TWI623331B - Reed type inhaler - Google Patents

Abstract

A magnetic spring type inhalation device for detachably mounting a supply bottle. The supply bottle includes a bottle mouth and a bottle body. The reed type inhalation device comprises a housing, a take-up holder and a monitoring module. The take-up seat is disposed in the housing. The take-up seat has a bearing port and a nozzle that are connected to each other. The carrier port is used for the bottle mouth of the supply bottle. The nozzle is used to release the substance from the supply bottle. The monitoring module includes a reed switch and a magnetic member. The reed switch is disposed in the housing. The magnetic member is movably disposed in the housing in a moving direction. The bottle body is movable to push against the magnetic piece. The reed switch is used to calculate the number of times the supply bottle is used when the bottle of the supply bottle moves in the moving direction and is triggered by the magnetic member.

Description

Reed type inhaler

BACKGROUND OF THE INVENTION 1. Field of the Invention This invention relates to an inhalation device, and more particularly to a reed type inhalation device in which the use of an inhalation device is known by a reed switch.

The method by which a living body takes in substances into the body, in addition to using diet, injection, and skin coating, also has a method of inhaling the body by breathing. For example, humans can ingest substances into the body by breathing by means of incense, essential oil volatilization or powder dispersion.

Among them, the use of diet or skin coating means that the reaction of the substance to the respiratory tract may be slower. With injection, the substance may have an unintended effect on the body. Therefore, if you want to make the substance act quickly on the respiratory tract, or if it only works as far as possible on the respiratory tract and try not to affect other parts of the organism, it is usually used to make the substance enter the organism. For example, the administration of a tracheal dilator at the onset of an asthmatic condition, or the maintenance of the respiratory tract.

If this is required, the spray bottle can be placed in an inhaler, whereby the contents of the spray bottle are atomized into the inhaler, and the organism inhales the substance into the body by breathing.

However, a spray bottle can be used more than once, and may contain multiple uses. Therefore, the spray bottle is loaded into the inhaler and used, and after a period of time, the user may forget the use condition of the spray bottle, and may not know the amount of the substance in the spray bottle. If a new spray bottle is replaced every time it is used, it may result in waste of resources. Conversely, if the old spray bottle is actually not sufficiently plentiful and is mistaken for its sufficient content, there may be situations where it is necessary to take a sudden ingestion of the substance, such as when the drug is needed for emergency treatment.

In view of the above problems, the present invention provides a magnetic spring type inhalation device, which monitors the state of use of the supply bottle by the monitoring module to avoid waste of resources and avoids the urgent need of the material but does not have the required material.

The invention provides a magnetic spring type inhalation device for detachably mounting a supply bottle. The supply bottle includes a bottle mouth and a bottle body. The reed type inhalation device comprises a housing, a take-up holder and a monitoring module. The take-up seat is disposed in the housing. The take-up seat has a bearing port and a nozzle that are connected to each other. The carrier port is used for the bottle mouth of the supply bottle. The nozzle is used to release the substance from the supply bottle. The monitoring module includes a reed switch and a magnetic member. The reed switch is disposed in the housing. The magnetic member is movably disposed in the housing in a moving direction. The bottle body is movable to push against the magnetic piece. The reed switch is used to calculate the number of times the supply bottle is used when the bottle of the supply bottle moves in the moving direction and is triggered by the magnetic member.

According to one embodiment of the present invention, the reed type inhalation device can calculate the number of times the supply bottle is used by the monitoring module when the bottle of the supply bottle is moved in the moving direction. The remaining amount of the substance supplied to the bottle can be estimated by the number of uses. The user can use the sub-report to know the amount of the substance used in the supply bottle, and can also adjust the timing of the new supply bottle and the timing of replacement by estimating the remaining content in the supply bottle. In addition to avoiding waste of resources, it can also avoid the dilemma of urgent needs but no need for material.

The above description of the present invention and the following description of the embodiments of the present invention are intended to illustrate and explain the spirit and principles of the invention.

The detailed features of the present invention are described in detail below in the embodiments, which are sufficient to enable any person skilled in the art to understand the technical contents of the present invention and to implement the present invention. The objects and advantages associated with the present invention are readily understood by those of ordinary skill in the art. The following examples are intended to describe the present invention in further detail, but are not intended to limit the scope of the invention.

In the so-called schematic diagrams of the present specification, the dimensions, ratios, angles, and the like may be exaggerated, but are not intended to limit the present invention. Various changes can be made without departing from the gist of the invention.

1A, FIG. 1B, FIG. 2 and FIG. 3, FIG. 1A is a perspective view of a magnetic reel type inhalation device 10 and a supply bottle 20 according to an embodiment of the present invention, and FIG. 1B is a magnetic view of FIG. FIG. 2 is a perspective exploded view of the reed type of the reed device 10 and the supply bottle 20, FIG. 2 is a perspective exploded view of the reed type of the reed device 10 of FIG. 1A, and FIG. 3 is a perspective view of the reed device of the reed type of FIG. 10 and a side cross-sectional view of the supply bottle 20.

In the present embodiment, the supply bottle 20 can be replaced with a different supply bottle 20 by being detached or mounted on the reed type inhalation device 10. The supply bottle 20 includes a bottle mouth 21 and a bottle body 22. The supply bottle 20 has a retracted position and a normal position. When the supply bottle 20 moves from the normal position to the retracted position, the bottle mouth 21 is pressed into the bottle body 22 and the substance in the bottle body 22 can be separated from the bottle mouth 21. When the supply bottle 20 returns to the normal position from the retracted position, the mouth 21 is ejected toward the outside of the bottle body 22.

The reed type inhalation device 10 includes a housing 110, a take-up holder 120 and a monitoring module 130.

The housing 110 includes a body 111, a partition 112, and a cover 113. The body 111 can have a loading and unloading port 110a, a discharge port 110b, and a viewing window 110c. The cover 113 may have a display port 110d and a button port 110e. The loading and unloading port 110a is away from the bottom 1100 of the housing 110. The supply bottle 20 is detachably attached to the reed type inhalation device 10 via the loading and unloading port 110a. The discharge port 110b is located on one side of the housing 110 and is adjacent to the bottom 1100 of the housing 110. The viewing window 110c can be located on one side of the housing 110 opposite the discharge opening 110b and adjacent to the bottom 1100 of the housing 110. The partition 112 is disposed on the body 111 and divides the first space 1101 and the second space 1102 in the body 111 . The supply bottle 20 can be installed in the first space 1101. The partition 112 may be in the shape of a curved plate or may be in the shape of a flat plate. The partition 112 has a rail groove 112a extending in the moving direction D. The loading and unloading port 110a, the discharge port 110b, and the viewing window 110c may communicate with the first space 1101. The cover 113 covers the body 111, and the display port 110d and the button port 110e can communicate with the second space 1102.

The take-up seat 120 can be fixed to the bottom 1100 of the housing 110 and located in the first space 1101. The housing 110 and the take-up holder 120 can be an integral non-separable component or a distinct component. The take-up seat 120 has a bearing port 121 and a nozzle 122 that communicate with each other. The mouth 21 of the supply bottle 20 can be placed in the carrying port 121 when it is mounted on the reed type suction device 10. The mouth 21 can be tightly disposed on the take-up seat 120 or can be engaged with the take-up seat 120. The carrying port 121 can face the loading and unloading port 110a, but is not limited thereto, and different directions can be designed according to requirements. Nozzle 122 is used to release material from supply bottle 20. The nozzle 122 can face the discharge port 110b. The user can draw material from the supply bottle 20 and discharged through the nozzle 122 via the discharge port 110b.

The monitoring module 130 includes a magnetic member 131, a circuit board 132, a reed switch 133, a display 134, a communication unit 135, a button 136, a battery 137, an elastic member 138, a driving wheel 141, a marking wheel 142, and a plurality of unidirectional engaging teeth. The portion 143, the plurality of elastic members 144, and the plurality of pins 145.

The magnetic member 131 may be made of magnetic plastic or other magnetic material. The magnetic member 131 includes a connected sensing portion 1311 and a suction portion 1312. The magnetic member 131 passes through the rail slot 112a and is disposed in the housing 110 so as to be movable in the moving direction D. The suction portion 1312 is located in the first space 1101, and the sensing portion 1311 is located in the second space. The bottle body 22 of the supply bottle 20 is movably pushed against the magnetic member 131, whereby the magnetic member 131 is moved along the bottle body 22 in the moving direction D. The elastic member 138 is disposed between the magnetic member 131 and the housing 110. When the bottle body 22 moves in a direction opposite to the moving direction D, the elastic member 138 can move the magnetic member 131 to move in the direction opposite to the moving direction D with the bottle body 22. In other embodiments, the bottle body 22 of the supply bottle 20 can also be attached to the magnetic member 131 by snapping.

In this embodiment, the circuit board 132, the reed switch 133, the display 134, the communication unit 135, the button 136, and the battery 137 may be disposed in the housing 110 and located in the second space 1102. The reed switch 133, the display 134, the communication unit 135, the button 136, and the battery 137 can be electrically connected to each other by one or more circuit boards 132 and wires (not shown). When the bottle body 22 of the supply bottle 20 moves in the moving direction D, or the bottle body 22 moves relative to the bottle mouth 21, the sensing portion 1311 of the magnetic member 131 can pass the sensing range of the reed switch 133. Therefore, when the bottle body 22 of the supply bottle 20 moves in the moving direction D, or the bottle body 22 moves relative to the bottle mouth 21, the reed switch 133 can be triggered by the sensing portion 1311 of the magnetic member 131 to calculate the number of times the supply bottle 20 is used.

Display 134 is located at display port 110d and can be used to display the number of uses of supply bottle 20. The communication unit 135 can be used to transmit information of the reed type inhalation device 10 to other electronic devices (not shown). This information may include information such as the type of respirometer inhaler 10, the type of supply bottle 20 to be used, the number of uses of the supply bottle 20, or the like. Button 136 is located at button port 110e and can be used to activate communication unit 135. The battery 137 is used to supply the monitoring module 130 to operate the power. The electronic device can be installed with a monitoring program, and can be used to summarize the number of uses of the supply bottle 20, the time of use, the timing of replacement, the estimation result of the physical state or other inductive results according to the information transmitted by the communication unit 135, and can also issue a signal reminder. A reed type inhalation device 10 is used.

The driving wheel 141, the indicator wheel 142, the plurality of unidirectional engaging tooth portions 143, the plurality of elastic members 144 and the plurality of pins 145 may be disposed in the housing 110 and located in the first space 1101. The driving wheel 141 and the indicator wheel 142 can be pivoted to the housing 110 by the receiving seat 120 passing through the axis of the driving wheel 141 and the indicator wheel 142. The driving wheel 141 is located between the indicator wheel 142 and the suction portion 1312 of the magnetic member 131. The plurality of unidirectional engaging teeth 143 can be fixed to the take-up seat 120 and arranged at intervals around the center of the take-up seat 120. The take-up seat 120 can be fixed to the housing 110. Thereby, the one-way engaging tooth portion 143 is fixed to the housing 110. The one-way engaging tooth portion 143 can be connected to the housing 110 and the take-up seat 120. The three can be an integral non-separable component or a different component.

The driving wheel 141 may be composed of iron, cobalt, nickel, other metals that can be attracted by magnetic force or other magnetic substances. The driving wheel 141 has a plurality of unidirectionally driven tooth portions 1411 on the inner ring, and has a plurality of different diameter through holes 1412 penetrating in the moving direction D. The one-way driving tooth portions 1411 are arranged around the axis of the driving wheel 141. The diameter of each of the different diameter through holes 1412 near the suction portion 1312 is larger, and the aperture closer to the indicator wheel 142 is smaller. Each of the pins 145 passes through each of the different diameter through holes 1412 to set the driven wheel 141 to the indicator wheel 142. Each of the elastic members 144 is disposed in each of the different diameter through holes 1412 and between the driving wheel 141 and the latch 145. By the arrangement of the latch 145, the driving wheel 141 can drive the indicator wheel 142 to rotate synchronously, and the driving wheel 141 can move relative to the indicator wheel 142 in the moving direction D. By the arrangement of the elastic member 144, the driving wheel 141 can be normally brought close to the indicator wheel 142, and the one-way driving tooth portion 1411 can be engaged with the one-way engaging tooth portion 143.

When the magnetic member 131 moves in the moving direction D and approaches the driving wheel 141, the suction portion 1312 magnetically drives the wheel 141. When the magnetic member 131 moves in the direction opposite to the moving direction D and the suction portion 1312 is moved away from the indicator wheel 142, the one-way driving tooth portion 1411 is disengaged from the one-way engaging tooth portion 143. When the magnetic member 131 continues to move in the direction opposite to the moving direction D, and the driving wheel 141 is restricted by the pin 145 and cannot continue to move in the direction opposite to the moving direction D, the suction portion 1312 releases the driving wheel 141, and the elastic member 144 The driving wheel 141 is again normally approached to the indicator wheel 142. At this time, the one-way driving tooth portion 1411 is unidirectionally rotated along the one-way engaging tooth portion 143 to correspond to the angle of one of the one-way driving tooth portions 1411, and is further engaged with the one-way engaging tooth portion 143. The indicator wheel 142 has a plurality of indicator patterns 1421. The indicator pattern 1421 is rotated toward the viewing window 110c at least one by one as the indicator wheel 142 rotates.

In other embodiments, the monitoring module 130 can also use mechanical components such as the driving wheel 141, the indicator wheel 142, the plurality of unidirectional engaging tooth portions 143, the plurality of elastic members 144, and the plurality of latches 145 according to requirements. .

In other embodiments, the monitoring module 130 can also use electronically related components such as the circuit board 132, the reed switch 133, the display 134, the communication unit 135, the button 136, and the battery 137 as needed. Or when the battery 137 is exhausted, the monitoring module 130 can continue to monitor the usage status of the supply bottle 20 by other electronically related components.

Referring to FIG. 3 to FIG. 7B , FIG. 4A , FIG. 5A , FIG. 6A and FIG. 7A are schematic side cross-sectional views showing the operation flow of the magnetic spring type inhalation device 10 and the supply bottle 20 of FIG. 3 , and FIG. 4B , FIG. 5B and FIG. 6B and FIG. 7B are schematic cross-sectional views showing the operation of the driving wheel 141 and the unidirectional engaging tooth portion 143 of FIG. The viewing directions of the cross-sectional views of FIGS. 4B, 5B, 6B, and 7B are viewed from the outside of the indicator wheel 142 toward the axis of the indicator wheel 142. The circled numbers in the figure are used to indicate the corresponding movement relationship between the one-way driving tooth portion 1411 and the one-way engaging tooth portion 143.

As shown in Figure 3, the supply bottle 20 is in the normal position. At this time, the elastic force of the elastic member 138 can make the magnetic member 131 abut against the bottle body 22, and the sensing portion 1311 of the magnetic member 131 can be positioned at the first sensing position of the reed switch 133. The suction portion 1312 of the magnetic member 131 can be spaced apart from the driving wheel 141 by a distance. By the elastic force of the elastic member 144, the driving wheel 141 is normally brought close to the indicator wheel 142, and the one-way driving tooth portion 1411 shown in FIG. 2 is engaged with the one-way engaging tooth portion 143. Thereby, the indicator wheel 142 is not unintentionally rotated, thereby stabilizing the state in which the user views the indication pattern 1421 shown in FIG. 2 from the viewing window 110c.

As shown in FIGS. 4A and 4B, when the substance in the supply bottle 20 is to be used, the supply bottle 20 can be moved from the normal position to the retracted position so that the substance in the bottle body 22 can be separated from the bottle mouth 21. At this time, the bottle body 22 can be pushed toward the take-up seat 120 to move in the moving direction D. Since the mouth 21 is resisted by the take-up seat 120, the mouth 21 is pressed against the inside of the bottle 22. In FIG. 4A, the magnetic member 131 can move along with the bottle body 22 to deform the elastic member 138, and the sensing portion 1311 can be located at the second sensing position of the reed switch 133, and the suction portion 1312 can be moved to the driving wheel 141 and or even The driving wheel 141 is sucked. In FIG. 4B, the one-way driving tooth portion 1411 can still be engaged with the one-way engaging tooth portion 143.

As shown in FIG. 4B, the plurality of unidirectional engaging tooth portions 143 have a space 1430 therebetween. Each of the unidirectional engaging tooth portions 143 has a connecting side surface 1431, a side surface 1432, and an abutting surface 1433, both of which can be inclined in the moving direction D. The side surface 1431 and the side surface 1432 are closer to the moving direction D, and the top surface 1433 is more inclined to the moving direction D. In the figure, the state in which the side surface 1431 and the side surface 1432 are inclined in the moving direction D is exaggerated for convenience of explanation, and the side surface 1431 and the side surface 1432 can be very close to the moving direction D. The projection length of the side surface 1431 in the moving direction D may be shorter than the projection length of the side surface 1432 in the moving direction D. The side surface 1432 can form a sharp point P1 with the abutting surface 1433. The side surface 1431 is inclined to be close to the tendency of the adjacent one-way engaging tooth portions 143 that the side surface 1431 faces. The side surface 1432 is inclined to be inclined away from the adjacent one-way engaging tooth portion 143 that the side surface 1432 faces.

Each of the one-way driving tooth portions 1411 has a side surface 1411a, a side surface 1141b, and an abutting surface 1411c. There is a sharp point P2 between the side surface 1411a and the abutting surface 1411c. When the unidirectional driving tooth portion 1411 is engaged with the unidirectional engaging tooth portion 143, the cusp point P1 and the abutting surface 1411c of the unidirectional driving tooth portion 1411 are located in the space 1430, and the side surface 1411b of the unidirectional driving tooth portion 1411 is close to The side surface 1431 of the one-way engaging tooth portion 143, the side surface 1411a of the one-way driving tooth portion 1411 is adjacent to the side surface 1432 of the other one-way engaging tooth portion 143. Moreover, the side surface 1411b of the unidirectionally driven tooth portion 141 may be slightly interfered by the side surface 1431 of the unidirectional engaging tooth portion 143 in a direction opposite to the moving direction D.

As shown in FIGS. 5A and 5B, the supply bottle 20 is released, and the supply bottle 20 is restored from the retracted position to the normal position. At this time, the mouth 21 can be ejected relative to the outside of the bottle body 22. Since the bottle mouth 21 is mounted on the take-up seat 120, the bottle body 22 can be moved at a certain rate in a direction opposite to the moving direction D relatively away from the take-up seat 120. The magnetic member 131 can be moved at a rate along the direction opposite to the moving direction D by the elastic restoring force of the elastic member 138, and the sensing portion 1311 can face the direction of returning to the first sensing position of the reed switch 133. At this rate of movement, the suction portion 1312 magnetically drives the wheel 141 and is away from the indicator wheel 142 at this rate.

When the suction portion 1312 sucks the driving wheel 141 and moves at a rate opposite to the moving direction D, the side surface 1411b of the unidirectionally driven tooth portion 1411 is slightly subjected to the unidirectional engaging tooth portion in a direction opposite to the moving direction D. The side surface 1411b of the unidirectionally driven tooth portion 1411 can abut against the side surface 1431 of the unidirectional engaging tooth portion 143 and move at about this rate along the surface direction L of the side surface 1431. Since the side surface 1431 is inclined to the moving direction D, the unidirectionally driven tooth portion 1411 is slightly rotated in addition to the movement in the direction opposite to the moving direction D, so that the driving wheel 141 has a moment of inertia. When the side surface 1411b of the one-way driving tooth portion 1411 exceeds the side surface 1431 of the one-way engaging tooth portion 143, the sharp point P1 of the one-way driving tooth portion 1411 is still close to the side surface 1432 of the other one-way engaging tooth portion 143. However, the frictional force between the driving wheel 141 and the suction portion 1312 can be overcome by the moment of inertia of the driving wheel 141 at this time, so that the cusp point P1 of the one-way driving tooth portion 1411 spans the other one-way engaging tooth portion 143. Sharp point P2. At this time, as shown in FIG. 5B, when the unidirectionally driven tooth portion 1411 and the unidirectional engagement tooth portion 143 are disengaged, the cusp point P1 of the unidirectionally driven tooth portion 1411 can be pointed to another unidirectional direction as it extends in the movement direction D. The engaging tooth portion 143 abuts against the top surface 1433.

As shown in FIGS. 6A and 6B, the supply bottle 20 continues to return from the retracted position to the normal position. At this time, the mouth 21 can continue to be ejected relative to the outside of the bottle body 22, that is, the bottle body 22 can continue to move away from the take-up seat 120 in a direction opposite to the moving direction D, and the magnetic member 131 can continue to be carried by the elastic member 138. The elastic restoring force moves with the bottle body 22 in a direction opposite to the moving direction D, and the sensing portion 1311 can continue to move in the direction of returning to the first sensing position of the reed switch 133. In FIG. 6A and FIG. 6B, the position of the suction portion 1312 of the magnetic member 131 exceeds the limit of the driving wheel 141 away from the indicator wheel 142, so that the suction portion 1312 releases the driving wheel 141, and the elastic member 144 pushes the driving wheel 141 back to the marking wheel. 142. At this time, as shown in FIG. 6B, since the cusp point P1 of the unidirectionally driven tooth portion 1411 extends toward the top surface 1433 of the other unidirectional engaging tooth portion 143 when extending in the moving direction D, the unidirectionally driven tooth portion 1411 is driven. The abutting top surface 1411c can abut against the abutting surface 1433 of the other one-way engaging tooth portion 143 at this time, and along the abutting surface 1433 of the unidirectional engaging tooth portion 143 abutting toward the other interval. The 1430 slides, thereby causing the driving wheel 141 to continue to rotate. As shown in FIG. 6A, the indicator wheel 142 can be rotated by the driving wheel 141 and the pin 145.

As shown in FIGS. 7A and 7B, the supply bottle 20 is returned to the normal position. At this time, the magnetic member 131 can abut against the bottle body 22 by the elastic force of the elastic member 138, and the sensing portion 1311 of the magnetic member 131 can return to the first sensing position of the reed switch 133. The suction portion 1312 of the magnetic member 131 can be spaced apart from the driving wheel 141 by a distance. The elastic force of the elastic member 144 causes the driving wheel 141 to normally approach the indicator wheel 142. As shown in FIG. 7B, since the abutting surface 1411c of the one-way driving tooth portion 1411 slides toward the other spacing 1430, each of the one-way driving tooth portions 1411 can move a one-way driving tooth portion 1411 or a one-way engaging tooth portion. The distance of 143 is further engaged with the one-way engaging tooth portion 143. Thereby, the driving wheel 141 is rotatable corresponding to the angle of one of the one-way driving teeth 1411, and the belt is rotated to correspond to the angle of one of the one-way driving teeth 1411. The indicator pattern 1421 of the indicator wheel 142 as shown in FIG. 2 is rotated toward the viewing window 110c at least one by one as the indicator wheel 142 rotates. The indication pattern 1421 observed by the self-viewing window 110c may indicate a message that the number of uses is increased once as the indicator wheel 142 rotates. The reed switch 133 can be triggered once by the reciprocating action of the sensing portion 1311 of the magnetic member 131 from the first sensing position to the second sensing position and back to the first sensing position, thereby calculating the number of uses of the supply bottle 20.

Therefore, in the reed type inhalation device 10 according to an embodiment of the present invention, the number of uses of the supply bottle 20 can be synchronously calculated or indicated by a magnetic spring induction method and a mechanical method. Therefore, when the power is saved, the user can observe the number of uses of the supply bottle 20 indicated by the indication pattern 1421 on the outer side of the housing 110 via the viewing window 110c. When the reed type inhalation device 10 is to be transferred to other electronic devices, the button 136 is pressed to activate the communication unit 135 to transmit information. This information may include information such as the type of respirometer inhaler 10, the type of supply bottle 20 to be used, the number of uses of the supply bottle 20, or the like. The electronic device can be equipped with a monitoring program, and can summarize the number of uses of the supply bottle 20, the time of use, the timing of replacement, the estimation result of the physical state, or other inductive results according to the information transmitted by the communication unit 135, and can also send a signal reminder. The user uses the reed type inhalation device 10.

In summary, the magnetic spring type inhalation device according to an embodiment of the present invention can calculate the number of times the supply bottle is used by the monitoring module being triggered when the bottle body of the supply bottle moves relative to the bottle mouth. The remaining amount of the substance supplied to the bottle can be estimated by the number of uses. The user can use the sub-report to know the amount of the substance used in the supply bottle, and can also adjust the timing of the new supply bottle and the timing of replacement by estimating the remaining content in the supply bottle. In addition to avoiding waste of resources, it can also avoid the dilemma of urgent needs but no need for material.

Although the present invention has been disclosed above in the foregoing embodiments, it is not intended to limit the invention. It is within the scope of the invention to be modified and modified without departing from the spirit and scope of the invention. Please refer to the attached patent application for the scope of protection defined by the present invention.

10‧‧‧Reed type inhaler

110‧‧‧shell

1100‧‧‧ bottom

1101‧‧‧First space

1102‧‧‧Second space

110a‧‧‧ loading and unloading

110b‧‧‧Drainage

110c‧‧ View window

110d‧‧‧ display port

110e‧‧‧ button mouth

111‧‧‧Ontology

112‧‧‧Baffle

112a‧‧‧Track slotting

113‧‧‧ cover

120‧‧‧Receiving seat

121‧‧‧ Carrying port

122‧‧‧Nozzles

130‧‧‧Monitoring module

131‧‧‧Magnetic parts

1311‧‧‧Induction Department

1312‧‧‧Drawing Department

132‧‧‧ boards

133‧‧Reed switch

134‧‧‧ display

135‧‧‧Communication unit

136‧‧‧ button

137‧‧‧Battery

138‧‧‧Flexible parts

141‧‧‧Drive wheel

1411‧‧‧One-way driving tooth

1411a, 1411b‧‧‧ side

1411c‧‧‧ to the top

1412‧‧‧Reducing through hole

142‧‧‧mark wheel

1421‧‧‧Marking pattern

143‧‧ unidirectional clamping teeth

1431, 1432‧‧‧ side

1433‧‧‧The top surface

144‧‧‧Flexible parts

145‧‧‧Latch

20‧‧‧Supply bottle

21‧‧‧ Bottle mouth

22‧‧‧ bottle

D‧‧‧ moving direction

L‧‧‧Surface direction

P1, P2‧‧‧ sharp points

1A is a perspective view showing a perspective view of a magnetic spring type inhalation device and a supply bottle according to an embodiment of the present invention. FIG. 1B is a perspective view showing another perspective of the magnetic spring type inhalation device and the supply bottle of FIG. 1A. 2 is a perspective exploded view of a perspective view of the reed type inhalation device of FIG. 1A. 3 is a side cross-sectional view of the magnetic spring type inhalation device and the supply bottle of FIG. 1A. 4A, 5A, 6A and 7A are side cross-sectional views showing the operation of the reed type inhalation device and the supply bottle of Fig. 3. 4B, 5B, 6B, and 7B are schematic cross-sectional views showing the operation of the driving wheel and the unidirectional engaging tooth portion of Fig. 3.

Claims (11)

A magnetic spring type inhalation device for detachably mounting a supply bottle, the supply bottle comprising a bottle mouth and a bottle body, the magnetic spring type inhalation device comprising: a casing; a take-up seat disposed at the a housing having a carrier port and a nozzle for connecting the nozzle of the supply bottle, the nozzle for releasing material from the supply bottle; and a monitoring die The group includes a reed switch and a magnetic member, the reed switch is disposed on the housing, the magnetic member is movably disposed in the housing along a moving direction, and the bottle body is movably pushed against the magnetic member The reed switch is configured to calculate the number of uses of the supply bottle by the magnetic member when the bottle of the supply bottle moves in the moving direction. The magnetic reel type inhalation device of claim 1, wherein the housing comprises a body and a partition, the partition is disposed on the body and defines a first space and a second space in the body, the partition The plate has a track slot extending along the moving direction, the magnetic member is slotted through the track and movable in the moving direction, the supply bottle is mounted in the first space, and the reed switch is located in the second space. The reed type inhalation device of claim 1, wherein the housing has a viewing window, the monitoring module further includes a driving wheel, a marking wheel, at least one elastic member and a plurality of unidirectional engaging teeth portions. The driving wheel and the indicator wheel are pivotally disposed on the casing, the driving wheel and the indicator wheel are synchronously rotatable, and the driving wheel is movable relative to the marking wheel in the moving direction, and the driving wheel has a plurality of inner rings The unidirectionally-driven tooth portion, the indicator wheel has a plurality of indication patterns, the unidirectional engagement tooth portions are disposed on the housing, the at least one elastic member is disposed on the driving wheel and the driving wheel is normally close to the indicator wheel and The unidirectional driving tooth portions are engaged with the unidirectional engaging tooth portions, and the magnetic member moves in the moving direction and closes the driving wheel to magnetically drive the driving wheel, and the magnetic member is opposite to the moving direction. Moving and magnetically moving the driving wheel away from the indicator wheel, the one-way driving tooth portions are disengaged from the unidirectional engaging tooth portions, and the magnetic member moves in a direction opposite to the moving direction and releases the driving wheel The at least one elastic member causes the driving wheel to be normally close to The indicator wheel and the one-way driving tooth portion are unidirectionally rotated along the one-way engaging tooth portions corresponding to the angle of one of the one-way driving tooth portions to be engaged with the one-way engaging tooth portions. The marking pattern is oriented at least one by one toward the viewing window as the indicator wheel rotates. The reed type inhalation device of claim 3, wherein the one-way engaging tooth portions are connected to the take-up holder and the housing. The reed type inhalation device of claim 3, wherein the driving wheel and the indicator wheel are pivotally mounted to the housing by the receiving seat passing through the axis of the driving wheel and the axis of the indicator wheel. The reed type inhalation device of claim 1, wherein the supply bottle has a retracted position and a normal position, and the bottle mouth is opposite to the bottle body when the supply bottle moves from the normal position to the retracted position. The material that is pressed in and the body of the bottle can be removed from the mouth of the bottle. When the supply bottle returns to the normal position from the retracted position, the mouth of the bottle is ejected relative to the outside of the bottle. The reed type inhalation device of claim 1, wherein the reclaiming seat is disposed at a bottom of the housing, and the housing and the reclaiming seat are integrally separable. The reed type inhalation device of claim 1, wherein the monitoring module comprises a display disposed in the housing and configured to display the number of uses of the supply bottle. The reed type inhalation device of claim 1, wherein the monitoring module comprises a communication unit disposed in the housing and configured to transmit information of one of the usage times of the supply bottle to an electronic device. The reed type inhalation device of claim 9, wherein the monitoring module comprises a button disposed on the housing and configured to activate the communication unit. The reed type inhalation device of claim 9, wherein the electronic device includes a monitoring program for summarizing the number of uses, the time of use, or the timing of replacement of the supply bottle based on the information transmitted by the communication unit.