Paper edge collecting system and method facilitating pressing

Abstract

The invention provides a deckle edge collecting system and method facilitating pressing. The deckle edge collecting system comprises a feeding cavity. A material suction channel is arranged on the side of the feeding cavity, an upper turning plate is arranged at the top of the material suction channel, a feeding plate is connected to the bottom of the material suction channel through an upper rotating shaft, and a brightness sensor bearing plate is arranged at the bottom of the feeding plate; a spiral feeding channel, a main smashing motor and a cutting blade are arranged in a feeding cavity, waste edges with large areas can be smashed so as to be conveniently stored, the situation that long waste edges are entangled is avoided, a pressing cavity and a first air suction pump are arranged, the waste edges in the pressing cavity can be compressed, and the waste edges can be conveniently stored. And meanwhile, a square outer frame, a spring and a second limiting block are arranged on the material pressing plate, so that the overall height of the material pressing plate can be changed according to the inclination angle of the top end face of the material pressing cavity in the process of pushing towards the interior of the material pressing cavity, and the structure can press waste edges more compactly when the waste edges are compressed.

Description

Technical Field

[0001] The present invention particularly relates to a paper edge collecting system and method which is convenient for compaction. Background Art

[0002] In the processing of paper products, in order to ensure the continuity of production, long strips of paper are usually used as raw materials, and the paper rolls are transported by rollers. During the transportation process, the raw materials are cut and other processing steps are completed. Since the cutting of paper is to adjust the width of the paper, a certain amount of waste will be cut out on both sides of the paper width direction during the cutting process. At present, the waste generated by cutting paper will be collected in the waste bin, but the paper waste is relatively loose, so it takes up more collection space, resulting in the problem that the collection space is easily filled and the waste bin needs to be frequently replaced and cleaned. Therefore, a paper edge collection system and method that is easy to press is proposed to solve this problem. Summary of the invention

[0003] The purpose of the present invention is to provide a paper edge collection system and method that are easy to compress in view of the deficiencies in the prior art. The paper edge collection system and method that are easy to compress can well solve the above-mentioned problems.

[0004] In order to achieve the above requirements, the technical solution adopted by the present invention is: to provide a paper edge collection system and method that is easy to press, the paper edge collection system that is easy to press includes a feeding chamber; a suction channel is provided on the side of the feeding chamber, the top of the suction channel is provided with an upper flip plate, the bottom of the suction channel is connected to the feeding plate through an upper rotating shaft, the bottom of the feeding plate is provided with a brightness sensor bearing plate, the feeding plate is evenly provided with light-transmitting holes, each of the light-transmitting holes is provided with a brightness sensor, and each of the brightness sensors is arranged on the brightness sensor bearing plate; two rotating brushes are provided at the top of the inside of the feeding chamber, and the two rotating brushes are respectively located at the suction channel and the bottom of the suction channel. The two rotating brushes are driven to rotate by a rotating motor above and below the connecting part of the channel and the feeding chamber respectively, the rotating brush below moves the bristles upward near the suction channel, and the rotating brush below moves the bristles upward near the suction channel; the bottom of the feeding chamber is connected to a spiral feeding channel, the bottom of the spiral feeding channel is connected to a main crushing motor, the output end of the bottom of the main crushing motor is provided with a cutting blade, the bottom of the feeding channel is connected to the top of the cylindrical cavity, the inside of the cylindrical cavity is provided with a collecting motor, the output end of the collecting motor is connected with an arc-shaped shoveling plate; an air guide baffle is provided inside the feeding chamber The air guide baffle is located below the rotating brush and above the spiral feeding channel. Two auxiliary stirring fans are provided at the bottom of the feeding chamber. The two auxiliary stirring fans are respectively fixed on the inner walls on both sides of the feeding chamber, and the two auxiliary stirring fans are set at an angle of forty-five degrees; the bottom of the cylindrical cavity is connected with the top of the pressing chamber, and the bottom of the pressing chamber is provided with an inclined air permeable plate, and the air permeable plate is provided with uniform air permeable holes, and the top end face of the pressing chamber is set to a downward inclined structure; the bottom end face of the cylindrical cavity is an arc-shaped air permeable plate, and the bottom of the arc-shaped air permeable plate is a first suction cavity, and the first suction cavity is provided with a A second air suction pump, a second air suction cavity is provided at the bottom of the air permeable plate, and the second air suction cavity is connected to the air inlet end of the first air suction pump; a base is provided at the bottom of the first air suction cavity, a pressing motor is provided inside the base, a pressing plate is connected to the output end of the pressing motor, the pressing plate comprises a square plate and a square outer frame sleeved on the outside of the square plate, a square bearing groove for inserting the square plate is provided at the bottom of the square outer frame, springs are evenly provided between the top of the square plate and the upper end surface inside the square outer frame, a first limit block is respectively provided on both sides of the top of the square plate, and a second limit block is respectively provided on the inner bottom at both ends of the square outer frame.

[0005] A method for collecting paper edges that is easy to compact is provided, comprising the following steps:

[0006] S1: The paper is transported on the conveyor belt in the paper production process, and is cut by the paper cutter during the process, resulting in paper waste. The paper waste enters the feed cavity through the top of the feed plate under the suction action of the second suction pump, and the two rotating brushes between the feed cavity and the suction channel roll the paper waste in from between the two rotating brushes;

[0007] S2: The paper waste edges fall onto the rotating cutting blade driven by the main shredding motor through the spiral feeding channel for cutting. The paper waste edges fall downward and are shredded again by two auxiliary stirring fans, and then fall into the cylindrical cavity. The receiving motor in the cylindrical cavity drives the arc-shaped shovel plate to rotate, and the shredded paper waste edges are scraped into the pressing cavity.

[0008] S3: The air inlet end of the second air suction pump arranged inside the first air suction cavity at the bottom of the cylindrical cavity extends into the first air suction cavity. An arc-shaped air permeable plate is provided between the first air suction cavity and the cylindrical cavity to play a ventilation role. After the shredded paper waste edges are scraped into the pressing cavity, the pressing motor drives the pressing plate to move and press the paper waste edges tightly.

[0009] S4: The bottom of the pressing chamber is an air-permeable plate arranged obliquely to ensure that the compressed paper waste edge is always located obliquely below the pressing chamber, and a second suction cavity is arranged at the bottom of the pressing chamber, and an air-permeable plate is arranged between the second suction cavity and the pressing chamber, and the first suction pump sucks air into the second suction cavity;

[0010] S5: After the top of the pressing plate contacts the inclined top end surface of the pressing chamber, the spring is pressed tightly, and the square outer frame moves downward as a whole, so that the overall height of the pressing plate can be shortened, and the pressing plate can continue to move forward to complete the pressing;

[0011] S6: The power of the second suction pump and the first suction pump is dynamically adjusted. The light bar shines downward, and the light passes through the light-transmitting holes on the feed plate and hits at least ten uniformly arranged brightness sensors. When there are many paper waste edges on the feed plate, more light-transmitting holes are blocked by the paper waste edges. At this time, the total light that the brightness sensor can receive becomes less, and the power of the second suction pump and the first suction pump is increased, thereby accelerating the speed of sucking the paper waste edges;

[0012] Similarly, when there are fewer paper waste edges on the feed plate, the paper waste edges block fewer light-transmitting holes. At this time, the total light that the brightness sensor can receive increases. At this time, the power of the second air pump and the first air pump is reduced. Here, the two air pumps are set to the same power.

[0013] The advantages of the paper edge collection system and method that facilitates compaction are as follows:

[0014] By setting a spiral feeding channel, a main crushing motor and a cutting blade in the feeding chamber, the waste edges with a larger area can be crushed for easy storage, avoiding the entanglement of long waste edges. By setting a pressing chamber, a first suction pump, a breathable plate, a pressing plate, a base and a pressing motor, the waste edges inside the pressing chamber can be compressed to prevent the waste from remaining loose and occupying too much collection space. At the same time, by setting a square outer frame, a spring, a square bearing groove, a square plate, a first limit block and a second limit block on the pressing plate, the overall height of the pressing plate can be changed according to the inclination angle of the top end face of the pressing chamber during the process of pushing into the pressing chamber. This structure can compress the waste edges more tightly. At the same time, the system adopts dynamic adjustment of the power of the suction component, which can ensure a good waste collection effect while avoiding energy waste caused by long-term high power. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] The drawings described herein are used to provide a further understanding of the present application and constitute a part of the present application. The same reference numerals are used in these drawings to represent the same or similar parts. The exemplary embodiments of the present application and their descriptions are used to explain the present application and do not constitute an improper limitation on the present application. In the drawings:

[0016] Figure 1 The structural diagram of a paper edge collection system for facilitating compaction according to an embodiment of the present application is schematically shown.

[0017] Figure 2 The diagram schematically shows a top view of a material conveyor belt in a paper production process when a paper edge collection system for facilitating compaction according to an embodiment of the present application is in use.

[0018] Figure 3 The structural diagram of a material holding plate of a paper edge collection system for facilitating pressing according to an embodiment of the present application is schematically shown.

[0019] Among them: 1. Light bar; 2. Upper flap; 3. Suction channel; 4. Feed plate; 5. Brightness sensor bearing plate; 6. Upper shaft; 7. Feed chamber; 8. Spiral feed channel; 9. Main crushing motor; 10. Cutting blade; 11. Cylindrical chamber; 12. Receiving motor; 13. Arc shovel plate; 14. Lower shaft; 15. Outward opening door; 16. Pressing chamber; 17. First suction pump; 18. Breathable plate; 19. Pressing plate; 20. Base; 21. Pressing motor; 22. Second suction pump; 23. Arc-shaped air permeable plate; 24. Paper; 25. Waste edge of paper; 26. Paper cutting machine; 27. Conveyor belt for paper production; 28. Light-transmitting hole; 29. ​​Square outer frame; 30. Spring; 31. Square bearing groove; 32. Square plate; 33. First limit block; 34. Second limit block; 35. Rotating brush; 36. Air guide baffle; 37. Auxiliary stirring fan. DETAILED DESCRIPTION

[0020] In order to make the objectives, technical solutions and advantages of the present application more clear, the present application is further described in detail below in conjunction with the accompanying drawings and specific embodiments.

[0021] In the following description, references to "one embodiment", "an embodiment", "an example", "an example", etc. indicate that the embodiment or example described in this way may include specific features, structures, characteristics, properties, elements or limitations, but not every embodiment or example necessarily includes the specific features, structures, characteristics, properties, elements or limitations. In addition, repeated use of the phrase "according to one embodiment of the present application" may refer to the same embodiment, but does not necessarily refer to the same embodiment.

[0022] For the sake of simplicity, certain technical features well known to those skilled in the art are omitted in the following description.

[0023] According to one embodiment of the present application, a paper edge collection system and method for easy compaction are provided, such as Figure 1-3As shown, it includes a feeding chamber 7; a suction channel 3 is provided on the side of the feeding chamber 7, and an upper flap 2 is provided on the top of the suction channel 3. The bottom of the suction channel 3 is connected to a feeding plate 4 through an upper rotating shaft 6, and a brightness sensor bearing plate 5 is provided at the bottom of the feeding plate 4. Light-transmitting holes 28 are evenly provided on the feeding plate 4, and each of the light-transmitting holes 28 is provided with a brightness sensor, and each of the brightness sensors is arranged on the brightness sensor bearing plate 5; a spiral feeding channel 8 is connected to the bottom of the feeding chamber 7, and the bottom of the spiral feeding channel 8 is connected to A main crushing motor 9 is provided with a cutting blade 10 on the output end at the bottom of the main crushing motor 9, the bottom of the feeding channel 8 is connected to the top of the cylindrical cavity 11 3, a collecting motor 12 is provided inside the cylindrical cavity 11, and an arc-shaped scraping plate 13 is connected to the output end of the collecting motor 12; the bottom of the cylindrical cavity 11 is connected to the top of the pressing cavity 16, and an inclined air permeable plate 18 is provided at the bottom of the pressing cavity 16, and uniform air permeable holes are provided on the air permeable plate 18, and the top end surface of the pressing cavity 16 is set to a downward inclined structure. Two rotating brushes 35 are provided at the top of the feeding chamber 7, and the two rotating brushes 35 are respectively located above and below the connecting point between the suction channel and the feeding chamber, and the two rotating brushes 35 are respectively driven to rotate by a rotating motor, and the lower rotating brush 35 moves upwards when the bristles are brushed upward near the suction channel 3, and the lower upper rotating brush 35 moves upwards when the bristles are brushed downward near the suction channel 3; an air guide baffle 36 is provided inside the feeding chamber 7, and the air guide baffle 36 is located below the rotating brush 35 and above the spiral feeding channel 8, and two auxiliary stirring fans 37 are provided at the bottom of the feeding chamber 7, and the two auxiliary stirring fans 37 are respectively fixed on the inner walls on both sides of the feeding chamber 7, and the two auxiliary stirring fans 37 are both set at an angle of forty-five degrees.

[0024] According to one embodiment of the present application, the bottom end face of the cylindrical cavity 11 of the paper edge collection system for easy compression is an arc-shaped air-permeable plate 23, the bottom of the arc-shaped air-permeable plate 23 is a first air suction cavity, a second air suction pump 22 is provided inside the first air suction cavity, a second air suction cavity is provided at the bottom of the air-permeable plate 18, and the second air suction cavity is connected to the air inlet end of the first air suction pump 17.

[0025] According to one embodiment of the present application, a base 20 is provided at the bottom of the first suction cavity of the paper edge collection system for easy pressing, and a pressing motor 21 is provided inside the base 20. A pressing plate 19 is connected to the output end of the pressing motor 21, and the pressing plate 19 includes a square plate 32 and a square outer frame 29 sleeved on the outside of the square plate 32. A square bearing groove 31 for inserting the square plate 32 is provided at the bottom of the square outer frame 29. Springs 30 are evenly provided between the top of the square plate 32 and the upper end surface inside the square outer frame 29. A first limit block 33 is respectively provided on both sides of the top of the square plate 32, and a second limit block 34 is respectively provided on the inner bottom of both ends of the square outer frame 29.

[0026] According to one embodiment of the present application, the collecting motor 12 of the paper edge collecting system for facilitating compaction is arranged at the center of the inner side wall of the cylindrical cavity 11 .

[0027] According to one embodiment of the present application, an outward opening door 15 is provided on the top end surface of the pressing chamber 16 of the paper edge collection system for easy pressing, and the outward opening door 15 is connected to the top end surface of the pressing chamber 16 through a lower rotating shaft 14.

[0028] According to an embodiment of the present application, the travel direction of the output end of the pressing motor 21 of the paper edge collection system for facilitating compaction is parallel to the air permeable plate 18 .

[0029] According to an embodiment of the present application, the top end surface of the square outer frame 29 of the paper edge collection system for easy compaction is an inclined structure, and its inclination angle is the same as the inclination angle of the top end surface of the pressing chamber 16.

[0030] According to an embodiment of the present application, the first suction pump 17 and the second suction pump 22 of the paper edge collection system for easy compaction are electric suction pumps with adjustable power.

[0031] According to an embodiment of the present application, when the paper edge collection system that is easy to compress is used, the paper 24 is transported on the paper production link conveyor belt 27, and is cut by the paper cutter 26 during the process to produce paper waste edges 25. The paper waste edges 25 enter the feed cavity 7 through the top of the feed plate 4 under the suction action of the second suction pump 22, and the two rotating brushes 35 roll the paper waste edges 25 between the two rotating brushes 35, which can not only accelerate the feeding of the paper waste edges 25, but also prevent paper scraps from flying out to a certain extent;

[0032] After that, the paper waste edges 25 fall onto the rotating cutting blade 10 driven by the main shredding motor 9 through the spiral feeding channel 8 for cutting. After that, the paper waste edges 25 fall downward and are shredded again by the two auxiliary stirring fans 37. The two auxiliary stirring fans 37 inclined at 45 degrees and the horizontally arranged cutting blades 10 can form cutting at different angles to further improve the cutting efficiency.

[0033] After that, it falls into the cylindrical cavity 11 (the setting of the spiral feeding channel 8 can extend the channel to prevent the paper scraps generated after being cut by the cutting blade 10 from flying out from the suction channel 3 again). The collecting motor 12 in the cylindrical cavity 11 drives the arc-shaped shoveling plate 13 to rotate, and scrapes the shredded paper waste edges 25 into the pressing cavity 16. The air inlet end of the second suction pump 22 arranged inside the first suction cavity at the bottom of the cylindrical cavity 11 extends into the first suction cavity. The arc-shaped air permeable plate 23 is arranged between the first suction cavity and the cylindrical cavity 11 to play a ventilation role. After the shredded paper waste edges 25 are scraped into the pressing cavity 16, the pressing motor 21 will drive the pressing plate 19 to move and press the paper waste edges 25. The pressing chamber 16 is tight, and the bottom of the pressing chamber 16 is an inclined air permeable plate 18, so that the compressed paper waste edge 25 is always located at an oblique lower part of the pressing chamber 16, and a second suction cavity is arranged at the bottom of the pressing chamber 16, and the air permeable plate 18 is arranged between the second suction cavity and the pressing chamber 16. The first suction pump 17 sucks air into the second suction cavity, and the air permeable holes evenly arranged on the air permeable plate 18 can ensure that the compressed paper waste edge 25 will only block part of the air permeable holes, so that it will not affect the overall suction effect of the first suction pump 17. The moving direction of the output end of the pressing motor 21 is parallel to the air-permeable plate 18, which can ensure that the bottom of the pressing plate 19 is always close to the air-permeable plate 18. When the top of the pressing plate 19 contacts the inclined top end surface of the pressing chamber 16, the spring 30 is tightened, and the square outer frame 29 moves downward as a whole, so that the overall height of the pressing plate 19 is shortened, and the pressing can continue to be completed; at the same time, the power of the second suction pump 22 and the first suction pump 17 will be dynamically adjusted, and the light bar 1 will shine downward, and the light will pass through the light-transmitting holes on the feed plate 4 and hit at least ten evenly arranged brightness sensors. When the paper on the feed plate 4 When there are more waste edges 25, more light-transmitting holes are blocked by the waste edges 25 of the paper. At this time, the total light that the brightness sensor can receive becomes less. At this time, the power of the second suction pump 22 and the first suction pump 17 is increased to speed up the speed of sucking in the waste edges 25 of the paper. Similarly, when there are fewer waste edges 25 of the paper on the feeding plate 4, fewer light-transmitting holes are blocked by the waste edges 25 of the paper. At this time, the total light that the brightness sensor can receive becomes more. At this time, the power of the second suction pump 22 and the first suction pump 17 is reduced. This dynamic adjustment process can ensure a good waste collection effect while avoiding energy waste caused by long-term high power.

[0034] The specific calculation method of the suction power of the second suction pump and the first suction pump is as follows:

[0035]

[0036] in:

[0037] P adj : Suction power;

[0038] L tot : total brightness;

[0039] M is the number of brightness sensors, M>10;

[0040] B j : The brightness value detected by the j-th brightness sensor, j = 1, 2, ..., M;

[0041] P0: basic inhalation power;

[0042] a, b: proportional constants used to adjust the nonlinear relationship between the inhalation power and the total brightness;

[0043] P lim : Maximum power of the air intake component;

[0044] a, b: base of natural logarithm;

[0045] γ: adjustment factor, controlling the shape of the power growth curve;

[0046] L norm : Normalized brightness value, used to prevent the value in the function from being too small or too large;

[0047] L max : The expected maximum total brightness value.

[0048] According to one embodiment of the present application, the paper edge collection system that is easy to compress can crush the waste edges with a larger area for easy storage by setting a spiral feeding channel 8, a main crushing motor 9 and a cutting blade 10 in the feeding chamber 7, thereby avoiding the entanglement of long waste edges. By setting a pressing chamber 16, a first air suction pump 17, a breathable plate 18, a pressing plate 19, a base 20 and a pressing motor 21, the waste edges inside the pressing chamber 16 can be compressed to prevent the waste from remaining loose and occupying too much collection space. At the same time, by setting a square outer frame 29, a spring 30, a square bearing groove 31, a square plate 32, a first limit block 33 and a second limit block 34 on the pressing plate 19, the overall height of the pressing plate 19 can change according to the inclination angle of the top end face of the pressing chamber 16 during the process of pushing it into the pressing chamber 16. This structure can compress the waste edges more tightly.

[0049] The above-mentioned embodiments only represent several implementation methods of the present invention, and the description thereof is relatively specific and detailed, but it cannot be understood as limiting the scope of the present invention. It should be pointed out that, for a person skilled in the art, several modifications and improvements can be made without departing from the concept of the present invention, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the present invention shall be subject to the claims.

Claims

1. A paper edge collection system that is easy to compress, characterized in that: including a feeding cavity; A suction channel is provided on the side of the feeding cavity, an upper flap is provided on the top of the suction channel, a feeding plate is connected to the bottom of the suction channel through an upper rotating shaft, a brightness sensor bearing plate is provided at the bottom of the feeding plate, light-transmitting holes are evenly provided on the feeding plate, a brightness sensor is provided in each of the light-transmitting holes, and each of the brightness sensors is arranged on the brightness sensor bearing plate; Two rotating brushes are provided at the top of the feeding chamber, and the two rotating brushes are respectively located above and below the connecting part between the suction channel and the feeding chamber, and the two rotating brushes are respectively driven to rotate by a rotating motor, and the lower rotating brush moves upwards when the bristles are close to the suction channel, and the lower upper rotating brush moves upwards when the bristles are close to the suction channel; The bottom of the feeding cavity is connected to a spiral feeding channel, the bottom of the spiral feeding channel is connected to a main crushing motor, a cutting blade is provided on the output end of the bottom of the main crushing motor, the bottom of the feeding channel is connected to the top of the cylindrical cavity, a receiving motor is provided inside the cylindrical cavity, and an arc-shaped shovel plate is connected to the output end of the receiving motor; An air guide baffle 36 is provided inside the feeding chamber 7, and the air guide baffle 36 is located below the rotating brush 35 and above the spiral feeding channel 8. Two auxiliary stirring fans 37 are provided at the bottom of the feeding chamber 7, and the two auxiliary stirring fans 37 are respectively fixed on the inner walls on both sides of the feeding chamber 7, and the two auxiliary stirring fans 37 are both inclined at a 45 degree angle. The bottom of the cylindrical cavity is connected to the top of the pressing cavity, the bottom of the pressing cavity is provided with an inclined air permeable plate, the air permeable plate is provided with uniform air permeable holes, and the top end surface of the pressing cavity is set to a downwardly inclined structure; The bottom end surface of the cylindrical cavity is an arc-shaped air-permeable plate, the bottom of the arc-shaped air-permeable plate is a first air-intake cavity, a second air-intake pump is arranged inside the first air-intake cavity, a second air-intake cavity is arranged at the bottom of the air-permeable plate, and the second air-intake cavity is connected to the air inlet end of the first air-intake pump; A base is provided at the bottom of the first suction cavity, a pressing motor is provided inside the base, a pressing plate is connected to the output end of the pressing motor, the pressing plate comprises a square plate and a square outer frame sleeved outside the square plate, a square bearing groove for inserting the square plate is provided at the bottom of the square outer frame, springs are evenly provided between the top of the square plate and the upper end surface inside the square outer frame, a first limit block is respectively provided on both sides of the top of the square plate, and a second limit block is respectively provided on the inner bottom at both ends of the square outer frame.

2. The paper edge collection system for easy compaction according to claim 1, characterized in that: The material receiving motor is arranged at the center of the inner side wall of the cylindrical cavity.

3. The paper edge collection system for easy compaction according to claim 1, characterized in that: An outward opening door is arranged on the top end surface of the material pressing chamber, and the outward opening door is connected to the top end surface of the material pressing chamber through a lower rotating shaft.

4. The paper edge collection system for easy compaction according to claim 1, characterized in that: The moving direction of the output end of the pressing motor is parallel to the air permeable plate.

5. The paper edge collection system for easy compaction according to claim 1, characterized in that: The top end surface of the square outer frame is an inclined structure, and its inclination angle is the same as the inclination angle of the top end surface of the pressing chamber.

6. The paper edge collection system and method for easy compaction according to claim 1, characterized in that: The first air suction pump and the second air suction pump are electric air suction pumps with adjustable power.

7. A paper edge collection method that is easy to compact, characterized in that: The steps include: S1: The paper is transported on the conveyor belt in the paper production process, and is cut by the paper cutter during the process, resulting in paper waste. The paper waste enters the feed cavity through the top of the feed plate under the suction action of the second suction pump, and the two rotating brushes between the feed cavity and the suction channel roll the paper waste in from between the two rotating brushes; S2: The paper waste edges fall onto the rotating cutting blade driven by the main shredding motor through the spiral feeding channel for cutting. The paper waste edges fall downward and are shredded again by two auxiliary stirring fans, and then fall into the cylindrical cavity. The receiving motor in the cylindrical cavity drives the arc-shaped shovel plate to rotate, and the shredded paper waste edges are scraped into the pressing cavity. S3: The air inlet end of the second air suction pump arranged inside the first air suction cavity at the bottom of the cylindrical cavity extends into the first air suction cavity. An arc-shaped air permeable plate is provided between the first air suction cavity and the cylindrical cavity to play a ventilation role. After the shredded paper waste edges are scraped into the pressing cavity, the pressing motor drives the pressing plate to move and press the paper waste edges tightly. S4: The bottom of the pressing chamber is an air-permeable plate arranged obliquely to ensure that the compressed paper waste edge is always located obliquely below the pressing chamber, and a second suction cavity is arranged at the bottom of the pressing chamber, and an air-permeable plate is arranged between the second suction cavity and the pressing chamber, and the first suction pump sucks air into the second suction cavity; S5: After the top of the pressing plate contacts the inclined top end surface of the pressing chamber, the spring is pressed tightly, and the square outer frame moves downward as a whole, so that the overall height of the pressing plate can be shortened, and the pressing can continue to move forward to complete the pressing; S6: The power of the second suction pump and the first suction pump is dynamically adjusted. The light bar shines downward, and the light passes through the light-transmitting holes on the feed plate and hits at least ten uniformly arranged brightness sensors. When there are many paper waste edges on the feed plate, more light-transmitting holes are blocked by the paper waste edges. At this time, the total light that the brightness sensor can receive becomes less, and the power of the second suction pump and the first suction pump is increased, thereby accelerating the speed of sucking the paper waste edges; Similarly, when there are fewer paper waste edges on the feed plate, the paper waste edges block fewer light holes. At this time, the total light that the brightness sensor can receive increases. At this time, the power of the second air pump and the first air pump is reduced. Here, the two air pumps are set to the same power.

8. The paper edge collection method for easy compaction according to claim 7, characterized in that: The specific calculation method of the suction power of the second suction pump and the first suction pump is as follows: in: P adj : Suction power; L tot : total brightness; M is the number of brightness sensors, M>10; B j : The brightness value detected by the j-th brightness sensor, j = 1, 2, ..., M; p0: basic inhalation power; a, b: proportional constants used to adjust the nonlinear relationship between the inhalation power and the total brightness; P lim : Maximum power of the air intake component; a, b: base of natural logarithm; γ: adjustment factor, controlling the shape of the power growth curve; L norm : Normalized brightness value, used to prevent the value in the function from being too small or too large; L max : The expected maximum total brightness value.

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