Atomizer with fast coil lubrication

Abstract

This application discloses a rapid-lubrication atomizing device, comprising: an oil reservoir having an air inlet and an air outlet; an outer tube disposed within the oil reservoir, connecting the air inlet and the air outlet, with an oil inlet hole penetrating the side wall of the outer tube and connecting to the oil reservoir; an oil storage body disposed within the outer tube, located at the oil inlet hole; an oil suction body disposed within the outer tube, located between the oil storage body and the air outlet, with an airflow channel penetrating its end face along its axial direction; and an atomizing component installed within the outer tube, its lower part abutting against the inner side of the oil storage body, and its upper part abutting against the inner side of the oil suction body. After the e-liquid enters the oil storage body, a portion of the air in the oil storage body is squeezed into the atomizing component and then discharged to the outside through the atomizing component, allowing the e-liquid to smoothly and quickly enter the atomizing component; the remaining air in the oil storage body is squeezed upwards and enters the airflow channel, moving upwards along the airflow channel to facilitate the full entry of e-liquid into the oil storage body.

Description

Technical Field

[0001] This application relates to the field of atomization technology, and in particular to an atomization device for rapid coil lubrication. Background Technology

[0002] A high-capacity e-cigarette includes a casing with a liquid reservoir at the top, typically with capacities of 15ml, 20ml, or 25ml. A mouthpiece is located at the top of the reservoir, and an injection hole with a plug is located on the side wall of the reservoir. An atomizing tube is located at the bottom of the mouthpiece, with its upper end connected to the lower part of the mouthpiece and its lower end connected to an air inlet at the bottom of the reservoir, allowing access to outside air. An oil inlet is located on the side wall of the atomizing tube, connecting to the reservoir. An oil-collecting cotton is installed inside the atomizing tube, and a steel tube is installed inside the oil-collecting cotton. Inside the steel tube is an oil-guiding cotton, with a spirally bent heating wire on its inner side and its outer side abutting the inner side of the steel tube. The oil-guiding cotton is located at the oil passage inlet of the steel tube. E-liquid can be injected through the injection hole, and then the injection plug is sealed in the injection hole, allowing users to choose their preferred e-liquid flavor and preventing leakage.

[0003] When using an e-cigarette for the first time, since there is no e-liquid in the reservoir, e-liquid needs to be injected into the reservoir through the injection hole. After sealing the injection hole with the injection plug, the e-liquid in the reservoir flows into the oil reservoir cotton through the oil inlet hole, then through the oil reservoir cotton, and then through the oil passage hole into the wicking cotton. Only after the e-liquid has fully entered the wicking cotton can the heating coil be powered on. This process requires at least 5 minutes. If you continue to vape immediately during the waiting period, the wicking cotton will not be fully soaked in e-liquid, and the e-liquid content in the wicking cotton will be insufficient. If the heating coil is powered on at this time, the wicking cotton will easily burn.

[0004] Therefore, it is necessary to propose an atomizing device to address the aforementioned shortcomings. Utility Model Content

[0005] The main purpose of this application is to provide an atomizing device that can quickly lubricate the heating wire, thereby solving the technical problems of dry burning of the heating wire and rapid lubrication.

[0006] To achieve the above objectives, this application proposes a rapid coil-lubricating atomizing device, comprising:

[0007] An oil tank has an air inlet and an air outlet;

[0008] An outer pipe is installed in the oil tank, the outer pipe is connected to the air inlet and the air outlet, and an oil inlet hole is provided through the side wall of the outer pipe, the oil inlet hole is connected to the oil tank;

[0009] An oil reservoir is disposed inside the outer pipe, and the oil reservoir is located at the oil inlet.

[0010] An oil suction body is installed inside the outer tube. The oil suction body is located between the oil storage body and the air outlet. The oil suction body has an airflow channel that penetrates its end face along its axial direction.

[0011] An atomizing component is installed inside the outer tube, with the lower part of the atomizing component abutting the inner side of the oil reservoir and the upper part of the atomizing component abutting the inner side of the oil absorber.

[0012] The atomizing component includes an inner tube, and the oil storage body and the oil suction body are both located between the outer tube and the inner tube. The upper part of the inner tube abuts against the inner side of the oil suction body. The airflow channel opens outward from the inner side of the oil suction body and passes through the upper and lower end faces of the oil suction body in the vertical direction. The lower part of the inner tube abuts against the inner side of the oil storage body.

[0013] The inner tube has a liquid inlet hole corresponding to the oil inlet hole, and an oil-guiding cotton is installed inside the inner tube corresponding to the liquid inlet hole. A heating wire is provided on the inner side of the oil-guiding cotton.

[0014] The oil reservoir has an oil passage hole corresponding to the oil inlet hole, the oil inlet hole is connected to the oil passage hole, and the oil guide cotton is installed at the oil passage hole.

[0015] An air outlet extends downwards from the air outlet end into an air outlet pipe. The lower surface of the air outlet pipe is higher than the upper surface of the inner pipe. The lower surface of the air outlet pipe is higher than the upper surface of the oil-absorbing body. The upper surface of the oil-absorbing body is higher than the upper surface of the inner pipe. The upper part of the outer pipe is fixed to the lower part of the air outlet pipe.

[0016] The upper part of the outer tube is fixed to the lower part of the air outlet tube by an upper sealing ring. The lower part of the upper sealing ring has multiple protrusions extending downward, and there is a flow gap between adjacent protrusions. The lower surface of the protrusions is used to abut against the upper surface of the oil-absorbing body.

[0017] The lower surface of the oil absorber is higher than the upper surface of the oil storage body, and the lower surface of the oil absorber and the upper surface of the oil storage body form an isolation space.

[0018] The air inlet and air outlet are located at the upper and lower parts of the oil tank, respectively. A base is installed at the lower part of the oil tank, and a loading hole is provided in the base. A lower sealing silicone is installed in the loading hole, and a protrusion is provided on the edge of the lower sealing silicone. The lower part of the inner tube is fixed to the inner side of the protrusion, and the lower part of the outer tube is fixed to the outer side of the protrusion. An air inlet is provided in the middle of the lower sealing silicone, and the air inlet is connected to the lower part of the inner tube. An oil filling hole is provided in the base, and the oil filling hole is connected to the oil tank. A sealing plug is installed in the oil filling hole.

[0019] The upper surface of the base is provided with a downward sliding groove that extends horizontally. The oil inlet is exposed in the sliding groove. The sliding groove is equipped with a magnetic moving component, which includes a sliding component. The sliding component has a sealing ring at one end near the oil inlet. The sealing ring is used to seal the oil inlet. An electromagnet is provided at the lower part of the atomizing device. The electromagnet is connected to a circuit board, which is connected to a battery. The electromagnet controls the sliding component to move closer to or away from the oil inlet to seal or open the oil inlet.

[0020] The sliding member is equipped with a first magnet and a second magnet with opposite magnetic properties. The first magnet and the second magnet are arranged in a horizontal direction and slide above the electromagnet. The sliding member is equipped with a compression spring at one end away from the oil inlet, and the other end of the spring is fixed to the side wall of the base.

[0021] This application describes an application where an oil reservoir is located inside an outer tube at the oil inlet; an oil suction body is also located inside the outer tube, between the oil reservoir and the air outlet, and the oil suction body has an airflow channel extending through its end face along its axial direction; and an atomizing component is installed inside the outer tube, with its lower part abutting the inner side of the oil reservoir and its upper part abutting the inner side of the oil suction body. After e-liquid is injected into the oil tank, the oil enters the outer tube through the oil inlet and moves up, down, left, and right along the oil reservoir. As the e-liquid enters the oil tank, it compresses some of the air in the oil tank into the atomizing component, which then discharges it to the outside. The e-liquid can then smoothly and quickly enter the atomizing component. The remaining air in the oil tank is compressed and flows upwards into the airflow channel, moving upwards along the airflow channel, facilitating the full entry of e-liquid into the oil tank. Attached Figure Description

[0022] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on the structures shown in these drawings without creative effort.

[0023] Figure 1 This is a perspective view of the atomizing device in an embodiment of this design;

[0024] Figure 2 This is an exploded perspective view of the oil tank in an embodiment of this design;

[0025] Figure 3 This is a first-view exploded perspective view of the oil tank in an embodiment of this design;

[0026] Figure 4This is a second-view exploded perspective view of the oil tank in an embodiment of this design;

[0027] Figure 5 This is an exploded view of the outer tube, oil reservoir, oil suction body, and atomizing component in an embodiment of this design;

[0028] Figure 6 This is an exploded view from another perspective of the outer tube, oil reservoir, oil suction body, and atomizing assembly in this design embodiment;

[0029] Figure 7 This is a cross-sectional view of the atomizing device in an embodiment of this design;

[0030] Figure 8 In the embodiments of this design Figure 7 A magnified view of a portion of the image;

[0031] Figure 9 This is a cross-sectional view of the outer tube, oil suction body, and inner tube combined in an embodiment of this design.

[0032] Explanation of icon numbers:

[0033] 1 oil tank 11 intake end 12 air outlet 13 outer tube 131 Oil inlet hole 14 Upper sealing ring 141 protrusion 142 Flow gap 15 Bottom sealing silicone 151 Protrusion 152 air intake 16 Atomizing components 161 Inner tube 162 Liquid inlet 163 Oil-wicking cotton 164 heating wire 17 Oil-absorbing body 171 airflow channel 172 Isolation space 18 oil reservoir 181 Oil passage 19 air outlet 2 base 21 chute 22 Magnetic moving parts 221 Slider 222 electromagnet 23 Compression spring 24 Oil injection hole 25 Sealing plug 26 Loading hole 3 host

[0034] The purpose, features, and advantages of this application will be further explained in conjunction with the embodiments and with reference to the accompanying drawings. Detailed Implementation

[0035] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of the embodiments. Based on the embodiments of this application, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of this application.

[0036] It should be noted that all directional indicators (such as up, down, left, right, front, back, etc.) in the embodiments of this application are only used to explain the relative positional relationship and movement of each component in a certain specific posture (as shown in the figure). If the specific posture changes, the directional indicator will also change accordingly.

[0037] Furthermore, the use of terms such as "first" and "second" in this application is for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined with "first" or "second" may explicitly or implicitly include at least one of those features. Additionally, the term "and / or" throughout the text includes three solutions; taking A and / or B as an example, it includes technical solution A, technical solution B, and a technical solution that simultaneously satisfies A and B. Furthermore, the technical solutions of various embodiments can be combined with each other, but this must be based on the ability of a person skilled in the art to implement them. When the combination of technical solutions is contradictory or impossible to implement, it should be considered that such a combination of technical solutions does not exist and is not within the scope of protection claimed in this application.

[0038] the following Figure 1-9 This section will primarily describe the specific structure of the rapid coil-lubricating atomizing device. See [link / reference]. Figure 1 A rapid-lubrication atomizing device includes an oil tank 1 and a main unit 3. The oil tank 1 is also called a cartridge. The upper part of the main unit 3 has a plug-in space, and the lower part of the cartridge 1 is installed in the plug-in space. The main unit 3 is located at the lower part of the atomizing device. An electromagnet is installed inside the main unit 3. The electromagnet is connected to a circuit board, and the circuit board is connected to a battery. The main unit 3 also has a sensing component, such as a microphone and an airflow sensor. The sensing component is connected to the circuit board. The sensing component senses changes in air pressure and then sends an electrical signal to the circuit board, which instructs the battery to supply power to the oil tank 1.

[0039] See Figure 2-9 A rapid-lubrication atomizing device includes: an oil tank 1, which has an air inlet end 11 and an air outlet end 12; the oil tank 1 is generally irregularly circular with an elliptical cross-section, and the overall shape of the oil tank 1 can also be square or polygonal. The air inlet end 11 is provided at the lower part of the oil tank 1, and the air outlet end 12 is provided at the upper part of the oil tank 1, or the air inlet end 11 is provided on the side of the oil tank 1, and the air outlet end 12 is provided on the side wall of the oil tank 1. The oil tank 1 can be made of transparent material, or it can be made of opaque or semi-transparent material.

[0040] An outer pipe 13 is installed in the oil tank 1. The outer pipe 13 connects the air inlet end 11 and the air outlet end 12. An oil inlet hole 131 is provided through the side wall of the outer pipe 13. The oil inlet hole 131 penetrates the inner and outer walls of the outer pipe 13 and is located at the lower part of the outer pipe 13. The oil inlet hole 131 connects to the oil tank 1. The outer pipe 13 is installed in the oil tank 1 in a vertical direction. The cross-section of the outer pipe 13 can be circular, square, or polygonal. The outer pipe 13 can be made of metal, plastic, or ceramic materials. The lower part of the outer pipe 13 connects to the air inlet end 11 to facilitate the inflow of outside air, and the upper part of the outer pipe 13 connects to the air outlet end 12 to facilitate the outflow of flue gas.

[0041] An oil reservoir 18 is disposed inside the outer tube 13. The oil reservoir 18 is located at the oil inlet 131. The oil reservoir 18 is also called an oil reservoir cotton. The oil reservoir 18 is annular in shape. The outer side of the oil reservoir 18 abuts against the inner side of the outer tube 13. The oil reservoir 18 can store e-liquid and has the ability to absorb e-liquid. Alternatively, the oil reservoir 18 can be made of porous ceramic. This design uses oil reservoir cotton as an example for illustration.

[0042] An oil-absorbing body 17 is disposed inside the outer tube 13. The oil-absorbing body 17 is located between the oil storage body 18 and the air outlet 12. The oil-absorbing body 17 has an airflow channel 171 extending through its end face along its axial direction. The oil-absorbing body 17 is also called an oil-absorbing cotton. The oil-absorbing body 17 is annular in shape. The outer side of the oil-absorbing body 17 abuts against the inner side of the outer tube 13. The oil-absorbing body 17 can absorb and store condensate. It has the ability to absorb liquid. Of course, the oil-absorbing body can also absorb e-liquid. Alternatively, the oil-absorbing body 18 can be made of porous ceramic. This design uses oil-absorbing cotton as an example for illustration. The airflow channel 171 can be semi-circular, circular, triangular, square, or polygonal. The airflow channel 171 extends through the oil-absorbing body 17 in the vertical direction to facilitate airflow.

[0043] An atomizing component 16 is installed inside the outer tube 13. The lower part of the atomizing component 16 abuts against the inner side of the oil reservoir 18, facilitating the entry of e-liquid into the atomizing component 16 through the oil reservoir 18. The abutment between the atomizing component 16 and the oil reservoir 18 also fixes the atomizing component 16 and prevents the oil reservoir 18 from moving vertically or horizontally. The upper part of the atomizing component 16 abuts against the inner side of the oil absorber 17, allowing the atomizing component 16 to position the oil absorber 17. After the oil absorber 17 absorbs liquid, its volume increases. The contact between the atomizing component 16 and the oil absorber 17 prevents the oil absorber 17 from moving inward or vertically. The atomizing component 16 is used to absorb and heat the e-liquid. When the atomizing component 16 is powered on, it generates heat, heating the e-liquid into vapor. Outside air flows in from the air inlet 11, mixes with the vapor, and flows upward, exiting from the air outlet 12, making it easy for the air to enter the mouth.

[0044] With the above design, after the e-liquid is injected into the oil tank 1, the oil tank 1 enters the outer tube 13 through the oil inlet 131 and moves up, down, left, and right along the oil storage body. After the e-liquid enters the oil storage body 18, a portion of the air in the oil storage body 18 is squeezed into the atomizing component 16 and then discharged to the outside through the atomizing component 16, so that the e-liquid can smoothly and quickly enter the atomizing component 16. The other portion of the air in the oil storage body 18 is squeezed and flows upward into the airflow channel 171, moving upward along the airflow channel 171, which facilitates the full entry of e-liquid into the oil storage body 18. The air in the oil storage body 18 is discharged, which facilitates the full entry of e-liquid into the oil storage body 18, so that the e-liquid in the oil storage body 18 can quickly enter the atomizing component 16, which can prevent the heating component from dry burning.

[0045] The atomizing component 16 includes an inner tube 161, the cross-section of which can be circular, square, or polygonal. The inner tube 161 can be made of metal, plastic, or ceramic. The oil reservoir 18 and the oil absorber 17 are located between the outer tube 13 and the inner tube 161. The upper part of the inner tube 161 abuts against the inner side of the oil absorber 17. The airflow channel 171 opens outward from the inner side of the oil absorber 17 and penetrates the upper and lower end faces of the oil absorber 17 in the vertical direction. The lower part of the inner tube 161 abuts against the inner side of the oil reservoir 18. The inner tube 161 and the outer tube 13 fix the oil reservoir 18 and the oil absorber 17 from the inner and outer directions, respectively, to prevent the oil absorber 17 from shaking in the vertical and horizontal directions. The gas in the oil reservoir 18 can be discharged through the airflow channel 171, thus achieving both mutual fixation and ensuring airflow. Additionally, when gas is drawn from the outlet 12, the gas in the airflow channel 171 will decrease, which will cause the air pressure in the oil reservoir 18 to be lower than the air pressure in the oil tank 1. The e-liquid in the oil tank 1 will enter the oil reservoir 18 through the oil inlet 131, further increasing the e-liquid content in the oil reservoir 18 and the speed at which it enters, making it easier for the e-liquid to continue to enter the atomizing component 16, so that the atomizing component 16 is fully supplied with e-liquid.

[0046] The inner tube 161 has an inlet hole 162 corresponding to the oil inlet hole 131. An oil-guiding cotton 163 is installed inside the inner tube 161 corresponding to the oil inlet hole 162. A heating wire 164 is disposed on the inner side of the oil-guiding cotton 163. The oil inlet hole 162 is located at the lower part of the inner tube 161. The oil inlet hole 162 can be at the same horizontal height as the oil inlet hole 131. In this design, the oil inlet hole 162 is slightly higher than the oil inlet hole 131. In this design, there can be only one oil inlet hole 131, or only two. These two small oil inlets 131 are arranged adjacent to each other. There are multiple oil inlets 162 to facilitate the rapid entry of e-liquid from the outer tube 13 into the oil-guiding cotton 163. The oil-guiding cotton 163 abuts against the oil reservoir to facilitate the transmission of e-liquid. Both ends of the heating wire 164 are led out through wires and connected to the circuit board, allowing the battery to supply power to the heating wire 164 through the circuit board and wires. The heating wire 164 generates heat after being energized.

[0047] The oil reservoir 18 has an oil passage hole 181 corresponding to the oil inlet hole 131. The oil inlet hole 131 is connected to the oil passage hole 181, and the oil guide cotton 163 is installed at the oil passage hole 181. In this design, the oil inlet 131 and the oil outlet 181 are at approximately the same height, while the liquid inlet 162 is positioned higher than the oil outlet 181. This allows the e-liquid to first enter the oil outlet 181 through the oil inlet 131 and then move upwards along the oil outlet 181 into the oil reservoir 18. Some e-liquid may also bypass the oil reservoir 18 and directly enter the wicking cotton 163 through the liquid inlet 162. The e-liquid entering the oil reservoir 18 can continue to move upwards, filling the entire reservoir with e-liquid. The e-liquid in the reservoir is then transferred to the wicking cotton 163 through contact with it. In short, there are two ways for the e-liquid to enter the wicking cotton 163, ensuring that the e-liquid fully enters the wicking cotton 163 and preventing the heating coil 164 from burning dry.

[0048] The air outlet 12 extends downward into an air outlet pipe 19. The lower surface of the air outlet pipe 19 is higher than the upper surface of the inner pipe 161. The lower surface of the air outlet pipe 19 is higher than the upper surface of the oil-absorbing body 17. The upper surface of the oil-absorbing body 17 is higher than the upper surface of the inner pipe 161. The upper part of the outer pipe 13 is fixed to the lower part of the air outlet pipe 19. Air in the oil reservoir 18 moves upward through the airflow channel 171 and then flows out through the gap between the lower surface of the vent pipe 19 and the upper surface of the inner pipe 161. Air in the oil reservoir 18 can also flow upward through the oil suction body 17, flowing out from the upper surface of the oil suction body 17 and then from the gap between the upper surface of the oil suction body 17 and the lower surface of the vent pipe 19. Condensate in the vent pipe 19 moves downward and enters the oil suction body through the gap between the lower surface of the vent pipe 19 and the upper surface of the oil suction body 17, preventing condensate from flowing into the oil reservoir 18.

[0049] The upper part of the outer pipe 13 is fixed to the lower part of the exhaust pipe 19 by an upper sealing ring 14 to prevent flue gas from flowing into the oil tank 1. The lower part of the upper sealing ring 14 extends downwards with multiple protrusions 141, with a flow gap 142 between adjacent protrusions 141. The lower surface of each protrusion 141 abuts against the upper surface of the oil-absorbing body 17, facilitating the upward flow of air in the oil-absorbing body 17 to the flow gap 142 between adjacent protrusions 141, and then flowing out from the gap between the lower surface of the exhaust pipe 19 and the upper surface of the oil-absorbing body 17. This also facilitates the downward movement of condensate in the exhaust pipe 19, allowing it to enter the flow gap 142 between the two protrusions 141, and then directly flow downwards into the oil-absorbing body 17, or the condensate reaches the inner wall of the outer pipe 13 and then flows downwards along the inner wall of the outer pipe 13 into the upper surface of the oil-absorbing body 17.

[0050] The lower surface of the oil-absorbing body 17 is higher than the upper surface of the oil-reservoir 18, and the lower surface of the oil-absorbing body 17 and the upper surface of the oil-reservoir 18 form an isolation space 172. A certain distance is maintained between the oil-absorbing body 17 and the oil-reservoir 18. The existence of this isolation space 172 prevents condensate in the oil-absorbing body 17 from entering the oil-reservoir 18, and also prevents e-liquid in the oil-reservoir 18 from entering the oil-absorbing body 17. Furthermore, the oil-absorbing body 17 expands after absorbing condensate, and the oil-reservoir 18 expands after absorbing e-liquid; the isolation space 172 is necessary to prevent them from contacting each other and causing the condensate and e-liquid to mix.

[0051] The air inlet 11 and air outlet 12 are located at the upper and lower parts of the oil tank 1, respectively. A base 2 is installed at the lower part of the oil tank 1, sealing the lower part to prevent e-liquid from flowing out. The base 2 has a loading hole 26, into which a lower sealing silicone 15 is installed. The lower sealing silicone 15 is installed in the loading hole 26 and seals it to prevent e-liquid from flowing out. The lower sealing silicone 15 has a circular cross-section, matching the shape of the loading hole 26. A protrusion 151 is provided on the edge of the lower sealing silicone 15. The lower part of the inner tube 161 is fixed to the inner side of the protrusion 151, and the lower part of the outer tube 13 is fixed to the outer side of the protrusion 151. The protrusion 151 is annular. The protrusion 151 is arranged around the edge of the lower sealing silicone 15. The thickness of the protrusion 151 is equal to the distance between the inner tube 161 and the outer tube 13, so that the distance between the inner tube 161 and the outer tube 13 remains stable and also prevents the inner tube 161 and the outer tube 13 from moving up and down. The top of the protrusion 151 abuts against the lower surface of the oil reservoir 18 to prevent the oil reservoir 18 from moving down. An air inlet 152 is provided in the middle of the lower sealing silicone 15. The air inlet 152 is connected to the lower part of the inner tube 161, so that outside air can enter the lower part of the inner tube 161 through the air inlet 152. An oil filling hole 24 is provided on the base 2. The oil filling hole 24 is connected to the oil tank 1. The oil filling hole 24 is equipped with a sealing plug 25. When using oil tank 1 for the first time, since oil tank 1 does not contain e-liquid, e-liquid needs to be injected into oil tank 1 through oil injection hole 24. Then, the sealing plug 25 is inserted into oil injection hole 24 to prevent e-liquid from leaking out.

[0052] The upper surface of the base 2 is provided with a downward-facing groove 21. The groove 21 extends horizontally, and the oil inlet 131 is exposed in the groove 21. The groove 21 is equipped with a magnetic moving component 22, which includes a sliding component 221. The sliding component 221 has a sealing ring at one end near the oil inlet 131. The sealing ring is used to seal the oil inlet 131. An electromagnet 222 is provided at the lower part of the atomizing device. The electromagnet 222 is connected to a circuit board, and the circuit board is connected to a battery. The electromagnet 222 controls the sliding component 221 to move closer to or away from the oil inlet 131 to seal or open the oil inlet 131. To facilitate the periodic movement of the magnetic moving part 22, the sliding part 221 is equipped with a first magnet and a second magnet with opposite magnetic properties. The first magnet and the second magnet are arranged in a horizontal direction and slide above the electromagnet 222. The sliding part 221 is equipped with a compression spring 23 at one end away from the oil inlet hole 131, and the other end of the compression spring 23 is fixed to the side wall of the base 2.

[0053] The magnetic moving part 22 moves left and right along the bottom of the oil tank 1. The first magnet of the magnetic moving part 22 is the N pole, and the second magnet is the S pole. Initially, the compression spring 23 is compressed, but the compression force is relatively small. This compression force allows the magnetic moving part 22 to squeeze the surface of the outer tube 13, sealing the oil inlet 131 with the sealing ring. The oil tank 1 is empty of e-liquid. When e-liquid is injected, the electromagnet 222 is energized with a positive current. The upper end of the electromagnet 222 is the S pole, and the lower end is the N pole. The first magnet is attracted by the electromagnet 222, and the second magnet receives an upward repulsive force. The magnetic moving part 22 moves to the right, and the oil inlet 131 opens. The e-liquid in the oil tank 1 enters the oil storage body 18 through the oil inlet 131. After the oil inlet 131 is open for 3 seconds (or 1 second, 2 seconds, 5 seconds, 7 seconds, etc.), the electromagnet 222 drops. When the electromagnet 222 is de-energized, it loses its magnetism. The magnetic moving part 22 is pushed by the compression spring 23. Under the push of the compression spring 23, the magnetic moving part 22 moves towards the oil inlet 131 and eventually blocks the oil inlet 131. This movement process is one switching cycle. After waiting for 3 seconds (or 1 second, 2 seconds, 5 seconds, 7 seconds, etc.), the electromagnet 222 is energized in the positive direction, and the oil inlet 131 opens again. The above movement process is repeated. When the oil inlet 131 is open, the e-liquid enters the oil passage 181 and the oil storage body 18 through the oil inlet 131, and then enters the liquid inlet 162 and the oil guide cotton 163. Inside the oil guide cotton 163, it is heated into smoke by the heating wire 164. Each time the oil inlet 131 is closed, the e-liquid can be pushed into the oil storage body 18.

[0054] The working principle of this design is as follows: In terms of the oil circuit: the e-liquid in the oil tank 1 enters the oil passage 181 through the oil inlet 131, reaches the lower part of the oil storage body 18, and then moves upward along the oil storage body 18, entering the oil guide cotton 163 through the liquid inlet 162. Another part of the e-liquid enters the oil passage 181 through the oil inlet 131, and then enters the oil guide cotton 163 through the liquid inlet 162. The air in the oil storage body 18 moves upward through the airflow channel 171 and is discharged, which facilitates the smooth entry of e-liquid into the oil storage body 18.

[0055] In terms of circuitry: The lower part of the atomizing device is also equipped with a battery and a circuit board. The battery is connected to the circuit board through wires, and the circuit board is connected to both ends of the heating wire 164 through wires. The circuit board controls the output of electrical energy from the battery to the heating wire 164 and controls the output power.

[0056] Regarding the air path: Outside air enters through the air hole at the bottom of the atomizing device, flows upward along the air hole, reaches the air inlet 11, enters the lower part of the inner tube 161 through the air inlet 152, flows upward along the inner tube 161, passes through the heating wire 164, carries away the smoke, the smoke and air mix and flow upward along the inner tube 161, enter the lower part of the air outlet 19, and flow out from the upper part of the air outlet 19.

[0057] The above description is merely a preferred embodiment of this application and does not limit the patent scope of this application. Any equivalent structural transformations made based on the inventive concept of this application and the contents of the specification and drawings of this application, or direct / indirect applications in other related technical fields, are included within the patent protection scope of this application.

Claims

1. A rapidly lubricated atomizing device, characterized in that, include: An oil tank has an air inlet and an air outlet; An outer pipe is installed in the oil tank, the outer pipe is connected to the air inlet and the air outlet, and an oil inlet hole is provided through the side wall of the outer pipe, the oil inlet hole is connected to the oil tank; An oil reservoir is disposed inside the outer pipe, and the oil reservoir is located at the oil inlet. An oil suction body is installed inside the outer tube. The oil suction body is located between the oil storage body and the air outlet. The oil suction body has an airflow channel that penetrates its end face along its axial direction. An atomizing component is installed inside the outer tube, with the lower part of the atomizing component abutting the inner side of the oil reservoir and the upper part of the atomizing component abutting the inner side of the oil absorber.

2. The atomizing device for rapid coil lubrication according to claim 1, characterized in that, The atomizing component includes an inner tube, and the oil storage body and the oil suction body are both located between the outer tube and the inner tube. The upper part of the inner tube abuts against the inner side of the oil suction body. The airflow channel opens outward from the inner side of the oil suction body and passes through the upper and lower end faces of the oil suction body in the vertical direction. The lower part of the inner tube abuts against the inner side of the oil storage body.

3. The atomizing device for rapid coil lubrication according to claim 2, characterized in that, The inner tube has a liquid inlet hole corresponding to the oil inlet hole, and an oil-guiding cotton is installed inside the inner tube corresponding to the liquid inlet hole. A heating wire is provided on the inner side of the oil-guiding cotton.

4. The atomizing device for rapid coil lubrication according to claim 3, characterized in that, The oil reservoir has an oil passage hole corresponding to the oil inlet hole, the oil inlet hole is connected to the oil passage hole, and the oil guide cotton is installed at the oil passage hole.

5. The atomizing device for rapid coil lubrication according to claim 2, characterized in that, An air outlet extends downwards from the air outlet end into an air outlet pipe. The lower surface of the air outlet pipe is higher than the upper surface of the inner pipe. The lower surface of the air outlet pipe is higher than the upper surface of the oil-absorbing body. The upper surface of the oil-absorbing body is higher than the upper surface of the inner pipe. The upper part of the outer pipe is fixed to the lower part of the air outlet pipe.

6. The atomizing device for rapid coil lubrication according to claim 5, characterized in that, The upper part of the outer tube is fixed to the lower part of the air outlet tube by an upper sealing ring. The lower part of the upper sealing ring has multiple protrusions extending downward, and there is a flow gap between adjacent protrusions. The lower surface of the protrusions is used to abut against the upper surface of the oil-absorbing body.

7. The atomizing device for rapid coil lubrication according to claim 5, characterized in that, The lower surface of the oil absorber is higher than the upper surface of the oil storage body, and the lower surface of the oil absorber and the upper surface of the oil storage body form an isolation space.

8. The atomizing device for rapid coil lubrication according to claim 2, characterized in that, The air inlet and air outlet are located at the upper and lower parts of the oil tank, respectively. A base is installed at the lower part of the oil tank, and a loading hole is provided in the base. A lower sealing silicone is installed in the loading hole, and a protrusion is provided on the edge of the lower sealing silicone. The lower part of the inner tube is fixed to the inner side of the protrusion, and the lower part of the outer tube is fixed to the outer side of the protrusion. An air inlet is provided in the middle of the lower sealing silicone, and the air inlet is connected to the lower part of the inner tube. An oil filling hole is provided in the base, and the oil filling hole is connected to the oil tank. A sealing plug is installed in the oil filling hole.

9. The atomizing device for rapid coil lubrication according to claim 8, characterized in that, The upper surface of the base is provided with a downward sliding groove that extends horizontally. The oil inlet is exposed in the sliding groove. The sliding groove is equipped with a magnetic moving component, which includes a sliding component. The sliding component has a sealing ring at one end near the oil inlet. The sealing ring is used to seal the oil inlet. An electromagnet is provided at the lower part of the atomizing device. The electromagnet is connected to a circuit board, which is connected to a battery. The electromagnet controls the sliding component to move closer to or away from the oil inlet to seal or open the oil inlet.

10. The atomizing device for rapid coil lubrication according to claim 9, characterized in that, The sliding member is equipped with a first magnet and a second magnet with opposite magnetic properties. The first magnet and the second magnet are arranged in a horizontal direction and slide above the electromagnet. The sliding member is equipped with a compression spring at one end away from the oil inlet, and the other end of the spring is fixed to the side wall of the base.

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