CN216910773U - Atomizing device, atomizer and atomization component - Google Patents

Abstract

The utility model relates to an atomization device, an atomizer and an atomization assembly, wherein the atomization assembly comprises a first shell, a second shell and a micropore atomization sheet clamped between the first shell and the second shell; the first shell comprises a first plastic body and a first soft colloid which are integrally formed, and the second shell comprises a second plastic body and a second soft colloid which are integrally formed; the first soft colloid and the second soft colloid clamp the micropore atomization sheet. Atomization component assembly is simple, through the structure of optimizing the product, reduces the assembly process, realizes the simple and easy modularization equipment of product, and the mould plastics in the mould is done with first flexible glue body to first plastic body, and the mould plastics in the mould is done with second flexible glue body to the second plastic body, adopts the mode of centre gripping to accomplish the equipment with micropore atomization piece.

Description

Atomizing device, atomizer and atomization component

Technical Field

The utility model relates to the field of atomization, in particular to an atomization device, an atomizer and an atomization assembly.

Background

The atomizing piece of the atomizing component of the atomizer is usually clamped by two hard plastic parts, the clamping is not stable enough, and the clamping position is deformed after being used for a long time.

SUMMERY OF THE UTILITY MODEL

The present invention provides an atomizing device, an atomizer and an atomizing assembly, which are directed to overcome the above-mentioned drawbacks of the prior art.

The technical scheme adopted by the utility model for solving the technical problems is as follows: constructing an atomization assembly, which comprises a first shell, a second shell and a micropore atomization sheet clamped between the first shell and the second shell;

the first shell comprises a first plastic body and a first soft colloid which are integrally formed, and the second shell comprises a second plastic body and a second soft colloid which are integrally formed;

the first soft colloid and the second soft colloid clamp the micropore atomization sheet.

Preferably, an outlet for discharging the aerosol atomized by the microporous atomizing sheet is formed on the first housing.

Preferably, the second shell is provided with a containing hole for installing a conductive piece, and the conductive piece is electrically connected with the micropore atomization sheet and transmits a driving signal.

Preferably, one end of the conducting wire is connected with the micropore atomization sheet, and the other end of the conducting wire is connected with the conducting piece.

Preferably, the conductive member is provided with a fixing hole, and the lead is inserted into the fixing hole and fixed to the fixing hole.

Preferably, the flattened fixing hole clamps the wire.

An atomizer, include atomization component, and supply atomization component's the base of conductive piece installation, conductive piece wears out the base.

The utility model provides an atomizing device, includes the atomizer, and supply the atomizing seat of atomizer installation, be equipped with on the atomizing seat with electrically conductive piece electric connection's follow circuit board, and with follow circuit board electric connection's main circuit board.

Preferably, the conductive member is a pogo pin.

Preferably, the slave circuit board and the master circuit board are electrically connected through an FPC.

The implementation of the atomization device, the atomizer and the atomization assembly provided by the utility model has the following beneficial effects: atomization component assembles simply, through the structure of optimizing the product, reduces the assembly process, realizes the simple and easy modular assembly of product, and first plastic body is moulded plastics in making the mould with first flexible glue body, and the second plastic body is moulded plastics in making the mould with the second flexible glue body, adopts the mode of centre gripping to accomplish the equipment with micropore atomization piece.

Drawings

The utility model will be further described with reference to the accompanying drawings and examples, in which:

FIG. 1 is a schematic view of a switch assembly of an aerosolization apparatus in an embodiment of the present invention in a first position;

FIG. 2 is a schematic view of the switch assembly of the atomizing device of FIG. 1 in a second position;

FIG. 3 is a schematic view of the atomization device of FIG. 2 at another angle;

FIG. 4 is an exploded schematic view of the atomizing device of FIG. 1;

FIG. 5 is a schematic view of the atomization device of FIG. 4 at another angle;

FIG. 6 is a schematic perspective view of the atomizer of FIG. 4;

FIG. 7 is an exploded schematic view of the atomizer of FIG. 6;

FIG. 8 is a block schematic diagram of a control circuit switch on the atomizing base and switch assembly;

FIG. 9 is a schematic diagram of the electrical connections of the atomizing base and the control circuit switch on the switch assembly;

FIG. 10 is an exploded schematic view of the atomizing assembly;

FIG. 11 is an exploded view of another angle of the atomizing assembly;

FIG. 12 is a schematic vertical section of an atomizer;

FIG. 13 is a schematic transverse cross-section of an atomizer;

FIG. 14 is a schematic cross-sectional view of the atomizing device with the switch assembly in the second position;

FIG. 15 is an exploded schematic view of the atomizing device of FIG. 14;

fig. 16 is an enlarged schematic view of the light-guiding light-emitting ring structure of fig. 15.

Detailed Description

For a more clear understanding of the technical features, objects and effects of the present invention, embodiments of the present invention will now be described in detail with reference to the accompanying drawings.

As shown in fig. 1 to 5, an atomizing device in a preferred embodiment of the present invention includes an atomizing main body 20 and a switch assembly 1 mounted on the atomizing main body 20 in a position-adjustable manner, the atomizing main body 20 includes an atomizing base 2 and an atomizer 3, the atomizer 3 is detachably mounted on the atomizing base 2, in this embodiment, the atomizer 3 is in a semicircular structure, and a semicircular positioning groove a for mounting the atomizer 3 is formed on the atomizing base 2.

Referring to fig. 6 and 7, the atomizer 3 includes a base 31 and an atomizing assembly 32 mounted on the base 31, the base 31 stores an atomized liquid therein, and the atomizing assembly 32 atomizes the atomized liquid by high-frequency vibration after being energized to change the atomized liquid into tiny water beads, thereby generating mist spraying.

As shown in fig. 8 and 9, the atomizing base 2 of the atomizing main body 20 includes a controller 21, a power supply 22, a first hall module 23, a second hall module 24, and a control switch 221, the first hall module 23 is respectively connected to the controller 21 and the power supply 22, and the second hall module 24 and the controller 21 are connected to the power supply 22 through the control switch 221; the second hall module 24 is connected to the controller 21.

The switch component 1 is provided with a first magnetic part 11 and a second magnetic part 12 which respectively correspond to the first Hall module 23 and the second Hall module 24.

Referring to fig. 1 and 2, when the switch assembly 1 moves to the first position B, the first magnetic member 11 and the second magnetic member 12 are respectively staggered from the first hall module 23 and the second hall module 24; when the switch assembly 1 moves to the second position C, the first magnetic member 11 and the second magnetic member 12 are respectively opposite to the first hall module 23 and the second hall module 24.

When the switch assembly 1 is switched between the first position B and the second position C, the first hall module 23 and the second hall module 24 control the atomizing main body 20 to start/stop atomizing operation.

The double-magnetic part and the double-Hall module are adopted, and the first Hall module 23 or the second Hall module 24 can be started when magnetic interference exists; when the first hall module 23 is started, only the second hall module 24 and the controller 21 are powered, and the atomizer 3 does not work; when the second hall module 24 is started, the atomizer 3 does not work because the first hall module 23 is not started and the second hall module 24 is not supplied with power; therefore, the double Hall can avoid the occurrence of false start.

Further, the first magnetic member 11 and the second magnetic member 12 corresponding to the first hall module 23 and the second hall module 24, respectively, are disposed on two sides of the switch assembly 1, respectively. The first magnetic member 11 and the second magnetic member 12 may be magnets.

In actual use, the atomizing device can be placed in a bag when not in use, other magnetic parts can exist in the bag, the atomizer 3 cannot be triggered by the other magnetic parts in the backpack to work by mistake through the double-Hall detection, and liquid in the atomizer 3 cannot flow into the backpack.

As shown in fig. 4 and 5, the switch assembly 1 is preferably slidably mounted on the atomizing base 2 of the atomizing body 20, so as to be conveniently opened and closed and occupy no space.

Preferably, adopt between atomizing main part 20 and the switch module 1 of atomizing device to inhale formula slide rail design, thereby inhale through two-way magnet and produce resistance and suction and produce magnetic power, switch module assembly 4 last magnet 15, two lower magnet 16 of atomizing seat 2 top cap assembly of atomizing main part 20, through promoting, accomplish and push away the lid action.

The atomizing base 2 may also be provided with a blocking member 17, for example two screws, and at least one lower magnet 16. The blocking piece 17 is used for connecting the switch component 1 and the atomizing base 2 in a sliding mode, and the lower magnet 16 is used for achieving the action of pushing the cover.

Preferably, the switch assembly 1 is provided with four upper magnets 15, and the atomizing base 2 is provided with two lower magnets 16; when the switch component slides to the first position B, the atomizer does not work, and the two upper magnets 15 on the switch component 1 are arranged corresponding to the two lower magnets 16 on the atomizing base 2; when the switch component 1 slides to the second position C, the atomizer works, and the other two upper magnets 15 on the switch component 1 and the two lower magnets 16 on the atomizing base 2 are correspondingly arranged.

The atomizing base 2 of the atomizing main body 20 is provided with a sliding base 25 for the sliding installation of the switch assembly 1, the switch assembly 1 is provided with a sliding slot 13 for the sliding installation of the sliding base 25, usually, the sliding base 25 is locked on the atomizing main body 20, so that the switch assembly 1 can slide between a first position B and a second position C along the sliding slot 13.

Further, in order to ensure the stability of sliding, the atomizing base 2 of the atomizing main body 20 is further provided with a guide rail 26 for guiding the switch assembly 1, and the switch assembly 1 is provided with a guide groove 14 matched with the guide rail 26, so that the switch assembly 1 cannot deviate in the sliding process. The guide groove 14 and the guide rail 26 have a lubricating effect therebetween, thereby enabling smoother sliding.

As shown in fig. 7, in some embodiments, the atomizer 3 of the atomizing body 20 includes an atomizing assembly 32 and an outlet 33 for allowing the aerosol atomized by the atomizing assembly 32 to flow out.

Referring to fig. 1, 2, 7 and 8, when the switch assembly 1 is in the first position B, the outlet 33 is blocked, when the switch assembly 1 is in the second position C, the outlet 33 is opened, and after the atomization assembly 32 is energized, the atomized liquid is atomized by high-frequency vibration, and the aerosol formed by atomization is discharged from the outlet 33.

Preferably, a cover 34 may be provided on the outlet 33, and when not in use, the cover 34 covers the outlet 33 to prevent the atomized liquid inside from flowing out.

As shown in fig. 8 and 9, when the atomizer 3 is turned off, that is, the switch assembly 1 slides to the first position B, and the first magnetic member 11 is away from the first hall module 23, the first hall module 23 controls the switch 221 to be turned off, and at this time, the power supply 22 only supplies power to the first hall module 23, so that the power consumption of the atomizer 3 can be saved; when the atomizer 3 is turned on, that is, the switch assembly 1 moves to the second position C, and the switch assembly 1 drives the first magnetic member 11 to be close to the first hall module 23, the first hall module 23 controls the switch 221 to be turned on, so as to supply power to the controller 21 and the second hall module 24.

When the switch assembly 1 slides to the second position C to bring the two magnetic members above the hall devices, the first magnetic member 11 enables the first hall module 23 to turn on the power supply 22 to supply power to the whole system; the second magnetic member 12 senses the second hall module 24, so that the controller 21 detects the change of the second hall module 24, and performs corresponding work on the whole atomizer 3 through the detection of the two hall sensors.

The first hall module 23 and the second hall module 24 may both be digital hall sensors, or the first hall module 23 is a digital hall sensor and the second hall module 24 includes a linear hall sensor.

The first hall module 23 is used for controlling the power-on/off of the second hall module 24, and the second hall module 24 is used for controlling the atomizing main body 20 to start/stop atomizing work.

When the switch assembly 1 slides to the second position C, the first hall module 23 controls the second hall module 24 to be powered on, and when the second hall module 24 senses the second magnetic member 12, the atomization main body 20 is controlled to start atomization work; when the switch assembly slides to the first position B, the second hall module 24 controls the atomization main body 20 to stop atomization work, and the first hall module 23 controls the second hall module 24 to be powered off.

In some embodiments, the first hall module 23 and the second hall module 24 are digital hall sensors, when the switch assembly 1 slides up to the second position C, the first hall module 23 senses the first magnetic member 11 to control the control switch 221 to be turned on, the first hall module 23 turns on the power supply 22, the second hall module 12 turns to the second hall module 24, the second hall module 24 senses the second magnetic member 12 to control the atomizing main body to start atomizing work through the controller 21, and the atomizer 3 is controlled to work normally after being turned on. When the external interference magnetic field interferes with the first hall module 23, the system does not detect the change of the hall, the atomizer 3 does not work, when the switch component 1 slides to the first position B, the second hall module 24 detects the change, the work of the atomizing sheet 323 of the atomizer 3 is quickly turned off, the first hall module 23 controls the control switch 221 to be cut off, the controller 21 and the second hall module 24 are powered off, further, because the second hall module 24 is a digital hall sensor, the atomization main body 20 stops atomization, and the second hall module 24 is powered off.

In other embodiments, the first hall module 23 is a digital hall sensor and the second hall module 24 is a linear hall sensor. When the switch assembly 1 slides to the second position C, the power supply 22 is turned on, the first hall module 23 senses the first magnetic part 11 to control the control switch 221 to be turned on, the first hall module 23 turns on the power supply 22, the second hall module 24 senses the magnetic field intensity of the second magnetic part 12 to control the atomizing main body to start atomizing work through the controller 21, and if there is other magnetic field interference, the second hall module 24 can judge whether there is other interference according to the detected magnetic field intensity; when the switch component 1 slides to the first position B, the second hall module 24 controls the atomization main body 20 to stop atomization, the first hall module 23 controls the second hall module 24 to be powered off, further, the second hall module 24 is a linear hall sensor, the atomization main body 20 stops the second hall module 24 to be powered off after atomization, the atomization driving is quickly turned off according to the magnetic field change of the second hall module 24, and atomization is prevented from being not timely turned off to cause effusion at an atomization port.

When the second hall module 24 is a linear hall sensor, since the linear hall sensor outputs a control signal by detecting the strength of the magnetic field, the linear hall sensor can output a control signal earlier than the digital hall sensor, thereby turning off the atomizing assembly 32 in advance. That is, if there are two digital hall sensors, the power off and the closing of the atomized spray are performed simultaneously, and a linear one number is used, the closing of the atomized spray first and then the power off can be realized.

The utility model also provides a linear Hall device self-adaptive algorithm of a double-Hall mistake-proofing atomization structure, wherein the first Hall module 23 is a digital Hall sensor, the second Hall module 24 is a linear Hall sensor, and the algorithm comprises the following steps:

when the switch component 1 moves to the first position B and is opened, the controller 21 detects that the first Hall module 23 outputs an effective level, and at the moment, atomization is started and the output voltage value of the second Hall module 24 is sampled;

after the voltage output of the second hall module 24 is stable, sampling the output voltage V value of the second hall module 24 as the voltage output high value Vh of the second hall module 24;

the atomization is on/off controlled by subtracting the set voltage from the voltage output high value Vh as the on/off threshold of the second hall module 24.

A self-learning algorithm is introduced, different switch identification thresholds are set according to voltage ranges output by the second hall modules 24 of different atomization devices, the thresholds set by the algorithm are used as judgment thresholds of the atomization switches, errors of the atomization devices are reduced, sensitivity is improved, the different atomization devices are completely switched on or off from the switch assembly 1, and the V value change of the linear hall second hall module 24 is relatively fixed and is about 200 generally.

Generally, the average value of the output voltage of the second hall module 24 within the set time is calculated as the output voltage high value Vh of the second hall module 24, and a set voltage is subtracted from Vh as the switch detection threshold Vt, and preferably, in the present embodiment, the set time is 100 ± 10 ms.

According to different atomization devices, the AD of the output voltage V of the second Hall module 24 is between 2100 and 2400.

Preferably, the voltage is set to be 60, and the high value minus 60 AD values are used as a switching threshold value, so that the positions of the switching components can be basically consistent when different atomization devices are atomized to be switched on/off, and the sensitivity can be ensured to be consistent. Referring to fig. 10 and 11, the atomizing assembly 32 includes a first housing 321, a second housing 322, and a micro-porous atomizing sheet 323 interposed between the first housing 321 and the second housing 322.

The first shell 321 includes a first plastic body 3211 and a first soft plastic body 3212 which are integrally formed, the second shell 322 includes a second plastic body 3221 and a second soft plastic body 3222 which are integrally formed, and the first soft plastic body 3212 and the second soft plastic body 3222 clamp the microporous atomization sheet 323.

The atomization assembly 32 is simple to assemble, the structure of the product is optimized, the assembly process is reduced, simple modular assembly of the product is achieved, the first plastic body 3211 and the first soft plastic body 3212 are made into a mold, the second plastic body 3221 and the second soft plastic body 3222 are made into a mold, the micropore atomization sheet 323 is assembled in a clamping mode, the conductive wire 325 of the atomization sheet 323 is inserted into the hole of the conductive piece 324, the conductive wire 325 is fixed by clamping the flat conductive piece 324, and the assembly process of the whole atomization assembly 32 is completed.

Preferably, the first housing 321 forms an outlet 33 for discharging the aerosol atomized by the micro-porous atomizing sheet 323.

In some embodiments, the second housing 322 is provided with a receiving hole 3223 for installing the conductive device 324, and the conductive device 324 is electrically connected to the micro porous atomizing sheet 323 for transmitting power and driving signals.

Further, a wire 325 is connected to the micro hole atomizing plate 323 at one end and to the conductive member 324 at the other end by welding. Preferably, the conductive member 324 is provided with a fixing hole 3241, and the wire 325 is inserted into the fixing hole 3241 and fixed to the fixing hole 3241, for example, after the wire 325 is inserted into the fixing hole 3241, the flattened fixing hole 3241 is used to clamp the wire 325.

As shown in fig. 12, 14 and 15, the atomizer 3 further includes a base 31 for mounting a conductive member 324 of the atomizing assembly 32, and the conductive member 324 penetrates the base 31 to be electrically connected to the circuit on the atomizing base 2.

The atomizing base 2 is provided with a slave circuit board 27 electrically connected to the conductive member 324, and a master circuit board 27b electrically connected to the slave circuit board 27, and usually, the controller 21 is provided on the master circuit board 27 b. Preferably, the conductive member 324 is a pogo pin, which is in elastic contact with the circuit board 27. Further, the slave circuit board 27 is electrically connected with the master circuit board 27b through the FPC, so that the controller 21 controls the temperature of the atomizing plate 323.

As shown in fig. 13, in some embodiments, the base 31 is provided with a reservoir K and a partition 311, and the partition 311 divides the reservoir K into a first cavity D and a second cavity E which are communicated with each other.

The atomizing assembly 32 includes an atomizing plate 323, and the atomizing plate 323 is disposed on a communication passage of the first cavity D and the second cavity E.

In addition to the structural strength being enhanced, the partition 311 is arranged in the base 31, the guide part 312 is arranged at the end part of the partition 311, the liquid can be understood as being vaporized when the microporous atomizing sheet 323 changes the liquid into the water mist through ultrasonic oscillation, bubbles can be generated, and the guide part 312 can guide the bubbles to flow into the liquid storage cavity K of the base 31, so that the bubbles generated by liquid atomization can be dredged, and the dry burning condition can be prevented.

As further shown in fig. 12 and 13, the guiding portion 312 includes a first guiding surface 3121 guiding toward the first cavity D and a second guiding surface 3122 guiding toward the second cavity E, and guides the bubbles generated on the atomizing plate 323 outward. Preferably, the guide 312 is curved or V-shaped, and relies on the inclined surface to channel the bubbles outwardly.

In some embodiments, the separating member 311 includes a first blocking wall 3111 and a second blocking wall 3112 spaced apart from each other, and a guide portion 312 connected between the same ends of the first blocking wall 3111 and the second blocking wall 3112, so that the overall strength of the separating member 311 and the base 31 can be improved.

Further, atomizer 3 is semi-circular structure, sets up separator 311 on atomizer 3's midline, does benefit to and lets more even outwards dredge of bubble and derive the first appearance chamber D of both sides, second appearance chamber E.

Preferably, the partition 311 extends radially outward from the center of the atomizer 3 to bisect the liquid storage chamber K of the atomizer 3, so that the bubbles are distributed more uniformly.

Referring to fig. 6, 7 and 13, in some embodiments, the base 31 includes a flat cutting wall 314 disposed along a circumference, and a semicircular sidewall 315 connected between two ends of the flat cutting wall 314, an opening 316 corresponding to the first cavity D and the second cavity E is disposed on the flat cutting wall 314, and a plug 317 is disposed on the opening 316, so that the plug 317 can be conveniently pulled out and then atomized liquid can be added, and the liquid storage cavity K can be conveniently cleaned.

As shown in fig. 7 and 12, the partition 311 is preferably provided with a step 313 for overlapping and supporting the atomizing assembly 32, so that the atomizing assembly 32 can be placed more stably and positioned conveniently.

In some embodiments, a sinking chamber 318 for placing the atomizing assembly 32 is disposed on the base 31, and a communication port 3181 communicating with the first cavity D and the second cavity E is disposed on a bottom surface of the sinking chamber 318, so that the atomizing plate 323 atomizes the liquid in the first cavity D and the second cavity E. Preferably, the bottom wall of the counterbore 318 is flush with the step 313.

The guiding portion 312 protrudes from the inner edge of the communication port 3181 to the center of the communication port 3181, so that the guiding portion 312 can act as a conduit for bubbles on the atomizing sheet 323 outside the communication port 3181.

Furthermore, the periphery of the communication port 3181 is also provided with a retaining ring 3182 protruding out of the liquid storage cavity K, and the atomizing assembly 21 is provided with a recessed area L sleeved on the retaining ring 3182, so that the atomizing assembly 21 can be positioned, and the atomized liquid in the liquid storage cavity K can be prevented from leaking.

Preferably, a conducting hole 3183 is formed outside the retainer ring 3182, the conducting hole 3183 is isolated from the liquid storage chamber K, and the conductive piece 324 on the atomizing assembly 32 penetrates through the bottom of the conducting hole 3183 to be connected with the power supply 22, so that the atomizing assembly 32 is convenient to connect electricity, the structure is compact, and the space occupation is small.

Referring to fig. 7 and 11, in order to prevent the atomizing assembly 32 from coming out of the sinking chamber 318, a fastening hole 3184 is formed in an inner wall surface of the sinking chamber 318, and a fastening M fastened with the fastening hole 3184 is formed in the atomizing assembly 32 to fasten and fix the atomizing assembly, so that stability is improved.

As shown in fig. 7, 12, and 13, the atomizing sheet 323 is normally provided so as to cover the communication port 3181 and atomize the atomized liquid in the communication port 3181.

Preferably, the atomizing plate 323 is partially disposed in the first cavity D and partially disposed in the second cavity E, and atomizes the atomized liquid in the two cavities.

The middle of the atomizing plate 323 is provided with a protrusion 326, and preferably, the center of the protrusion 326 is on the center line of the guide 312.

As shown in fig. 12 and 13, the width between the first blocking wall 3111 and the second blocking wall 3112 of the partitioning member 311 cannot be too wide, and if it is too wide, the larger the blocking area is, the larger the dredging stroke of the guide portion 312 is, the more air bubbles are accumulated, and dry burning is likely to occur. Preferably, the width of the spacer 311 is 1 to 1.2 times the diameter of the protrusion 326.

In addition, the distance between the partition 311 and the atomizing plate 323 is too long, and the effect of channeling bubbles is deteriorated. Preferably, the distance between the second wall G of the spacer 311 and the center of the protrusion 326 is 0.3 to 0.5 times the diameter of the protrusion 326.

Referring to fig. 15 and 16, in some embodiments, a light guide and light emitting ring structure 28 is further disposed on the bottom surface of the atomizing base 2, so that light from a light source such as an LED in the atomizing base 2 can be emitted to the periphery of the bottom surface of the atomizing base 2.

The light guide and light emitting ring structure 28 includes a light guide plate 281, a light guide head 282 disposed on one side of the light guide plate 281, and a light emitting flange 283 protruding from one side of the periphery of the light guide plate 281, wherein an end portion of the light emitting flange 283 is a light emitting surface.

The light guide plate 281 is mounted on the bottom surface of the atomizing base 2, and the decorative sheet 29 is attached to the inner ring of the light emitting flange 283 to shield light, so that the light source emits light from the light emitting flange 283 after being guided out along the light guide plate 281.

The light guide light emitting ring structure 28 guides light of the internal light source to the light guide plate 281 from the light guide head 282 in the limited space of the atomizing base 2, and then the light is guided to the light emitting flange 283 of the periphery by the light guide plate 281 and then emitted, so that the light emitting effect is good, and the problem of light emitting at the bottom of the atomizing base 2 is solved.

The light source emits light in a direction opposite to the end of the light guide head 282, so that the light can sufficiently enter the light guide head 282. Preferably, the light guide plate 281, the light guide head 282 and the light emitting flange 283 are integrally formed, and are made of a transparent material, usually plastic, which can prevent light absorption.

Preferably, the light emitting surface of the light emitting flange 283 is a cambered surface, which can increase the light emitting range, and of course, the light emitting surface can also be a prismatic surface. Furthermore, the light emitting range of the light emitting surface is not less than 175 degrees, so that the light emitting range is larger.

A chamfer I is formed between the root of the light guide head 282 and the light guide plate 281, and the outer edge of the light guide plate 281 on the same side with the light guide head 282 is provided with an oblique angle J, and the chamfer I and the oblique angle J are arranged to enable incident light rays to be better guided into a light guide path.

In this embodiment, the light guide plate 281 is circular, and the ratio of the diameter of the light guide plate 281 to the height H of the light guide head 282 is 10: 1-15: 1. in other embodiments, the light guide plate 281 may not be circular, for example, square, polygonal, etc. and the ratio of the length of the long side of the light guide plate 281 to the height of the light guide head 282 is 10: 1-15: 1.

the ratio of the thickness H of the light guide plate 281 to the width N of the light emitting surface is 0.9-1.1, so that the light emitting effect is better. If it is too wide or too narrow, energy loss at the time of optical path switching becomes large, and light emission luminance becomes weak.

The light emitting surface of the light emitting flange 283 is formed with a texture, and the rugged texture structure is formed by a surface treatment process such as a texturing process, so that a diffusion range of light when passing through the surface can be increased.

The area of the end surface of the light guide head 282 is not smaller than the area of the light emitting surface of the light source on the end surface of the light guide head 282, and the light of the light source can be sufficiently led out from the light guide head 282.

Furthermore, one side of the light guide plate 281, which is opposite to the light guide head 282, is provided with a concave light guide hole 284, and the light guide hole 284 can radiate a light path outwards and can be led out to a light emitting surface to emit light through a peripheral oblique angle.

Preferably, the light guide hole 284 is tapered to radiate light to the periphery, and the light guide hole 284 may be a cold taper or a round taper.

The ratio of the depth of the light guide hole 284 to the thickness of the light guide plate 281 is 1 to 1.5, so that light can be more sufficiently radiated by the light guide plate 281.

Further, the light guide hole 284 is concentric with the light guide head 282, in this embodiment, the light guide hole 284 is disposed eccentrically, and the light guide hole 284 is preferably disposed at the center of the light guide plate 281.

It is to be understood that the above-described respective technical features may be used in any combination without limitation.

The above description is only an embodiment of the present invention, and not intended to limit the scope of the present invention, and all modifications of equivalent structures and equivalent processes performed by the present specification and drawings, or directly or indirectly applied to other related technical fields, are included in the scope of the present invention.

Claims (10)

1. An atomization assembly is characterized by comprising a first shell (321), a second shell (322) and a micropore atomization sheet (323) clamped between the first shell (321) and the second shell (322);

the first shell (321) comprises a first plastic body (3211) and a first soft colloid (3212) which are integrally formed, and the second shell (322) comprises a second plastic body (3221) and a second soft colloid (3222) which are integrally formed;

the first soft colloid (3212) and the second soft colloid (3222) clamp the microporous atomization sheet (323).

2. The atomizing assembly of claim 1, characterized in that said first housing (321) has an outlet (33) formed therein for discharging the atomized aerosol from said microporous atomizing sheet (323).

3. The atomizing assembly of claim 1, wherein said second housing (322) is provided with a receiving hole (3223) for installing a conductive member (324), and said conductive member (324) is electrically connected to said microporous atomizing sheet (323) and transmits a driving signal.

4. A nebulising assembly according to claim 3, characterized in that the conducting wire (325) is connected at one end to the microporous nebulising tablet (323) and at the other end to the conducting element (324).

5. The atomizing assembly of claim 4, wherein said conductive member (324) is formed with a fixing hole (3241), and said conductive wire (325) is inserted into said fixing hole (3241) and fixed to said fixing hole (3241).

6. The atomizing assembly of claim 5, wherein said flattened securing bore (3241) retains said wire (325).

7. A nebulizer, comprising a nebulizing assembly (32) according to any one of claims 1 to 6 and a base (31) on which an electrically conductive member (324) of the nebulizing assembly (32) is mounted, the electrically conductive member (324) protruding through the base (31).

8. An atomizing device, comprising the atomizer (3) according to claim 7, and an atomizing base (2) to which the atomizer (3) is attached, wherein the atomizing base (2) is provided with a slave circuit board (27) electrically connected to the conductive member (324), and a master circuit board (27 b) electrically connected to the slave circuit board (27).

9. The atomizing device of claim 8, wherein the electrically conductive member (324) is a pogo pin.

10. The atomizing device according to claim 8, characterized in that the slave circuit board (27) and the master circuit board (27 b) are electrically connected through an FPC.

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