阅读说明：本技术 一种智能监测纳米水雾制造装置及方法 (Intelligent monitoring nano water mist manufacturing device and method ) 是由 孔显娟 王国经 李琨 于 2021-06-28 设计创作，主要内容包括：本发明公开了一种智能监测纳米水雾制造装置,所述装置包括：主控制板、监测传感器、加热室、雾化室、干烧室和呼吸罩,所述监测传感器包括多种传感器分别安装在加热室、雾化室和干烧室内,所述主控制板与监测传感器连接,所述加热室分别与雾化室、干烧室连通,所述加热室内设置有加热器,所述干烧室内设置有电热丝,所述雾化室内设置有雾化片,所述主控制板分别与加热器、电热丝和雾化片连接,根据监测结果主控制板控制加热器、电热丝和雾化片的运行状态,所述呼吸罩通过输气管与雾化室连接,通过回气管与干烧室连接。本发明解决了现有纳米水雾制造设备产雾量小、无法形成监测反馈的问题。(The invention discloses an intelligent monitoring nano water mist manufacturing device, which comprises: the utility model discloses a dry combustion method of air conditioning, including main control panel, monitoring sensor, heating chamber, atomizer chamber, dry combustion chamber and respiratory mask, the monitoring sensor includes that multiple sensor installs respectively in heating chamber, atomizer chamber and dry combustion chamber, the main control panel is connected with the monitoring sensor, the heating chamber communicates with atomizer chamber, dry combustion chamber respectively, be provided with the heater in the heating chamber, be provided with the heating wire in the dry combustion chamber, be provided with the atomizing piece in the atomizer chamber, the main control panel is connected with heater, heating wire and atomizing piece respectively, according to the running state of monitoring result main control panel control heater, heating wire and atomizing piece, the respiratory mask passes through the gas-supply pipe and is connected with the atomizer chamber, is connected with dry combustion chamber through the muffler. The invention solves the problems that the existing nano water mist manufacturing equipment has small mist output and cannot form monitoring feedback.)

1. An intelligent monitoring nano water mist manufacturing device, characterized in that the device comprises: the utility model discloses a dry combustion method of air conditioning, including main control panel, monitoring sensor, heating chamber, atomizer chamber, dry combustion chamber and respiratory mask, the monitoring sensor includes that multiple sensor installs respectively in heating chamber, atomizer chamber and dry combustion chamber, the main control panel is connected with the monitoring sensor, the heating chamber communicates with atomizer chamber, dry combustion chamber respectively, be provided with the heater in the heating chamber, be provided with the heating wire in the dry combustion chamber, be provided with the atomizing piece in the atomizer chamber, the main control panel is connected with heater, heating wire and atomizing piece respectively, according to the running state of monitoring result main control panel control heater, heating wire and atomizing piece, the respiratory mask passes through the gas-supply pipe and is connected with the atomizer chamber, is connected with dry combustion chamber through the muffler.

2. The intelligent monitoring nano water mist manufacturing device according to claim 1, wherein the monitoring sensor comprises: atomizing quantity sensor, humidity transducer, temperature sensor and wind speed sensor, atomizing quantity sensor installs in the atomizer chamber, humidity transducer installs in the heating chamber, temperature sensor and wind speed sensor install in the dry combustion method room.

3. The intelligent monitoring nano water mist manufacturing device as claimed in claim 1, wherein the atomization sensor monitors the atomization amount in the atomization chamber, the humidity sensor monitors the humidity of the air in the heating chamber, the temperature sensor monitors the temperature of the gas in the dry burning chamber, the wind speed sensor monitors the flow rate of the gas in the dry burning chamber, and the monitoring results of the atomization sensor, the humidity sensor, the temperature sensor and the wind speed sensor are sent to the main control board.

4. The intelligent monitoring nano water mist manufacturing device as claimed in claim 1, wherein the atomizing chamber, the heating chamber and the dry burning chamber are sequentially arranged in the atomizing housing, the atomizing chamber, the heating chamber and the dry burning chamber are separated by partition plates, the top of the atomizing chamber is open, and gas freely circulates.

5. The apparatus according to claim 1, wherein the atomizing plate is mounted inside the atomizing chamber, the atomizing plate is connected to the main control board, water is added into the atomizing chamber, and the atomizing plate vibrates to generate nano-scale water mist.

6. The intelligent monitoring nano water mist manufacturing device as claimed in claim 1, wherein a heater is installed in the heating chamber, the heater is connected with a control mainboard, the control mainboard controls the heater to generate heat, water is injected into the heating chamber, and water vapor is manufactured through heat generated by the heater.

7. The apparatus for producing nano water mist with intelligent monitoring as claimed in claim 1, wherein a heating wire and a fan are installed in the dry burning chamber, the heating wire and the fan are both connected to a main control board, the heating wire heats air, the fan blows hot air to promote circulation of gas, and the main control board controls the heating temperature of the heating wire and the wind speed of the fan.

8. The manufacturing device of intelligent monitoring nanometer water mist according to claim 1, wherein the top of the atomization chamber is connected with an air pipe, the air pipe is connected to an air inlet of a respirator, the side wall of the dry combustion chamber is connected with an air return pipe, and the air return pipe is connected with an air outlet of a breathing nozzle.

9. The apparatus for intelligently monitoring the production of nanometer water mist according to claim 1, wherein the main control board is a central control device, and the main control board controls the vibration amplitude of the atomizing plate, the temperature of the heater and the heating wire, and the rotation speed of the fan according to the comparison between the monitoring result and the preset value, and adjusts the air supply suction speed and the concentration of the corresponding solution component in the air.

10. A manufacturing method of intelligent monitoring nano water mist is characterized by comprising the following steps:

heating purified water in the heating chamber by using a heater to generate water vapor, and monitoring the air humidity by using a humidity sensor;

utilizing an atomizing sheet to high-frequency slap purified water in an atomizing chamber to generate nanoscale water mist, and monitoring the water mist amount by an atomizing amount sensor;

heating air in the dry-burning room by using an electric heating wire, and monitoring the air temperature in the dry-burning room by using a temperature sensor;

mixing the water vapor, the nano-scale water mist and the heated air by using a fan and pushing the mixture to a respirator, wherein an air speed sensor monitors the flow speed of the air flow;

introducing the mixed gas in the respirator into a dry burning chamber through a gas return pipe for cyclic utilization;

monitoring results of the atomization sensor, the humidity sensor, the temperature sensor and the wind speed sensor are sent to the main control board;

and the main control panel compares the monitoring result with a preset value, and if the monitoring result exceeds a preset threshold value, the main control panel automatically controls the corresponding device to adjust until the preset requirement is met.

Technical Field

The invention relates to the technical field of nano water mist manufacturing, in particular to an intelligent monitoring nano water mist manufacturing device and method.

Background

There are four types of atomization methods that are common at present: electrospray atomization, pressure atomization, rotary disc atomization and ultrasonic atomization. Wherein the atomization amount of the electrospray atomization is too small, and the atomization rate is lower than 0.1 mL/h; pressure atomization can cause uncomfortable noise; the atomization particle diameter of the rotary disc atomization is too large and exceeds 100 mu m, and the atomization amount is small. Although some ultrasonic atomizers appear in the market at present, the ultrasonic atomizers have small atomization amount and large power consumption because the generated water mist is not heated, and a large amount of water mist is lost in the water mist transportation process, so that the atomization effect is poor. And the atomization control is difficult to form a unified and centralized control mode, and the atomization effect is poor.

And the traditional nanometer water mist generating device can not monitor the water mist generation amount, the temperature and the like, can not form feedback, can only consider subjective adjustment, is difficult to automatically adjust, and meets the use requirement.

Disclosure of Invention

Therefore, the invention provides an intelligent monitoring nano water mist manufacturing device and method, and aims to solve the problems that the existing nano water mist manufacturing equipment is small in mist production and cannot form monitoring feedback.

In order to achieve the above purpose, the invention provides the following technical scheme:

according to a first aspect of the invention, an intelligent monitoring nano water mist manufacturing device is disclosed, the device comprising: the utility model discloses a dry combustion method of air conditioning, including main control panel, monitoring sensor, heating chamber, atomizer chamber, dry combustion chamber and respiratory mask, the monitoring sensor includes that multiple sensor installs respectively in heating chamber, atomizer chamber and dry combustion chamber, the main control panel is connected with the monitoring sensor, the heating chamber communicates with atomizer chamber, dry combustion chamber respectively, be provided with the heater in the heating chamber, be provided with the heating wire in the dry combustion chamber, be provided with the atomizing piece in the atomizer chamber, the main control panel is connected with heater, heating wire and atomizing piece respectively, according to the running state of monitoring result main control panel control heater, heating wire and atomizing piece, the respiratory mask passes through the gas-supply pipe and is connected with the atomizer chamber, is connected with dry combustion chamber through the muffler.

Further, the monitoring sensor includes: atomizing quantity sensor, humidity transducer, temperature sensor and wind speed sensor, atomizing quantity sensor installs in the atomizer chamber, humidity transducer installs in the heating chamber, temperature sensor and wind speed sensor install in the dry combustion method room.

Further, atomizing quantity sensor monitors the atomizing quantity in the atomizing chamber, humidity transducer monitors and heats indoor air humidity, temperature sensor monitors the gas temperature in the dry combustion chamber, air velocity transducer monitors the gas flow rate in the dry combustion chamber, atomizing quantity sensor, humidity transducer, temperature sensor and air velocity transducer's monitoring result sends to the main control board.

Furthermore, the atomizing chamber, the heating chamber and the dry burning chamber are sequentially arranged in the atomizing shell, the atomizing chamber, the heating chamber and the dry burning chamber are separated by partition plates, the top of the atomizing chamber is open, and gas can freely circulate.

Further, the inside atomizing piece that installs of atomizer chamber, the atomizing piece is connected with the main control board, adds water in the atomizer chamber, and the atomizing piece vibrates and produces nanometer water smoke.

Further, install the heater in the heating chamber, the heater is connected with the control mainboard, the control mainboard control heater generates heat, and the water injection in the heating chamber makes steam through the heat that the heater produced.

Further, a heating wire and a fan are installed in the dry combustion chamber, the heating wire and the fan are both connected with a main control panel, the heating wire heats air, the fan blows hot air to promote the circulation of gas, and the main control panel controls the heating temperature of the heating wire and the air speed of the fan.

Further, the atomizing chamber top is connected with the gas-supply pipe, the gas-supply pipe is connected to the air inlet of respiratory mask, dry combustion chamber lateral wall is connected with the muffler, the gas outlet of breathing out the suction nozzle is connected to the muffler.

Furthermore, the main control board is a central control device, and the main control board compares the monitoring result with a preset value, controls the vibration amplitude of the atomizing sheet, the temperatures of the heater and the heating wire and the rotating speed of the fan, and adjusts the air supply and suction speed and the concentration of the corresponding solution component in the air.

According to a second aspect of the invention, a method for manufacturing intelligent monitoring nano water mist is disclosed, wherein the method comprises the following steps:

heating purified water in the heating chamber by using a heater to generate water vapor, and monitoring the air humidity by using a humidity sensor;

utilizing an atomizing sheet to high-frequency slap purified water in an atomizing chamber to generate nanoscale water mist, and monitoring the water mist amount by an atomizing amount sensor;

heating air in the dry-burning room by using an electric heating wire, and monitoring the air temperature in the dry-burning room by using a temperature sensor;

mixing the water vapor, the nano-scale water mist and the heated air by using a fan and pushing the mixture to a respirator, wherein an air speed sensor monitors the flow speed of the air flow;

introducing the mixed gas in the respirator into a dry burning chamber through a gas return pipe for cyclic utilization;

monitoring results of the atomization sensor, the humidity sensor, the temperature sensor and the wind speed sensor are sent to the main control board;

and the main control panel compares the monitoring result with a preset value, and if the monitoring result exceeds a preset threshold value, the main control panel automatically controls the corresponding device to adjust until the preset requirement is met.

The invention has the following advantages:

the invention discloses an intelligent monitoring nano water mist manufacturing device and method, wherein an atomization quantity sensor, a humidity sensor, a temperature sensor and an air speed sensor are arranged in an atomization chamber, a heating chamber and a dry burning chamber to detect various parameters, a main control panel compares a monitoring result with a preset value, and if the monitoring result exceeds a preset threshold value, a corresponding device is automatically controlled to adjust until a preset requirement is met, so that automatic adjustment is realized. The main control panel controls each electric appliance part, so that centralized and unified control is realized, the atomization process is closer to the actual requirement, and personalized adjustment is performed. The nanoscale water mist is generated through the atomizing sheet, and the noise generated in the working process of the atomizing equipment is reduced. The nanoscale water mist manufacturing equipment generates nanoscale water mist through high-frequency vibration of the atomizing plates, so that the atomizing rate of the atomizing equipment is improved. In addition, the water mist generated by the atomizing plate is nano-scale water mist, so the particle size of the water mist generated by the nano-scale water mist manufacturing equipment is smaller and more uniform compared with the water mist generated by the rotary disc atomizing equipment. The plurality of atomizing sheets are adopted to generate the nano-scale water mist, and the generated nano-scale water mist, the water vapor and the hot air are mixed to improve the temperature of the nano-scale water mist, so that the loss of the nano-scale water mist in the transportation process is reduced, and the atomizing amount of the nano-scale water mist manufacturing equipment is increased.

Drawings

In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly described below. It should be apparent that the drawings in the following description are merely exemplary, and that other embodiments can be derived from the drawings provided by those of ordinary skill in the art without inventive effort.

The structures, ratios, sizes, and the like shown in the present specification are only used for matching with the contents disclosed in the specification, so as to be understood and read by those skilled in the art, and are not used to limit the conditions that the present invention can be implemented, so that the present invention has no technical significance, and any structural modifications, changes in the ratio relationship, or adjustments of the sizes, without affecting the effects and the achievable by the present invention, should still fall within the range that the technical contents disclosed in the present invention can cover.

Fig. 1 is a schematic structural diagram of an intelligent monitoring nano water mist manufacturing device provided by an embodiment of the invention;

FIG. 2 is a flow chart of a method for manufacturing intelligently monitored nano water mist according to an embodiment of the invention;

fig. 3 is a circuit diagram of an atomized quantity sensor of an intelligent monitoring nano water mist manufacturing device according to an embodiment of the invention;

fig. 4 is a circuit diagram of a humidity sensor of an intelligent monitoring nano water mist manufacturing device according to an embodiment of the invention;

fig. 5 is a circuit diagram of a temperature sensor of an intelligent monitoring nano-water mist manufacturing device according to an embodiment of the present invention;

fig. 6 is a circuit diagram of an air velocity sensor of an intelligent monitoring nano-water mist manufacturing device according to an embodiment of the present invention.

In the figure: 1-heating chamber, 2-atomizing chamber, 3-dry burning chamber, 4-respirator, 11-water filling port, 12-heater, 21-atomizing sheet, 31-blower, 32-gas pipe, 33-air return pipe and 34-electric heating wire.

Detailed Description

The present invention is described in terms of particular embodiments, other advantages and features of the invention will become apparent to those skilled in the art from the following disclosure, and it is to be understood that the described embodiments are merely exemplary of the invention and that it is not intended to limit the invention to the particular embodiments disclosed. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

Example 1

The invention discloses an intelligent monitoring nano water mist manufacturing device, which comprises: the utility model discloses a dry combustion method of air conditioning, including main control board, monitoring sensor, heating chamber 1, atomizer chamber 2, dry combustion method room 3 and respiratory mask 4, the monitoring sensor includes that multiple sensor installs respectively in heating chamber, atomizer chamber and dry combustion method room, the main control board is connected with the monitoring sensor, heating chamber 1 communicates with atomizer chamber 2, dry combustion method room 3 respectively, be provided with heater 12 in the heating chamber 1, be provided with heating wire 34 in the dry combustion method room 3, be provided with atomizing piece 21 in the atomizer chamber 2, the main control board is connected with heater 12, heating wire 34 and atomizing piece 21 respectively, according to monitoring result main control board control heater 12, heating wire 34 and atomizing piece 21's running state, respiratory mask 4 passes through the gas-supply pipe 32 and is connected with atomizer chamber 2, is connected with dry combustion method room 2 through muffler 33.

The monitoring sensor includes: the atomizing device comprises an atomizing amount sensor, a humidity sensor, a temperature sensor and an air speed sensor, wherein the atomizing amount sensor is arranged in an atomizing chamber 2, the humidity sensor is arranged in a heating chamber 1, and the temperature sensor and the air speed sensor are arranged in a dry burning chamber 3; atomizing quantity sensor monitors the atomizing quantity in the atomizing chamber 2, humidity transducer monitors air humidity in the heating chamber 1, gas temperature in the dry combustion chamber 3 is monitored to temperature sensor, the gas velocity of flow in the dry combustion chamber 3 is monitored to air velocity transducer, atomizing quantity sensor, humidity transducer, temperature sensor and air velocity transducer's monitoring result sends to the main control board. And the main control board adjusts the state of the connected devices according to the preset value until the preset requirement is met.

The nano-scale water mist manufacturing equipment has the advantages of low noise, high atomization speed and large atomization amount. The atomizing chamber 2, the heating chamber 1 and the dry burning chamber 3 are three chambers which are connected together, and the atomizing chamber 2, the heating chamber 1 and the dry burning chamber 3 are arranged from left to right in sequence. The atomizing chamber 2, the heating chamber 1 and the dry burning chamber 3 are separated by partition plates, the top is open, and gas freely flows. The heating chamber 1 is respectively communicated with the upper parts of the atomizing chamber 2 and the dry burning chamber 3, and the respirator 4 is communicated with the atomizing chamber 2 through a gas conveying pipe 32. The lower part of the dry burning chamber 3 is provided with an air inlet hole, and outside air can enter the dry burning chamber 3 through the air inlet hole. The atomizing plate 21 is installed at the bottom of the atomizing chamber 2, in this embodiment, three atomizing plates 21 are installed in the atomizing chamber 2, and the atomizing plates 21 can vibrate at high frequency after being electrified, so as to break up the liquid water molecule structure and generate naturally elegant nano-scale water mist. In order to adjust the atomization rate of the atomization sheet 21, each atomization sheet 21 is connected with a switch, and the work and the closing of the corresponding atomization sheet 21 can be independently controlled by controlling each switch, so that the aim of adjusting the atomization rate of the atomization sheet 21 is fulfilled. The heater 12 is installed at the bottom of the heating chamber 1, and by energizing the heater 12, pure water in the heating chamber 1 is evaporated to generate water vapor. The heating wire 34 is installed at the upper portion of the dry combustion chamber 3, and the temperature of the air in the dry combustion chamber 3 is raised by supplying electricity to the heating wire 34 to generate heat. In this embodiment, the fan 31 is installed in the middle of the dry combustion chamber 3, the fan 31 blows the hot air in the dry combustion chamber 3 and the water vapor in the heating chamber 1 to the atomizing chamber 2, so that the heated air, water vapor and nano-scale water mist are mixed and then enter the respirator 4 through the air pipe 32, the respirator is of a foldable and contractible structure, the respirator is provided with an air suction port through which air is sucked, and of course, the fan 31 can also be installed in the atomizing chamber 2 and the heating chamber 1. The temperature of the nano-scale water mist is improved by mixing the nano-scale water mist, the water vapor and the hot air, and the loss of the nano-scale water mist in the transportation process is reduced, so that the atomization amount of the nano-scale water mist manufacturing equipment is increased.

In order to conveniently and respectively add purified water into the heating chamber 1 and the atomizing chamber 2, the heating chamber 1 and the atomizing chamber 2 are both provided with a water adding port 11 for adding the purified water, when the purified water is lacked in the heating chamber 1 or the atomizing chamber 2, only the cover cap on the water adding port 11 needs to be screwed down to add the purified water, then the cover cap is screwed down, and the nano-scale water mist manufacturing equipment can be continuously used.

In order to reduce the power consumption of the heating wire 34, in the present embodiment, a gas return pipe 33 is provided between the respiratory mask 4 and the dry combustion chamber 3, one end of the gas return pipe 33 is connected to the respiratory mask 4, and the other end is connected to the gas inlet of the dry combustion chamber 3, so that the mixed gas in the respiratory mask 4 is introduced into the dry combustion chamber 3 through the gas return pipe 33. Because the mixed gas in the respirator 4 is higher in temperature and contains a large amount of heat and nanometer water mist, the mixed gas in the respirator 4 is led into the dry burning chamber 3 for cyclic utilization, and the heating wire 34 only needs to consume little electric quantity to heat the gas in the dry burning chamber 3 to the set temperature, so that the electric quantity loss of the heating wire 34 is reduced, and the atomization amount output by the nanometer water mist manufacturing equipment is increased.

The main control board is a central control device and controls the vibration amplitude of the atomizing sheet, the temperatures of the heater and the heating wire and the rotating speed of the fan, and the air supply and suction speed and the concentration of the corresponding solution component in the air are adjusted. The atomizing piece is connected with the main control panel, and the atomizing is indoor to add water, and the atomizing piece vibration produces nanometer water smoke, realizes the adjustment to nanometer water smoke.

Example 2

The embodiment discloses a method for manufacturing intelligent monitoring nano water mist, which comprises the following steps:

heating purified water in the heating chamber 1 by using a heater 12 to generate water vapor, and monitoring the air humidity by using a humidity sensor;

the atomizing sheet 21 is utilized to slap the purified water in the atomizing chamber 2 at high frequency to generate nano-scale water mist, and the atomizing amount sensor monitors the water mist amount;

the air in the dry burning chamber 3 is heated by the electric heating wire 34, and the temperature sensor monitors the air temperature in the dry burning chamber 3;

the water vapor, the nano-scale water mist and the heated air are mixed by a fan 31 and pushed to the respirator 4, and the air speed sensor monitors the flow speed of the air flow;

introducing the mixed gas in the respirator 4 into the dry burning chamber 3 through a gas return pipe 33 for cyclic utilization;

monitoring results of the atomization sensor, the humidity sensor, the temperature sensor and the wind speed sensor are sent to the main control board;

and the main control panel compares the monitoring result with a preset value, and if the monitoring result exceeds a preset threshold value, the main control panel automatically controls the corresponding device to adjust until the preset requirement is met.

After the fan 31 circular telegram was rotated, the air after will dry combustion method room 3 internal heating and the steam propelling movement in the heating chamber 1 to atomizer chamber 2 for steam, nanometer water smoke and the air mixture after the heating, under the promotion of pressure, the gas after the mixture gets into respiratory mask 4 along gas-supply pipe 32.

In the method for producing nano-scale water mist, after step S104, the mixed gas in the breathing mask 4 is introduced into the dry burning chamber 3 through the air return pipe 33 for recycling. Because the mixed gas in the respirator 4 is higher in temperature and contains a large amount of heat and nanometer water mist, the air in the respirator 4 is guided into the dry combustion chamber 3 to be reused, and the heating wire 34 only needs to consume little electric quantity to heat the air in the dry combustion chamber 3 to the set temperature, so that the energy loss of the heating wire 34 is reduced, and the atomization amount output by the atomization chamber is increased.

The embodiment discloses an intelligent monitoring nano water mist manufacturing method, wherein an atomization sensor, a humidity sensor, a temperature sensor and an air speed sensor are installed in an atomizing chamber, a heating chamber and a dry burning chamber to detect various parameters, a main control board compares a monitoring result with a preset value, and if the monitoring result exceeds a preset threshold value, corresponding devices are automatically controlled to adjust until preset requirements are met, so that automatic adjustment is realized. The main control panel controls each electric appliance part, so that centralized and unified control is realized, the atomization process is closer to the actual requirement, and personalized adjustment is performed. The nanoscale water mist is generated through the atomizing sheet, and the noise generated in the working process of the atomizing equipment is reduced. The nanoscale water mist manufacturing equipment generates nanoscale water mist through high-frequency vibration of the atomizing plates, so that the atomizing rate of the atomizing equipment is improved. In addition, the water mist generated by the atomizing plate is nano-scale water mist, so the particle size of the water mist generated by the nano-scale water mist manufacturing equipment is smaller and more uniform compared with the water mist generated by the rotary disc atomizing equipment. The plurality of atomizing sheets are adopted to generate the nano-scale water mist, and the generated nano-scale water mist, the water vapor and the hot air are mixed to improve the temperature of the nano-scale water mist, so that the loss of the nano-scale water mist in the transportation process is reduced, and the atomizing amount of the nano-scale water mist manufacturing equipment is increased.

Although the invention has been described in detail above with reference to a general description and specific examples, it will be apparent to one skilled in the art that modifications or improvements may be made thereto based on the invention. Accordingly, such modifications and improvements are intended to be within the scope of the invention as claimed.