TWM412807U - Smart solution atomizer - Google Patents

Description

M412807 V. New description: [New technical field] This creation is about a smart solution atomization device, especially a smart solution atomization device suitable for releasing disinfection or aroma spread. [Prior Art] Please refer to FIG. 1, which is a schematic diagram of a conventional atomizing device. The atomizing device 9 shown in the figure is commonly used as a water-oxygen machine, which is commonly used for the aroma diffusion of essential oils. The conventional atomizing device 9 mainly includes the following main components 'a fine oil tank 91' and an ultrasonic oscillator 92. Usually, the user first mixes the water with the essential oil or a plurality of other aromatic liquids, and then pours it into the essential oil tank 91. Then the ultrasonic oscillator 92 is activated to converge the mixed solution into liquid particles by high frequency oscillation. However, the conventional atomizing device 9 has a considerable number of operating steps, and it is still necessary to rely on labor, such as the proportioning of the fragrance, the time of starting, the amount of the release, and the intensity of the atomization. It is quite inconvenient to control and adjust the φ. Further, in the prior art, when a plurality of solvents are used at the same time, or when the solvent does not indicate its name or type, it is difficult to distinguish the solvent in the emission. In addition, the stock of the solution is sometimes difficult to judge with the naked eye. It can be seen that how to achieve a convenient, simple structure, saves time and effort, can know the correct name or type of the atomized solution, and its remaining capacity at any time, and can fully control the atomization, produce aroma, or disinfection The intelligent solution atomization device is really an urgent need in the industry. M412807 [New content]

The present invention is a smart solution atomization device comprising: at least one container, at least one droplet detecting component, an atomizing module, and a control module. Wherein each container includes a liquid outlet, a memory element, and a solution release valve, the memory element stores a first remaining capacity time, and the solution release valve is disposed at the liquid outlet. The solution release valve is connected to the atomization module. At least one droplet detecting element is disposed between the solution releasing valve and the atomizing module. The control module is electrically connected to the memory component of each container, the solution release valve of each container, at least one droplet detecting component, and an atomizing module. The control module controls reading the first remaining capacity time in the memory component of each container, and controls at least one droplet detecting component to detect a droplet time, and the control module calculates the first remaining capacity time subtracting liquid. The drop time is a second remaining capacity time, and the control module controls to store the second remaining capacity time in the memory component; the control module controls the solution release valve to be opened or closed, and the atomization module is activated or deactivated. Therefore, 'this creation can achieve the remaining capacity of the atomized solution at any time, and can automatically adjust the composition of the solution to be atomized, the time control of automatic start or shutdown, and control the atomization intensity, and the atomization particle size. efficacy. The atomization module of the present invention may include a piezoelectric ceramic oscillator and a liquid collection dish. The piezoelectric ceramic oscillator is connected to the collecting vessel and electrically connected to the control module, and the solution releasing valve is connected to the collecting vessel. Among them, the piezoelectric ceramic oscillator uses the principle of electronic oscillation to generate high-frequency seismic waves to break up the liquid molecular structure, thereby causing the solution to vibrate into extremely small hazy particles.

A M412807 will release negative ions during the process. The use of piezoelectric ceramic oscillators is even more advantageous. When accidentally in a dry state, it does not cause high temperature burnout. Of course, this creation can also use ultrasonic oscillators', but special attention should be paid to the use of ultrasonic oscillators to avoid dry burning, otherwise the device will burn out. Furthermore, the creation may further comprise at least one flow guiding tube connected between the solution releasing valve and the collecting plate of the atomizing module for guiding the solution flowing out of the solution releasing valve to the liquid collecting liquid. Inside the dish. Accordingly, the container does not need to be disposed directly above the liquid collecting dish, and can be disposed at other positions above the liquid collecting dish, and can be guided by the gravity of the solution and the guiding tube, and the atomization will be affected directly above the liquid collecting dish. The flow direction of the liquid particles after the diffusion. In addition, at least one of the droplet detecting elements of the present invention may be an infrared detector or other equivalent droplet detecting element. Moreover, this creation can be more packaged.

A display screen is included, which is electrically connected to the control module for displaying the remaining capacity, or the first or second remaining capacity time, that is, the remaining capacity, or the remaining time. Of course, it can also be used to display solution information such as the name or type of the solution, as well as related settings such as startup time, intensity, duration, or recipe display. However, the display screen can also be a touch screen, as well as the task of display and input control. Of course, the instruction unit of this creation is not limited to the display screen, and it can also be a display signal, voice or other equivalent output device. In addition, the creation may further include an input module electrically connected to the control module for inputting settings such as setting a startup schedule, intensity, duration, or setting a recipe ratio. Furthermore, the creation may further include a power module electrically connected to the control module for providing power, which may be an external power source, or a battery. -5- έ M412807 In addition, the creation may further include a remote controller for transmitting a wireless signal. The control module further includes a wireless signal transmission interface for receiving the wireless signal transmitted by the remote controller and transmitting the solution. remaining. According to this, the creation can also be set or controlled through the remote control. Moreover, the remote controller of the present invention may include a display unit. The remote controller receives the remaining amount of the solution transmitted by the wireless signal transmission interface of the control module and displays it on the display unit. According to this, not only the display screen of the machine can display the remaining capacity of the atomized solution, but also the display unit on the remote controller through the wireless transmission can simultaneously display relevant information. Preferably, the creation includes a memory that is electrically connected to the control module. The memory stores at least one release valve activation time and at least one release valve opening duration. Wherein, the control module can control the solution release valve according to at least one release valve activation time and at least one release valve opening duration. Accordingly, the release valve activation time may be a storage setting of the release valve activation time period, and the release valve opening duration control may be a storage setting for the release valve opening duration. Of course, the start-up Φ and the closing time of the atomizing module can also be controlled in the same way, or can be started with the opening of the release valve. [Embodiment] Please refer to FIG. 2 and FIG. 3 at the same time. FIG. 2 is a perspective view of a preferred embodiment of the present invention. FIG. 3 is a structural diagram of a preferred embodiment of the present invention. The figure shows four containers 20, 21, 22, 23 which respectively contain four different solutions which may be four different essential oils, fragrances, or other sterilizing solvents. And each container 20, 21, 22, 23 includes a port 412, 211, 221, 231, a memory element 202, 212, 222, 232, and a solution release valve 3. Wherein, the memory elements 202, 2 1 2, 222, 323 of each container 20, 21, 22, 23 store the first remaining capacity time of the solution stored in the container, and of course may also store other pre-input solutions. Information, including name, brand or manufacturer, article number or item number, shelf life and date of manufacture, efficacy or efficacy, and other remarks. However, the positions of the memory elements 202, 212, 222, 3 23 shown in the figures are merely illustrative and are not limited to this position in the present creation.

In addition, the droplet detecting elements 203, 213, 223, 233 are disposed below the solution releasing valve 3, which is mainly used to detect the droplets of the container > and then record the time through the control module 5. In this embodiment, the liquid droplet detecting elements 203, 2, 22, 3, and 2 3 3 are infrared detectors, and the infrared rays are used to detect whether or not a solution is dripped. Of course, the present invention is not limited thereto. As for the liquid outlets 201, 211, 221, 231, the solution in the containers 20, 21, 22, 23 is discharged. In addition, as shown in the figure, the four solution release valves 3 are respectively disposed at the liquid outlets 201, 211, 221, 231 of the four containers 20, 21, 22, 23 for respectively controlling the containers. Release of the solution in 20, 21, 22, 23. In the present embodiment, the solution releasing valve 3 is a solenoid valve whose main working principle is to use the electromagnetic force generated by the electromagnetic coil to control the opening or closing. Of course, the creation is not limited to solenoid valves, but it can also be a pneumatic valve, a hydraulic valve, or the like. Furthermore, an atomization module 4 is shown in the figure and is disposed below the solution release valve 3. The atomization module 4 includes a piezoelectric ceramic oscillator 41 and a set of M412807 liquid vessels 43. Among them, the liquid collecting tank 43 mainly collects the solution flowing out of the solution releasing valve 3, and is atomized by the piezoelectric ceramic oscillator 41. The piezoelectric ceramic oscillator 41 is disposed under the liquid collection vessel 43 and directly contacts the solution collected by the liquid collection vessel 43 to facilitate the atomization of the solution. In this embodiment, the electronic oscillation principle of the piezoelectric ceramic oscillator 41 is utilized to generate a high-frequency seismic wave to break up the liquid molecular structure, and the solution is used to vibrate the solution into extremely small misty particles, which are released during the atomization process. Negative ions. In this embodiment, the piezoelectric ceramic oscillator 41 is further provided with a piezoelectric ceramic oscillator 41, in addition to a smaller atomic particle or a higher intensity or concentration atomization effect than a general vibration oscillator. An advantage is that it does not need to maintain the presence of liquid during operation, that is to say, when it is in a dry burning state, it does not cause high temperature burnout. Of course, this creation can also use ultrasonic oscillators or other general oscillators, but special attention should be paid. If ultrasonic oscillators or other general oscillators are used, dry burning should be avoided. In severe cases, the device will be burned. .

In addition, four draft tubes 31 are shown in the figure, which are respectively connected to the solution release valve 3 and the atomization module 4 at the liquid outlets 201, 211, 221, 231 of the four containers 20, 21, 22, 23. 4 sets of liquid storage tanks. The draft tube 31 is mainly used to divert the solution flowing out of the solution releasing valve 3 into the collecting pan 43. Accordingly, the containers 20, 21, 22, 23 need not be disposed directly above the liquid collecting pan 43, and may be disposed at other positions above the liquid collecting pan 43, by the gravity of the solution itself and the guiding of the draft tube 31. This is because if the containers 20, 2 1, 22, 23 are placed directly above the collecting pan 43, the diffusion flow direction of the atomized liquid particles will be affected. Moreover, the atomization module 4 of the embodiment

A M412807 further includes a fan 42 disposed on one side of the liquid collecting pan 43 for rapidly diffusing the solution particles atomized by the piezoelectric ceramic oscillator 41 to achieve better sterilization and aroma diffusion effect. .

Furthermore, a control module 5 is additionally shown in the figure, which is electrically connected to each container of the components 202, 212, 222, 232, droplet detecting elements 203, 213, 22 3, 2 3 3, each The solution release valve 3 of the container, the atomization module 4, the display screen 6, the input module 7, and the power module 52. The control module 5 controls the first remaining capacity time T in the memory elements 202, 2 12, 222, 2 3 2 of each container, and controls the droplet detecting elements 203, 2 1 3, 223, 23 3 detects a droplet time. The control module 5 calculates that the first remaining capacity time minus the drop time is a second remaining capacity time, and controls the display screen 6 to display the second remaining capacity time, and controls to store the second remaining capacity time in the remembered component 202. 2 1 2, 2 2 2 , 2 3 2 inside. Preferably, the second remaining capacity time directly replaces the first remaining capacity time T. In addition, the control module controls the solution release valve 3 to be opened or closed, and the atomization module 4 is activated or deactivated. As for the display screen 6, in addition to displaying the remaining capacity time, other related information, and related setting contents, such as name, brand or manufacturer, article number or item number, shelf life and date of manufacture, efficacy or efficacy, and other remarks) The solution stock, start-up time, strength, duration, or recipe display can also be displayed thereon. Of course, the display screen 6 can also be a touch screen, and at the same time serve as a display and input control task. The input module 7 is used to input settings such as setting the start time, intensity, duration, or setting the proportion of the recipe. Λ M412807 The figure further shows a remote controller 71 for transmitting a wireless signal, and the control module 5 further includes a wireless signal transmission interface 51. The wireless signal transmission interface 51 receives the wireless signal transmitted by the remote controller 71 and transmits the second remaining capacity time in the memory elements 02, 212, 222, 232. In addition, the present embodiment can be controlled or set by the remote controller 71. In addition, the remote controller 71 includes a display unit 72, and the remote controller 71 receives the second remaining capacity time transmitted by the wireless signal transmission interface 51 of the control module 5 and displays it on the display unit 72. Accordingly, not only the pointing unit 6 of the unit can display the correct name or type of the atomized solution, but also the remaining capacity thereof, the display unit 72 on the remote controller 71 can also simultaneously display the related information through wireless transmission. As for the power module 52, it is used to provide power, which may be an external AC power source, a rectified DC power source, or a battery. In the meantime, the embodiment further includes a memory 8 electrically connected to the control module 5. The memory 8 stores a release valve activation time 81 and a release valve opening duration 82. The control module 5 is based on the release valve start time

8 1. The release valve opening duration 82 controls the solution release valve 3. Further, the release valve start time 8 1 may be a storage setting of the solution release valve 3 start time period, and the release valve open duration 82 control may be a storage setting of the solution release valve 3 open duration. Accordingly, in the present embodiment, the following control functions can be achieved through the control module 5: 1. The solution release valve 3 is controlled to further control the release of the solution in the containers 20, 21, 22, 2 3 . That is, as described above, the pre-stored release valve activation time 81 and the release valve opening duration 82 can be used to control the composition of the -10-4 M412807 to be atomized and its specific gravity, for example, the control container 20 and the container 23 Release 20CC, and 5 CC respectively. Second, control the atomization intensity ' or concentration, that is, control the power of the piezoelectric ceramic oscillator 41 to make the atomization effect different. Third, the start time control, through the control solution release valve 3, and the piezoelectric ceramic oscillator 4 1 can be controlled by the start time, for example, every day at 10 o'clock to open the operation, and run for one hour, and so on. . Therefore, in the present embodiment, after the storage is set, the automatic operation can be achieved, including when the operation is started, the running strength or concentration, the running duration, and the atomized components, and their proportions. Further, information on all the solutions and the remaining amount thereof can be known through the display screen 6, or the display unit 7 2 on the remote controller 71. The above-described embodiments are merely examples for convenience of description, and the scope of the claims is intended to be based on the scope of the patent application, and is not limited to the above embodiments. [Simple description of the map]

Fig. 1 is a conventional atomizing device. Fig. 2 is a preferred embodiment of the present invention. Fig. 3 is a preferred embodiment of the present invention. [Main element symbol description 20, 21, 22, 23 201.211.221.231 202.212.222.232 203.213.223.233. A perspective view of an embodiment. System architecture diagram of an embodiment. 】 Container Outlet Memory Element Drop Detection Element Solution Release Valve -11 - M412807

3 1 Diversion tube 4 Atomization module 4 1 Piezoelectric ceramic oscillator 42 Fan 43 Liquid collection tank 5 Control module 5 1 Arrr tearing transmission interface 52 Power module 6 Display screen 7 Input module 7 1 Remote control 72 Display unit 8 Memory 8 1 Release valve start time 82 Release valve open duration 9 Atomizer 9 1 Oil Μ 92 Ultrawave oscillator T Solution information-12-

Claims (1)

M412807 VI. Patent Application Range: 1. A smart solution atomization device, comprising: at least one container, each container comprising a liquid outlet, a memory component and a solution release valve, the memory component has a first a solution discharge valve is disposed at the liquid outlet at a remaining capacity time; An atomization module, the solution release valve is connected to the atomization module; at least one droplet detection component is disposed between the solution release valve and the atomization module; and - the control module a memory element electrically connected to each container, the solution release valve of each container, the at least one droplet detecting element, and the atomizing module; wherein the control module controls reading each The first remaining capacity time in the container of the container, and controlling the at least one droplet detecting component to detect a droplet time, the control module calculating the time of subtracting the droplet from the first remaining capacity time For a second remaining capacity time, the control module controls to store the second remaining capacity time in the memory component: the control module controls the solution release valve to be turned on or off, and the atomization module is turned on or off. . 2. The smart solution atomization device according to claim 1, wherein the atomization module comprises a piezoelectric ceramic oscillator, and a liquid collecting vessel, wherein the piezoelectric ceramic oscillator is connected to the The collecting vessel is electrically connected to the control module, and the solution releasing valve is connected to the collecting vessel. The smart solution atomization device of claim 2, further comprising at least one flow conduit 'connecting to the solution release valve and the atomization module Between the liquid dishes. 4. The smart solution atomization device of claim 1, further comprising a display screen electrically connected to the control module, the control module controlling the display screen to display the second remaining capacity time. 5. The intelligent solution atomizing device of claim 1, wherein the at least one droplet detecting element comprises an infrared detector. 6. The smart solution atomization device of claim 1, further comprising an input module electrically connected to the control module. 7. The smart solution atomization device of claim 1, further comprising a power module electrically connected to the control module. 8. The smart solution atomization device of claim 1, further comprising a remote controller for transmitting a wireless signal, the control module further comprising a wireless signal transmission interface, the wireless signal transmission The interface is to receive the wireless signal transmitted by the remote controller and transmit the second remaining capacity time. 9. The smart solution atomizing device of claim 8, wherein the remote controller comprises a display unit, the remote controller receiving the second remaining transmitted by the wireless signal transmission interface of the control module Capacity time and display it on the display unit. The smart solution atomizing device of claim 1, further comprising a memory electrically connected to the control module, wherein the memory has at least one release The valve activation time and the at least one release valve opening duration, the control module controls the solution release valve according to the at least one release valve activation time and the at least one release valve opening duration. -15-