Dyeing treatment equipment for antistatic fabric
By designing a split hopper and multi-function mixing device, the problems of lack of replaceability and uneven mixing of the loading pipes of existing equipment are solved, and lower maintenance costs and higher consistency of dyeing effects are achieved.
Patent Information
- Application Number
- CN202411956935.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-29
- Publication Date
- 2025-03-25
AI Technical Summary
The loading tube design of existing anti-static fabric dyeing equipment lacks the ability to replace the parts with specific functions or materials, resulting in high maintenance costs and the inability to flexibly replace parts with specific functions or materials, affecting the device's ability to adapt to multiple dyeing conditions. At the same time, the agitating device of the equipment lacks the up and down agitation function, resulting in uneven mixing of the dye, affecting the consistency and stability of the dyeing effect.
A split upper hopper is designed, including the upper hopper shell and inner liner, and the fast replacement and fixation of the upper hopper inner liner is achieved through the clamping mechanism and the quick change mechanism. At the same time, multiple stirring leaves and spiral stirring rods are used to achieve synchronous rotation of the stirring leaves through synchronization wheels and synchronization belts, and the stirring range is expanded through guide grooves and sliding rods to increase the agitation area.
The split hopper design reduces maintenance costs and improves the applicability and replaceability of the equipment. The combination of multiple stirring leaves and spiral stirring rods achieves full mixing of dyes and additives, improves consistency and stability of dyeing effects, and shortens mixing time.
Smart Images
Figure CN119686061A_ABST
Abstract
Description
Technical Field
[0001] The invention belongs to the technical field of dyeing equipment, and in particular relates to a dyeing processing equipment for antistatic fabrics. Background Art
[0002] A dyeing and processing device for antistatic fabrics. The dyeing and processing device for antistatic fabrics is mainly used to dye antistatic fabrics to give them specific colors and appearance effects to meet the needs of different fields and customers. Through the processing of this equipment, antistatic fabrics can obtain uniform, bright and lasting colors while maintaining their antistatic properties. This equipment is widely used in the fields of clothing, home textiles, industrial textiles, etc., providing dual guarantees of beauty and functionality for related products. The current device usually requires the following technologies in practical applications:
[0003] 1. Accurate dye delivery system ensures that the dye is evenly and quantitatively applied to the fabric;
[0004] 2. Efficient stirring device to fully mix the dye and water to ensure the uniformity of the dyeing liquid;
[0005] 3. Accurate temperature control system, which can accurately control the temperature according to different dyeing process requirements;
[0006] 4. Advanced humidity control device to maintain stable humidity in the dyeing environment;
[0007] 5. Reliable tension control mechanism ensures uniform tension of fabric during dyeing process to avoid deformation.
[0008] At present, in order to achieve the dyeing function of antistatic fabrics, a variety of equipment and methods are used. Some manufacturers use immersion dyeing equipment to completely immerse the fabric in the dyeing liquid and achieve dyeing through circulating stirring.
[0009] However, there is a prominent problem with the above method. First, the dyeing material is usually fed into the dyeing device through a feeding tube. The feeding tube in the existing device is usually an integrated design and lacks split replaceability. Once the feeding tube is partially damaged or worn, the entire feeding tube may need to be replaced as a whole because the damaged part cannot be replaced separately, which increases the cost of maintenance and replacement. In addition, the integrated feeding tube cannot flexibly replace the part with specific function or material according to the characteristics of different dyeing materials or process requirements, which limits the device's ability to adapt to various dyeing conditions.
[0010] Secondly, when the dyeing device is performing a rotating, stirring and mixing operation on the dye, it often uses a rotating stirring blade to form a turbine for stirring. It lacks the function of stirring up and down, and is unable to fully mix dyes of different depths, which can easily lead to inconsistent concentrations and components of the dyes in the upper and lower layers, affecting the consistency and stability of the dyeing effect.
[0011] In view of this, the existing structure and defects are studied and improved, and an antistatic fabric dyeing treatment device is provided to achieve a more practical purpose. Summary of the invention
[0012] The present invention mainly solves the technical problems existing in the above-mentioned prior art and provides a dyeing treatment device for antistatic fabrics.
[0013] The above technical problems of the present invention are mainly solved by the following technical solutions: a dyeing and processing device for antistatic fabrics, including a device body, a feeding mechanism for feeding materials is arranged at the upper end of the device body, the feeding mechanism includes a feeding hopper shell and a feeding hopper liner, the feeding hopper shell is fixedly connected to the upper end of the device body, the feeding hopper liner is slidably connected to the inside of the feeding hopper shell, and a clamping mechanism for installing the feeding hopper liner is arranged inside the feeding hopper shell, the clamping mechanism includes two first springs and two arc clamping blocks, the two first springs are both sleeved inside the feeding hopper shell, the two arc clamping blocks are respectively sleeved on the sides of the two first springs close to each other, and the two arc clamping blocks are both slidably connected to the feeding hopper shell. Inside the upper hopper shell, the two arc clamping blocks are both clamped in the upper hopper inner shell, and a quick-change mechanism for popping out and taking is arranged inside the upper hopper shell, and the quick-change mechanism includes two wedge-shaped grooves, two pressing blocks and two groups of second springs, and the two wedge-shaped grooves are respectively opened in the two arc clamping blocks, and the two groups of the second springs are both sleeved in the upper hopper shell, and the two pressing blocks are respectively sleeved on the upper ends of the two second springs, and the two pressing blocks are both slidably connected in the upper hopper shell, and the two pressing blocks are respectively fitted with the two wedge-shaped grooves, and two third springs are sleeved in the upper ends of the two third springs, and the two lifting blocks are both sleeved in the upper hopper inner shell.
[0014] Preferably, a group of material guide rollers are rotatably connected inside the device body, and a group of electric heating blocks are fixedly connected to the outer surface of the device body.
[0015] Preferably, a discharge pipe is fixedly connected to the lower end of the device body, and a baffle is slidably connected inside the device body.
[0016] Preferably, sliders are fixedly connected to both sides of the baffle, and both sliders are slidably connected inside the device body, and a pull rod is fixedly connected to the outer surface of the baffle.
[0017] Preferably, two eccentric rotating blocks are rotatably connected inside the device body, and the sides of the two eccentric rotating blocks close to a group of guide rollers are sleeved with fourth springs, and the two fourth springs are sleeved inside the device body.
[0018] Preferably, two plug rods are slidably connected inside the device body, the two eccentric rotating blocks are rotatably connected inside the two plug rods, the two plug rods are slidably connected inside the two sliders, and four stirring blades are rotatably connected inside the device body.
[0019] Preferably, the outer surfaces of the four stirring blades are all sleeved with a group of synchronous wheels, the outer surfaces of the four groups of synchronous wheels are all sleeved with synchronous belts, the outer surface of the device body is fixedly connected to a driving motor, and the four stirring blades are sleeved on the outer surface of the driving motor.
[0020] Preferably, guide grooves are provided inside the four stirring blades, four first support seats are fixedly connected inside the device body, and the four stirring blades are rotatably connected inside the four first support seats respectively.
[0021] Preferably, four second support seats are fixedly connected to the inner surfaces of the four device bodies, and sliding rods are slidably connected inside the four second support seats.
[0022] Preferably, the four sliding rods are all fixedly connected with connecting blocks inside, the four connecting blocks are respectively sleeved in the four guide grooves, and the outer surfaces of the four sliding rods are all fixedly connected with spiral stirring rods.
[0023] The present invention has the beneficial effects:
[0024] In the present invention, by providing an upper hopper inner liner, when the upper hopper inner liner is installed, the two pressing blocks are pressed so that the two arc blocks slide open, and the upper hopper inner liner is sleeved and placed into the upper hopper shell. At this time, the pressing blocks are released, and the pressing blocks slide upward to reset, and the two arc blocks lose the driven force. Under the action of the two first springs, the two arc blocks are pushed to clamp into the upper hopper inner liner to clamp and fix it. The split design of the upper hopper shell and the upper hopper inner liner increases the replaceability. The one-piece design and replaceable upper hopper inner liner are convenient for separate replacement when it is damaged or worn, thereby reducing the maintenance cost. According to the characteristics or process requirements of different batches of fabrics, upper hopper inner liners of different materials or specifications can be selected, thereby increasing the applicability of the equipment.
[0025] The present invention provides a pressing block, and when the dye and auxiliary agent feeding operation is performed, the material is put into the device main body along the upper hopper inner liner sleeved in the upper hopper shell. When the upper hopper inner liner needs to be replaced, the two pressing blocks are pressed downward, and the two pressing blocks slide and squeeze the two groups of second springs to contract. The lower end portions of the two pressing blocks are shaped like a triangle and fit with the wedge-shaped grooves provided in the first springs. When the pressing blocks slide downward, the inclined surfaces of the wedge-shaped grooves fit the arc clamping blocks to push them to slide toward the end away from the upper hopper inner liner. The two arc clamping blocks slide to both sides to release the clamping limit on the upper hopper inner liner. At this time, the two third springs sleeved in the device main body reset and open, and the two third springs lift the upper hopper inner liner upward through the lifting blocks to pop it out. At this time, the upper hopper inner liner can be taken out for replacement operation, which makes the replacement operation of the upper hopper inner liner simple and quick, saving time and manpower. Quick replacement of the inner liner can reduce equipment downtime, thereby improving overall production efficiency.
[0026] In the present invention, by providing stirring blades, after the dye and the auxiliary agent are loaded, the driving motor is started, the output shaft of the driving motor drives one stirring blade to rotate, and the one stirring blade drives four stirring blades to rotate synchronously through the connection mode of the synchronous wheel and the synchronous belt, so that a rotating vortex is formed at the bottom of the inner surface of the device body, which helps to stir and mix the dye and the auxiliary agent. After a certain period of dyeing processing, the four stirring blades can be started to rotate to avoid the dye from settling to the bottom, so that the dye and the auxiliary agent can be mixed more quickly and fully, the mixing time is shortened, the dye distribution is ensured to be uniform during the whole dyeing process, and the consistency and quality of dyeing are improved.
[0027] In the present invention, a spiral stirring rod is provided. When the stirring blade rotates to stir and mix, the connecting block will slide back and forth up and down along the guide groove provided in the stirring blade. The guide groove has a wave-like shape. The connecting block drives the sliding rod to slide back and forth up and down in the second support seat. When the stirring blade rotates to stir and mix the bottom material, the spiral stirring rod on the surface of the sliding rod slides up and down to form a spiral flow path, which expands the stirring range, increases the stirring area, further enhances the stirring force and effect, makes the material mixing more sufficient, makes the distribution of the dye and auxiliary agent in the device body more uniform, and improves the mixing quality.
[0028] In the present invention, by providing a baffle, when the device is in an idle state, the pull rod can be held to pull the baffle to slide downward to block and seal the fabric inlet and outlet of the device main body. The baffle slides in the device main body through the slider. Before pulling the pull rod, the eccentric rotating block is pressed toward the end away from the insertion rod. The eccentric rotating block is pressed and rotated and squeezes the fourth spring to contract during the rotation. The insertion rod is pulled outward by the rotating eccentric rotating block. At this time, the baffle is pulled upward. When the baffle and the inner surface of the device main body are in contact, the eccentric rotating block is released. Under the action of the fourth spring, the eccentric rotating block is pushed to rotate and reset. The rotation of the eccentric rotating block pushes the insertion rod to slide and insert into the slider to ensure the stable placement of the baffle. When the device is idle, the baffle blocks and seals the fabric inlet and outlet, effectively preventing dust and other impurities from entering the interior of the device, keeping the interior of the device clean, and reducing the interference and potential damage of foreign matter to subsequent dyeing operations. BRIEF DESCRIPTION OF THE DRAWINGS
[0029] Figure 1 It is a three-dimensional structural schematic diagram of the present invention;
[0030] Figure 2 It is a schematic diagram of the connection structure of the discharge pipe of the present invention;
[0031] Figure 3 It is an exploded view of the connection of the guide roller of the present invention;
[0032] Figure 4 It is an exploded view of the connection of the liner of the upper hopper of the present invention;
[0033] Figure 5 It is a schematic diagram of the arc block connection structure of the present invention;
[0034] Figure 6 The present invention Figure 5 Enlarged view of point A in the middle;
[0035] Figure 7 It is a schematic diagram of the connection structure of the stirring blades of the present invention;
[0036] Figure 8 is an exploded view of the sliding rod connection of the present invention;
[0037] Fig. 9 It is an exploded view of the eccentric rotating block connection of the present invention.
[0038] In the figure: 11, device body; 12, upper hopper shell; 13, upper hopper liner; 14, first spring; 15, arc block; 16, wedge-shaped groove; 17, pressing block; 18, second spring; 19, third spring; 21, lifting block; 22, guide roller; 23, electric heating block; 24, discharge pipe; 25, baffle; 26, slider; 27, pull rod; 28, eccentric rotating block; 29, fourth spring; 31, plug rod; 32, stirring blade; 33, synchronous wheel; 34, synchronous belt; 35, driving motor; 36, guide groove; 37, first support seat; 38, second support seat; 39, sliding rod; 41, connecting block; 42, spiral stirring rod. DETAILED DESCRIPTION
[0039] The technical solution of the present invention is further specifically described below through embodiments and in conjunction with the accompanying drawings.
[0040] Example: See Figure 1-Figure 9The present invention provides a dyeing and processing device for antistatic fabrics, comprising a device body 11, wherein a feeding mechanism for feeding materials is arranged at the upper end of the device body 11, wherein the feeding mechanism comprises a feeding hopper shell 12 and a feeding hopper liner 13, wherein the feeding hopper shell 12 is fixedly connected to the upper end of the device body 11, wherein the feeding hopper liner 13 is slidably connected to the inside of the feeding hopper shell 12, wherein a clamping mechanism for installing the feeding hopper liner 13 is arranged inside the feeding hopper shell 12, wherein the clamping mechanism comprises two first springs 14 and two arc clamping blocks 15, wherein the two first springs 14 are both sleeved inside the feeding hopper shell 12, wherein the two arc clamping blocks 15 are respectively sleeved on the sides of the two first springs 14 close to each other, and wherein the two arc clamping blocks 15 are both slidably connected to the outer surface of the feeding hopper. Inside the shell 12, the two arc blocks 15 are both clamped in the upper hopper liner 13, and a quick-change mechanism for popping out and taking is provided inside the upper hopper shell 12. The quick-change mechanism includes two wedge-shaped grooves 16, two pressing blocks 17 and two groups of second springs 18. The two wedge-shaped grooves 16 are respectively opened in the two arc blocks 15, and the two groups of second springs 18 are both sleeved in the upper hopper shell 12. The two pressing blocks 17 are respectively sleeved on the upper ends of the two second springs 18. The two pressing blocks 17 are both slidably connected to the upper hopper shell 12. The two pressing blocks 17 are respectively fitted with the two wedge-shaped grooves 16. Two third springs 19 are sleeved inside the upper hopper shell 12, and the upper ends of the two third springs 19 are sleeved with lifting blocks 21. The two Each lifting block 21 is sleeved inside the upper hopper liner 13. When the dye and auxiliary agent loading operation is performed, the material is put into the device body 11 along the upper hopper liner 13 sleeved in the upper hopper shell 12. When the upper hopper liner 13 needs to be replaced, the two pressing blocks 17 are pressed downward, and the two pressing blocks 17 slide and squeeze the two sets of second springs 18 to contract. The lower end portions of the two pressing blocks 17 are shaped like a triangle and fit into the wedge-shaped groove 16 provided in the first spring 14. When the pressing blocks 17 slide downward, the inclined surface of the wedge-shaped groove 16 pushes the arc clamping block 15 to slide toward the end away from the upper hopper liner 13. The two arc clamping blocks 15 slide to both sides to release the clamping limit of the upper hopper liner 13. At this time, the device body 11 The two third springs 19 that are sleeved inside are reset and opened, and the two third springs 19 lift the upper hopper inner liner 13 upward through the lifting block 21 to pop it out. At this time, the upper hopper inner liner 13 can be taken out for replacement. When installing the upper hopper inner liner 13, the two pressing blocks 17 are pressed to make the two arc clamping blocks 15 slide open, and the upper hopper inner liner 13 is sleeved into the upper hopper outer shell 12. At this time, the pressing blocks 17 are released, and the pressing blocks 17 slide upward and reset. The two arc clamping blocks 15 lose the driving force, and under the action of the two first springs 14, the two arc clamping blocks 15 are pushed to clamp into the upper hopper inner liner 13 to fix it. The split design of the upper hopper outer shell 12 and the upper hopper inner liner 13 increases the replaceability.
[0041] A group of guide rollers 22 are rotatably connected inside the device body 11, a group of electric heating blocks 23 are fixedly connected to the outer surface of the device body 11, and a discharge pipe 24 is fixedly connected to the lower end of the device body 11. The antistatic fabric that needs to be dyed is put into the device body 11, and it is rotated and pulled forward by a group of guide rollers 22 rotating inside the device body 11. Before the traction work, the dye and auxiliary agent for dyeing are injected into the device body 11 through the upper hopper liner 13 in the upper hopper shell 12. The dye and auxiliary agent are rotated and mixed evenly by four stirring blades 32. The evenly stirred dye and auxiliary agent are heated to form a dye. The cloth is immersed in the dye during the rotating conveying process to be dyed. When the dye needs to be replaced, the dye in the device body 11 is discharged through the discharge pipe 24.
[0042] A baffle 25 is slidably connected inside the device body 11, and sliders 26 are fixedly connected on both sides of the baffle 25. The two sliders 26 are slidably connected inside the device body 11. A pull rod 27 is fixedly connected to the outer surface of the baffle 25. Two eccentric rotating blocks 28 are rotatably connected inside the device body 11. The two eccentric rotating blocks 28 are sleeved with a fourth spring 29 on one side close to a group of guide rollers 22. The two fourth springs 29 are sleeved inside the device body 11. Two insertion rods 31 are slidably connected inside the device body 11. The two eccentric rotating blocks 28 are rotatably connected inside the two insertion rods 31 respectively. The two insertion rods 31 are slidably connected inside the two sliders 26 respectively. Four stirring blades 32 are rotatably connected inside the device body 11. The four stirring blades 32 The outer surfaces of the four sets of synchronous wheels 33 are sleeved with synchronous belts 34, the outer surface of the four sets of synchronous wheels 33 are sleeved with a driving motor 35, the outer surface of the device body 11 is fixedly connected to the driving motor 35, the four stirring blades 32 are sleeved on the outer surface of the driving motor 35, the four stirring blades 32 are provided with guide grooves 36, the inside of the device body 11 is fixedly connected with four first support seats 37, the four stirring blades 32 are rotatably connected to the inside of the four first support seats 37, the inner surfaces of the four device bodies 11 are fixedly connected with four second support seats 38, the inside of the four second support seats 38 are slidably connected with sliding rods 39, the inside of the four sliding rods 39 are fixedly connected with connecting blocks 41, the four connecting blocks 41 are sleeved in the four guide grooves 36, the outside of the four sliding rods 39 The surfaces are fixedly connected with a spiral stirring rod 42. When the device is in an idle state, the pull rod 27 can be held to pull the baffle 25 to slide downward to block and seal the fabric inlet and outlet of the device body 11. The baffle 25 slides in the device body 11 through the slider 26. Before pulling the pull rod 27, the eccentric rotating block 28 is pressed toward the end away from the insertion rod 31. The eccentric rotating block 28 is pressed and rotated and squeezes the fourth spring 29 to contract during the rotation. The insertion rod 31 is pulled outward by the rotating eccentric rotating block 28. At this time, the baffle 25 is pulled upward. When the baffle 25 and the inner surface of the device body 11 are in contact, the eccentric rotating block 28 is released. The eccentric rotating block 28 is pushed to rotate and reset under the action of the fourth spring 29. The rotation of the eccentric rotating block 28 pushes The insert rod 31 is slidably inserted into the slider 26 to ensure the stable placement of the baffle 25. After the dye and auxiliary agent are loaded, the drive motor 35 is started. The output shaft of the drive motor 35 drives a stirring blade 32 to rotate. One stirring blade 32 drives four stirring blades 32 to rotate synchronously through the connection method of the synchronous wheel 33 and the synchronous belt 34, and a rotating vortex is formed at the bottom of the inner surface of the device body 11 to help the dye and auxiliary agent to be stirred and mixed. After a certain period of dyeing processing, the four stirring blades 32 can be started to rotate to prevent the dye from sinking to the bottom. When the stirring blade 32 rotates to perform the stirring and mixing operation, when the stirring blade 32 rotates, the connecting block 41 will slide back and forth up and down along the guide groove 36 opened in the stirring blade 32. The shape of the guide groove 36 is similar to a wave shape.The connecting block 41 drives the sliding rod 39 to slide reciprocatingly up and down in the second support seat 38. When the stirring blade 32 rotates to stir and mix the bottom material, the spiral stirring rod 42 on the surface of the sliding rod 39 slides up and down to form a spiral flow path, which expands the stirring range and increases the stirring area. When the stirring blade 32 rotates to stir, the first support seat 37 provides a stable support effect for it.
[0043] Principle of the present invention:
[0044] In the first step, the antistatic fabric to be dyed is put into the device body 11, and is rotated and pulled forward by a group of guide rollers 22 rotating inside the device body 11. Before the pulling work, dyeing dyes and additives are injected into the device body 11 through the upper hopper liner 13 in the upper hopper shell 12. The dyes and additives are rotated and mixed evenly by four stirring blades 32. The evenly stirred dyes and additives are heated to form dyes. The fabric is immersed in the dye during the rotating conveying process for dyeing. When the dye needs to be replaced, the dye in the device body 11 is discharged through the discharge pipe 24.
[0045] In the second step, when the dye and auxiliary agent are loaded, the material is put into the device body 11 along the upper hopper liner 13 sleeved in the upper hopper shell 12. When the upper hopper liner 13 needs to be replaced, the two pressing blocks 17 are pressed downward, and the two pressing blocks 17 slide and squeeze the two sets of second springs 18 to contract. The lower end portions of the two pressing blocks 17 are shaped like a triangle and fit with the wedge-shaped groove 16 provided in the first spring 14. When the pressing blocks 17 slide downward, the inclined surface of the wedge-shaped groove 16 fits the arc block 15 to push it to slide toward the end away from the upper hopper liner 13. The two arc blocks 15 slide to both sides to release the clamping limit of the upper hopper liner 13. At this time, the two third The spring 19 is reset and opened, and the two third springs 19 push the upper hopper liner 13 upward through the lifting block 21 to pop out. At this time, the upper hopper liner 13 can be taken out for replacement. When installing the upper hopper liner 13, the two pressing blocks 17 are pressed to make the two arc blocks 15 slide open, and the upper hopper liner 13 is inserted into the upper hopper shell 12. At this time, the pressing blocks 17 are released, and the pressing blocks 17 slide upward and reset. The two arc blocks 15 lose the driving force, and under the action of the two first springs 14, the two arc blocks 15 are pushed to be clamped inside the upper hopper liner 13 to clamp and fix it. The split design of the upper hopper shell 12 and the upper hopper liner 13 increases the replaceability.
[0046] The third step is to start the driving motor 35 after the dye and the auxiliary agent are loaded. The output shaft of the driving motor 35 drives a stirring blade 32 to rotate. The stirring blade 32 drives four stirring blades 32 to rotate synchronously through the connection mode of the synchronous wheel 33 and the synchronous belt 34. A rotating vortex is formed at the bottom of the inner surface of the device body 11 to help the dye and the auxiliary agent to be stirred and mixed. After a certain period of dyeing processing, the four stirring blades 32 can be started to rotate to avoid the dye from sinking to the bottom. When the stirring blade 32 rotates to perform the stirring and mixing operation, when the stirring blade 32 rotates, the connecting block 41 will slide back and forth up and down along the guide groove 36 opened in the stirring blade 32. The shape of the guide groove 36 is similar to a wave shape. The sliding rod 39 is driven by the connecting block 41 to slide back and forth up and down in the second support seat 38. When the stirring blade 32 rotates to stir and mix the bottom material, the spiral stirring rod 42 on the surface of the sliding rod 39 slides up and down to form a spiral flow path, which expands the stirring range and increases the stirring area. When the stirring blade 32 rotates to perform the stirring process, the first support seat 37 provides a stable support effect for it.
[0047] The fourth step is that when the device is in an idle state, the pull rod 27 can be held to pull the baffle 25 to slide downward to cover and seal the fabric inlet and outlet of the device body 11. The baffle 25 slides in the device body 11 through the slider 26. Before pulling the pull rod 27, the eccentric rotating block 28 is pressed toward the end away from the insertion rod 31. The eccentric rotating block 28 is pressed and rotated and squeezes the fourth spring 29 to contract during the rotation. The insertion rod 31 is pulled outward by the rotating eccentric rotating block 28. At this time, the baffle 25 is pulled upward. When the baffle 25 and the inner surface of the device body 11 are in contact with each other, the eccentric rotating block 28 is released. Under the action of the fourth spring 29, the eccentric rotating block 28 is pushed to rotate and reset. The eccentric rotating block 28 rotates to push the insertion rod 31 to slide and insert into the slider 26 to ensure the stable placement of the baffle 25.
[0048] Device body 11: It is the main frame and accommodation space of the entire dyeing treatment equipment, provides the installation basis for other components, and is also the main place for dyeing treatment;
[0049] The upper hopper shell 12 is fixed to the upper end of the device body 11 to provide external support and installation position for the upper hopper liner 13;
[0050] The hopper liner 13 is used to contain and put in materials such as dyes and additives;
[0051] The first spring 14 provides elastic force for the arc clamping block 15 to reset so that it can clamp the hopper liner 13;
[0052] Arc clamping block 15: clamped inside the hopper liner 13 to fix the liner;
[0053] Wedge-shaped groove 16: cooperates with the pressing block 17 so that the pressing action of the pressing block 17 can push the arc clamping block 15 to slide;
[0054] Pressing block 17: Pushing the arc block 15 to slide by pressing down to unlock the hopper liner 13;
[0055] Second spring 18: provides elastic force for the pressing block 17 to return to its original position;
[0056] The third spring 19 is used to lift the liner 13 upward through the lifting block 21 after unlocking the clamping of the hopper liner 13, so as to facilitate removal and replacement;
[0057] Lifting block 21: lifts the hopper liner 13 under the action of the third spring 19;
[0058] Guide roller 22: rotates to pull the antistatic fabric to move inside the device body 11;
[0059] Electric heating block 23: provides heating for the inside of the device body 11 to promote the formation of dye and dyeing effect;
[0060] Discharge pipe 24: used to discharge the dye in the device body 11;
[0061] Baffle 25: When the device is idle, it blocks and seals the fabric inlet and outlet;
[0062] Slider 26: enables the baffle 25 to slide smoothly in the device body 11;
[0063] Pull rod 27: for the operator to pull the baffle 25;
[0064] The eccentric rotating block 28 is used to fix or unlock the baffle 25 by rotating and controlling the sliding of the insert rod 31;
[0065] Fourth spring 29: provides elastic force for the eccentric rotating block 28 to return to its original position;
[0066] Insertion rod 31: inserted into the slider 26 to fix the position of the baffle 25;
[0067] Stirring blade 32: rotates to stir and mix the dye and the auxiliary agent;
[0068] Synchronous wheel 33: realizes synchronous rotation of multiple stirring blades 32 through synchronous belt 34;
[0069] Synchronous belt 34: connected to synchronous wheel 33 to transmit power;
[0070] Driving motor 35: providing power for the rotation of stirring blade 32;
[0071] Guide groove 36: guides the sliding of the connecting block 41;
[0072] The first support seat 37 provides stable support for the rotation of the stirring blade 32;
[0073] The second support seat 38 provides guidance and support for the sliding rod 39 to slide up and down;
[0074] Sliding rod 39: drives the spiral stirring rod 42 to slide up and down to expand the stirring range;
[0075] Connecting block 41: connects the stirring blade 32 and the sliding rod 39 to realize the up and down movement of the sliding rod 39;
[0076] Spiral stirring rod 42: Slides up and down to form a spiral flow path, increasing the stirring area and improving the stirring effect.
[0077] Finally, it should be pointed out that the above embodiments are only representative examples of the present invention. Obviously, the present invention is not limited to the above embodiments, and there are many variations. Any simple modification, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention should be considered to belong to the protection scope of the present invention.
Claims
1. A dyeing treatment device for antistatic fabrics, comprising a device body (11), wherein the upper end of the device body (11) is provided with a feeding mechanism for feeding materials, wherein the feeding mechanism comprises a feeding hopper shell (12) and a feeding hopper liner (13), wherein the feeding hopper shell (12) is fixedly connected to the upper end of the device body (11), and the feeding hopper liner (13) is slidably connected to the inside of the feeding hopper shell (12), characterized in that: A clamping mechanism for mounting the upper hopper liner (13) is arranged inside the upper hopper shell (12), and the clamping mechanism comprises two first springs (14) and two arc clamping blocks (15). The two first springs (14) are sleeved inside the upper hopper shell (12), and the two arc clamping blocks (15) are respectively sleeved on the sides of the two first springs (14) that are close to each other. The two arc clamping blocks (15) are slidably connected inside the upper hopper shell (12), and the two arc clamping blocks (15) are clamped inside the upper hopper liner (13). A quick-change mechanism for popping out and taking out is arranged inside the upper hopper shell (12). The quick-change mechanism comprises two wedge-shaped grooves (16), two pressing blocks (17) and two groups of second springs (18), the two wedge-shaped grooves (16) are respectively opened inside the two arc blocks (15), the two groups of the second springs (18) are both sleeved inside the upper hopper shell (12), the two pressing blocks (17) are respectively sleeved on the upper ends of the two second springs (18), the two pressing blocks (17) are both slidably connected inside the upper hopper shell (12), the two pressing blocks (17) are respectively fitted with the two wedge-shaped grooves (16), and two third springs (19) are sleeved inside the upper hopper shell (12); The upper ends of the two third springs (19) are both sleeved with lifting blocks (21), and the two lifting blocks (21) are both sleeved inside the upper hopper inner liner (13).
2. The antistatic fabric dyeing equipment according to claim 1, characterized in that: A group of material guide rollers (22) are rotatably connected inside the device body (11); Wherein, a group of electric heating blocks (23) are fixedly connected to the outer surface of the device body (11).
3. The antistatic fabric dyeing equipment as claimed in claim 2, characterized in that: A discharge pipe (24) is fixedly connected to the lower end of the device body (11); Wherein, a baffle (25) is slidably connected inside the device body (11).
4. The antistatic fabric dyeing equipment as claimed in claim 3, characterized in that: Slide blocks (26) are fixedly connected to both sides of the baffle (25), and the two slide blocks (26) are slidably connected inside the device body (11); Wherein, a pull rod (27) is fixedly connected to the outer surface of the baffle (25).
5. The antistatic fabric dyeing equipment as claimed in claim 4, characterized in that: Two eccentric rotating blocks (28) are rotatably connected inside the device body (11); Wherein, the two eccentric rotating blocks (28) are sleeved with a fourth spring (29) on one side close to a group of material guide rollers (22), and the two fourth springs (29) are sleeved inside the device body (11).
6. The antistatic fabric dyeing equipment according to claim 5, characterized in that: Two insertion rods (31) are slidably connected inside the device body (11), the two eccentric rotating blocks (28) are rotatably connected inside the two insertion rods (31), and the two insertion rods (31) are slidably connected inside the two sliders (26); Wherein, four stirring blades (32) are rotatably connected inside the device body (11).
7. The antistatic fabric dyeing equipment according to claim 6, characterized in that: The outer surfaces of the four stirring blades (32) are sleeved with a set of synchronous wheels (33); The outer surfaces of the four groups of synchronous wheels (33) are all sleeved with synchronous belts (34), the outer surface of the device body (11) is fixedly connected with a driving motor (35), and the four stirring blades (32) are sleeved on the outer surface of the driving motor (35).
8. The antistatic fabric dyeing equipment according to claim 7, characterized in that: The four stirring blades (32) are each provided with a guide groove (36); Therein, four first support seats (37) are fixedly connected inside the device body (11), and the four stirring blades (32) are rotatably connected inside the four first support seats (37) respectively.
9. The antistatic fabric dyeing equipment according to claim 8, characterized in that: Four second support seats (38) are fixedly connected to the inner surfaces of the four device bodies (11); Wherein, the four second support seats (38) are all slidably connected with sliding rods (39) inside.
10. The antistatic fabric dyeing equipment according to claim 9, characterized in that: The four sliding rods (39) are all fixedly connected with connecting blocks (41), and the four connecting blocks (41) are respectively sleeved in the four guide grooves (36); Wherein, the outer surfaces of the four sliding rods (39) are all fixedly connected with spiral stirring rods (42).