TWI776461B - Auxiliary device for inhaler - Google Patents

Abstract

The present invention is an auxiliary device for inhaler. The auxiliary device for inhaler includes a main body of the kit, a switch component, and electronic components. The main body of the kit has a sleeve for connecting the inhaler and an air chamber connected to the sleeve. The switch component is provided in the air chamber, and an open circuit and conductive film of the switch component are arranged at intervals. The electronic components are arranged in the main body of the kit and electrically connected to the open circuit. When the inhaler is used, the air is flowed in the air chamber to drive the conductive film to contact the open circuit, so that the open circuit is turned on to activate the electronic components. In the present invention, the electronic components can be activated automatically when the inhaler combined with the auxiliary device for inhaler is used, and it can prevent from the electronic components being activated by mistake.

Description

inhaler assist device

The present invention relates to the technology of auxiliary inhaler, especially an auxiliary device for inhaler which can be automatically activated and monitored.

An inhaler, taking the inhaler for asthma as an example, usually needs to go through the procedures of health education before being provided to the patient, so that the patient can inhale the powder or medicine through the inhaler in the correct posture, so that the inhaled powder or medicine can be dropped. in the correct location, such as the lungs, for the drug to work. However, the patient may not use the inhaler in the standard posture due to incorrect posture, bedridden or other diseases, resulting in insufficient suction to allow the powder or medicine to enter the proper place when inhaling the medicine, and the disease will not be effectively controlled.

In order to solve the above-mentioned purpose, there are currently existing aids on the market for assisting patients to use inhalers. When the patient inhales medicine, the air pressure sensor is used to measure the change of air pressure when the patient inhales and takes the medicine, so as to provide medical staff or patients. To determine whether the inspiratory force is sufficient at the time, and to record the relevant information of the patient using the inhaler. Generally speaking, the auxiliary equipment of the inhaler usually requires electricity for the operation of the air pressure sensor, and the conventional auxiliary equipment usually uses the switch to open and close the device, or use the accelerometer as the activation mechanism (judging the shaking situation). , so as to determine that the user will use the inhaler to activate the auxiliary equipment in the above situation, so as to avoid the power loss of the auxiliary equipment. However, when the patient uses the inhaler, the power consumption may be caused by forgetting to turn off the switch, or due to the misjudgment of the accelerometer. It is possible to activate auxiliary equipment by mistake, so it is not only inconvenient to use (the switch needs to be turned on or off), but also wastes electricity improperly.

In addition, in the existing inhaler air pressure measurement methods, air pressure measurement pipes are often installed before and after the inhaler, and the air pressure value of the inhaler is obtained by measuring the air pressure inside the pipe, or the inhaler is modified, for example, directly attached to the inside of the inhaler Air pressure sensor, but the above two methods will affect the structure of the inhaler itself, resulting in a different flow of air flow in the inhaler, which may cause the drug to adhere to the sensing structure or be unable to be inhaled into the lungs as originally designed; , Other methods of measuring inhalation pressure also include sound monitoring, which uses the sound of the collision between the capsule and the inhaler when the drug is inhaled, and the sound generated when the gas flows through data analysis and statistics. , but this method is less accurate and also needs to be used in a quiet environment. Therefore, the existing solutions for measuring the air pressure of the inhaler need to be improved.

From the above, it can be seen that the existing inhaler auxiliary equipment has problems such as inconvenience in use and power supply. It often results in failure of data detection and recording due to forgetting to turn it on before use, or forgetting to turn off the power after use, resulting in power loss. In addition, for the air pressure measurement of the inhaler, how to find a suitable measurement method or design without affecting the structure and function of the existing inhaler is also the key point of consideration. Therefore, how to overcome the above-mentioned various existing technologies The lack of it will become an urgent problem to be solved at present.

In view of the above problems, the present invention provides an inhaler auxiliary device, which includes: a kit body, including a sleeve for connecting the inhaler and an air chamber communicating with the sleeve and having an air inlet, so that the user can use the inhaler to connect to the sleeve. When the inhaler inhales, the external gas enters the sleeve from the air inlet through the air chamber; the switch assembly is arranged in the air chamber and includes an open circuit and a conductive circuit arranged at intervals a film; and an electronic component, which is arranged inside the main body of the kit and is electrically connected to the open circuit, wherein when the gas passes through the gas chamber, the gas flow drives the conductive film against the open circuit to make the open circuit A conducting circuit is formed, thereby activating the electronic assembly.

In one embodiment, the conductive film is disposed between the open circuit and the air inlet.

In another embodiment, the open circuit is a circuit board with two wires separated from each other, so that when the conductive film abuts against the open circuit, the two wires are electrically connected through the conductive film, thereby conducting the open circuit circuit.

In another embodiment, when the air chamber is a plurality of air chambers, the respective switch components are respectively provided in the plurality of air chambers.

In another embodiment, when the plurality of air chambers are disposed adjacently, the conductive films of the switch components disposed therein are disposed on opposite sides.

In another embodiment, the electronic component includes a microcontroller, at least one sensor electrically connected to the microcontroller, and a battery for providing power to the microcontroller and the at least one sensor.

In another embodiment, the at least one sensor is a barometer, an accelerometer, or a combination thereof.

In another embodiment, the main body of the kit further includes a measurement chamber that communicates with the sleeve and is used for accommodating the electronic component.

In the above embodiment, the inner side wall of the sleeve has a first guide groove extending from the top end to the gas chamber and a second guide groove extending from the top end to the measuring chamber.

In yet another embodiment, the air chamber is disconnected from the measurement chamber, so that when the user inhales the inhaler, the air pressure in the measurement chamber is equal to the air pressure in the user's mouth pressure.

In one embodiment, the nozzle of the inhaler and the sleeve are coupled in parallel.

To sum up, in the inhaler auxiliary device of the present invention, the sleeve of the main body of the set is sleeved into the outer edge of the suction nozzle of the inhaler, and when the user inhales from the suction nozzle and sleeve, the external air enters through the air inlet hole. , after flowing through the air chamber to the casing, when the external air enters the air chamber, an air flow will be generated to drive the conductive film to touch the open circuit, and then the open circuit will form a conductive circuit, and finally the electronic components will be activated. Accordingly, the inhaler of the present invention assists The device can automatically activate the electronic components when in use, so as to avoid the problem of accidentally activating the electronic components when not in use or forgetting to turn on the switch before use, so it has the effects of reducing power consumption and simplifying use; in addition, the inhaler auxiliary device of the present invention , the air chamber is not communicated with the measurement chamber, so that when the user inhales the mouthpiece of the inhaler, the air pressure of the measurement chamber can be equal to the air pressure of the user's mouth. The barometer in the chamber can accurately measure the air pressure of the inhaler, and then know the user's mouth pressure, and there will be no drug adhering to the barometer due to the flow of air or the change of the structure of the inhaler. The inhalation method is affected, etc.

1: Kit body

11: Casing

111: The first guide groove

112: The second guide groove

113: First runner

12, 12': air chamber

121, 121': air inlet

13: Measurement room

14: Cover

141: Opening

15: Connectivity

2, 2': switch assembly

21, 21': open circuit

211: Wire

22, 22': conductive film

3: Electronic components

31: Microcontroller

32: Sensor

321: Barometer

322: Accelerometer

33: Battery

9: Inhaler

91: Medicine warehouse

92: nozzle

S: gas

FIG. 1 is a perspective structural view of the first embodiment of the inhaler auxiliary device of the present invention.

2 is a perspective structural view of the first embodiment of the inhaler auxiliary device of the present invention from another perspective.

Figure 3 is a schematic view of the inhaler assist device of the present invention when combined with an inhaler.

4A is a schematic diagram of the state of the first embodiment of the inhaler auxiliary device of the present invention when it is not in use.

4B is a schematic diagram of the state of the first embodiment of the inhaler auxiliary device of the present invention when it is in use.

Figure 5 is a partial cross-sectional view of the air chamber of the inhaler assist device of the present invention.

Figure 6 is a schematic view from the bottom of the second embodiment of the inhaler assist device of the present invention.

7A is a schematic diagram of the state of the second embodiment of the inhaler auxiliary device of the present invention when it is not in use.

7B is a schematic diagram of the state of the second embodiment of the inhaler auxiliary device of the present invention when it is in use.

Fig. 8 is a schematic view of the internal state of the second embodiment of the inhaler auxiliary device of the present invention when it is inclined.

The following describes the technical content of the present invention through specific embodiments, and those skilled in the art can easily understand the advantages and effects of the present invention from the content disclosed in this specification. However, the present invention can also be implemented or applied by other different specific embodiments.

1 is a perspective structural view of the first embodiment of the inhaler auxiliary device of the present invention, FIG. 2 is a perspective structural view of the first embodiment of the inhaler auxiliary device of the present invention, and FIG. 3 is the inhaler auxiliary device of the present invention. Schematic of the device when combined with the inhaler. Please refer to the above figures together. As shown in the figures, the inhaler auxiliary device of the present invention includes a kit body 1, which is disposed in the kit body 1 and is electrically connected to each other. The switch component 2 and the electronic component 3 are connected, wherein the switch component 2 has an open circuit 21 and a conductive film 22 arranged at intervals.

Generally speaking, as shown in FIG. 3 , the inhaler 9 includes a medicine storage bin 91 for accommodating medicines and a suction nozzle 92 for the user to suck medicines from the medicine storage bin 91. The user can put the set The main body 1 is combined with the suction nozzle 92 of the inhaler 9. For example, the main body 1 of the kit is put into the outer edge of the suction nozzle 92, so that when the user inhales from the suction nozzle 92 of the inhaler 9, the air from the outside enters the kit. inside the main body 1 to drive the conductive film 22 to contact with the open circuit 21 , so that the open circuit 21 forms a conducting circuit, and the electronic component 3 is activated accordingly. A description of the inhaler assist device of the present invention is detailed below.

The kit body 1 includes a sleeve 11 for connecting the inhaler 9 and an air chamber 12 communicating with the sleeve 11 and having an air inlet 121 . Specifically, the sleeve 11 has a top end and a bottom end, which can be combined with the suction nozzle 92 of the inhaler 9. In this embodiment, the sleeve 11 is sleeved outside the suction nozzle 92 of the inhaler 9 to make The two are combined in parallel. In addition, the air chamber 12 is provided at the bottom end of the sleeve 11 and communicated with the sleeve 11, and has an air inlet hole 121 through its side wall, so that the user can inhale the inhaler 9 At this time, the external gas is allowed to enter the air chamber 12 from the air inlet 121 , and then flows to the casing 11 through the air chamber 12 .

The kit body 1 further includes a cover plate 14 disposed at the bottom of the sleeve 11 , and a measurement chamber 13 communicating with the sleeve 11 is formed between the bottom end of the sleeve 11 and the cover plate 14 . Specifically, the cover plate 14 has an opening 141 corresponding to the suction nozzle 92 of the inhaler 9, so that when the suction nozzle 92 of the inhaler 9 passes through the opening 141 of the cover plate 14 and is combined with the main body 1 of the kit, There is an airtight effect between the suction nozzle 92 and the opening 141. At this time, the measurement chamber 13 is only communicated with the sleeve 11, that is, the air chamber 12 is not communicated with the measurement chamber 13. In this way, the situation of mutual interference between the gas chamber 12 and the measuring chamber 13 can be avoided, that is, by preventing the gas entering the outside of the gas chamber 12 from entering the measuring chamber 13, the amount of The air pressure in the measuring chamber 13 is affected. When using the inhaler 9, when the user inhales the mouthpiece 92 At this time, based on the airtight effect, the measurement chamber 13 to the suction nozzle 92, and even to the user's mouth, are all under the same air pressure, so the pressure of the measurement chamber 13 can be measured to obtain the use. The air pressure in the person's mouth.

In addition, the bottom end of the sleeve 11 faces the medicine storage compartment 91 of the inhaler 9, and the inner side wall of the sleeve 11 has a first guide groove 111 and a second guide groove 112 extending from the top end to the bottom end, and furthermore , when the sleeve 11 is sleeved on the outside of the suction nozzle 92 of the inhaler 9, the first channel 111 and the second guide groove 112 respectively form a first flow channel 113 and The second flow channel (not shown), in this way, the first flow channel 113 can communicate with the air chamber 12 and the top of the sleeve 11 , and the second flow channel can communicate with the measuring chamber 13 and the sleeve 11 In other words, because the air chamber 12 is not communicated with the measuring chamber 13 , when the user inhales, the external air enters the air chamber 12 and then enters the user's mouth through the first flow channel 113 , and when the user inhales the inhaler 9, the second flow channel only connects the user's mouth and the measuring chamber 13. At this time, the two flow channels do not affect each other, so the external gas can be reached. The air pressure measurement of the measuring chamber 13 is not affected, and the ranges of the measuring chamber 13 , the suction nozzle 92 and the user's mouth are all the same air pressure.

The switch assembly 2 is disposed in the air chamber 12 , and the switch assembly 2 further includes an open circuit 21 and a conductive film 22 arranged at intervals. Specifically, the conductive film 22 is disposed in the open circuit 21 and the air inlet of the air chamber 12 . 121, the purpose is to let the air flow of the gas drive the conductive film 22 against the open circuit 21 when the external gas passes through the air chamber 12, so as to make the open circuit 21 form a conductive circuit, and provide start-up of the electronic The voltage of the component 3, so that the electronic component 3 can perform operation.

4A and 4B are schematic diagrams of the states of the first embodiment of the inhaler auxiliary device of the present invention when it is not in use and when it is in use, respectively. As shown in FIG. 4A , the air chamber 12 communicates with the communication point 15 of the casing 11 and the air inlet 121 , which are located at two different positions of the air chamber 12 , and the switch assembly 2 is open. The circuit 21 is arranged between the connection 15 and the air inlet hole 121 , and the conductive film 22 is arranged on the side of the open circuit 21 close to the air inlet hole 121 , that is, between the open circuit 21 and the air inlet hole 121 , so the conductive film 22 is not in contact with the open circuit 21 in an unused state.

In addition, as shown in FIG. 4B , when the user inhales the inhaler, the external air will enter the air chamber 12 through the air inlet hole 121 , and finally enter the user through the communication part 15 and the sleeve 11 . At this time, when the external gas enters the gas chamber 12, along with the flow trajectory of the gas, the conductive film 22 will be deflected due to the influence of the airflow, and will touch the open circuit 21, thereby causing the open circuit A circuit is formed in 21, and at this time, the open circuit 21 can actuate the electronic component 3, so that the electronic component 3 can be operated to achieve the purpose of automatic starting.

5 is a partial cross-sectional view of the air chamber of the inhaler auxiliary device of the present invention. As shown in the figure, the conductive film 22 can be a flexible circuit or a metal sheet, and the open circuit 21 includes a circuit board with two wires 211 separated from each other, wherein the open circuit 21 and the electronic components 3 connected, so that the electronic component 3 can be actuated when a circuit is formed in the two wires 211 . Accordingly, when not in use, the conductive film 22 and the open circuit 21 are separated from each other. When in use, the gas enters the gas chamber 12 from the gas inlet hole 121 and the gas in the gas chamber 12 flows into the sleeve 11 Then, an air flow is generated, which will drive the conductive film 22 to bend, so that the conductive film 22 abuts against the open circuit 21, and simultaneously contacts the two wires 211 to form a conductive path, that is, the two wires 211 pass through The conductive films 22 are electrically connected to each other to form a short circuit, thereby conducting the open circuit 21 .

In addition, as shown in FIGS. 4A and 4B , the electronic component 3 is arranged in the kit body 1 and is electrically connected to the open circuit 21 . In other words, the electronic component 3 can be arranged in the measurement chamber 13 of the kit body 1 . can include a microcontroller 31 , a sensor 32 and a battery 33 , wherein the microcontroller 31 , the sensor 32 and the battery 33 are electrically connected so that the battery 33 provides the microcontroller 31 with the sense The operating power of the detector 32. Specifically, the sensor 32 includes a barometer 321 for measuring air pressure or an accelerometer 322 for detecting the tilt or movement of the kit body 1 . In addition, in other embodiments, the electronic component 3 also A plurality of sensors 32 may be included, such as a barometer 321 and an accelerometer 322 at the same time, so as to simultaneously sense the air pressure of the space and the inclination or movement of the kit body 1 .

As shown in Figures 4A and 4B, the user assembles the inhaler auxiliary device of the present invention on the inhaler, so that the sleeve 11 of the main body 1 of the kit is sheathed outside the mouthpiece of the inhaler, and when in use, the user holds the sleeve The tube 11 inhales, at this time, most of the gas enters the user's mouth from the medicine storage compartment of the inhaler through the suction nozzle, that is, when the user inhales, the gas in the medicine storage compartment of the inhaler generates airflow, The medicine is brought into the body of the user through the suction nozzle. In addition, there is a first flow channel between the main body 1 of the kit and the inhaler, so the gas S enters the air chamber 12 from the air inlet hole 121, or the gas in the air chamber 12 is self-inhaling The chamber 12 enters the user's mouth through the first flow channel. Accordingly, another airflow is generated in the air chamber 12 (as shown by the arrow in FIG. 4B ). When the other airflow flows in the air chamber 12, it will drive The conductive film 22 abuts against the open circuit 21 , so that the open circuit 21 is electrically connected, thereby enabling the electronic component 3 to be activated. As can be seen from the above, when the user uses the inhaler, the inhaler auxiliary device 1 of the present invention triggers the switch component 2 through the air flow generated by the user in the air chamber 12 to automatically activate the electronic component 3. Therefore, the present invention has the advantages of Provides the function of automatic activation when the user inhales, and does not need to continuously supply power to the sensor used as a trigger mechanism, thereby achieving the effect of power saving. Moreover, compared with traditional switch control or through shaking detection or The angle detection mechanism is used to trigger the device, and the present invention is also less prone to the problem of power consumption caused by mistakenly touching the switch or mistakenly activating the sensor.

In addition, the measurement chamber 13 shown in FIG. 2 can communicate with the top of the sleeve 11 through the second flow channel formed between the sleeve 11 and the inhaler. Therefore, when the user uses the inhaler, the measurement The air pressure in the measurement chamber 13 is almost the same as or close to the air pressure in the user's mouth, that is, when the user inhales, the air pressure in the measurement chamber 13 changes, and the electronic component 3 can sense the measurement chamber through the barometer 13 gas pressure, enter The inhalation air pressure when the user uses the inhaler can be pushed, and the relevant data can be used by the medical staff or the user to determine whether the inhalation air pressure reaches the standard air pressure. Furthermore, when the user holds the inhaler for use, the inhaler auxiliary device of the present invention will also be tilted, and the angle of the user during use can be detected through the internal accelerometer, which can be recorded and used as an auxiliary device. The basis for judging whether the user is using the inhaler's posture standard or not.

In one embodiment, when the sleeve is combined with the mouthpiece of the inhaler in a sleeved manner, the two can be combined in parallel, so that the user's mouth can simultaneously generate an air pressure difference between the inhaler and the inhaler auxiliary device when inhaling. , and then can carry out the purpose of air pressure measurement; in addition, the body of the kit body of the inhaler auxiliary device of the present invention is small, which can quickly create a balance between the pressure at the mouth, thereby reducing the interference when measuring the air pressure, and Since the gas flow path between the inhaler and the inhaler auxiliary device of the present invention is independent, the problem of powder adhesion will not occur.

In addition, the appearance design of the sleeve of the inhaler auxiliary device of the present invention can be similar to the appearance of the suction nozzle of the inhaler, that is, the sleeve is formed into an annular hollow structure, and a channel for gas circulation is designed therein, that is, through the guide The groove is designed so that the sleeve and the suction nozzle of the inhaler have tiny channels, namely the aforementioned first flow channel and second flow channel. When in use, the sleeve of the present invention only needs to be sleeved on the periphery of the suction nozzle of the inhaler , the user's inhalation air pressure can be measured through the barometer set in the measuring room, and then analyzed and recorded by the microcontroller and transmitted by the Bluetooth module, so that the medical staff or the user can know the use status. In addition, by combining the sleeve of the present invention with the suction nozzle in parallel, the user can measure the gas pressure of the user's mouth without affecting the airflow of the inhaler or blocking the medicine when inhaling the medicine. purpose. Therefore, the present invention can provide the user to directly inhale the medicine with the cannula in the mouth without changing the normal inhalation process without affecting the internal gas flow of the inhaler.

6 is a schematic perspective view from the bottom of the second embodiment of the inhaler auxiliary device of the present invention, and FIGS. 7A and 7B are schematic diagrams of the states of the second embodiment of the inhaler auxiliary device of the present invention when not in use and when in use. As shown in the figure, this embodiment is basically the same as the first embodiment, the difference is that the inhaler auxiliary device of this embodiment can have a plurality of switch components, and the main body of the kit is also provided with a plurality of corresponding air chambers. Two switch assemblies 2, 2' and two air chambers 12, 12' are described. In this embodiment, the kit body 1 of the present invention has two air chambers 12, 12' for accommodating the corresponding switch components 2, 2'. The switch elements 2 and 2' in the air chambers 12 and 12' are arranged symmetrically. For example, the conductive film 22 of the switch element 2 and the conductive film 22' of the switch element 2' are arranged on opposite sides (similar to the mirror image arrangement). ). As shown in the figure, when not in use, the open circuits 21 and 21' on both sides are not connected, so that the electronic component 3 is in a state of no electricity. On the contrary, when the user sucks the inhaler through the inhaler auxiliary device of the present invention When the gas is inflated, the external gas will enter the corresponding air chambers 12 and 12' through the air inlet holes 121 and 121', and flow from the air inlet holes 121 and 121' to the casing 11 in the air chambers 12 and 12'. In this way, the air flow can drive the conductive films 22, 22' in the air chambers 12, 12' to abut against the corresponding open circuits 21, 21', so as to turn on the open circuits 21, 21' at the same time, so that the electronic components 3 The circuit is turned on to start. In other words, if one of the open circuits 21 and 21' is not turned on, the electronic component 3 will not be able to be activated. This design can prevent the inhaler auxiliary device from being obliquely picked up or placed when there is a non-use requirement. In the case of conduction and loss of power, this mechanism will be described below through Figure 8.

8 is a schematic diagram of the internal state of the second embodiment of the inhaler auxiliary device of the present invention when it is inclined. As shown in the figure, since the switch components 2 and 2' are symmetrically arranged, when the main body 1 of the set is tilted or shaken in any direction, only one side of the switch circuits 2 and 2' is turned on. Component 3 will not be activated by mistake, resulting in a waste of battery power. That is, the present invention utilizes a plurality of switch circuits, Thereby, it can be judged whether it is in a normal use state that needs to be energized, or is only in an abnormal use state where one side is energized due to the tilt of the kit body 1 . It should be noted that the switch assembly of the present invention can be provided with multiple sets of switch assemblies, and different anti-misoperation mechanisms can be designed according to the inclination or placement of different angles by means of multiple air chambers and different arrangements of the switch assemblies.

To sum up, the present invention provides an inhaler auxiliary device for an inhaler. Through the switch assembly provided in the air chamber, when the user inhales the inhaler combined with the inhaler auxiliary device of the present invention, the inhaler is used for inhalation. The air flow generated by the air chamber during the inhalation drives the conductive film of the switch component to conduct the open circuit, which triggers the electronic component to start, and then records the air pressure of the inhaler during the use of the inhaler and the spatial angle of the inhaler. , which can be used by medical staff or users to adjust the use posture or inspiratory force according to the recorded data. Therefore, through the switch assembly of the present invention, the user does not need to manually turn on the switch during use and turn off the switch when finished, namely The purpose of convenience in use can be achieved, and the problem that the user may activate the electronic components due to accidental touches when not in use can be avoided. In addition, the present invention uses a unique mechanism design to combine the inhaler and the inhaler auxiliary device in parallel, using the function of the human body's mouth that can be adjusted in size, so that the mouth can simultaneously generate air pressure for the inhaler and the inhaler auxiliary device when inhaling Poor, because the air pressure difference between the inhaler and the inhaler auxiliary device is generated at the same time, and the volume inside the inhaler auxiliary device is small, it will quickly balance with the pressure in the mouth, and the measured air pressure is rarely disturbed, so it can be more accurate. This can be used as the basis for adjusting the posture or inhalation force when using the inhaler, so as to improve the use effect of the inhaler.

The above-mentioned embodiments are only used to illustrate the principle and effect of the present invention, but are not intended to limit the present invention. Any person skilled in the art can modify and change the above-mentioned embodiments without departing from the spirit and scope of the present invention. Therefore, the protection scope of the present invention should be as listed in the patent application scope described later.

1: Kit body

11: Casing

111: The first guide groove

112: The second guide groove

Claims (10)

An inhaler assist device comprising: The main body of the kit includes a sleeve for combining with the inhaler and an air chamber communicating with the sleeve and having an air inlet, so that when the user inhales the inhaler, the outside air can pass through the air inlet through the air inlet. into the casing; a switch assembly, which is provided in the air chamber and includes an open circuit and a conductive film arranged at intervals; and An electronic component is arranged inside the main body of the kit and is electrically connected to the open circuit, Wherein, when the gas passes through the gas chamber, the air flow of the gas drives the conductive film against the open circuit so that the open circuit forms a conducting circuit, and then activates the electronic component. The inhaler auxiliary device of claim 1, wherein the conductive film is disposed between the open circuit and the air inlet. The inhaler auxiliary device as claimed in claim 1, wherein the open circuit is a circuit board with two wires separated from each other, so that when the conductive film abuts against the open circuit, the two wires are electrically connected through the conductive film. The open circuit is then turned on. The inhaler auxiliary device according to claim 1, wherein when the air chamber is a plurality of air chambers, the plurality of air chambers are respectively provided with the respective switch components. The inhaler auxiliary device according to claim 4, wherein when the plurality of air chambers are arranged adjacently, the conductive films of the switch components arranged therein are arranged on opposite sides. The inhaler assist device of claim 1, wherein the electronic component comprises a microcontroller, at least one sensor electrically connected to the microcontroller, and a sensor for providing the microcontroller and the at least one sensor The battery that powers the tester. The inhaler assist device of claim 1, wherein the nozzle of the inhaler and the sleeve are coupled in parallel. The inhaler auxiliary device as claimed in claim 1, wherein the main body of the kit further comprises a measurement chamber that communicates with the sleeve and is used for accommodating the electronic component. The inhaler auxiliary device of claim 8, wherein the inner side wall of the sleeve has a first guide groove extending from the top end to the air chamber and a second guide groove extending from the top end to the measurement chamber. The inhaler assist device of claim 8, wherein the air chamber is not in communication with the measurement chamber so that when the user inhales the inhaler, the air pressure in the measurement chamber is equal to the use The air pressure in the person's mouth.

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