Fabric printing and dyeing equipment and preparation method of soft breathable perspiration fabric

Abstract

The invention relates to the technical field of fabric preparation, and discloses fabric printing and dyeing equipment and a preparation method of a soft, breathable and sweat-releasing fabric, and the fabric printing and dyeing equipment comprises a dyeing box, a fabric roller arranged above the dyeing box, and a fabric dehumidification unit arranged on the outer side of the dyeing box; the fabric dehumidifying unit comprises a fabric conveying part arranged above the dyeing box. According to the fabric printing and dyeing equipment, through mutual cooperation of a rocker, an arc-shaped ramp block and a switching roller, the rocker is pulled by a first traction piece to rotate, one second traction piece is wound, a corresponding pressed disc is pushed through the arc-shaped ramp block to move close to a corresponding rope winding roller, and the fabric printing and dyeing efficiency is improved. By means of the structure, the driving shaft originally driving the rope winding roller to rotate cannot continuously drive the rope winding roller to rotate, finally the effect that the rocker swings in a reciprocating mode at the constant speed can be achieved, fabric is folded at the constant speed, it is guaranteed that the fabric makes full contact with hot air, and meanwhile the fabric can be in a soft state in the drying process.

Description

Technical Field

[0001] The invention relates to the technical field of fabric preparation, and in particular to a fabric printing and dyeing device and a method for preparing a soft, breathable and perspiration-wicking fabric. Background Art

[0002] Cotton fabrics have always been the first choice for mothers. Cotton fabrics are soft, skin-friendly, and breathable, but they emit moisture slowly. After absorbing a lot of moisture, the fibers swell laterally, closing the gaps between the yarns. Sweat and moisture cannot diffuse outward, and the fabric becomes damp and hot, easily sticking to the baby's skin, causing a feeling of cold and dampness. Ordinary polyester fibers are not comfortable to wear. Due to their own hydrophobic properties, they have poor moisture absorption and breathability, and are very likely to produce a stuffy feeling. Man-made fiber fabrics for infants and young children are mainly made of wood pulp, which is conventional modal and lyocell. The fabrics are hygroscopic, but they feel cool and easy to pill.

[0003] Moreover, in the process of fabric dyeing, drying treatment is required. The traditional drying method is to use a hot air blower to blow on the moving fabric to help the fabric dry quickly. However, the key to this method lies in the contact time between the hot air and the fabric. If the time is too short, the water vapor is not completely removed, resulting in inadequate drying. If the time is too long, there is a lack of heat preservation mechanism, and too much heat is lost, resulting in excessive energy consumption. Summary of the invention

[0004] In view of the problem of poor drying efficiency of dyed fabrics in the prior art, a fabric printing and dyeing device and a method for preparing a soft, breathable and sweat-wicking fabric are proposed.

[0005] In one aspect of the present application, a fabric printing and dyeing device is provided, the purpose of which is to solve the problem of poor drying efficiency of dyed fabrics.

[0006] The technical solution of the present invention is: a fabric printing and dyeing equipment, including a dyeing box, on which a fabric roller is arranged, and also includes a fabric dehumidification unit arranged outside the dyeing box; the fabric dehumidification unit includes: a fabric transmission component arranged on the dyeing box; the fabric transmission component includes: a pair of first support rods and a second support rod arranged on the dyeing box, a pair of output rollers movably arranged between the pair of first support rods, an extrusion roller movably arranged between the pair of second support rods, a drying box arranged outside the dyeing box, an insulation cover and a pair of support frames arranged on the top of the drying box, a first input roller and a pair of second input rollers movably arranged between the pair of support frames, a transmission belt one arranged inside the support frame, a transmission roller one arranged at the end of the first input roller, and a transmission roller arranged at the transmission A first motor at one end of a roller, a motor cover arranged on the top of the first motor, a transmission roller 2 arranged at the end of one of the second input rollers, a belt roller 1 arranged on the roller wall of the transmission roller 1, a belt roller 2 arranged at the end of the output roller, a belt roller 3 arranged at the end of the squeezing roller, and a transmission belt 2 arranged on the outer wall of the belt roller 1; the transmission roller 1 and the transmission roller 2 are both connected to the transmission belt 1, the belt roller 1, the belt roller 2 and the belt roller 3 are all connected to the transmission belt 2, a pair of transmission gears are respectively sleeved on the outer ends of the output roller, the squeezing roller and the transmission roller 2, the pair of transmission gears are meshed and connected, the pair of squeezing rollers are located above the dyeing box, the motor cover is connected to the outer end of the support frame, and a feeding hole is opened on the insulation cover.

[0007] By adopting the above technical solution, the fabric is transmitted out during the rotation of the output roller, so that the fabric starts to move forward at a uniform speed and slowly contacts with the dye liquid during the movement to achieve the purpose of dyeing. After the dye liquid is dyed, it enters between a pair of squeezing rollers and is squeezed by the squeezing rollers to achieve the purpose of squeezing and removing water.

[0008] Furthermore, a pair of third support rods are arranged on the outer side of the drying box, a winding roller is arranged between the pair of third support rods, and a discharge hole is opened at the outer end of the drying box near the bottom.

[0009] By adopting the above technical solution, one end of the fabric is wound around the outer wall of the winding roller, and the fabric is intermittently wound manually or electrically, so as to avoid excessive accumulation of the fabric.

[0010] Furthermore, the fabric dehumidification unit also includes a swinging component arranged inside the drying box, and the swinging component includes: a pair of support bases arranged at the outer end of the drying box, a second motor arranged at the bottom of one of the support bases, a pair of drive shafts arranged at the outer end of the drying box, a pair of support blocks arranged at the outer end of the drying box, a rope winding roller arranged on one side of the support block, a friction hole arranged on the support block, a friction shaft arranged at one end of the rope winding roller close to the support block, a pulling member 1 arranged on the inner side wall of the rope winding roller, a pair of rocking arms arranged on the inner wall of the drying box, and a pair of guide rods arranged between the pair of rocking arms; a first axial hole is opened on the support base, the drive shaft movably passes through the first axial hole, the friction roller rotates in the friction hole, and the top end of one of the drive shafts is fixedly sleeved with the output end of the second motor.

[0011] By adopting the above technical solution, the second motor rotates the rope winding roller, and the rope winding roller reels the pulling member, causing the rocker to start to deflect. By controlling the rocker to deflect repeatedly, the fabric can be folded and placed during the falling process, so that the fabric can become soft during the drying process, and at the same time, the contact area with the air is also expanded.

[0012] Furthermore, the fabric dehumidification unit also includes a switching component arranged on the swing component, and the switching component includes: a driving disk arranged at the end of the driving shaft, a transmission hole arranged at the side end of the driving disk, a square shaft arranged at the other end of the support block, a movable tube movably arranged at the outer end of the square shaft, a telescopic tube arranged at the side end of the movable tube, an elastic member arranged inside the telescopic tube, a pressure plate arranged at the outer end of the movable tube, a reset member arranged between the pressure plate and the rope winding roller, a second shaft hole arranged on the support base, a driving shaft arranged in the second shaft hole, a driving disk arranged at the end of the driving shaft, an arc-shaped ramp block arranged at the side end of the driving disk, a pulling roller arranged at the other end of the driving shaft, a switching roller arranged at the outer end of the drying box, a belt roller four arranged on the shaft wall of the driving shaft, a transmission belt three arranged on the outer wall of a pair of belt rollers four, and a pair of pulling members two arranged at the outer end of the switching roller; a pair of the pulling rollers are respectively connected to a pair of pulling members two, and the winding directions of the pair of the pulling members two are opposite.

[0013] By adopting the above technical solution, the rocker arm also rotates clockwise under the pull of the pulling member 1, reels one of the pulling members 2, pushes the pressure plate to move close to the corresponding rope winding roller, and moves multiple telescopic tubes out of the transmission hole. The driving shaft that originally rotated the rope winding roller can no longer continue to rotate the rope winding roller, and the corresponding rope winding roller is rotated by another driving shaft.

[0014] Furthermore, the fabric dehumidification unit also includes a mobile dehumidification component arranged inside the drying box, and the mobile dehumidification component includes: a pair of guide slide grooves arranged on the inner wall of the drying box, two pairs of sliders arranged inside the guide slide grooves, a hot air duct arranged between a pair of sliders, a reset roller, a spring coil and a fixed disk arranged at the outer end of the hot air duct, a reset rope arranged at the outer end of the reset roller, and a traction member arranged between the hot air duct and the rocker; the inner wall of the drying box is provided with multiple pairs of slide grooves, and the side end of the fixed disk is provided with a moving block, and the moving block moves in the slide groove.

[0015] By adopting the above technical solution, when the rocker rotates clockwise from the middle, the hot air pipe on the right is pulled to move, and the fabric below is blown during the movement of the hot air pipe, so that the residual moisture on the surface of the fabric is converted into moisture and overflows from the discharge hole. At the same time, the hot air pipe on the left loses the pulling force of the traction part, and under the elastic force of the spring roll, the reset roller starts to rotate, and the corresponding reset rope is reeled in during the rotation, so that the hot air pipe on the left starts to move to the left.

[0016] Furthermore, a hydrophobic plate is provided between the dyeing box and the drying box, a drainage groove is provided on the hydrophobic plate, and a drainage hole is provided at the bottom of the drying box.

[0017] By adopting the above technical solution, a water conveying plate is provided so that dripping water can enter the interior of the dyeing box along the drainage groove, thereby effectively preventing the dye from splashing out during the transmission of the fabric and affecting subsequent cleaning.

[0018] Further, a method for preparing a soft, breathable, and perspiration-wicking fabric is provided, comprising the following steps: yarn selection: selecting fiber raw materials suitable for air permeability for yarn procurement;

[0019] Spinning process: Spinning the selected fiber raw materials into yarn suitable for weaving;

[0020] Weaving technology: Use weaving technology with good air permeability, such as mesh weaving, special weaving structure, etc. to ensure the breathability of the fabric;

[0021] Dyeing and printing: After weaving is completed, the dye is dissolved in water or other solvents, and then the fabric is immersed in the dye solution to chemically combine the dye with the fabric fiber, and the fabric is transported to the drying box while squeezing out the moisture inside the fabric through the above-mentioned fabric printing and dyeing equipment;

[0022] Drying treatment: Open the hot air duct, swing the fabric to the evacuation state, and dry and dehumidify it at the same time.

[0023] Testing and adjustment: Conduct air permeability tests on the prepared breathable fabrics to ensure that they meet the design requirements and standards.

[0024] By adopting the above technical solution, the dyed fabric can be dried. By folding and stacking the fabric, the fabric is not only made soft, but also fully contacted with the hot air, thereby improving the drying efficiency of the drying equipment in the current dyeing fabric process.

[0025] Furthermore, the fiber OUTCOOL is added with cotton, wood pulp and wool in proportion to be blended into yarn.

[0026] By adopting the above technical solution, the fabric produced has good perspiration-wicking property, good air permeability, good softness and skin-friendliness, and has high elasticity and good resilience.

[0027] Beneficial effects of the present invention:

[0028] 1. By setting the first motor, the first transmission belt, the second transmission belt and the transmission gear, a power source can be used to drive a pair of output rollers, a pair of squeezing rollers, a first input roller and a pair of second input rollers to rotate, thereby realizing the transmission of the fabric. Moreover, by cooperating with the support roller, each part of the fabric can be in contact with the dye to achieve the purpose of immersion dyeing. The squeezing of the fabric after the dyeing liquid by the squeezing roller can achieve the purpose of squeezing and removing water. A small amount of residual water will drip down and enter the interior of the dyeing box along the drainage trough, thereby effectively preventing the fabric from splashing the dyeing liquid during the transmission process, affecting the subsequent cleaning.

[0029] 2. Through the cooperation of the rocker, the driving plate, the arc-shaped ramp block and the switching roller, the rocker rotates clockwise under the pull of the pulling member 1, and one of the pulling members 2 is reeled in. The corresponding pressure plate is pushed by the arc-shaped ramp block to move close to the corresponding rope winding roller, and multiple corresponding telescopic tubes are moved out of the transmission hole, so that the driving shaft that originally rotates with the rope winding roller can no longer continue to rotate with the rope winding roller, but another driving shaft rotates with the corresponding rope winding roller, thereby achieving the purpose of automatic reversal of the rocker, and finally achieving the effect of uniform reciprocating swing of the rocker, folding the fabric at a uniform speed, ensuring that the fabric is fully exposed to the hot air, and also making the fabric become soft during the drying process.

[0030] 3. By setting the reset roller, the spring coil and the reset rope, and limiting the length of the reset rope, the hot air pipe can be driven to move with a "delay". When the rocker moves from the middle to any direction, it can drive the hot air pipe in the opposite direction to move, and the hot air pipe in the same direction is reset, which effectively prevents the hot air pipe from blowing on the part of the fabric to be folded when it moves. Without affecting the normal folding of the fabric, each layer of the folded fabric is dried repeatedly.

[0031] 4. The perspiration-wicking property of OUTCOOL fiber, the skin-friendly comfort of cotton, and the hygroscopicity of strong wood pulp are just blended into yarn, and then woven into fabric according to the growth characteristics of the baby. In the newborn period of 0-3 months, the fabric is fluffy, soft, breathable and perspiration-wicking. Professional computer weaving jacquard machines are used. The fabric is soft, perspiration-wicking and highly elastic in the crawling period of 3-12 months, and perspiration-wicking and highly elastic in the running and jumping period of 1-5 years old. Then it is woven into grey cloth and sent to the printing and dyeing factory to be made into fabric. The fabrics sent for inspection are subjected to various tests. Through the blending ratio of yarn raw materials, combined with fabric weaving technology and dyeing and finishing technology, the final fabric effect test data shows good perspiration-wicking, good breathability, softness, good skin-friendliness, high elasticity and good resilience. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 It is a schematic diagram of the overall front view structure of embodiment 1 of the present invention;

[0033] Figure 2 This is a schematic diagram of the overall top view of the structure of Embodiment 1 of the present invention;

[0034] Figure 3 This is a partial structural schematic diagram of a fabric transmission component of Example 1 of the present invention;

[0035] Figure 4 This is a schematic diagram of the external structure of a drying box in Example 1 of the present invention;

[0036] Figure 5 This is a schematic diagram of the internal structure of the support frame of Example 1 of the present invention;

[0037] Figure 6 This is a schematic diagram of the internal structure of a drying box according to Embodiment 1 of the present invention;

[0038] Figure 7 This is a schematic diagram of the structure of the swing component of Example 1 of the present invention;

[0039] Figure 8 This is a schematic diagram of a partial explosion structure of a swing component in Example 1 of the present invention;

[0040] Fig. 9 This is a schematic diagram of a partial explosion structure of a switching component in Example 1 of the present invention;

[0041] Fig.10 This is a schematic diagram of the overall structure of the switching component of Example 1 of the present invention;

[0042] Fig.11 This is a schematic diagram of the internal structure of a drying box according to Embodiment 2 of the present invention;

[0043] Fig.12 This is a schematic cross-sectional view of a drying box according to Embodiment 2 of the present invention;

[0044] Fig.13This is a schematic diagram of the structure of the mobile dehumidification component of Example 2 of the present invention.

[0045] In the figure:

[0046] 1. Dyeing box; 2. Fabric roller; 3. Fabric transmission component; 31. First support rod; 32. Second support rod; 33. Output roller; 34. Squeeze roller; 35. Drying box; 36. Insulation cover; 37. Support frame; 38. First input roller; 39. Second input roller; 310. Transmission belt 1; 311. Transmission roller 1; 312. First motor; 313. Motor cover; 314. Transmission roller 2; 315. Belt roller 1; 316. Belt roller 2; 317. Belt roller 3; 318. Transmission belt 2; 319. Transmission gear; 320. Feed hole; 321. Third support rod; 322. Winding roller; 323. Discharge hole; 324. Hydrophobic plate; 4. Swinging component; 41. Support base; 42. Second motor; 43. Drive shaft; 44, support block; 45, rope roller; 46, friction hole; 47, friction shaft; 48, pulling piece one; 49, rocker; 410, guide rod; 5, switching component; 51, drive disk; 52, transmission hole; 53, square shaft; 54, movable tube; 55, telescopic tube; 56, pressure plate; 57, reset component; 58, second shaft hole; 59, active shaft; 510, active disk; 511, arc ramp block; 512, pulling roller; 513, switching roller; 514, belt roller four; 515, transmission belt three; 516, pulling piece two; 6, mobile dehumidification component; 61, guide slide; 62, slider; 63, hot air pipe; 64, reset roller; 65, spring roll; 66, fixed disk; 67, reset rope; 68, traction piece. DETAILED DESCRIPTION

[0047] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the specific implementation methods of the present invention are described in detail below in conjunction with the accompanying drawings.

[0048] Example 1, reference Figure 1-5, which is the first embodiment of the present invention, provides a fabric printing and dyeing device, including a dyeing box 1, on which a fabric roller 2 is arranged, and also includes a fabric dehumidification unit arranged outside the dyeing box 1; the fabric dehumidification unit includes: a fabric transmission component 3 arranged on the dyeing box 1; the fabric transmission component 3 includes: a pair of first support rods 31 and a second support rod 32 arranged on the dyeing box 1, a pair of output rollers 33 movably arranged between the pair of first support rods 31, an extrusion roller 34 movably arranged between the pair of second support rods 32, a drying box 35 arranged outside the dyeing box 1, a heat preservation cover 36 and a pair of support frames 37 arranged on the top of the drying box 35, a first input roller 38 and a pair of second input rollers 39 movably arranged between the pair of support frames 37, a transmission belt 310 arranged inside the support frame 37, a transmission roller 311 arranged at the end of the first input roller 38, a first motor 312 arranged at the side end of the transmission roller 311, a motor top cover 313 arranged on the top of the first motor 312, and a motor top cover 314 arranged on the second input The transmission roller 314 at the end of the roller 39, the belt roller 315 arranged on the roller wall of the transmission roller 311, the belt roller 316 arranged on the end of the output roller 33, the belt roller 317 arranged on the end of the squeezing roller 34, and the transmission belt 318 arranged on the outer wall of the belt roller 315; the transmission roller 311 and the transmission roller 314 are all connected to the transmission belt 310, and the belt roller 315, the belt roller 316 and the belt roller 317 are all connected to the transmission belt 318. The outer ends of the output roller 33, the squeezing roller 34 and the second transmission roller 314 are respectively sleeved with a pair of transmission gears 319, and the pair of transmission gears 319 are meshedly connected. The pair of squeezing rollers 34 are located above the dyeing box 1, and the motor top cover 313 is connected to the outer end of the support frame 37. A feeding hole 320 is provided on the insulation cover 36; a pair of third support rods 321 are provided on the outer side of the drying box 35, and a winding roller 322 is provided between the pair of third support rods 321. A discharge hole 323 is provided at the outer end of the drying box 35 near the bottom.

[0049] Specifically, a fabric roller 2 is detachably connected to the top of the dyeing box 1, a pair of first support rods 31 and a second support rod 32 are fixedly connected to the top of the dyeing box 1, a pair of output rollers 33 are rotatably connected between the pair of first support rods 31, and a squeezing roller 34 is rotatably connected between the pair of second support rods 32. The inner wall of the dyeing box 1 is also rotatably connected to a pair of support rollers, and the support rollers are immersed in the dye solution. A drying box 35 is arranged on the outside of the dyeing box 1, and a heat preservation cover 36 is fixedly connected to the top of the drying box 35. A pair of support frames 37 are detachably installed on the drying box 35 through columns and mounting plates, a first input roller 38 and a pair of second input rollers 39 are rotatably connected between the pair of support frames 37, a transmission belt 1 310 is arranged inside the support frame 37, a transmission roller 1 311 and a transmission roller 2 314 are both transmission-connected to the transmission belt 1 310, a transmission roller 1 311 is fixedly sleeved on the end of the first input roller 38, a first motor 312 is fixedly connected to the side end of the transmission roller 1 311, and the first motor 312 The top of the motor is fixedly connected to the top cover 313, the outer part of one of the second input rollers 39 is fixedly sleeved with the transmission roller 2 314, the roller wall of the transmission roller 1 311 is sleeved with the belt roller 1 315, the end of the output roller 33 is fixedly sleeved with the belt roller 2 316, the end of the squeezing roller 34 is fixedly sleeved with the belt roller 3 317, and the outer wall of the belt roller 1 315 is sleeved with the transmission belt 2 318; the belt roller 1 315, the belt roller 2 316 and the belt roller 3 317 are all connected to the transmission belt 2 318. The outer ends of a pair of output rollers 33, a squeeze roller 34 and a transmission roller 2 314 are respectively provided with a pair of transmission gears 319, and the pair of transmission gears 319 are meshingly connected. The pair of squeeze rollers 34 are located above the dyeing box 1, and the motor top cover 313 is connected to the outer end of the support frame 37; a pair of third support rods 321 are arranged on the outer side of the drying box 35, and a winding roller 322 is arranged between the pair of third support rods 321, and a discharge hole 323 is opened at the outer end of the drying box 35 near the bottom.

[0050] After the fabric roller 2 is installed, one end of the fabric is passed through a pair of output rollers 33 and a pair of squeezing rollers 34 in sequence. At the same time, a supporting roller is also provided inside the dyeing box 1, and the fabric will also be wound around the outside of the pair of supporting rollers. The first motor 312 is turned on. On the one hand, the first motor 312 drives the transmission roller 1 311 to rotate, so that the transmission roller 1 311 moves with the transmission belt 1 310, thereby driving the transmission roller 2 314 to rotate, forcing the first input roller 38 and the corresponding second input roller 39 to rotate in the same direction, and through a pair of transmission gears 319 meshing and rotating, the other second input roller 39 rotates in the opposite direction to the second input roller 39 next to it; on the other hand, the first motor 312 also drives the transmission belt 2 318 to rotate through the belt roller 1 315, so that the transmission belt 2 318 can drive the belt roller 2 316 and the belt roller 3 317 to rotate, thereby A driving force is given to a pair of output rollers 33 and a pair of squeezing rollers 34. During the rotation of the pair of output rollers 33, the fabric is transmitted, so that the fabric starts to move forward at a uniform speed, and slowly contacts with the dye solution during the movement to achieve the purpose of dyeing. After dyeing, the fabric enters between the pair of squeezing rollers 34 and is squeezed by the squeezing rollers 34 to achieve the purpose of squeezing and removing water. The squeezed water falls into the dye solution and is collected by the dyeing box 1. At the same time, during the further movement of the fabric, the fallen liquid will also be returned to the dyeing box 1 through the hydrophobic plate 324; then the fabric enters horizontally between the first input roller 38 and the corresponding second input roller 39, and then vertically enters between the pair of second input rollers 39, and is dried by the heat inside the drying box 35. Subsequently, the fabric can be wrapped around the outer wall of the winding roller 322, and the fabric can be intermittently wound manually or electrically.

[0051] Reference Figure 6-8 The fabric dehumidification unit also includes a swing component 4 arranged inside the drying box 35, and the swing component 4 includes: a pair of support bases 41 arranged at the outer end of the drying box 35, a second motor 42 arranged at the bottom of one of the support bases 41, a pair of drive shafts 43 arranged at the outer end of the drying box 35, a pair of support blocks 44 arranged at the outer end of the drying box 35, a rope roller 45 arranged on one side of the support block 44, a friction hole 46 arranged on the support block 44, a friction shaft 47 arranged at one end of the rope roller 45 close to the support block 44, a pulling member 48 arranged on the inner side wall of the rope roller 45, a pair of rockers 49 arranged on the inner wall of the drying box 35, and a pair of guide rods 410 arranged between the pair of rockers 49; a first shaft hole is opened on the support base 41, and the drive shaft 43 movably penetrates into the first shaft hole, and the friction roller rotates in the friction hole 46, and the top end of one of the drive shafts 43 is fixedly sleeved with the output end of the second motor 42.

[0052] Specifically, the outer end of the drying box 35 is fixedly connected to a pair of support bases 41, the bottom of one of the support bases 41 is fixedly connected to the second motor 42, the outer end of the drying box 35 is provided with a pair of drive shafts 43, the top end of one of the drive shafts 43 is fixedly sleeved with the output end of the second motor 42, the outer end of the drying box 35 is fixedly connected to a pair of support blocks 44, one side of the support block 44 is provided with a rope roller 45, the support block 44 is provided with a friction hole 46, and the end of the rope roller 45 close to the support block 44 is fixedly connected to a friction shaft 47. The wiping roller rotates in the friction hole 46 and is responsible for giving friction to the rope winding roller 45. The inner wall of the rope winding roller 45 is fixedly connected with a pulling member 48, and the pulling member is a flexible rope. A pair of fixed pulleys are arranged inside the drying box 35, and the pulling member is wound around the outer walls of the corresponding fixed pulleys. A pair of rocking arms 49 are arranged on the inner wall of the drying box 35, and one end of the pulling member 48 is connected to the outer end of the rocking arm 49. A pair of guide rods 410 are fixedly connected between the pair of rocking arms 49; a first axial hole is opened on the support base 41, and the drive shaft 43 movably passes through the first axial hole.

[0053] The second motor 42 is turned on, and the second motor 42 drives the driving shaft 43 to rotate, and the driving shaft 43 drives the rope winding roller 45 to rotate, and the rope winding roller 45 reels the pulling member 48, so that the rocker 49 starts to deflect, and the rocker 49 is controlled to deflect repeatedly, so that the fabric can be folded and placed during the falling process, so that the fabric can become soft during the drying process, and at the same time, the contact area with the air is also enlarged.

[0054] Reference Figure 8-10 The fabric dehumidification unit also includes a switching component 5 arranged on the swing component 4, and the switching component 5 includes: a driving disk 51 arranged at the end of the driving shaft 43, a transmission hole 52 arranged at the side end of the driving disk 51, a square shaft 53 arranged at the other end of the support block 44, a movable tube 54 movably arranged at the outer end of the square shaft 53, a telescopic tube 55 arranged at the side end of the movable tube 54, an elastic member arranged inside the telescopic tube 55, a pressure plate 56 arranged at the outer end of the movable tube 54, a reset member 57 arranged between the pressure plate 56 and the rope winding roller 45, a second shaft hole 58 arranged on the support base 41, and a setting A driving shaft 59 is arranged in the second shaft hole 58, a driving disk 510 is arranged at the end of the driving shaft 59, an arc-shaped ramp block 511 is arranged at the side end of the driving disk 510, a pulling roller 512 is arranged at the other end of the driving shaft 59, a switching roller 513 is arranged at the outer end of the drying box 35, a belt roller four 514 is arranged on the shaft wall of the driving shaft 43, a transmission belt three 515 is arranged on the outer wall of a pair of belt rollers four 514, and a pair of pulling members two 516 are arranged at the outer end of the switching roller 513; the pair of pulling rollers 512 are respectively connected to the pair of pulling members two 516, and the winding directions of the pair of pulling members two 516 are opposite.

[0055] Specifically, a driving disk 51 is fixedly connected to the end of the driving shaft 43, and eight transmission holes 52 are opened at the side end of the driving disk 51. A square shaft 53 is provided at the other end of the support block 44. A movable tube 54 is slidably connected to the outer end of the square shaft 53. One end of the square shaft 53 is fixedly connected to the side end of the rope winding roller 45. Eight telescopic tubes 55 are fixedly connected to the side end of the movable tube 54. An elastic member is provided inside the telescopic tube 55. The elastic member is elastic cotton. A pressure plate 56 is fixedly connected to the outer end of the movable tube 54. Four reset members 57 are fixedly connected between the pressure plate 56 and the rope winding roller 45. The reset member 57 is a reset spring. A second shaft hole 58 is opened on the support base 41. A driving shaft 59 is rotatably connected in the second shaft hole 58. A clockwork is also sleeved on the outside of the driving shaft 59 One end of the clockwork spring is connected to the supporting base 41, the end of the driving shaft 59 is fixedly connected to the driving disk 510, the side end of the driving disk 510 is fixedly connected to the arc ramp block 511, the other end of the driving shaft 59 is fixedly connected to the pulling roller 512, and a switching roller 513 is arranged at the outer end of the drying box 35. The side end of the rocker 49 rotates and penetrates to the outer end of the drying box 35. The switching roller 513 is fixedly connected to the side end of the rocker 49. The shaft walls of a pair of driving shafts 43 are fixedly sleeved with belt rollers four 514, the outer walls of a pair of belt rollers four 514 are sleeved with transmission belts three 515, and the outer ends of the switching rollers 513 are fixedly wound with a pair of pulling members two 516; a pair of pulling rollers 512 are respectively connected to a pair of pulling members two 516, and the winding directions of the pair of pulling members two 516 are opposite.

[0056] When the second motor 42 rotates the rope winding roller 45 clockwise, the rocker 49 also rotates clockwise under the pull of the pulling member 1 48, reels one of the pulling members 2 516, and unwinds the other pulling member 2 516, so that it pulls the corresponding driving shaft 59 to rotate, and the driving shaft 59 rotates counterclockwise with the arc ramp block 511. The arc ramp block 511 has crests and troughs. During the counterclockwise rotation of the arc ramp block 511, the contact position with the pressure plate 56 moves from the trough to the crest, thereby pushing the pressure plate 56 to move close to the corresponding rope winding roller 45, and moving the multiple telescopic tubes 55 out of the transmission hole 52. When the rocker 49 moves to the highest point, the telescopic tube 55 is separated from the driving plate 51, and the driving plate 51 that originally rotated with the rope winding roller 45 The shaft 43 cannot continue to rotate with the rope winding roller 45, but another driving shaft 43 rotates the corresponding rope winding roller 45. This is because during the unwinding process of the other pulling member 2 516, under the action of the spring, the corresponding active shaft 59 rotates, and the contact position of the corresponding arc ramp block 511 and the pressure plate 56 changes from the crest to the trough. Then, under the action of the reset member 57, the telescopic tube 55 enters the interior of the transmission hole 52. At this time, driven by the transmission belt 3 515, one driving shaft 43 starts to rotate with the corresponding rope winding roller 45, and the rocker 49 is pulled counterclockwise at a uniform speed, thereby achieving the purpose of automatic reversal of the rocker 49, and finally the rocker 49 can achieve the effect of uniform reciprocating swinging, and the fabric can be folded at a uniform speed to ensure that the fabric is fully exposed to the hot air.

[0057] During use, after the fabric roller 2 is installed, one end of the fabric is passed through a pair of output rollers 33 and a pair of squeezing rollers 34 in turn, and the middle part is also wrapped around the outside of a pair of support rollers, and the first motor 312 is turned on. On the one hand, the first motor 312 drives the transmission roller 1 311 to rotate, so that the transmission roller 1 311 moves with the transmission belt 1 310, thereby driving the transmission roller 2 314 to rotate, forcing the first input roller 38 and the corresponding second input roller 39 to rotate in the same direction, and through the meshing rotation of a pair of transmission gears 319, the other second input roller 39 rotates in the opposite direction to the second input roller 39 next to it; on the other hand, the first motor 312 also drives the transmission belt 2 318 to rotate through the belt roller 1 315, so that the transmission belt 2 318 can drive the belt roller 2 316 and the belt roller 3 317 to rotate. , thereby giving driving force to a pair of output rollers 33 and a pair of squeezing rollers 34. During the rotation of the pair of output rollers 33, the fabric is transmitted so that the fabric starts to move forward at a uniform speed. During the movement, it slowly contacts the dye liquid to achieve the purpose of dyeing. After dyeing the liquid, it enters between the pair of squeezing rollers 34 and is squeezed by the squeezing rollers 34 to achieve the purpose of squeezing and removing water. The squeezed water falls into the dye liquid and is collected by the dyeing box 1. At the same time, during the further movement of the fabric, the falling liquid will also be returned to the dyeing box 1 through the hydrophobic plate 324; then the fabric enters between the first input roller 38 and the corresponding second input roller 39 horizontally, and then enters between the pair of second input rollers 39 vertically, and is dried by the heat inside the drying box 35. Finally, it is wound around the outside of the winding roller 322 through the discharge hole 323;When the second motor 42 drives the rope winding roller 45 to rotate clockwise, the driving shaft 43 drives the rope winding roller 45 to rotate, and the rope winding roller 45 reels the pulling member 1 48, causing the rocker 49 to start to deflect. The rocker 49 rotates clockwise under the pull of the pulling member 1 48, and during the rotation of the rocker 49, it drives the switching roller 513 to rotate, and reels one of the pulling members 2 516 (the other pulling member 2 516 is unreeled), so that it pulls the corresponding driving shaft 59 to rotate, so that the driving shaft 59 drives the arc ramp block 511 to rotate counterclockwise. During the counterclockwise rotation of the arc ramp block 511, the contact position with the pressure plate 56 moves from the trough to the peak, thereby pushing the pressure plate 56 to move close to the corresponding rope winding roller 45, and moving multiple telescopic tubes 55 out of the transmission hole 52. When the rocker 49 moves to the highest point, the telescopic tube 55 is separated from the driving plate 51, and the original The driving shaft 43 that rotates the rope roller 45 cannot continue to rotate the rope roller 45, but the other driving shaft 43 rotates the corresponding rope roller 45, because during the unwinding process of the other pulling member 2 516, under the action of the spring, the corresponding driving shaft 59 rotates, and the contact position of the corresponding arc ramp block 511 and the pressure plate 56 changes from the wave crest to the wave trough, and then under the action of the reset member 57, the telescopic tube 55 enters the interior of the transmission hole 52, and at this time, under the drive of the transmission belt 3 515, the other driving shaft 43 starts to rotate with the corresponding rope roller 45, and pulls the rocker 49 to rotate counterclockwise at a uniform speed, thereby achieving the purpose of automatic reversal of the rocker 49, and finally achieving the effect of uniform reciprocating swing of the rocker 49, folding the fabric at a uniform speed, ensuring that the fabric is fully exposed to the hot air, and at the same time, the fabric can be made soft during the drying process. ;

[0058] Example 2, reference Figure 11-13 , which is the second embodiment of the present invention. This embodiment is different from the first embodiment in that: the fabric dehumidification unit also includes a mobile dehumidification component 6 arranged inside the drying box 35, and the mobile dehumidification component 6 includes: a pair of guide chutes 61 arranged on the inner wall of the drying box 35, two pairs of sliders 62 arranged inside the guide chutes 61, a hot air pipe 63 arranged between the pair of sliders 62, a reset roller 64, a spring roll 65 and a fixed disk 66 arranged at the outer end of the hot air pipe 63, a reset rope 67 arranged at the outer end of the reset roller 64, and a traction member 68 arranged between the hot air pipe 63 and the rocker 49; the inner wall of the drying box 35 is provided with multiple pairs of chutes, and the side end of the fixed disk 66 is provided with a moving block, and the moving block moves in the chutes.

[0059] Specifically, a pair of guide grooves 61 are provided on the inner wall of the drying box 35, and two pairs of sliders 62 are slidably connected inside the guide grooves 61. A hot air duct 63 is fixedly connected between each pair of sliders 62. The hot air duct 63 is responsible for blowing out hot air. A reset roller 64, a spring coil 65 and a fixed disk 66 are provided on the outer end of the hot air duct 63. A reset rope 67 is fixedly wound around the outer end of the reset roller 64. One end of the reset rope 67 is fixedly connected to the inner wall of the drying box 35. A traction member 68 is fixedly connected between the hot air duct 63 and the rocker 49. The traction member 68 is a rope, and its length is only half the width of the drying box 35. Two pairs of grooves are provided on the inner wall of the drying box 35, and a moving block is fixedly connected to the side end of the fixed disk 66. The moving block moves in the groove.

[0060] During use, when the rocker 49 rotates clockwise from the middle, the hot air pipe 63 on the right side is pulled to move, and the fabric below is blown during the movement of the hot air pipe 63, so that the residual moisture on the surface of the fabric is converted into moisture and overflows from the discharge hole 323. At the same time, the hot air pipe 63 on the left side loses the pulling force of the traction member 68, and under the elastic force of the spring roll 65, the reset roller 64 starts to rotate, and the corresponding reset rope 67 is wound during the rotation, so that the hot air pipe 63 on the left side starts to move to the left side, and when the rocker 49 rotates counterclockwise, the hot air pipe 63 on the right side starts to move slowly to the right side, while the hot air pipe 63 on the left side remains in place until the rocker 49 rotates to the middle. At this time, the rocker 49 continues to rotate counterclockwise, and the hot air pipe 63 on the left side starts to move to the right side, and the hot air pipe 63 on the right side is already at the rightmost end. Finally, the purpose of alternating movement of the left and right hot air pipes 63 is achieved during the left and right swinging of the rocker 49, and each layer of folded fabric is dried. The remaining structures are the same as those of Example 1.

[0061] Based on Examples 1-2, the working principle of this device is as follows:

[0062] The fabric roller 2 is installed, and one end of the fabric is passed through a pair of output rollers 33 and a pair of squeezing rollers 34 in sequence. The middle part is also wrapped around the outside of a pair of support rollers, and finally passes through the discharge hole 323 and is wrapped around the outside of the winding roller 322. The first motor 312 is turned on. On the one hand, the first motor 312 drives the transmission roller 1 311 to rotate, so that the transmission roller 1 311 moves with the transmission belt 1 310, thereby driving the transmission roller 2 314 to rotate, forcing the first input roller 38 and the corresponding second input roller 39 to rotate in the same direction, and through a pair of transmission gears 319 meshing and rotating, the other second input roller 39 and the second input roller 39 next to it rotate in the opposite direction; on the other hand, the first motor 312 also drives the transmission belt 2 318 to rotate through the belt roller 1 315, so that the transmission belt 2 318 can drive the belt roller 2 316 and the belt roller 3 317 to rotate, and finally drives the pair of output rollers 33 and the pair of squeezing rollers 34 to rotate continuously.

[0063] During the rotation of a pair of output rollers 33, the fabric is transmitted out, so that the fabric starts to move forward at a uniform speed. During the movement, the fabric slowly contacts with the dye solution to achieve the purpose of dyeing. After dyeing, it enters between a pair of squeezing rollers 34 and is squeezed by the squeezing rollers 34 to achieve the purpose of squeezing and removing water. The squeezed water falls into the dye solution and is collected by the dyeing box 1. At the same time, during the further movement of the fabric, the fallen liquid will also be returned to the dyeing box 1 through the hydrophobic plate 324; then the fabric enters horizontally between the first input roller 38 and the corresponding second input roller 39, and then vertically enters between a pair of second input rollers 39 until it enters the drying box 35 for subsequent drying treatment.

[0064] When the second motor 42 drives the rope winding roller 45 to rotate clockwise, the driving shaft 43 drives the rope winding roller 45 to rotate, and the rope winding roller 45 reels the pulling member 1 48, causing the rocker 49 to start to deflect. The rocker 49 rotates clockwise under the pull of the pulling member 1 48, and during the rotation of the rocker 49, it drives the switching roller 513 to rotate, and reels one of the pulling members 2 516 (unreels the other pulling member 2 516), so that it pulls the corresponding driving shaft 59 to rotate, and the driving shaft 59 drives the arc ramp block 511 to rotate counterclockwise. During the counterclockwise rotation of the arc ramp block 511, the contact position with the pressure plate 56 moves from the trough to the peak, thereby pushing the pressure plate 56 to move close to the corresponding rope winding roller 45, and moving the multiple telescopic tubes 55 out of the transmission hole 52. When the rocker 49 moves to the highest point, the telescopic tubes 55 are separated from the driving plate 51.

[0065] At this time, the driving shaft 43 on the left side that rotates with the rope winding roller 45 can no longer continue to rotate with the rope winding roller 45, but the driving shaft 43 on the right side rotates with the corresponding rope winding roller 45. This is because during the unwinding process of the other pulling member 2 516, under the action of the spring, the corresponding active shaft 59 rotates, and the contact position of the corresponding arc ramp block 511 and the pressure plate 56 changes from the crest to the trough. Then, under the action of the reset member 57, the telescopic tube 55 enters the interior of the transmission hole 52. At this time, driven by the transmission belt 3 515, the other driving shaft 43 begins to rotate with the corresponding rope winding roller 45, and will pull the rocker 49 to rotate counterclockwise at a uniform speed, thereby achieving the purpose of automatic reversal of the rocker 49, and finally achieving the effect of uniform reciprocating swing of the rocker 49, folding the fabric at a uniform speed, ensuring that the fabric is fully exposed to the hot air, and also allowing the fabric to become soft during the drying process.

[0066] At the same time, the rocker 49 also pulls the hot air pipe 63 on the right to move, and blows on the fabric below during the movement of the hot air pipe 63, so that the residual moisture on the surface of the fabric is converted into moisture and overflows from the discharge hole 323. At the same time, the hot air pipe 63 on the left loses the pulling force of the traction member 68, and under the elastic force of the spring roll 65, the reset roller 64 on the left starts to rotate, and the corresponding reset rope 67 is wound during the rotation, so that the hot air pipe 63 on the left starts to move to the left until the rocker 49 moves to the highest point on the left, the hot air pipe 63 on the left moves to the leftmost point, and the hot air pipe 63 on the right moves to the middle.

[0067] When the rocker 49 is swinging back and forth, the rope winding roller 45 moves alternately, and the hot air pipe 63 also moves alternately, and always moves only in the corresponding half area. At regular intervals, the winding roller 322 is driven to move to wind up the dyed and dried fabric to avoid excessive accumulation affecting the operation of the rocker 49.

[0068] Example 3, reference Figure 1-13 , which is the third embodiment of the present invention, a method for preparing a soft, breathable, and perspiration-wicking fabric, comprising the following steps:

[0069] Yarn selection: Choose fiber raw materials with suitable air permeability for yarn procurement;

[0070] Spinning process: Spinning the selected fiber raw materials into yarn suitable for weaving;

[0071] Weaving technology: Use weaving technology with good air permeability, such as mesh weaving, special weaving structure, etc. to ensure the breathability of the fabric;

[0072] Dyeing and printing: After weaving is completed, the dye is dissolved in water or other solvents, and then the fabric is immersed in the dye solution to chemically combine the dye with the fabric fibers, and the fabric is transported to the drying box 35 while squeezing out the moisture inside the fabric through the above-mentioned fabric printing and dyeing equipment;

[0073] Drying treatment: The hot air duct 63 is turned on to swing the fabric to the evacuation state and perform drying and dehumidification treatment on it.

[0074] Testing and adjustment: Conduct air permeability tests on the prepared breathable fabrics to ensure that they meet the design requirements and standards.

[0075] During use, in the yarn selection, we add a special fiber OUTCOOL to cotton, wood pulp, and wool. According to different price value requirements, multiple components can be blended into yarn. The perspiration-wicking property of OUTCOOL fiber, the skin-friendly comfort of cotton, and the hygroscopicity of strong wood pulp are just blended into yarn, and then woven into fabric according to the growth characteristics of the baby. In the newborn period of 0-3 months, the fabric is fluffy, soft, breathable and perspiration-wicking. Using a professional computer weaving jacquard machine, the fabric is soft and perspiration-wicking and highly elastic in the crawling period of 3-12 months, and perspiration-wicking and highly elastic in the running and jumping period of 1-5 years old. Then it is woven into grey cloth and sent to the printing and dyeing factory to make fabric. The fabric sent for inspection undergoes various tests. Through the blending ratio of the yarn raw materials, combined with the fabric weaving process and dyeing and finishing process, the final fabric effect test data shows good perspiration-wicking, good breathability, softness and skin-friendliness, high elasticity and good resilience.

[0076] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. A fabric printing and dyeing device, comprising a dyeing box (1), wherein a fabric roller (2) is arranged on the dyeing box (1), characterized in that: It also includes a fabric dehumidification unit arranged outside the dyeing box (1); The fabric dehumidification unit comprises: a fabric transmission component (3) arranged on the dyeing box (1); The fabric transmission component (3) comprises: a pair of first support rods (31) and a second support rod (32) arranged on the dyeing box (1), a pair of output rollers (33) movably arranged between the pair of first support rods (31), a squeezing roller (34) movably arranged between the pair of second support rods (32), a drying box (35) arranged outside the dyeing box (1), a heat preservation cover (36) and a pair of support frames (37) arranged on the top of the drying box (35), a first input roller (38) and a pair of second input rollers (39) movably arranged between the pair of support frames (37), and a transmission roller (34) arranged inside the support frame (37). Belt one (310), a transmission roller one (311) arranged at the end of the first input roller (38), a first motor (312) arranged at the side end of the transmission roller one (311), a motor top cover (313) arranged at the top of the first motor (312), a transmission roller two (314) arranged at the end of one of the second input rollers (39), a belt roller one (315) arranged on the roller wall of the transmission roller one (311), a belt roller two (316) arranged at the end of the output roller (33), a belt roller three (317) arranged at the end of the squeezing roller (34), and a transmission belt two (318) arranged on the outer wall of the belt roller one (315); The transmission roller 1 (311) and the transmission roller 2 (314) are both connected to the transmission belt 1 (310) in a transmission manner; the belt roller 1 (315), the belt roller 2 (316) and the belt roller 3 (317) are all connected to the transmission belt 2 (318) in a transmission manner; the outer ends of the pair of output rollers (33), the squeeze roller (34) and the transmission roller 2 (314) are respectively sleeved with a pair of transmission gears (319); the pair of transmission gears (319) are meshingly connected; the pair of squeeze rollers (34) are located above the dyeing box (1); the motor top cover (313) is connected to the outer end of the support frame (37); and the heat preservation cover (36) is provided with a feeding hole (320).

2. The fabric printing and dyeing equipment according to claim 1, characterized in that: A pair of third support rods (321) are arranged outside the drying box (35), a winding roller (322) is arranged between the pair of third support rods (321), and a discharge hole (323) is opened at the outer end of the drying box (35) near the bottom.

3. The fabric printing and dyeing equipment according to claim 2, characterized in that: The fabric dehumidification unit further comprises a swing component (4) arranged inside the drying box (35), the swing component (4) comprising: a pair of support bases (41) arranged at the outer end of the drying box (35), a second motor (42) arranged at the bottom of one of the support bases (41), a pair of drive shafts (43) arranged at the outer end of the drying box (35), a pair of support blocks (44) arranged at the outer end of the drying box (35), a rope winding roller (45) arranged at one side of the support block (44), a friction hole (46) arranged on the support block (44), a friction shaft (47) arranged at one end of the rope winding roller (45) close to the support block (44), a pulling member (48) arranged on the inner side wall of the rope winding roller (45), a pair of rocking arms (49) arranged on the inner wall of the drying box (35), and a pair of guide rods (410) arranged between the pair of rocking arms (49); The support base (41) is provided with a first shaft hole, the drive shaft (43) movably penetrates the first shaft hole, the friction roller rotates in the friction hole (46), and the top end of one of the drive shafts (43) is fixedly sleeved with the output end of the second motor (42).

4. The fabric printing and dyeing equipment according to claim 3, characterized in that: The fabric dehumidification unit further comprises a switching component (5) arranged on the swing component (4), wherein the switching component (5) comprises: a driving disk (51) arranged at the end of the driving shaft (43), a transmission hole (52) arranged at the side end of the driving disk (51), a square shaft (53) arranged at the other end of the support block (44), a movable tube (54) movably arranged at the outer end of the square shaft (53), a telescopic tube (55) arranged at the side end of the movable tube (54), an elastic member arranged inside the telescopic tube (55), a pressure plate (56) arranged at the outer end of the movable tube (54), and a reset member (57) arranged between the pressure plate (56) and the rope winding roller (45). ), a second shaft hole (58) arranged on the support base (41), a driving shaft (59) arranged in the second shaft hole (58), a driving disk (510) arranged at the end of the driving shaft (59), an arc-shaped ramp block (511) arranged at the side end of the driving disk (510), a pulling roller (512) arranged at the other end of the driving shaft (59), a switching roller (513) arranged at the outer end of the drying box (35), a belt roller four (514) arranged on the shaft wall of the driving shaft (43), a transmission belt three (515) arranged on the outer wall of a pair of belt rollers four (514), and a pair of pulling members two (516) arranged at the outer end of the switching roller (513); The pair of pulling rollers (512) are respectively connected to a pair of pulling members (516), and the winding directions of the pair of pulling members (516) are opposite.

5. The fabric printing and dyeing equipment according to claim 4, characterized in that: The fabric dehumidification unit further comprises a movable dehumidification component (6) arranged inside the drying box (35), and the movable dehumidification component (6) comprises: a pair of guide slide grooves (61) arranged on the inner wall of the drying box (35), two pairs of sliders (62) arranged inside the guide slide grooves (61), a hot air pipe (63) arranged between the pair of sliders (62), a reset roller (64), a spring coil (65) and a fixed disk (66) arranged at the outer end of the hot air pipe (63), a reset rope (67) arranged at the outer end of the reset roller (64), and a traction member (68) arranged between the hot air pipe (63) and the rocker (49); The inner wall of the drying box (35) is provided with a plurality of pairs of slide grooves, and the side end of the fixed plate (66) is provided with a moving block, and the moving block moves in the slide grooves.

6. The fabric printing and dyeing equipment according to claim 5, characterized in that: A hydrophobic plate (324) is arranged between the dyeing box (1) and the drying box (35), a drainage groove is provided on the hydrophobic plate (324), and a drainage hole is provided at the bottom of the drying box (35).

7. A method for preparing a soft, breathable, and perspiration-wicking fabric, using the fabric printing and dyeing equipment as described in any one of claims 1 to 6, characterized in that: The following steps are included: Yarn selection: Choose breathable fiber raw materials for yarn procurement; Spinning process: The selected fiber raw materials are spun into yarn suitable for weaving; Weaving technology: Use weaving technology with good air permeability, such as mesh weaving, special weaving structure, etc. to ensure the breathability of the fabric; Dyeing and printing treatment: after weaving is completed, the dye is dissolved in water or other solvents, and then the fabric is immersed in the dye solution to allow the dye to chemically combine with the fabric fibers, and then the fabric is transported to a drying box (35) while squeezing out the moisture inside the fabric through the above-mentioned fabric printing and dyeing equipment; Drying treatment: The hot air pipe (63) is turned on to swing the fabric to a loose state while drying and dehumidifying it. Testing and adjustment: Conduct air permeability tests on the prepared breathable fabrics to ensure that they meet the design requirements and standards.

8. The method for preparing a soft, breathable, and perspiration-wicking fabric according to claim 7, characterized in that: In the yarn selection, fiber OUTCOOL is used, cotton, wood pulp, and wool are blended in proportion to form yarn.

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