Antistatic processing device for polar fleece fabric
By integrating the padding-baking process into the processing equipment, the problem of large equipment size and large space occupation has been solved, and the antistatic function of fleece fabric and the space utilization rate have been improved.
Patent Information
- Application Number
- CN202511632982.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-11-10
- Publication Date
- 2025-12-23
AI Technical Summary
The existing antistatic processing equipment for fleece fabrics has each step designed independently, resulting in large equipment size, large space occupation, and reduced space utilization.
By integrating the processing equipment for the padding-baking process, and by setting up processing and purification mechanisms, the equipment can be operated in an integrated manner, thereby reducing its size.
This reduces the floor space occupied by the entire antistatic processing equipment, improves space utilization, and enables the fabric to have antistatic properties.
Smart Images
Figure CN121183531A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of fabric processing technology, specifically to an antistatic processing device for fleece fabric. Background Technology
[0002] Fabric, also known as "woven fabric" or "cloth," is the core raw material for clothing, home textiles, and industrial textiles. It is mainly produced through processes such as spinning, weaving, and non-woven fabrics. After fleece fabric is produced, it generally needs to be treated with antistatic processing equipment. The main reason for this is that polyester, the main raw material of this fabric, is a synthetic fiber. This fiber itself is electrically insulating. Therefore, the fluffy pile on the surface of the fabric is prone to generating and accumulating static electricity due to friction between fibers during daily wear, washing, or storage. This static electricity not only causes the fabric to attract dust and tangle, but also produces an electric shock sensation in a dry environment, which can easily cause discomfort to sensitive people.
[0003] Antistatic processing of fleece fabrics commonly employs a padding-baking process. The core logic of this process involves first immersing the fleece fabric completely in an antistatic agent working solution using a immersion device, allowing the fabric fibers to fully absorb the antistatic agent components. Then, a roller device applies uniform pressure to the fabric, squeezing out excess working solution. This "immersion-squeezing" process is repeated (often a two-immersion, two-baking cycle). Finally, the fabric is sent to a hot air baking machine, where temperature control allows the antistatic agent to physically adsorb and chemically cross-link with the polyester fibers, forming a washable conductive layer. This ultimately gives the fabric antistatic properties. However, this mainstream process has a significant limitation: each step of the process, including the immersion device, roller device, and hot air baking machine, is independently designed, and each unit is generally quite large. This significantly increases the floor space occupied by the entire antistatic processing equipment, impacting space utilization.
[0004] Therefore, we propose a new antistatic processing device for fleece fabric to solve the problems mentioned in the background art. Summary of the Invention
[0005] The purpose of this invention is to provide an antistatic processing device for fleece fabric. By setting up a processing mechanism, the processing equipment for the padding-baking process can be integrated together without losing the processing function, thereby reducing the volume of the entire antistatic processing equipment and the floor area occupied by the entire antistatic processing equipment, that is, improving the space utilization rate, so as to solve the problems mentioned in the background art.
[0006] To achieve the above objectives, the present invention provides the following technical solution: an antistatic processing device for fleece fabric, comprising a processing mechanism, a purification mechanism on the processing mechanism, the processing mechanism including a set of support frames, an impregnation tank and a shell fixed between the set of support frames, a first electric cylinder and a set of second electric cylinders mounted on the top of the shell, a round rod mounted on the telescopic end of the first electric cylinder, a placement box disposed inside the shell, a connecting frame mounted on the telescopic end of each of the second electric cylinders, a pressure plate fixed between the bottom ends of the multiple connecting frames, the pressure plate being used to squeeze the fleece fabric impregnated with antistatic agent inside the placement box, multiple through-hole pipes fixed on both sides of the inner wall of the shell, a hot air blower fixed on the surface of one of the support frames, an insulation pipe connected between the air inlet end of one of the multiple through-hole pipes and the air outlet end of the hot air blower, a set of symmetrical baffles disposed in the bottom groove of the shell, and multiple drying rods disposed in the top groove of the placement box.
[0007] Preferably, the housing is located directly above the immersion tank, the telescopic ends of the first electric cylinder and the two telescopic ends of the second electric cylinders all extend through the top of the housing, the bottom end of the round rod is fixed to the bottom of the inner wall of the placement box, the bottom of the placement box is in contact with the top of the two baffles, the pressure plate is adapted to the placement box, the pressure plate and multiple connecting frames are all located inside the placement box, and a rotating rod is fixedly sleeved inside the round hole of each baffle.
[0008] Preferably, both ends of each rotating rod movably penetrate the inner wall of the placement box, two motors are installed on the outer wall of the placement box, and the output end of each motor is respectively installed with one end of each rotating rod. Two symmetrical circular tubes are fixedly inserted through the inner wall of the placement box near the bottom, and circular tubes are also fixedly inserted through the inner wall of the immersion tank near the bottom.
[0009] Preferably, the outlet ends of two of the circular tubes are connected to a first manual valve, the outlet end of the other circular tube is connected to a second manual valve, the outlet end of each of the first manual valves is connected to a return pipe, and the outlet ends of the two return pipes are respectively connected to two inlet ends near the top of the outer wall of the immersion tank.
[0010] Preferably, a driver is installed on the surface of one of the support frames, a controller is installed on the surface of another support frame, and a cover plate is installed at the opening on the front surface of the housing.
[0011] Preferably, the purification mechanism includes a rectangular frame, which is mounted on the surface of another support frame, and the mounting block is mounted on the surface of another support frame. The bottom of the rectangular frame, the bottom of a set of support frames, and the bottom of the immersion tank are on the same horizontal plane. The mounting block is fixed to the top of the rectangular frame. A cross groove is preset on the surface of the mounting block, and a filter block is placed inside the cross groove.
[0012] Preferably, a rectangular plate is added to the surface of the mounting block, and a heat sink is added to the groove of the mounting block. The air outlet of the heat sink is connected to a first connecting pipe, and the air outlet of the first connecting pipe is fixedly inserted through the surface of the mounting block and connected to the interior of the cross groove.
[0013] Preferably, the rectangular plate is used to fix the filter block, the air inlet end of the radiator is connected to the second connecting pipe, and the top of the mounting block has a pre-set processing groove and multiple arc-shaped grooves, and the interior of the multiple arc-shaped grooves is connected to the interior of the processing groove.
[0014] Preferably, the air inlet end of the second connecting pipe is fixedly inserted through the surface of the mounting block and connected to the interior of the treatment tank. Multiple filter plates are evenly distributed inside the treatment tank, and a top cover is installed on the top of the mounting block.
[0015] Preferably, the tops of the plurality of filter plates are in contact with the bottom of the top cover, the top air inlet of the top cover is connected to the third connecting pipe, the air inlet of the third connecting pipe is connected to the air outlet of another multi-port pipe, and the inner wall of the cross groove has a plurality of air outlet holes.
[0016] Compared with the prior art, the beneficial effects of the present invention are: 1. In this invention, by setting up a processing mechanism, the processing equipment for the padding-baking process can be integrated together without losing the processing function, thereby reducing the volume of the entire antistatic processing equipment and thus reducing the floor area occupied by the entire antistatic processing equipment, that is, improving space utilization. When the fleece fabric inside the placement box needs to be immersed in liquid, two motors, two rotating rods, a driver and a controller are used to rotate the two baffles until they can no longer rotate. Then, the first electric cylinder, the round rod, the placement box, the driver and the controller are used to move the placement box containing multiple fleece fabrics into the immersion tank for immersion. Then, the placement box is reset first, and then the two baffles are reset.
[0017] 2. In this invention, when the placement box and the two baffles are returned to their original positions, the excess antistatic agent solution in the fleece fabric inside the placement box is squeezed out using two second electric cylinders, a driver, a controller, two connecting frames, and a pressure plate. Then, the excess antistatic agent solution squeezed out from the fleece fabric is guided back into the impregnation tank using two baffles, two corresponding round pipes, two first manual valves with the valves opened, and two return pipes. After the fleece fabric has undergone multiple impregnation operations, the antistatic agent solution is physically adsorbed and chemically cross-linked with the polyester fibers using a hot air blower, an insulation pipe, multiple drying rods, drying rod baffles, a shell, a cover plate, and two multi-port pipes. This allows the fleece fabric to form a water-resistant conductive layer, thus enabling the fleece fabric to have antistatic capabilities.
[0018] 3. In this invention, by setting up a purification mechanism, the hot air discharged from the outlet of another multi-port pipe can be processed. When the used hot air enters the interior of another multi-port pipe and is discharged from the outlet of the multi-port pipe, the third connecting pipe, the top cover, the processing tank and multiple arc-shaped grooves are used to filter out the fibers carried in the used hot air. Then, by using the cooperation of the second connecting pipe, the radiator, the first connecting pipe, the cross groove, the rectangular plate, the filter block and the air outlet, the hot air can be cooled down first, and then the VOCs gas mixed in the air that volatilizes when the antistatic agent solution is heated can be adsorbed and removed before being discharged into the environment, thus avoiding the spread of VOCs gas into the environment. Attached Figure Description
[0019] Figure 1 This is a side perspective perspective view of an antistatic processing device for fleece fabric according to the present invention; Figure 2 This is another perspective view of the antistatic processing device for fleece fabric according to the present invention; Figure 3 This is a top-view partial cross-sectional perspective view of an antistatic processing device for fleece fabric according to the present invention. Figure 4 This is a top-view perspective view of the purification mechanism of the antistatic processing device for fleece fabric according to the present invention. Figure 5 This is a perspective view of the processing mechanism of the antistatic processing device for fleece fabric according to the present invention, taken from a low angle. Figure 6 This is a perspective view of another angle of the processing mechanism of the antistatic processing device for fleece fabric according to the present invention; Figure 7 This invention relates to an antistatic processing device for fleece fabric. Figure 1 Enlarged 3D view of the structure at point A in the middle; Figure 8 This invention relates to an antistatic processing device for fleece fabric. Figure 2 Enlarged 3D view of the structure at point B.
[0020] In the diagram: 1. Machining mechanism; 101. Support frame; 102. Dipping tank; 103. Shell; 104. First electric cylinder; 105. Second electric cylinder; 106. Round rod; 107. Placement box; 108. Pressure plate; 109. Connecting frame; 110. Multi-port pipe; 111. Hot air blower; 112. Insulation pipe; 113. Baffle; 114. Rotating rod; 115. Motor; 116. Round pipe; 117. First manual valve; 118. Return pipe; 11 9. Second manual valve; 120. Drying rod; 2. Actuator; 3. Controller; 4. Cover plate; 5. Purification mechanism; 501. Rectangular frame; 502. Mounting block; 503. First connecting pipe; 504. Cross groove; 505. Filter block; 506. Rectangular plate; 507. Radiator; 508. Second connecting pipe; 509. Treatment tank; 510. Filter plate; 511. Arc groove; 512. Top cover; 513. Third connecting pipe; 514. Air outlet. Detailed Implementation
[0021] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.
[0022] Example 1: Please refer to Figures 1-3 and Figures 5-8As shown, the present invention provides a technical solution: an antistatic processing device for fleece fabric, including a processing mechanism 1, a purification mechanism 5 disposed on the processing mechanism 1, the processing mechanism 1 including a set of support frames 101, a soaking tank 102 and a housing 103 fixed between the set of support frames 101, a first electric cylinder 104 and a set of second electric cylinders 105 mounted on the top of the housing 103, a round rod 106 mounted on the telescopic end of the first electric cylinder 104, a placement box 107 disposed inside the housing 103, a connecting frame 109 mounted on the telescopic end of each second electric cylinder 105, a pressure plate 108 fixed between the bottom ends of the multiple connecting frames 109, and the round rod 106 movably sleeved on the... Inside the top circular hole of the pressure plate 108, the pressure plate 108 is used to compress the fleece fabric impregnated with antistatic agent inside the placement box 107. Multiple through-tubes 110 are fixed to both sides of the inner wall of the shell 103. A hot air blower 111 is fixed to the surface of one of the support frames 101. An insulation pipe 112 connects the air inlet end of one of the multiple through-tubes 110 to the air outlet end of the hot air blower 111. A set of symmetrical baffles 113 are provided in the bottom groove of the shell 103. Multiple drying rods 120 are placed in the top groove of the placement box 107. The shell 103 is directly above the impregnation tank 102. The telescopic end of the first electric cylinder 104 and the extension of the two second electric cylinders 105... The constricted ends all extend through the top of the housing 103. The bottom end of the round rod 106 is fixed to the bottom of the inner wall of the placement box 107. The bottom of the placement box 107 contacts the tops of the two baffles 113. The pressure plate 108 is adapted to the placement box 107. The pressure plate 108 and multiple connecting brackets 109 are all located inside the placement box 107. A rotating rod 114 is fixedly sleeved inside the round hole of each baffle 113. Both ends of each rotating rod 114 extend through the inner wall of the placement box 107. Two motors 115 are installed on the outer wall of the placement box 107, and the output end of each motor 115 is respectively installed with one end of each rotating rod 114. The inner wall of the placement box 107 is close to the bottom. Two symmetrical circular tubes 116 are fixedly inserted through the part, and the inner wall of the immersion tank 102 near the bottom is also fixedly inserted through the circular tubes 116. The liquid outlet of the two circular tubes 116 is connected to the first manual valve 117, and the liquid outlet of the other circular tube 116 is connected to the second manual valve 119. The liquid outlet of each first manual valve 117 is connected to the return pipe 118. The liquid outlet of the two return pipes 118 is connected to the two liquid inlet ends near the top of the outer wall of the immersion tank 102, respectively. A driver 2 is installed on the surface of one support frame 101, a controller 3 is installed on the surface of another support frame 101, and a cover plate 4 is installed at the opening on the front surface of the housing 103.
[0023] In this embodiment, when the fleece fabric inside the placement box 107 needs to be immersed in liquid, the controller 3 and the driver 2 simultaneously start two motors 115, causing the two motors 115 to drive the connected rotating rods 114 to rotate. The two rotating rods 114, rotating in opposite directions, will then drive the connected baffles 113 to rotate. Once the surfaces of both baffles 113 are in contact with the outer wall of the placement box 107, the two motors 115 are paused, and then the first electric cylinder 104 is started, causing its telescopic end to move, driving the connected round rod 106 to move. The moving round rod 106 will then drive the placement box 107, which contains multiple pieces of fleece fabric, to move. When the bottom of the placement box 107 reaches... When the device touches the surface of the antistatic agent solution inside the immersion tank 102 and continues to move downwards, the antistatic agent solution inside the immersion tank 102 will pass through the through-hole on the outer wall of the placement box 107 and enter the interior of the placement box 107, contacting the fleece fabric. When the placement box 107 can no longer move, the first electric cylinder 104 is paused. Then, the antistatic agent solution inside the immersion tank 102 is allowed to mix with the fleece fabric inside the placement box 107 for a period of time. Then, the placement box 107 is reset back into the housing 103. At this time, when the placement box 107 moves back, the excess antistatic agent solution inside it will pass through the through-hole on its surface and fall back into the immersion tank 102. When the placement box 107 returns to its original position, the placement box 107 is paused again. Then, reset the two baffles 113 to their original positions. Next, simultaneously activate the two second electric cylinders 105 and manually open the two first manual valves 117. The activated second electric cylinders 105, through the two connecting brackets 109, together drive the pressure plate 108 downwards. When the pressure plate 108 moves into the placement box 107 and continues to move downwards, the downward-moving pressure plate 108, in conjunction with the fixed placement box 107, squeezes out excess antistatic agent solution from the multiple pieces of fleece fabric placed inside the placement box 107. The squeezed-out antistatic agent solution then passes through the through-hole in the placement box 107 and enters the space formed by the two baffles 113, the housing 103, and the cover plate 4, subsequently entering the interior of the two circular tubes 116 on the housing 103. The solution then flows through the inside of the two manually operated valves 117 (which are open), and then back into the immersion tank 102 via two return pipes 118. Once the excess antistatic agent solution inside the multiple fleece fabric pieces inside the placement box 107 has been squeezed out, the above steps are repeated. First, the two baffles 113 are rotated until they can no longer be rotated. Then, the placement box 107 is lowered into the immersion tank 102, allowing the multiple fleece fabric pieces to be immersed again. The excess antistatic agent solution in the multiple fleece fabric pieces inside the placement box 107 is then squeezed out. This process is repeated several times until the multiple fleece fabric pieces inside the placement box 107 have had the excess antistatic agent solution squeezed out again. Finally, all the antistatic agent solution in the aforementioned space flows back into the immersion tank 102.Manually close the valves of the two first manual valves 117, then remove the cover plate 4. Next, place all the previously removed drying rods 120 back in their original positions, and hang each fleece fabric, after squeezing out the antistatic agent solution, on the drying rods 120. Then, replace the cover plate 4, and start the hot air blower 111. The hot air blower 111 will first draw in ambient air, then heat it, and then deliver it into the interior of the heat insulation pipe 112. It will then be delivered through the connected multi-port pipe 110 into the space composed of two baffles 113, the housing 103, and the cover plate 4. When the hot air reaches this space, the flowing hot air will cause the antistatic agent solution to undergo physical adsorption and chemical cross-linking with the polyester fibers, forming a water-resistant conductive layer. The used hot air will enter the interior of another multi-port pipe 110 and then be discharged. This integrates the three steps into one unit, reducing the overall size of the antistatic processing equipment.
[0024] Example 2: According to Figures 1-5 and Figure 7 As shown, the processing mechanism 1 includes a set of support frames 101, with an immersion tank 102 and a housing 103 fixed between the support frames 101. Multiple through-hole pipes 110 are fixed to both sides of the inner wall of the housing 103. The purification mechanism 5 includes a rectangular frame 501, which is mounted on the surface of another support frame 101. A mounting block 502 is mounted on the surface of another support frame 101. The bottom of the rectangular frame 501, the bottom of the support frames 101, and the bottom of the immersion tank 102 are on the same horizontal plane. The mounting block 502 is fixed to the top of the rectangular frame 501. A cross groove 504 is pre-set on the surface of the mounting block 502, and a filter block 505 is placed inside the cross groove 504. A rectangular plate 506 is mounted on the surface of the mounting block 502. A radiator 507 is mounted in the groove of the mounting block 502. The air outlet of the radiator 507 is connected to a first connecting pipe 503, and the air outlet of the first connecting pipe 503 is fixedly connected to the radiator 507. The surface of mounting block 502 is connected to the interior of cross groove 504. Rectangular plate 506 is used to fix filter block 505. The air inlet end of radiator 507 is connected to second connecting pipe 508. The top of mounting block 502 has a pre-set treatment groove 509 and multiple arc grooves 511, and the interior of multiple arc grooves 511 is connected to the interior of treatment groove 509. The air inlet end of second connecting pipe 508 is fixedly inserted through the surface of mounting block 502 and is connected to the interior of treatment groove 509. Multiple filter plates 510 are equidistantly distributed inside treatment groove 509. Top cover 512 is added to the top of mounting block 502. The top of multiple filter plates 510 is in contact with the bottom of top cover 512. The top air inlet end of top cover 512 is connected to third connecting pipe 513. The air inlet end of third connecting pipe 513 is connected to the air outlet end of another multi-port pipe 110. Multiple air outlet holes 514 are pre-set on the inner wall of cross groove 504.
[0025] In this embodiment, when the used hot air enters the interior of another multi-port pipe 110 and exits from the outlet of the multi-port pipe 110, the exited hot air enters the interior of the third connecting pipe 513, and then enters the interior of the processing tank 509 through the top cover 512. Next, multiple arc-shaped grooves 511 and multiple filter plates 510 filter out the fibers carried in the hot air. Once the hot air has been filtered and delivered to the interior of the second connecting pipe 508, the radiator 507 is activated, and the processed hot air entering the second connecting pipe 508 is then delivered to the radiator 507. Inside, when hot air enters the radiator 507, the radiator 507, which is activated at this time, will carry the heat carried by the hot air passing through it. The cooled hot air will then be delivered to the first connecting pipe 503, and then to the cross groove 504. When the cooled hot air enters the cross groove 504 and moves towards the air outlet 514, the VOCs gas mixed in the air that evaporates when the antistatic agent solution is heated can be adsorbed and removed by the filter block 505. The treated air will then pass through the air outlet 514 and be discharged into the environment.
[0026] The overall effect and working principle of the mechanism are as follows: When in use, first remove the cover plate 4, and then through the opening on the front surface of the housing 103, remove all the drying rods 120 on the top of the placement box 107. After all the drying rods 120 are removed, directly stack the multiple pieces of fleece fabric that need to be soaked into the inside of the placement box 107 in sequence. Then, install the cover plate 4 back into its original position. After the cover plate 4 is installed, inject an appropriate amount of antistatic agent solution into the soaking tank 102, and at the same time set the air heating temperature. When the fleece fabric inside the placement box 107 needs to be immersed in liquid, the controller 3 and the driver 2 simultaneously start two motors 115, causing the two motors 115 to drive the connected rotating rods 114 to rotate. The two rotating rods 114, rotating in opposite directions, will then drive the connected baffles 113 to rotate. Once the surfaces of both baffles 113 are in contact with the outer wall of the placement box 107, the two motors 115 are paused. Then, the first electric cylinder 104 is started, causing its telescopic end to move, driving the connected round rod 106 to move. The moving round rod 106 will then move the placement box 107 containing multiple fleece fabric pieces. When the bottom of the placement box 107 contacts the immersion tank 102... As the antistatic agent solution in the placement box 107 continues to move downwards, the antistatic agent solution inside the immersion tank 102 will pass through the through-hole on the outer wall of the placement box 107 and enter the interior of the placement box 107, contacting the fleece fabric. When the placement box 107 can no longer move, the first electric cylinder 104 is paused. Then, the antistatic agent solution inside the immersion tank 102 is allowed to mix with the fleece fabric inside the placement box 107 for a period of time. Then, the placement box 107 is reset back into the interior of the housing 103. At this time, when the placement box 107 moves back, the excess antistatic agent solution inside it will pass through the through-hole on its surface and fall back into the immersion tank 102. When the placement box 107 returns to its original position, the placement box 107 is paused again, and at the same time, the two baffles 113 are reset. In its original position, two second electric cylinders 105 are then simultaneously activated, and two first manual valves 117 are manually opened. The activated second electric cylinders 105, through two connecting brackets 109, together drive the pressure plate 108 downwards. When the pressure plate 108 moves into the interior of the placement box 107 and continues to move downwards, the downward-moving pressure plate 108, in conjunction with the fixed-position placement box 107, squeezes out excess antistatic agent solution from the multiple pieces of fleece fabric placed inside the placement box 107. The squeezed-out antistatic agent solution then passes through the through-hole in the placement box 107, enters the space formed by the two baffles 113, the housing 103, and the cover plate 4, then enters the interior of the two circular tubes 116 on the housing 103, and finally passes through the two first manual valves with the valves opened. The solution flows back into the immersion tank 102 through two return pipes 118 from inside valve 117. Once the excess antistatic agent solution inside the multiple fleece fabric pieces in the placement box 107 has been squeezed out, the above steps are repeated. First, rotate the two baffles 113 until they can no longer rotate, then lower the placement box 107 into the immersion tank 102, allowing the multiple fleece fabric pieces to be immersed again. Then, squeeze out the excess antistatic agent solution from the multiple fleece fabric pieces inside the placement box 107. Repeat this process several times until the multiple fleece fabric pieces inside the placement box 107 have had the excess antistatic agent solution squeezed out again. Once all the antistatic agent solution in the aforementioned space has flowed back into the immersion tank 102, manually close the two first manual valves 117.Then, remove the cover plate 4, and place all the previously removed drying rods 120 back in their original positions. Place each fleece fabric, after the antistatic agent solution has been squeezed out, onto the drying rods 120. Then, replace the cover plate 4 and start the hot air blower 111. The hot air blower 111 will first draw in ambient air, then heat it, and then deliver it into the interior of the insulation pipe 112. Next, through the connected multi-port pipe 110, it will be delivered into the space composed of two baffles 113, the housing 103, and the cover plate 4. When the hot air reaches this space, the flowing hot air will cause the antistatic agent solution to undergo physical adsorption and chemical cross-linking with the polyester fibers, forming a washable conductive layer. The used hot air will then enter the interior of another multi-port pipe 110. When the used hot air enters the interior of another multi-port pipe 110 and exits from the outlet of the multi-port pipe 110, the exited hot air enters the interior of the third connecting pipe 513, and then enters the interior of the processing tank 509 through the top cover 512. Multiple arc-shaped grooves 511 and multiple filter plates 510 then filter out the fibers carried in the hot air. Once the hot air has been filtered and is delivered to the interior of the second connecting pipe 508, the radiator 507 is activated. The processed hot air then enters the second connecting pipe 508 and is delivered to the radiator 507. When the hot air enters the radiator 507, the activated radiator 507 drives the air passing through it. The heat carried by the hot air is then cooled and delivered to the inside of the first connecting pipe 503, and then to the inside of the cross groove 504. When the cooled hot air enters the inside of the cross groove 504 and moves towards the air outlet 514, the VOCs gas mixed in the air and volatilized when the antistatic agent solution is heated can be adsorbed and removed by the filter block 505. The treated air then passes through the inside of the air outlet 514 and is discharged into the environment. When the fleece fabric processing is completed, the radiator 507 and the hot air blower 111 are turned off, the cover plate 4 is removed, the processed fleece fabric is taken out, and then it is quickly cooled to room temperature by the cooling equipment.
[0027] The wiring diagram between the first electric cylinder 104, the two second electric cylinders 105, the hot air blower 111, the motor 115, the driver 2, the controller 3, and the radiator 507 is a publicly disclosed technology in this field. The model can be selected according to the actual situation, so the control method and wiring between the first electric cylinder 104, the two second electric cylinders 105, the hot air blower 111, the motor 115, the driver 2, the controller 3, and the radiator 507 will not be described in detail here.
[0028] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.
Claims
1. An antistatic processing device for fleece fabric, comprising a processing mechanism (1), characterized in that: The processing mechanism (1) is equipped with a purification mechanism (5). The processing mechanism (1) includes a set of support frames (101). An immersion tank (102) and a shell (103) are fixed between the set of support frames (101). A first electric cylinder (104) and a set of second electric cylinders (105) are installed on the top of the shell (103). A round rod (106) is installed on the telescopic end of the first electric cylinder (104). A placement box (107) is set inside the shell (103). A connecting frame (109) is installed on the telescopic end of each second electric cylinder (105). The bottom ends of the multiple connecting frames (109) are... A pressure plate (108) is fixed between the two sides of the inner wall of the housing (103). The pressure plate (108) is used to squeeze the fleece fabric impregnated with antistatic agent inside the placement box (107). A multi-port pipe (110) is fixed on both sides of the inner wall of the housing (103). A hot air blower (111) is fixed on the surface of one of the support frames (101). An insulation pipe (112) is connected between the air inlet end of one of the multi-port pipes (110) and the air outlet end of the hot air blower (111). A set of symmetrical baffles (113) is provided at the bottom groove of the housing (103). Multiple drying rods (120) are placed at the top groove of the placement box (107).
2. The antistatic processing device for fleece fabric according to claim 1, characterized in that: The housing (103) is located directly above the immersion tank (102). The telescopic ends of the first electric cylinder (104) and the two telescopic ends of the second electric cylinders (105) are movable through the top of the housing (103). The bottom end of the round rod (106) is fixed to the bottom of the inner wall of the placement box (107). The bottom of the placement box (107) is in contact with the top of the two baffles (113). The pressure plate (108) is adapted to the placement box (107). The pressure plate (108) and multiple connecting frames (109) are all located inside the placement box (107). A rotating rod (114) is fixedly sleeved inside the round hole of each baffle (113).
3. The antistatic processing device for fleece fabric according to claim 2, characterized in that: Both ends of each of the rotating rods (114) are movably inserted through the inner wall of the placement box (107). Two motors (115) are installed on the outer wall of the placement box (107), and the output end of each motor (115) is respectively installed with one end of each rotating rod (114). Two symmetrical circular tubes (116) are fixedly inserted through the inner wall of the placement box (107) near the bottom, and circular tubes (116) are also fixedly inserted through the inner wall of the immersion tank (102) near the bottom.
4. The antistatic processing device for fleece fabric according to claim 3, characterized in that: The outlet ends of two of the circular pipes (116) are connected to the first manual valve (117), and the outlet end of the other circular pipe (116) is connected to the second manual valve (119). The outlet end of each of the first manual valves (117) is connected to the return pipe (118). The outlet ends of the two return pipes (118) are respectively connected to the two inlet ends of the outer wall of the immersion tank (102) near the top.
5. The antistatic processing device for fleece fabric according to claim 1, characterized in that: A driver (2) is installed on the surface of one of the support frames (101), a controller (3) is installed on the surface of another support frame (101), and a cover plate (4) is installed at the opening on the front surface of the housing (103).
6. The antistatic processing device for fleece fabric according to claim 1, characterized in that: The purification mechanism (5) includes a rectangular frame (501), which is mounted on the surface of another support frame (101). The mounting block (502) is mounted on the surface of another support frame (101). The bottom of the rectangular frame (501), the bottom of a set of support frames (101), and the bottom of the immersion tank (102) are on the same horizontal plane. The mounting block (502) is fixed on the top of the rectangular frame (501). The surface of the mounting block (502) has a pre-set cross groove (504). The filter block (505) is placed inside the cross groove (504).
7. The antistatic processing device for fleece fabric according to claim 6, characterized in that: A rectangular plate (506) is added to the surface of the mounting block (502), and a heat sink (507) is added to the groove of the mounting block (502). The air outlet of the heat sink (507) is connected to the first connecting pipe (503). The air outlet of the first connecting pipe (503) is fixedly inserted through the surface of the mounting block (502) and connected to the interior of the cross groove (504).
8. The antistatic processing device for fleece fabric according to claim 7, characterized in that: The rectangular plate (506) is used to fix the filter block (505), the air inlet end of the radiator (507) is connected to the second connecting pipe (508), the top of the mounting block (502) has a pre-set processing groove (509) and multiple arc grooves (511), and the interior of the multiple arc grooves (511) is connected to the interior of the processing groove (509).
9. The antistatic processing device for fleece fabric according to claim 8, characterized in that: The air inlet end of the second connecting pipe (508) is fixedly inserted through the surface of the mounting block (502) and connected to the interior of the treatment tank (509). Multiple filter plates (510) are equidistantly distributed inside the treatment tank (509), and a top cover (512) is installed on the top of the mounting block (502).
10. The antistatic processing device for fleece fabric according to claim 9, characterized in that: The tops of the multiple filter plates (510) are in contact with the bottom of the top cover (512). The top air inlet of the top cover (512) is connected to the third connecting pipe (513). The air inlet of the third connecting pipe (513) is connected to the air outlet of another multi-port pipe (110). The inner wall of the cross groove (504) has multiple air outlet holes (514).