Portable atomizer

Abstract

The portable atomizer comprises an atomizer body, the atomizer body is provided with an electronic display screen, idler wheels, a switch button, an air inlet grille, a hose connector, a medicine injection opening, a front shell and an inner shell, the front shell is provided with a sliding cover and a storage bin, and the inner shell is fixedly provided with a control module, a power source, an air filtering module, a temperature control module, an ultrasonic generator and a liquid medicine cavity. The air filtering module is fixed to the side close to the air inlet grille and connected with the temperature control module through the one-way air valve, the draught fan is fixed between the air filtering module and the temperature control module, the temperature control module is connected with the L-shaped one-way buffering backflow pipe, the other end of the L-shaped one-way buffering backflow pipe enters the liquid medicine cavity, and the ultrasonic generator is arranged on one side of the liquid medicine cavity. A transducer is arranged at the bottom of the liquid medicine cavity, is connected with an ultrasonic generator and is started to atomize liquid medicine in the liquid medicine cavity; due to the compact internal structure, the device is light, small and exquisite, is suitable for being carried about, and supports atomization treatment anytime and anywhere.

Description

Technical Field

[0001] The utility model relates to the technical field of medical equipment, in particular to a portable atomizer. Background Art

[0002] Nowadays, nebulized inhalation therapy is widely used. Nebulized therapy atomizes the drug liquid into tiny particles. By inhaling the atomized drug, the patient can more directly and quickly act on the respiratory tract and improve the symptoms.

[0003] Currently, nebulizers on the market can be categorized into two types: desktop and portable. Despite their numerous advantages, portable nebulizers still present several key challenges: Their complex internal structure results in a bulky design, making them difficult for patients to carry around and use at all times. Furthermore, the need for patients to constantly hold the nebulizer mask during nebulization can lead to hand fatigue, and handheld nebulizer masks lack a storage cavity, making them susceptible to bacterial growth and infection, potentially impacting patient health.

[0004] In view of these problems, the existing technology is in urgent need of improvement. The utility model provides a portable medical nebulizer that performs excellently in terms of atomization effect, endurance, and ease of operation. Utility Model Content

[0005] The purpose of the present invention is to overcome the shortcomings and deficiencies of the prior art and to provide a portable atomizer that solves the problems raised in the above-mentioned background technology by providing a reasonably arranged internal structure of the atomizer body.

[0006] To achieve the above objectives, the present invention provides the following technical solutions:

[0007] A portable nebulizer comprises a nebulizer body, which is fixed to the patient through buckles at both ends of a shoulder strap. The outer surface of the nebulizer body is provided with an electronic display screen showing nebulization parameters, a roller for adjusting the nebulization rate, a switch button for controlling the power supply of the nebulizer, an air intake grille provided on the side wall of the nebulizer body, a hose interface and a medicine injection port. The nebulizer body also comprises a front shell and an inner shell. The front shell is provided with a sliding cover and a storage bin. The sliding cover is used to open the storage bin. The storage bin is a closed space. When the nebulizer is carried, a breathing mask and a connecting hose are placed in the storage bin. The inner shell fixes the control module, power supply, air filter and the like inside the nebulizer body. module, a temperature control module, an ultrasonic generator and a medicine liquid chamber, the air filter module is fixed on one side close to the air intake grille, the air filter module is connected to the temperature control module through a one-way air valve, a fan is fixed between the air filter module and the temperature control module, the top of the temperature control module is connected with an L-shaped one-way buffer backflow pipe, the other end of the L-shaped one-way buffer guide pipe enters the medicine liquid chamber, the medicine liquid chamber is connected with a medicine injection port and a mist outlet, the mist outlet is connected with a hose interface, the ultrasonic generator is arranged on one side of the medicine liquid chamber, a transducer is arranged at the bottom of the medicine liquid chamber, the transducer is connected to the ultrasonic generator and started to atomize the medicine in the medicine liquid chamber.

[0008] Furthermore, air enters the air filter module from the air intake grille, and the purified air enters the one-way air valve and flows in one direction to the inside of the temperature control module. After reaching the set temperature, the air enters the medicine liquid chamber from the L-shaped one-way buffer guide pipe under the action of the fan, and the atomized medicine liquid in the medicine liquid chamber is brought out from the mist outlet.

[0009] Furthermore, one end of the L-shaped one-way buffer guide tube entering the liquid medicine chamber is set as a one-way valve, and air can only enter the liquid medicine chamber from the L-shaped one-way buffer guide tube, and cannot enter the L-shaped one-way buffer guide tube in the opposite direction from the liquid medicine chamber.

[0010] Furthermore, the hose interface is connected to the external connecting hose and the breathing mask, and the breathing mask is provided with an elastic band. The patient wears the elastic band to fix the breathing mask on the face to perform atomization treatment.

[0011] Furthermore, a power supply is fixed on the other side of the air filtration module, and the power supply supplies power to the air module, temperature control module, fan, control module, electronic display screen and ultrasonic module. The inner shell and the atomizer body are reserved with a USB Type C interface to charge the power supply.

[0012] Furthermore, a water baffle is provided at the connection between the medicine liquid chamber and the mist outlet to prevent the medicine liquid from spraying out.

[0013] Furthermore, the medicine injection port is covered by a sealing cover, and the hose interface is covered by a mist outlet cover.

[0014] As a preferred solution, the air filtration module comprises an activated carbon filter layer and a HEPA filter layer.

[0015] Compared with the prior art, the beneficial effects of the present invention are:

[0016] In the present invention, the front housing is provided with a sliding cover and a storage bin, the sliding cover is used to open the storage bin, the storage bin is a closed space, and the breathing mask and the connecting hose are placed in the storage bin when the nebulizer is carried; in order to prevent the breathing mask and the connecting hose from being exposed and breeding bacteria and causing infection, the nebulizer of the present invention is provided with a special storage chamber to ensure that the device does not come into contact with the outside world and cause infection, thereby ensuring that the device is clean and hygienic; secondly, the present invention fixes the air filter module on the side close to the air intake grille, and the air filter module is connected to the temperature control module through a one-way air valve, A fan is fixed between the air filtration module and the temperature control module, the top of the temperature control module is connected to an L-shaped one-way buffer backflow pipe, the other end of the L-shaped one-way buffer guide pipe enters the medicine liquid chamber, the medicine liquid chamber is connected to a medicine injection port and a mist outlet, the mist outlet is connected to a hose interface, the ultrasonic generator is arranged on one side of the medicine liquid chamber, and a transducer is arranged at the bottom of the medicine liquid chamber; the compact internal structure of the nebulizer of the utility model makes the device light and compact, the design is ergonomic, suitable for carrying, supports nebulization treatment anytime and anywhere, frees hands and is suitable for more usage scenarios. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0018] Figure 2 This is an exploded view of the overall structure of the utility model;

[0019] Figure 3 This is a cross-sectional view of the overall structure of the utility model;

[0020] Figure 4 for Figure 3 A partial enlarged view of point A in the middle;

[0021] In the figure: 1. Elastic band; 2. Breathing mask; 3. Connecting hose; 4. Hose interface; 5. Switch button; 6. Roller; 7. Mist outlet cover; 8. Sealing cover; 9. Strap; 10. Buckle; 11. Atomizer body; 12. Inner shell; 13. Air intake grille; 14. Sliding cover; 15. Electronic display; 16. Front shell; 17. Control module; 18. Power supply; 19. Air filter module; 20. Temperature control module; 21. L-shaped one-way buffer guide tube; 22. Ultrasonic module; 23. Liquid medicine tank; 24. Working water level diagram; 25. Storage tank; 26. Mist outlet; 27. Water retaining plate; 28. Injection port; 29. ​​USB Type C interface; 30. Fan; 31. Ultrasonic generator; 32. Transducer; 33. Liquid chamber; 34. Air outlet; 35. One-way air valve; 36. Schematic diagram of air duct flow direction. DETAILED DESCRIPTION

[0022] The present invention will be described in further detail below with reference to the embodiments and drawings, but the embodiments of the present invention are not limited thereto.

[0023] See also Figure 1-4 , this embodiment provides a technical solution:

[0024] A portable nebulizer includes a nebulizer body 11, which is fixed to the patient through buckles 10 at both ends of a shoulder strap 9. The outer surface of the nebulizer body 11 is provided with an electronic display screen 15 for displaying nebulization parameters, a roller 6 for adjusting the nebulization rate, a power supply 18 for controlling the nebulizer, an air intake grille 13, a hose interface 4 and a drug injection port 28 arranged on the side wall of the nebulizer body 11. The nebulizer body 11 also includes a front shell 16 and an inner shell 12. The front shell 16 is provided with a sliding cover 14 and a storage bin 25. The sliding cover 14 is used to open the storage bin 25. The storage bin 25 is a closed space. When the nebulizer is carried, the breathing mask 2 and the connecting hose 3 are placed in the storage bin 25; the inner shell 12 fixes the control module 17, the power supply 18, and the air filter module inside the nebulizer body 11. 19, temperature control module 20, ultrasonic generator 31 and liquid medicine chamber 33, the air filter module 19 is fixed on one side close to the air intake grille 13, the air filter module 19 is connected to the temperature control module 20 through a one-way air valve 35, a fan 30 is fixed between the air filter module 19 and the temperature control module 20, the top of the temperature control module 20 is connected with an L-shaped one-way buffer backflow pipe, the other end of the L-shaped one-way buffer guide pipe 21 enters the liquid medicine chamber 33, the liquid medicine chamber 33 is connected to the medicine injection port 28 and the mist outlet 26, the mist outlet 26 is connected to the hose interface 4, the ultrasonic generator 31 is arranged on one side of the liquid medicine chamber 33, and a transducer 32 is arranged at the bottom of the liquid medicine chamber 33, the transducer 32 is connected to the ultrasonic generator and starts to atomize the liquid medicine in the liquid medicine chamber 33.

[0025] In this embodiment, the front shell 16 is provided with a sliding cover 14 and a storage bin 25. The sliding cover 14 is used to open the storage bin 25. The storage bin 25 is a closed space. When the nebulizer is carried, the breathing mask 2 and the connecting hose 3 are placed in the storage bin 25. In order to avoid the breathing mask 2 and the connecting hose 3 from being exposed and breeding bacteria to cause infection, the nebulizer of this embodiment is provided with a special storage chamber to ensure that the equipment does not come into contact with the outside world and cause infection, thereby ensuring that the equipment is clean and hygienic. Secondly, in this embodiment, the air filter module 19 is fixed on one side close to the air intake grille 13. The air filter module 19 is connected to the temperature control module 20 through a one-way air valve 35. A fan 30 is fixed between the air filtration module 19 and the temperature control module 20. The top of the temperature control module 20 is connected to an L-shaped one-way buffer backflow pipe. The other end of the L-shaped one-way buffer guide pipe 21 enters the medicine liquid chamber 33. The medicine liquid chamber 33 is connected to the medicine injection port 28 and the mist outlet 26. The mist outlet 26 is connected to the hose interface 4. The ultrasonic generator 31 is arranged on one side of the medicine liquid chamber 33, and a transducer 32 is arranged at the bottom of the medicine liquid chamber 33. The compact internal structure of the nebulizer of this embodiment makes the device light and compact, and the design is ergonomic, suitable for carrying, supporting nebulization treatment anytime and anywhere, freeing your hands and suitable for more usage scenarios.

[0026] In this embodiment, air enters the air filter module 19 from the air intake grille 13, and the purified air enters the one-way air valve 35 and flows in one direction to the interior of the temperature control module 20. After reaching the set temperature, the air enters the liquid medicine chamber 33 from the L-shaped one-way buffer guide tube 21 under the action of the fan 30, and the atomized liquid medicine in the liquid medicine chamber 33 is taken out from the mist outlet 26; Figure 3 and Figure 4 As shown, Figure 3 The black arrows in the figure indicate the air flow direction, and the specific path of air flow is: air intake grille 13 → air filter module 19 (activated carbon filter layer and HEPA filter layer) → one-way air valve 35 → temperature control module 20 → L-shaped one-way buffer guide tube 21 → liquid medicine chamber 33 → mist outlet 26 → hose interface 4 → connecting hose 3 → breathing mask 2 → patient's mouth. Figure 4 The black dotted arrow in the figure is a schematic diagram 36 of the air duct flow direction, and the points arranged horizontally in the liquid chamber 33 are a schematic diagram 24 of the working water level.

[0027] In this embodiment, one end of the L-shaped one-way buffer guide tube 21 entering the liquid medicine chamber 33 is set as a one-way valve, so that air can only enter the liquid medicine chamber 33 from the L-shaped one-way buffer guide tube 21, and cannot enter the L-shaped one-way buffer guide tube 21 from the liquid medicine chamber 33 in the reverse direction; Figure 3 and Figure 4As shown, the L-shaped one-way buffer guide tube 21 in the figure enters one end of the liquid medicine chamber 33, that is, the air outlet 34 in the figure. A baffle is provided between the air outlet 34 and the mist outlet 26, so that the air duct is closer to the atomized liquid medicine, and the atomized liquid medicine is fully brought out from the mist outlet 26; similarly, a baffle is also provided between the drug injection port 28 and the mist outlet 26, so that the liquid medicine entering the liquid medicine chamber 33 can flow completely to the bottom of the liquid medicine chamber 33.

[0028] To further facilitate the use of patients, the hose interface 4 is connected to the connecting hose 3 and is connected to the breathing mask 2. The breathing mask 2 is provided with an elastic elastic band 1. The patient fixes the breathing mask 2 to the face by wearing the elastic elastic band 1 to perform atomization treatment; thus, the patient does not need to use his hands to maintain the fixed atomizer mask when in use, thereby freeing the patient's hands and solving the limitations of the existing portable atomizer usage scenarios; in addition, this embodiment is fixed to the rear side of the atomizer body 11 through a shoulder strap 9, and the tightness of both ends of the shoulder strap 9 can be adjusted. The entire atomizer can be fixed to the patient's waist or chest by hanging it around the waist or carrying it diagonally, which is further convenient for the patient to carry and completely frees his hands; in addition, the sliding cover 14 of this embodiment is fixed to the middle of the front shell 16 by a slide rail structure, and can be slid horizontally according to the arrow indication on the surface to open and close the storage bin 25. The storage bin 25 is used to store spare medicines, the breathing mask 2 and the connecting hose 3, ensuring the hygiene of the equipment while further facilitating the patient to carry it outside.

[0029] In this embodiment, a power supply 18 is fixed to the other side of the air filtration module 19, and the power supply 18 supplies power to the air module, temperature control module 20, fan 30, control module 17, electronic display screen 15 and ultrasonic module 22. The inner shell 12 and the atomizer body 11 are reserved with a USB TypeC interface 29 to charge the power supply 18; specifically, the power supply 18 provides stable power support for the control module 17, temperature control module 20, air filtration module 19, ultrasonic module 22, fan 30 and electronic display screen 15 through the internal circuit. The power supply 18 is connected to the USB TypeC interface 2929 to facilitate charging and power maintenance of the equipment.

[0030] The physical connections in this embodiment are as follows: the temperature control module 20, ultrasonic generator 31, and transducer 32 are all electrically connected to the control module 17 via wires, ensuring stable and accurate signal transmission. The electronic display 15 also communicates with the control module 17 via electrical connections, ensuring rapid response to user input. In the physical circuit design, all modules share power provided by the power supply 18. Through rational circuit routing, efficient collaboration between modules is achieved.

[0031] The program logic of this embodiment is as follows: the control program is stored in the control module 17, which sets the default parameters of each module (such as the default temperature and atomization rate) during initialization. After the user inputs information through the electronic display 15, the control module 17 adjusts the operating status of the corresponding module (such as adjusting the speed of the fan 30 and changing the operating frequency of the ultrasonic module 22) according to the preset logic algorithm.

[0032] It should be emphasized that the control relationship between the control module 17 and each module in this embodiment is the existing public content. This embodiment does not make any improvements or innovations. It is within the knowledge of those skilled in the art based on the content of the embodiment. The control relationship and connection relationship between the control module 17 and other modules are further explained below:

[0033] Relationship between control module 17 and function buttons: Control module 17 interacts with the device's physical function buttons (such as the switch button 5 and the scroll wheel 6) through electrical connections. These button interfaces convert the user's physical operation signals into digital signals for recognition and processing by control module 17.

[0034] Key function realization:

[0035] (1) Switch button 5: When the user presses the switch button 5, an on / off instruction is sent to the control module 17. The control module 17 controls the power supply 18 to be connected or disconnected according to the signal, thereby realizing the overall start / stop control of the device.

[0036] (2) Roller 6: The rotation of the roller 6 is captured by the built-in sensor and converted into a regulation signal, which is transmitted to the control module 17. The control module 17 adjusts the power output of the fan 30 according to the rotation direction and amplitude of the roller 6, thereby changing the atomization rate.

[0037] (3) Feedback mechanism: After each key operation, the control module 17 will feedback the current device status through the electronic display screen 15, including: the power supply 18 on status, current atomization rate, atomization time, air temperature, atomization countdown, atomization rate input, timed atomization, and temperature adjustment input operations, so that the user can understand the working status of the device in real time.

[0038] Relationship between control module 17 and temperature control module 20: Control module 17 controls the operating state of temperature control module 20 by receiving input instructions (such as temperature setting values) from electronic display 15. Temperature control module 20 adjusts the incoming air temperature according to the instructions of control module 17 to ensure that the mixing of air and liquid medicine achieves the best atomization effect.

[0039] The temperature control module 20 is equipped with temperature sensors for detecting the temperature of the incoming air or the temperature inside the atomization chamber in real time. These sensors send the monitored temperature data to the control module 17.

[0040] Heating element adjustment: Based on the instructions sent by the control module 17, the temperature control module 20 adjusts the output power of the internal heating element to increase or decrease the temperature of the air or the atomization chamber. The heating element of this embodiment adopts a heating wire.

[0041] Feedback control: The temperature control module 20 adopts a closed-loop feedback control system. By continuously comparing the current temperature with the target temperature, the power of the heating element is dynamically adjusted to ensure that the temperature is maintained within the set range.

[0042] Relationship between control module 17, transducer 32, and ultrasonic generator 31: Control module 17 is responsible for activating and adjusting the operating state of ultrasonic module 22. Specifically, control module 17 sends signals to ultrasonic generator 31 to activate or deactivate ultrasonic wave generation and adjusts the operating frequency and power of transducer 32 to optimize the atomized particle size of the liquid medicine.

[0043] The relationship between the control module 17 and the electronic display 15: The electronic display 15 not only displays the current operating status of the device (such as temperature and atomization rate), but also allows the user to input control commands. These input commands are transmitted to the control module 17, which interprets and executes them, enabling the user to precisely control the device.

[0044] In this embodiment, Figure 4 As shown, a water blocking piece 27 is provided at the connection between the liquid medicine chamber 33 and the mist outlet 26 to prevent the liquid medicine from spraying out.

[0045] In this embodiment, the injection port 28 is sealed by a sealing cap 8, and the hose interface 4 is sealed by a mist outlet cover 7. The liquid medicine flows into the liquid medicine chamber 33 through the injection port 28. When the atomizer is activated, the injection port 28 is sealed by the sealing cap 8. The mist outlet cover 7 can slide laterally to control the opening and closing of the mist outlet 26.

[0046] The ultrasonic generator 31 of this embodiment is also conventional technology. Its operating principle is as follows: An ultrasonic atomizer is a device that converts liquid into tiny particles using the principle of ultrasonic vibration. It primarily consists of the ultrasonic generator 31, a vibration system, an atomization chamber, and a control system. The ultrasonic vibration system is the core component of an ultrasonic atomizer, using high-frequency vibration to disperse the liquid into tiny particles and form a mist-like substance. The operating principles of an ultrasonic atomizer primarily include the principles of ultrasonic vibration, liquid atomization, and atomization effect control.

[0047] First, the principle of ultrasonic vibration is the foundation of ultrasonic atomizers' atomization. Ultrasonic waves are sound waves with frequencies exceeding 20kHz. Their high vibration frequency and short wavelength produce a strong vibration effect. The ultrasonic vibration system converts electrical energy into ultrasonic energy, which is then transmitted to the liquid through the vibration system, causing the liquid molecules to vibrate at high frequencies. This high-frequency vibration breaks down the liquid's surface tension, gradually dispersing the liquid molecules into tiny particles. Therefore, ultrasonic vibration is the key to achieving liquid atomization.

[0048] Secondly, the principle of liquid atomization is the physical process achieved by an ultrasonic atomizer. Under the influence of ultrasonic vibrations, liquid molecules are subjected to intense vibrational forces, gradually forming tiny particles. These tiny particles gradually detach from the liquid surface as the ultrasonic vibrations act, forming a mist-like substance. Due to the high frequency of ultrasonic vibrations, the liquid particles are very small, generally between 1 and 100 μm, resulting in a uniform and fine mist.

[0049] In order to further improve the air purification effect, the air filter module 19 is an activated carbon filter layer and a HEPA filter layer.

[0050] The operation steps of this embodiment are as follows:

[0051] S1. Preparation before turning on the atomizer

[0052] S11. Device check: Ensure that the device is clean and intact, check whether the power supply is sufficient, and charge it through the USB Type-C port 29 if necessary.

[0053] S12. Preparation of atomized liquid: prepare an appropriate amount of liquid medicine according to the doctor's prescription, open the sealing cover 8 of the device and pour the liquid medicine into the liquid medicine chamber 33 of the atomizer.

[0054] S13, connecting components: connect the breathing mask 2 to the hose interface 4 of the atomizer body 11 through the connecting hose 3; wear the shoulder strap 9 around the waist or across the chest; then wear the breathing mask 2 on the face through the elastic band 1.

[0055] S2. Start the atomizer

[0056] S21, device startup: Press the device's power button 5, the control module 17 starts the device after receiving the startup signal, and the electronic display screen 15 lights up and displays the current status.

[0057] S22. Temperature and atomization rate settings: Use the scroll wheel 6 to adjust the device's operating parameters. Touch the screen to set the appropriate temperature as needed.

[0058] S23 , start atomization: After confirming the settings, the device starts working. After the air reaches the set temperature through the heating element, it enters the liquid medicine chamber 33 and mixes with the liquid medicine and is atomized by the ultrasonic module 22 .

[0059] S3. Atomization process

[0060] S31, operation monitoring: monitor the current temperature, atomization rate, remaining time and other parameters through the electronic display screen 15, and use the roller 6 to adjust if necessary.

[0061] S32. Breathing instructions: Wear the breathing mask 2 and inhale according to the breathing frequency and depth recommended by the doctor to ensure that the medicine is fully absorbed.

[0062] S4, end atomization

[0063] S41, device shutdown: After atomization is completed, the device is turned off by pressing the switch button 5. Confirm that the electronic display screen 15 shows that the device is turned off.

[0064] S42. Equipment cleaning: Remove the connecting hose 3 and the breathing mask 2, and clean and disinfect them according to the instructions to ensure hygiene and safety for next use.

[0065] S43. Status check: Check the device power and the status of each component, charge and maintain it in time to ensure that the device is always in good condition.

[0066] The above is a preferred embodiment of the present invention, but the embodiment of the present invention is not limited to the above content. Any other changes, modifications, substitutions, combinations, and simplifications that do not deviate from the spirit and principles of the present invention should be considered as equivalent replacement methods and are included in the scope of protection of the present invention.

Claims

1. A portable atomizer, characterized in that: The invention comprises an atomizer body, which is fixed to the patient through buckles at both ends of the shoulder strap. The outer surface of the atomizer body is provided with an electronic display screen showing atomization parameters, a roller for adjusting the atomization rate, a switch button for controlling the power supply of the atomizer, an air intake grille provided on the side wall of the atomizer body, a hose interface and a medicine injection port. The atomizer body also comprises a front shell and an inner shell. The front shell is provided with a sliding cover and a storage bin. The sliding cover is used to open the storage bin. The storage bin is a closed space. When the atomizer is carried, the breathing mask and the connecting hose are placed in the storage bin. The inner shell fixes the control module, power supply, air filter module, temperature control module, etc. inside the atomizer body. module, an ultrasonic generator and a medicine liquid chamber, the air filter module is fixed on one side close to the air intake grille, the air filter module is connected to the temperature control module through a one-way air valve, a fan is fixed between the air filter module and the temperature control module, the top of the temperature control module is connected with an L-shaped one-way buffer backflow pipe, the other end of the L-shaped one-way buffer guide pipe enters the medicine liquid chamber, the medicine liquid chamber is connected with a medicine injection port and a mist outlet, the mist outlet is connected with a hose interface, the ultrasonic generator is arranged on one side of the medicine liquid chamber, a transducer is arranged at the bottom of the medicine liquid chamber, the transducer is connected to the ultrasonic generator and started to atomize the medicine in the medicine liquid chamber.

2. A portable atomizer according to claim 1, characterized in that: Air enters the air filter module from the air intake grille, and the purified air enters the one-way air valve and flows in one direction to the inside of the temperature control module. After reaching the set temperature, the air enters the liquid medicine chamber from the L-shaped one-way buffer guide pipe under the action of the fan, and the atomized liquid medicine in the liquid medicine chamber is brought out from the mist outlet.

3. A portable atomizer according to claim 2, characterized in that: One end of the L-shaped one-way buffer guide tube entering the liquid medicine cavity is set as a one-way valve. Air can only enter the liquid medicine cavity from the L-shaped one-way buffer guide tube, and cannot enter the L-shaped one-way buffer guide tube in the reverse direction from the liquid medicine cavity.

4. The portable atomizer according to claim 1, characterized in that: The hose interface is connected to the breathing mask through the connecting hose. The breathing mask is provided with an elastic band. The patient wears the elastic band to fix the breathing mask on the face to perform atomization treatment.

5. The portable atomizer according to claim 1, characterized in that: A power supply is fixed on the other side of the air filtration module, which supplies power to the air module, temperature control module, fan, control module, electronic display screen and ultrasonic module. The inner shell and the atomizer body are reserved with USB Type-C interfaces for charging the power supply.

6. The portable atomizer according to claim 1, characterized in that: A water baffle is provided at the connection between the medicine liquid chamber and the mist outlet to prevent the medicine liquid from spraying out.

7. The portable atomizer according to claim 1, characterized in that: The medicine injection port is sealed by a sealing cover, and the hose interface is sealed by a mist outlet cover.

8. The portable atomizer according to claim 1, characterized in that: The air filter module comprises an activated carbon filter layer and a HEPA filter layer.

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