Integrated automatic ash discharge pulse bag type dust collector

Abstract

The invention provides an integrated automatic ash discharge pulse bag type dust collector, and relates to the technical field of atmospheric control and pollution control. Comprising a collector bin, a main body of the collector bin is of a square structure, an ash discharging hopper is integrally arranged at the bottom of the collector bin, and an ash discharging hopper is integrally arranged above the front side of the ash discharging hopper; an air outlet pipe opening is integrally formed in the upper portion of the rear side of the collector bin. An ash discharging channel is fixedly arranged at the bottom of the ash discharging hopper, an outlet of the ash discharging channel inclines towards the lower front portion, and a spiral propeller is integrally arranged at the outlet of the ash discharging channel; the rotatable long-cylinder filter bag is adopted for interception, it can be guaranteed that all the faces of the long-cylinder filter bag can make uniform contact with the air flowing direction, the linkage shaft is matched with the bevel gears to drive all the sets of transmission worms and driven worm wheels to synchronously rotate, and the interception faces are automatically switched; dust can be prevented from being attached to the outside of only part of the long-cylinder filter bag due to the influence of the flow direction, and the problem of non-uniform interception of an existing dust collector is solved.

Description

Technical Field

[0001] The present invention relates to the technical field of air control and pollution treatment, and particularly to an integrated automatic ash-discharging pulse bag filter. Background Art

[0002] The pulse bag filter is a commonly used high-efficiency dust removal device in the industrial field. Its core working principle is based on the interception and separation of dust by filter bags. The dusty gas enters the interior of the device through the air inlet. The dust is adsorbed on the outer surface of the filter bag, and the clean gas passes through the filter bag and is discharged from the air outlet. When the dust accumulation on the filter bag surface increases and the resistance rises, the pulse jet system is activated. Compressed air is sprayed into the filter bag through the pulse valve in a very short time and at high speed, causing the filter bag to expand and vibrate instantly, shaking off the attached dust, which falls into the ash hopper and is then discharged.

[0003] In the currently used dust collectors, the flow direction of air is fixed, and only one side of the filtering structure works. Therefore, there will be interception dead corners, and some interception structures do not work for a long time, resulting in uneven interception, which will affect the interception effect, and there is a lack of a cyclic working function for switching the interception cross-section. Summary of the Invention

[0004] In view of this, in order to solve the above-mentioned deficiencies existing in the prior art, the present invention provides an integrated automatic ash-discharging pulse bag filter.

[0005] The present invention provides an integrated automatic ash-discharging pulse bag filter, which specifically includes: a collector bin, the main body of the collector bin is of a square structure, a lower ash hopper is integrally provided at the bottom of the collector bin, and an air inlet pipe opening is integrally provided above the front side of the lower ash hopper; an air outlet pipe opening is integrally provided above the rear side of the collector bin; an ash discharge channel is fixedly provided at the bottom of the lower ash hopper, the outlet of the ash discharge channel inclines forward and downward, and a compaction pipe is integrally provided at the outlet of the ash discharge channel; a circular channel is integrally provided in the middle of the ash discharge channel, and a bearing shaft is rotatably provided in the circular channel in cooperation with two groups of bearings; a disc is fixedly provided at the top of the bearing shaft, and inclined brackets are fixedly provided around the top of the disc. The upper part of the inclined brackets is a radially outward inclined structure, and a fixed rotating ring is integrally provided in the middle of the top of the inclined brackets; a conical filter screen is fixedly provided in the inclined brackets; two groups of isolation transmission frames are fixedly provided above the interior of the collector bin, and a venturi tube is rotatably provided in the middle of the isolation transmission frames in cooperation with sealed bearings. The venturi tubes are horizontally and vertically equidistantly distributed; the interior of the venturi tube is a contraction structure, the bottom of the venturi tube is a flared structure, a framework is integrally provided outside the bottom of the venturi tube, and a long cylindrical filter bag is fixedly provided outside the framework; a jet integration pipe is fixedly installed above the interior of the collector bin; an energy storage device is fixedly provided above the front of the collector bin.

[0006] Optionally, an internal resistance rack is fixedly arranged below the interior of the collector bin. The internal resistance rack is a hopper-shaped structure that fits the outside of the collector bin and has a circular through-hole in the middle. A T-shaped pulley is rotatably arranged at the bottom edge of the internal resistance rack. Two annular flange structures are integrally arranged at the top of the fixed rotating ring, and the T-shaped pulley fits the outer annular flange of the fixed rotating ring. The bottom middle of the internal resistance rack is a flange structure, and the flange structure of the internal resistance rack covers the inner annular flange of the fixed rotating ring.

[0007] Optionally, a screw propeller is rotatably arranged inside the compaction pipe. A driving motor is fixedly arranged on one side of the ash discharge channel, and a coupling is arranged at the shaft end of the driving motor and one end of the screw propeller for transmission connection. A rectangular discharge port is integrally arranged at the front end of one side of the compaction pipe, and a rotating sealing plate is hinged at the front end of the rectangular discharge port. The two sides of the top of the rotating sealing plate extend upward, and a spring telescopic rod is rotatably arranged in the middle of the two extended parts. The other end of the spring telescopic rod is rotatably arranged at the top of the rectangular discharge port.

[0008] Optionally, a spray head is fixedly arranged above the inclined part of the ash discharge channel. The water outlet of the spray head is located inside the ash discharge channel, and the outer end of the spray head is connected to a water pipe.

[0009] Optionally, a separation motor is connected to the bottom of the bearing shaft. A motor bracket for installing the separation motor is fixedly arranged at the bottom of the ash discharge channel. A protective sleeve is fixedly arranged outside the bearing shaft through a set screw, and the protective sleeve wraps the upper bearing of the bearing shaft. The upper bearing of the bearing shaft is a deep groove ball bearing, and the lower bearing of the bearing shaft is a tapered roller bearing.

[0010] Optionally, driven worm wheels are fixedly arranged outside the venturi tubes. A driving worm is rotatably arranged at the position of the support array between the two isolation transmission frames, and the driving worm is in transmission connection with the driven worm wheels. A linkage shaft is rotatably arranged at the position between the two isolation transmission frames, and both ends of the linkage shaft are rotatably arranged in the side wall of the collector bin.

[0011] Optionally, the linkage shaft and each driving worm are arranged with bevel gear transmission connection. A reversing motor is fixedly arranged at the front side of the collector bin, and the reversing motor is in transmission connection with the linkage shaft.

[0012] Optionally, the blow-in integrated pipe is a comb-shaped multi-branch structure. Branch nozzles are arranged at the bottoms of the branches of the blow-in integrated pipe, and the branch nozzles face the middle of the top of the venturi tube.

[0013] Optionally, branch solenoid valves are connected and arranged at the front side positions of the branches of the blow-in integrated pipe. A main solenoid valve is connected and arranged at the front end of the main pipeline of the blow-in integrated pipe, and the main solenoid valve is in pipeline communication with the energy storage device. A controller is arranged at the front side of the collector bin to control the main solenoid valve and the branch solenoid valves.

[0014] Optionally, a tee is connected to the outside of the air outlet pipe through a flange. Both of the other two ends of the tee are connected with flow control gate valves. An air extraction pump is connected and arranged below a group of flow control gate valves, and the air extraction pump is communicated with an output pipeline arranged below the other flow control gate valve; the top of the upper isolation transmission frame is lower than the air outlet pipe.

[0015] 1. The present invention uses a rotatable long cylindrical filter bag for interception, which can ensure that the outer surface of the long cylindrical filter bag can uniformly contact the air flow direction. The linkage shaft cooperates with bevel gears to drive each group of transmission worm shafts and driven worm wheels to rotate synchronously, so that the venturi tube and the long cylindrical filter bag rotate slowly synchronously, realizing automatic switching of the interception surface, and can avoid only partial outer surfaces of the long cylindrical filter bags being attached with dust due to the influence of the flow direction, increasing the interception time and not requiring frequent pulsing. 2. The present invention is provided with a conical filter screen, adding an additional interception. Light and large-sized dust will be intercepted by the conical filter screen and remain on the outer surface of the conical filter screen or directly fall into the ash discharge channel. Moreover, the conical filter screen can rotate, and the rotation of the conical filter screen can generate centrifugal force to throw off the dust intercepted outside the conical filter screen, avoiding dust clogging the conical filter screen and affecting the interception effect, and realizing continuous interception. 3. The present invention has a dual-selectable dust treatment effect. The screw propeller is used to convey and extrude the dust towards the rectangular discharge port, compacting the dust so that it is not easily dispersed, facilitating subsequent treatment. It is also possible to select to connect a water pipe to the spray head and input water to mix the dust, making the dust heavier and unable to float easily, and then cooperating with extrusion to turn the dust into a solid and compact structure and discharge it. During this period, the spring telescopic rod is used to provide pressure for the rotary sealing plate, which can ensure that the discharged dust is solid. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 shows the three-dimensional structural schematic diagram of the embodiment in the present invention; Figure 2 shows the side elevation structural schematic diagram of the embodiment in the present invention; Figure 3 shows the three-dimensional sectional structural schematic diagram of the embodiment in the present invention; Figure 4 shows the side elevation sectional structural schematic diagram of the embodiment in the present invention; Figure 5 shows the transmission structural schematic diagram of the venturi tube in the embodiment of the present invention; Figure 6 shows the sectional structural schematic diagram of the venturi tube in the embodiment of the present invention; Figure 7 shows the assembly structural schematic diagram of the bearing shaft in the embodiment of the present invention; Figure 8 shows the embodiment in the present invention Figure 1 partial enlarged structural schematic diagram at A therein; Figure 9 shows the partial enlarged structural schematic diagram at position B in the embodiments of the present invention. Figure 3 in the figure.

[0017] List of reference numerals: 1. Collector bin; 101. Lower ash hopper; 102. Inlet air pipe port; 103. Outlet air pipe port; 104. Internal resistance frame; 105. T-shaped pulley; 2. Ash discharge channel; 201. Compaction pipe; 202. Screw propeller; 203. Driving motor; 204. Rectangular discharge port; 205. Rotary sealing plate; 206. Spring telescopic rod; 207. Spray head; 3. Bearing shaft; 301. Separation motor; 302. Disc; 303. Inclined bracket; 304. Fixed rotating ring; 305. Conical filter screen; 306. Protective sleeve; 4. Isolation transmission frame; 5. Venturi tube; 501. Driven worm gear; 502. Skeleton; 503. Long cylindrical filter bag; 6. Driving worm; 7. Linkage shaft; 8. Reversing motor; 9. Pulse jet integration pipe; 10. Branch solenoid valve; 11. Main solenoid valve; 12. Energy storage device; 13. Three-way; 14. Flow control gate valve; 15. Air extraction pump. Detailed implementation manners

[0018] In order to make the objectives, solutions and advantages of the technical solutions of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the drawings of the specific embodiments of the present invention.

[0019] Embodiment 1: Please refer to the accompanying drawings in the specification, Figures 1 to 9 as shown: The present invention provides an integrated automatic ash-discharging pulse bag filter, comprising: a collector bin 1, the main body of the collector bin 1 is of a square structure, a lower ash hopper 101 is integrally arranged at the bottom of the collector bin 1, and an air inlet port 102 is integrally arranged above the front side of the lower ash hopper 101; an air outlet port 103 is integrally arranged above the rear side of the collector bin 1; an ash outlet channel 2 is fixedly arranged at the bottom of the lower ash hopper 101, the outlet of the ash outlet channel 2 inclines forward and downward, and a compaction pipe 201 is integrally arranged at the outlet of the ash outlet channel 2; a circular channel is integrally arranged in the middle of the ash outlet channel 2, and a bearing shaft 3 is rotatably arranged in the circular channel in cooperation with two groups of bearings; a disc 302 is fixedly arranged at the top of the bearing shaft 3, and inclined brackets 303 are fixedly arranged around the top of the disc 302, the upper part of the inclined brackets 303 is of a radially outward-inclined structure, and a fixed rotating ring 304 is integrally arranged in the middle of the top of the inclined brackets 303; a conical filter screen 305 is fixedly arranged in the inclined brackets 303; two groups of isolation drive frames 4 are fixedly arranged above the inside of the collector bin 1, a venturi tube 5 is rotatably arranged in the middle of the isolation drive frames 4 in cooperation with sealed bearings, and the venturi tubes 5 are distributed at equal intervals horizontally and vertically; the inside of the venturi tube 5 is of a contraction structure, the bottom of the venturi tube 5 is of a flared structure, a framework 502 is integrally arranged outside the bottom of the venturi tube 5, and a long cylindrical filter bag 503 is fixedly arranged outside the framework 502; a blow-in integrated pipe 9 is fixedly arranged above the inside of the collector bin 1; an energy storage device 12 is fixedly arranged above the front of the collector bin 1.

[0020] Wherein, an internal resistance frame 104 is fixedly arranged below the inside of the collector bin 1, the internal resistance frame 104 is of a bucket-shaped structure with the outside fitting the collector bin 1 and a circular through-hole in the middle; a T-shaped pulley 105 is rotatably arranged at the bottom edge of the internal resistance frame 104; two annular flange structures are integrally arranged at the top of the fixed rotating ring 304, and the T-shaped pulley 105 fits the outer annular flange of the fixed rotating ring 304; the middle bottom of the internal resistance frame 104 is of a flange structure, and the flange structure of the internal resistance frame 104 covers the inner annular flange of the fixed rotating ring 304.

[0021] Wherein, a screw propeller 202 is rotatably arranged inside the compaction pipe 201, a driving motor 203 is fixedly arranged on one side of the ash outlet channel 2, and the shaft end of the driving motor 203 is in transmission connection with one end of the screw propeller 202 through a coupling; a rectangular discharge port 204 is integrally arranged at the front end of one side of the compaction pipe 201, and a rotating sealing plate 205 is hinged at the front end of the rectangular discharge port 204; the two sides of the top of the rotating sealing plate 205 extend upward, and a spring telescopic rod 206 is rotatably arranged in the middle of the two extended parts, and the other end of the spring telescopic rod 206 is rotatably arranged at the top of the rectangular discharge port 204.

[0022] Wherein, a spray head 207 is fixedly arranged above the inclined part of the ash outlet channel 2, the water outlet of the spray head 207 is located inside the ash outlet channel 2, and the outer end of the spray head 207 is connected to a water pipe.

[0023] Among them, a separation motor 301 is drivingly connected to the bottom of the bearing shaft 3, and a motor bracket for installing the separation motor 301 is fixedly arranged at the bottom of the ash discharge channel 2; a protective housing 306 is fixedly arranged outside the bearing shaft 3 by a setscrew, and the protective housing 306 wraps the upper bearing of the bearing shaft 3; the upper bearing of the bearing shaft 3 is a deep groove ball bearing, and the lower bearing of the bearing shaft 3 is a tapered roller bearing.

[0024] Among them, driven worm wheels 501 are fixedly arranged outside the venturi tubes 5; a driving worm 6 is rotatably arranged in cooperation with a bracket array between the two groups of isolation transmission frames 4, and the driving worm 6 is drivingly connected to the driven worm wheels 501; a linkage shaft 7 is rotatably arranged between the two groups of isolation transmission frames 4, and both ends of the linkage shaft 7 are rotatably arranged in the side wall of the collector bin 1.

[0025] Among them, the linkage shaft 7 and each group of driving worms 6 are arranged with bevel gear driving connections; a reversing motor 8 is fixedly arranged on the front side of the collector bin 1, and the reversing motor 8 is drivingly connected to the linkage shaft 7.

[0026] Among them, the blow-in integrated pipe 9 is a comb-shaped multi-branch structure, and branch nozzles are arranged at the bottoms of the branches of the blow-in integrated pipe 9, and the branch nozzles face the middle of the top of the venturi tube 5.

[0027] Among them, branch solenoid valves 10 are connected and arranged at the front side positions of the branches of the blow-in integrated pipe 9; a main solenoid valve 11 is connected and arranged at the front end of the main pipeline of the blow-in integrated pipe 9, and the main solenoid valve 11 is connected to the energy storage device 12 through a pipeline; a controller is arranged on the front side of the collector bin 1 to control the main solenoid valve 11 and the branch solenoid valves 10.

[0028] Among them, a tee 13 is connected and arranged outside the air outlet 103 through a flange, and the other two ends of the tee 13 are both connected with flow control gate valves 14. An air extraction pump 15 is connected and arranged below one group of flow control gate valves 14, and the air extraction pump 15 is communicated with an output pipeline arranged below the other flow control gate valve 14; the top of the upper isolation transmission frame 4 is lower than the air outlet 103.

[0029] As Figures 1 - 9 shown, during use, the air inlet 102 is connected to the gas source to be processed, and dusty air is input; when the air enters the interior of the collector bin 1, it flows upward through the conical filter screen 305, and the light and larger-sized dust will be intercepted by the conical filter screen 305 and left on the outer surface of the conical filter screen 305 or directly fall into the ash discharge channel 2; The separation motor 301 is started to drive the bearing shaft 3 to rotate, and the bearing shaft 3 drives the disc 302, the inclined bracket 303, the fixed swivel 304, the conical filter 305 and the protective sleeve 306 to rotate synchronously. The rotation of the conical filter 305 can generate centrifugal force to throw off the dust intercepted outside the conical filter 305, so as to prevent the dust from clogging the conical filter 305 and affecting the interception effect. The protective sleeve 306 can rotate to throw off the dust attached to itself; after being thrown off, the dust falls into the ash outlet channel 2; the air moves upward and penetrates the long tube filter bag 503 to intercept the dust, and the intercepted air is discharged through the air outlet port 103; The reversing motor 8 is started to drive the linkage shaft 7 to rotate, and the linkage shaft 7 cooperates with the bevel gear to drive each group of driving worm 6 to rotate synchronously, and the driving worm 6 drives each group of driven worm gears 501 to rotate synchronously, so that the venturi tube 5 and the long-tube filter bag 503 can rotate synchronously and slowly, realizing automatic switching of the interception surface, avoiding the influence of flow direction causing dust to adhere to only part of the long-tube filter bag 503, and increasing the interception time; The long tube filter bag 503 can rotate automatically by setting a timing control switch, or can be kept rotating by continuously rotating at a slow speed; When pulse dust removal is required, stop inputting air into the collector bin 1, then open a group of branch solenoid valves 10 and the main solenoid valve 11, and perform dust removal on a group of branches of the injection integrated pipe 9 each time to ensure gas pressure. After releasing the compressed air in the energy storage device 12, the compressed gas passes through the inside of the injection integrated pipe 9 and is discharged into the venturi 5, generating pulses to shake off the dust outside the long-tube filter bag 503, and the dust falls into the ash outlet channel 2; after each branch dust removal, store energy for the energy storage device 12 again, and repeat the above steps to repeat dust removal; the energy storage device 12 uses a compressed gas accumulator, which is a device that uses compressed gas to store energy. Its working principle is that when there is excess energy, a compressor is used to compress air or other gases and store them in a high-pressure container, at which time electrical energy is converted into pressure energy of the gas; when energy is needed, the high-pressure gas is released to drive a turbine or other power equipment to convert pressure energy into mechanical energy or electrical energy, thereby achieving pulse release; The driving motor 203 is started to drive the screw propeller 202 to rotate, and the screw propeller 202 transports and squeezes the dust to the rectangular discharge port 204, so that the dust is compacted and difficult to disperse; A collecting container can be optionally provided outside the rectangular discharge port 204. When the dust extrusion pressure increases, the rotating sealing plate 205 will be opened to automatically discharge the dust outward. After the discharge is completed, the rotating sealing plate 205 will automatically close through the spring telescopic rod 206 to stop the discharge.

[0030] Embodiment 2: On the basis of Embodiment 1, instead of using a container to wrap the rectangular discharge port 204, it is possible to choose to connect a spray head 207 to a water pipe. During the process of squeezing the dust, water is input into the ash discharge channel 2 to mix the dust, making the dust heavier and unable to float easily. Then, in cooperation with the squeezing, the dust is turned into a solid and compact structure and discharged. A tray is arranged outside the rectangular discharge port 204 to recover the dust and clean the inside of the ash discharge channel 2.

[0031] Embodiment 3: On the basis of Embodiment 1, if there is a pressurized gas source, open the flow control valve 14 that is not connected to the air extraction pump 15 to directly discharge air to the outside; If it is necessary to actively inhale gas, it is necessary to close the flow control valve 14 at this place and open the flow control valve 14 connected to the air extraction pump 15. Use the air extraction pump 15 to actively extract air and exhaust through negative pressure to achieve a dual-selectable working effect.

[0032] Specific usage method and function of this embodiment: In the present invention, when in use, connect the air inlet pipe port 102 to the gas source to be processed and input dusty air; After the air enters the inside of the collector bin 1, it flows upward through the conical filter screen 305. Light and relatively large dust will be intercepted by the conical filter screen 305 and remain on the outer surface of the conical filter screen 305 or directly fall into the ash discharge channel 2; Start the separation motor 301 to drive the bearing shaft 3 to rotate. The bearing shaft 3 drives the disc 302, the inclined bracket 303, the fixed rotating ring 304, the conical filter screen 305 and the protective housing 306 to rotate synchronously. The rotation of the conical filter screen 305 can generate a centrifugal force to throw off the dust intercepted outside the conical filter screen 305, preventing the dust from blocking the conical filter screen 305 and affecting the interception effect. The rotation of the protective housing 306 can throw off the dust adhering to itself; after the dust is thrown off, it falls into the ash discharge channel 2; The air moves upward and penetrates into the long cylindrical filter bag 503 to intercept the dust, and the intercepted air passes through the air outlet pipe port 103 and is discharged; Start the reversing motor 8 to drive the linkage shaft 7 to rotate. The linkage shaft 7 cooperates with the bevel gears to drive each group of transmission worm gears 6 to rotate synchronously. The transmission worm gears 6 drive each group of driven worm wheels 501 to rotate synchronously, which can make the venturi tube 5 and the long cylindrical filter bag 503 rotate slowly synchronously, realizing automatic switching of the interception surface, avoiding only part of the outer surface of the long cylindrical filter bag 503 being attached with dust due to the influence of the flow direction, and increasing the interception time; the long cylindrical filter bag 503 can rotate automatically through timing control or can choose to rotate continuously at a slow speed to maintain rotation; After the long-tube filter bag 503 has worked for a certain period of time, the air input to the collector bin 1 is stopped, and then a group of branch solenoid valves 10 and the main solenoid valve 11 are opened to release the compressed air in the energy storage device 12. The compressed air passes through the inside of the spray integrated pipe 9 and is discharged into the venturi 5, generating pulses to shake off the dust outside the long-tube filter bag 503, and the dust falls into the ash outlet channel 2; each time a group of branches of the spray integrated pipe 9 is dusted, the gas pressure can be guaranteed, and after each branch is dusted, energy is stored in the energy storage device 12, and the above steps are repeated to repeat the dust removal; The driving motor 203 is started to drive the screw propeller 202 to rotate, and the screw propeller 202 transports and squeezes the dust to the rectangular discharge port 204 to compact the dust and make it difficult to disperse. A collecting container is set outside the rectangular discharge port 204. When the dust extrusion pressure increases, the rotating sealing plate 205 will be opened to automatically discharge the dust outward. After the discharge is completed, the rotating sealing plate 205 is automatically closed by the spring telescopic rod 206 to stop the discharge. The sprinkler head 207 can be connected to a water pipe to input water to mix the dust, so that the dust becomes heavy and cannot float easily, and then the dust is squeezed into a solid structure and then discharged. If there is a pressurized gas source, the flow control gate valve 14 not connected to the vacuum pump 15 can be opened to discharge air directly to the outside. Otherwise, the flow control gate valve 14 can be closed and the flow control gate valve 14 connected to the vacuum pump 15 can be opened. The vacuum pump 15 can be used to actively extract air and exhaust air through negative pressure to achieve a dual optional working effect.

Claims

1. Integrated automatic ash-discharging pulse bag filter, characterized in that, Comprising: A collector bin (1), the main body of the collector bin (1) being of a square structure. At the bottom of the collector bin (1), a lower ash hopper (101) is integrally provided. Above the front side of the lower ash hopper (101), an air inlet port (102) is integrally provided. Above the rear side of the collector bin (1), an air outlet port (103) is integrally provided. At the bottom of the lower ash hopper (101), an ash discharge channel (2) is fixedly provided. The outlet of the ash discharge channel (2) slopes forward and downward. At the outlet of the ash discharge channel (2), a compaction pipe (201) is integrally provided. In the middle of the ash discharge channel (2), a circular channel is integrally provided, and a bearing shaft (3) is rotatably arranged in the circular channel in cooperation with two groups of bearings. At the top of the bearing shaft (3), a disc (302) is fixedly provided. Around the top of the disc (302), an inclined bracket (303) is fixedly provided. Above the inclined bracket (303) is a radially outwardly inclined structure. In the middle of the top of the inclined bracket (303), a fixed rotating ring (304) is integrally provided. In the inclined bracket (303), a conical filter screen (305) is fixedly provided. Above the interior of the collector bin (1), two groups of isolation drive frames (4) are fixedly provided. In the middle of the isolation drive frames (4), a Venturi tube (5) is rotatably arranged in cooperation with a sealed bearing. The Venturi tubes (5) are distributed at equal intervals horizontally and vertically. The interior of the Venturi tube (5) is a contraction structure, and the bottom of the Venturi tube (5) is a flared structure. Outside the bottom of the Venturi tube (5), a framework (502) is integrally provided, and an elongated filter bag (503) is fixedly provided outside the framework (502). Above the interior of the collector bin (1), a blow-in integrated pipe (9) is fixedly installed. In the front upper part of the collector bin (1), an energy storage device (12) is fixedly provided.

2. The integrated automatic ash-discharging pulse bag filter according to claim 1, wherein Inside the lower part of the collector bin (1), an internal resistance frame (104) is fixedly provided. The internal resistance frame (104) is a funnel-shaped structure with the outside fitting the collector bin (1) and a circular through-hole in the middle. At the bottom edge of the internal resistance frame (104), a T-shaped pulley (105) is rotatably arranged. At the top of the fixed rotating ring (304), two annular flange structures are integrally provided. The T-shaped pulley (105) fits the outer annular flange of the fixed rotating ring (304). At the middle bottom of the internal resistance frame (104) is a flange structure, and the flange structure of the internal resistance frame (104) covers the inner annular flange of the fixed rotating ring (304).

3. The integrated automatic ash-discharging pulse bag filter according to claim 2, wherein Inside the compaction pipe (201), a screw propeller (202) is rotatably arranged. On one side of the ash discharge channel (2), a drive motor (203) is fixedly provided. The shaft end of the drive motor (203) is in transmission connection with one end of the screw propeller (202) through a coupling. At the front end of one side of the compaction pipe (201), a rectangular discharge port (204) is integrally provided. At the front end of the rectangular discharge port (204), a rotating sealing plate (205) is hingedly arranged. On both sides of the top of the rotating sealing plate (205), they extend upward. In the middle of the two extended parts, a spring telescopic rod (206) is rotatably arranged, and the other end of the spring telescopic rod (206) is rotatably arranged at the top of the rectangular discharge port (204).

4. The integrated automatic ash-discharging pulse bag filter according to claim 3, wherein, A spray head (207) is fixedly arranged above the inclined part of the ash discharge channel (2). The water outlet of the spray head (207) is located inside the ash discharge channel (2), and the outer end of the spray head (207) is connected to a water pipe.

5. The integrated automatic ash-discharging pulse bag filter according to claim 4, wherein, A separation motor (301) is drivingly connected to the bottom of the bearing shaft (3). A motor bracket for installing the separation motor (301) is fixedly arranged at the bottom of the ash discharge channel (2). A protective housing (306) is fixedly arranged outside the bearing shaft (3) by a set screw. The protective housing (306) wraps the upper bearing of the bearing shaft (3). The upper bearing of the bearing shaft (3) is a deep groove ball bearing, and the lower bearing of the bearing shaft (3) is a tapered roller bearing.

6. The integrated automatic ash-discharging pulse bag filter according to claim 5, characterized in that, Driven worm wheels (501) are fixedly arranged outside the venturi tubes (5). Brackets are arranged in an array at the position between the two groups of isolation transmission frames (4). A transmission worm (6) is rotatably arranged in the brackets. The transmission worm (6) is drivingly connected to the driven worm wheel (501). A linkage shaft (7) is rotatably arranged at the position between the two groups of isolation transmission frames (4). Both ends of the linkage shaft (7) are rotatably arranged in the side wall of the collector bin (1).

7. The integrated automatic ash-discharging pulse bag filter according to claim 6, characterized in that, The linkage shaft (7) is connected to each group of transmission worms (6) by a bevel gear transmission. A reversing motor (8) is fixedly arranged on the front side of the collector bin (1). The reversing motor (8) is drivingly connected to the linkage shaft (7).

8. The integrated automatic ash-discharging pulse bag filter according to claim 7, characterized in that, The blowpipe integrated pipe (9) is a comb-shaped multi-branch structure. Branch nozzles are arranged at the bottoms of the branches of the blowpipe integrated pipe (9). The branch nozzles face the middle of the top of the venturi tube (5).

9. The integrated automatic ash-discharging pulse bag filter according to claim 8, characterized in that, Branch solenoid valves (10) are connected and arranged at the front side positions of the branches of the blowpipe integrated pipe (9). The front end of the main pipeline of the blowpipe integrated pipe (9) is connected and arranged with a main solenoid valve (11). The main solenoid valve (11) is connected to the energy storage device (12) through a pipeline. A controller is arranged on the front side of the collector bin (1) to control the main solenoid valve (11) and the branch solenoid valves (10).

10. The integrated automatic ash-discharging pulse bag filter according to claim 9, characterized in that, A tee (13) is connected and arranged outside the air outlet pipe (103) through a flange. The other two ends of the tee (13) are both connected with flow control gate valves (14). A suction pump (15) is connected and arranged below one group of flow control gate valves (14). The suction pump (15) is communicated with the output pipeline arranged below the other flow control gate valve (14). The top of the upper isolation transmission frame (4) is lower than the air outlet pipe (103).

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