WO2023169030A1 - Heating and atomization apparatus - Google Patents

Abstract

A heating and atomization apparatus (10), comprising a host (100), a dielectric carrier (200) and a temperature control body (300), wherein the host (100) comprises an outer conductor (111), an inner conductor (112) and a microwave unit (120); the inner conductor (112) is connected to the outer conductor (111) and is located in a heating cavity (111a), which is enclosed by the outer conductor (111); the microwave unit (120) is used for transmitting microwaves to the heating cavity (111a); the dielectric carrier (200) is detachably connected to the host (100) and comprises a bearing section (220), which is used for accommodating an atomization medium (20) and is located in the heating cavity (111a); the atomization medium (20) can absorb the microwaves to generate heat; the temperature control body (300) can be located in the heating cavity (111a) and is accommodated in the bearing section (220) to be directly coated by the atomization medium (20), and the inner conductor (112) is in contact with the outer surface of the temperature control body (300); the temperature control body (300) changes the initial conductivity when exceeding a critical temperature, the heating cavity (111a) blocks or stops microwave transmission, the temperature control body (300) recovers the initial conductivity when not exceeding the critical temperature, and the heating cavity (111a) allows the microwave transmission.

Description

Heated atomization device

Cross-references to related applications

This application claims priority to the Chinese patent application filed with the China Patent Office on March 8, 2022, with the application number 2022204953302 and the invention name "Heated Atomization Device", the entire content of which is incorporated into this application by reference.

Technical field

The present application relates to the field of display technology, and in particular to a heating atomization device.

technical background

The heated atomizing device can heat the atomizing medium in a non-burning manner, thereby reducing the emission of harmful substances after the atomizing medium is atomized and improving the health and safety of the heated atomizing device. However, for traditional heating atomization devices, it is usually difficult to accurately detect the heating temperature, resulting in the defect of low temperature control accuracy.

Contents of the invention

According to various embodiments of the present application, a heated atomization device is provided.

A heated atomization device, including:

The host computer includes an outer conductor, an inner conductor and a microwave unit; the inner conductor is connected to the outer conductor and is located in the heating cavity surrounded by the outer conductor, and the microwave unit is used to emit microwaves to the heating cavity;

A medium carrier, detachably connected to the host, including a load-bearing section for containing atomized medium and located in the heating cavity, the atomized medium can absorb microwaves to generate heat; and

The temperature control body can be located in the heating cavity and accommodated in the bearing section to be directly covered by the atomized medium, and the inner conductor is in contact with the outer surface of the temperature control body;

Wherein the temperature control body changes the initial conductivity when exceeding the critical temperature, and the heating cavity blocks or stops microwave transmission; the temperature control body restores the initial conductivity when the critical temperature is not exceeded, and the heating cavity allows microwave transmission.

In one embodiment, the temperature control body is independent of the host and has a first state and a second state. When the temperature control body is in the first state, the temperature control body abuts the inner conductor. When the temperature control body is in the second state, the temperature control body is fixed on the bearing section and separated from the inner conductor.

In one embodiment, the temperature control body includes a negative temperature coefficient thermistor. When the temperature control body is greater than the critical temperature, the resistance suddenly decreases and transforms into a conductor. When the temperature control body is less than or equal to the critical temperature, the temperature control body returns to an insulator.

In one embodiment, the temperature control body includes a positive temperature coefficient thermistor. When the temperature control body is greater than the critical temperature, the resistance suddenly increases and transforms into an insulator. When the temperature control body is less than or equal to the critical temperature, the temperature control body returns to a conductor.

In one embodiment, the outer conductor, the inner conductor and the temperature control body are coaxially arranged.

In one embodiment, the outer conductor includes a bottom plate and a side tube, and the side tube is arranged around the central axis of the outer conductor and connected to the periphery of the bottom plate.

In one embodiment, the inner conductor is fixed on the bottom plate, and the temperature control body is in contact with an end of the inner conductor away from the bottom plate.

In one embodiment, when the temperature control body is greater than the critical temperature, the resonant frequency of the heating cavity does not match the emission frequency of microwaves; when the temperature control body is less than or equal to the critical temperature, the resonance frequency of the heating cavity The resonant frequency matches the microwave emission frequency.

In one embodiment, the carrying section includes a wave-transparent body capable of passing microwaves, and the wave-transparent body is used to contain the atomized medium.

In one embodiment, the microwave unit includes a microwave generator and an antenna connected to each other, the microwave generator is located outside the heating cavity, and a part of the antenna extends into the heating cavity.

In one embodiment, the critical temperature ranges from about 100°C to about 400°C.

In one embodiment, the media carrier further includes a suction nozzle section, which is connected to the carrying section and at least partially located outside the heating chamber.

In one embodiment, the temperature control body is in the shape of a sheet or a column.

An embodiment of the present application has the following technical effects. In view of the fact that the inner conductor is in contact with the outer surface of the temperature control body; the temperature control body changes its initial conductivity when it exceeds the critical temperature, the heating cavity blocks or stops microwave transmission, and the host will stop heating the atomized medium; the temperature control body does not exceed the critical temperature When the initial conductivity is restored, the heating cavity allows microwave transmission, and the host will resume heating the atomized substrate. Therefore, on the basis of making the atomization medium be effectively atomized, as long as the atomization temperature of the atomization medium exceeds the critical temperature, the host will stop heating, thereby preventing the atomization medium from being heated and atomized when the temperature is higher than the critical temperature. Improve the control accuracy of the atomization temperature of the atomization medium, avoid the cracking of the atomization medium due to excessive temperature to produce harmful substances with a burnt smell, and improve the health and safety of the use of heated atomization devices.

Description of the drawings

In order to more clearly explain the embodiments of this specification or the technical solutions in the prior art, the drawings needed to be used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings in the following description are only These are some of the embodiments described in this specification. For those of ordinary skill in the art, other drawings can be obtained based on these drawings without exerting any creative effort.

FIG. 1 is a schematic plan view of a heated atomization device according to an embodiment.

Figure 2 is a partial structural diagram of the heating atomization device shown in Figure 1.

Figure 3 is a schematic plan view of the assembly of the medium carrier and the temperature control body in the heating atomization device shown in Figure 1.

Detailed ways

In order to facilitate understanding of the present application, the present application will be described more fully below with reference to the relevant drawings. The preferred embodiments of the present application are shown in the accompanying drawings. However, the present application may be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a thorough and comprehensive understanding of the disclosure of the present application.

It should be noted that when an element is referred to as being "fixed" to another element, it can be directly on the other element or intervening elements may also be present. When an element is said to be "connected" to another element, it can be directly connected to the other element or there may also be intervening elements present. The terms "inner", "outer", "left", "right" and similar expressions used herein are for illustrative purposes only and do not represent the only implementation manner.

This application provides a heating atomization device that can improve temperature control accuracy.

Referring to FIGS. 1 to 3 , a heating atomization device 10 provided by an embodiment of the present application includes a host 100 , a media carrier 200 and a temperature control body 300 . The host 100 is detachably connected to the media carrier 200, and the temperature control body 300 can be accommodated in the media carrier 200.

The host 100 includes an installation case 110, a microwave unit 120, a battery 130 and a control unit. The microwave unit 120, the battery 130 and the control unit are all located within the installation shell 110.

The mounting shell 110 includes an outer conductor 111 and an inner conductor 112 having electrical conductivity. The outer conductor 111 may be a columnar structure such as a cylinder or a prism. The outer conductor 111 includes a bottom plate 111b and a side tube 111c. The side tube 111c is arranged vertically and surrounds the central axis of the entire outer conductor 111. The bottom plate 111b is arranged horizontally. The side tube 111c is connected to the periphery of the bottom plate 111b. The side cylinder 111c and the bottom plate 111b together form a heating chamber 111a. The inner conductor 112 is located within the heating chamber 111a. The lower end of the inner conductor 112 is a fixed end and is fixedly connected to the bottom plate 111b, and the upper end of the inner conductor 112 is a free end.

The microwave unit 120 includes a microwave generator 121 and an antenna 122 connected to each other. The microwave generator 121 is located outside the heating cavity 111a, and a part of the antenna 122 extends into the heating cavity 111a. The microwaves generated by the microwave generator 121 are transmitted into the heating cavity 111a through the antenna 122.

The battery 130 is used to power the control unit and the microwave generator 121 . When the host 100 is working, the control unit controls the battery 130 to power the microwave generator 121 so that the microwave generator 121 can generate microwaves.

In some embodiments, the media carrier 200 includes a nozzle section 210 and a carrying section 220, and the nozzle section 210 and the carrying section 220 are connected to each other.

The nozzle section 210 is at least partially located outside the heating chamber 111a, and the user can contact the portion of the nozzle section 210 located outside the heating chamber 111a to perform suction.

The bearing section 220 is located within the heating chamber 111a. The carrying section 220 includes a wave-transmitting body 221, which can be made of non-metallic material. The wave-transmitting body 221 surrounds a receiving cavity, and the atomized medium 20 is wrapped in the receiving cavity by the wave-transmitting body 221 , that is, the wave-transmitting body 221 is used to receive the atomized medium 20 . The wave-transmitting body 221 does not hinder the transmission of microwaves, that is, microwaves can pass through the wave-transmitting body 221 . When the microwave generated by the microwave generator 121 is transmitted into the heating cavity 111a, the microwave in the heating cavity 111a will further enter the receiving cavity through the wave-transmitting body 221 to be absorbed by the atomizing medium 20, and the atomizing medium 20 will absorb the microwave. Microwaves are used to generate heat through the microwave heating principle, and finally the atomizing medium 20 is atomized under the action of heat to form an aerosol that can be inhaled by the user.

In some embodiments, the temperature control body 300 is fixed in the bearing section 220 , the temperature control body 300 exists attached to the media carrier 200 , and the temperature control body 300 exists independently relative to the host 100 . The temperature control body 300 is inserted in the bearing section 220 so that the atomization medium 20 directly covers the temperature control body 300 . When the media carrier 200 is loaded into the host 100, the carrying section 220 is located in the heating cavity 111a, and the temperature control body 300 and the inner conductor 112 are in contact with each other; when the media carrier 200 is unloaded from the host 100, the carrying section 220 is located in the heating cavity Except for 111a, the temperature control body 300 and the inner conductor 112 are separated from each other.

Therefore, the temperature control body 300 has the first state and the second state. When the temperature control body 300 is in the first state, the temperature control body 300 will be located in the heating cavity 111a, and the outer surface of the temperature control body 300 is in contact with the free end of the inner conductor 112 to form a contact relationship. When the temperature control body 300 is in the second state, the outer surface of the temperature control body 300 will stop contacting the free end of the inner conductor 112, so that the temperature control body 300 is fixed on the bearing section 220 and separated from the inner conductor 112, that is, the temperature control body 300 is in the second state. The body 300 follows the dielectric carrier 200 away from the inner conductor 112 .

In other embodiments, the temperature control body 300 can be directly fixed on the free end of the inner conductor 112 . The temperature control body 300 exists attached to the host 100 , and the temperature control body 300 exists independently relative to the medium carrier 200 . When the media carrier 200 is loaded into the host 100, the carrying section 220 is located in the heating cavity 111a, and the temperature control body 300 will be inserted into the carrying section 220. When the media carrier 200 is unloaded from the host 100, the carrying section 220 is located outside the heating cavity 111a, and the temperature control body 300 is still fixed on the inner conductor 112. Therefore, the outer surface of the temperature control body 300 is always connected to the free end of the inner conductor 112 to form a contact relationship.

When the outer surface of the temperature control body 300 is in contact with the free end of the inner conductor 112, the outer conductor 111, the inner conductor 112 and the temperature control body 300 can be coaxially arranged, so that the heating cavity 111a forms a resonant cavity. The lengths of both the inner conductor 112 and the temperature control body 300 in the conductor state will form an influence factor on the resonant frequency of the heating cavity 111a. When the resonant frequency of the heating cavity 111a does not match the microwave emission frequency, it can be understood that when the resonant frequency and the emission frequency are not equal, or the difference between the resonant frequency and the emission frequency is greater than the set range, the heating cavity 111a blocks or stops microwave transmission. , so that the microwaves generated by the microwave generator 121 cannot enter the heating cavity 111a, which in turn causes the atomization medium 20 to be unable to absorb microwaves and continue to generate heat. It can be generally understood that the host 100 cannot heat the atomization medium 20. When the resonant frequency of the heating cavity 111a matches the emission frequency of the microwave, it can be understood that when the resonant frequency is equal to the emission frequency, or the difference between the resonant frequency and the emission frequency is less than the set range, the heating cavity 111a allows microwave transmission, so that The microwaves generated by the microwave generator 121 smoothly enter the heating cavity 111a, thereby ensuring that the atomization medium 20 effectively absorbs the microwaves and generates heat. It can be generally understood that the host 100 can heat the atomization medium 20.

In some embodiments, the temperature control body 300 may have a columnar structure, a sheet structure, etc. The temperature control body 300 includes a thermistor. The temperature control body 300 has a critical temperature. When it is greater than and exceeds the critical temperature, the resistance of the temperature control body 300 changes suddenly from the initial range, thereby changing its initial conductivity; when it is less than or equal to but not exceeding the critical temperature, the resistance of the temperature control body 300 returns to the initial range, so that The temperature control body 300 is allowed to restore its initial conductivity. The critical temperature of the temperature control body 300 may range from about 100°C to about 400°C, and the specific value of the critical temperature may be about 100°C, about 250°C, about 300°C, or about 400°C, etc.

In some embodiments, the thermistor can be a negative temperature coefficient thermistor, that is, an NTC (Negative Temperature Coefficient) thermistor. The resistance of the temperature control body 300 decreases as the temperature increases. When the temperature of the temperature control body 300 rises above the critical temperature, the resistance of the temperature control body 300 will exponentially decrease by multiple orders of magnitude from the initial range. This can be understood as an avalanche of decline in the resistance of the temperature control body 300. Thereby, the temperature control body 300 changes the initial conductivity. When the temperature of the temperature control body 300 drops to be equal to or less than the critical temperature, the resistance of the temperature control body 300 will quickly return to the initial range, so that the temperature control body 300 returns to its original conductivity. Generally, when the critical temperature is not exceeded, the resistance of the temperature control body 300 is large and the conductivity is negligible, that is, the temperature control body 300 is an insulator; when the critical temperature is exceeded, the resistance of the temperature control body 300 is small, so that the temperature control body 300 has a small resistance. Body 300 is converted from an insulator into a conductor.

In other embodiments, the thermistor may be a positive temperature coefficient thermistor, that is, a PTC (Positive Temperature Coefficient) thermistor. The resistance of the temperature control body 300 increases as the temperature rises. When the temperature of the temperature control body 300 rises above the critical temperature, the resistance of the temperature control body 300 will exponentially increase by multiple orders of magnitude from the initial range. It can be understood that the resistance of the temperature control body 300 will appear in a rocket-rising state. Thereby, the temperature control body 300 changes the initial conductivity. When the temperature of the temperature control body 300 drops to be equal to or less than the critical temperature, the resistance of the temperature control body 300 will quickly return to the initial range, so that the temperature control body 300 returns to its original conductivity. Generally, when the critical temperature is not exceeded, the resistance of the temperature control body 300 is small, that is, the temperature control body 300 is a conductor; when the critical temperature is exceeded, the resistance of the temperature control body 300 is large, so that the temperature control body 300 is transformed into a conductor. as an insulator.

In view of the fact that the lengths of the inner conductor 112 and the temperature control body 300 in the conductor state form an influencing factor of the resonant frequency of the heating cavity 111a, the emission frequency of the microwave generated by the microwave generator 121 can be about 2450Mhz, and the wavelength of the microwave is about 122mm. The length of the temperature control body 300 may be about 8 mm. When the user inhales, the temperature control body 300 and the inner conductor 112 come into contact with each other. The resonant frequency of the heating cavity 111a is f=c/λ, where c represents the speed of light, and λ represents the wavelength corresponding to the resonant frequency of the heating cavity 111a.

In the case where the temperature control body 300 is an NTC thermistor, the length of the inner conductor 112 may be about 30.5 mm. When the temperature of the temperature control body 300 does not exceed the critical temperature, the temperature control body 300 is an insulator. The length of the temperature control body 300 does not constitute an influencing factor of the resonant frequency of the heating cavity 111a. The wavelength corresponding to the resonant frequency of the heating cavity 111a is exactly the inner conductor. Four times the length of 112, so the wavelength corresponding to the resonant frequency of the heating cavity 111a is 4*30.5mm=122mm. This wavelength is exactly equal to the wavelength of the microwave, so that the resonant frequency of the heating cavity 111a is equal to the emission frequency of the microwave, and the resonant frequency will be Matching the emission frequency, the microwave can be transmitted in the heating cavity 111a to be absorbed by the atomization medium 20, so that the host 100 heats the atomization medium 20. When the temperature of the temperature control body 300 exceeds the critical temperature, the temperature control body 300 is converted from an insulator into a conductor. The length of the temperature control body 300 constitutes an influencing factor of the resonant frequency of the heating cavity 111a. The wavelength corresponding to the resonant frequency of the heating cavity 111a is exactly within Four times the sum of the lengths of the conductor 112 and the temperature control body 300, so the wavelength corresponding to the resonant frequency of the heating cavity 111a is 4*(30.5+8)mm=154mm, so that the resonant frequency of the heating cavity 111a is 1948Mhz, so the heating The resonant frequency of the cavity 111a is significantly smaller than the emission frequency of the microwave. The resonant frequency will not match the emission frequency. The microwave will not be transmitted in the heating cavity 111a. The atomized medium 20 will not be able to absorb the microwave, so that the host 100 will not be able to process the atomized medium 20. Apply heat. Since the host computer 100 cannot heat the atomizing medium 20, the temperatures of the atomizing medium 20 and the temperature control body 300 will drop to no more than the critical temperature. At this time, the temperature control body 300 will return to an insulator, thereby causing the resonant frequency of the heating cavity 111a to change. Return to a state equal to the emission frequency of the microwave to ensure that the host 100 heats the atomization medium 20 again.

When the temperature control body 300 is a PTC thermistor, the length of the inner conductor 112 may be 22.5 mm. Obviously, the length of the inner conductor 112 is smaller than the length of the inner conductor 112 when the temperature control body 300 is an NTC thermistor. When the temperature of the temperature control body 300 does not exceed the critical temperature, the temperature control body 300 is a conductor. The length of the temperature control body 300 constitutes the influencing factor of the resonant frequency of the heating cavity 111a. The wavelength corresponding to the resonant frequency of the heating cavity 111a is exactly the inner conductor 112 and four times the sum of the lengths of the temperature control body 300, so the wavelength corresponding to the resonant frequency of the heating cavity 111a is 4*(22.5+8)mm=122mm. This wavelength is exactly equal to the wavelength of the microwave, so that the resonance of the heating cavity 111a The frequency is equal to the emission frequency of the microwave, and the resonant frequency will match the emission frequency, so the microwave can be transmitted in the heating cavity 111a and absorbed by the atomization medium 20, so that the host 100 heats the atomization medium 20. When the temperature of the temperature control body 300 exceeds the critical temperature, the temperature control body 300 is transformed from a conductor into an insulator. The length of the temperature control body 300 does not constitute an influencing factor of the resonant frequency of the heating cavity 111a. The wavelength corresponding to the resonant frequency of the heating cavity 111a is exactly The length of the inner conductor 112, so the wavelength corresponding to the resonant frequency of the heating cavity 111a is 4*22.5mm=90mm, so that the resonant frequency of the heating cavity 111a is 3333Mhz, so the resonant frequency of the heating cavity 111a is much higher than the emission frequency of the microwave, and the resonance The frequency will not match the emission frequency, the microwave will not be transmitted in the heating cavity 111a, and the atomization medium 20 will not be able to absorb the microwave, so that the host 100 will not be able to heat the atomization medium 20. Since the host computer 100 cannot heat the atomization medium 20, the temperatures of the atomization medium 20 and the temperature control body 300 will drop to no more than the critical temperature. At this time, the temperature control body 300 will return to a conductor, thereby returning the resonant frequency of the heating cavity 111a to a state equal to the emission frequency of the microwave, ensuring that the host 100 continues to heat the atomization medium 20 .

Therefore, by arranging the temperature control body 300, on the basis of allowing the atomization medium 20 to be effectively atomized, as long as the atomization temperature of the atomization medium 20 exceeds the critical temperature, the host 100 will stop heating, thereby preventing the atomization medium 20 from being heated. It is heated and atomized when the temperature is higher than the critical temperature, thereby improving the control accuracy of the atomization temperature of the atomization medium 20, preventing the atomization medium 20 from cracking due to excessive temperature to produce harmful substances with a burnt smell, and improving the heating atomization device 10 Health and safety of use. In addition, the atomization temperature of the atomization medium 20 is equalized every time the user puffs, ensuring that the aerosol concentration and taste of each puff remain consistent, and providing the user with a puffing experience. Moreover, the atomization temperature of the atomization medium 20 can be controlled through the inherent properties of the thermistor, and the installation of additional control circuits can be omitted, thereby simplifying the structure of the heating atomization device 10 and achieving miniaturization of the heating atomization device 10 design. At the same time, the temperature control body 300 and the medium carrier 200 are disposable consumables. When the atomization medium 20 is consumed, the temperature control body 300 and the medium carrier 200 will be discarded. Therefore, there is no possibility that the residues on the temperature control body 300 will be discarded. The phenomenon of producing odorous substances due to repeated heating further improves the user's smoking experience.

The technical features of the above-described embodiments can be combined in any way. To simplify the description, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, All should be considered to be within the scope of this manual.

The above-described embodiments only express several implementation modes of the present application, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of the patent application. It should be noted that, for those of ordinary skill in the art, several modifications and improvements can be made without departing from the concept of the present application, and these all fall within the protection scope of the present application. Therefore, the protection scope of this patent application should be determined by the appended claims.

Claims (13)

A heated atomization device, including: The host computer includes an outer conductor, an inner conductor and a microwave unit; the inner conductor is connected to the outer conductor and is located in the heating cavity surrounded by the outer conductor, and the microwave unit is used to emit microwaves to the heating cavity; A medium carrier, detachably connected to the host, including a load-bearing section for containing atomized medium and located in the heating cavity, the atomized medium can absorb microwaves to generate heat; and The temperature control body can be located in the heating cavity and accommodated in the bearing section to be directly covered by the atomized medium, and the inner conductor is in contact with the outer surface of the temperature control body; The temperature control body changes the initial conductivity when the critical temperature is exceeded, and the heating cavity blocks or stops microwave transmission; the temperature control body restores the initial conductivity when the critical temperature is not exceeded, and the heating cavity allows microwave transmission. The heating atomization device according to claim 1, wherein the temperature control body is independent of the host and has a first state and a second state; when the temperature control body is in the first state, the temperature control body The temperature control body is in contact with the inner conductor. When the temperature control body is in the second state, the temperature control body is fixed on the bearing section and separated from the inner conductor. The heating atomization device according to claim 1, wherein the temperature control body includes a negative temperature coefficient thermistor; when the temperature control body is greater than a critical temperature, the resistance of the temperature control body decreases suddenly and transforms into a conductor, and the temperature control body Reverts to an insulator when the critical temperature is less than or equal to the critical temperature. The heating atomization device according to claim 1, wherein the temperature control body includes a positive temperature coefficient thermistor; when the temperature control body is greater than a critical temperature, the resistance of the temperature control body increases suddenly and transforms into an insulator. Reverts to a conductor at or below the critical temperature. The heating atomization device according to claim 1, wherein the outer conductor, the inner conductor and the temperature control body are coaxially arranged. The heated atomization device according to claim 1, wherein the outer conductor includes a bottom plate and a side tube, and the side tube is arranged around the central axis of the outer conductor and connected to the periphery of the bottom plate. The heating atomization device according to claim 6, wherein the inner conductor is fixed on the bottom plate, and the temperature control body is in contact with an end of the inner conductor away from the bottom plate. The heating atomization device according to claim 1, wherein when the temperature control body is greater than the critical temperature, the resonant frequency of the heating cavity does not match the emission frequency of microwaves; When the temperature control body is at or below a critical temperature, the resonant frequency of the heating cavity matches the emission frequency of microwaves. The heating atomization device according to claim 1, wherein the carrying section includes a wave-transparent body capable of passing microwaves, and the wave-transparent body is used to accommodate the atomization medium. The heating atomization device according to claim 1, wherein the microwave unit includes a microwave generator and an antenna connected to each other, the microwave generator is located outside the heating cavity, and a part of the antenna extends into the in the heating chamber. The heated atomization device according to claim 1, wherein the critical temperature ranges from about 100°C to about 400°C. The heated atomization device according to claim 1, wherein the medium carrier further includes a suction nozzle section, the suction nozzle section is connected with the carrying section and is at least partially located outside the heating chamber. The heating atomization device according to claim 1, wherein the temperature control body is in the shape of a sheet or a column.

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