Static electricity removing device and method for oxford fabric production

Abstract

The invention discloses a destaticizing device and method for oxford fabric production, and relates to the technical field of ion gas destaticizing. A static electricity eliminating device for oxford fabric production comprises an eliminating layer formed by semi-arc cylinders which are symmetrically arranged up and down, fabric penetrates through the eliminating layer, and further comprises a first inclined hole and a second inclined hole which are formed in the planes of the semi-arc cylinders, and the directions of the first inclined hole and the second inclined hole are opposite; the vertical holes are respectively formed in planes on one sides of the inclined hole I and the inclined hole II; the inclined holes I and the inclined holes II are formed in opposite directions, so that ionic wind forms cross coverage on the surface of the fabric; ion wind discharged from the interlayer seam collides with airflow of the inclined holes, the retention time of ions on the surface of the fabric is prolonged, the static neutralization efficiency is improved, the included angle groove and the multi-channel airflow intersect to form a turbulent flow field, the ions make more sufficient contact with the surface of the fabric, and especially when the static electricity amount is large, the vertical holes are opened, the turbulent flow effect is further enhanced, and blind areas are eliminated.

Description

Technical Field

[0001] The present invention belongs to the technical field of ion gas static elimination, and in particular relates to a static elimination device and method for Oxford cloth production. Background Art

[0002] In fabric manufacturing, the winding process is a critical link connecting fabric processing with subsequent storage, transportation, and use. With the rapid development of the textile industry, the application of various natural fibers, chemical fibers, and their blends is becoming increasingly widespread. However, static electricity generated during the winding process has become a significant factor restricting product quality and production efficiency.

[0003] During the production, transportation, and winding process of fabrics, static electricity is easily generated due to frequent friction between fibers and equipment, and between fibers themselves, as well as dry environments. This residual static electricity can have multiple negative impacts on the fabric's winding quality, subsequent processing, and safe use. Physically, static electricity creates strong adsorption between fabric layers, leading to wrinkles, curling, and uneven tension during winding, seriously affecting the fabric's flatness and package regularity. Furthermore, static electricity attracts dust and impurities from the air, causing surface defects and even damaging the fiber structure, reducing the fabric's softness, gloss, and durability. In subsequent processing, static-charged fabrics are prone to uneven dyeing, cutting errors, and thread breakage during printing, dyeing, cutting, and sewing, significantly reducing production efficiency. Furthermore, regarding safety, storage, and transportation, static discharge can not only cause electric shock to operators but also pose the risk of igniting flammable and explosive environments. Furthermore, during storage and transportation, static electricity can easily cause fabric to stick together, damaging packaging and the fabric structure.

[0004] Currently, the industry primarily addresses static electricity during fabric winding by adopting conventional measures such as controlling ambient humidity, using antistatic agents, and installing static eliminators. However, these methods still have limitations in practice: humidity control is significantly affected by geography and season, resulting in high energy costs; the addition of antistatic agents can alter the fabric's inherent properties, resulting in high costs and poor environmental performance; and ion blower static elimination equipment is inefficient at eliminating static electricity, making it difficult to tailor the elimination effect to the fabric's current static charge. Summary of the Invention

[0005] The technical problem to be solved by the present invention is to overcome the deficiencies of the prior art and provide a static elimination device for Oxford cloth production that can overcome the above problems or at least partially solve the above problems.

[0006] In order to solve the above technical problems, the basic concept of the technical solution adopted by the present invention is: a static elimination device for Oxford cloth fabric production, including an elimination layer formed by semi-arc cylinders symmetrically arranged in the upper and lower parts, and the fabric passes through the elimination layer, and also includes: inclined hole one and inclined hole two opened on the plane of the semi-arc cylinder, and the inclined hole one and inclined hole two are facing in opposite directions; vertical holes are respectively opened on the planes located on one side of the inclined hole one and inclined hole two; outer shells are respectively arranged on the symmetrical semi-arc cylinders, and side plates are connected to both sides of the outer shells, and the lower convex edges of the outer shells extend downward; the side convex edges of the outer shells are rotatably connected to a rotating drum, and air holes are opened on the outer circumference of the rotating drum; when the static electricity of the fabric is small, the symmetrical outer shells are close to the fabric; when the static electricity of the fabric is large, the symmetrical outer shells are away from the fabric.

[0007] Preferably, guide pillars are installed on the symmetrical semi-arc cylinders, the guide pillars are installed on the brackets, the semi-arc cylinders are connected to the brackets, the outer shell is slidably connected to the guide pillars, a spring is connected between the outer shell and the top of the guide pillars, and an exhaust hole is opened on the arc surface of the semi-arc cylinder, and the exhaust hole is connected to the interlayer seam between the outer shell and the semi-arc cylinder.

[0008] Preferably, an angled groove is formed between the rotating drum and the lower convex edge. When the static electricity of the fabric is small, the outer shell is close to the fabric, and the ion wind in the rotating drum blows from the air hole to the angled groove. The ion wind on both sides of the interlayer gap collides with inclined hole one and inclined hole two respectively, and the vertical hole is closed; when the static electricity of the fabric is large, the vertical hole is opened, the outer shell is away from the fabric, and the ion wind discharged from the air hole of the symmetrically arranged rotating drum is opposite to inclined hole one and inclined hole two respectively, and the ion wind in the interlayer gap collides with the ion wind discharged from the air hole, inclined hole one, and the air hole and inclined hole two.

[0009] Preferably, a connecting rod is fixedly connected to the inner wall of the shell, and the connecting rod passes through the cavity of the semi-arc cylinder. A sealing bag is fixedly connected to the connecting rod, and the sealing bag corresponds to the vertical hole.

[0010] Preferably, a sliding rod is symmetrically slidably connected to the side convex edge, a tension spring is connected between the sliding rod and the side convex edge, and the rotating drum is rotatably connected to the sliding rod.

[0011] Preferably, a connecting pipe is provided on the guide column, and the connecting pipe is communicated with the cavity.

[0012] A static removal method for Oxford cloth production, comprising the following steps:

[0013] S1. Real-time monitoring and data collection: Install an electrostatic voltmeter on the fabric winding path, use the induction probe to detect the electrostatic voltage on the fabric surface in real time, and convert the data into digital signals and transmit them to the control system;

[0014] S2, Adaptive power regulation: When the static electricity level is detected to be in the low threshold range, the control system automatically reduces the ion blower power to reduce energy consumption; when the static electricity level exceeds the high threshold, the ion blower power is increased to enhance the ion wind output intensity;

[0015] S3. Dynamic structural adjustment: The spring pushes the shell closer to the fabric, and the lower convex edge forms an angled groove with the rotating drum, guiding the ion wind to gather on the fabric surface and form turbulence, extending the action time; the ion wind pressure pushes the shell away from the fabric, and at the same time the vertical holes open, multi-channel ion wind forms a cross-hedge on the fabric surface, expanding the action range;

[0016] S4. Multi-dimensional ion wind field: Ion wind is ejected in opposite directions through inclined hole 1 and inclined hole 2, forming cross coverage on the front and back of the fabric; the ion wind discharged from the interlayer seam collides with the airflow through the inclined holes, enhancing the uniformity of ion diffusion; when the static electricity is high, the rotating drum and the airflow through the inclined holes and vertical holes converge to form a turbulent field, increasing the probability of contact between ions and charges.

[0017] After adopting the above technical solution, the present invention has the following beneficial effects compared with the prior art:

[0018] 1. The static elimination device for Oxford cloth production monitors the static electricity level of the fabric in real time by setting an static voltage meter and dynamically adjusts the power of the ion blower (reducing the power when the static electricity level is small and increasing the power when the static electricity level is large). Compared with the traditional fixed power operation mode, it can significantly reduce energy consumption. Therefore, this device can efficiently eliminate static electricity according to the static electricity level of the fabric.

[0019] 2. The anti-static device used in the production of Oxford cloth fabrics uses the ion wind pressure to push the outer shell to slide, or actively controls it through an electric actuator (cylinder, electric push rod, etc.), so that the device automatically optimizes the ion wind distribution path under different static electricity intensities without manual intervention.

[0020] 3. The static electricity removal device for Oxford cloth production has inclined holes 1 and 2 set in opposite directions, so that the ion wind forms a cross-coverage on the surface of the fabric; the ion wind discharged from the interlayer seam collides with the air flow from the inclined holes, extending the residence time of the ions on the fabric surface and improving the static electricity neutralization efficiency.

[0021] 4. The anti-static device for Oxford cloth production uses an angled groove and multi-channel airflow to form a turbulent field, which allows ions to contact the fabric surface more fully. Especially when the static electricity is large, the vertical holes are opened to further enhance the turbulent effect and eliminate blind spots. The wind curtain formed when the lower convex edge approaches the fabric not only gathers ion wind to improve the anti-static effect, but also blocks external dust from entering the elimination area, thereby improving the cleanliness of the product. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] In the attached figure:

[0023] Figure 1This is a schematic diagram of the three-dimensional structure of a static elimination device for Oxford cloth production proposed by the present invention;

[0024] Figure 2 This is a front view of a static elimination device for Oxford cloth production proposed by the present invention;

[0025] Figure 3 This is a schematic structural diagram of a side plate of a static elimination device for Oxford cloth production proposed by the present invention;

[0026] Figure 4 This is a schematic structural diagram of the inclined hole 1, inclined hole 2, and exhaust hole of a static elimination device for Oxford cloth production proposed by the present invention;

[0027] Figure 5 This is a schematic diagram of the case not moving;

[0028] Figure 6 This is a schematic diagram after the shell is moved.

[0029] In the figure: 1. bracket; 10. fabric; 11. semi-arc cylinder; 110. cavity; 1101. arc surface; 1102. plane; 111. inclined hole 1; 112. inclined hole 2; 113. vertical hole; 114. exhaust hole; 12. elimination layer; 13. shell; 130. angle groove; 1300. side plate; 131. interlayer seam; 132. lower convex edge; 133. side convex edge; 134. slide rod; 135. tension spring; 136. rotating drum; 14. guide column; 141. spring; 142. connecting pipe; 15. connecting rod; 151. sealing bag. DETAILED DESCRIPTION

[0030] In order to make the purpose, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. The following embodiments are used to illustrate the present invention but are not used to limit the scope of the present invention.

[0031] Example 1: Reference Figures 1-6The utility model provides an electrostatic eliminating device for oxford fabric production, which comprises an eliminating layer 12 formed by symmetrically arranging half-arc cylinders 11, and a fabric 10 passes through the eliminating layer 12, and further comprises: a first inclined hole 111 and a second inclined hole 112, which are arranged on a plane 1102 of the half-arc cylinder 11 and face in opposite directions; a vertical hole 113 is arranged on the plane 1102 on one side of the first inclined hole 111 and the second inclined hole 112; an outer shell 13 is arranged on the symmetric half-arc cylinders 11, the outer shell 13 is connected with a side plate 1300 on both sides, and a lower convex edge 132 of the outer shell 13 extends downward; a rotating cylinder 136 is rotatably connected to a side convex edge 133 of the outer shell 13, and gas holes are arranged on the outer periphery of the rotating cylinder 136; when the fabric 10 has a small amount of static electricity, the symmetric outer shells 13 are close to the fabric 10; and when the fabric 10 has a large amount of static electricity, the symmetric outer shells 13 are away from the fabric 10.

[0032] The utility model further comprises a support 1, guide columns 14 are arranged on the symmetric half-arc cylinders 11, the guide columns 14 are arranged on the support 1, the half-arc cylinders 11 are connected with the support 1, the outer shell 13 is slidably connected to the guide columns 14, springs 141 are arranged between the outer shell 13 and the top ends of the guide columns 14, exhaust holes 114 are arranged on arc surfaces 1101 of the half-arc cylinders 11, and the exhaust holes 114 are connected with interlayer seams 131 between the outer shell 13 and the half-arc cylinders 11.

[0033] An included angle groove 130 is formed between the rotating cylinder 136 and the lower convex edge 132, when the fabric 10 has a small amount of static electricity, the outer shell 13 is close to the fabric 10, ion wind in the rotating cylinder 136 is blown from the gas holes to the included angle groove 130, the ion wind on both sides of the interlayer seam 131 impacts the first inclined hole 111 and the second inclined hole 112 respectively, and the vertical hole 113 is closed; when the fabric 10 has a large amount of static electricity, the vertical hole 113 is opened, the outer shell 13 is away from the fabric 10, the symmetric rotating cylinders 136 are arranged opposite to the first inclined hole 111 and the second inclined hole 112 respectively, and the ion wind in the interlayer seam 131 impacts the ion wind discharged from the gas holes, the first inclined hole 111 and the second inclined hole 112.

[0034] A connecting rod 15 is fixedly connected to the inner wall of the outer shell 13, the connecting rod 15 penetrates into a cavity 110 of the half-arc cylinder 11, a sealing capsule 151 is fixedly connected to the connecting rod 15, and the sealing capsule 151 corresponds to the vertical hole 113.

[0035] A slide rod 134 is symmetrically and slidably connected to the side convex edge 133, a tension spring 135 is arranged between the slide rod 134 and the side convex edge 133, and the rotating cylinder 136 is rotatably connected to the slide rod 134.

[0036] A connecting pipe 142 is arranged on the guide column 14 and communicates with the cavity 110.

[0037] By setting an electrostatic voltmeter in front of the symmetrical semi-arc cylinder 11, based on the principle of electrostatic induction, the electrostatic voltage on the surface of the fabric 10 is indirectly calculated by sensing the electric field strength around the charged fabric 10. When the induction probe of the electrostatic voltmeter approaches the charged fabric 10, an induced charge is generated, which is then converted into a voltage signal to display the static electricity amount.

[0038] According to the value of the static electricity, when the value belongs to the threshold range of small static electricity, the power of the external ion fan is reduced, and the outer shell 13 is connected with the arc surface 1101 of the semi-arc cylinder 11 under the connection of the spring 141, and an interlayer gap 131 is formed between the outer shell 13 and the arc surface 1101 of the semi-arc cylinder 11. In this state, the lower convex edge 132 of the outer shell 13 will be close to the fabric 10. At this time, the ion wind filled into the cavity 110 through the connecting tube 142 will be discharged to the elimination layer 12 through the inclined hole 111 and the inclined hole 2 112. When the fabric 10 is rolled up and passes through the semi-arc cylinder 11, the ion wind blows to the front and back surfaces of the fabric 10 to eliminate static electricity. The essence of the ion fan is to generate positive and negative ions, use the mutual attraction between the ions and the charges on the surface of the fabric 10 to neutralize the charges, thereby eliminating static electricity, and use the inclined hole 111 and the inclined hole 2 112 to blow the ion wind to the fabric 10. On the one hand, it can eliminate static electricity on the fabric 10, and on the other hand, it can also blow off the floating hair on the fabric 10.

[0039] Moreover, when the amount of static electricity is small, the working power of the ion fan is reduced, which can reduce energy loss. In addition, the lower convex edge 132 on the outer shell 13 is closer to the fabric 10, which makes the lower convex edge 132 closer to the drum 136. The drum 136 is connected to the air outlet of the ion fan through an external pipeline. Part of the ion wind will enter the drum 136 and be discharged from the air holes. When the lower convex edge 132 is closer to the fabric 10, the wind discharged from the air holes of the drum 136 will gather in the angle groove 130. This makes it possible to fully utilize the ion wind when the amount of static electricity is small and the power of the ion fan is reduced, and accurately eliminate static electricity for the fabric 10. The ion wind in the angle groove 130 will generate turbulence in the angle groove 130, so that the ion wind stays in the angle groove 130 longer, further improving the static electricity removal effect on the fabric 10 when the amount of static electricity is small.

[0040] In addition, when the static electricity is small, the vertical hole 113 is closed, and the ion wind discharged from the inclined hole 111 and the inclined hole 2 112 flows in the direction they are facing, and a part of the ion wind in the cavity 110 enters the interlayer seam 131 through the exhaust hole 114, and then is discharged to the surface of the fabric 10 from the gap between the two sides of the interlayer seam 131 and the arc surface 1101. In this process, the ion wind discharged from the gap will collide with the ion wind flowing in the elimination layer 12 from the inclined hole 111 or the inclined hole 2 112, which allows the ion wind discharged from the inclined hole 111 and the inclined hole 2 112 to stay in the elimination layer 12 for a long time, thereby fully eliminating static electricity on the front and back of the fabric 10.

[0041] Therefore, when the static electricity is small, the drum 136 cooperates with the lower convex edge 132 to perform targeted static elimination on the fabric 10 that is about to enter the elimination layer 12 and about to leave the elimination layer 12, so that the ion blower can still maintain a good static elimination effect when the power is reduced; in addition, the lower convex edge 132 is closer to the surface of the fabric 10, Figure 5 The two sides of the viewing angle are blocked, and the ion wind discharged through the interlayer seam 131 forms a wind curtain on both sides of the elimination layer 12, so that the ion wind in the elimination layer 12 is gathered, further improving the static elimination effect on the fabric 10.

[0042] When the static voltage meter detects that the static value of the fabric 10 is within the threshold range of large static electricity, the power of the ion blower is increased. At this time, the ion wind pressure in the cavity 110 increases, and the ion wind pressure discharged into the interlayer gap 131 through the exhaust hole 114 increases, thereby pushing the shell 13 to move away from the semi-arc cylinder 11, which makes the shell 13 away from the fabric 10 and also makes the lower convex edge 132 away from the fabric 10. Since the rotating drum 136 is connected to the lower convex edge 132 by the tension spring 135, when the shell 13 moves, the symmetrical rotating drum 136 will still produce a clamping effect on the fabric 10, and the position will not change significantly. Due to the movement of the shell 13, the lower convex edge 132 is away from the rotating drum 136 (refer to Figure 6 ), and at the same time, the gap between the housing 13 and the arc surface 1101 is enlarged, and the air output is increased.

[0043] The movement of the housing 13 will pull the sealing bag 151 away from the vertical hole 113 through the connecting rod 15. At this time, the vertical hole 113 is opened, and a large amount of ion wind blows toward the fabric 10, thereby improving the static elimination effect on the fabric 10.

[0044] Moreover, the ion wind blown from the air holes of the rotating drum 136 toward the elimination layer 12 will collide with the wind discharged from the inclined hole 111 and the inclined hole 2 112 in the elimination layer 12. The wind discharged from the gap between the outer shell 13 and the curved surface 1101 will vertically impact the ion wind discharged from the inclined hole 111, the inclined hole 2 112 and the air holes, making the ion wind at the intersection of the three active, effectively improving the static electricity elimination effect on the fabric 10.

[0045] In some embodiments, a cylinder, a hydraulic rod, an electric push rod or an electric slide rail is installed on the bracket 1, and its execution end is connected to the shell 13 to control the movement of the shell 13. This method does not require the ion wind entering the interlayer gap 131 to drive the shell 13 to move.

[0046] Example 2: Reference Figures 1-6 A static removal method for Oxford cloth production comprises the following steps:

[0047] S1. Real-time monitoring and data acquisition: An electrostatic voltmeter is installed on the winding path of the fabric 10. The electrostatic voltage on the surface of the fabric 10 is detected in real time by an induction probe, and the data is converted into a digital signal and transmitted to the control system;

[0048] S2, Adaptive power regulation: When the static electricity level is detected to be in the low threshold range, the control system automatically reduces the ion blower power to reduce energy consumption; when the static electricity level exceeds the high threshold, the ion blower power is increased to enhance the ion wind output intensity;

[0049] S3. Dynamic structural adjustment: The spring 141 pushes the housing 13 toward the fabric 10, and the lower convex edge 132 and the rotating drum 136 form an angled groove 130, guiding the ion wind to gather on the surface of the fabric 10 and form turbulence, thereby extending the action time; the ion wind pressure pushes the housing 13 away from the fabric 10, and at the same time the vertical hole 113 opens, and the multi-channel ion wind forms a cross-hedge on the surface of the fabric 10, thereby expanding the action range;

[0050] S4. Multi-dimensional ion wind field: Ion wind is ejected in opposite directions through the inclined hole 111 and the inclined hole 2 112, forming a cross coverage on the front and back sides of the fabric 10; the ion wind discharged from the interlayer seam 131 collides with the airflow from the inclined holes, enhancing the uniformity of ion diffusion; when the static electricity is high, the rotating drum 136 intersects with the airflow from the inclined holes and the airflow from the vertical hole 113 to form a turbulent field, increasing the probability of contact between ions and charges.

[0051] The present invention monitors the static electricity level of the fabric 10 in real time through an electrostatic voltmeter and dynamically adjusts the power of the ion blower (reducing the power when the static electricity level is low and increasing the power when the static electricity level is high). Compared with the traditional fixed power operation mode, it can significantly reduce energy consumption;

[0052] The ion wind pressure is used to push the housing 13 to slide, or an electric actuator (cylinder, electric push rod, etc.) is actively controlled to enable the device to automatically optimize the ion wind distribution path under different static electricity intensities without manual intervention;

[0053] The first oblique hole 111 and the second oblique hole 112 are arranged in opposite directions, so that the ion wind forms a cross-coverage on the surface of the fabric 10; the ion wind discharged from the interlayer seam 131 collides with the air flow from the oblique holes, extending the residence time of the ions on the surface of the fabric 10 and improving the static neutralization efficiency;

[0054] The angled grooves 130 and the multi-channel airflow converge to form a turbulent field, which allows the ions to contact the surface of the fabric 10 more fully. Especially when the static electricity is large, the vertical holes 113 are opened to further enhance the turbulent effect and eliminate blind spots.

[0055] The wind curtain formed when the lower convex edge 132 approaches the fabric 1010 not only gathers ion wind to improve the static elimination effect, but also blocks external dust from entering the elimination area, thereby improving the cleanliness of the product.

[0056] The above merely describes the preferred embodiments of the present application, and is not intended to limit the present application in any form. Although the present application has been described as above with the preferred embodiments, it is not intended to limit the present application. Any skilled person in the art can make some changes or modifications to the above-mentioned technical content with slight changes or equivalent embodiments without departing from the technical solution of the present application. Any simple modification, equivalent change and modification made to the above embodiments based on the technical essence of the present application without departing from the technical solution of the present application shall still fall within the scope of the present application.

Claims

1. A static elimination device for Oxford cloth production, characterized in that: The invention comprises an elimination layer (12) formed by upper and lower symmetrically arranged semi-arc cylinders (11), wherein the fabric (10) passes through the elimination layer (12), and further comprises: An inclined hole 1 (111) and an inclined hole 2 (112) are provided on the plane (1102) of the semi-arc cylinder (11), and the inclined hole 1 (111) and the inclined hole 2 (112) face in opposite directions; Vertical holes (113) are respectively provided on a side plane (1102) of the inclined hole 1 (111) and the inclined hole 2 (112); Shells (13) are respectively arranged on the symmetrical semi-arc cylinders (11), with side plates (1300) connected to both sides of the shells (13), and the lower convex edge (132) of the shells (13) extends downward; A rotating drum (136) is rotatably connected to the side convex edge (133) of the housing (13), and air holes are opened on the outer periphery of the rotating drum (136); When the static electricity level of the fabric (10) is low, the symmetrical housing (13) is close to the fabric (10); When the static electricity amount of the fabric (10) is large, the symmetrical shell (13) is away from the fabric (10).

2. The static elimination device for Oxford cloth production according to claim 1, characterized in that: The invention also includes a bracket (1), wherein the symmetrical semi-arc cylinders (11) are each provided with a guide column (14), the guide column (14) is installed on the bracket (1), the semi-arc cylinder (11) is connected to the bracket (1), the shell (13) is slidably connected to the guide column (14), a spring (141) is connected between the shell (13) and the top of the guide column (14), an exhaust hole (114) is provided on the arc surface (1101) of the semi-arc cylinder (11), and the exhaust hole (114) is connected to the interlayer seam (131) between the shell (13) and the semi-arc cylinder (11).

3. The static elimination device for Oxford cloth production according to claim 2, characterized in that: An angled groove (130) is formed between the rotating drum (136) and the lower convex edge (132). When the static electricity level of the fabric (10) is low, the housing (13) is close to the fabric (10), the ion wind in the rotating drum (136) blows from the air holes to the angled groove (130), and the ion wind on both sides of the interlayer gap (131) impacts the inclined hole 1 (111) and the inclined hole 2 (112) respectively, and the vertical hole (113) is closed; When the static electricity of the fabric (10) is large, the vertical hole (113) is opened, the housing (13) is away from the fabric (10), and the ion wind discharged from the air hole by the symmetrically arranged rotating drum (136) is respectively opposite to the inclined hole 1 (111) and the inclined hole 2 (112), and the ion wind in the interlayer gap (131) impacts the ion wind discharged from the air hole and the inclined hole 1 (111) and the air hole and the inclined hole 2 (112).

4. The static elimination device for Oxford cloth production according to claim 3, characterized in that: A connecting rod (15) is fixedly connected to the inner wall of the shell (13), and the connecting rod (15) passes through the cavity (110) of the semi-arc cylinder (11). A sealing bag (151) is fixedly connected to the connecting rod (15), and the sealing bag (151) corresponds to the vertical hole (113).

5. The static elimination device for Oxford cloth production according to claim 4, characterized in that: A slide rod (134) is symmetrically slidably connected to the side convex edge (133), a tension spring (135) is connected between the slide rod (134) and the side convex edge (133), and the rotating drum (136) is rotatably connected to the slide rod (134).

6. The static elimination device for Oxford cloth production according to claim 5, characterized in that: A connecting pipe (142) is provided on the guide column (14), and the connecting pipe (142) is communicated with the cavity (110).

7. A method for removing static electricity for the production of Oxford cloth, characterized in that: The static elimination device for Oxford cloth production according to claim 6 comprises the following steps: S1. Real-time monitoring and data collection: An electrostatic voltmeter is installed on the fabric (10) winding path, and the electrostatic voltage on the surface of the fabric (10) is detected in real time by an induction probe, and the data is converted into a digital signal and transmitted to the control system.

8. The method for removing static electricity for producing Oxford cloth according to claim (7), characterized in that: S2. Adaptive power regulation: When the static electricity is detected in the low threshold range, the control system automatically reduces the ion fan power to reduce energy consumption; when the static electricity exceeds the high threshold, the ion fan power is increased to enhance the ion wind output intensity.

9. The method for removing static electricity for producing Oxford cloth according to claim (8), characterized in that: S3. Dynamic structural adjustment: The spring (141) pushes the housing (13) closer to the fabric (10), and the lower convex edge (132) and the rotating drum (136) form an angled groove (130), guiding the ion wind to gather on the surface of the fabric (10) and form turbulence, thereby extending the action time; the ion wind pressure pushes the housing (13) away from the fabric (10), and at the same time the vertical hole (113) opens, and the multi-channel ion wind forms a cross-hedge on the surface of the fabric (10), thereby expanding the action range.

10. The static removal method for Oxford cloth production according to claim (9), characterized in that: S4. Multi-dimensional ion wind field: Ion wind is ejected in opposite directions through the inclined hole 1 (111) and the inclined hole 2 (112), forming a cross-coverage on the front and back sides of the fabric (10); the ion wind discharged from the interlayer seam (131) collides with the airflow from the inclined holes, thereby enhancing the uniformity of ion diffusion; when the static electricity is high, the rotating drum (136) intersects with the airflow from the inclined holes and the airflow from the vertical holes (113) to form a turbulent field, thereby increasing the probability of contact between ions and charges.

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