CN111659210A - Self-cleaning dust removing equipment and block chain benefit calculation method - Google Patents
Self-cleaning dust removing equipment and block chain benefit calculation method Download PDFInfo
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- CN111659210A CN111659210A CN201911326942.8A CN201911326942A CN111659210A CN 111659210 A CN111659210 A CN 111659210A CN 201911326942 A CN201911326942 A CN 201911326942A CN 111659210 A CN111659210 A CN 111659210A
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Abstract
The invention discloses a self-cleaning dust removing device and a calculation method for applying block chain benefit, wherein a pipe connector comprises: the device comprises an outer pipe ring, a telescopic spring, an expansion hose, an inner pipe ring and an outer ring vibrating spring; two ends of the expansion hose are respectively communicated with the bent pipe and the straight pipe, and can expand and contract, and an outer pipe ring and a telescopic spring are sequentially arranged on the outer ring of the expansion hose; the outer ring of the pipe slides along the outer wall of the expansion hose, the other end of the outer ring of the pipe is connected with four outer ring vibration springs, and the other end of each outer ring vibration spring is connected with an external vibrator; the inner tube ring is positioned at one end inside the expansion hose and slides along the inner wall of the expansion hose; the expansion spring prevents the expansion hose from being over-expanded and burst; the outer ring of the pipe and the expandable structure of the inner ring of the pipe can scrape dust attached to the wall of the inner pipe and the wall of the outer pipe. The self-cleaning dust removal equipment disclosed by the invention is novel and reasonable in structure, high in dust removal efficiency and wide in application range.
Description
Technical Field
The invention belongs to the field of environmental protection equipment, and particularly relates to self-cleaning dust removing equipment and a calculation method for applying block chain benefit.
Background
Under the condition of the prior art, the technology of the dust removal equipment is not developed and matured, and the prior traditional process and treatment method still have the defects of high treatment cost, low dust removal efficiency and the like. The device is mainly characterized in that the prior art does not have a pipe joint, a steering chamber, a wind blockage, a varix mechanism, a pull rod and a return air passage mechanism which are required by a gas distribution pipe. There are no up-down regulator, left-right moving rod, front-back regulator and cylinder mechanism. And a coordinate measuring instrument, an adsorption disc, a balance column, a suction disc telescopic arm and an adjusting base mechanism which are correspondingly arranged on the front and rear adjusters are not arranged. No steering chamber, axial water inlet and outlet pipe, grooved paddle and chamber rotator mechanism are provided.
Disclosure of Invention
In order to solve the technical problem, the invention provides a self-cleaning dust removing device, which comprises: the device comprises a dust removing tower 1, a leg support 2, a ladder stand 3, a ladder stand safety fence 4, a top guardrail 5 and an electric control center 6; the bottom of the dedusting tower 1 is fixedly provided with a leg support 2, the crawling ladder 3 is fixedly arranged on the side wall of the dedusting tower 1, and the crawling ladder and the dedusting tower are welded and fixed; the ladder stand safety fence 4 is positioned at the upper position of the side wall of the ladder stand 3, and the ladder stand safety fence and the ladder stand are welded and fixed; the top guardrail 5 is positioned on the upper surface of the dust removing tower 1 and is welded and fixed; the electric control center 6 is positioned at one side of the leg support 2.
Further, the dust removal tower 1 comprises: 1-1 part of an electrolysis bin, 1-2 parts of a filtering bin, 1-3 parts of an access hole, 1-4 parts of a filtering device, 1-5 parts of an electrolysis device, 1-6 parts of a dust collecting bin, 1-7 parts of a cleaning hole, 1-8 parts of a dust discharge hole and 1-9 parts of an electrolysis rate sensor; the upper surface of the electrolysis bin 1-1 is provided with a filtering bin 1-2, the filtering bin 1-2 is communicated with the inside of the electrolysis bin, a dust pretreatment system is arranged inside the filtering bin 1-2, the upper surface of the filtering bin 1-2 is provided with access ports 1-3, and the number of the access ports 1-3 is 2; the filtering devices 1-4 penetrate into the filtering bins 1-2 from the upper part, and the number of the filtering devices 1-4 is 2; the electrolysis device 1-5 is positioned in the electrolysis bin 1-1, the total height of the electrolysis device 1-5 is the same as that of the electrolysis bin 1-1, and the positive and negative electrodes of the electrolysis device 1-5 are respectively connected with a lead of the electric control center 6; the dust collection bin 1-6 is positioned on the lower surface of the electrolysis bin 1-1, the interior of the electrolysis bin and the interior of the dust collection bin are communicated, the dust collection bin 1-6 is of a prismoid structure, the side wall of the dust collection bin is provided with a cleaning opening 1-7, and the bottom surface of the dust collection bin is provided with a dust discharge opening 1-8; the electrolysis rate sensor 1-9 is positioned on the surface of the inner wall of the electrolysis bin 1-1 and is connected with the electric control center 6 through a lead.
Further, the filtering apparatus 1-4 includes: 1-4-1 parts of filter box, 1-4-2 parts of air inlet channel, 1-4-3 parts of bent pipe, 1-4-4 parts of straight pipe, 1-4-5 parts of air distribution pipe, 1-4-6 parts of straight pipe dredger, 1-4-7 parts of pipe connector, 1-4-8 parts of straight pipe slideway and 1-4-9 parts of bent pipe expander; the upper surface of the filter box 1-4-1 is provided with an air inlet channel 1-4-2, the interior of the air inlet channel 1-4-1 and the interior of the air inlet channel are communicated, and the surface of the air inlet channel 1-4-2 is provided with an electromagnetic valve; one end of the elbow 1-4-3 is connected with the inside of the filter box 1-4-1, the other end of the elbow 1-4-3 is connected with the straight pipe 1-4-4 through the pipe connector 1-4-7 and the elbow expander 1-4-9, wherein the elbow expander 1-4-9 is positioned at a 90-degree corner; the straight pipe 1-4-4 is communicated with the vertically arranged gas distribution pipe 1-4-5; the straight pipe dredger 1-4-6 is positioned at the end part of the straight pipe 1-4-4; the straight tube slideway 1-4-8 lifts the straight tube 1-4-4 and is connected with the straight tube in a sliding way.
Further, the electrolysis apparatus 1 to 5 includes: 1-5-1 parts of an electrolysis ring, 1-5-2 parts of a connecting rod and 1-5-3 parts of an electrolysis base; the electrolytic rings 1-5-1 are annular and horizontally arranged, and the number of the electrolytic rings is not less than 4 groups; each group of electrolytic rings 1-5-1 are connected through connecting rods 1-5-2, and at least 5 groups of connecting rods 1-5-2 are uniformly arranged along the circumferential direction of the circle center of each electrolytic ring 1-5-1; the electrolytic base 1-5-3 is positioned on the bottom surface of the electrolytic ring 1-5-1, and the upper surface of the electrolytic base 1-5-3 is provided with an annular groove.
Further, the gas distribution pipe 1-4-5 comprises: 1-4-5-1 part of an air inlet channel, 1-4-5-2 parts of a pipe joint, 1-4-5-3 parts of a steering chamber, 1-4-5-4 parts of a convergence chamber, 1-4-5-5 parts of an air outlet, 1-4-5-6 parts of a distribution chamber, 1-4-5-7 parts of an air plug, 1-4-5-8 parts of a varicosity mechanism, 1-4-5-9 parts of an outlet of the steering chamber, 1-4-5-10 parts of a second air passage, 1-4-5-11 parts of a drawing rod, 1-4-5-12 parts of an air flow trend path and 1-4-5-13 parts of a return air passage; one end of an air inlet channel 1-4-5-1 at the right end is communicated with the straight pipe 1-4-4, the other end is communicated with a reentry air channel 1-4-5-13, and air flow moves from right to left in the air inlet channel 1-4-5-1; because the right side of the turning chamber 1-4-5-3 is closed, the airflow turns back when meeting the right side of the turning chamber 1-4-5-3 and moves from left to right in the turning air passage 1-4-5-13; the reentry air passage 1-4-5-13 is communicated with a second air passage 1-4-5-10 positioned in the reentry air passage, the right ends of the reentry air passage and the second air passage are provided with pipe joints 1-4-5-2 with the air flow reentry function, and the air flow enters the second air passage 1-4-5-10 to be retraced and moves from right to left; the left end part of the second air passage 1-4-5-10 is communicated with the turning chamber 1-4-5-3, the left end part of the turning chamber 1-4-5-3 is provided with a turning chamber outlet 1-4-5-9, air flow enters the turning chamber 1-4-5-3 and sequentially passes through the distribution chamber 1-4-5-6 and the convergence chamber 1-4-5-4 from the turning chamber outlet 1-4-5-9 under the action of rotation acceleration, and is finally sprayed out from the air outlet 1-4-5-5; a drawing rod 1-4-5-11 capable of sliding left and right along the central axis is arranged on the central axis of the air inlet channel 1-4-5-1, a wind block 1-4-5-7 is arranged at the other end of the drawing rod 1-4-5-11, and the wind block 1-4-5-7 is tightly attached to the air outlet 1-4-5-5 when moving left to the end; the airflow moving path 1-4-5-12 is an airflow moving track in an open state of the air plug 1-4-5-7; the return is beneficial to separating air from dust.
Further, the straight pipe dredger 1-4-6 comprises: 1-4-6-1 parts of dredging rods, 1-4-6-2 parts of upper and lower regulators, 1-4-6-3 parts of air pressure chambers, 1-4-6-4 parts of left and right moving rods, 1-4-6-5 parts of air inlet pipes, 1-4-6-6 parts of air inlet valves, 1-4-6-7 parts of air release valves, 1-4-6-8 parts of air release pipes, 1-4-6-9 parts of front and rear regulators and 1-4-6-10 parts of air cylinders; the dredging rod 1-4-6-1 at one end slides left and right along the air pressure chamber 1-4-6-3, one end of the dredging rod is inserted into the straight pipe 1-4-4, the other end of the dredging rod forms a piston which slides in the air pressure chamber 1-4-6-3, and a return spring is arranged to enable the dredging rod to be at the leftmost end in an initial state; the upper part and the lower part of the straight pipe dredger 1-4-6 are respectively provided with an upper and lower regulator 1-4-6-2 and a front and rear regulator 1-4-6-9, and the upper and lower regulators and the front and rear regulators respectively regulate the straight pipe dredger 1-4-6 up and down and front and rear; a left moving rod 1-4-6-4 is arranged on the left side of the air pressure chamber 1-4-6-3 in a sliding manner, and the left moving rod 1-4-6-4 moves left and right in the air pressure chamber 1-4-6-3 and the air cylinder 1-4-6-10; a cylinder 1-4-6-10 is arranged on the left side of the left and right moving rods 1-4-6-4 to increase output power, and is respectively communicated with an air inlet pipe 1-4-6-5 and an air discharge pipe 1-4-6-8; the air inlet valves 1-4-6-6 and the air release valves 1-4-6-7 are connected with the electric control center 6 through leads and respectively control the air inlet pipes 1-4-6-5 to enter air and the air release pipes 1-4-6-8 to release air.
Further, the front-rear regulator 1-4-6-9 includes: 1-4-6-9-1 coordinate measuring instrument, 1-4-6-9-2 triangular arm, 1-4-6-9-3 adsorption disc, 1-4-6-9-4 adjusting motor, 1-4-6-9-5 balance column, 1-4-6-9-6 correcting knob, 1-4-6-9-7 sucker telescopic arm and 1-4-6-9-8 adjusting base; the adjusting base 1-4-6-9-8 positioned on one side is fixedly connected with the adjusting motor 1-4-6-9-4, and the adjusting motor 1-4-6-9-4 is in driving connection with the coordinate measuring instrument 1-4-6-9-1 through the triangular arm 1-4-6-9-2; the coordinate measuring instrument 1-4-6-9-1 tracks the mark points in the straight pipe 1-4-4 in real time through the sensors; in addition, the adjusting motor 1-4-6-9-4 is in driving connection with the adsorption disc 1-4-6-9-3 through one end of the suction disc telescopic arm 1-4-6-9-7; wherein one end of the adsorption disc 1-4-6-9-3 is fixedly adsorbed with the straight pipe dredger 1-4-6; the balance column 1-4-6-9-5 for keeping the balance of the system is movably connected with the other end of the sucker telescopic arm 1-4-6-9-7 through the adjusting function of the correcting knob 1-4-6-9-6; the telescopic arm 1-4-6-9-7 and the balance column 1-4-6-9-5 are all designed in a telescopic structure, wherein the telescopic arm 1-4-6-9-7 is controlled by an electric control center 6, and the telescopic column 1-4-6-9-5 is controlled by a correction knob 1-4-6-9-6; the coordinate measuring instrument 1-4-6-9-1 and the adjusting motor 1-4-6-9-4 are connected with an electric control center 6 through leads; the adjusting base 1-4-6-9-8 is connected with the base.
Further, the turn room 1-4-5-3 includes: 1-4-5-3-1 part of water enters the shell, 1-4-5-3-2 parts of an axial water inlet and outlet pipe, 1-4-5-3-3 parts of a rotary shell, 1-4-5-3-4 parts of a paddle pipe, 1-4-5-3-5 parts of a groove-shaped paddle, 1-4-5-3-6 parts of water exits from the shell, 1-4-5-3-7 parts of a filter screen, 1-4-5-3-8 parts of a water tank and 1-4-5-3-9 parts of a chamber rotator; the horizontally placed rotating shell 1-4-5-3-3 is cylindrical, one end of the horizontally placed rotating shell is closed, and the chamber rotator 1-4-5-3-9 drives the rotating shell 1-4-5-3-3 to rotate clockwise; the air flow enters from the closed end of the rotary shell 1-4-5-3-3 and exits from the other end; the four water tanks 1-4-5-3-8 are fixed at equal angles and independent of the rotary shell 1-4-5-3-3 and are tightly attached to the outer surface of the rotary shell 1-4-5-3-3, one end of each water tank 1-4-5-3-8 is communicated with the inlet water 1-4-5-3-1 outside the shell, and the other end of each water tank 1-4-5-3-6 is communicated with the outlet water 1-4-5-3-6 outside the shell; six groove-shaped blades 1-4-5-3-5 are communicated with each other at equal angles through twelve blade pipes 1-4-5-3-4 at two ends of the six groove-shaped blades, the end parts of the blade pipes 1-4-5-3-4 are communicated with an axial water inlet and outlet pipe 1-4-5-3-2, a water inlet and outlet double-path pipeline is arranged in the axial water inlet and outlet pipe 1-4-5-3-2, and the blade pipes 1-4-5-3-4 drive the groove-shaped blades 1-4-5-3-5 to rotate anticlockwise; the six groove-shaped blades 1-4-5-3-5 are internally provided with filter screens 1-4-5-3-7.
Further, the chamber rotator 1-4-5-3-9 includes: shaft support 1-4-5-3-9-1, rotary drum shaft 1-4-5-3-9-2, rotary drum 1-4-5-3-9-3, lifting support 1-4-5-3-9-4 and lifting base 1-4-5-3-9-5; the lifting base 1-4-5-3-9-5 is positioned at the bottom, the upper part of the lifting base is provided with two lifting supports 1-4-5-3-9-4, the included angle between the two lifting supports is 120 degrees and can be controlled to lift, and the two lifting supports are respectively hinged with the two ends of the upper drum shaft 1-4-5-3-9-2 through bearings; one end of the rotary drum shaft 1-4-5-3-9-2 penetrates through the shaft support 1-4-5-3-9-1 to be connected with the controlled motor, the middle part of the rotary drum shaft is welded with the rotary drum 1-4-5-3-9-3, and the VA vinyl acetate material on the surface of the rotary drum 1-4-5-3-9-3 is used for skid resistance; the lifting base 1-4-5-3-9-5 is fixed with the shaft support 1-4-5-3-9-1 base.
Further, the pipe joint member 1-4-7 includes: 1-4-7-1 part of an outer ring of the pipe, 1-4-7-2 parts of a telescopic spring, 1-4-7-3 parts of an expansion hose, 1-4-7-4 parts of an inner ring of the pipe and 1-4-7-5 parts of an outer ring vibration spring; two ends of the expansion hose 1-4-7-3 are respectively communicated with the bent pipe 1-4-3 and the straight pipe 1-4-4, and can be expanded and contracted, and the outer ring of the expansion hose 1-4-7-3 is sequentially provided with an outer ring 1-4-7-1 and a telescopic spring 1-4-7-2; the outer ring 1-4-7-1 of the pipe slides along the outer wall of the expansion hose 1-4-7-3, the other end of the outer ring is connected with four outer ring vibration springs 1-4-7-5, and the other end of the outer ring vibration spring 1-4-7-5 is connected with an external vibrator; the inner ring 1-4-7-4 of the pipe is positioned at one end of the interior of the expansion hose 1-4-7-3 and slides along the inner wall of the expansion hose 1-4-7-3; the expansion spring 1-4-7-2 prevents the expansion hose 1-4-7-3 from bursting due to over expansion; the outer ring 1-4-7-1 of the pipe and the inner ring 1-4-7-4 of the pipe can expand and scrape dust attached to the wall of the inner pipe and the outer pipe.
Further, the working method of the equipment comprises the following steps:
step 1: the electric control center 6 opens the electromagnetic valve on the surface of the air inlet channel 1-4-2, the gas enters the filter box 1-4-1 through the air inlet channel 1-4-2, enters the bent pipe 1-4-3 and the straight pipe 1-4-4 after being filtered by the filter box 1-4-1, and is uniformly distributed in the electrolytic bin 1-1 through the gas distribution pipe 1-4-5.
Step 2: the electric control center 6 starts the electrolysis devices 1-5, the electrolysis devices 1-5 carry out electrolysis treatment on the gas dust, and the dust falls downwards into the dust collection bins 1-6 after being separated from the gas.
And 3, step 3: in the electrolysis process, the electrolysis rate sensor 1-9 monitors the electrolysis capacity of the electrolysis loop 1-5-1 in real time, when the electrolysis rate sensor 1-9 detects that the electrolysis capacity is lower than 56% -74%, the electrolysis rate sensor 1-9 transmits a signal to the electric control center 6, and the electric control center 6 increases the voltage at two ends of the electrolysis loop 1-5-1, so that the electrolysis capacity of the electrolysis loop 1-5-1 is improved.
And 4, step 4: the separated dust is discharged through the dust discharge port 1-8, and when the inner wall of the dust collection bin 1-6 is excessively dirty, the dust collection bin 1-6 can be cleaned through the cleaning port 1-7.
And 5, step 5: when the air distribution pipe 1-4-5 works, air enters from the right end of the air inlet 1-4-5-1, enters into the turning chamber 1-4-5-3 to turn back, enters into the turning air passage 1-4-5-13 to move from left to right, enters into the pipe joint 1-4-5-2 to turn back, enters into the second air passage 1-4-5-10 from right to left, enters into the turning chamber 1-4-5-3, and sequentially passes through the turning chamber outlet 1-4-5-9, the distribution chamber 1-4-5-6 and the convergence chamber 1-4-5-4 under the acceleration effect of the air distribution pipe, and is sprayed out from the air outlet 1-4-5-5; when the drawing rod 1-4-5-11 moves leftwards and pushes the air plug 1-4-5-7 to be tightly contacted with the air outlet 1-4-5-5, the air outlet 1-4-5-5 is closed to prevent the air flow from flowing.
And 6, step 6: when the straight pipe dredger 1-4-6 works, the air inlet valve 1-4-6-6 is opened, high-pressure air enters the air cylinder 1-4-6-10 through the air inlet pipe 1-4-6-5, pressure is generated to push the left moving rod 1-4-6-4 and the right moving rod 1-4-6-3 to move rightwards along the air pressure chamber 1-4-6-3, air chamber pressure is generated, and the dredging rod 1-4-6-1 is pushed to dredge the straight pipe 1-4-4; when the air release valve 1-4-6-7 is controlled to be opened, the air release pipe 1-4-6-8 releases air in the air cylinder 1-4-6-10, and the air release pipe is driven to move back to the original position from the left end under the action of the return spring of the left moving rod 1-4-6-4; at the moment, the air pressure of the air pressure chamber 1-4-6-3 also drops rapidly, and the dredging rod 1-4-6-1 returns to the leftmost end under the action of the return spring.
And 7, step 7: during the operation of the front-back regulator 1-4-6-9, the motor 1-4-6-9-4 is regulated at the initial stage through the triangular arm 1-4-6-9-2 to regulate the coordinate measuring instrument 1-4-6-9-1 to align to the mark point in the straight pipe 1-4-4, and meanwhile, the length of the balancing column 1-4-6-9-5 is regulated through manually rotating the correcting knob 1-4-6-9-6, so that the lower swing long arm of the balancing column 1-4-6-9-5 and the horizontal forward extending long arm of the coordinate measuring instrument 1-4-6-9-1 form dynamic balance; meanwhile, the adjusting motor 1-4-6-9-4 drives the adsorption disc 1-4-6-9-3 to be adsorbed on the straight pipe dredger 1-4-6 by extending the suction disc telescopic arm 1-4-6-9-7; when the dredging rod 1-4-6-1 deviates forwards and backwards relative to the straight pipe 1-4-4 to cause the coordinate measuring instrument 1-4-6-9-1 to deviate from the mark point, the coordinate measuring instrument 1-4-6-9-1 generates an electric signal and feeds the electric signal back to the electric control center 6, and the position of the straight pipe dredging device 1-4-6-4 is adjusted by the adjusting motor 1-4-6-9-4 through the suction cup telescopic arm 1-4-6-9-7 and the adsorption disc 1-4-6-9-3, so that the dredging rod 1-4-6-1 and the straight pipe 1-4-4 are on the same axis.
And 8, step 8: when the steering chamber 1-4-5-3 works, cooling water enters the water tank 1-4-5-3-8 from the water inlet 1-4-5-3-1 outside the shell, cools the rotating shell 1-4-5-3-3 rotating clockwise, and flows out from the water outlet 1-4-5-3-6 outside the shell; cooling water enters from the axial water inlet and outlet pipe 1-4-5-3-2 and enters the rotating groove-shaped blade 1-4-5-3-5 through the blade pipe 1-4-5-3-4 to stir and cool the airflow so as to accelerate the disturbance of the airflow and spray the airflow from the opening end of the rotating shell 1-4-5-3-3; the cooling water flows out through the paddle pipe 1-4-5-3-4 and the axial water inlet and outlet pipe 1-4-5-3-2 at the other end.
Step 9: when the chamber rotator 1-4-5-3-9 works, the two lifting brackets 1-4-5-3-9-4 are controlled to ascend, and the rotary drum shaft 1-4-5-3-9-2 and the rotary drum 1-4-5-3-9-3 on the upper part are lifted, so that the rotary drum 1-4-5-3-9-3 is contacted with the inner wall of the rotary shell 1-4-5-3-3; under the drive of the controlled motor, the rotating drum 1-4-5-3-9-3 drives the rotating shell 1-4-5-3-3 to rotate.
Step 10: when the pipe joint member 1-4-7 is in operation, air flow passes through the expansion hose 1-4-7-3, and when generated dust is attached to the inner surface and the outer surface of the expansion hose; the outer ring 1-4-7-1 of the pipe is driven by the outer ring vibrating spring 1-4-7-5, and the inner ring 1-4-7-4 of the pipe is driven by the vibrator to move left and right and vibrate, so that dust is promoted to fall off.
The invention has the advantages that: the dust removal device has the advantages of reasonable and compact structure, good dust removal effect, novel and reasonable structure and wide application range.
Drawings
FIG. 1 is a diagram of a dust-removing apparatus with self-cleaning function according to the present invention.
FIG. 2 is a diagram of a dust removal tower 1 according to the present invention.
Fig. 3 is a diagram of a filter device 1-4 according to the invention.
FIG. 4 is a view of an electrolytic apparatus 1-5 according to the present invention.
FIG. 5 is a view of the gas distribution pipe 1-4-5 of the present invention.
FIG. 6 is a drawing of a straight pipe dredger 1-4-6 in the invention.
FIG. 7 is a view of the front-rear regulator 1-4-6-9 of the present invention.
FIG. 8 is a view of the turn-around chamber 1-4-5-3 of the present invention.
Fig. 9 is a view of the chamber rotator 1-4-5-3-9 according to the present invention.
FIG. 10 is a view of the pipe coupling 1-4-7 of the present invention.
Detailed Description
The following will further describe the self-cleaning dust removing equipment and the block chain benefit calculation method provided by the invention with reference to the accompanying drawings and embodiments.
FIG. 1 is a diagram of a calculation method for the benefit of a self-cleaning dust-removing apparatus and a block chain. The method comprises the following steps: the device comprises a dust removing tower 1, a leg support 2, a ladder stand 3, a ladder stand safety fence 4, a top guardrail 5 and an electric control center 6; the bottom of the dedusting tower 1 is fixedly provided with a leg support 2, the crawling ladder 3 is fixedly arranged on the side wall of the dedusting tower 1, and the crawling ladder and the dedusting tower are welded and fixed; the ladder stand safety fence 4 is positioned at the upper position of the side wall of the ladder stand 3, and the ladder stand safety fence and the ladder stand are welded and fixed; the top guardrail 5 is positioned on the upper surface of the dust removing tower 1 and is welded and fixed; the electric control center 6 is positioned at one side of the leg support 2.
FIG. 2 is a diagram of a dust removal tower 1 according to the present invention. The dust removal tower 1 comprises: 1-1 part of an electrolysis bin, 1-2 parts of a filtering bin, 1-3 parts of an access hole, 1-4 parts of a filtering device, 1-5 parts of an electrolysis device, 1-6 parts of a dust collecting bin, 1-7 parts of a cleaning hole, 1-8 parts of a dust discharge hole and 1-9 parts of an electrolysis rate sensor; the upper surface of the electrolysis bin 1-1 is provided with a filtering bin 1-2, the filtering bin 1-2 is communicated with the inside of the electrolysis bin, a dust pretreatment system is arranged inside the filtering bin 1-2, the upper surface of the filtering bin 1-2 is provided with access ports 1-3, and the number of the access ports 1-3 is 2; the filtering devices 1-4 penetrate into the filtering bins 1-2 from the upper part, and the number of the filtering devices 1-4 is 2; the electrolysis device 1-5 is positioned in the electrolysis bin 1-1, the total height of the electrolysis device 1-5 is the same as that of the electrolysis bin 1-1, and the positive and negative electrodes of the electrolysis device 1-5 are respectively connected with a lead of the electric control center 6; the dust collection bin 1-6 is positioned on the lower surface of the electrolysis bin 1-1, the interior of the electrolysis bin and the interior of the dust collection bin are communicated, the dust collection bin 1-6 is of a prismoid structure, the side wall of the dust collection bin is provided with a cleaning opening 1-7, and the bottom surface of the dust collection bin is provided with a dust discharge opening 1-8; the electrolysis rate sensor 1-9 is positioned on the surface of the inner wall of the electrolysis bin 1-1 and is connected with the electric control center 6 through a lead.
Fig. 3 is a diagram of a filter device 1-4 according to the invention. The filtering device 1-4 comprises: 1-4-1 parts of filter box, 1-4-2 parts of air inlet channel, 1-4-3 parts of bent pipe, 1-4-4 parts of straight pipe, 1-4-5 parts of air distribution pipe, 1-4-6 parts of straight pipe dredger, 1-4-7 parts of pipe connector, 1-4-8 parts of straight pipe slideway and 1-4-9 parts of bent pipe expander; the upper surface of the filter box 1-4-1 is provided with an air inlet channel 1-4-2, the interior of the air inlet channel 1-4-1 and the interior of the air inlet channel are communicated, and the surface of the air inlet channel 1-4-2 is provided with an electromagnetic valve; one end of the elbow 1-4-3 is connected with the inside of the filter box 1-4-1, the other end of the elbow 1-4-3 is connected with the straight pipe 1-4-4 through the pipe connector 1-4-7 and the elbow expander 1-4-9, wherein the elbow expander 1-4-9 is positioned at a 90-degree corner; the straight pipe 1-4-4 is communicated with the vertically arranged gas distribution pipe 1-4-5; the straight pipe dredger 1-4-6 is positioned at the end part of the straight pipe 1-4-4; the straight tube slideway 1-4-8 lifts the straight tube 1-4-4 and is connected with the straight tube in a sliding way.
FIG. 4 is a view of an electrolytic apparatus 1-5 according to the present invention. The electrolytic device 1 to 5 includes: 1-5-1 parts of an electrolysis ring, 1-5-2 parts of a connecting rod and 1-5-3 parts of an electrolysis base; the electrolytic rings 1-5-1 are annular and horizontally arranged, and the number of the electrolytic rings is not less than 4 groups; each group of electrolytic rings 1-5-1 are connected through connecting rods 1-5-2, and at least 5 groups of connecting rods 1-5-2 are uniformly arranged along the circumferential direction of the circle center of each electrolytic ring 1-5-1; the electrolytic base 1-5-3 is positioned on the bottom surface of the electrolytic ring 1-5-1, and the upper surface of the electrolytic base 1-5-3 is provided with an annular groove.
FIG. 5 is a view of the gas distribution pipe 1-4-5 of the present invention. The gas distribution pipe 1-4-5 comprises: 1-4-5-1 part of an air inlet channel, 1-4-5-2 parts of a pipe joint, 1-4-5-3 parts of a steering chamber, 1-4-5-4 parts of a convergence chamber, 1-4-5-5 parts of an air outlet, 1-4-5-6 parts of a distribution chamber, 1-4-5-7 parts of an air plug, 1-4-5-8 parts of a varicosity mechanism, 1-4-5-9 parts of an outlet of the steering chamber, 1-4-5-10 parts of a second air passage, 1-4-5-11 parts of a drawing rod, 1-4-5-12 parts of an air flow trend path and 1-4-5-13 parts of a return air passage; one end of an air inlet channel 1-4-5-1 at the right end is communicated with the straight pipe 1-4-4, the other end is communicated with a reentry air channel 1-4-5-13, and air flow moves from right to left in the air inlet channel 1-4-5-1; because the right side of the turning chamber 1-4-5-3 is closed, the airflow turns back when meeting the right side of the turning chamber 1-4-5-3 and moves from left to right in the turning air passage 1-4-5-13; the reentry air passage 1-4-5-13 is communicated with a second air passage 1-4-5-10 positioned in the reentry air passage, the right ends of the reentry air passage and the second air passage are provided with pipe joints 1-4-5-2 with the air flow reentry function, and the air flow enters the second air passage 1-4-5-10 to be retraced and moves from right to left; the left end part of the second air passage 1-4-5-10 is communicated with the turning chamber 1-4-5-3, the left end part of the turning chamber 1-4-5-3 is provided with a turning chamber outlet 1-4-5-9, air flow enters the turning chamber 1-4-5-3 and sequentially passes through the distribution chamber 1-4-5-6 and the convergence chamber 1-4-5-4 from the turning chamber outlet 1-4-5-9 under the action of rotation acceleration, and is finally sprayed out from the air outlet 1-4-5-5; a drawing rod 1-4-5-11 capable of sliding left and right along the central axis is arranged on the central axis of the air inlet channel 1-4-5-1, a wind block 1-4-5-7 is arranged at the other end of the drawing rod 1-4-5-11, and the wind block 1-4-5-7 is tightly attached to the air outlet 1-4-5-5 when moving left to the end; the airflow moving path 1-4-5-12 is an airflow moving track in an open state of the air plug 1-4-5-7; the return is beneficial to separating air from dust.
FIG. 6 is a drawing of a straight pipe dredger 1-4-6 in the invention. The straight pipe dredger 1-4-6 comprises: 1-4-6-1 parts of dredging rods, 1-4-6-2 parts of upper and lower regulators, 1-4-6-3 parts of air pressure chambers, 1-4-6-4 parts of left and right moving rods, 1-4-6-5 parts of air inlet pipes, 1-4-6-6 parts of air inlet valves, 1-4-6-7 parts of air release valves, 1-4-6-8 parts of air release pipes, 1-4-6-9 parts of front and rear regulators and 1-4-6-10 parts of air cylinders; the dredging rod 1-4-6-1 at one end slides left and right along the air pressure chamber 1-4-6-3, one end of the dredging rod is inserted into the straight pipe 1-4-4, the other end of the dredging rod forms a piston which slides in the air pressure chamber 1-4-6-3, and a return spring is arranged to enable the dredging rod to be at the leftmost end in an initial state; the upper part and the lower part of the straight pipe dredger 1-4-6 are respectively provided with an upper and lower regulator 1-4-6-2 and a front and rear regulator 1-4-6-9, and the upper and lower regulators and the front and rear regulators respectively regulate the straight pipe dredger 1-4-6 up and down and front and rear; a left moving rod 1-4-6-4 is arranged on the left side of the air pressure chamber 1-4-6-3 in a sliding manner, and the left moving rod 1-4-6-4 moves left and right in the air pressure chamber 1-4-6-3 and the air cylinder 1-4-6-10; a cylinder 1-4-6-10 is arranged on the left side of the left and right moving rods 1-4-6-4 to increase output power, and is respectively communicated with an air inlet pipe 1-4-6-5 and an air discharge pipe 1-4-6-8; the air inlet valves 1-4-6-6 and the air release valves 1-4-6-7 are connected with the electric control center 6 through leads and respectively control the air inlet pipes 1-4-6-5 to enter air and the air release pipes 1-4-6-8 to release air.
FIG. 7 is a view of the front-rear regulator 1-4-6-9 of the present invention. The front-rear regulator 1-4-6-9 includes: 1-4-6-9-1 coordinate measuring instrument, 1-4-6-9-2 triangular arm, 1-4-6-9-3 adsorption disc, 1-4-6-9-4 adjusting motor, 1-4-6-9-5 balance column, 1-4-6-9-6 correcting knob, 1-4-6-9-7 sucker telescopic arm and 1-4-6-9-8 adjusting base; the adjusting base 1-4-6-9-8 positioned on one side is fixedly connected with the adjusting motor 1-4-6-9-4, and the adjusting motor 1-4-6-9-4 is in driving connection with the coordinate measuring instrument 1-4-6-9-1 through the triangular arm 1-4-6-9-2; the coordinate measuring instrument 1-4-6-9-1 tracks the mark points in the straight pipe 1-4-4 in real time through the sensors; in addition, the adjusting motor 1-4-6-9-4 is in driving connection with the adsorption disc 1-4-6-9-3 through one end of the suction disc telescopic arm 1-4-6-9-7; wherein one end of the adsorption disc 1-4-6-9-3 is fixedly adsorbed with the straight pipe dredger 1-4-6; the balance column 1-4-6-9-5 for keeping the balance of the system is movably connected with the other end of the sucker telescopic arm 1-4-6-9-7 through the adjusting function of the correcting knob 1-4-6-9-6; the telescopic arm 1-4-6-9-7 and the balance column 1-4-6-9-5 are all designed in a telescopic structure, wherein the telescopic arm 1-4-6-9-7 is controlled by an electric control center 6, and the telescopic column 1-4-6-9-5 is controlled by a correction knob 1-4-6-9-6; the coordinate measuring instrument 1-4-6-9-1 and the adjusting motor 1-4-6-9-4 are connected with an electric control center 6 through leads; the adjusting base 1-4-6-9-8 is connected with the base.
FIG. 8 is a view of the turn-around chamber 1-4-5-3 of the present invention. The turn-around chamber 1-4-5-3 includes: 1-4-5-3-1 part of water enters the shell, 1-4-5-3-2 parts of an axial water inlet and outlet pipe, 1-4-5-3-3 parts of a rotary shell, 1-4-5-3-4 parts of a paddle pipe, 1-4-5-3-5 parts of a groove-shaped paddle, 1-4-5-3-6 parts of water exits from the shell, 1-4-5-3-7 parts of a filter screen, 1-4-5-3-8 parts of a water tank and 1-4-5-3-9 parts of a chamber rotator; the horizontally placed rotating shell 1-4-5-3-3 is cylindrical, one end of the horizontally placed rotating shell is closed, and the chamber rotator 1-4-5-3-9 drives the rotating shell 1-4-5-3-3 to rotate clockwise; the air flow enters from the closed end of the rotary shell 1-4-5-3-3 and exits from the other end; the four water tanks 1-4-5-3-8 are fixed at equal angles and independent of the rotary shell 1-4-5-3-3 and are tightly attached to the outer surface of the rotary shell 1-4-5-3-3, one end of each water tank 1-4-5-3-8 is communicated with the inlet water 1-4-5-3-1 outside the shell, and the other end of each water tank 1-4-5-3-6 is communicated with the outlet water 1-4-5-3-6 outside the shell; six groove-shaped blades 1-4-5-3-5 are communicated with each other at equal angles through twelve blade pipes 1-4-5-3-4 at two ends of the six groove-shaped blades, the end parts of the blade pipes 1-4-5-3-4 are communicated with an axial water inlet and outlet pipe 1-4-5-3-2, a water inlet and outlet double-path pipeline is arranged in the axial water inlet and outlet pipe 1-4-5-3-2, and the blade pipes 1-4-5-3-4 drive the groove-shaped blades 1-4-5-3-5 to rotate anticlockwise; the six groove-shaped blades 1-4-5-3-5 are internally provided with filter screens 1-4-5-3-7.
Fig. 9 is a view of the chamber rotator 1-4-5-3-9 according to the present invention. The chamber rotator 1-4-5-3-9 includes: shaft support 1-4-5-3-9-1, rotary drum shaft 1-4-5-3-9-2, rotary drum 1-4-5-3-9-3, lifting support 1-4-5-3-9-4 and lifting base 1-4-5-3-9-5; the lifting base 1-4-5-3-9-5 is positioned at the bottom, the upper part of the lifting base is provided with two lifting supports 1-4-5-3-9-4, the included angle between the two lifting supports is 120 degrees and can be controlled to lift, and the two lifting supports are respectively hinged with the two ends of the upper drum shaft 1-4-5-3-9-2 through bearings; one end of the rotary drum shaft 1-4-5-3-9-2 penetrates through the shaft support 1-4-5-3-9-1 to be connected with the controlled motor, the middle part of the rotary drum shaft is welded with the rotary drum 1-4-5-3-9-3, and the VA vinyl acetate material on the surface of the rotary drum 1-4-5-3-9-3 is used for skid resistance; the lifting base 1-4-5-3-9-5 is fixed with the shaft support 1-4-5-3-9-1 base.
FIG. 10 is a view of the pipe coupling 1-4-7 of the present invention. The pipe joint member 1-4-7 includes: 1-4-7-1 part of an outer ring of the pipe, 1-4-7-2 parts of a telescopic spring, 1-4-7-3 parts of an expansion hose, 1-4-7-4 parts of an inner ring of the pipe and 1-4-7-5 parts of an outer ring vibration spring; two ends of the expansion hose 1-4-7-3 are respectively communicated with the bent pipe 1-4-3 and the straight pipe 1-4-4, and can be expanded and contracted, and the outer ring of the expansion hose 1-4-7-3 is sequentially provided with an outer ring 1-4-7-1 and a telescopic spring 1-4-7-2; the outer ring 1-4-7-1 of the pipe slides along the outer wall of the expansion hose 1-4-7-3, the other end of the outer ring is connected with four outer ring vibration springs 1-4-7-5, and the other end of the outer ring vibration spring 1-4-7-5 is connected with an external vibrator; the inner ring 1-4-7-4 of the pipe is positioned at one end of the interior of the expansion hose 1-4-7-3 and slides along the inner wall of the expansion hose 1-4-7-3; the expansion spring 1-4-7-2 prevents the expansion hose 1-4-7-3 from bursting due to over expansion; the outer ring 1-4-7-1 of the pipe and the inner ring 1-4-7-4 of the pipe can expand and scrape dust attached to the wall of the inner pipe and the outer pipe.
In order to effectively calculate the work efficiency information of the dust removal equipment, a large data management cloud platform established based on the equipment uses a background cloud storage and cloud server system, and applies a hash algorithm to perform distributed storage (such as dust particle size, chemical components, physical components, chemical stability and flammability) on data and file addresses, obtains the latest algorithm process through intelligent constraint of a block chain, and obtains corresponding data from a cloud storage server.
The specific calculation process is further illustrated by the following examples.
Example 1
When x-unit dedusting weight power consumption =600 (Kw);a-mechanical energy loss =90 (KJ);n-reactive power =45 (Kw);hdust density =12 (g/cm)3）。
Substituting the following formula into the device to improve the working efficiency of the device by using the block chain theory（GZXL）The calculation results are as follows:
example 2
When x-unit dedusting weight power consumption =500 (Kw);a-mechanical energy loss =80 (KJ);n-reactive power =40 (Kw);hdust density =14 (g/cm)3）。
Substituting the following formula into the device to improve the working efficiency of the device by using the block chain theory（GZXL）The calculation results are as follows:
Claims (10)
1. a dust collecting apparatus having self-cleaning, comprising: the device comprises a dust removing tower (1), a leg support (2), a ladder (3), a ladder safety fence (4), a top guardrail (5) and an electric control center (6); the leg support is characterized in that a leg support (2) is fixed at the bottom of the dust removing tower (1), the ladder stand (3) is fixed on the side wall of the dust removing tower (1), and the ladder stand and the dust removing tower are welded and fixed; the ladder stand safety fence (4) is positioned at the upper position of the side wall of the ladder stand (3) and is welded and fixed with the ladder stand safety fence; the top layer guardrail (5) is positioned on the upper surface of the dust removing tower (1) and is welded and fixed; the electric control center (6) is positioned at one side of the leg support (2);
the dust removing tower (1) is provided with a filtering device (1-4);
the filtering device (1-4) is provided with a pipe connector (1-4-7);
the pipe joint member (1-4-7) includes: the device comprises an outer ring (1-4-7-1) of the pipe, a telescopic spring (1-4-7-2), an expansion hose (1-4-7-3), an inner ring (1-4-7-4) of the pipe and an outer ring vibration spring (1-4-7-5); two ends of the expansion hose (1-4-7-3) are respectively communicated with the bent pipe (1-4-3) and the straight pipe (1-4-4), and the expansion hose can be expanded and contracted, wherein the outer ring of the expansion hose (1-4-7-3) is sequentially provided with an outer pipe ring (1-4-7-1) and a telescopic spring (1-4-7-2); the outer ring (1-4-7-1) of the pipe slides along the outer wall of the expansion hose (1-4-7-3), the other end of the outer ring is connected with four outer ring vibration springs (1-4-7-5), and the other end of each outer ring vibration spring (1-4-7-5) is connected with an external vibrator; the inner tube ring (1-4-7-4) is positioned at one end inside the expansion hose (1-4-7-3) and slides along the inner wall of the expansion hose (1-4-7-3); the expansion spring (1-4-7-2) prevents the expansion hose (1-4-7-3) from being burst due to over expansion; the outer ring (1-4-7-1) and the inner ring (1-4-7-4) of the tube can expand and scrape dust attached to the wall of the inner tube and the outer tube.
2. -self-cleaning dusting equipment according to claim 1, characterized in that said dusting tower (1) comprises: the device comprises an electrolysis bin (1-1), a filtering bin (1-2), an access hole (1-3), a filtering device (1-4), an electrolysis device (1-5), a dust collecting bin (1-6), a cleaning hole (1-7), a dust discharging hole (1-8) and an electrolysis rate sensor (1-9); the upper surface of the electrolysis bin (1-1) is provided with filter bins (1-2), the filter bins and the filter bins are communicated with each other, a dust pretreatment system is arranged in each filter bin (1-2), the upper surface of each filter bin (1-2) is provided with access holes (1-3), and the number of the access holes (1-3) is 2; the filtering devices (1-4) penetrate into the filtering bins (1-2) from the upper part, and the number of the filtering devices (1-4) is 2; the electrolysis device (1-5) is positioned in the electrolysis bin (1-1), the total height of the electrolysis device (1-5) is the same as that of the electrolysis bin (1-1), and the positive electrode and the negative electrode of the electrolysis device (1-5) are respectively connected with a lead of the electric control center (6); the dust collecting bin (1-6) is positioned on the lower surface of the electrolytic bin (1-1), the interior of the electrolytic bin and the interior of the electrolytic bin are communicated, the dust collecting bin (1-6) is of a frustum pyramid structure, a cleaning opening (1-7) is formed in the side wall of the dust collecting bin, and a dust discharge opening (1-8) is formed in the bottom surface of the dust collecting bin; the electrolysis rate sensor (1-9) is positioned on the inner wall surface of the electrolysis bin (1-1) and is connected with the electric control center (6) through a lead.
3. -self-cleaning dusting equipment according to claim 2, characterized in that said filtering means (1-4) comprise: the device comprises a filter box (1-4-1), an air inlet channel (1-4-2), an elbow (1-4-3), a straight pipe (1-4-4), an air distribution pipe (1-4-5), a straight pipe dredger (1-4-6), a pipe connector (1-4-7), a straight pipe slideway (1-4-8) and an elbow expander (1-4-9); the upper surface of the filter box (1-4-1) is provided with an air inlet channel (1-4-2), the interior of the filter box and the interior of the filter box are communicated, and the surface of the air inlet channel (1-4-2) is provided with an electromagnetic valve; one end of the elbow (1-4-3) is connected with the inside of the filter box (1-4-1), the other end of the elbow (1-4-3) is connected with the straight pipe (1-4-4) through a pipe connector (1-4-7) and an elbow expander (1-4-9), wherein the elbow expander (1-4-9) is positioned at a 90-degree corner; the straight pipe (1-4-4) is communicated with the vertically distributed air distribution pipe (1-4-5); the straight pipe dredger (1-4-6) is positioned at the end part of the straight pipe (1-4-4); the straight tube slideway (1-4-8) lifts the straight tube (1-4-4) and is connected with the straight tube slideway in a sliding way.
4. -self-cleaning dust-collecting equipment according to claim 3, characterized in that said electrolysis device (1-5) comprises: an electrolytic ring (1-5-1), a connecting rod (1-5-2) and an electrolytic base (1-5-3); the electrolytic rings (1-5-1) are annularly and horizontally arranged, and the number of the electrolytic rings is not less than 4; each group of electrolytic rings (1-5-1) are connected through connecting rods (1-5-2), and not less than 5 groups of connecting rods (1-5-2) are uniformly arranged along the circumferential direction of the circle center of each electrolytic ring (1-5-1); the electrolysis base (1-5-3) is positioned on the bottom surface of the electrolysis ring (1-5-1), and the upper surface of the electrolysis base (1-5-3) is provided with an annular groove.
5. Equipment with self-cleaning and dust-removing function according to claim 4, characterized in that the gas distribution pipe (1-4-5) comprises: the air inlet channel (1-4-5-1), the pipe joint (1-4-5-2), the turning chamber (1-4-5-3), the gathering chamber (1-4-5-4), the air outlet (1-4-5-5), the distribution chamber (1-4-5-6), the air plug (1-4-5-7), the varix mechanism (1-4-5-8), the turning chamber outlet (1-4-5-9), the second air passage (1-4-5-10), the drawing rod (1-4-5-11), the air flow path (1-4-5-12) and the return air passage (1-4-5-13); one end of an air inlet channel (1-4-5-1) at the right end is communicated with the straight pipe (1-4-4), the other end is communicated with the reentry air channel (1-4-5-13), and air flow moves from right to left in the air inlet channel (1-4-5-1); because the right side of the turning chamber (1-4-5-3) is closed, the airflow turns back when meeting the right side of the turning chamber (1-4-5-3) and moves from left to right in the turning air passage (1-4-5-13); the reentry air passage (1-4-5-13) is communicated with a second air passage (1-4-5-10) positioned in the reentry air passage, a pipe joint (1-4-5-2) with an air flow reentry function is arranged at the right ends of the reentry air passage and the second air passage, and the air flow enters the second air passage (1-4-5-10) to be reentry and moves from right to left; the left end part of the second air passage (1-4-5-10) is communicated with the turning chamber (1-4-5-3), the left end part of the turning chamber (1-4-5-3) is provided with a turning chamber outlet (1-4-5-9), and air flow enters the turning chamber (1-4-5-3) and sequentially passes through the distribution chamber (1-4-5-6) and the convergence chamber (1-4-5-4) from the turning chamber outlet (1-4-5-9) under the action of rotation acceleration of the air flow and is finally sprayed out from the air outlet (1-4-5-5); a drawing rod (1-4-5-11) capable of sliding left and right along the central axis is arranged on the central axis of the air inlet (1-4-5-1), a wind block (1-4-5-7) is arranged at the other end of the drawing rod (1-4-5-11), and the wind block (1-4-5-7) is tightly attached to the air outlet (1-4-5-5) when moving left to the end; the airflow moving path (1-4-5-12) is an airflow moving track in the opening state of the air plug (1-4-5-7); the return is beneficial to separating air from dust.
6. Self-cleaning dust-removing equipment according to claim 5, wherein the straight pipe dredger (1-4-6) comprises: the air cylinder comprises a dredging rod (1-4-6-1), an upper regulator (1-4-6-2), a lower regulator (1-4-6-3), an air pressure chamber (1-4-6-3), a left moving rod (1-4-6-4), a right moving rod (1-4-6-4), an air inlet pipe (1-4-6-5), an air inlet valve (1-4-6-6), an air release valve (1-4-6-7), an air release pipe (1-4-6-8), a front regulator (1-4-6-9) and a rear regulator (1-4-6-10); the dredging rod (1-4-6-1) positioned at one end slides left and right along the air pressure chamber (1-4-6-3), one end of the dredging rod is inserted into the straight pipe (1-4-4), the other end of the dredging rod forms a piston which slides in the air pressure chamber (1-4-6-3), and a return spring is arranged to enable the dredging rod to be at the leftmost end in an initial state; the upper part and the lower part of the straight pipe dredging device (1-4-6) are respectively provided with an up-down regulator (1-4-6-2) and a front-back regulator (1-4-6-9), and the up-down and front-back regulation of the straight pipe dredging device (1-4-6) are respectively implemented; a left moving rod and a right moving rod (1-4-6-4) are arranged on the left side of the air pressure chamber (1-4-6-3) in a sliding manner, and the left moving rod and the right moving rod (1-4-6-4) move left and right in the air pressure chamber (1-4-6-3) and the air cylinder (1-4-6-10); a cylinder (1-4-6-10) is arranged on the left side of the left and right moving rods (1-4-6-4) to increase output power, and is respectively communicated with an air inlet pipe (1-4-6-5) and an air discharge pipe (1-4-6-8); the air inlet valve (1-4-6-6) and the air release valve (1-4-6-7) are connected with the electric control center (6) through leads and respectively control the air inlet of the air inlet pipe (1-4-6-5) and the air release of the air release pipe (1-4-6-8).
7. -dust-removing device with self-cleaning according to claim 6, characterised in that said front-rear regulator (1-4-6-9) comprises: the device comprises a coordinate measuring instrument (1-4-6-9-1), a triangular arm (1-4-6-9-2), an adsorption disc (1-4-6-9-3), an adjusting motor (1-4-6-9-4), a balance column (1-4-6-9-5), a correcting knob (1-4-6-9-6), a sucker telescopic arm (1-4-6-9-7) and an adjusting base (1-4-6-9-8); the adjusting base (1-4-6-9-8) positioned on one side is fixedly connected with the adjusting motor (1-4-6-9-4), and the adjusting motor (1-4-6-9-4) is in driving connection with the coordinate measuring instrument (1-4-6-9-1) through the triangular arm (1-4-6-9-2); the coordinate measuring instrument (1-4-6-9-1) tracks the mark points in the straight pipe (1-4-4) in real time through the sensors; in addition, the adjusting motor (1-4-6-9-4) is in driving connection with the adsorption disc (1-4-6-9-3) through one end of the suction disc telescopic arm (1-4-6-9-7); wherein one end of the adsorption disc (1-4-6-9-3) is fixedly adsorbed with the straight pipe dredger (1-4-6); the balance column (1-4-6-9-5) for keeping the balance of the system is movably connected with the other end of the suction cup telescopic arm (1-4-6-9-7) through the adjusting function of the correcting knob (1-4-6-9-6); the telescopic arm (1-4-6-9-7) and the balance column (1-4-6-9-5) are all designed in a telescopic structure, wherein the telescopic arm (1-4-6-9-7) is controlled by an electric control center (6) in a telescopic mode, and the telescopic column (1-4-6-9-5) is controlled by a correction knob (1-4-6-9-6); the coordinate measuring instrument (1-4-6-9-1) and the adjusting motor (1-4-6-9-4) are connected with the electric control center (6) through leads; the adjusting base (1-4-6-9-8) is connected with the base.
8. -self-cleaning dusting device according to claim 7, characterised in that said diverting chamber (1-4-5-3) comprises: water inlet outside the shell (1-4-5-3-1), an axial water inlet and outlet pipe (1-4-5-3-2), a rotating shell (1-4-5-3-3), a paddle pipe (1-4-5-3-4), a groove-shaped paddle (1-4-5-3-5), water outlet outside the shell (1-4-5-3-6), a filter screen (1-4-5-3-7), a water tank (1-4-5-3-8) and a chamber rotator (1-4-5-3-9); the horizontally placed rotating shell (1-4-5-3-3) is cylindrical, one end of the horizontally placed rotating shell is closed, and the chamber rotator (1-4-5-3-9) drives the rotating shell (1-4-5-3-3) to rotate clockwise; the air flow enters from the closed end of the rotating shell (1-4-5-3-3) and exits from the other end; the four water tanks (1-4-5-3-8) are fixed at equal angles, are independent from the rotating shell (1-4-5-3-3) and are tightly attached to the outer surface of the rotating shell (1-4-5-3-3), one end of each water tank (1-4-5-3-8) is communicated with the water inlet (1-4-5-3-1) outside the shell, and the other end of each water tank (1-4-5-3-6) outside the shell is communicated with the water outlet (1-4-5-3-6) outside the shell; six groove-shaped blades (1-4-5-3-5) are communicated with each other at equal angles through twelve blade pipes (1-4-5-3-4) at two ends of the six groove-shaped blades, the end parts of the blade pipes (1-4-5-3-4) are communicated with an axial water inlet and outlet pipe (1-4-5-3-2), a water inlet and outlet double-way pipeline is arranged in the axial water inlet and outlet pipe (1-4-5-3-2), and the blade pipes (1-4-5-3-4) drive the groove-shaped blades (1-4-5-3-5) to rotate anticlockwise; the six trough-shaped blades (1-4-5-3-5) are internally provided with filter screens (1-4-5-3-7).
9. -self-cleaning dusting device according to claim 8, characterised in that the chamber rotator (1-4-5-3-9) comprises: shaft support (1-4-5-3-9-1), drum shaft (1-4-5-3-9-2), drum (1-4-5-3-9-3), lifting support (1-4-5-3-9-4) and lifting base (1-4-5-3-9-5); the lifting base (1-4-5-3-9-5) is positioned at the bottom, the upper part of the lifting base is provided with two lifting supports (1-4-5-3-9-4), the included angle between the two lifting supports is 120 degrees, the lifting supports are controlled to lift, and the two lifting supports are respectively hinged with the two ends of the upper drum shaft (1-4-5-3-9-2) through bearings; one end of the rotating drum shaft (1-4-5-3-9-2) penetrates through the shaft support (1-4-5-3-9-1) to be connected with the controlled motor, the middle part of the rotating drum shaft is welded with the rotating drum (1-4-5-3-9-3), and the VA vinyl acetate material on the surface of the rotating drum (1-4-5-3-9-3) is used for skid resistance; the lifting base (1-4-5-3-9-5) is fixed with the base of the shaft bracket (1-4-5-3-9-1).
10. A device according to claim 9, having a self-cleaning dust-removing function, characterized in that the method comprises the following steps:
step 1: the electric control center (6) opens the electromagnetic valve on the surface of the air inlet channel (1-4-2), the gas enters the filter box (1-4-1) through the air inlet channel (1-4-2), is filtered by the filter box (1-4-1), enters the bent pipe (1-4-3) and the straight pipe (1-4-4), and is uniformly distributed into the electrolytic bin (1-1) through the gas distribution pipe (1-4-5);
step 2: the electric control center (6) starts the electrolysis device (1-5), the electrolysis device (1-5) carries out electrolysis treatment on gas dust, and the dust falls into the dust collection bin (1-6) after being separated from the gas;
and 3, step 3: in the electrolytic process, the electrolytic capacity of the electrolytic ring (1-5-1) is monitored by the electrolytic rate sensor (1-9) in real time, when the electrolytic rate sensor (1-9) detects that the electrolytic capacity is lower than 56% -74%, the electrolytic rate sensor (1-9) transmits a signal to the electric control center (6), the electric control center (6) increases the voltage at two ends of the electrolytic ring (1-5-1), and the electrolytic capacity of the electrolytic ring (1-5-1) is improved;
and 4, step 4: the separated dust is discharged through a dust discharge port (1-8), and when the inner wall of the dust collection bin (1-6) is dirty, the dust collection bin (1-6) can be cleaned through a cleaning port (1-7);
and 5, step 5: when the gas distribution pipe (1-4-5) works, gas enters from the right end of the gas inlet (1-4-5-1), turns back when encountering the diversion chamber (1-4-5-3), enters the turning back gas passage (1-4-5-13) and moves from left to right, turns back when encountering the pipe joint (1-4-5-2), enters the second gas passage (1-4-5-10) from right to left, and enters the diversion chamber (1-4-5-3), under the acceleration action of the air, the air is sprayed out from the air outlet (1-4-5-5) through the outlet (1-4-5-9) of the steering chamber, the distribution chamber (1-4-5-6) and the convergence chamber (1-4-5-4) in sequence; when the drawing rod (1-4-5-11) moves leftwards and pushes the air plug (1-4-5-7) to be in close contact with the air outlet (1-4-5-5), the air outlet (1-4-5-5) is closed to prevent the air flow from flowing;
and 6, step 6: when the straight pipe dredger (1-4-6) works, the air inlet valve (1-4-6-6) is opened, high-pressure air enters the air cylinder (1-4-6-10) through the air inlet pipe (1-4-6-5), pressure is generated to push the left and right moving rods (1-4-6-4) to move rightwards along the air pressure chamber (1-4-6-3), air chamber pressure is generated, and the dredging rod (1-4-6-1) is pushed to dredge the straight pipe (1-4-4); when the air release valve (1-4-6-7) is controlled to be opened, the air release pipe (1-4-6-8) releases air of the air cylinder (1-4-6-10), and the air release valve is driven to move back to the original position to the left end under the action of a return spring of the left and right moving rods (1-4-6-4); at the moment, the air pressure of the air pressure chamber (1-4-6-3) also drops rapidly, and the dredging rod (1-4-6-1) returns to the leftmost end under the action of the return spring;
and 7, step 7: during the operation of the front-rear regulator (1-4-6-9), the initial-stage regulating motor (1-4-6-9-4) regulates the coordinate measuring instrument (1-4-6-9-1) through the triangular arm (1-4-6-9-2) to align the coordinate measuring instrument (1-4-4) with a mark point in the straight pipe (1-4-4), and simultaneously, the length of the balancing column (1-4-6-9-5) is regulated through manually rotating the correcting knob (1-4-6-9-6) so that the lower swing long arm of the balancing column (1-4-6-9-5) and the horizontal forward extending long arm of the coordinate measuring instrument (1-4-6-9-1) form dynamic balance; meanwhile, the adjusting motor (1-4-6-9-4) drives the adsorption disc (1-4-6-9-3) to be adsorbed on the straight pipe dredger (1-4-6) by extending the suction disc telescopic arm (1-4-6-9-7); when the dredging rod (1-4-6-1) deviates back and forth relative to the straight pipe (1-4-4) to cause the coordinate measuring instrument (1-4-6-9-1) to deviate from a mark point, the coordinate measuring instrument (1-4-6-9-1) generates an electric signal to be fed back to the electric control center (6), and the position of the straight pipe dredging device (1-4-6) is adjusted by the adjusting motor (1-4-6-9-4) through the suction cup telescopic arm (1-4-6-9-7) and the suction cup (1-4-6-9-3), so that the dredging rod (1-4-6-1) and the straight pipe (1-4-4) are on the same axis;
and 8, step 8: when the steering chamber (1-4-5-3) works, cooling water enters the water tank (1-4-5-3-8) from the water inlet (1-4-5-3-1) outside the shell, cools the rotating shell (1-4-5-3-3) rotating clockwise, and flows out from the water outlet (1-4-5-3-6) outside the shell; cooling water enters from the axial water inlet and outlet pipe (1-4-5-3-2), enters into the rotating groove-shaped blade (1-4-5-3-5) through the blade pipe (1-4-5-3-4), performs stirring and cooling effects on the air flow, accelerates disturbance of the air flow and sprays out from the opening end of the rotating shell (1-4-5-3-3); cooling water flows out through a paddle pipe (1-4-5-3-4) at the other end and an axial water inlet and outlet pipe (1-4-5-3-2);
step 9: when the chamber rotator (1-4-5-3-9) works, the two lifting brackets (1-4-5-3-9-4) are controlled to ascend, and a rotating drum shaft (1-4-5-3-9-2) and a rotating drum (1-4-5-3-9-3) on the upper part are lifted, so that the rotating drum (1-4-5-3-9-3) is contacted with the inner wall of the rotating shell (1-4-5-3-3); under the drive of a controlled motor, the rotating drum (1-4-5-3-9-3) drives the rotating shell (1-4-5-3-3) to rotate;
step 10: when the pipe connector (1-4-7) works, air flow passes through the expansion hose (1-4-7-3) when generated dust is attached to the inner surface and the outer surface of the expansion hose; the outer ring (1-4-7-1) of the tube is driven by an outer ring vibrating spring (1-4-7-5) and the inner ring (1-4-7-4) of the tube is driven by a vibrator to move left and right and vibrate to promote dust to fall off;
the method for calculating the working efficiency of the equipment by applying the block chain theory comprises the following steps:
in the formula:
GZXL-workEfficiency (%); x-unit dust removal weight power consumption (Kw);a-loss of mechanical energy (KJ);nwork of inefficiencyRate (Kw);hdust Density (g/cm)3）。
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201911326942.8A CN111659210A (en) | 2019-12-20 | 2019-12-20 | Self-cleaning dust removing equipment and block chain benefit calculation method |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201911326942.8A CN111659210A (en) | 2019-12-20 | 2019-12-20 | Self-cleaning dust removing equipment and block chain benefit calculation method |
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| Publication Number | Publication Date |
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| CN111659210A true CN111659210A (en) | 2020-09-15 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201911326942.8A Withdrawn CN111659210A (en) | 2019-12-20 | 2019-12-20 | Self-cleaning dust removing equipment and block chain benefit calculation method |
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| Country | Link |
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| CN (1) | CN111659210A (en) |
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2019
- 2019-12-20 CN CN201911326942.8A patent/CN111659210A/en not_active Withdrawn
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Application publication date: 20200915 |