CN211932554U - Electronic atomization device based on molecular resonance fragrance production - Google Patents

Abstract

The utility model discloses an electronic atomization device based on molecular resonance fragrance production, which comprises a main machine (1) and a molecular resonance atomizer (2); the molecular resonance atomizer (2) is detachably arranged at the upper part of the main machine (1); the molecular resonance atomizer (2) comprises an atomizing unit (22), an upper end cover (21) and a lower end cover (23), wherein the upper end cover and the lower end cover are axially matched with the upper end and the lower end of the atomizing unit; the upper end cover (21) is provided with a suction nozzle (211), an oil injection hole (212) and an air inlet hole (213); the atomization unit (22) is of a multi-layer coaxial cylinder or cylinder-like structure and sequentially comprises a heat insulation layer (221), a heating body (222), an electric heat conversion wave generating body (223), a molecular resonant cavity (224), a one-way heat conducting pipe (225) and a porous oil storage component (226) from outside to inside; the oil filler hole (212) is communicated with the porous oil storage component (226).

Description

Electronic atomization device based on molecular resonance fragrance production

Technical Field

The utility model belongs to the technical field of the electron cigarette, specifically relate to an electron atomizing device based on molecular resonance produces fragrance.

Background

In recent years, under the double pressure of the global cigarette control mode and public health public opinion, the development of the traditional cigarette is increasingly restricted, and the electronic cigarette is taken as a non-combustible low-harm cigarette substitute with great development potential, and the heat tide of health consumption is raised worldwide.

From the world to the present, various products such as disposable simulation cigarettes, pressure-regulating electronic cigarettes and temperature-control electronic cigarettes come out endlessly. In general, imitating smoking mode, maintaining smoking feeling and releasing vaporized smoke are common characteristics of various types of electronic cigarettes, and appearance modeling, internal structure and performance optimization are main concerns of product updating. Through product research and patent analysis, the electronic cigarettes under international tobacco grand flagging and even under global famous brands are mostly mainly atomized by resistance heating. Resistance heating atomizing is based on the heat-conduction principle, triggers electron cigarette work through air flow sensor, mechanical button or touch button etc. switches on control circuit and supplies power for heating element such as metal heater, stainless steel net piece, ultra-thin stainless steel sheet and micropore ceramic heating plate, and heating tobacco tar atomizing produces aerosol and supplies the user to aspirate. Although the technical application of the resistance heating atomization electronic cigarette is mature, the following problems generally exist: the atomization technology belongs to contact atomization, and the tobacco tar is easy to sinter and adhere on the surface of a heating component and generate carbon deposition, so that harmful ingredients are released by pyrolysis, burnt odor is generated or the electric heating performance and the service life of the heating component are influenced; in addition, tobacco tar contacts with the heating element for a long time, heavy metals can be leached and transferred to aerosol, and the health hidden danger is very large.

The utility model discloses a solve above-mentioned problem and proposed.

SUMMERY OF THE UTILITY MODEL

In view of the not enough of resistance heating atomizing electron cigarette, the utility model provides an produce fragrant electron atomizing device based on molecular resonance. The device not only atomization mechanism is different from resistance heating atomizing electron cigarette, but also can effectively solve resistance heating atomizing electron cigarette and have the easy sintering adhesion of tobacco tar contact atomizing and the technical defect that heavy metal can leach to have advantages such as the thermal response speed is fast, hot homogeneity is good, atomization efficiency height.

The utility model provides a technical scheme that its technical problem adopted is: an electronic atomization device based on molecular resonance fragrance production is characterized by comprising a host 1 and a molecular resonance atomizer 2; the microcontroller 11 and the battery 12 are arranged inside the shell 10 of the host 1, and the main control key 13, the display screen 14, the first power adjusting key 151, the second power adjusting key 152 and the charging interface 16 are arranged on the side surface of the shell 10; the molecular resonance atomizer 2 comprises an atomizing unit 22, and an upper end cover 21 and a lower end cover 23 which are axially matched with the upper end and the lower end of the atomizing unit.

Preferably, the atomizing unit 22 is a multi-layer coaxial cylinder or cylinder-like structure, and includes, in order from outside to inside, a heat insulating layer 221, a heating element 222, an electrothermal conversion wave generating body 223, a molecular resonant cavity 224 filled with a gas-phase medium or a liquid-phase medium, a unidirectional heat pipe 225 conducting heat radially inward, and a porous oil storage assembly 226 having both oil storage and oil locking functions. The cylinder-like structure is a cylinder body with a wall in a regular polygon shape, such as a regular hexagonal cylinder body or a regular octagonal cylinder body.

Preferably, the upper end cover 21 is provided with a suction nozzle 211, an oil filling hole 212, an air inlet hole 213 and a first elastic cushion 214; the lower end cover 23 is provided with a second elastic buffer pad 231 and a base 232; the oil filler hole 212 communicates with the porous oil reservoir assembly 226.

Preferably, the heating element 222 is made by curling materials such as a polyimide electrothermal film, a carbon fiber electrothermal film, a carbon crystal electrothermal film, a graphene electrothermal film, a ceramic heating sheet, a metal or alloy mesh sheet and the like into a cylinder, and is externally provided with an electrode lead and electrically connected with the host 1 through the base 232.

Preferably, the electrothermal conversion wave generator 223 is a temperature-resistant insulating tube capable of generating infrared light waves, such as an opal quartz glass tube or a high-temperature-resistant insulating tube coated with a wave generating material, and is configured to generate infrared light waves with a certain wavelength.

Preferably, the molecule resonance cavity 224 is interposed between the electrothermal conversion wave generator 223 and the one-way heat pipe 225, and the first elastic cushion 214 and the second elastic cushion 231, which are ring-shaped, are embedded at the top and the bottom, respectively, for decomposing and buffering transient pressure generated during molecule resonance.

Preferably, the molecular resonant cavity 224 is filled with a gas-phase medium or a liquid-phase medium, the gas-phase medium is a single gas or a mixed gas mainly composed of polar gas molecules, and the liquid-phase medium is alcohols or ethers.

Preferably, the one-way heat conduction pipe 225 is made of microcrystalline glass, carbon fiber one-way reinforced composite material or other one-way heat conduction material.

Preferably, the heat insulating layer 221 is made of vacuum glass, aerogel felt, rubber and plastic, aluminum silicate, glass wool or rock wool, and the like, and a heat-resistant shell is arranged around the heat insulating layer for heat insulation.

Preferably, the porosity of the porous oil storage component 226 ranges from 40 to 60%, the pore diameter ranges from 10 to 20 μm, and the mechanical strength is greater than 10 Mpa; the porous oil reservoir 226 may be made of ceramics such as alumina or zirconia.

The utility model discloses produce fragrant electron atomizing device's theory of operation based on molecular resonance does: the heating element 222 is driven by an electrical signal to heat the electrothermal conversion wave generator 223 to generate an infrared light wave with a certain wavelength, and radiate the infrared light wave into the molecular resonance cavity 224, the infrared light wave and a gas-phase medium or a liquid-phase medium in the molecular resonance cavity 224 generate a molecular resonance effect and generate high-density heat, and the heat is transferred to the porous oil storage component 226 through the one-way heat pipe 225, so that the tobacco tar in the porous oil storage component 226 is atomized to form aerosol for a smoker to suck.

Compared with the prior art, the beneficial effects of the utility model are that:

1. the utility model discloses an electron atomizing device passes through one-way heat pipe 225 with the heat effect that the molecular resonance absorption effect between infrared light wave and gaseous phase medium or the liquid phase medium produced and transmits for porous oil storage subassembly 226, and then realizes tobacco tar non-contact atomizing, and the atomization mechanism is different with resistance heating atomizing electron cigarette.

2. The utility model discloses a heat-generating body 222 of electronic atomization device is not direct contact with the tobacco tar, does not have the tobacco tar sintering adhesion release harmful component on heat-generating body 222, sends the problem that burnt flavor and heavy metal leached.

3. The utility model discloses an electron atomizing device is the non-contact atomizing of tobacco tar for also can suitably add the high natural fragrant raw materials of sugar content in the tobacco tar composition, widened the application range of natural fragrant raw materials, richened the fragrant rhythm taste of tobacco tar and reduced the healthy risk of tobacco tar.

4. The utility model discloses a preferred opal quartz glass pipe of electron atomizing device makes high-efficient electric heat conversion wave-generating body, its spectral radiance in 2.5-25 mu m infrared wavelength range is up to more than 95%, with the resonance absorption spectrum matching of the gaseous phase medium in the molecular resonance intracavity or liquid medium, gaseous phase medium or liquid medium can strongly absorb infrared light wave energy owing to molecular resonance effect, impel its inside dipole molecule high frequency reciprocating motion, produce "internal friction heat" and then make gaseous phase medium or liquid medium's temperature evenly rise rapidly, one-way heat pipe forms 360 omnidirectionals, the large tracts of land contact with porous oil storage subassembly periphery, molecular resonance energy is wide range homogeneity form and puts in, consequently the utility model discloses an electron atomizing device thermal response speed is fast, thermal uniformity is good, atomizing is efficient.

5. The utility model discloses an electron atomizing device adopts wear-resisting, corrosion-resistant, the porous oil storage subassembly of high temperature resistance, has realized oil storage and lock oily function, and it is compared with resistance heating atomizing electron cigarette, and not only the suction stability is better, the tobacco tar taste reduction degree is higher one by one, but also can eliminate the burnt smell of pasting of leading the cotton introduction of oil.

6. The utility model discloses an electron atomizing device's molecule resonant cavity 224's top and bottom are provided with first elasticity blotter 214 and second elasticity blotter 231 respectively, can in time decompose and cushion the instantaneous pressure that produces to the molecular resonance in-process, have greatly promoted electron atomizing device's fail safe nature and have prolonged its life.

7. The utility model discloses an electron atomizing device adopts battery 12 to supply power for heat-generating body 222, and the heating electrothermal conversion sends out the ripples body and produces the infrared light wave close with gaseous phase medium or liquid medium molecule resonance absorption wavelength, and no electromagnetic radiation, safety ring protects, and can realize the autonomic regulation of rate of heating and smog volume through controlling first power adjustment key 151 (being used for the increase power) and second power adjustment key 152 (being used for the reduce power), and intelligent degree is high, the simple operation.

Drawings

Fig. 1 is a schematic structural view of the electronic atomization device for producing incense based on molecular resonance.

Fig. 2 is a schematic structural decomposition diagram of the molecular resonance atomizer of the present invention.

Fig. 3 is a top view of the atomizing unit of the present invention.

Description of reference numerals: 1. a host; 10. a housing; 11. a microcontroller; 12. a battery; 13. a main control key; 14. a display screen; 151. a first power adjustment key; 152. a second power adjustment key; 16. a charging interface; 2. a molecular resonance atomizer; 21. an upper end cover; 211. a suction nozzle; 212. an oil filler hole; 213. an air inlet; 214. a first resilient cushion; 22. an atomizing unit; 221. a heat insulation layer; 222. a heating element; 223. electro-thermal conversion wave generator; 224. a molecular resonance cavity; 225. a one-way heat conduction pipe; 226. a porous oil storage component; 23. a lower end cover; 231. a second resilient cushion; 232. a base.

Detailed Description

In order to make the objects, technical solutions and advantages of the present invention more clearly understood, the present invention will be described in further detail with reference to the accompanying drawings and embodiments.

The utility model discloses fragrant electron atomizing device is produced based on molecular resonance's structural schematic is shown in FIG. 1, and the device includes host computer 1 and sets up in order can dismantle the mode 2 two parts of molecular resonance atomizer on host computer 1 upper portion.

A microcontroller 11 for capturing and acquiring user instructions in real time and performing dynamic analysis and execution and a battery 12 for providing power support are arranged inside a shell 10 of the host 1; a main control key 13 for realizing operations such as startup and shutdown, normal suction, initialization and the like, a display screen 14 for displaying set power, suction duration, electric quantity use conditions and the like, and a first power adjusting key 151 and a second power adjusting key 152 for supporting a user to define heating power of a heating body 222, wherein the first power adjusting key 151 is used for increasing power, and the second power adjusting key 152 is used for reducing power are arranged on the side surface of a shell 10 of the host 1; and a Micro-USB or Type-C charging interface 16 with charging and firmware upgrading functions.

The schematic structural exploded view of the molecular resonance atomizer 2 is shown in fig. 2, which includes an atomizing unit 22 (the top view is shown in fig. 3) and an upper end cap 21 and a lower end cap 23 axially fitted to the upper and lower ends thereof; the upper end cover 21 is provided with a suction nozzle 211, an oil filling hole 212, an air inlet hole 213 and a first elastic cushion 214; the lower end cap 23 is provided with a second elastic buffer pad 231 and a base 232. The atomization unit 22 is a multi-layer coaxial cylinder structure, and comprises a heat insulation layer 221, a heating element 222, an electrothermal conversion wave generating body 223, a molecular resonance cavity 224, a one-way heat conduction pipe 225 and a porous oil storage component 226 from outside to inside in sequence. The heat insulation layer 221 is made of vacuum glassThe heat preservation device is made of light and high-temperature resistant materials such as glass, aerogel felt, rubber and plastic, aluminum silicate, glass wool or rock wool, and a shell is arranged on the periphery of the heat preservation device to play a heat preservation role, so that the heat utilization efficiency of the molecular resonance atomizer 2 is improved, and meanwhile, the shell temperature of the molecular resonance atomizer 2 can be effectively reduced, and a user is prevented from being scalded; the heat-insulating layer 221 is preferably a double-layer vacuum glass tube, and the gap between the two layers of glass is 0.1-0.2 mm. The heating element 222 is tightly attached to the periphery of the electrothermal conversion wave generator 223 and used for heating the electrothermal conversion wave generator 223, the heating element 222 is made by rolling a polyimide electrothermal film, a carbon fiber electrothermal film, a carbon crystal electrothermal film, a graphene electrothermal film, a ceramic heating sheet, a metal or alloy mesh sheet and other materials into a cylindrical shape, and the preferred specific resistance is 10^-6And the graphene electrothermal film with omega.cm and thermal conductivity coefficient of 5300W/m.K is externally provided with an electrode lead and is electrically connected with the host 1 through the base 232. The electrothermal conversion wave generator 223 is preferably a milk-white quartz glass tube, which can generate infrared light waves with a certain wavelength under the electric heating action of the heating element 222, and the wavelength range of more than 95% of the infrared light waves is 2.5-25 μm. The molecular resonance cavity 224 is disposed between the electrothermal conversion wave generator 223 and the one-way heat pipe 225, and a gas-phase medium or a liquid-phase medium is filled in the cavity, wherein the gas-phase medium mainly comprises a single gas or a mixed gas composed of polar gas molecules, and the like, preferably air; liquid phase medium such as alcohols or ethers, preferably propylene glycol or glycerol, the top and the bottom of the cavity decompose and buffer instantaneous pressure generated in the molecular resonance process through the embedded annular first elastic buffer pad 214 and the embedded annular second elastic buffer pad 231, so that the safety and reliability of the electronic atomization device are improved, and the service life of the electronic atomization device is prolonged. The unidirectional heat pipe 225 has a radial thermal conductivity greater than an axial thermal conductivity, and is preferably a glass-ceramic pipe, which rapidly transfers molecular resonance energy generated between an infrared light wave and a gas phase medium or a liquid phase medium radially inward to the porous oil storage module 226. The porous oil storage component 226 has the functions of oil storage and oil locking, is preferably made of alumina ceramics, and has the porosity range of 40-60%, the pore diameter range of 10-20 mu m and the mechanical strength of more than 10 Mpa.

The utility model discloses an electronic atomization device based on fragrant is produced to molecular resonance's application method as follows: after the molecular resonance atomizer 2 is filled with oil through the oil filling hole 212, the base 232 of the lower end cover 23 is fixed on the upper part of the main machine 1 in a magnetic attraction manner; continuously pressing the main control key 13 for three times within 2 seconds to start the electronic atomization device, adjusting the first power adjusting key 151 and the second power adjusting key 152 as required to complete the setting of the heating power of the heating body 222, and then pressing the main control key 13 for a long time to suck the smoke atomized by the tobacco tar. In the pumping process, the microcontroller 11 may detect the key pressing time length in real time, and when the time length exceeds a set value (generally 10 seconds), the microcontroller 11 may control the molecular resonance atomizer 2 to stop outputting, so as to prevent the heating element 222 from generating a phenomenon of continuous high heat, and after several seconds, the user may reuse the heating element.

The above description is only the preferred embodiment of the present invention, and is not intended to limit the present invention. For those skilled in the art, any modification, equivalent replacement, and improvement made according to the technical solutions or technical features disclosed in the present invention should fall within the protection scope of the present invention without creative efforts.

Claims (7)

1. An electronic atomization device based on molecular resonance fragrance production is characterized by comprising a main machine (1), a molecular resonance atomizer (2); the molecular resonance atomizer (2) is detachably arranged at the upper part of the main machine (1); the molecular resonance atomizer (2) comprises an atomizing unit (22), an upper end cover (21) and a lower end cover (23), wherein the upper end cover and the lower end cover are axially matched with the upper end and the lower end of the atomizing unit; the upper end cover (21) is provided with a suction nozzle (211), an oil injection hole (212) and an air inlet hole (213); the atomization unit (22) is of a multi-layer coaxial cylinder or cylinder-like structure and sequentially comprises a heat insulation layer (221), a heating body (222), an electric heat conversion wave generating body (223), a molecular resonant cavity (224), a one-way heat conducting pipe (225) and a porous oil storage component (226) from outside to inside; the oil filler hole (212) is communicated with the porous oil storage component (226).

2. The electronic atomization device of claim 1, wherein a temperature-resistant shell is arranged on the periphery of the heat-insulating layer (221).

3. Electronic atomisation device according to claim 1, characterised in that a first resilient cushion (214) is arranged between the upper end cap (21) and the atomising unit (22); and a second elastic cushion pad (231) and a base (232) are arranged on the lower end cover (23).

4. The electronic atomizer device according to claim 1, wherein said electrothermal converting wave generator (223) is a temperature-resistant insulating tube capable of generating infrared light waves.

5. The electronic atomizer according to claim 1, wherein said molecular resonance chamber (224) is interposed between said electrothermal conversion wave generator (223) and said one-way heat pipe (225), and said molecular resonance chamber (224) is filled with a gas phase medium or a liquid phase medium.

6. The electronic atomizer device according to claim 1, wherein the porous oil reservoir (226) has a porosity ranging from 40 to 60%, a pore size ranging from 10 to 20 μm, and a mechanical strength greater than 10 Mpa.

7. The electronic atomization device of claim 1, wherein a microcontroller (11) and a battery (12) are arranged inside a housing (10) of the host (1), and a main control key (13), a display screen (14), a first power adjustment key (151), a second power adjustment key (152) and a charging interface (16) are arranged on the side surface of the housing (10).

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