Processing equipment for aramid nano metallized comfortable protective material

Abstract

The invention relates to the technical field of processing of protective materials, and discloses processing equipment for aramid nano metallization comfortable protective materials, which comprises a processing box, filtering treatment equipment and a suction fan, the filtering treatment equipment is fixedly connected to the top of the processing box, and the suction fan is fixedly connected to the interior of the filtering treatment equipment. Inlets and outlets are formed in the two sides of the processing box, and the multiple auxiliary assemblies are used for removing impurities and moisture in aramid fibers in a multiple mode so that metal deposition can be more uniform; the aramid fibers moving in the middle are turned and flapped synchronously through the two flapping steel meshes II and the flapping steel mesh I, so that chippings and dust in the aramid fibers can be effectively flapped out, and the effect of removing the chippings and dust in the aramid fibers is improved; and the flapped fiber chippings and dust are adsorbed and collected under the electrostatic action of an electrostatic collection plate, and the situation that the fiber chippings and dust influence the aramid fiber removal effect in the processing box is reduced.

Description

Technical Field

[0001] The invention relates to the technical field of protective material processing, and in particular to processing equipment for aramid nano-metallized comfortable protective material. Background Art

[0002] Aramid nano-metallized comfort and protective material is a new type of protective material that combines aramid fiber with metal material through nanotechnology to obtain special properties. Aramid fiber has excellent properties such as high strength, high modulus, high temperature resistance, and chemical corrosion resistance. By refining it to the nanoscale through nanotechnology, its performance can be further improved. Metallization treatment is to deposit or combine a layer of metal on the surface of aramid nanomaterials. Before making aramid nano-metallized comfort and protective material, the aramid fiber needs to be pre-treated, the aramid fiber is washed and removed from the metal salt solution, and then the metal salt solution remaining in the aramid fiber is dried to remove impurities and moisture before subsequent processing operations. The early treatment effect directly affects the quality of the subsequent processing.

[0003] However, in the prior art, when processing impurities on the cleaned aramid fiber in the early stage, the processing equipment generally uses a vacuuming device to remove impurities and dust on the surface of the aramid fiber, but the impurities hidden in the aramid fiber are not easy to be removed, resulting in impurities still hidden in the aramid fiber. In the subsequent metallization process of the aramid fiber, the deposition effect between the metal and the aramid fiber is reduced. For the protective material used for electromagnetic shielding, poor metal deposition effect will lead to the inability to effectively block electromagnetic waves, reduce the electromagnetic protection level of equipment or personnel, and easily generate static electricity accumulation, increase the risk of electrostatic discharge, and may cause damage to sensitive electronic equipment. It may cause damage or even lead to dangerous situations such as fire or explosion, and may also lead to uneven deposition or loose bonding of antibacterial metal, which cannot effectively inhibit the growth of bacteria and microorganisms, affecting the sanitary properties of the protective material. It is easy to break or break when subjected to external force, reducing the overall strength and toughness of the material. The metal layer on the surface is discontinuous or has poor bonding, which is easy to fall off during friction and wear, reducing the wear resistance of the material and shortening its service life. Therefore, the effect of removing impurities in the aramid fiber in the early stage directly affects the overall effect. Therefore, it is necessary to provide a processing equipment for aramid nano-metallized comfortable protective material to solve the above problems. Summary of the invention

[0004] The main purpose of the present invention is to provide a processing device for aramid nano-metallized comfortable protective material, which can effectively solve the problems raised in the above background technology.

[0005] To achieve the above object, the technical solution adopted by the present invention is: a processing device for aramid nano-metallized comfortable protective material, comprising a processing box, a filtering and processing device, and a suction fan, wherein the filtering and processing device is fixedly connected to the top of the processing box, the suction fan is fixedly connected to the inside of the filtering and processing device, and both sides of the processing box are provided with inlets and outlets, and the processing box is characterized in that it also includes:

[0006] Multiple auxiliary components are used to remove impurities and moisture from aramid fibers to increase metal deposition and make it more uniform;

[0007] Multiple auxiliary components are used to centrally assist in the removal of impurities from aramid fibers to increase the removal effect of impurities.

[0008] As a further improvement of the above scheme, the multiple removal component includes four fixed plates symmetrically fixedly connected to the inner wall of the processing box, the four fixed plates and the side close to the processing box are rotatably connected with a rotating shaft, the outer walls of the four rotating shafts are symmetrically fixedly connected with baffles, the outer walls of the four rotating shafts are respectively fixedly connected with a beating steel mesh 1 and a beating steel mesh 2, the outer walls of the four rotating shafts are respectively symmetrically sleeved with a reset torsion spring with one end fixedly connected to the baffle, the interior of the processing box is symmetrically provided with fixed cavities, the inner wall of one of the fixed cavities is fixedly connected to a driving motor, and the interior of the fixed cavities is rotatably connected A rotating rod is connected, the output shaft of the driving motor is fixedly connected to the top of one of the rotating rods, the outer walls of the two rotating rods are fixedly connected with worms, the interior of the fixed cavity is fixedly connected with support blocks, the interior of the support blocks is rotatably connected with a rotating rod, the outer walls of the two rotating rods are symmetrically fixedly connected with flip gears, the outer walls of the rotating shafts are fixedly connected with incomplete gears, the incomplete gears are meshed with the flip gears, the two rotating rods are connected by a belt cross transmission, the outer walls of the rotating rods are fixedly connected with worm wheels, and the worms are meshed with the worm wheels.

[0009] As a further improvement of the above scheme, the multiple removal component also includes a support rod symmetrically fixedly connected to the inner wall of the processing box, the end of the support rod away from the processing box is fixedly connected to a fixed box, the inner side of the fixed box is fixedly connected to an electrostatic collecting plate, the outer side of the fixed box is provided with an electrostatic generator, the interior of the fixed box and the electrostatic collecting plate are both provided with openings, the interior of the opening is rotatably connected to a gear ring, the inner side of the gear ring is symmetrically fixedly connected to a scraper, the two sides of the scrapers away from each other are both in contact with the surface of the electrostatic collecting plate, the bottom of the fixed box is fixedly connected to a collecting box, both sides of the fixed box are provided with through openings, the inner side of the through opening is symmetrically fixedly connected to an absorption box, the outer surface of the absorption box is provided with dust suction holes, the outer wall of one of the rotating rods is fixedly connected to a rotating gear, the rotating gear and the gear ring are meshed with each other, and the bottom of the fixed box is provided with a collection port.

[0010] As a further improvement of the above scheme, the multiple auxiliary components include a micro-electric pneumatic rod fixedly connected to the top of one of the support blocks, the top of the telescopic shaft of the micro-electric pneumatic rod is fixedly connected to a connecting plate, one of the fixed cavities is symmetrically rotatably connected to a bidirectional screw rod, the outer walls of the rotating rod and the two bidirectional screw rods are fixedly connected to limiting convex strips, the upper surface of the connecting plate is rotatably connected to three belt rollers, the interiors of the three belt rollers are provided with limiting slide grooves, the belt rollers and the connecting plate are slidably connected to the outer walls of the rotating rod and the two bidirectional screw rods, and the three belt rollers are transmission-connected with a transmission belt, the outer walls of the bidirectional screw rods are symmetrically threaded with movable screw sleeves, the outer sides of the movable screw sleeves are fixedly connected to connecting rods, and the interior of the processing box is symmetrically slidably connected to four stable blow plates, the ends of the connecting rods away from the movable screw sleeves are fixedly connected to the stable blow plates, and the outer walls of the stable blow plates are provided with blowing ports.

[0011] As a further improvement of the above scheme, the multiple auxiliary components also include air intake hoses that are fixedly connected to the stabilizing blow plate, and the ends of the air intake hoses away from the stabilizing blow plate are fixedly connected to the suction fan, and the interior of the fixed box is symmetrically fixedly connected with an air outlet pipe 1 and an air outlet pipe 2, and the ends of the air outlet pipe 1 and the air outlet pipe 2 away from the fixed box are fixedly connected to the filtering and processing equipment, and the ends of the air outlet pipe 1 and the air outlet pipe 2 away from the filtering and processing equipment are fixedly connected to the absorption box.

[0012] As a further improvement of the above solution, four limiting openings are symmetrically opened inside the processing box, the incomplete gear and the flip gear are both rotatably connected inside the limiting openings, and the limiting openings are fixedly connected to the fixed cavity.

[0013] As a further improvement of the above solution, movable openings are symmetrically opened inside the processing box, and the air intake hose and the connecting rod are slidably connected inside the movable openings.

[0014] As a further improvement of the above solution, four fixing ports are symmetrically opened on the outer side of the processing box, and the air intake hoses are slidably connected inside the fixing ports.

[0015] As a further improvement of the above solution, the limiting convex strip and the limiting sliding groove are both in a cross shape.

[0016] As a further improvement of the above solution, the second beating steel mesh and the first beating steel mesh are staggered, and both the second beating steel mesh and the first beating steel mesh are inclined.

[0017] Compared with the prior art, the present invention has the following beneficial effects:

[0018] 1. The two beating steel meshes 2 and 1 are used to synchronously flip and beat the aramid fibers moving in the middle, so that the debris and dust in the aramid fibers can be effectively beaten out, and the removal effect of the debris and dust in the aramid fibers can be increased. The fiber debris and dust beaten out are adsorbed and collected under the electrostatic effect of the electrostatic collection plate, and the effect of the fiber debris and dust on the removal of the aramid fibers inside the processing box is reduced. First, the two rotating rods are driven by the driving motor to rotate synchronously in opposite directions. The two rotating rods are rotated by the opposite rotation of the two rotating rods under the transmission of the worm gear and the worm, and the beating is achieved under the transmission of the flip gear and the incomplete gear. The second steel mesh and the first beating steel mesh are synchronously flipped in opposite directions. Since the flipping directions of the second beating steel mesh and the first beating steel mesh are opposite, the aramid fibers moving in the middle will be synchronously flapped during the flipping process. The fibers in the aramid fibers can be flapped out by the flapping force. After the electrostatic generator controls the electrostatic collecting plate to emit static electricity, the fiber debris and dust flapped out in the processing box are adsorbed and collected. The shaking effect generated by the continuous flapping force of the first and second beating steel meshes on the aramid fibers can make the cleaning liquid in the aramid fibers fall off synchronously, thereby further removing the fiber debris, dust and liquid in the aramid fibers at the same time.

[0019] Compared with the existing technology, this solution has shown many significant advantages. First, the innovative flapping steel mesh 2 and flapping steel mesh 1 are designed to cooperate with each other to achieve all-round and high-intensity flapping, which greatly improves the efficiency and removal effect of debris and dust, and overcomes the defects of insufficient flapping and incomplete removal in the existing technology. Second, the combination of electrostatic collection and flapping not only ensures the efficient collection of debris and dust, but also avoids their re-contamination in the processing box, significantly improving the cleanliness of aramid fiber, which is often difficult to achieve such efficiency and thoroughness in the existing technology. Third, the synchronous removal of cleaning liquid is achieved through flapping, which optimizes the process flow, improves work efficiency, and reduces subsequent processing steps. Fourth, the design of electrostatic collection and scraper coordination can timely and effectively clean the adsorbed debris and dust, ensure the continuous and efficient electrostatic collection, and avoid the decline of collection effect due to adsorption saturation. Through the coordinated operation of the entire device in the multiple removal components, not only the synchronous removal of debris, dust and cleaning liquid is achieved, but also the deposition effect of metal in aramid fiber is significantly improved, and the quality and performance of the product are improved;

[0020] Wherein: the teeth of the incomplete gear are only provided with half a circle, and when the teeth of the flipping gear are meshed with the teeth of the incomplete gear, the incomplete gear and the rotating shaft can be rotated synchronously, and the reset torsion spring is twisted to increase its torque, and when the side of the incomplete gear without teeth is rotated to the flipping gear position, the flipping gear cannot continue to rotate due to the lack of meshing between teeth, and the reset torsion spring at this time, when there is no external force to twist, the rotating shaft and the incomplete gear are reset by the torque of the reset torsion spring itself, and the flapping steel mesh 1 and the flapping steel mesh 2 can be reversed by the reset rotation of the rotating shaft to achieve a half-circle stroke, and the flapping steel mesh 1 and the flapping steel mesh 2 can achieve the effect of flapping and removing fiber debris and dust in the moving aramid fiber by the action of continuously flipping the flapping steel mesh 1 and the flapping steel mesh 2 for half a circle;

[0021] Wherein: the two rotating rods are driven by a cross belt, and the crossing of the belts can make the two rotating rods rotate in opposite directions, and the two rotating rods are rotated by the worm gear and the worm through the opposite rotation of the two rotating rods, and the flapping steel mesh 1 and the flapping steel mesh 2 can finally rotate in opposite directions under the transmission of the flip gear and the incomplete gear, so that the flapping steel mesh 1 and the flapping steel mesh 2 can respectively beat out the fiber debris and dust in the mobile aramid fiber from the upper and lower sides;

[0022] Wherein: the meshing gear ring and the scraper are continuously rotated under the continuous rotation of the rotating gear. Since the conical end of the scraper is in contact with the inner side of the electrostatic collection plate, the fiber debris and dust adsorbed on the surface of the electrostatic collection plate can be scraped off when the gear ring drives the scraper to rotate, and are collected in the inside of the collection box through the opening of the collection port. Therefore, the fiber debris and dust that are beaten out can be strongly adsorbed and retained, and the fiber debris and dust floating in the processing box can be effectively reduced, thereby improving the cleaning effect when the aramid fiber is moved, and further assisting the deposition effect of the metal in the aramid fiber.

[0023] 2. Suction is generated at one end of the suction fan and blowing is generated at the other end. The suction generated by the suction fan can absorb the fiber debris and dust floating in the processing box and the fixed box into the filtering treatment equipment through the outlet pipe 1 and the outlet pipe 2 for filtering treatment, further assisting the fiber debris and dust floating in the processing box to prevent the floating fiber debris and dust from adhering to the aramid fiber again, thereby increasing the cleanliness of the cleaned aramid fiber. The air intake hose connected to the suction fan transmits the blowing force to the stable blowing plate, which is blown into the moving aramid fiber through the blowing ports on the surfaces of the two stable blowing plates. The fiber debris and dust in the aramid fiber can be loosened by the blowing force, and the adhesion between them and the aramid fiber is reduced, thereby facilitating the subsequent removal work. The residual cleaning liquid in the aramid fiber can be dried by the blowing force, thereby increasing the dryness of the aramid fiber. The resistance of the two stable blowing plates on both sides of the aramid fiber can further increase the stability of the aramid fiber when moving.

[0024] Compared with the prior art, this solution has the following significant advantages: First, by realizing the dual functions of suction and blowing through the suction fan, the fiber debris and dust can be processed more comprehensively and efficiently, significantly improving the cleanliness and dryness of the aramid fiber, and avoiding the problems of incomplete treatment and easy residue in the prior art. Secondly, the unique design of adjustable distance of the stable blowing plate can accurately control the wind force and effect according to the actual situation, greatly enhancing the adaptability and flexibility of the device. Furthermore, the design of blowing and loosening from the upper and lower sides of the aramid fiber at the same time can not only loosen the fiber debris and dust, but also dry the cleaning liquid, further improving the removal effect of the fiber debris and dust, achieving multiple effects in one, simplifying the process flow, and improving work efficiency. Furthermore, the design of the stable blowing plate increases the stability of the aramid fiber during movement, and reduces the problems such as uneven treatment caused by fiber shaking, which is often difficult to take into account in the prior art. Finally, through the synergistic effect of the entire device with multiple auxiliary components, the cleanliness and dryness of the aramid fiber are greatly improved, providing more ideal conditions for uniform metal deposition;

[0025] Wherein: the telescopic shaft of the micro-electric gas rod extends upward to push the connecting plate to slide up, so that the three belt rollers slide to the outer wall of the limiting convex strip, and the blocking force generated by the cross-shaped cooperation of the limiting convex strip and the limiting slide groove can transmit the power of the rotating rod to the two bidirectional screw rods, and the bidirectional threads on the surface of the bidirectional screw rod can make the two stable blowing plates move away from or close to each other, so that the distance between the two stable blowing plates and the aramid fiber can be adjusted according to the needs, and the wind force blown into the aramid fiber can be further assisted by adjusting the distance between the stable blowing plates and the aramid fiber, so that it is convenient to adjust according to the adhesion strength between the fiber debris, dust and the aramid fiber;

[0026] Wherein: the blowing outlets are respectively arranged on the side close to the two stable blowing plates, so that the blowing force of the two stable blowing plates can loosen the fiber debris, dust and liquid inside the aramid fiber from the upper and lower sides thereof, which can further assist in the subsequent removal of them from the aramid fiber, and can further assist in the uniform effect of metal deposition on the aramid fiber. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for describing the embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0028] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0029] Figure 2 It is a cross-sectional view of the internal structure of the processing box of the present invention;

[0030] Figure 3 For the present invention Figure 2 A schematic diagram of the structure enlargement in the middle;

[0031] Figure 4 It is a cross-sectional view of the internal structure of the fixed box of the present invention;

[0032] Figure 5 For the present invention Figure 4 A magnified schematic diagram of the structure at B in the middle;

[0033] Figure 6 For the present invention Figure 4 A magnified schematic diagram of the structure at C in the middle;

[0034] Figure 7 It is a schematic diagram of the structure of the multiple removal component of the present invention;

[0035] Figure 8 For the present invention Figure 7 A magnified schematic diagram of the structure at D in the middle;

[0036] Fig. 9 For the present invention Figure 7 The enlarged schematic diagram of the structure at E in the middle;

[0037] Fig.10 For the present invention Figure 7 A magnified schematic diagram of the structure at F in the middle;

[0038] Fig.11 It is a schematic diagram of the structure of multiple auxiliary components of the present invention.

[0039] In the figure: 1. Processing box; 2. Filtration treatment equipment; 3. Suction fan; 4. Inlet and outlet; 5. Multiple removal components; 501. Support rod; 502. Fixed box; 503. Electrostatic collection plate; 504. Collection box; 505. Through port; 506. Absorption box; 507. Fixed cavity; 508. Rotating rod; 509. Flipping gear; 510. Driving motor; 511. Rotating rod; 512. Worm; 513. Worm wheel; 514. Fixed plate; 515. Rotating shaft; 516. Reset torsion spring; 517. Beating steel mesh one; 518. Beating steel mesh two; 519. Incomplete gear; 520. Support block; 521. Rotating gear; 522. Gear ring; 523. Scraper; 524. Collection port; 525. Baffle;

[0040] 6. Multiple auxiliary components; 601. Micro electric gas rod; 602. Connecting plate; 603. Bidirectional screw; 604. Belt roller; 605. Limiting slide; 606. Limiting convex strip; 607. Moving screw sleeve; 608. Connecting rod; 609. Stable blowing plate; 610. Blowing port; 611. Inlet hose; 612. Exhaust pipe 1; 613. Exhaust pipe 2; 614. Transmission belt; 7. Limiting port; 8. Movable port; 9. Fixed port. DETAILED DESCRIPTION

[0041] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0042] See also Figures 1 to 11As shown, the present invention provides an embodiment: a processing device for aramid nano-metallized comfortable protective material, comprising a processing box 1, a filtering and processing device 2, and a suction fan 3. The processing box 1 provides a closed space for the entire processing process to ensure that the processing of aramid fibers is carried out in a controlled environment. The filtering and processing device 2 is used to receive and process air containing impurities and dust from the processing box 1. The suction fan 3 generates suction force to suck fiber debris and dust in the processing box 1 and the fixed box 502 into the filtering and processing device 2 for processing, which effectively reduces the residual impurities in the processing box 1 and improves the cleanliness of the aramid fibers. The blowing force generated by the suction fan 3 can also play an auxiliary role in subsequent processing, such as loosening fiber debris and dust to enhance the processing effect. The filtering and processing device 2 is fixedly connected to the top of the processing box 1, and the suction fan 3 is fixedly connected to the inside of the filtering and processing device 2. Inlet and outlet 4 are provided on both sides of the processing box 1 for the aramid fibers to enter and exit the processing box 1. The characteristics of the invention are that it also includes:

[0043] Multiple removal component 5, used for multiple removal of impurities and moisture in aramid fiber to increase metal deposition more uniformly;

[0044] Multiple auxiliary components 6 are used to centrally assist the removal of impurities from the aramid fiber to increase the removal effect of impurities;

[0045] The multiple removal assembly 5 includes four fixed plates 514 symmetrically fixedly connected to the inner wall of the processing box 1, providing support and fixation for the rotating shaft 515. The four fixed plates 514 are rotatably connected to the side close to the processing box 1 with the rotating shaft 515. The rotating shaft 515 provides support and a rotating shaft for the rotation of the slapping steel mesh to ensure the smooth realization of the slapping action. The outer walls of the four rotating shafts 515 are symmetrically fixedly connected with baffles 525, and the outer walls of the four rotating shafts 515 are respectively fixedly connected with a slapping steel mesh 1 517 and a slapping steel mesh 2 518. The steel mesh 518 is flipped and beat to beat out the impurities and moisture in the aramid fiber, improve the cleanliness of the fiber, and create good conditions for uniform metal deposition. The outer walls of the four rotating shafts 515 are symmetrically sleeved with reset torsion springs 516 with one end fixedly connected to the baffle 525. The reset torsion springs 516 make the beating action have a certain elasticity and rebound ability, and enhance the stability and reliability of the beating effect. The interior of the processing box 1 is symmetrically provided with fixed cavities 507, and the inner wall of one of the fixed cavities 507 is fixedly connected to a driving motor 510, which provides A stable and reliable power source ensures the normal operation of the entire transmission system. The interior of the fixed cavity 507 is rotatably connected to a rotating rod 511. The output shaft of the driving motor 510 is fixedly connected to the top of one of the rotating rods 511. The outer walls of the two rotating rods 511 are fixedly connected to a worm 512. The interior of the fixed cavity 507 is fixedly connected to a supporting block 520. The interior of the supporting block 520 is rotatably connected to a rotating rod 508. The outer walls of the two rotating rods 508 are symmetrically fixedly connected to flip gears 509. The outer wall of the rotating shaft 515 is fixedly connected with an incomplete gear 519, and the incomplete gear 519 is meshed with the flipping gear 509. The two rotating rods 511 are connected by a belt cross transmission, which ensures the synchronous reverse rotation of the two rotating rods 511, and provides reliable power transmission for the synchronous reverse flapping action of the flapping steel mesh 1 517 and the flapping steel mesh 2 518. The outer wall of the rotating rod 508 is fixedly connected with a worm gear 513, and the worm 512 is meshed with the worm gear 513.

[0046] The multiple removal assembly 5 also includes a support rod 501 symmetrically fixedly connected to the inner wall of the processing box 1. The support rod 501 provides a stable support for the fixed box 502 to ensure that it will not shake or shift during operation, thereby ensuring the stability of the entire removal assembly. The end of the support rod 501 away from the processing box 1 is fixedly connected to the fixed box 502. The fixed box 502 provides a closed space for the internal static electricity collection and related processing components to avoid external interference, and also helps to centrally process and collect fiber debris and dust. The inner side of the fixed box 502 is fixedly connected to the static electricity collection The collecting plate 503 can efficiently absorb the fiber debris and dust that are separated from the aramid fiber after being beaten, greatly improving the efficiency and effect of impurity collection. The outer side of the fixed box 502 is provided with an electrostatic generator to ensure that the electrostatic collecting plate 503 has sufficient electrostatic adsorption capacity to ensure that the fiber debris and dust can be effectively adsorbed and collected. The interior of the fixed box 502 and the electrostatic collecting plate 503 are both provided with openings to provide space for the installation and rotation of the gear ring 522 and the scraper 523, so that the structure for cleaning the adsorbed objects can operate normally. A gear ring 522 is rotatably connected, and a scraper 523 is symmetrically fixedly connected to the inner side of the gear ring 522. The scraper 523 can promptly scrape off the fiber debris and dust adsorbed on the surface of the electrostatic collection plate 503 to prevent the electrostatic collection plate 503 from affecting the collection effect due to adsorption saturation. The two scrapers 523 are far away from each other. The side of the static collection plate 503 is in contact with the surface of the static collection plate 503. The bottom of the fixed box 502 is fixedly connected to a collection box 504. The collection box 504 centrally stores the scraped fiber debris and dust, which is convenient for subsequent unified processing and keeps the working environment clean. The two sides of the fixed box 502 Through openings 505 are provided, and absorption boxes 506 are symmetrically fixedly connected to the inner side of the through openings 505. The absorption boxes 506 can further enhance the ability to collect impurities, expand the collection range, and improve the overall cleaning effect. Dust suction holes are provided on the outer surface of the absorption boxes 506, so that the absorption boxes 506 can effectively absorb impurities from the surrounding environment, thereby improving the collection efficiency of impurities. A rotating gear 521 is fixedly connected to the outer wall of one of the rotating rods 508, and the rotating gear 521 and the gear ring 522 are meshed with each other. A collection opening 524 is provided at the bottom of the fixed box 502;

[0047] The multiple auxiliary components 6 include a micro electric pneumatic rod 601 fixedly connected to the top of one of the support blocks 520, the micro electric pneumatic rod 601 provides precise power control for the movement of the connecting plate 602, and realizes the position adjustment of subsequent components, the top of the telescopic shaft of the micro electric pneumatic rod 601 is fixedly connected to the connecting plate 602, the connecting plate 602 plays the role of connecting and transmitting power, and transmits the power of the micro electric pneumatic rod 601 to the belt roller 604, one of the fixed cavities 507 is symmetrically rotated inside and connected to a bidirectional screw rod 603, the bidirectional screw rod 603 can accurately control the moving direction and distance of the moving screw sleeve 607, so as to adjust the position of the stable blowing plate 609, the outer walls of the rotating rod 511 and the two bidirectional screw rods 603 are fixedly connected to the limiting convex strip 606, the limiting convex strip 606 ensures that the belt roller 604 slides stably on the rotating rod 511 and the bidirectional screw rod 603, and realizes the transmission of power, the upper surface of the connecting plate 602 is rotatably connected to three belt rollers 604, the interior of the three belt rollers 604 The limiting slide groove 605 is provided to ensure that the belt roller 604 slides on the specified path to prevent deviation or dislocation, thereby ensuring the accuracy of movement. The belt roller 604 and the connecting plate 602 are slidably connected to the outer walls of the rotating rod 511 and the two bidirectional screw rods 603. A transmission belt 614 is connected between the three belt rollers 604. The outer walls of the bidirectional screw rods 603 are symmetrically threaded with movable screw sleeves 607. The outer sides of the movable screw sleeves 607 are fixedly connected with connecting rods 608. The inside of the work box 1 is symmetrically and slidably connected with four stable blowing plates 609, which can blow on the aramid fiber to loosen the debris and dust in the fiber, which is convenient for subsequent removal, and at the same time increases the dryness and stability of the fiber. The end of the connecting rod 608 away from the movable screw sleeve 607 is fixedly connected to the stable blowing plate 609, and the outer wall of the stable blowing plate 609 is provided with a blowing port 610, which can evenly blow out gas to perform a comprehensive blowing treatment on the aramid fiber to improve the treatment effect;

[0048] The multiple auxiliary components 6 also include an air intake hose 611 that is fixedly connected to the stable blowing plate 609. The air intake hose 611 provides a stable gas transmission channel to ensure that the stable blowing plate 609 can obtain sufficient blowing force, thereby effectively blowing the aramid fiber. The end of the air intake hose 611 away from the stable blowing plate 609 is fixedly connected to the suction fan 3. The interior of the fixed box 502 is symmetrically fixedly connected with an air outlet pipe 1 612 and an air outlet pipe 2 613. The air outlet pipe 1 612 can collect the air in the absorption box 506. Impurities are smoothly transported to the filtering and processing equipment 2 for processing, ensuring timely cleaning of impurities and smooth processing flow. The second outlet pipe 613 increases the channel for impurity transmission, improves transmission efficiency, prevents impurity transmission from being blocked due to a single pipeline failure, and enhances the reliability of the entire system. The ends of the outlet pipe 1 612 and the outlet pipe 2 613 away from the fixed box 502 are fixedly connected to the filtering and processing equipment 2, and the ends of the outlet pipe 1 612 and the outlet pipe 2 613 away from the filtering and processing equipment 2 are fixedly connected to the absorption box 506;

[0049] Reference Figure 6 As shown, four limiting openings 7 are symmetrically provided inside the processing box 1, and the limiting openings 7 provide specific space and position restrictions for the rotation of the incomplete gear 519 and the flip gear 509, thereby ensuring the stability and accuracy of the gears during the transmission process and preventing the gears from being offset or dislocated, thereby ensuring the normal and stable operation of the multiple removal assembly 5 and improving the transmission efficiency and reliability. The incomplete gear 519 and the flip gear 509 are both rotatably connected to the inside of the limiting openings 7, and the limiting openings 7 are both fixedly connected to the fixed cavity 507;

[0050] Reference Figure 5 As shown, the processing box 1 is symmetrically provided with movable openings 8 inside, and the air intake hose 611 and the connecting rod 608 are both slidably connected inside the movable openings 8. The movable openings 8 provide a special channel for the movement of the air intake hose 611 and the connecting rod 608, so that during the operation of the equipment, the air intake hose 611 and the connecting rod 608 can slide freely without interfering with other components, thereby ensuring the smoothness and stability of the movement of the multiple auxiliary components 6. At the same time, the movable openings 8 can also play a certain protective role on the air intake hose 611 and the connecting rod 608, reduce the damage caused to them by external factors, and extend their service life;

[0051] Reference Figure 1As shown, four fixed ports 9 are symmetrically opened on the outside of the processing box 1, and the air intake hoses 611 are all slidably connected inside the fixed ports 9. The fixed ports 9 provide a specific path and space for the sliding of the air intake hoses 611, ensuring that the air intake hoses 611 can move along a predetermined route when the equipment is running, avoiding the air intake hoses 611 from swinging randomly or being interfered with by other components, which helps to maintain the stability of the air intake hoses 611 and reduce the situation of poor gas transmission or damage to the hoses due to unstable hose positions, thereby ensuring that the multiple auxiliary components 6 can continuously and stably obtain the required gas supply and ensure the normal operation of the equipment;

[0052] Reference Fig.10 As shown, the limiting convex strip 606 and the limiting slide groove 605 are both in a cross shape. The cross-shaped design can limit and guide the movement of the belt roller 604 in multiple directions. On the one hand, it effectively prevents the belt roller 604 from axial movement, ensuring that it slides stably along the rotating rod 511 and the bidirectional screw rod 603. On the other hand, it can transmit torque, so that the belt roller 604 rotates while sliding and following the rotation of the rotating rod 511 and the bidirectional screw rod 603, thereby achieving precise power transmission and motion control.

[0053] Reference Figure 7 , Figure 8 and Fig. 9 As shown, the second beating steel mesh 518 and the first beating steel mesh 517 are staggered, and the two beating steel meshes 518 and the first beating steel mesh 517 are tilted. The staggered and tilted settings can contact the aramid fiber over a larger area, increase the range of action during beating, and the tilt angle makes the beating force have a certain directionality, which can more effectively beat out the debris and dust in the fiber. The staggered setting ensures that during the turning process, the fiber can be subjected to beating forces from different directions, thereby improving the effect and efficiency of removing impurities, thereby more thoroughly cleaning the aramid fiber and creating better conditions for subsequent processing.

[0054] In combination with the above preferred embodiments, the working principle of the present invention is as follows:

[0055] In the initial state, each component is in the initial position, the drive motor 510 is not started, the telescopic shaft of the micro electric gas rod 601 is in a retracted state, the beating steel mesh 1 517 and the beating steel mesh 2 518 are stationary, the static electricity collection plate 503 does not generate static electricity, the stabilizing blow plate 609 is in the initial position, and the suction fan 3 is not working.

[0056] When working:

[0057] The controller electrically controls the drive motor 510 to start, and the drive motor 510 drives the rotating rod 511 fixedly connected thereto to rotate, and the two rotating rods 511 are synchronously rotated in opposite directions through belt cross transmission, and the rotation of the rotating rod 511 drives the worm 512 fixedly connected thereto to rotate, and the rotation of the worm 512 drives the worm gear 513 meshing therewith to rotate, and the rotation of the worm gear 513 drives the rotating rod 508 fixedly connected thereto to rotate, and the rotation of the rotating rod 508 drives the flipping gear 509 fixedly connected thereto to rotate, and since the flipping gear 509 and the incomplete gear 519 mesh with each other, the incomplete gear 519 meshing therewith is driven to rotate, and the incomplete gear 519 drives the rotating shaft 515 fixedly connected thereto to rotate, and at this time, the reset torsion spring 516 is in a state of storing energy, and rotates on the side of the incomplete gear 519 where no teeth are provided. When it turns to the side of the flipping gear 509, the incomplete gear 519 is in a state without external force driving, and the torsion of the reset torsion spring 516 drives the rotating shaft 515 and the incomplete gear 519 to flip and reset, and flip and reset to a state of meshing with the flipping gear 509. Since the two rotating rods 511 rotate in opposite directions, the slapping steel mesh 1 517 and the slapping steel mesh 2 518 are synchronously flipped in opposite directions under the transmission of the worm 512, the worm wheel 513, the rotating rod 508, the flipping gear 509, the incomplete gear 519 and the rotating shaft 515, so as to flap the aramid fiber moving in the middle and beat out the debris and dust in the fiber. This synchronous reverse flipping flapping method can act on the aramid fiber in all directions and at multiple angles, and more effectively beat out the debris and dust hidden deep inside the fiber, thereby improving the thoroughness of impurity removal. At the same time, through the precise gear and belt transmission, the stability and accuracy of the flapping action are guaranteed, and the problem of uneven flapping caused by transmission error is reduced;

[0058] At the same time, the controller electrically controls the start of the electrostatic generator, so that the electrostatic collecting plate 503 generates static electricity to absorb the fiber debris and dust that are beaten out. The rotation of the rotating rod 508 drives the rotating gear 521 fixedly connected thereto to rotate, and the rotation of the rotating gear 521 drives the gear ring 522 meshing therewith to rotate. The rotation of the gear ring 522 drives the scraper 523 fixedly connected inside to rotate. Since the conical end of the scraper 523 contacts the surface of the electrostatic collecting plate 503, the fiber debris and dust adsorbed on the surface of the electrostatic collecting plate 503 can be scraped off by the scraper 523, and the scraped fiber debris and dust are collected into the collection box 504 through the collection port 524. The electrostatic adsorption effect of the electrostatic collecting plate 503 can quickly capture the tiny debris and dust that are beaten out to prevent them from floating back into the fiber again, thereby improving the efficiency of impurity collection. The timely cleaning function of the scraper 523 ensures that the electrostatic collecting plate 503 always maintains good adsorption performance, and the collection effect will not be reduced due to excessive surface adsorbents, thereby ensuring the continuity and stability of the entire impurity collection process.

[0059] The suction fan 3 is started by electrically controlling the controller. Suction is generated at one end of the suction fan 3. The fiber debris and dust in the processing box 1 and the fixed box 502 are sucked into the filtering treatment device 2 through the outlet pipe 1 612 and the outlet pipe 2 613 for filtering treatment, so that the floating fiber debris and dust inside the processing box 1 and the fixed box 502 can be removed more thoroughly and quickly. The blowing force generated by the other end of the suction fan 3 is transmitted to the stable blowing plate 609 through the air inlet hose 611 and blown out from the blowing port 610 to loosen the fiber debris and dust in the aramid fiber for subsequent removal. At the same time, the residual cleaning liquid is blown dry. The suction force of the suction fan 3 can quickly and effectively remove free impurities in the processing box 1 and the fixed box 502, keep the working environment clean, and reduce the influence of impurities on the treatment effect. The effect of the blowing force not only makes it easier for the debris and dust in the fiber to fall off, but also accelerates the volatilization of the cleaning liquid, improves the dryness of the fiber, and creates favorable conditions for the subsequent treatment steps;

[0060] The controller electrically controls the telescopic shaft of the micro-electric pneumatic rod 601 to start extending upward, and the telescopic shaft of the micro-electric pneumatic rod 601 pushes the connecting plate 602 to move upward, so that the three belt rollers 604 on the upper surface of the connecting plate 602 slide on the rotating rod 511 and the bidirectional screw rod 603. Due to the cooperation of the limiting convex strip 606 and the limiting slide groove 605, the rotating rod 511 drives one of the belt rollers 604 on its surface, and the belt roller 604 drives the other two belt rollers 604 to rotate synchronously through the transmission belt 614, so that the rotating rod 511 and the bidirectional screw rod 603 rotate synchronously, and the bidirectional thread on the surface of the bidirectional screw rod 603 makes the surface The movable screw sleeve 607 on the surface drives the connecting rod 608 and the stable blowing plate 609 to move. The blowing intensity is adjusted by adjusting the distance between the two stable blowing plates 609 and the aramid fiber. The cooperation of the micro electric air rod 601 and the bidirectional screw rod 603 realizes the precise adjustment of the position of the stable blowing plate 609. The blowing force and the range of action can be flexibly adjusted according to different fiber conditions and processing requirements, thereby improving the adaptability of the equipment and the consistency of the processing effect. The design of the limiting convex strip 606 and the limiting slide groove 605 ensures the accuracy and stability of the transmission, prevents slipping or deviation, and further improves the reliability and operation accuracy of the equipment.

[0061] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A processing device for aramid nano-metallized comfortable protective material, comprising a processing box (1), a filtering and processing device (2), and a suction fan (3), wherein the filtering and processing device (2) is fixedly connected to the top of the processing box (1), and the suction fan (3) is fixedly connected to the inside of the filtering and processing device (2), and both sides of the processing box (1) are provided with an inlet and outlet (4), characterized in that: Also included are: A multiple removal assembly (5) for multiple removal of impurities and moisture in the aramid fiber to increase metal deposition more uniformly; The multiple auxiliary components (6) are used to centrally assist in processing the impurities removed from the aramid fibers to increase the removal effect of the impurities.

2. The processing equipment of the aramid nano-metallized comfortable protective material according to claim 1, characterized in that: The multiple removal assembly (5) includes four fixed plates (514) symmetrically fixedly connected to the inner wall of the processing box (1); the four fixed plates (514) are rotatably connected to the side close to the processing box (1) with a rotating shaft (515); the outer walls of the four rotating shafts (515) are symmetrically fixedly connected to baffles (525); the outer walls of the four rotating shafts (515) are respectively fixedly connected to a beating steel mesh 1 (517) and a beating steel mesh 2 (518); the outer walls of the four rotating shafts (515) are respectively symmetrically sleeved with a return torsion spring (516) with one end fixedly connected to the baffle (525); the interior of the processing box (1) is symmetrically provided with fixed cavities (507); the inner wall of one of the fixed cavities (507) is fixedly connected to a driving motor (510); the interior of the fixed cavity (507) is rotatably connected to a rotating rod (511); The output shaft of the driving motor (510) is fixedly connected to the top end of one of the rotating rods (511); the outer walls of the two rotating rods (511) are fixedly connected with a worm (512); the interior of the fixed cavity (507) is fixedly connected with a support block (520); the interior of the support block (520) is rotatably connected with a rotating rod (508); the outer walls of the two rotating rods (508) are symmetrically fixedly connected with flip gears (509); the outer walls of the rotating shaft (515) are fixedly connected with an incomplete gear (519); the incomplete gear (519) and the flip gear (509) are meshed with each other; the two rotating rods (511) are connected by a belt cross transmission; the outer walls of the rotating rods (508) are fixedly connected with a worm wheel (513); the worm (512) and the worm wheel (513) are meshed with each other.

3. The processing equipment of the aramid nano-metallized comfortable protective material according to claim 2, characterized in that: The multiple removal assembly (5) further comprises a support rod (501) symmetrically fixedly connected to the inner wall of the processing box (1); one end of the support rod (501) away from the processing box (1) is fixedly connected to a fixed box (502); an electrostatic collecting plate (503) is fixedly connected to the inner side of the fixed box (502); an electrostatic generator is arranged on the outer side of the fixed box (502); an opening is provided inside the fixed box (502) and the electrostatic collecting plate (503); a gear ring (522) is rotatably connected to the inside of the opening; a scraper (523) is symmetrically fixedly connected to the inner side of the gear ring (522); and the two scrapers ( The sides of the fixed box (502) that are away from each other are in contact with the surface of the electrostatic collection plate (503), the bottom of the fixed box (502) is fixedly connected to a collection box (504), both sides of the fixed box (502) are provided with openings (505), the inner sides of the openings (505) are symmetrically fixedly connected to an absorption box (506), the outer surface of the absorption box (506) is provided with dust suction holes, the outer wall of one of the rotating rods (508) is fixedly connected to a rotating gear (521), the rotating gear (521) and the gear ring (522) are meshed with each other, and the bottom of the fixed box (502) is provided with a collection opening (524).

4. The processing equipment of the aramid nano-metallized comfortable protective material according to claim 3 is characterized by: The multiple auxiliary components (6) include a micro electric pneumatic rod (601) fixedly connected to the top of one of the support blocks (520), the top end of the telescopic shaft of the micro electric pneumatic rod (601) is fixedly connected to a connecting plate (602), one of the fixed cavities (507) is symmetrically rotatably connected to a bidirectional screw rod (603), the outer walls of the rotating rod (511) and the two bidirectional screw rods (603) are fixedly connected to a limiting convex strip (606), the upper surface of the connecting plate (602) is rotatably connected to three belt rollers (604), the inside of the three belt rollers (604) are provided with a limiting slide groove (605), the belt rollers (604) and The connecting plates (602) are slidably connected to the outer walls of the rotating rod (511) and the two bidirectional screw rods (603); a transmission belt (614) is connected between the three belt rollers (604); the outer walls of the bidirectional screw rods (603) are symmetrically threadedly connected to movable screw sleeves (607); the outer sides of the movable screw sleeves (607) are fixedly connected to connecting rods (608); the interior of the processing box (1) is symmetrically slidably connected to four stable blowing plates (609); one end of the connecting rod (608) away from the movable screw sleeve (607) is fixedly connected to the stable blowing plate (609); and the outer walls of the stable blowing plates (609) are provided with blowing ports (610).

5. The processing equipment of the aramid nano-metallized comfortable protective material according to claim 4, characterized in that: The multiple auxiliary components (6) also include an air intake hose (611) fixedly connected to the stabilizing blow plate (609), and the end of the air intake hose (611) away from the stabilizing blow plate (609) is fixedly connected to the suction fan (3), and the interior of the fixed box (502) is symmetrically fixedly connected with an air outlet pipe 1 (612) and an air outlet pipe 2 (613), and the ends of the air outlet pipe 1 (612) and the air outlet pipe 2 (613) away from the fixed box (502) are fixedly connected to the filtering and processing equipment (2), and the ends of the air outlet pipe 1 (612) and the air outlet pipe 2 (613) away from the filtering and processing equipment (2) are fixedly connected to the absorption box (506).

6. The processing equipment of the aramid nano-metallized comfortable protective material according to claim 5, characterized in that: Four limiting openings (7) are symmetrically provided inside the processing box (1), the incomplete gear (519) and the flip gear (509) are both rotatably connected inside the limiting openings (7), and the limiting openings (7) are both fixedly connected to the fixed cavity (507).

7. The processing equipment of the aramid nano-metallized comfortable protective material according to claim 5, characterized in that: The processing box (1) is symmetrically provided with movable openings (8), and the air intake hose (611) and the connecting rod (608) are slidably connected inside the movable openings (8).

8. The processing equipment of the aramid nano-metallized comfortable protective material according to claim 5, characterized in that: Four fixed openings (9) are symmetrically provided on the outer side of the processing box (1), and the air intake hoses (611) are all slidably connected inside the fixed openings (9).

9. The processing equipment of aramid nano-metallized comfortable protective material according to claim 4, characterized in that: The limiting convex strip (606) and the limiting sliding groove (605) are both in the shape of a cross.

10. The processing equipment of aramid nano-metallized comfortable protective material according to claim 2, characterized in that: The second beating steel mesh (518) and the first beating steel mesh (517) are arranged in a staggered manner, and both the second beating steel mesh (518) and the first beating steel mesh (517) are arranged in an inclined manner.

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