Dual-jet adjustable nebulizer

Abstract

The application relates to a double-nozzle adjustable sprayer, which comprises a sprayer body and a spray gun, the spray gun comprises a spray rod, a three-way pipe, a rotating nozzle one and a rotating nozzle two, the spray rod is connected to the sprayer body at the end, the rotating nozzle one and the rotating nozzle two are rotationally connected to the two ends of the three-way pipe in a one-to-one correspondence, a sealing assembly is connected to the three-way pipe, and the sealing assembly comprises a sealing ring and a water-swelling block. In the application, the sealing ring and the water-swelling ring are arranged, the orientation of the spray rod does not need to be adjusted by workers, the orientation of the rotating nozzle one and the rotating nozzle two is changed, the posture is kept after the orientation is changed, and then spraying is carried out, the work burden of the workers is reduced, the labor intensity of the workers is reduced, and the spraying efficiency of the sprayer is improved; the elastic piece one is arranged, automatic resetting of the sealing assembly is realized, the work burden of the workers is reduced, and the convenience of using the sprayer is improved; the elastic ring is arranged, the solution is not easy to overflow from the abutting position between the rotating section and the elastic ring, the waste of the solution is reduced, and the energy-saving concept is embodied.

Description

Technical Field

[0001] This application relates to the field of sprayers, and more particularly to a dual-nozzle adjustable sprayer. Background Technology

[0002] A sprayer is short for spraying equipment. A sprayer is a device that uses air suction to turn liquids such as chemicals into a mist, which is then sprayed evenly onto other objects. It consists of a storage tank, a pump, and a spray gun. The pump drives the solution in the storage tank to be sprayed evenly onto the surfaces of other objects through the spray gun.

[0003] Spray guns are mainly single-nozzle structures, which can only spray in one direction during use. When workers need to spray different corners of an item, they need to readjust the direction of the spray gun and maintain the spray direction, which increases the workload and labor intensity of the workers, thereby reducing the spraying efficiency of the sprayer. Summary of the Invention

[0004] To address the issue of workers needing to adjust the direction of the spray gun and maintain its spray pattern, this application provides a dual-nozzle adjustable sprayer.

[0005] This application provides a dual-nozzle adjustable sprayer, which adopts the following technical solution:

[0006] A dual-nozzle adjustable sprayer includes a sprayer body and a spray gun. The spray gun includes a spray bar, a three-way pipe, a first rotating nozzle, and a second rotating nozzle. The three-way pipe has a first connecting channel and a second connecting channel, the first connecting channel communicating with the second connecting channel. The inner wall of the first connecting channel has a threaded groove for threaded connection of the end of the spray bar. The end of the spray bar away from the three-way pipe is connected to the sprayer body. The first rotating nozzle and the second rotating nozzle are rotatably connected to the two ends of the three-way pipe respectively. Nozzle 2 is located at both ends of connecting channel 2. A sealing assembly is connected to the three-way pipe. A sealing cavity is opened on the outer wall of the three-way pipe. The sealing cavity penetrates the outer wall of the three-way pipe and connects to the threaded groove. The sealing assembly includes a sealing ring and a water-swellable block. The sealing ring is embedded in the inner wall of the threaded groove. The outer wall of the sealing ring abuts against the inner wall of the threaded groove and the end face of the spray bar to form a seal. The water-swellable block is embedded in the sealing cavity. The inner wall of the water-swellable block abuts against the outer wall of the sealing ring and the outer wall of the spray bar. The outer wall of the water-swellable block is flush with the outer wall of the three-way pipe.

[0007] By adopting the above technical solution, the solution inside the sprayer body enters the connecting channel one through the spray bar. The outer wall of the sealing ring abuts against the end face of the spray bar and the inner wall of the threaded groove to form a seal, achieving the sealing stability between the three-way pipe and the end of the spray bar. The inner wall of the water-swellable ring abuts against the outer wall of the spray bar and the outer wall of the sealing ring. When the inner wall of the threaded groove is not threadedly tightened to the outer wall of the spray bar, the solution in the inner cavity of the spray bar overflows through the connection between the outer wall of the spray bar and the inner wall of the threaded groove. The overflowing solution abuts against the inner wall of the water-swellable ring, which absorbs water, expands, and abuts against the outer wall of the sealing ring. The outer wall of the sealing ring deforms under pressure and abuts against the end face of the spray bar to form a seal, further achieving the sealing stability between the three-way pipe and the spray bar. Connecting channel one connects to connecting channel two. The two ends of the connecting channel 2 are rotatably connected to rotating nozzle 1 and rotating nozzle 2 respectively. The solution in the connecting channel 1 enters the rotating nozzle 1 and rotating nozzle 2 through the connecting channel 2 and is sprayed out, thereby increasing the spraying range of the sprayer. When the operator needs to adjust the direction of rotating nozzle 1 and rotating nozzle 2 to spray at different angles, the operator can rotate the orientation of rotating nozzle 1 and rotating nozzle 2 on the three-way pipe. There is no need for the operator to adjust the orientation of the spray bar to change the orientation of rotating nozzle 1 and rotating nozzle 2 and maintain the same posture for spraying, thereby reducing the operator's workload, reducing the labor intensity of the operator, and thus improving the spraying efficiency of the sprayer.

[0008] Optionally, the sealing assembly further includes a transmission component, which includes a first transmission rack, a second transmission rack, and a transmission gear. The transmission gear is rotatably connected to the inner wall of the sealing cavity. The first transmission rack is slidably connected to the inner wall of the sealing cavity, with its end protruding from the inner wall of the threaded groove and abutting against the outer wall of the spray bar. The second transmission rack is slidably connected to the inner wall of the sealing cavity, and the sliding direction of the second transmission rack is parallel to that of the first transmission rack. Both the first and second transmission racks mesh with the transmission gear, and are located on opposite sides of the transmission gear. The end face of the second transmission rack away from the transmission gear is connected to the end face of the water-swellable block. When the outer wall of the spray bar is tightened and fixed to the inner wall of the threaded groove, the outer wall of the spray bar abuts against the end face of the first transmission rack and drives the first transmission rack to slide towards the sealing cavity. The transmission gear rotates, driving the second transmission rack to slide towards the threaded groove, causing the end face of the water-swellable block to be flush with the outer wall of the tee pipe.

[0009] By adopting the above technical solution, when the end of the spray bar is tightened and fixed to the inner wall of the threaded groove, the outer wall of the spray bar abuts against the end face of the transmission rack and drives the transmission rack to slide towards the sealing cavity. The transmission gear rotates, driving the transmission rack to slide towards the threaded groove. The end face of the transmission rack connects with the end face of the water-swellable block, driving the water-swellable block to slide towards the threaded groove. The end face of the water-swellable block is flush with the outer wall of the tee pipe. The operator can directly observe the tightening of the end face of the spray bar and the inner wall of the threaded groove, thereby improving the installation efficiency of the dual-nozzle adjustable sprayer.

[0010] Optionally, the sealing assembly further includes an elastic element, the two ends of which are connected to the inner wall of the sealing cavity and the end of the transmission rack respectively. The elastic element has the elastic force to drive the transmission rack to slide away from the sealing cavity, and the end of the transmission rack tends to protrude from the inner wall of the threaded groove.

[0011] By adopting the above technical solution, when the end of the spray bar disengages from the inner wall of the threaded groove, the clamping force of the outer wall of the spray bar against one end face of the transmission rack disappears. The elastic force of the elastic element drives the transmission rack to slide towards the threaded groove, and one end of the transmission rack protrudes from the inner wall of the threaded groove. The transmission gear rotates, driving the transmission rack to slide away from the threaded groove, which in turn drives the water-swellable block to slide away from the threaded groove. The end of the water-swellable block protrudes from the outer wall of the tee pipe, realizing the automatic reset of the sealing component without the need for adjustment by the operator, thereby reducing the workload of the operator and improving the ease of use of the dual-nozzle adjustable sprayer.

[0012] Optionally, the end face of the transmission rack facing away from the sealing ring is connected to a guide surface. The inclination height of the guide surface increases as the distance to the sealing ring decreases. The guide surface abuts against the outer wall of the spray bar and guides the transmission rack to slide towards the sealing cavity.

[0013] By adopting the above technical solution, when the end of the spray bar is screwed into the inner wall of the threaded groove, the outer wall of the spray bar abuts against the guide surface. The guide surface guides the transmission rack to slide towards the sealing cavity, which in turn drives the water-swellable block to slide towards the threaded groove. The end face of the water-swellable ring is flush with the outer wall of the tee pipe, thereby ensuring the stability of the sealing assembly operation.

[0014] Optionally, the rotating nozzle includes a nozzle seat, which includes a spray section and a rotating section. The end of the rotating section is connected to the outer wall of the spray section. The rotating section has a flow cavity one, and the spray section has a flow cavity two. The flow cavity one communicates with the flow cavity two. The rotating section is rotatably connected to the outer wall of the tee pipe. The flow cavity one communicates with the flow channel two. An elastic ring is connected to the end of the rotating section two away from the spray section. The inner wall of the elastic ring abuts against the outer wall of the tee pipe to form a seal.

[0015] By adopting the above technical solution, the end of the rotating section is rotatably connected to the outer wall of the three-way pipe, and the second connecting channel, the first flow chamber and the second flow chamber are connected in sequence. The solution in the second connecting channel passes through the first flow chamber and the second flow chamber in sequence and is discharged. The inner wall of the elastic ring presses against the outer wall of the three-way pipe to form a seal, so that the solution in the first flow chamber is not easy to overflow from the point where the rotating section and the elastic ring press against each other, reducing the waste of solution and embodying the concept of energy saving.

[0016] Optionally, a clamping assembly is connected to the rotating section. The clamping assembly includes a first clamping arc plate, a second clamping arc plate, and a clamping member. The first and second clamping arc plates are rotatably connected to the end face of the rotating section facing the elastic ring. The first and second clamping arc plates are located on both sides of the axis of the elastic ring. The clamping member is used to fix the first and second clamping arc plates. When the first and second clamping arc plates rotate toward the direction closer to the elastic ring, the clamping member drives the first and second clamping arc plates to close together and form a fixed shape. The inner walls of the first and second clamping arc plates abut against the outer wall of the elastic ring to form a fixed shape. The outer wall of the elastic ring is deformed under pressure and abuts against the outer wall of the tee pipe to form a seal.

[0017] By adopting the above technical solution, the workers drive the first and second clamping arc plates to rotate towards the axis of the elastic ring. The clamping components drive the first and second clamping arc plates to close together and form a fixed structure. The inner walls of the first and second clamping arc plates press against the outer wall of the elastic ring to form a fixed structure. The inner wall of the elastic ring is pressed against the outer wall of the tee pipe to form a seal, further enhancing the sealing stability between the inner wall of the elastic ring and the outer wall of the tee pipe.

[0018] Optionally, the abutting member includes a abutting plate and a abutting strip. One end of the abutting plate is connected to the end of the abutting arc plate away from the rotation axis of the abutting arc plate. The other end of the abutting plate protrudes from the end face of the abutting arc plate. The end face of the abutting plate facing the elastic ring has an abutting groove for accommodating the abutting strip. The abutting strip is connected to the end face of the abutting arc plate near the abutting plate. When the abutting arc plate covers the abutting arc plate, the abutting strip is embedded in the abutting groove, and the outer wall of the abutting strip abuts against the inner wall of the abutting groove to form a fixation.

[0019] By adopting the above technical solution, when the first and second abutting arc plates are closed, the abutting strip is embedded in the abutting groove, and the outer wall of the abutting strip abuts against the inner wall of the abutting groove to form a fixation, thereby fixing the first and second abutting arc plates and making it difficult for the first and second abutting arc plates to rotate, thus improving the abutting stability of the first and second abutting arc plates against the outer wall of the elastic ring.

[0020] Optionally, the tee is coaxially fitted with a deformation ring, and the outer wall of the deformation ring abuts against the inner wall of the elastic ring and the outer wall of the tee to form a seal.

[0021] By adopting the above technical solution, the outer wall of the deformation ring is pressed against the inner wall of the elastic ring and the outer wall of the three-way pipe to form a seal, so that the water in the flow chamber is not easy to overflow from the contact between the inner wall of the elastic ring and the outer wall of the three-way pipe, thereby reducing the waste of solution and embodying the concept of energy saving.

[0022] Optionally, a pressure-changing assembly is connected to the nozzle seat. A pressure-changing chamber is formed in the inner wall of the flow cavity. A sliding hole is formed on the end face of the elastic ring facing the deformation ring. The pressure-changing chamber communicates with the sliding hole. The pressure-changing assembly includes a power rod, a pressure-changing component, a pressure-changing piston, and a sealing rod. The power rod is slidably connected to the inner wall of the pressure-changing chamber, and its end protrudes from the inner wall of the flow cavity. The pressure-changing piston is slidably connected to the inner wall of the pressure-changing chamber, and its circumferential outer wall abuts against the inner wall of the pressure-changing chamber to form a seal. The sealing rod is slidably connected to the inner wall of the sliding hole. The sealing rod is positioned above the outer wall of the deformation ring, with its end facing upwards. The pressure transformer is connected between the pressure transformer piston and the power rod. The pressure transformer receives power from the power rod and drives the pressure transformer piston to slide. When the hydraulic pressure in the flow chamber drives the power rod to slide towards the pressure transformer chamber, the pressure transformer receives power from the power rod and drives the pressure transformer piston to slide, causing air in the pressure transformer chamber to enter the sliding hole. The air pressure in the sliding hole drives the sealing rod to slide towards the deformation ring, and the outer wall of the sealing rod abuts against the outer wall of the deformation ring to form a seal.

[0023] By adopting the above technical solution, when the solution in the connecting channel 2 passes through flow chamber 1 and flow chamber 2 in sequence and is discharged, the hydraulic pressure in flow chamber 1 drives the power rod to slide towards the pressure transformer chamber. The pressure transformer receives the power from the power rod and drives the pressure transformer piston to slide on the inner wall of the pressure transformer chamber. The outer circumferential wall of the pressure transformer piston presses against the inner wall of the pressure transformer chamber, driving the air in the pressure transformer chamber into the sliding hole. The increased air pressure in the sliding hole drives the sealing rod to slide towards the deformation ring. The end face of the sealing rod presses against the outer wall of the deformation ring to form a seal, further improving the sealing stability between the rotating section and the outer wall of the three-way pipe. At the same time, the increased air pressure in the sliding hole drives the elastic ring to expand and deform, further increasing the clamping force between the elastic ring and the clamping arc plate 1 and the clamping arc plate 2.

[0024] Optionally, the transformer assembly further includes an elastic element two, with its two ends in the elastic direction correspondingly connected to the outer wall of the sealing rod and the inner wall of the transformer cavity. The elastic element two has the elastic force to drive the sealing rod to slide away from the deformation ring, and the end of the sealing rod tends to be flush with the inner wall of the flow cavity.

[0025] By adopting the above technical solution, when the dual-nozzle adjustable sprayer is not used, the hydraulic pressure in the first flow chamber disappears, and the elastic force of the second elastic element drives the sealing rod to slide away from the deformation ring. The end of the sealing rod is flush with the inner wall of the first flow chamber, thus realizing the automatic reset of the sealing rod.

[0026] In summary, this application includes at least one of the following beneficial technical effects:

[0027] 1. The setting of sealing ring and water-expanding ring eliminates the need for operators to adjust the orientation of the spray bar and change the orientation of rotating nozzle one and rotating nozzle two to maintain the same posture for spraying, reducing the workload and labor intensity of operators and improving the spraying efficiency of the sprayer;

[0028] 2. The design of the elastic element enables the automatic reset of the sealing assembly, reducing the workload of operators and improving the ease of use of the sprayer;

[0029] 3. The design of the elastic ring prevents the solution from overflowing from the point where the rotating section and the elastic ring meet, reducing solution waste and embodying the concept of energy saving. Attached Figure Description

[0030] Figure 1 This is a schematic diagram of the overall structure of an embodiment of this application.

[0031] Figure 2 This is a partial cross-sectional view of an embodiment of this application, mainly showing the sealing assembly.

[0032] Figure 3 This is a schematic diagram of the overall structure of the nozzle holder in the embodiments of this application.

[0033] Figure 4 This is a schematic diagram of the overall structure of the transformer assembly in the embodiments of this application.

[0034] Explanation of reference numerals in the attached drawings: 1. Sprayer body; 11. Base; 12. Liquid storage tank; 13. Pump; 2. Spray gun; 21. Spray bar; 22. T-connector; 221. Threaded part; 2211. Connecting flow channel one; 2212. Threaded groove; 2213. Sealing cavity; 222. Connecting part; 2221. Connecting flow channel two; 23. Rotating nozzle one; 231. Nozzle seat; 2311. Spray section; 2312. Rotating section; 2313. Flow cavity one; 2314. Flow cavity two; 2315. Pressure changing cavity; 24. Rotating nozzle two; 3. Sealing assembly; 31. Sealing ring; 32. Water-expanding block; 33. Transmission component; 3 31. Transmission gear; 332. Transmission rack one; 3321. Guide surface; 333. Elastic element one; 334. Transmission rack two; 4. Elastic ring; 41. Sliding hole; 5. Deformation ring; 6. Clamping assembly; 61. Clamping arc plate one; 62. Clamping arc plate two; 63. Clamping element; 631. Clamping plate; 6311. Clamping groove; 632. Clamping strip; 7. Pressure transformation assembly; 71. Power rod; 711. Pressure-bearing surface; 72. Pressure transformation element; 721. Pressure transformation rack one; 722. Pressure transformation rack two; 723. Pressure transformation gear; 724. Elastic element three; 73. Pressure transformation piston; 74. Sealing rod; 75. Elastic element two. Detailed Implementation

[0035] The following is in conjunction with the appendix Figure 1-4 This application will be described in further detail.

[0036] This application discloses a dual-nozzle adjustable sprayer. (Refer to...) Figure 1 The dual-nozzle adjustable sprayer includes a sprayer body 1 and a spray gun 2. The sprayer body 1 includes a base 11, a liquid storage tank 12, and a pump 13. The liquid storage tank 12 and the pump 13 are fixed to the end face of the base 11 by screws. The water inlet of the pump 13 is connected to the water outlet of the liquid storage tank 12 through a pipe. The water outlet of the pump 13 is connected to the spray gun 2 through a pipe. The pump 13 drives the solution in the liquid storage tank 12 to be sprayed out from the spray end of the spray gun 2 through the pipe, thereby achieving spraying on the end face of the object.

[0037] Reference Figure 1 and Figure 2 The spray gun 2 includes a spray bar 21, a three-way pipe 22, a rotating nozzle 1 23, and a rotating nozzle 24. The three-way pipe 22 includes a threaded part 221 and a connecting part 222. Both the threaded part 221 and the connecting part 222 are cylindrical tubes. The end of the threaded part 221 is welded and fixed to the middle part of the connecting part 222 along its axial direction. The threaded part 221 has a connecting channel 1 2211 coaxially formed. The connecting channel 1 2211 passes through the outer wall of the threaded part 221 along its own axis. The connecting part 222 has a connecting channel 2221 coaxially formed. The connecting channel 2221 passes through the outer wall of the connecting part 222 along its own axis. The connecting channel 1 2211 connects to the connecting channel 2221, and the axis of the connecting channel 1 2211 is perpendicular to the axis of the connecting channel 2221.

[0038] Reference Figure 1 and Figure 2 A threaded groove 2212 is coaxially formed on the inner wall of the connecting channel 2211 away from the connecting channel 2221, for the end of the spray rod 21 to be threaded. One end of the spray rod 21 is tightened and fixed to the inner wall of the threaded groove 2212, and the other end of the spray rod 21 is connected to the pump 13 through a pipe. Rotating nozzle 1 23 and rotating nozzle 2 24 are rotatably connected to both sides of the axis of the connecting part 222, and the rotation axis of rotating nozzle 1 23 coincides with the rotation axis of rotating nozzle 24, and the rotation axis of rotating nozzle 1 23 coincides with the axis of the connecting part 222.

[0039] Reference Figure 2A sealing assembly 3 is connected to the threaded portion 221. A sealing cavity 2213 is formed on the outer wall of the threaded portion 221. The sealing cavity 2213 penetrates the outer wall of the threaded portion 221 in a direction close to the axis of the threaded portion 221 and communicates with the threaded groove 2212. The sealing assembly 3 includes a sealing ring 31, a water-swellable block 32, and a transmission component 33. In this embodiment, the sealing ring 31 can be made of rubber or silicone. In this embodiment, the sealing ring 31 is made of rubber and has a certain deformation capability. The sealing ring 31 is coaxially embedded in the threaded groove 2212. One end of the sealing ring 31 is used to press against the inner wall of the threaded groove 2212 to form a seal, and the other end of the sealing ring 31 presses against the end face of the spray bar 21 to form a seal, thereby achieving a preliminary seal between the spray bar 21 and the three-way pipe 22.

[0040] Reference Figure 2 In this embodiment, the material of the water-swellable block 32 is water-absorbing resin, which has a certain expansion coefficient. The water-swellable block 32 is embedded in the sealing cavity 2213. One end of the water-swellable block 32 abuts against the connection between the sealing ring 31 and the spray bar 21, and the other end of the water-swellable block 32 is flush with the outer wall of the threaded part 221. The transmission component 33 includes a transmission gear 331, a first transmission rack 332, an elastic element 333, and a second transmission rack 334. The first transmission rack 332 is slidably connected to the inner wall of the sealing cavity 2213. The sliding direction of the first transmission rack 332 is parallel to the axis of the connecting part 222. The end of the first transmission rack 332 passes through the sealing cavity 2213 and protrudes from the inner wall of the threaded groove 2212. The second transmission rack 334 is slidably connected to the inner wall of the sealing cavity 2213. The sliding direction of the second transmission rack 334 is parallel to the sliding direction of the first transmission rack 332. The second transmission rack 334 is located between the water-swellable block 32 and the first transmission rack 332, and the end face of the second transmission rack 334 is fixed to the end face of the water-swellable block 32.

[0041] Reference Figure 2 The transmission gear 331 is rotatably connected to the inner wall of the sealing cavity 2213. Transmission racks 332 and 334 mesh with the transmission gear 331, and are located on opposite sides of the axis of the transmission gear 331. The elastic element 333 can be a compression spring or a tension spring; in this embodiment, it is a compression spring with a certain deformation capacity. The two ends of the elastic element 333 in the direction of its elastic force are welded and fixed to the ends of the transmission rack 332 and the inner wall of the sealing cavity 2213, respectively. The direction of the elastic force of the elastic element 333 coincides with the sliding direction of the transmission rack 332. The elastic element 333 has a tendency to forcefully drive the transmission rack 332 towards the threaded groove 2212.

[0042] Reference Figure 2The end face of the transmission rack 332 protruding from the inner wall of the threaded groove 2212 away from the sealing ring 31 is provided with a guide surface 3321. The inclination height of the guide surface 3321 increases as the distance to the sealing ring 31 decreases. The guide surface 3321 is used to abut against the end face of the spray bar 21 and guide the transmission rack 332 to slide towards the sealing cavity 2213. When the end of the spray bar 21 is threaded and fixed to the inner wall of the threaded groove 2212, the guide surface 3321 abuts against the end face of the spray bar 21 and guides the first transmission rack 332 to slide towards the sealing cavity 2213. The transmission gear 331 rotates, driving the second transmission rack 334 to slide towards the threaded groove 2212, which in turn drives the water-expanding block 32 to slide towards the sealing ring 31. One end of the water-expanding block 32 abuts against the connection between the sealing ring 31 and the spray bar 21, and the other end of the water-expanding block 32 is flush with the outer wall of the threaded part 221. The operator can directly observe the tightness between the spray bar 21 and the sealing ring 31, thereby speeding up the installation efficiency of the dual-nozzle adjustable sprayer.

[0043] Reference Figure 2 When the clamping force between the spray bar 21 and the sealing ring 31 decreases, the solution inside the spray bar 21 overflows from the clamping point between the spray bar 21 and the sealing ring 31. The water-absorbing expansion block 32 absorbs water and expands. The deformation of the water-absorbing expansion block 32 compresses the outer wall of the sealing ring 31, causing the sealing ring 31 to deform and press against the end face of the spray bar 21 to achieve a seal. At the same time, the staff can directly understand the clamping condition between the spray bar 21 and the sealing ring 31 by observing the deformation of the water-absorbing expansion block 32, thereby reducing the overflow of solution and reflecting the concept of energy saving.

[0044] Reference Figure 1 and Figure 2 Rotary nozzle 1 23 and rotary nozzle 24 have the same structure. Rotary nozzle 1 23 includes nozzle seat 231, which includes spray section 2311 and rotating section 2312. Both spray section 2311 and rotating section 2312 are cylindrical tubes. The end of rotating section 2312 is welded and fixed to the outer wall of spray section 2311. The axis of rotating section 2312 is perpendicular to the axis of spray section 2311. A flow cavity 1 2313 is coaxially formed in rotating section 2312, and flow cavity 1 2313 penetrates the outer wall of rotating section 2312 along its own axis. A flow cavity 2314 is coaxially formed in spray section 2311, and flow cavity 2314 penetrates the outer wall of spray section 2311 along its own axis. Flow cavity 1 2313 connects to flow cavity 2314.

[0045] Reference Figure 2The end of the connecting part 222 is rotatably connected to the inner wall of the first flow cavity 2313 along its own axis. The axis of the second connecting channel 2221 coincides with the axis of the first flow cavity 2313, and the second connecting channel 2221 communicates with the first flow cavity 2313. An elastic ring 4 is coaxially fixed to the end face of the rotating section 2312 away from the injection section 2311. The material of the elastic ring 4 can be rubber or silicone. In this embodiment, the material of the elastic ring 4 is rubber, which has a certain deformation capability. The inner ring wall of the elastic ring 4 abuts against the outer circumferential wall of the connecting part 222 to form a seal.

[0046] Reference Figure 2 Both ends of the connecting part 222 are coaxially fitted with deformation rings 5. The deformation rings 5 ​​can be made of rubber or silicone. In this embodiment, the deformation rings 5 ​​are made of rubber and have a certain deformation capacity. The inner wall of the deformation rings 5 ​​abuts against the outer wall of the connecting part 222 to form a seal, and the outer wall of the deformation rings 5 ​​abuts against the inner wall of the elastic ring 4 to form a seal.

[0047] Reference Figure 2 and Figure 3 A clamping assembly 6 is connected to the end face of the rotating segment 2312 facing the elastic ring 4. The clamping assembly 6 includes a first clamping arc plate 61, a second clamping arc plate 62, and a clamping element 63. The end of the first clamping arc plate 61 is rotatably connected to the end of the rotating segment 2312 near the elastic ring 4, and the rotation axis of the first clamping arc plate 61 is parallel to the axis of the rotating segment 2312. The end of the second clamping arc plate 62 is rotatably connected to the outer wall of the rotating segment 2312, and the rotation axis of the second clamping arc plate 62 is parallel to the rotation axis of the first clamping arc plate 61. With their axes aligned, the first abutment plate 61 and the second abutment plate 62 are located on opposite sides of the axis of the elastic ring 4. In this embodiment, the abutment member 63 includes a abutment plate 631 and a abutment strip 632. The end of the abutment plate 631 is rotatably welded and fixed to the side of the first abutment plate 61 away from its rotation axis. The other end of the abutment plate 631 protrudes from the end face of the first abutment plate 61. The end face of the abutment plate 631 facing the axis of the elastic ring 4 has an abutment groove 6311 for the abutment strip 632 to be inserted. The material of the abutment strip 632 can be rubber or silicone. In this embodiment, the material of the abutment strip 632 is rubber, which has a certain deformation capability. The abutment strip 632 is fixed to the end face of the second abutment plate 62 away from its rotation axis.

[0048] Reference Figure 2 and Figure 3 When the first abutting arc plate 61 and the second abutting arc plate 62 rotate toward the direction of the elastic ring 4, the first abutting arc plate 61 and the second abutting arc plate 62 splice together to form a ring, the abutting strip 632 is embedded in the abutting groove 6311, the outer wall of the abutting strip 632 abuts against the inner wall of the abutting groove 6311 to form a fixation, the inner wall of the first abutting arc plate 61 and the inner wall of the second abutting arc plate 62 abuts against the outer wall of the elastic ring 4 to form a seal, driving the elastic ring 4 to deform and abut against the outer wall of the connecting part 222 to form a seal.

[0049] Reference Figure 2 and Figure 4 A pressure-transforming assembly 7 is connected to the rotating section 2312. A pressure-transforming chamber 2315 is formed on the inner wall of the first flow chamber 2313 near the second flow chamber 2314. A sliding hole 41 is formed on the end face of the elastic ring 4 facing the deformation ring 5. The axis of the sliding hole 41 is parallel to the axis of the injection section 2311. The pressure-transforming chamber 2315 penetrates the outer wall of the rotating section 2312 and the outer wall of the elastic ring 4 in the direction close to the sliding hole 41 and communicates with the sliding hole 41. The pressure-transforming assembly 7 includes a power rod 71, a pressure-transforming element 72, a pressure-transforming piston 73, a sealing rod 74, and a second elastic element 75. The power rod 71 is slidably connected to the inner wall of the pressure-transforming chamber 2315, and the sliding direction of the power rod 71 is parallel to the axis of the injection section 2311. The end of the power rod 71 protrudes from the inner wall of the first flow cavity 2313. The end face of the power rod 71 facing the second flow cavity 2314 is provided with a pressure-receiving surface 711. The inclination height of the pressure-receiving surface 711 decreases as the distance to the injection section 2311 decreases. The pressure-receiving surface 711 is used to abut against the hydraulic pressure in the first flow cavity 2313 and guide the power rod 71 to slide towards the sealing cavity 2213.

[0050] Reference Figure 2 and Figure 4 The pressure-changing piston 73 can be made of rubber or silicone. In this embodiment, the pressure-changing piston 73 is made of rubber, which has a certain deformation capacity. The pressure-changing piston 73 is slidably connected to the inner wall of the pressure-changing chamber 2315. The outer circumferential wall of the pressure-changing piston 73 abuts against the inner wall of the pressure-changing chamber 2315 to form a seal. The pressure-changing piston 73 is located on the side of the power rod 71 near the sliding hole 41. The pressure-changing component 72 includes a first pressure-changing rack 721, a second pressure-changing rack 722, a pressure-changing gear 723, and a third elastic element 724. The end of the first pressure-changing rack 721 is welded and fixed to the end of the power rod 71 away from the pressure surface 711. The third elastic element 724 can be a compression spring or a tension spring. In this embodiment, the third elastic element 724 is a compression spring, which has a certain deformation capacity. The two ends of the elastic element 724 in the elastic direction are fixed one-to-one with the inner wall of the pressure-transforming chamber 2315 and the end of the pressure-transforming rack 721 away from the power rod 71. The elastic direction of the elastic element 724 is parallel to the axis of the injection section 2311. The elastic element 724 has the elastic force to drive the pressure-transforming rack 721 to slide away from the pressure-transforming chamber 2315, and the pressure-bearing surface 711 protrudes from the inner wall of the flow chamber 2313.

[0051] Reference Figure 2 and Figure 4The second pressure-transforming rack 722 is slidably connected to the inner wall of the pressure-transforming chamber 2315. The sliding direction of the second pressure-transforming rack 722 is parallel to the axis of the rotating section 2312. The end of the second pressure-transforming rack 722 is fixed to the end face of the pressure-transforming piston 73 away from the sliding hole 41. The pressure-transforming gear 723 is rotatably connected to the inner wall of the pressure-transforming chamber 2315. The first pressure-transforming rack 721 is located on the side of the pressure-transforming gear 723 away from the pressure-transforming piston 73, and the second pressure-transforming rack 722 is located on the side of the pressure-transforming gear 723 away from the power rod 71. Both the first pressure-transforming rack 721 and the second pressure-transforming rack 722 mesh with the pressure-transforming gear 723.

[0052] Reference Figure 2 and Figure 4 The sealing rod 74 is slidably connected to the inner wall of the sliding hole 41, and the sliding direction of the sealing rod 74 is parallel to the axis of the injection section 2311. The outer circumferential wall of the sealing rod 74 abuts against the inner wall of the sliding hole 41 to form a seal, and the end of the sealing rod 74 faces the outer wall of the deformation ring 5. The elastic element 75 can be a compression spring or a tension spring. In this embodiment, the elastic element 75 is a compression spring, which has a certain deformation capacity. The two ends of the elastic element 75 in the elastic direction are welded and fixed to the end face of the sealing rod 74 away from the deformation ring 5 and the inner wall of the sliding hole 41, respectively. The elastic direction of the elastic element 75 coincides with the sliding direction of the sealing rod 74. The elastic element 75 has the elastic force to drive the sealing rod 74 to slide towards the sliding hole 41, and the end of the sealing rod 74 tends to be flush with the inner wall of the flow cavity 2313.

[0053] Reference Figure 1 and Figure 2 When the pump 13 drives the solution in the storage tank 12 to pass through the inner cavity of the spray bar 21, the connecting channel 1 2211, the connecting channel 2221, the flow chamber 1 2313 and the flow chamber 2 2314 in sequence and discharge it, the hydraulic pressure in the flow chamber 1 2313 drives the power rod 71 to slide towards the pressure changing chamber 2315, the pressure changing gear 723 rotates, drives the pressure changing rack 2 722 to slide towards the sliding hole 41, drives the pressure changing piston 73 to slide towards the sliding hole 41, drives the air in the pressure changing chamber 2315 to enter the sliding hole 41, the air pressure in the sliding hole 41 increases and drives the sealing rod 74 to slide towards the deformation ring 5, the end face of the sealing rod 74 presses against the outer wall of the deformation ring 5 to form a seal, and at the same time the air pressure in the sliding hole 41 drives the elastic ring 4 to deform, thereby increasing the sealing stability between the three-way pipe 22 and the nozzle seat 231.

[0054] The implementation principle of a dual-nozzle adjustable sprayer according to an embodiment of this application is as follows: When the pump 13 drives the solution in the storage tank 12 to pass sequentially through the inner cavity of the spray bar 21, the connecting channel 1 2211, the connecting channel 2221, the flow chamber 1 2313, and the flow chamber 2 2314 and discharge it, the hydraulic pressure in the flow chamber 1 2313 drives the power rod 71 to slide towards the pressure transformer chamber 2315, the pressure transformer gear 723 rotates, driving the pressure transformer rack 2 722 to slide towards the sliding hole 41, driving the pressure transformer piston 73 to slide towards the sliding hole 41, driving the air in the pressure transformer chamber 2315 to enter the sliding hole 41, the air pressure in the sliding hole 41 increases, driving the sealing rod 74 to move towards the deformation As the ring 5 slides, the end face of the sealing rod 74 presses against the outer wall of the deformable ring 5 to form a seal. At the same time, the air pressure in the sliding hole 41 drives the elastic ring 4 to deform, thereby increasing the sealing stability between the three-way pipe 22 and the nozzle seat 231. When the operator needs to adjust the direction of the rotating nozzle 24 and the rotating nozzle 23 to spray at different angles, the operator can rotate the rotating nozzle 23 and the rotating nozzle 24 on the three-way pipe 22 without having to adjust the direction of the spray bar 21 to change the direction of the rotating nozzle 23 and the rotating nozzle 24 and then maintain this posture for spraying. This reduces the operator's workload and labor intensity, thereby improving the spraying efficiency of the sprayer.

[0055] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A dual-jet adjustable nebulizer characterized by: The utility model provides a spray gun, including sprayer body (1) and spray gun (2), spray gun (2) includes spray rod (21), tee pipe (22), rotary nozzle one (23) and rotary nozzle two (24), tee pipe (22) has connecting flow passage one (2211) and connecting flow passage two (2221), connecting flow passage one (2211) is communicated connecting flow passage two (2221), the inner wall of connecting flow passage one (2211) is provided with threaded groove (2212) for the threaded connection of spray rod (21) end, the end of spray rod (21) is connected on sprayer body (1) away from tee pipe (22), rotary nozzle one (23) and rotary nozzle two (24) are correspondingly rotatably connected at both ends of tee pipe (22), and rotary nozzle one (23) and rotary nozzle two (24) are located at both ends of connecting flow passage two (2221), and tee pipe (22) is connected with sealing assembly (3), the outer wall of tee pipe (22) is provided with sealing cavity (2213), sealing cavity (2213) penetrates the outer wall of tee pipe (22) and is communicated with threaded groove (2212), sealing assembly (3) includes sealing ring (31) and water-swelling block (32), sealing ring (31) is embedded in the inner wall of threaded groove (2212), the outer wall of sealing ring (31) is tightly formed sealing with the inner wall of threaded groove (2212) and the end face of spray rod (21), water-swelling block (32) is embedded in sealing cavity (2213), the inner wall of water-swelling block (32) is abutted with the outer wall of sealing ring (31) and the outer wall of spray rod (21), and the outer wall of water-swelling block (32) is flush with the outer wall of tee pipe (22), rotary nozzle one (23) includes nozzle seat (231), nozzle seat (231) includes jet section (2311) and rotary section (2312), rotary section (2312) end is connected in the outer wall of jet section (2311), rotary section (2312) has flow cavity one (2313), jet section (2311) has flow cavity two (2314), flow cavity one (2313) is communicated with flow cavity two (2314), rotary section (2312) is rotatably connected in the outer wall of tee pipe (22), flow cavity one (2313) is communicated with connecting flow passage two (2221), and the both ends of rotary section (2312) are connected with elastic ring (4) away from jet section (2311), and the inner wall of elastic ring (4) is tightly formed sealing with the outer wall of tee pipe (22), tee pipe (22) is coaxially provided with deformation ring (5), and the outer wall of deformation ring (5) is tightly formed sealing with the inner wall of elastic ring (4) and the outer wall of tee pipe (22).The nozzle seat (231) is connected with a pressure changing assembly (7), a pressure changing cavity (2315) is arranged on the inner wall of the flow cavity I (2313), a sliding hole (41) is arranged on the end face of the elastic ring (4) facing the shape changing ring (5), the pressure changing cavity (2315) is communicated with the sliding hole (41), the pressure changing assembly (7) comprises a power rod (71), a pressure changing piece (72), a pressure changing piston (73) and a sealing rod (74), the power rod (71) is slidingly connected on the inner wall of the pressure changing cavity (2315), the end of the power rod (71) protrudes from the inner wall of the flow cavity I (2313), the pressure changing piston (73) is slidingly connected on the inner wall of the pressure changing cavity (2315), the circumferential outer wall of the pressure changing piston (73) is tightly arranged on the inner wall of the pressure changing cavity (2315) to form a seal, the sealing rod (74) is slidingly connected on the inner wall of the sliding hole (41), and the end of the sealing rod (74) faces the outer wall of the shape changing ring (5); the pressure changing piece (72) is connected between the pressure changing piston (73) and the power rod (71), the pressure changing piece (72) is used for receiving the power of the power rod (71) and driving the pressure changing piston (73) to slide, when the hydraulic pressure in the flow cavity I (2313) drives the power rod (71) to slide towards the pressure changing cavity (2315), the pressure changing piece (72) receives the power of the power rod (71) and drives the pressure changing piston (73) to slide, so that the air in the pressure changing cavity (2315) enters the sliding hole (41), the air pressure in the sliding hole (41) drives the sealing rod (74) to slide towards the shape changing ring (5), and the outer wall of the sealing rod (74) is tightly arranged on the outer wall of the shape changing ring (5) to form a seal.

2. The dual-jet adjustable sprayer of claim 1, wherein: The sealing assembly (3) further comprises a transmission member (33), the transmission member (33) comprises a transmission rack one (332), a transmission rack two (334) and a transmission gear (331), the transmission gear (331) is rotationally connected on the inner wall of the sealing cavity (2213), the transmission rack one (332) is slidingly connected on the inner wall of the sealing cavity (2213), the end of the transmission rack one (332) protrudes from the inner wall of the threaded groove (2212) and abuts against the outer wall of the spray rod (21), the transmission rack two (334) is slidingly connected on the inner wall of the sealing cavity (2213), the sliding direction of the transmission rack two (334) is parallel to the sliding direction of the transmission rack one (332), the transmission rack one (332) and the transmission rack two (334) are both engaged with the transmission gear (331), and the transmission rack one (332) and the transmission rack two (334) are located on both sides of the transmission gear (331), the end face of the transmission rack two (334) away from the transmission gear (331) is connected to the end face of the water-swelling block (32), when the outer wall of the spray rod (21) is tightly fixed on the inner wall of the threaded groove (2212), the outer wall of the spray rod (21) abuts against the end face of the transmission rack one (332) and drives the transmission rack one (332) to slide towards the sealing cavity (2213), the transmission gear (331) rotates and drives the transmission rack two (334) to slide towards the threaded groove (2212), thereby driving the end face of the water-swelling block (32) to be flush with the outer wall of the tee pipe (22).

3. The dual-jet adjustable sprayer of claim 2, wherein: The sealing assembly (3) further comprises an elastic member one (333), both ends of the elastic force direction of the elastic member one (333) are connected to the inner wall of the sealing cavity (2213) and the end of the transmission rack one (332) respectively, the elastic member one (333) has an elastic force to drive the transmission rack one (332) to slide away from the sealing cavity (2213), and the end of the transmission rack one (332) tends to protrude from the inner wall of the threaded groove (2212).

4. The dual-jet adjustable sprayer of claim 2, wherein: The end face of the transmission rack one (332) away from the sealing ring (31) is connected with a guide surface (3321), the inclination height of the guide surface (3321) increases with the distance to the sealing ring (31) decreasing, the guide surface (3321) abuts against the outer wall of the spray rod (21) and guides the transmission rack one (332) to slide towards the sealing cavity (2213).

5. The dual-jet adjustable sprayer of claim 1, wherein: The rotating section (2312) is connected with a abutting assembly (6), the abutting assembly (6) comprises abutting arc plate one (61), abutting arc plate two (62) and abutting piece (63), the abutting arc plate one (61) and abutting arc plate two (62) are rotatably connected to the end face of the rotating section (2312) towards the elastic ring (4), the abutting arc plate one (61) and abutting arc plate two (62) are located on both sides of the elastic ring (4) axis, the abutting piece (63) is used for fixing the abutting arc plate one (61) and abutting arc plate two (62), when the abutting arc plate one (61) and abutting arc plate two (62) rotate towards the direction close to the elastic ring (4), the abutting piece (63) drives the abutting arc plate one (61) and abutting arc plate two (62) to cover and form fixed, the inner wall of the abutting arc plate one (61) and the inner wall of the abutting arc plate two (62) abut the outer wall of the elastic ring (4) and form fixed, the outer wall of the elastic ring (4) is pressed and deformed and abuts the outer wall of the tee pipe (22) and forms sealing.

6. The dual-jet adjustable sprayer of claim 5, wherein: The abutting piece (63) comprises abutting plate (631) and abutting strip (632), one end of the abutting plate (631) is connected to the end of the abutting arc plate one (61) away from the rotating shaft of the abutting arc plate one (61), the other end of the abutting plate (631) protrudes from the end face of the abutting arc plate one (61), the end face of the abutting plate (631) towards the elastic ring (4) is provided with abutting groove (6311) containing the abutting strip (632), the abutting strip (632) is connected to the end face of the abutting arc plate two (62) close to the abutting plate (631), when the abutting arc plate one (61) covers the abutting arc plate two (62), the abutting strip (632) is embedded in the abutting groove (6311), the outer wall of the abutting strip (632) abuts the inner wall of the abutting groove (6311) and forms fixed.

7. The dual-jet adjustable sprayer of claim 1, wherein: The variable pressure assembly (7) further comprises elastic member two (75), both ends of the elastic member two (75) in the elastic direction are connected on the outer wall of the sealing rod (74) and the inner wall of the variable pressure cavity (2315) one by one, the elastic member two (75) has elastic force to drive the sealing rod (74) to slide away from the deformed ring (5), and the end of the sealing rod (74) is flush with the inner wall of the flow cavity one (2313).

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