebulize the liquid medicine in the nebulization chamber 63, forming fine 2-5μm nebulized particles (adapted to the respiratory structure of children and easy to absorb). The nebulization cover 621 can protect the ultrasonic nebulizer 622 to prevent the liquid medicine from directly impacting the nebulizer and causing damage. The nebulized particles generated by nebulization flow upward under air pressure and enter the connecting port 71 of the nebulization mask assembly 7 through the airway adapter 61. Then, the connecting port 71 is transmitted to the folding mask 72. After the child puts on the folding mask 72, he / she can inhale the nebulized particles for treatment. Meanwhile, the folded tube 64 in the nebulizer 6 works in conjunction with the delivery tube 65 to assist in the delivery and flow of the medication in the nebulizer chamber 63. The folded tube 64 can bend synchronously with the folding action of the folding mechanism 1 without affecting the delivery of the medication and the patency of the airway. The microprocessor 8 can monitor the nebulization process in real time and adjust the working power of the ultrasonic nebulizer 622 through the circuit board 5, thereby adjusting the nebulization volume to meet the treatment needs of children of different ages.

[0036] During operation, the indicator light 4 will provide real-time feedback on the working status of the equipment. If abnormalities occur, such as low backup battery power or insufficient liquid in the atomizing chamber 63, the microprocessor 8 will immediately control the atomizing mechanism 6 to stop and will flash the corresponding fault indicator light on the indicator light 4 to remind the operator to handle the situation in time and ensure safe use.

[0037] After the nebulization treatment is completed, the operator presses the control switch 10 again. The microprocessor 8 receives the shutdown signal, and the control circuit board 5 cuts off the power supply to the nebulization mechanism 6. The ultrasonic nebulizer 622 stops working, and the nebulization process ends. Subsequently, the operator disassembles the nebulizer mask assembly 7, cleans it, and places it into the mask storage cavity 91 of the storage assembly 9. The detachable parts of the nebulization mechanism 6, such as the airway adapter 61 and the nebulizer cover 621, are cleaned, disinfected, dried, and then reassembled. Finally, if the mains power supply mode is used, the charging cable is unplugged, the cover 131 of the folding mechanism 1 is closed, and the lock is engaged with the latch 132 to complete the reset and storage of the equipment, ready for the next use.

Claims

1. A foldable dual-mode powered children's nebulizer, comprising a folding mechanism (1), characterized in that: The folding mechanism (1) includes a lower housing assembly (11), a folding page (12), and a protective assembly (13). The rear ends of the lower housing assembly (11) and the folding page (12) are rotatably connected through the folding page (12), so that the protective assembly (13) can be rotated and opened and closed around the folding page (12) from 0° to 180°. The upper left end of the folding mechanism (1) is provided with a spare battery compartment (2), the bottom end of the folding mechanism (1) is provided with a switching component (3), the left side wall of the folding mechanism (1) is provided with an indicator light (4), the right end of the folding mechanism (1) is provided with a circuit board (5), and the middle part of the folding mechanism (1) is provided with an atomizing mechanism (6). The atomizing mechanism (6) includes an airway adapter (61), an atomizing unit assembly (62), an atomizing chamber (63), a folded tube (64), and a delivery tube (65). The folded tube (64) is made of a flexible sealing material and can bend synchronously with the flipping and opening of the folding mechanism (1) while keeping the airway unobstructed. The atomizing mechanism (6) is located between the spare battery compartment (2) and the circuit board (5). The top of the atomizing mechanism (6) penetrates the middle of the top of the folding mechanism (1). An atomizing mask assembly (7) is movably installed on the front of the top of the atomizing mechanism (6). The atomizing mask assembly (7) includes a connecting pipe (71) and a folding cover (72). The rear end of the connecting pipe (71) is inserted into the top of the atomizing mechanism (6), and the rear end of the folding cover (72) and the front end of the connecting pipe (71) are fixedly connected. A microprocessor (8) is provided on the left side of the top of the folding mechanism (1). The microprocessor (8) is located to the left of the atomizing mechanism (6). A storage component (9) is provided on the rear side of the folding mechanism (1). A control switch (10) is provided on the right side of the folding mechanism (1).

2. A foldable dual-mode powered children's nebulizer according to claim 1, characterized in that: The spare battery compartment (2), the switching component (3), the circuit board (5) and the atomizing mechanism (6) are all located inside the lower housing assembly (11).

3. A foldable dual-mode powered children's nebulizer according to claim 2, characterized in that: The folding page (12) is disposed at the top rear end of the lower housing assembly (11), and the top end of the folding page (12) is connected to the rear end of the protective assembly (13).

4. A foldable dual-mode powered children's nebulizer according to claim 2, characterized in that: The lower housing assembly (11) includes a housing (111) and a partition layer (112), the partition layer (112) being disposed in the inner compartment of the housing (111).

5. A foldable dual-mode powered children's nebulizer according to claim 2, characterized in that: The protective component (13) includes a cover (131) and a latch (132), the latch (132) being disposed at the top front of the cover (131).

6. A foldable dual-mode powered nebulizer for children according to claim 1, characterized in that: The switching component (3) includes a charging channel (31), a switching port (32) and a charging port (33), wherein the charging port (33) is located at the bottom front end of the folding mechanism (1).

7. A foldable dual-mode powered nebulizer for children according to claim 6, characterized in that: The charging channel (31) is located at the right end of the switching port (32), and the charging port (33) is located at the outer port of the switching port (32).

8. A foldable dual-mode powered children's nebulizer according to claim 1, characterized in that: The airway adapter (61) is located at the top of the atomizing unit assembly (62), the atomizing chamber (63) is located at the bottom of the atomizing unit assembly (62), the folded tube (64) is located at the bottom of the atomizing chamber (63), and the delivery tube (65) is located at the bottom of the folded tube (64).

9. A foldable dual-mode powered child nebulizer according to claim 8, characterized in that: The atomizing unit assembly (62) includes an atomizing cover (621) and an ultrasonic atomizing plate (622), wherein the ultrasonic atomizing plate (622) is disposed inside the atomizing cover (621).

10. A foldable dual-mode powered nebulizer for children according to claim 1, characterized in that: The storage component (9) includes a mask storage cavity (91), a folding cover (92), and a partition (93). The mask storage cavity (91) is located on the rear side of the folding mechanism (1). The folding cover (92) is rotatably connected to the top outer end of the mask storage cavity (91). The partition (93) is located inside the mask storage cavity (91).

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