Silk product mildew-proof textile equipment and mildew-proof process thereof

Abstract

The present application relates to the technical field of textile, especially to a silk product mildew-proof textile equipment and a mildew-proof process thereof, which provides a silk product mildew-proof textile equipment with good drying effect, comprising: a textile machine, a conveying assembly for assisting the silk to be discharged outward is arranged at the silk discharging end of the textile machine; and a winding assembly, which is arranged on one side of the textile machine and is used for collecting the silk. The device uses hot air to dry the silk. Under the action of a certain temperature and airflow accelerating water evaporation, the silk can be dried without high temperature to ensure the drying degree. The drying degree of the silk is determined through the contact detection of the pressure sensor and the silk. The device controller controls the rotating plate through data control, so that the direction and position of the hot air passing through are controlled and changed, thereby facilitating the staff to control the drying temperature of the silk and the amount of hot air contacted, and ensuring the final quality of the silk.

Description

Technical Field

[0001] This invention relates to the field of textile technology, and in particular to a mildew-proof textile equipment and its mildew-proof process for silk products. Background Technology

[0002] Silk is a textile woven from silkworm silk. It is strong, elastic, soft, absorbent, and has a pleasant feel. In particular, silk has a lustrous surface. Clothing and products made from silk are highly sought after in the domestic and international apparel markets.

[0003] Silk is a natural protein fiber with strong water absorption, making it highly susceptible to bacterial erosion and mold growth. It requires specific temperature and climate conditions for storage, hence the anti-mold treatment is applied to silk during the textile production process.

[0004] Currently, anti-mildew textile equipment for silk involves soaking the fabric in an anti-mildew solution for mildew prevention, followed by drying. For example, invention patent CN112251954B discloses an anti-mildew treatment device for silk fabrics, including a box with a heating plate fixedly installed on the inner wall. A rotating rod is rotatably installed inside the box, and fan blades are welded to the outer wall of the rotating rod. Four mounting blocks are welded to the top outer surface of the box, arranged in pairs. Through the coordinated use of the box, mounting blocks, rollers, cylinders, mounting plates, sliders, springs, fixing blocks, and mounting columns, silk can be immersed in the box for mildew prevention during transportation, followed by drying and sterilization in a drying chamber. However, existing technology makes it difficult to control the heating temperature and heating position. When the heating temperature is too high, the silk is prone to hardening or even becoming brittle, greatly affecting the quality of the silk.

[0005] Therefore, it is necessary to design a mildew-proof textile equipment and process for silk products with good drying effect. Summary of the Invention

[0006] In order to overcome the shortcomings of existing technologies, such as the difficulty in controlling the heating temperature and heating position during silk drying, and the tendency of silk to harden or even become brittle when the heating temperature is too high, the technical problem to be solved is to provide a silk product anti-mildew textile equipment and its anti-mildew process with good drying effect.

[0007] The technical solution of this invention is: a mildew-proof textile equipment and its mildew-proof process for silk products, comprising: a textile machine and a conveying assembly, wherein the textile machine is provided with a conveying assembly at the silk discharge end to assist in the discharge of the completed textile silk; a winding assembly, wherein a winding assembly is placed on one side of the textile machine to collect the completed textile silk, wherein the silk is wound into the winding assembly after passing through the conveying assembly from the discharge end of the textile machine; a mounting frame, wherein a mounting frame is provided between the textile machine and the winding assembly; a soaking mechanism, wherein a soaking mechanism is provided on the side of the textile machine near the winding assembly to squeeze and soak the completed textile silk with a mildew-proof liquid to ensure a deep soaking effect; and a drying mechanism, wherein a drying mechanism is provided on the mounting frame to dry and dehydrate the silk at medium and low temperatures using hot air, and the degree of drying is controllable.

[0008] Furthermore, the soaking mechanism includes: a first support, which is provided on the side of the loom near the conveying assembly; a soaking tank, which is provided on the top of the first support; a first extrusion shaft, which is rotatably provided in the soaking tank; two second extrusion shafts, which are rotatably provided in the soaking tank and located on both sides of the first extrusion shaft; a first gear set, which is provided between the two ends of the first extrusion shaft and the second extrusion shaft for transmission; and a first pulley set, which is connected between the rotation output shaft of the conveying assembly and the end of the first extrusion shaft for transmission.

[0009] Furthermore, the drying mechanism includes: a second support, with the second support located on top of the mounting frame; a drying chamber, with the second support having a drying chamber on top for drying the silk from top to bottom through its interior; air ducts, with air ducts connected to both horizontal side walls of the drying chamber, one for air inlet and the other for air outlet, both air ducts connected to an external hot air blower; a heat-conducting frame, with a "U"-shaped heat-conducting frame located inside the drying chamber, forming a chamber between the heat-conducting frame and the drying chamber, and the open end of the "U"-shaped heat-conducting frame facing the air outlet guide pipe; and a rotating plate, with the heat-conducting frame near the air duct. The side wall is evenly spaced with through holes, and a rotating plate is rotatably installed in each through hole; a second pulley group is connected to one end of the rotating shaft of the rotating plate near the lower side, and the second pulley group is a gear and toothed belt drive; a first motor is installed on the side of the heat-conducting frame near the second pulley group, and the output shaft of the first motor is connected to the rotating shaft of a rotating plate on the heat-conducting frame through a coupling; pressure sensors are installed in the middle and lower parts of the top side wall inside the heat-conducting frame, and the end of the pressure sensor near the heat-conducting frame is in contact with the silk.

[0010] Furthermore, it also includes a straightening mechanism, which includes: a limiting plate, two symmetrical limiting plates are provided at the inner top opening of the drying box; a conveying shaft, two conveying shafts are rotatably provided on the upper part of the second support; a second motor, a second motor is provided on the outer side wall of the second support, and the output shaft of the second motor is connected to the conveying shafts through a coupling; and a second gear set, a second gear for transmission is provided between the ends of the two conveying shafts.

[0011] Furthermore, it also includes a softening mechanism, which comprises: a fixed frame, with a fixed frame at the top of the mounting frame; a liquid tank, with a liquid tank at the top of the fixed frame; a wheel axle, with a through groove at the bottom of the liquid tank, and a wheel axle rotatably mounted inside the through groove at the bottom of the liquid tank, and multiple cylindrical grooves along the axial direction on the surface of the wheel axle; a sponge roller shaft, with a sponge roller shaft located in the middle of the inner side of the fixed frame, and the top of the sponge roller shaft contacting the wheel axle; an electric push rod, with electric push rods symmetrically mounted at the lower part of the fixed frame at both ends of the sponge roller shaft; a sliding plate, with sliding grooves symmetrically mounted at the lower part of the fixed frame at both ends of the sponge roller shaft, and a sliding plate mounted in each sliding groove, the telescopic rod of the electric push rod being connected to the bottom of the sliding plate; and a limiting shaft, with a limiting shaft rotatably mounted between the two sliding plates.

[0012] Furthermore, it also includes: a sliding seat, with a sliding seat provided between the soaking tank and the drying tank.

[0013] Furthermore, it also includes: a flow divider plate, which is located in the middle between the rotating plate of the heat-conducting frame inside the drying oven and the air duct.

[0014] Furthermore, it also includes: a corrugated heat-conducting plate, with corrugated heat-conducting plates symmetrically arranged on the two side walls of the inner side of the heat-conducting frame near the upper and lower surfaces of the silk.

[0015] Furthermore, the following operational steps are also included:

[0016] S1. The textile machine spins silk into fabric;

[0017] S2. Soak and squeeze the silk in an anti-mildew solution;

[0018] S3. Drying silk at medium and low temperatures and controlling the moisture content of the silk;

[0019] S4. Keep the silk rolled up.

[0020] The present invention has the following advantages: 1. This device uses hot air to dry silk. Under the action of a certain temperature and airflow to accelerate the evaporation of moisture, the silk can be dried without having to be dried at high temperature. It can also play a certain role in sterilization. Furthermore, the dryness of the silk is determined by the contact detection between the pressure sensor and the silk. The device controller then controls the rotation angle of the rotating plate relative to the heat-conducting frame through data control, so that the direction and position of the hot air can be controlled and changed. This makes it convenient for the staff to control the drying temperature and the amount of hot air in contact with the silk, ensuring the final quality of the silk.

[0021] 2. The two limiting plates on the drying chamber are close together, which has a certain effect of hindering the movement of the silk. The conveyor shaft at the bottom of the drying chamber can generate tension on the silk, assisting the silk to be transferred to the next step. Therefore, when the silk passes through the drying chamber, the silk is taut between the limiting plates and the conveyor shaft. This is conducive to the contact detection between the pressure sensor and the silk. At the same time, the squeezing effect of the two limiting plates on the silk can also squeeze out some of the liquid in the silk, ensuring the subsequent drying effect of the device. Attached Figure Description

[0022] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0023] Figure 2 This is a schematic diagram of the first partial three-dimensional structure of the present invention.

[0024] Figure 3 This is a three-dimensional structural diagram of the soaking mechanism of the present invention.

[0025] Figure 4 This is a partial three-dimensional cross-sectional view of the soaking mechanism of the present invention.

[0026] Figure 5 This is a three-dimensional structural diagram of the drying mechanism of the present invention.

[0027] Figure 6 This is a three-dimensional cross-sectional view of the first type of drying mechanism of the present invention.

[0028] Figure 7 This is a partially exploded three-dimensional view of the drying mechanism of the present invention.

[0029] Figure 8 This is a cross-sectional schematic diagram of the second partial three-dimensional structure of the drying mechanism of the present invention.

[0030] Figure 9 This is a three-dimensional structural diagram of the straightening mechanism of the present invention.

[0031] Figure 10 This is a schematic diagram of the first partial three-dimensional structure of the straightening mechanism of the present invention.

[0032] Figure 11 This is a schematic diagram of the second part of the straightening mechanism of the present invention.

[0033] Figure 12 This is a three-dimensional structural diagram of the softening mechanism of the present invention.

[0034] Figure 13 This is a partial three-dimensional cross-sectional view of the softening mechanism of the present invention.

[0035] Figure 14 This is a partial three-dimensional structural diagram of the sliding seat and the flow divider of the present invention.

[0036] Figure 15 This is a partial three-dimensional structural diagram of the heat-conducting frame and the waveform heat-conducting plate of the present invention.

[0037] Figure 16 This is a process flow diagram of the present invention.

[0038] In the attached drawings, the reference numerals are: 1-textile machine, 101-conveyor assembly, 2-winding assembly, 3-mounting frame, 4-soaking mechanism, 401-first support, 402-soaking tank, 403-first extrusion shaft, 404-second extrusion shaft, 405-first gear set, 406-first pulley set, 5-drying mechanism, 501-second support, 502-drying tank, 503-air duct, 504-heat conduction frame, 505-rotating plate, 506- Second pulley assembly, 507-First motor, 508-Pressure sensor, 6-Straightening mechanism, 601-Limiting plate, 602-Transmission shaft, 603-Second motor, 604-Second gear set, 7-Softening mechanism, 701-Fixing frame, 702-Liquid tank, 703-Wheel axle, 704-Sponge roller shaft, 705-Electric push rod, 706-Slide plate, 707-Limiting shaft, 8-Sliding seat, 9-Diverter plate, 10-Wave heat conduction plate. Detailed Implementation

[0039] The embodiments of the present invention will now be described in detail with reference to the accompanying drawings.

[0040] Example 1

[0041] like Figures 1 to 8As shown, the present invention discloses a silk anti-mildew textile equipment and its anti-mildew process, specifically including a textile machine 1, a conveying component 101, a winding component 2, a mounting frame 3, a soaking mechanism 4, and a drying mechanism 5. The textile machine 1 has a conveying component 101 at the silk discharge end to assist in the discharge of the completed silk. The winding component 2 is placed on one side of the textile machine 1 to collect the completed silk. The silk is wound into the winding component 2 after passing through the conveying component 101 from the discharge end of the textile machine 1. The mounting frame 3 is provided between the textile machine 1 and the winding component 2. The upper side of the textile machine 1 near the winding component 2 is provided with a soaking mechanism 4, which is connected by bolts to ensure a deep soaking effect by squeezing and soaking the completed silk with anti-mildew liquid. The mounting frame 3 is provided with a drying mechanism 5, which uses hot air to dry and dehydrate the silk at medium and low temperatures and the degree of drying can be controlled. The upper end of the drying mechanism 5 is close to the soaking mechanism 4.

[0042] The soaking mechanism 4 includes a first support 401, a soaking tank 402, a first extrusion shaft 403, a second extrusion shaft 404, a first gear set 405, and a first pulley set 406. The first support 401 is located on the side of the textile machine 1 near the conveying component 101. The soaking tank 402 is located on the top of the first support 401. The first extrusion shaft 403 with a larger diameter is rotatably installed inside the soaking tank 402. Two second extrusion shafts with a smaller diameter are rotatably installed inside the soaking tank 402. The two second extrusion shafts with a smaller diameter are located on both sides of the first extrusion shaft 403 with a larger diameter. Both the first extrusion shaft 403 and the second extrusion shaft 404 are located below the surface of the anti-mildew liquid in the soaking tank 402. A first gear set 405 for transmission is provided between the two ends of the first extrusion shaft 403 and the second extrusion shaft 404. The first pulley set 406 is connected between the rotating output shaft of the conveying component 101 and the end of the first extrusion shaft 403 for transmission.

[0043] The drying mechanism 5 includes a second support 501, a drying chamber 502, an air duct 503, a heat-conducting frame 504, a rotating plate 505, a second pulley assembly 506, a first motor 507, and a pressure sensor 508. The second support 501 is located on the top of the mounting frame 3. The drying chamber 502, which dries the silk from top to bottom, is located on the top of the second support 501. Air ducts 503 are connected to both horizontal side walls of the drying chamber 502. One air duct is for air intake, and the other is for air outlet. Both air ducts 503 are connected to an external hot air blower. A U-shaped heat-conducting frame 504 is located inside the drying chamber 502. The heat-conducting frame 504 has a certain degree of heat insulation. A chamber is formed between the heat-conducting frame 504 and the drying chamber 502. The open end of the heat-conducting frame 504 faces the guide pipe for air outlet. Multiple through holes are evenly spaced on the side wall of the heat-conducting frame 504 near the air duct 503 for air inlet. Rotating plates 505 are rotatably installed in each through hole. A second pulley group 506 is connected to one end of the rotating shaft of all rotating plates 505. The second pulley group 506 is driven by gears and toothed belts. A first motor 507 is installed on the side of the heat-conducting frame 504 near the second pulley group 506. The output shaft of the first motor 507 is connected to the rotating shaft of one of the rotating plates 505 on the heat-conducting frame 504 through a coupling. Pressure sensors 508 are installed in the middle and lower parts of the top side wall inside the heat-conducting frame 504. The end of the pressure sensor 508 near the heat-conducting frame 504 is in contact with silk.

[0044] In operation, the operator first connects the silk thread into the textile machine 1, which then weaves the thread into silk. The completed silk is then conveyed out of the weaving position via the conveyor assembly 101. The operator immerses the finished silk in a soaking tank 402 containing an anti-mildew solution, allowing the silk to pass sequentially between two second compression shafts 404 and a first compression shaft 403. During operation, the first and second compression shafts 403 and 404 convey and compress the silk, causing it to move out of the textile machine 1. As the silk passes the compression shafts... Under pressure, the anti-mildew liquid absorbed by the silk is squeezed out. Upon leaving the squeezing position, the silk reabsorbs the anti-mildew liquid, achieving deep absorption of the anti-mildew liquid twice. After the silk absorbs the anti-mildew liquid, it leaves the soaking tank 402 and enters the drying tank 502. The operator then starts the external hot air fan of the drying tank 502. The hot air passes through the air guide duct 503, the heat-conducting frame 504, and the rotating plate 505, drying the silk and preserving the effective components of the anti-mildew agent within the silk while reducing its moisture content. As the silk passes through the heat-conducting frame 504… The pressure sensor 508 inside the heat-conducting frame 504 is always in contact with and compresses the silk. Initially, the temperature of the hot air used for drying is high. If the silk is over-dried, it will harden. As the silk hardens, the pressure value monitored by the pressure sensor 508 increases. The operator then adjusts the drying temperature through the controller based on the data. At the same time, the controller drives the rotating plate 505 to rotate through the first motor 507 and the second pulley group 506. By adjusting the angle of rotation of the rotating plate 505 relative to the heat-conducting frame 504, the air volume and position inside the heat-conducting frame 504 are controlled. The hot air that does not enter the heat-conducting frame 504 passes between the heat-conducting frame 504 and the drying chamber 502 and is discharged from the drying chamber 502, reducing the amount of hot air in contact with the silk diameter. This makes it easier for the operator to adjust the degree of drying. Pressure sensors 508 are installed in the middle and lower part of the heat-conducting frame 504 to monitor the silk. This allows the device to adjust the drying process more promptly and ensure the quality of the silk. The dried silk is sent to the winding assembly 2 for winding and then stored.

[0045] Example 2

[0046] like Figures 9 to 11As shown, based on Embodiment 1, a straightening mechanism 6 is further included. The straightening mechanism 6 includes a limiting plate 601, a transmission shaft 602, a second motor 603, and a second gear set 604. Two symmetrical limiting plates 601 are bolted together at the top opening of the inner side of the drying chamber 502. Two transmission shafts 602 are rotatably mounted on the upper part of the second support 501. The second motor 603 is mounted on the side wall of the lower part of the drying chamber 502 outside the second support 501. The output shaft of the second motor 603 is connected to the transmission shaft 602 through a coupling. A second gear for transmission is provided between the ends of the two transmission shafts 602.

[0047] When the silk enters the drying chamber 502, it first enters between the two limiting plates 601 at the top of the drying chamber 502, and then passes through the drying chamber 502 and exits between the two conveyor shafts 602. The distance between the two limiting plates 601 and the distance between the two conveyor shafts 602 are both slightly less than the thickness of the silk. When the device is started, the second motor 603 also starts. The limiting plates 601 and the conveyor shafts 602 that continuously rotate outward can keep the silk in a certain taut state when passing through the drying chamber 502. External factors affect the contact between the silk and the pressure sensor 508, causing the device to fail to operate. At the same time, the two limiting plates 601 can generate a certain squeezing effect when the silk passes through, squeezing out some of the liquid in the silk before drying, ensuring the effect of low-temperature drying in the device.

[0048] like Figure 12 and Figure 13 As shown, based on Embodiment 1, a softening mechanism 7 is further included. The softening mechanism 7 includes a fixing frame 701, a liquid tank 702, a wheel axle 703, a sponge roller axle 704, an electric push rod 705, a sliding plate 706, and a limiting shaft 707. The mounting frame 3 has a fixing frame 701 at its top, and a liquid tank 702 is located at the top of the fixing frame 701. A through groove is formed at the bottom of the liquid tank 702, and a wheel axle 703 is rotatably mounted inside the through groove at the bottom of the liquid tank 702. There is a certain gap between the wheel axle 703 and the through groove of the liquid tank 702. The surface of the wheel axle 703 is axially... The frame has multiple cylindrical grooves. A sponge roller 704 is provided in the middle of the inner side of the fixing frame 701. The sponge roller 704 is a roller wrapped with a water-absorbing sponge layer. The top of the sponge roller 704 contacts the wheel axle 703. Electric push rods 705 are symmetrically provided at the lower part of the fixing frame 701 at both ends of the sponge roller 704. Slide grooves are symmetrically provided at the lower part of the fixing frame 701 at both ends of the sponge roller 704. Slide plates 706 are provided in each slide groove. The telescopic rod of the electric push rod 705 is connected to the bottom of the slide plate 706. A limit shaft 707 is rotatably provided between the two slide plates 706.

[0049] Initially, the operator guides the silk through the spacer shaft 707 and the sponge roller shaft 704, then injects an anti-mildew agent into the liquid tank 702. The anti-mildew agent slowly flows along the wheel shaft 703 onto the sponge roller shaft 704, where it is absorbed by the sponge. When the pressure sensor 508 inside the heat-conducting frame 504 detects that the silk is over-dried, the controller controls the electric push rod 705 to extend a telescopic rod upward, thereby moving the slide plate 706 and the spacer shaft 707 upward. The spacer shaft 707 then pushes the silk upward, squeezing the sponge roller shaft 704. Under this squeezing action, the sponge roller shaft 704... The anti-mildew liquid adsorbed on the surface will be squeezed out and then absorbed by the silk, thereby moistening and softening the overly dry and hardened silk. When the pressure sensor 508 detects that the silk is dry, the controller delays a period of time to collect and control the electric push rod 705 to drive the limit shaft 707 back to its initial position. When there is a lot of silk that needs to be softened, the silk is continuously limited by the limit shaft 707, and the silk is wound up to drive the sponge roller shaft 704 to rotate. The rotation of the sponge roller shaft 704 drives the wheel shaft 703 to rotate. The cylindrical groove on the wheel shaft 703 can replenish more anti-mildew liquid to the sponge roller shaft 704.

[0050] like Figure 14 As shown, based on Embodiment 1, a sliding seat 8 is also included, with the sliding seat 8 provided between the soaking tank 402 and the drying tank 502.

[0051] A sliding seat 8 is provided between the soaking tank 402 and the drying tank 502, which can serve as a support for the silk from the soaking tank 402 to the drying tank, adjust the angle at which the silk enters the drying tank 502, and at the same time, the anti-mildew liquid squeezed out by the limiting plate 601 can flow back into the soaking tank 402 along the sliding seat 8.

[0052] like Figure 14 As shown, based on Embodiment 1, it further includes a flow divider 9. The flow divider 9 is located in the middle between the rotating plate 505 of the heat-conducting frame 504 and the air duct 503 inside the drying oven 502.

[0053] The diverter plate 9 can directly divert the hot air into multiple streams when the hot air enters the drying chamber 502 from the air duct 503, thus avoiding the hot air blowing directly at one position continuously.

[0054] like Figure 15 As shown, based on Embodiment 1, it further includes a waveform heat-conducting plate 10. The waveform heat-conducting plate 10 is symmetrically arranged on the two side walls of the inner side of the heat-conducting frame 504 near the upper and lower surfaces of the silk.

[0055] The corrugated heat-conducting plate 10 is made of heat-conducting material. The side closest to the silk will come into contact with the silk. When hot air passes through the inside of the heat-conducting frame 504, the corrugated heat-conducting plate 10 will absorb the heat of the hot air, and the part in contact with the silk can heat and dry the silk, ensuring that the silk receives heat evenly.

[0056] Example 3

[0057] Based on Example 2, such as Figure 16 As shown, an anti-mildew process includes the following steps:

[0058] S1. The textile machine spins silk into fabric;

[0059] S2. Soak and squeeze the silk in an anti-mildew solution;

[0060] S3. Drying silk at medium and low temperatures and controlling the moisture content of the silk;

[0061] S4. Keep the silk rolled up.

[0062] The above description is merely a specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in the present invention should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope of the claims.

Claims

1. A mildew-proof textile equipment for silk products, characterized in that, include: A textile machine (1) and a conveying assembly (101) are provided at the silk discharge end of the textile machine (1) to facilitate the discharge of silk after the textile process is completed. The winding assembly (2) is placed on the textile machine (1) to collect the finished silk. The silk is wound into the winding assembly (2) after being discharged from the textile machine (1) through the conveyor assembly (101). Mounting bracket (3) is provided between the textile machine (1) and the winding assembly (2); Soaking mechanism (4): The side of the textile machine (1) near the winding assembly (2) is equipped with a soaking mechanism (4) to squeeze and soak the finished silk with anti-mildew liquid to ensure a deep soaking effect. The drying mechanism (5) is provided on the mounting frame (3) to dry the silk at medium and low temperature by hot air and the degree of drying can be controlled. It also includes a softening mechanism (7), which includes: The mounting bracket (3) is provided with a fixed bracket (701) on top; Liquid tank (702), the top of the fixing frame (701) is equipped with liquid tank (702); A wheel axle (703) is provided. A through groove is provided at the bottom of the liquid tank (702). A wheel axle (703) is rotatably provided inside the through groove at the bottom of the liquid tank (702). Multiple cylindrical grooves are provided on the surface of the wheel axle (703) along the axial direction. A sponge roller (704) is provided in the middle of the inner side of the fixing frame (701), and the top of the sponge roller (704) is in contact with the wheel axle (703); Electric push rods (705) are symmetrically provided at the lower part of the fixed frame (701) at both ends of the sponge roller shaft (704). The slide plate (706) and the fixing frame (701) are located at both ends of the sponge roller shaft (704) with symmetrical grooves at the bottom. The slide plate (706) is installed in each groove. The telescopic rod of the electric push rod (705) is connected to the bottom of the slide plate (706). A limiting shaft (707) is provided between the two slide plates (706) for rotation.

2. The anti-mildew textile equipment for silk products as described in claim 1, characterized in that, The soaking mechanism (4) includes: The first support (401) is provided on the side of the loom near the conveyor assembly (101). Soaking tank (402), the top of the first support (401) is equipped with soaking tank (402); first extrusion shaft (403), a first extrusion shaft with a larger diameter is rotatably installed inside the soaking tank (402); The second extrusion shaft (404) is rotatably provided in the soaking tank (402) with two thinner diameter second extrusion shafts (404) located on both sides of the thicker diameter first extrusion shaft (403); The first gear set (405) is provided between the two ends of the first extrusion shaft (403) and the second extrusion shaft (404) for transmission. The first pulley group (406) is connected between the rotation output shaft of the transmission assembly (101) and the end of the first extrusion shaft (403) for transmission.

3. The anti-mildew textile equipment for silk products as described in claim 1, characterized in that, The drying mechanism (5) includes: Second support (501), the second support (501) is provided at the top of the mounting frame (3); Drying box (502), the drying box (502) for drying the silk from top to bottom inside is provided at the top of the second support (501); Air duct (503), air ducts (503) are connected to both horizontal side walls of the drying box (502), two air ducts (503), one for air intake and the other for air outlet, and the air ducts (503) are all connected to an external hot air blower; Heat conducting frame (504), a "C"-shaped heat conducting frame (504) is provided inside the drying box (502), a chamber is formed between the heat conducting frame (504) and the drying box (502), and the open end of the "C"-shaped heat conducting frame (504) faces the guiding tube for air outlet; Rotating plate (505), through holes are evenly spaced on the side wall of the heat conducting frame (504) close to the air duct (503), and rotating plates (505) are rotatably provided in the through holes; Second pulley group (506), a second pulley group (506) is connected between one ends of the rotating shafts of the rotating plates (505) at the lower side position, and the second pulley group (506) is a gear and toothed belt drive; First motor (507), a first motor (507) is provided on one side of the heat conducting frame (504) close to the second pulley group (506), and the output shaft of the first motor (507) is connected to the rotating shaft of a rotating plate (505) on the heat conducting frame (504) through a coupling; Pressure sensor (508), pressure sensors (508) are provided at the middle and lower positions of the inner top side wall of the heat conducting frame (504), and one end of the pressure sensor (508) close to the heat conducting frame (504) contacts the silk.

4. The anti-mildew textile equipment for silk products as described in claim 3, characterized in that, It further includes a straightening mechanism (6), and the straightening mechanism (6) includes: Limit plate (601), two symmetrical limit plates (601) are provided at the inner top opening of the drying box (502); Conveyor shaft (602), two conveyor shafts (602) are rotatably provided on the upper part of the second support (501); Second motor (603), a second motor (603) is provided on the outer side wall of the second support (501), and the output shaft of the second motor (603) is connected to the conveyor shaft (602) through a coupling; Second gear group (604), a second gear for transmission is provided between the ends of the two conveyor shafts (602).

5. The anti-mildew textile equipment for silk products as described in claim 4, characterized in that, It further includes: Sliding seat (8), a sliding seat (8) is provided between the soaking box (402) and the drying box (502).

6. The anti-mildew textile equipment for silk products as described in claim 5, characterized in that, It further includes: Diversion plate (9), a diversion plate (9) is provided in the middle at the position between the rotating plate (505) of the inner heat conducting frame (504) and the air duct (503) inside the drying box (502).

7. The anti-mildew textile equipment for silk products as described in claim 6, characterized in that: It further includes: Wave-shaped heat conducting plate (10), wave-shaped heat conducting plates (10) are symmetrically provided on both side walls of the inner heat conducting frame (504) close to the upper and lower surfaces of the silk.

8. The anti-mildew process of a silk product anti-mildew textile equipment as described in any one of claims 1-7, characterized in that, It includes the following operation steps: S1. The textile machine weaves silk; S2. The silk is put into the anti-mildew liquid for soaking and extrusion; S3. The silk is dried at medium and low temperatures and the humidity of the silk is controlled; S4. The silk is wound and maintained.

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