A medical compression atomizer

Abstract

The present invention discloses a medical compression type atomizer, comprising a main unit component, an air heater, a double-row air guide tube with wires and an atomizer cup. The main unit component comprises a main unit housing, a micro air compressor, a power circuit board, a control circuit board and a solenoid valve. An atomizer heating chamber is sealed between the bottom of the atomizer cup and the inner upper part of the air heater. The air heater is connected to the atomizer heating chamber. A temperature sensor is arranged in the atomizer heating chamber. The air heater is connected to the control circuit board through the double-row air guide tube with wires. The micro air compressor is connected to the air heater through the double-row air guide tube with wires. The outlet end of the micro air compressor is connected to the solenoid valve. The double-row air guide tube with wires is releasably connected to the micro air compressor through the solenoid valve. The liquid medicine is arranged at the bottom of the atomizer cup. The medical compression type atomizer of the present invention can prevent patients from inhaling atomized liquid medicine with reduced temperature during atomization treatment in a room temperature wet and cold environment, and the patient can enjoy a comfortable temperature atomization treatment process.

Description

Technical Field

[0001] The invention relates to a medical compression type atomizer, in particular to a medical compression type atomizer for heating atomized medicine liquid. Background Art

[0002] Compared with the traditional method of taking medicine to treat asthma and other respiratory diseases, medical nebulizers atomize the liquid medicine into tiny particles, and the medicine enters the respiratory tract and lungs through inhalation, thus achieving painless, rapid and effective treatment. Medical nebulizers are mainly used to treat various upper and lower respiratory system diseases, such as colds, fever, cough, asthma, sore throat, pharyngitis, rhinitis, bronchitis, pneumoconiosis and other diseases occurring in the trachea, bronchi, alveoli and chest cavity. At present, there are three types of medical nebulizers: compression nebulizer, ultra-thin nebulizer, and ultra-thin nebulizer. Sonic nebulizer, mesh nebulizer, and compression nebulizer use compressed air to form a high-speed airflow through a small tube. The negative pressure generated drives the liquid medicine to be sprayed onto the obstacle. Under the high-speed impact, the droplets splash around and become atomized particles that are ejected from the outlet pipe. Regardless of the type of nebulizer, all of them will use the atomized liquid medicine at the same temperature as the room temperature for atomization treatment. In winter, when the room temperature is very low or in a humid and cold environment, the patient will inhale the atomized liquid medicine at a very low temperature, which will irritate the throat and cause discomfort, and the treatment effect will also be reduced. Summary of the invention

[0003] The present invention is completed to solve the deficiencies in the prior art. The purpose of the present invention is to provide a medical compression nebulizer that can prevent patients from inhaling low-temperature nebulized liquid medicine when performing nebulization treatment at very low room temperature or in a humid and cold environment, prevent the nebulized liquid medicine from irritating the patient's throat and causing discomfort, improve the treatment effect, and enable patients to enjoy a nebulization treatment process with a comfortable temperature.

[0004] A medical compression atomizer of the present invention comprises a main unit component, an air heater, a double-row air guide tube with a wire and an atomizer cup. The main unit component comprises a main unit housing, a micro air compressor, a power supply circuit board, a control circuit board and a solenoid valve. The micro air compressor, the power supply circuit board, the control circuit board and the solenoid valve are all fixed in the main unit housing. The atomizer cup is releasably plugged into an interface inside the upper end of the air heater. An atomizer heating chamber is sealed between the bottom of the atomizer cup and the upper inner portion of the air heater. The air heater is connected to the atomizer heating chamber. The atomizer heating chamber is provided with a A temperature sensor is arranged, and the temperature sensor is connected to the control circuit board. The air heater is connected to the control circuit board through a double-row air duct with wires, the micro air compressor is connected to the control circuit board, and the micro air compressor is connected to the air heater through the double-row air duct with wires, the outlet end of the micro air compressor is connected to the solenoid valve, and the double-row air duct with wires is releasably connected to the micro air compressor through the solenoid valve, the control circuit board is connected to the power supply circuit board, the medicine liquid is arranged at the bottom of the atomizer cup, and the power supply circuit board is releasably connected to the external power supply.

[0005] A medical compression atomizer of the present invention may also be:

[0006] A quartz precision heating tube is arranged inside the air heater, the upper side of the quartz precision heating tube is connected to the atomizing and heating chamber, and the lower side of the quartz precision heating tube is connected to the micro air compressor and the control circuit board through a double row of wired air guide tubes.

[0007] The double-row wired air duct includes a silicone air duct and a silicone conduit for accommodating wires. The air heater is connected to the control circuit board via the wires, and the micro air compressor is connected to the quartz precision heating tube via the silicone air duct.

[0008] The wire is located in the silicone tube, and the wire and the silicone tube are formed by injection molding.

[0009] A first double-row air guide interface with wires is provided at the lower end of the air heater, and a second double-row air guide interface with wires is provided at the main engine housing. The silicone air guide tube, the silicone conduit and one end of the wire are connected to the air heater through the first double-row air guide interface, and the silicone air guide tube, the silicone conduit and the other end of the wire are respectively connected to the corresponding micro air compressor and the corresponding control circuit board through the second double-row air guide interface.

[0010] A heat-insulating layer is provided between the quartz precision heating tube and the air heater.

[0011] A sealing ring is arranged between the quartz precision heating tube and the atomizing and heating chamber, and the atomizing and heating chamber is sealed between the bottom of the atomizing cup and the upper inner part of the air heater through the sealing ring.

[0012] The host housing is provided with a power switch and a power cord, the power cord is releasably connected to an external power source, the power switch is connected to a power circuit board, and the power circuit board is releasably connected to the power cord via the power switch.

[0013] A medical compression atomizer of the present invention comprises a main unit component, an air heater, a double-row air guide tube with a wire and an atomizer cup. The main unit component comprises a main unit housing, a micro air compressor, a power supply circuit board, a control circuit board and a solenoid valve. The micro air compressor, the power supply circuit board, the control circuit board and the solenoid valve are all fixed in the main unit housing. The atomizer cup is releasably plugged into an interface inside the upper end of the air heater. An atomizer heating chamber is sealed between the bottom of the atomizer cup and the upper inner portion of the air heater. The air heater is connected to the atomizer heating chamber. The atomizer heating chamber is provided with a A temperature sensor is arranged, and the temperature sensor is connected to the control circuit board. The air heater is connected to the control circuit board through a double-row air duct with wires, the micro air compressor is connected to the control circuit board, and the micro air compressor is connected to the air heater through the double-row air duct with wires, the outlet end of the micro air compressor is connected to the solenoid valve, and the double-row air duct with wires is releasably connected to the micro air compressor through the solenoid valve, the control circuit board is connected to the power supply circuit board, the medicine liquid is arranged at the bottom of the atomizer cup, and the power supply circuit board is releasably connected to the external power supply. In this way, first insert the atomizer cup into the interface inside the upper end of the air heater, and form a sealed atomization and heating chamber between the bottom of the atomizer cup and the upper inner part of the air heater. Inject the medicine into the bottom of the atomizer cup, connect the power circuit board to the external circuit, and the atomizer starts to work. First, the temperature sensor detects the indoor temperature. When the indoor temperature is lower than 15 degrees above zero, the control circuit board starts the air heater through the double-row wired air duct. At the same time, the control circuit board starts the solenoid valve. The solenoid valve is set at the outlet end of the micro air compressor. When the solenoid valve is opened, the pressure and flow of the compressed air are diverted. The compressed air after diversion maintains a very small flow and pressure and enters the air heater through the double-row wired air duct to be transported to the atomization and heating chamber. A small amount of compressed gas is retained in the mist through the atomizer cup injection port. Inside the nebulizer cup, because the pressure and flow are extremely small, they are not enough to make the nebulizer cup produce atomization. However, when this extremely small flow and pressure are heated to a certain degree by the air heater, the temperature sensor will feed back to the control circuit board. The control circuit board controls the heating temperature. The medicine liquid is set at the bottom of the nebulizer cup. At this time, the compressed gas in the nebulizer heating chamber heats the medicine liquid. When the medicine liquid reaches about 20 to 22 degrees, the control circuit board will close the solenoid valve. At this time, the compressed gas returns to the maximum pressure and flow to make the nebulizer cup begin to atomize. At this time, the nebulized medicine liquid reaches the set temperature, and the compressed gas with maximum pressure and flow is also heated by the air heater. The warm gas and the warm medicine liquid are sprayed out from the atomization port of the nebulizer cup, and the patient can enjoy the nebulization treatment process with comfortable temperature.

[0014] The medical compression nebulizer of the present invention has the advantages over the prior art in that nebulization treatment in a very low room temperature or a cold and humid environment avoids the patient from inhaling the nebulized medicine liquid with a reduced temperature, avoids the nebulized medicine liquid irritating the patient's throat and causing discomfort, improves the treatment effect, and allows the patient to enjoy a nebulization treatment process with a comfortable temperature. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the structure of the invented medical compression atomizer.

[0016] Figure 2 It is an exploded view of the air heater in the invented medical compression nebulizer.

[0017] Figure 3 It is a schematic diagram of a double-row wired airway tube in the invented medical compression nebulizer.

[0018] Description of Figure Number

[0019] 10…Host assembly 11…Host housing 12…Micro air compressor

[0020] 13...Power supply circuit board 14...Control circuit board 15...Solenoid valve

[0021] 16… Air intake filter 17… Power switch 18… Power cord

[0022] 19…Second double-row air guide interface with wire 20…Atomizer cup 30…Air heater

[0023] 31…Quartz precision heating tube 32…Thermal insulation layer 33…Sealing ring

[0024] 34…Temperature sensor 35…First double-row gas guide interface with wires

[0025] 40…Atomization and heating chamber 50…Double-row air guide tube with wire 51…Silicone air guide tube

[0026] 52…Wire 53…Silicone tube DETAILED DESCRIPTION

[0027] The following is combined with the attached drawings Figures 1 to 3 A medical compression atomizer cup of the present invention is further described in detail.

[0028] A medical compression atomizer cup of the present invention, please refer to Figures 1 to 3As shown, it includes a host component 10, an air heater 30, a double-row air guide tube 50 with wires and an atomizer cup 20. The host component 10 includes a host housing 11, a micro air compressor 12, a power circuit board 13, a control circuit board 14 and a solenoid valve 15. The micro air compressor 12, the power circuit board 13, the control circuit board 14 and the solenoid valve 15 are all fixed in the host housing 11. The atomizer cup 20 is releasably plugged into the interface inside the upper end of the air heater 30. An atomizer heating chamber 40 is sealed between the bottom of the atomizer cup 20 and the upper inner part of the air heater 30. The air heater 30 is connected to the atomizer heating chamber 40. A temperature control chamber 40 is provided in the atomizer heating chamber 40. The temperature sensor 34 is connected to the control circuit board 14, the air heater 30 is connected to the control circuit board 14 through a double-row air duct with wires 50, the micro air compressor 12 is connected to the control circuit board 14, the micro air compressor 12 is connected to the air heater 30 through the double-row air duct with wires 50, the outlet end of the micro air compressor 12 is connected to the solenoid valve 15, the double-row air duct with wires 50 is releasably connected to the micro air compressor 12 through the solenoid valve 15, the control circuit board 14 is connected to the power supply circuit board 13, the medicine liquid is arranged at the bottom of the atomizer cup 20, and the power supply circuit board 13 is releasably connected to the external power supply.Specifically, first, the atomizer cup 20 is inserted into the interface inside the upper end of the air heater 30, and a sealed atomization and heating chamber 40 is formed between the bottom of the atomizer cup 20 and the upper part of the air heater 30. The liquid medicine is injected into the bottom of the atomizer cup 20, and the power circuit board 13 is connected to the external circuit. The atomizer starts to work. First, the temperature sensor 34 detects the indoor temperature. When the indoor temperature is lower than 15 degrees above zero, the control circuit board 14 starts the air heater 30 through the double-row wired air duct 50. At the same time, the control circuit board 14 starts the solenoid valve 15. The solenoid valve 15 is set at the outlet end of the micro air compressor 12. When the solenoid valve 15 is opened, the pressure and flow of the compressed air are diverted. The diverted compressed air maintains a very small flow and pressure and enters the air heater 30 through the double-row wired air duct 50 to be transported to the atomization and heating chamber 40. A small amount of compressed gas passes through the atomizer cup The injection port 20 is retained in the body of the nebulizer cup 20. Because the pressure and flow are extremely small, they are not enough to make the nebulizer cup 20 produce atomization. However, when this extremely small flow and pressure are heated to a certain degree by the air heater 30, the temperature sensor 34 will feed back to the control circuit board 14. The control circuit board 14 controls the heating temperature. The medicine liquid is arranged at the bottom of the nebulizer cup 20. At this time, the compressed gas located in the atomization heating chamber 40 heats the medicine liquid. When the medicine liquid reaches about 20 to 22 degrees, the control circuit board 14 closes the solenoid valve 15. At this time, the compressed gas is restored to the maximum pressure and flow to make the nebulizer cup 20 begin to atomize. At this time, the atomized medicine liquid reaches the set temperature, and the compressed gas with the maximum pressure and flow is also heated by the air heater 30. The warm gas and the warm medicine liquid are sprayed out from the atomization port of the nebulizer cup 20 together, and the patient can enjoy the nebulization treatment process with comfortable temperature. Compared with the existing technology, the advantages of nebulization treatment in a very low room temperature or a humid and cold environment are: avoiding the patient from inhaling the nebulized medicine with a lowered temperature, avoiding the nebulized medicine from irritating the patient's throat and causing discomfort, improving the treatment effect, and allowing the patient to enjoy a nebulization treatment process with a comfortable temperature.

[0029] A medical compression atomizer of the present invention, please refer to Figures 1 to 3As shown, on the basis of the technical solution described above, it can also be that: a quartz precision heating tube 31 is provided inside the air heater 30, the upper side of the quartz precision heating tube 31 is connected to the atomization and heating chamber 40, and the lower side of the quartz precision heating tube 31 is connected to the micro air compressor 12 and the control circuit board 14 through a double row of wired air guide tubes 50. In this way, when the temperature sensor 34 first detects that the indoor temperature is lower than 15 degrees above zero, the control circuit board 14 starts the heating of the quartz precision heating tube 31 through the double-row wired air guide tube 50, and at the same time, the control circuit board 14 starts the solenoid valve 15. The solenoid valve 15 is arranged at the outlet end of the micro air compressor 12. When the solenoid valve 15 is opened, the pressure and flow of the compressed air are diverted. The diverted compressed air maintains a very small flow and pressure and enters the quartz precision heating tube 31 through the double-row wired air guide tube 50 and is then transported to the atomization and heating chamber 40. A small amount of compressed gas is retained in the atomization cup 20 through the injection port of the atomization cup 20. Because the pressure and flow are extremely small, they are not enough to make the atomization cup 20 produce atomization, but this very small flow and pressure When the pressure is heated to a certain degree by the quartz precision heating tube 31, the temperature sensor 34 feeds back to the control circuit board 14, and the control circuit board 14 controls the heating temperature. The medicine is set at the bottom of the nebulizer cup 20. At this time, the compressed gas in the nebulizer heating chamber 40 heats the medicine. When the medicine reaches about 20 to 22 degrees, the control circuit board 14 closes the solenoid valve 15. At this time, the compressed gas is restored to the maximum pressure and flow rate to make the nebulizer cup 20 begin to atomize. At this time, the atomized medicine reaches the set temperature, and the compressed gas with the maximum pressure and flow rate is also heated by the quartz precision heating tube 31. The warm gas and the warm medicine are sprayed out from the atomization port of the nebulizer cup 20, and the patient can enjoy a comfortable temperature nebulization treatment process. The external power supply can also be 220V AC power output to the power circuit board 13, and the power circuit board 13 outputs 3 groups of DC voltages, which are 20V, 12V, and 5V respectively, and the 3 groups of DC voltages are transmitted to the control circuit board 14. The 12V DC power supply controls the operation state of the micro air compressor 12 and the opening and closing of the solenoid valve 15 through the control circuit board 14. When the temperature sensor 34 detects that the indoor temperature is lower than 15 degrees above zero, the control circuit board 14 inputs 20V power to the quartz precision heating tube 31 through the double-row wired air duct 50 to start working, and the 5V DC power supply is used for the single-chip microcomputer and the temperature sensor 34 of the control circuit board 14. Based on the technical scheme described above, a further preferred technical scheme is: the double-row wired air duct 50 includes a silicone air duct 51 and a silicone conduit 53 for accommodating a wire 52, the air heater 30 is connected to the control circuit board 14 through the wire 52, and the micro air compressor 12 is connected to the quartz precision heating tube 31 through the silicone air duct 51.In this way, when the temperature sensor 34 first detects that the indoor temperature is lower than 15 degrees above zero, the control circuit board 14 starts the heating work of the quartz precision heating tube 31 through the wire 52. When the solenoid valve 15 is opened, the pressure and flow of the compressed air are diverted. The diverted compressed air maintains a very small flow and pressure and enters the quartz precision heating tube 31 through the silicone air guide tube 51 and is then transported to the atomization and heating chamber 40. The medicine liquid is set at the bottom of the atomization cup 20. When the medicine liquid reaches about 20 to 22 degrees, the control circuit board 14 closes the solenoid valve 15. At this time, the compressed gas returns to the maximum pressure and flow to make the atomization cup 20 begin to atomize.

[0030] On the basis of the technical scheme described above, a further preferred technical scheme is: the wire 52 is located in the silicone tube 53, and the wire 52 and the silicone tube 53 are formed by injection molding. In this way, the wire 52 is directly injected into the silicone tube 53 of the double-row air guide tube 50 by injection molding, and the wire 52 is connected to the control circuit board 14 and the quartz precision heating tube 31, and the silicone air guide tube 51 is used to transport the compressed gas of the micro air compressor 12. On the basis of the previous technical scheme, it can also be: the lower end of the air heater 30 is provided with a first double-row air guide interface 35, the main housing 11 is provided with a second double-row air guide interface 19, the silicone air guide tube 51, the silicone tube 53 and one end of the wire 52 are connected to the air heater 30 through the first double-row air guide interface 35, and the other end of the silicone air guide tube 51, the silicone tube 53 and the wire 52 are connected to the corresponding micro air compressor 12 and the corresponding control circuit board 14 through the second double-row air guide interface 19. In this way, the first double-row wired air guide interface 35 is arranged at the lower end of the air heater 30, and the silicone air guide tube 51, the silicone conduit 53 and one end of the wire 52 are connected to the air heater 30 through the first double-row wired air guide interface 35, and the structure is reasonable and stable. The second double-row wired air guide interface 19 is arranged on the main engine housing 11, and the other ends of the silicone air guide tube 51, the silicone conduit 53 and the wire 52 are respectively connected to the corresponding micro air compressor 12 and the corresponding control circuit board 14 through the second double-row wired air guide interface 19, and the structure is reasonable and stable.

[0031] A medical compression atomizer of the present invention, please refer to Figures 1 to 3 As shown, on the basis of the technical solution described above, a heat preservation and heat insulation layer 32 is provided between the quartz precision heating tube 31 and the air heater 30. In this way, when the compressed gas enters the quartz precision heating tube 31 for heating, the heat preservation and heat insulation layer 32 starts to have a heat preservation and heat insulation effect to prevent the staff from being scalded.

[0032] A medical compression atomizer of the present invention, please refer to Figures 1 to 3As shown, based on the technical solution described above, a sealing ring 33 is provided between the quartz precision heating tube 31 and the atomizing and heating chamber 40, a sealing ring 33 is provided between the quartz precision heating tube 31 and the atomizing and heating chamber 40, and the atomizing and heating chamber 40 is sealed between the bottom of the atomizing cup 20 and the upper inner part of the air heater 30 through the sealing ring 33. In this way, the compressed air enters the atomizing and heating chamber 40 after being heated, and the sealing of the atomizing and heating chamber 40 is strengthened by the sealing ring 33 to prevent leakage of the compressed air.

[0033] A medical compression atomizer of the present invention, please refer to Figures 1 to 3 As shown, on the basis of the technical solution described above, it can also be that: the micro air compressor 12 is provided with an air intake filter 16. In this way, the micro air compressor 12 is provided with an air intake filter 16. When the micro air compressor 12 is working, the air is filtered through the air intake filter 16 before entering the micro air compressor 12, and impurities are filtered out to ensure that the compressed air after compression is fine and uniform.

[0034] A medical compression atomizer of the present invention, please refer to Figures 1 to 3 As shown, on the basis of the technical solution described above, it can also be: the main housing 11 is provided with a power switch 17 and a power cord 18, the power cord 18 is releasably connected to the external power source, the power switch 17 is connected to the power circuit board 13, and the power circuit board 13 is releasably connected to the power cord 18 through the power switch 17. In this way, the atomizer cup 20 is inserted into the interface inside the upper end of the air heater 30, the liquid medicine is injected into the bottom of the atomizer cup 20, the power cord 18 is connected to the external circuit, the power switch 17 is turned on, and the power cord 18 outputs 220V AC power energy through the power switch 17 to connect to the power circuit board 13, the power circuit board 13 is connected to the control circuit board 14, and the control circuit board 14 starts the atomizer to work.

Claims

1. A medical compression nebulizer, characterized in that: The invention comprises a main unit component (1), an air heater (30), a double-row air guide tube with a wire (50) and an atomizer cup (20). The main unit component (1) comprises a main unit housing (11), a micro air compressor (12), a power supply circuit board (13), a control circuit board (14) and a solenoid valve (15). The micro air compressor (12), the power supply circuit board (13), the control circuit board (14) and the solenoid valve (15) are all fixed in the main unit housing (11). The atomizer cup (20) is releasably plugged into an interface inside the upper end of the air heater (30). An atomizer cup (50) is sealed between the bottom of the atomizer cup (20) and the upper inner portion of the air heater (30). The atomizing and heating chamber (40) is provided with a temperature sensor (34) in the atomizing and heating chamber (40), the temperature sensor (34) is connected to the control circuit board (14), the air heater (30) is connected to the control circuit board (14) via a double-row air guide tube (50), the micro air compressor (12) is connected to the control circuit board (14), the micro air compressor (12) is connected to the air heater (30) via the double-row air guide tube (50), the outlet end of the micro air compressor (12) is connected to the solenoid valve (15), and the double-row air guide tube is connected to the control circuit board (14). (50) is detachably connected to the micro air compressor (12) through the solenoid valve (15), the control circuit board (14) is connected to the power circuit board (13), the medicine liquid is arranged at the bottom of the atomizing cup (20), and the power circuit board (13) is detachably connected to the external power supply; a quartz precision heating tube (31) is arranged inside the air heater (30), the upper side of the quartz precision heating tube (31) is connected to the atomizing heating chamber (40), a sealing ring (33) is arranged between the quartz precision heating tube (31) and the atomizing heating chamber (40), and an atomizing seal is provided between the bottom of the atomizing cup (20) and the upper part of the air heater (30) through the sealing ring (33). A heating chamber (40); the lower side of the quartz precision heating tube (31) is connected to the micro air compressor (12) and the control circuit board (14) respectively through a double-row air guide tube with wires (50); the double-row air guide tube with wires (50) comprises a silicone air guide tube (51) and a silicone conduit (53) for accommodating a wire (52); the air heater (30) is connected to the control circuit board (14) through the wire (52); the micro air compressor (12) is connected to the quartz precision heating tube (31) through the silicone air guide tube (51); a heat preservation and heat insulation layer (32) is provided between the quartz precision heating tube (31) and the air heater (30);When the temperature sensor (34) detects that the indoor temperature is lower than 15 degrees above zero, the control circuit board (14) starts the heating operation of the quartz precision heating tube (31) through the wire (52). When the solenoid valve (15) is opened, the pressure and flow of the compressed air are diverted. The diverted compressed air enters the quartz precision heating tube (31) through the silicone air guide tube (51) and is then transported to the atomization and heating chamber (40). The liquid medicine is set at the bottom of the atomization cup (20). When the liquid medicine reaches 20 to 22 degrees, the control circuit board (14) closes the solenoid valve (15). At this time, the compressed gas returns to the maximum pressure and flow, causing the atomization cup (20) to start atomization.

2. A medical compression nebulizer according to claim 1, characterized in that: The conductive wire (52) is located inside the silicone conduit (53), and the conductive wire (52) and the silicone conduit (53) are formed by injection molding.

3. A medical compression atomizer according to claim 1, characterized in that: The lower end of the air heater (30) is provided with a first double-row wired air guide interface (35), the main housing (11) is provided with a second double-row wired air guide interface (19), the silicone air guide tube (51), the silicone conduit (53) and one end of the wire (52) are connected to the air heater (30) via the first double-row wired air guide interface (35), and the other ends of the silicone air guide tube (51), the silicone conduit (53) and the wire (52) are connected to the corresponding micro air compressor (12) and the corresponding control circuit board (14) via the second double-row wired air guide interface (19).

4. A medical compression nebulizer according to any one of claims 1 to 3, characterized in that: The micro air compressor (12) is provided with an air intake filter (16).

5. A medical compression nebulizer according to any one of claims 1 to 3, characterized in that: The host housing (11) is provided with a power switch (17) and a power cord (18); the power cord (18) is releasably connected to an external power source; the power switch (17) is connected to a power circuit board (13); and the power circuit board (13) is releasably connected to the power cord (18) via the power switch (17).

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