Automatic glue dispensing equipment and method of using the same

Abstract

The present invention discloses an automatic glue dispensing device and a method for using the same, which belongs to the technical field of glue dispensing, and includes a glue dispensing housing, a mounting groove is provided on the top of the glue dispensing housing, a glue dispensing component is embedded in the mounting groove, a sedimentation dispersion component is clamped in the glue dispensing tank of the glue dispensing component, and a sealing support component is clamped in the port at the bottom of the sedimentation dispersion cylinder of the sedimentation dispersion component. In the present invention, centrifugal force is generated during the rapid rotation of the support sleeve, and the sedimentation hybrid blades rotate around the second adapter shaft under the action of the centrifugal force, and the second adapter spring is twisted to undergo elastic deformation, and multiple sedimentation hybrid blades perform circular motion, and a small amount of air also flows out through the auxiliary gas-liquid separation membrane, which will generate bubbles inside the colloid, and when the bubbles burst, a shock wave of a certain intensity will be generated, which cooperates with the glue dispensing blades, thereby improving the stirring efficiency of the work, and can prevent precipitation from occurring at the edge of the anti-sticking bottom plate, so that the stirring is more uniform.

Description

Technical Field

[0001] The invention belongs to the technical field of glue dispensing, and in particular relates to automatic glue dispensing equipment and a use method thereof. Background Art

[0002] Glue is an intermediate that connects two materials. It mostly appears in the form of water-based adhesive and belongs to the category of fine chemicals. There are many types of glue, which are mainly classified by adhesive, physical form, hardening method and adherend material. Common ones include instant glue (the common one is 1203 instant glue - ethyl cyanoacrylate strong instant adhesive), epoxy resin bonding, anaerobic glue, UV glue (ultraviolet light curing), hot melt adhesive, pressure-sensitive adhesive, latex, etc.

[0003] The existing glue mixing device includes a glue mixing tank and a uniform power device. The glue mixing tank includes a tank body and a tank cover sealed at the opening of the tank body. The uniform power device includes a motor, a stirring impeller, and a rotating shaft connecting the motor and the stirring impeller. The device also includes an air charging device and a reflux device. The air charging device includes a plurality of air inlet pipes directly passing through the bottom of the tank body, and the reflux device includes a reflux pipe; the stirring impeller is composed of a plurality of elliptical gourd-shaped blades. The technical solution has the advantages of simple structure, uniform glue mixing, and easy cleaning. However, the technical solution still has some shortcomings during its use. The glue is prone to precipitation during the mixing process, which in turn affects the uniformity of subsequent dispersion, and the bubble rate inside the colloid is relatively high.

[0004] Based on this, the present invention designs an automatic glue dispensing device and a method for using the same to solve the above problems. Summary of the invention

[0005] The purpose of the present invention is to solve the problem that the rubber material is prone to precipitation during the mixing process, thereby affecting the uniformity of subsequent dispersion, and the bubble rate inside the colloid is high, and to propose an automatic rubber dispensing device and a method of using the same.

[0006] In order to achieve the above object, the present invention adopts the following technical solutions:

[0007] An automatic glue dispensing device comprises a glue dispensing machine housing, a mounting groove is provided on the top of the glue dispensing machine housing, a glue dispensing component is embedded in the mounting groove, a precipitation and dispersion component is clamped in the glue dispensing tank of the glue dispensing component, a sealing support component is clamped in the port at the bottom of the precipitation and dispersion cylinder of the precipitation and dispersion component, a plurality of folding grooves in an annular array are provided on the circumferential surface of the precipitation and dispersion cylinder, and a precipitation hybrid component is rotatably connected in each of the plurality of folding grooves;

[0008] A pressure generating component is embedded in the interior of the glue dispensing machine housing, and the pressure generating component is sleeved on the glue dispensing moving shaft of the glue dispensing component.

[0009] As a further description of the above technical solution:

[0010] The glue dispensing tank is embedded in the assembly groove, the glue dispensing tank and the inner bottom of the assembly groove are both provided with a first adapter, the glue dispensing movable shaft is simultaneously rotatably connected in two first adapters, one end of the glue dispensing movable shaft is sleeved with a glue dispensing blade, and the glue dispensing movable shaft drives the glue dispensing blade to rotate to mix a variety of glue raw materials;

[0011] A glue dispensing motor is installed at the other end of the glue dispensing shaft, and the bottom of the glue dispensing motor body is installed on the inner bottom of the glue dispensing machine casing.

[0012] As a further description of the above technical solution:

[0013] The precipitation and dispersion component comprises an anti-sticking bottom plate, which is clamped in the interior of the glue dispensing tank, a second adapter is provided on the anti-sticking bottom plate, and the anti-sticking bottom plate is rotatably connected to the glue dispensing shaft through the second adapter, a plurality of bayonet holes in a ring array are provided at the edge of the top of the anti-sticking bottom plate, and sleeves are adapter-connected in the plurality of bayonet holes, a precipitation and dispersion cylinder is sleeved in the sleeve, a support sleeve is clamped in the port at the top of the precipitation and dispersion cylinder, and a main gas-liquid separation membrane is clamped in the support sleeve, the air pressure below the anti-sticking bottom plate increases, and the high-pressure air flows upward through the main gas-liquid separation membrane to cause the sediment on the anti-sticking bottom plate to flow, and the air pressure below the anti-sticking bottom plate decreases, forming a low-pressure environment below the anti-sticking bottom plate, and the air in the glue liquid flows out through the main gas-liquid separation membrane;

[0014] The precipitation and dispersion cylinder is connected with a driving fan blade.

[0015] As a further description of the above technical solution:

[0016] A sliding connection groove is provided on the outer wall of the glue preparation tank, a sliding connection block is slidably connected in the sliding connection groove, the end of the sliding connection block is connected to a sliding spring, the sliding connection block is connected to the internal elastic support of the sliding connection groove through the sliding spring, and the side of the sliding connection block facing away from the precipitation and dispersion cylinder is connected to the inner wall of the sleeve.

[0017] As a further description of the above technical solution:

[0018] The sealing support assembly includes a sealing support ring, which is clamped in a port at the bottom of the sedimentation and dispersion cylinder. The inner ring surface of the sealing support ring is provided with a plurality of adapters in a circular array, and the inner side of the sealing support ring is rotatably connected to a plurality of sealing support blades through the plurality of adapters.

[0019] As a further description of the above technical solution:

[0020] The sealing support blade is provided with a first rotating opening, a first adapter ring is clamped in the port of the first rotating opening, a first adapter shaft is sleeved in the first adapter ring, an end of the first adapter shaft is connected to the adapter opening, a first adapter spring is sleeved on the first adapter shaft, and the first adapter shaft is elastically connected to the first adapter ring through the first adapter spring.

[0021] As a further description of the above technical solution:

[0022] The precipitation hybrid assembly includes a precipitation hybrid blade, which is embedded in the folding groove, and a second rotation opening is opened at one end of the folding groove, a second adapter ring is clamped at the end of the second rotation opening, a second adapter shaft is rotatably connected in the second adapter ring, and an end of the second adapter shaft is connected to the folding groove;

[0023] A second transfer spring is sleeved on the second transfer shaft, and the second transfer shaft is elastically transferred to the second transfer ring through the second transfer spring.

[0024] As a further description of the above technical solution:

[0025] The pressure generating component includes a support seat, which is embedded in the rubber dispensing machine housing. The top of the support seat is provided with an inlay, and the support seat is connected to a supporting ring through the inlay. The top of the supporting ring is provided with concave grooves in a circular array, and the edges of the concave grooves are designed with rounded corners.

[0026] As a further description of the above technical solution:

[0027] The pressure generating assembly also includes a pressure generating tank, which is connected to the inner top of the rubber dispensing machine housing, and is rotatably connected to the rubber dispensing shaft, and a piston disc is rotatably connected to the rubber dispensing shaft, and the piston disc is sleeved inside the pressure generating tank, and a support spring is connected to the top of the piston disc, and the piston disc is elastically supported and connected to the inner top of the pressure generating tank through the support spring;

[0028] The bottom of the piston disc is connected with an umbrella shaft, the other end of the umbrella shaft is connected with a spherical hoop sleeve, a spherical ball is sleeved in the spherical hoop sleeve, and the spherical ball is rollingly connected to the supporting ring.

[0029] A method for using an automatic glue dispensing device, which can at least be used to operate the automatic glue dispensing device, comprises:

[0030] Control the operation of the glue dispensing motor. During the operation, the output shaft of the glue dispensing motor drives the glue dispensing shaft to rotate, and the glue dispensing shaft drives the glue dispensing blades to rotate at a constant speed inside the glue dispensing machine housing. After the speed of the glue dispensing blades tends to be stable, various raw materials for glue production are added into the glue dispensing tank;

[0031] The rubber-matching moving shaft drives the piston disc to rotate during the rotation process, and the umbrella shaft rotates synchronously during the rotation process of the piston disc. During this process, the umbrella shaft drives the spherical hoop to make circular motion, and drives the spherical ball to roll on the supporting ring through the spherical hoop. During the rolling of the spherical ball toward the deep direction of the concave groove, the support spring starts to make elastic reset motion under the action of its own elastic force, and the support spring pushes the piston disc to move downward, and the pressure inside the pressure generating tank decreases. During the rolling of the ball from the deep part of the concave groove to the upward direction, the spherical ball will push the umbrella shaft to move upward through the spherical hoop, and the umbrella shaft pushes the piston disc to move upward. During the upward movement of the piston disc, the support spring is squeezed to make it elastically deformed, and the pressure inside the pressure generating tank increases.

[0032] The pressure generating tank is connected to an air pipe, the port of the air pipe is located above the piston disc, a first solenoid valve is installed on the air pipe, an exhaust pipe is installed at a position on the pressure generating tank corresponding to the air pipe, a second solenoid valve is installed on the exhaust pipe, and the other end of the air pipe is connected to the bottom of the glue dispensing tank. When the pressure inside the pressure generating tank decreases, the air pressure below the corresponding anti-sticking bottom plate inside the glue dispensing tank decreases, the air inside the colloid passes through the main gas-liquid separation membrane through the support sleeve into the bottom of the anti-sticking bottom plate, and then is sucked into the pressure generating tank along the air pipe. When the pressure inside the pressure generating tank increases, under the push of the piston disc, the air inside the pressure generating tank enters the position below the corresponding anti-sticking bottom plate inside the pressure generating tank through the air pipe, the pressure below the sealing support blade increases, and under the support of the pressure, the sealing support blade rotates around the first rotating The connecting shaft rotates and twists the first transfer spring to make it elastically deformed, multiple sealing support blades unfold, and air enters the sedimentation and dispersion cylinder. Due to the low permeability of the main gas-liquid separation membrane, the sedimentation and dispersion cylinder slides on the sliding connection block through the sliding connection groove under the pressure, and squeezes the sliding spring to make it elastically deformed. The air drives the driving blades to rotate in the process of flowing through the driving blades, and the driving blades drive the support sleeve to rotate through the sleeve. Centrifugal force is generated in the process of rapid rotation of the support sleeve. Under the action of centrifugal force, the sedimentation and hybrid blades rotate around the second transfer shaft and twist the second transfer spring to make it elastically deformed. Multiple sedimentation and hybrid blades make circular motion, and a small amount of air will also flow out through the secondary gas-liquid separation membrane, which will generate bubbles inside the colloid. When the bubbles burst, a shock wave of a certain intensity will be generated.

[0033] After the production of the colloid is completed, the air is pumped into the pressure generating tank, the first solenoid valve is closed, and the second solenoid valve is opened. The air in the pressure generating tank is discharged through the exhaust pipe, thereby being able to discharge the air in the colloid.

[0034] In summary, due to the adoption of the above technical solution, the present invention has at least one of the following beneficial effects:

[0035] 1. In the present invention, air enters the sedimentation and dispersion cylinder. Due to the low permeability of the main gas-liquid separation membrane, the sedimentation and dispersion cylinder slides on the sliding connection block through the sliding connection groove under the support of pressure, and squeezes the sliding spring to make it elastically deformed. The air drives the driving blades to rotate in the process of flowing through the driving blades, and the driving blades drive the supporting sleeve to rotate through the sleeve. Centrifugal force is generated in the process of rapid rotation of the supporting sleeve. Under the action of centrifugal force, the sedimentation and hybrid blades rotate around the second adapter shaft and twist the second adapter spring to elastically deform. Multiple sedimentation and hybrid blades make circular motion, and a small amount of air also flows out through the auxiliary gas-liquid separation membrane, which will generate bubbles inside the colloid. When the bubbles burst, a shock wave of a certain intensity will be generated, which cooperates with the rubber-matching blades, thereby improving the stirring efficiency of the work, and can prevent precipitation from occurring at the edge of the anti-sticking bottom plate, so that the stirring is more uniform, and the quality of the colloid is improved.

[0036] 2. In the present invention, after air is pumped into the pressure generating tank, the first solenoid valve is closed and the second solenoid valve is opened, and the air in the pressure generating tank is discharged through the exhaust pipe, thereby being able to discharge the air in the colloid and reduce the bubble rate inside the colloid.

[0037] 3. In the present invention, the support spring starts to perform elastic reset movement under the action of its own elastic force, and the support spring pushes the piston disk to move downward, the internal pressure of the pressure generating tank decreases, and in the process of the ball rolling upward from the deep of the concave groove, the spherical ball will push the umbrella shaft to move upward through the spherical hoop, and the umbrella shaft pushes the piston disk to move upward. In the process of the piston disk moving upward, the support spring is squeezed to cause it to undergo elastic deformation, and the internal pressure of the pressure generating tank increases. BRIEF DESCRIPTION OF THE DRAWINGS

[0038] Figure 1 This is a schematic diagram of the overall structure of an automatic glue dispensing device and a method of using the same proposed by the present invention;

[0039] Figure 2 This is a schematic structural diagram of a precipitation and dispersion component in an automatic glue dispensing device and a method for using the same proposed by the present invention;

[0040] Figure 3 This is a schematic diagram of the structure of a precipitation and dispersion cylinder in an automatic glue dispensing device and a method for using the same proposed by the present invention;

[0041] Figure 4 This is a schematic structural diagram of a disassembled sealing support assembly in an automatic glue dispensing device and a method for using the same proposed by the present invention;

[0042] Figure 5 A schematic diagram of the structure of a driving fan blade in an automatic glue dispensing device and a method for using the same proposed by the present invention;

[0043] Figure 6This is a schematic structural diagram of a disassembled precipitation hybrid component in an automatic glue dispensing device and a method for using the same proposed by the present invention;

[0044] Figure 7 This is a structural schematic diagram of a pressure generating component in an automatic glue dispensing device and a method for using the same proposed by the present invention;

[0045] Figure 8 A schematic diagram of the structure of a glue dispensing blade in an automatic glue dispensing device and a method for using the same proposed by the present invention;

[0046] Fig. 9 It is a structural schematic diagram of an enlarged first transfer shaft in an automatic glue dispensing device and a method for using the same proposed by the present invention;

[0047] Fig.10 This is a structural schematic diagram of an enlarged second transfer shaft in an automatic glue dispensing device and a method for using the same proposed by the present invention.

[0048] Legend:

[0049] 1. Glue dispensing housing; 2. Glue dispensing assembly; 201. Glue dispensing tank; 202. Glue dispensing shaft; 203. Glue dispensing blades; 204. Glue dispensing motor; 3. Sedimentation and dispersion assembly; 301. Anti-sticking bottom plate; 302. Sedimentation and dispersion cylinder; 303. Support sleeve; 304. Main gas-liquid separation membrane; 305. Secondary gas-liquid separation membrane; 306. Sliding connection block; 307. Sliding spring; 308. Driving fan blade; 4. Sealing support assembly; 401. Sealing support sleeve Ring; 402, sealing support blade; 403, first adapter shaft; 404, first adapter ring; 405, first adapter spring; 5, sedimentation hybrid component; 501, sedimentation hybrid blade; 502, second adapter shaft; 503, second adapter ring; 504, second adapter spring; 6, pressure generating component; 601, pressure generating tank; 602, umbrella shaft; 603, spherical hoop; 604, spherical ball; 605, support ring; 606, support seat. DETAILED DESCRIPTION

[0050] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0051] Please refer to the attached Figure 1 -Attached Fig.10The present invention provides a technical solution: an automatic glue dispensing device, comprising a glue dispensing machine housing 1, a mounting groove is provided on the top of the glue dispensing machine housing 1, a glue dispensing component 2 is embedded and connected in the mounting groove, a precipitation and dispersion component 3 is clamped in a glue dispensing tank 201 of the glue dispensing component 2, a sealing support component 4 is clamped in a port at the bottom of a precipitation and dispersion cylinder 302 of the precipitation and dispersion component 3, a plurality of folding grooves in an annular array are provided on the circumferential surface of the precipitation and dispersion cylinder 302, and a precipitation hybrid component 5 is rotatably connected in each of the plurality of folding grooves;

[0052] A pressure generating component 6 is embedded in the rubber dispensing machine housing 1 , and the pressure generating component 6 is sleeved on the rubber dispensing movable shaft 202 of the rubber dispensing component 2 .

[0053] Specifically, the glue dispensing tank 201 is embedded in the assembly groove, and the glue dispensing tank 201 and the inner bottom of the assembly groove are both provided with a first adapter, and the glue dispensing movable shaft 202 is simultaneously rotatably connected to the two first adapters, and one end of the glue dispensing movable shaft 202 is sleeved with a glue dispensing blade 203, and the glue dispensing movable shaft 202 drives the glue dispensing blade 203 to rotate to mix a variety of glue raw materials;

[0054] A glue dispensing motor 204 is installed at the other end of the glue dispensing shaft 202 , and the bottom of the body of the glue dispensing motor 204 is installed on the inner bottom of the glue dispensing housing 1 .

[0055] Specifically, the precipitation and dispersion component 3 includes an anti-sticking bottom plate 301, which is clamped inside the glue dispensing tank 201, and a second adapter is provided on the anti-sticking bottom plate 301. The anti-sticking bottom plate 301 is rotatably connected to the glue dispensing shaft 202 through the second adapter. A plurality of bayonet holes in a ring array are provided at the edge of the top of the anti-sticking bottom plate 301, and sleeves are connected in the plurality of bayonet holes. A precipitation and dispersion cylinder 302 is sleeved in the sleeve, and a support sleeve 303 is clamped in the port at the top of the precipitation and dispersion cylinder 302. A main gas-liquid separation membrane 304 is clamped in the support sleeve 303. The air pressure below the anti-sticking bottom plate 301 increases, and the high-pressure air flows upward through the main gas-liquid separation membrane 304 to cause the sediment on the anti-sticking bottom plate 301 to flow. The air pressure below the anti-sticking bottom plate 301 decreases, and a low-pressure environment is formed below the anti-sticking bottom plate 301, and the air in the glue liquid flows out through the main gas-liquid separation membrane 304.

[0056] A driving fan blade 308 is connected inside the sedimentation dispersion cylinder 302 .

[0057] Specifically, a sliding connection groove is opened on the outer wall of the glue preparation tank 201, and a sliding connection block 306 is slidably connected in the sliding connection groove. The end of the sliding connection block 306 is connected to a sliding spring 307. The sliding connection block 306 is connected to the internal elastic support of the sliding connection groove through the sliding spring 307, and the side of the sliding connection block 306 facing away from the precipitation and dispersion cylinder 302 is connected to the inner wall of the sleeve.

[0058] Specifically, the sealing support assembly 4 includes a sealing support ring 401, which is clamped in the port at the bottom of the sedimentation dispersion cylinder 302. The inner ring surface of the sealing support ring 401 is provided with a plurality of adapters in a circular array, and the inner side of the sealing support ring 401 is rotatably connected to a plurality of sealing support blades 402 through a plurality of adapters.

[0059] Specifically, a first rotating port is opened on the sealing support blade 402, a first adapter ring 404 is clamped in the port of the first rotating port, a first adapter shaft 403 is sleeved in the first adapter ring 404, an end of the first adapter shaft 403 is connected to the adapter port, a first adapter spring 405 is sleeved on the first adapter shaft 403, and the first adapter shaft 403 is elastically connected to the first adapter ring 404 through the first adapter spring 405.

[0060] Specifically, the sedimentation hybrid component 5 includes a sedimentation hybrid blade 501, which is embedded in the folding groove, and a second rotation port is opened at one end of the folding groove, and a second adapter ring 503 is clamped at the end of the second rotation port. A second adapter shaft 502 is rotatably connected in the second adapter ring 503, and an end of the second adapter shaft 502 is connected to the folding groove;

[0061] A second transfer spring 504 is sleeved on the second transfer shaft 502 , and the second transfer shaft 502 is elastically transferred to the second transfer ring 503 via the second transfer spring 504 .

[0062] Specifically, the pressure generating component 6 includes a support seat 606, which is embedded in the rubber dispensing machine housing 1. The top of the support seat 606 is provided with an inlay, and the support seat 606 is connected to a supporting ring 605 through the inlay. The top of the supporting ring 605 is provided with concave grooves in a ring array, and the edges of the concave grooves are rounded.

[0063] Specifically, the pressure generating assembly 6 further includes a pressure generating tank 601, which is connected to the inner top of the rubber dispensing housing 1, and the pressure generating tank 601 is rotatably connected to the rubber dispensing shaft 202, and a piston disc is rotatably connected to the rubber dispensing shaft 202, and the piston disc is sleeved inside the pressure generating tank 601, and a support spring is connected to the top of the piston disc, and the piston disc is elastically supported and connected to the inner top of the pressure generating tank 601 through the support spring;

[0064] The bottom of the piston disc is connected to an umbrella shaft 602 , and the other end of the umbrella shaft 602 is connected to a spherical hoop 603 . A spherical ball 604 is sleeved in the spherical hoop 603 , and the spherical ball 604 is rollingly connected to a supporting ring 605 .

[0065] A method for using an automatic glue dispensing device, which can at least be used to operate the automatic glue dispensing device, comprises:

[0066] Control the operation of the glue dispensing motor 204. During the operation, the output shaft of the glue dispensing motor 204 drives the glue dispensing shaft 202 to rotate. The glue dispensing shaft 202 drives the glue dispensing blades 203 to rotate at a constant speed inside the glue dispensing housing 1. After the speed of the glue dispensing blades 203 tends to be stable, various raw materials for glue production are added into the glue dispensing tank 201.

[0067] The rubber-matching moving shaft 202 drives the piston disc to rotate during the rotation process, and the umbrella shaft 602 rotates synchronously during the rotation process of the piston disc. During this process, the umbrella shaft 602 drives the spherical hoop 603 to make a circular motion, and drives the spherical ball 604 to roll on the supporting ring 605 through the spherical hoop 603. During the rolling of the spherical ball 604 toward the deep direction of the concave groove, the support spring begins to make an elastic reset motion under the action of its own elastic force, and the support spring pushes the piston disc to move downward, and the pressure inside the pressure generating tank 601 decreases. During the rolling of the ball from the deep part of the concave groove to the upward direction, the spherical ball 604 will push the umbrella shaft 602 to move upward through the spherical hoop 603, and the umbrella shaft 602 pushes the piston disc to move upward. During the upward movement of the piston disc, the support spring is squeezed to make it elastically deformed, and the pressure inside the pressure generating tank 601 increases.

[0068] The pressure generating tank 601 is connected to an air pipe, the port of the air pipe is located above the piston disc, a first solenoid valve is installed on the air pipe, an exhaust pipe is installed at a position corresponding to the air pipe on the pressure generating tank 601, a second solenoid valve is installed on the exhaust pipe, and the other end of the air pipe is connected to the bottom of the glue dispensing tank 201. When the pressure inside the pressure generating tank 601 decreases, the air pressure below the anti-sticking bottom plate 301 inside the glue dispensing tank 201 decreases, and the air inside the colloid passes through the main gas-liquid separation membrane 304 and the support sleeve 303 into the bottom of the anti-sticking bottom plate 301, and then is sucked into the pressure generating tank 601 along the air pipe. When the pressure inside the pressure generating tank 601 increases, under the push of the piston disc, the air inside the pressure generating tank 601 enters the position below the anti-sticking bottom plate 301 inside the pressure generating tank 601 through the air pipe, and the pressure below the sealing support blade 402 increases. Under the support of the pressure, the sealing support blade 402 rotates around the first adapter shaft 4 03 rotates, and twists the first transfer spring 405 to make it elastically deformed, multiple sealing support blades 402 are unfolded, and air enters the sedimentation and dispersion cylinder 302. Due to the low permeability of the main gas-liquid separation membrane 304, under the support of pressure, the sedimentation and dispersion cylinder 302 slides on the sliding connection block 306 through the sliding connection groove, and squeezes the sliding spring 307 to make it elastically deformed. The air will drive the driving blade 308 to rotate in the process of flowing through the driving blade 308, and the driving blade 308 drives the support sleeve 303 to rotate through the sleeve. Centrifugal force is generated during the rapid rotation of the support sleeve 303. Under the action of centrifugal force, the sedimentation hybrid blade 501 rotates around the second transfer shaft 502, and twists the second transfer spring 504 to elastically deform. Multiple sedimentation hybrid blades 501 make circular motion, and a small amount of air will also flow out through the auxiliary gas-liquid separation membrane 305, which will generate bubbles inside the colloid. When the bubbles burst, a shock wave of a certain intensity will be generated.

[0069] After the production of the colloid is completed, the air is pumped into the pressure generating tank 601, the first solenoid valve is closed, and the second solenoid valve is opened, and the air in the pressure generating tank 601 is discharged through the exhaust pipe, thereby being able to discharge the air in the colloid.

[0070] The above are only preferred specific implementation modes of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical solutions and inventive concepts of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. An automatic glue dispensing device, comprising a glue dispensing housing, characterized in that: The top of the rubber dispensing machine housing is provided with an assembly groove, a rubber dispensing component is embedded in the assembly groove, a precipitation and dispersion component is clamped in the rubber dispensing tank of the rubber dispensing component, a sealing support component is clamped in the port at the bottom of the precipitation and dispersion cylinder of the precipitation and dispersion component, a plurality of folding grooves in an annular array are provided on the circumferential surface of the precipitation and dispersion cylinder, and a precipitation hybrid component is rotatably connected in each of the plurality of folding grooves; A pressure generating component is embedded in the rubber dispensing machine housing, and the pressure generating component is sleeved on the rubber dispensing moving shaft of the rubber dispensing component; The precipitation and dispersion component comprises an anti-sticking bottom plate, which is clamped in the interior of the glue dispensing tank, a second adapter is provided on the anti-sticking bottom plate, and the anti-sticking bottom plate is rotatably connected to the glue dispensing shaft through the second adapter, a plurality of bayonet holes in a ring array are provided at the edge of the top of the anti-sticking bottom plate, and sleeves are adapter-connected in the plurality of bayonet holes, a precipitation and dispersion cylinder is sleeved in the sleeve, a support sleeve is clamped in the port at the top of the precipitation and dispersion cylinder, and a main gas-liquid separation membrane is clamped in the support sleeve, the air pressure below the anti-sticking bottom plate increases, and the high-pressure air flows upward through the main gas-liquid separation membrane to cause the sediment on the anti-sticking bottom plate to flow, and the air pressure below the anti-sticking bottom plate decreases, forming a low-pressure environment below the anti-sticking bottom plate, and the air in the glue liquid flows out through the main gas-liquid separation membrane; The precipitation and dispersion cylinder is connected with a driving fan blade, and a plurality of micropores are opened on the precipitation and dispersion cylinder, and a secondary gas-liquid separation membrane is installed in the micropores; A sliding connection groove is provided on the outer wall of the glue preparation tank, a sliding connection block is slidably connected in the sliding connection groove, a sliding spring is connected to the end of the sliding connection block, the sliding connection block is connected to the internal elastic support of the sliding connection groove through the sliding spring, and the side of the sliding connection block facing away from the precipitation and dispersion cylinder is connected to the inner wall of the sleeve; The sealing support assembly comprises a sealing support collar, which is clamped in a port at the bottom of the precipitation dispersion cylinder, and the inner ring surface of the sealing support collar is provided with a plurality of adapters in an annular array, and the inner side of the sealing support collar is rotatably connected with a plurality of sealing support blades through the plurality of adapters; The sealing support blade is provided with a first rotating opening, a first adapter ring is clamped in the port of the first rotating opening, a first adapter shaft is sleeved in the first adapter ring, an end of the first adapter shaft is connected to the adapter opening, a first adapter spring is sleeved on the first adapter shaft, and the first adapter shaft is elastically connected to the first adapter ring through the first adapter spring; The precipitation hybrid assembly includes a precipitation hybrid blade, which is embedded in the folding groove, and a second rotation opening is opened at one end of the folding groove, a second adapter ring is clamped at the end of the second rotation opening, a second adapter shaft is rotatably connected in the second adapter ring, and an end of the second adapter shaft is connected to the folding groove; A second transfer spring is sleeved on the second transfer shaft, and the second transfer shaft is elastically transferred to the second transfer ring through the second transfer spring; The pressure generating assembly includes a support seat, the support seat is embedded in the rubber dispensing machine housing, the top of the support seat is provided with an inlay, the support seat is connected to a supporting ring through the inlay, the top of the supporting ring is provided with concave grooves in a circular array, and the edges of the concave grooves are rounded; The pressure generating assembly also includes a pressure generating tank, which is connected to the inner top of the rubber dispensing machine housing, and is rotatably connected to the rubber dispensing shaft, and a piston disc is rotatably connected to the rubber dispensing shaft, and the piston disc is sleeved inside the pressure generating tank, and a support spring is connected to the top of the piston disc, and the piston disc is elastically supported and connected to the inner top of the pressure generating tank through the support spring; The bottom of the piston disc is connected with an umbrella shaft, the other end of the umbrella shaft is connected with a spherical hoop sleeve, a spherical ball is sleeved in the spherical hoop sleeve, and the spherical ball is rollingly connected to the supporting ring.

2. The automatic glue dispensing equipment according to claim 1, characterized in that: The glue dispensing tank is embedded in the assembly groove, the glue dispensing tank and the inner bottom of the assembly groove are both provided with a first adapter, the glue dispensing movable shaft is simultaneously rotatably connected in two first adapters, one end of the glue dispensing movable shaft is sleeved with a glue dispensing blade, and the glue dispensing movable shaft drives the glue dispensing blade to rotate to mix a variety of glue raw materials; A glue dispensing motor is installed at the other end of the glue dispensing shaft, and the bottom of the glue dispensing motor body is installed on the inner bottom of the glue dispensing machine casing.

3. A method for using an automatic glue dispensing device, characterized in that: Can be used to operate the automatic glue dispensing equipment as claimed in claim 2, comprising: Control the operation of the glue dispensing motor. During the operation, the output shaft of the glue dispensing motor drives the glue dispensing shaft to rotate, and the glue dispensing shaft drives the glue dispensing blades to rotate at a constant speed inside the glue dispensing machine housing. After the speed of the glue dispensing blades tends to be stable, various raw materials for glue production are added into the glue dispensing tank; The rubber-matching moving shaft drives the piston disc to rotate during the rotation process, and the umbrella shaft rotates synchronously during the rotation process of the piston disc. During this process, the umbrella shaft drives the spherical hoop to make circular motion, and drives the spherical ball to roll on the supporting ring through the spherical hoop. During the rolling of the spherical ball toward the deep direction of the concave groove, the support spring begins to make elastic reset motion under the action of its own elastic force, and the support spring pushes the piston disc to move downward, and the pressure inside the pressure generating tank decreases. During the rolling of the ball from the deep concave groove to the upward direction, the spherical ball will push the umbrella shaft to move upward through the spherical hoop, and the umbrella shaft pushes the piston disc to move upward. During the upward movement of the piston disc, the support spring is squeezed to make it elastically deformed, and the pressure inside the pressure generating tank increases. The pressure generating tank is connected to an air pipe, the port of the air pipe is located above the piston disc, a first solenoid valve is installed on the air pipe, an exhaust pipe is installed at a position on the pressure generating tank corresponding to the air pipe, a second solenoid valve is installed on the exhaust pipe, and the other end of the air pipe is connected to the bottom of the glue dispensing tank. When the pressure inside the pressure generating tank decreases, the air pressure below the corresponding anti-sticking bottom plate inside the glue dispensing tank decreases, the air inside the colloid passes through the main gas-liquid separation membrane through the support sleeve into the bottom of the anti-sticking bottom plate, and then is sucked into the pressure generating tank along the air pipe. When the pressure inside the pressure generating tank increases, under the push of the piston disc, the air inside the pressure generating tank enters the position below the corresponding anti-sticking bottom plate inside the pressure generating tank through the air pipe, the pressure below the sealing support blade increases, and under the support of the pressure, the sealing support blade rotates around the first rotating The connecting shaft rotates and twists the first transfer spring to make it elastically deformed, multiple sealing support blades unfold, and air enters the sedimentation and dispersion cylinder. Due to the low permeability of the main gas-liquid separation membrane, the sedimentation and dispersion cylinder slides on the sliding connection block through the sliding connection groove under the pressure, and squeezes the sliding spring to make it elastically deformed. The air drives the driving blades to rotate in the process of flowing through the driving blades, and the driving blades drive the support sleeve to rotate through the sleeve. Centrifugal force is generated in the process of rapid rotation of the support sleeve. Under the action of centrifugal force, the sedimentation and hybrid blades rotate around the second transfer shaft and twist the second transfer spring to make it elastically deformed. Multiple sedimentation and hybrid blades make circular motion, and a small amount of air will also flow out through the secondary gas-liquid separation membrane, which will generate bubbles inside the colloid. When the bubbles burst, a shock wave of a certain intensity will be generated. After the production of the colloid is completed, the air is pumped into the pressure generating tank, the first solenoid valve is closed, and the second solenoid valve is opened. The air in the pressure generating tank is discharged through the exhaust pipe, thereby being able to discharge the air in the colloid.

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