A processing device for stockings

Abstract

The present invention belongs to the technical field of socks processing, and specifically refers to a processing device for stockings, including a main body tube axis, a dye barrel, a polygonal turntable, a barrel-type expansion stretching mechanism and an anti-scattering type comparison mechanism, wherein the dye barrel is symmetrically arranged on both sides of the main body tube axis, the polygonal turntable is rotatably arranged at one end of the dye barrel close to the main body tube axis, the barrel-type expansion stretching mechanism is arranged on the polygonal turntable, the anti-scattering type comparison mechanism is arranged at one end of the dye barrel away from the main body tube axis, the barrel-type expansion stretching mechanism includes a distance adjustment mechanism and a locking mechanism, and the distance adjustment mechanism is arranged at one end of the polygonal turntable away from the dye barrel. The present invention provides a processing device for stockings that can dye the fabric of the processed stockings with a dye before the stockings are processed, and compare the elastic properties of the fabric before and after dyeing, thereby completing the test of the elastic properties of the fabric itself and the elastic properties of the fabric after being dyed with the dye.

Description

Technical Field

[0001] The invention belongs to the technical field of socks processing, and in particular relates to processing equipment for stockings. Background Art

[0002] Elasticity testing used in stocking processing is to ensure that the elasticity of the stockings meets product specifications and meets consumer demand. This test usually involves precise measurement of the elasticity of various parts of the stockings, such as the waist, legs and soles.

[0003] The existing stockings processing equipment has the following problems:

[0004] Existing stocking processing equipment can only test the elasticity of the finished stockings when processing stockings. When the stockings are tested for unqualified elasticity, a large number of finished stockings will become scrapped, thereby delaying production progress. In addition, it is impossible to compare the elasticity of the stockings after dyeing with the elasticity of the stockings before dyeing, resulting in different elasticity of the stockings before and after dyeing, which seriously affects the production quality of the stockings. Summary of the invention

[0005] In view of the above situation, in order to overcome the defects of the prior art, the present invention provides a processing equipment for stockings, which can dye the fabric of the stockings with a dye before processing, and compare the elastic properties of the fabric before and after dyeing, thereby completing the test of the elastic properties of the fabric itself and the elastic properties of the fabric after being dyed with the dye.

[0006] The present scheme proposes a processing equipment for stockings, comprising a main body tube axis, a dye barrel, a polygonal turntable, a barrel-type expansion stretching mechanism and an anti-scattering type comparison mechanism, wherein the dye barrel is symmetrically arranged on both sides of the main body tube axis, the polygonal turntable is rotatably arranged at one end of the dye barrel close to the main body tube axis, the barrel-type expansion stretching mechanism is arranged on the polygonal turntable, the anti-scattering type comparison mechanism is arranged at one end of the dye barrel away from the main body tube axis, the barrel-type expansion stretching mechanism comprises a distance adjustment mechanism and a locking mechanism, the distance adjustment mechanism is arranged at one end of the polygonal turntable away from the dye barrel, the locking mechanism is arranged on the distance adjustment mechanism, the anti-scattering type comparison mechanism comprises a driving mechanism, a linkage mechanism and a covering mechanism, the driving mechanism is arranged on a side of the dye barrel away from the main body tube axis, the linkage mechanism is arranged on a side of the polygonal turntable close to the driving mechanism, and the covering mechanism is arranged on the side wall of the main body tube axis.

[0007] As a further preferred embodiment of the present invention, the distance adjustment mechanism includes a slide groove, a sliding magnet, a driving electromagnet, a compression spring, a diameter marking groove and an electric current meter. A plurality of groups of the slide grooves are arranged at the end of the polygonal turntable away from the dye barrel, and the slide grooves are arranged through. The sliding magnet is slidably arranged on the inner wall of the slide groove, and the driving electromagnet is arranged at the end of the polygonal turntable away from the dye barrel. The driving electromagnet and the sliding magnet are arranged opposite to each other, and the compression spring is arranged between the sliding magnet and the inner wall of the slide groove. A plurality of groups of the diameter marking grooves are arranged on the side wall of the polygonal turntable, and the electric current meter is arranged on the side wall of the dye barrel; the locking mechanism includes a loading hole, an expansion rod and an illumination lamp. The loading hole is arranged on the side wall of the sliding magnet, and the illumination lamps are symmetrically arranged on the side walls of the main tube axis at both ends, and the expansion rod is arranged between the loading holes.

[0008] When in use, the fabric of the stockings to be processed is cut into a rectangle, the short sides are sewn together, the expansion rod is pulled, the expansion rod moves toward one end of the main tube shaft, and the expansion rod extends into the loading hole at one end of the main tube shaft. At this time, the expansion rod at the other end of the main tube shaft is pulled out from the loading hole, and then the sewn fabric is inserted into the outside of the multiple sets of expansion rods, the expansion rod pulled out of the loading hole is reinserted, the fabric outside the expansion rod is spread out and laid flat, the fabric wraps the main tube shaft, the compression spring is shortened, the distance between the inner wall of the tubular fabric and the main tube shaft is the minimum value, the tubular fabric is the diameter in the unstretched state, the external current passes through the current meter to power the driving electromagnet, the driving electromagnet is energized to generate magnetism, the driving electromagnet and the sliding magnetic block are set with opposite poles, according to the maximum stretching distance of the elastic fabric, The stretching distance of the fabric is observed through the diameter marking groove. The driving electromagnet is fixed on the end of the multi-angle turntable away from the dye cylinder and absorbs the sliding magnet by magnetic force. The sliding magnet slides along the inner wall of the slide groove close to the driving electromagnet under the deformation of the compression spring. After the sliding magnet drives the fabric to reach the stretching distance specified by the user through the expansion rod, the current passing through the current meter remains unchanged and the value of the stretching current is recorded. The lighting lamp illuminates the inside of the tubular fabric, so that the user can find the damaged point by observing the outer surface of the tubular fabric. When a gap in a certain place of the tubular fabric is large or a hole appears, the light inside the tubular fabric will be emitted to the user's eyes to determine whether the fabric to be processed is damaged at the specified stretching distance, thereby testing the fabric's bearing strength under the maximum elastic tension;

[0009] The elastic performance of the fabric to be processed is tested when the tension suddenly increases, the driving electromagnet is powered off and demagnetized, the compression spring is deformed and reset to drive the expansion rod to gather to the outside of the main tube axis. During the test, the expansion rods facing each other in pairs form a group of test units. There are three groups of test units working alternately. The first group of expansion rods expands rapidly to stretch the diagonal of the tubular fabric. When the driving electromagnet of the first group is powered off, the driving electromagnet of the second group is powered on to stretch the expansion rods. The test is performed in turn for the number of times required by the user, and then the test results of the tested tubular fabric are tested. The three groups of driving electromagnets are powered on to generate magnetism. The driving electromagnets absorb the sliding magnetic blocks through magnetic force. The sliding magnetic blocks drive all the expansion rods on the outside of the main tube axis to expand. After the fabric is stretched to the position of the recorded diameter mark groove, the fabric stretching is stopped. The lighting lamp is irradiated on the tubular fabric to observe whether there are large gaps or holes on its surface, thereby completing the test of the silk stockings fabric to be processed and ensuring the elastic performance of the fabric processed into products.

[0010] Preferably, the driving mechanism comprises a driving motor, a driving telescopic rod, a driving disk, an expansion telescopic rod, an expansion spring and an expansion electromagnet, the driving motor is arranged on a side of the dye barrel away from the main body tube axis, the driving telescopic rod is arranged at the power end of the driving motor, the driving disk is arranged on a side of the driving telescopic rod away from the driving motor, a plurality of groups of expansion telescopic rods are arranged at one end of the driving disk away from the driving telescopic rod, the expansion spring is arranged between a side wall of the driving motor and a side wall of the driving disk on the outside of the driving telescopic rod, the expansion electromagnet is arranged on a side wall of the dye barrel outside the expansion spring, and the expansion electromagnet and the driving magnet are connected. The disks are arranged relatively to each other; the linkage mechanism includes a linkage frame, a linkage spring and a groove, the linkage frame is arranged on the side of the expansion and telescopic rod away from the driving disk, the groove is arranged on the side of the linkage frame close to the sliding magnetic block, and the groove is opened at one end, the linkage spring is arranged between the side wall of the linkage frame outside the groove and the side wall of the sliding magnetic block outside the loading hole, and the expansion rod passes through the loading hole and is arranged inside the groove; the covering mechanism includes an atomizing motor and an atomizing nozzle, multiple groups of the atomizing motors are arranged on the side wall of the main body tube shaft, the power end of the atomizing motor is penetrated through the inner wall of the main body tube shaft, and the atomizing nozzle is arranged at the atomizing end of the atomizing motor.

[0011] During use, in order to avoid the elasticity of the fabric being affected after dyeing, the expansion rod drives the fabric to gather on the outside of the main tube axis. At this time, the gap between the fabrics is minimized without stretching, and the dye for stocking processing and dyeing is injected into the dye cylinder. The dye injected into the dye cylinder flows into the main tube axis, and the atomizing motor extracts the dye inside the dye cylinder through the power end. The dye is atomized by the atomizing motor and sprayed into the inside of the tubular fabric through the atomizing nozzle. The mist sprayed by the atomizing nozzle has no impact force, so the mist is prevented from penetrating the tubular fabric and overflowing. The driving motor drives the telescopic The rod drives the driving disk to rotate, and the driving disk drives the linkage frame to rotate through the expansion telescopic rod. The linkage frame drives the expansion rod to rotate through the multi-angle turntable. The expansion rod drives the tubular fabric to rotate in a circle. The dye spray inside the tubular fabric performs centrifugal motion. The dye mist gradually contacts the tubular fabric, so that the dye spray sprayed by the atomizing nozzle is adsorbed on the surface of the tubular fabric, thereby dyeing the tubular fabric. The user observes the color change of the fabric. When the color of the fabric meets the user's requirements, the atomizing motor stops atomizing the dye inside the main tube shaft and the dye cylinder.

[0012] The external current supplies power to the driving electromagnet through the current meter. The driving electromagnet generates magnetism when it is energized and is fixed at one end of the multi-angle turntable. The sliding magnetic block is attracted by magnetic force. The sliding magnetic block drives the fabric to be attracted to the position of the recorded diameter mark slot through the expansion rod. The lighting lamp illuminates the inside of the tubular fabric. The user observes whether there is a large bright spot through the surface of the tubular fabric. When there is no large bright spot, it means that the dyeing effect of the dye has no damage to the fabric. The current value input into the driving electromagnet by the current meter is observed. When the elasticity of the fabric does not change after dyeing, the current input into the driving electromagnet is consistent with that before dyeing. When the elasticity of the fabric decreases after dyeing, a larger magnetic force is required to attract the sliding magnetic block to drive the fabric to the position of the specified diameter mark slot. When the elasticity of the fabric increases after dyeing, the current input into the driving electromagnet decreases.

[0013] When the value of the current meter after the fabric is dyed is significantly different from the value of the current meter before the fabric is dyed, it means that the dyeing effect of the dye has a certain influence on the elasticity of the fabric. It can be concluded from the side that the dye is not suitable for the dyeing processing of the fabric of this material. Subsequently, the elastic performance of the dyed fabric under the sudden increase in tension is tested. The relatively arranged expansion rods form a group of stretching units. The three groups of stretching units act alternately to detect the gaps and holes on the surface of the dyed fabric after the tensile test. The driving electromagnet is energized to drive the expansion rod to move toward the outside of the main tube axis until the sliding magnetic block drives the fabric to reach the position of the recorded diameter mark groove. The lighting lamp is turned on to illuminate the inside of the tubular fabric, and the user observes the condition of the outer surface of the tubular fabric, thereby completing the elasticity detection operation of the silk stockings fabric to be processed before processing and detecting the elasticity of the fabric during dyeing, effectively ensuring the quality of the product after production.

[0014] Specifically, the controller is arranged on a side of the dye cylinder away from the current meter.

[0015] Wherein, the controller is electrically connected to the driving electromagnet, the current meter, the lighting lamp, the driving motor, the expansion electromagnet and the atomizing motor respectively.

[0016] Preferably, the model of the current meter is AA-24TN / AV-24TN.

[0017] The beneficial effects achieved by adopting the above structure are as follows:

[0018] Compared with the prior art, the present invention adopts a cylindrical expansion stretching mechanism and an anti-scattering comparison mechanism. By utilizing the fact that the strength of the magnetic force of the electromagnet is proportional to the input of the current, the elasticity of the stockings fabric before and after dyeing is compared. At the same time, with the coordinated use of the distance adjustment mechanism and the locking mechanism, on the one hand, the elasticity of the fabric of the processed stockings can be reflected positively. On the other hand, the comparison of the current values ​​of the current meter before and after dyeing reflects the influence of dyes and dyes on the elasticity of a certain material. By testing the performance of the fabric used before the stockings are processed, the quality of the formed product is guaranteed and the efficiency of the stockings being qualified once is improved. The external current powers the driving electromagnet through the current meter, and the driving electromagnet is energized to produce The magnet is fixed on one end of the polygonal turntable and the sliding magnet is attracted by magnetic force. The sliding magnet drives the fabric to be attracted to the position of the recorded diameter mark slot through the expansion rod. The lighting lamp illuminates the inside of the tubular fabric. The user observes whether there are large bright spots through the surface of the tubular fabric. When no large bright spots are seen, it means that the dyeing effect of the dye has no damage to the fabric. The current value input into the driving electromagnet by the current meter is observed. When the elasticity of the fabric does not change after dyeing, the current input into the driving electromagnet is the same as that before dyeing. When the elasticity of the fabric decreases after dyeing, a larger magnetic force is required to attract the sliding magnet to drive the fabric to the specified diameter mark slot. When the elasticity of the fabric increases after dyeing, the current input into the driving electromagnet decreases. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 This is a schematic diagram of the overall structure of this scheme;

[0020] Figure 2 This is a bottom-up stereogram of the scheme;

[0021] Figure 3 This is the main view of this scheme;

[0022] Figure 4 This is a side view of the scheme;

[0023] Figure 5 This is a top view of the scheme;

[0024] Figure 6 for Figure 3 AA section view of the part;

[0025] Figure 7 for Figure 1 A magnified structural view of part I;

[0026] Figure 8 for Figure 2 A magnified structural view of Part II;

[0027] Fig. 9 for Figure 6A magnified structural view of Part III;

[0028] Fig.10 for Figure 1 Enlarged structural view of part IV.

[0029] Among them, 1. main body tube axis, 2. dye cylinder, 3. polygonal turntable, 4. cylinder-type expansion stretching mechanism, 5. distance adjustment mechanism, 6. slide groove, 7. sliding magnetic block, 8. driving electromagnet, 9. compression spring, 10. diameter marking groove, 12. loading hole, 13. expansion rod, 14. lighting lamp, 15. anti-external dispersion type contrast mechanism, 16. driving mechanism, 17. driving motor, 18. driving telescopic rod, 19. driving disk, 20. expansion telescopic rod, 21. expansion spring, 22. current meter, 23. linkage mechanism, 24. linkage frame, 25. linkage spring, 26. groove, 27. covering mechanism, 28. atomizing motor, 29. atomizing nozzle, 30. controller, 31. expansion electromagnet.

[0030] The accompanying drawings are used to provide further understanding of the present scheme and constitute a part of the specification. Together with the embodiments of the present scheme, they are used to explain the present scheme and do not constitute a limitation on the present scheme. DETAILED DESCRIPTION

[0031] The technical scheme in the embodiments of the present scheme will be clearly and completely described below in conjunction with the drawings in the embodiments of the present scheme. Obviously, the described embodiments are only part of the embodiments of the present scheme, not all of the embodiments; based on the embodiments in the present scheme, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present scheme.

[0032] In the description of this scheme, it should be understood that terms such as "upper", "lower", "front", "back", "left", "right", "top", "bottom", "inside" and "outside" indicating directions or positional relationships are based on the directions or positional relationships shown in the accompanying drawings. They are only for the convenience of describing this scheme and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, they should not be understood as limitations on this scheme.

[0033] like Figure 1-Figure 10 As shown, the present invention proposes a processing device for stockings, including.

[0034] The present invention proposes a processing device for stockings, comprising a main body tube shaft 1, a dye barrel 2, a polygonal turntable 3, a barrel-type expansion stretching mechanism 4 and an anti-scattering type comparison mechanism 15, wherein the dye barrel 2 is symmetrically arranged on both sides of the main body tube shaft 1, the polygonal turntable 3 is rotatably arranged at one end of the dye barrel 2 close to the main body tube shaft 1, the barrel-type expansion stretching mechanism 4 is arranged on the polygonal turntable 3, the anti-scattering type comparison mechanism 15 is arranged at one end of the dye barrel 2 away from the main body tube shaft 1, and the barrel-type expansion stretching mechanism 4 is arranged on the polygonal turntable 3. The extension mechanism 4 includes a distance adjusting mechanism 5 and a locking mechanism, the distance adjusting mechanism 5 is arranged at the end of the polygonal turntable 3 away from the dye cylinder 2, and the locking mechanism is arranged on the distance adjusting mechanism 5. The anti-external dispersion type comparison mechanism 15 includes a driving mechanism 16, a linkage mechanism 23 and a covering mechanism 27, the driving mechanism 16 is arranged on the side of the dye cylinder 2 away from the main body tube axis 1, the linkage mechanism 23 is arranged on the side of the polygonal turntable 3 close to the driving mechanism 16, and the covering mechanism 27 is arranged on the side wall of the main body tube axis 1.

[0035] The distance adjustment mechanism 5 includes a slide groove 6, a sliding magnet 7, a driving electromagnet 8, a compression spring 9, a diameter marking groove 10 and an electric current meter 22. A plurality of slide grooves 6 are arranged at the end of the polygonal turntable 3 away from the dye barrel 2. The slide groove 6 is a through arrangement. The sliding magnet 7 is slidably arranged on the inner wall of the slide groove 6. The driving electromagnet 8 is arranged at the end of the polygonal turntable 3 away from the dye barrel 2. The driving electromagnet 8 and the sliding magnet 7 are arranged opposite to each other. The compression spring 9 is arranged between the sliding magnet 7 and the inner wall of the slide groove 6. A plurality of diameter marking grooves 10 are arranged on the side wall of the polygonal turntable 3. The electric current meter 22 is arranged on the side wall of the dye barrel 2. The locking mechanism includes a loading hole 12, an expansion rod 13 and an illuminating lamp 14. The loading hole 12 is arranged on the side wall of the sliding magnet 7. The illuminating lamp 14 is symmetrically arranged on the side walls of the main tube axis 1 at both ends. The expansion rod 13 is arranged between the loading holes 12.

[0036] The driving mechanism 16 includes a driving motor 17, a driving telescopic rod 18, a driving disk 19, an expansion telescopic rod 20, an expansion spring 21 and an expansion electromagnet 31. The driving motor 17 is arranged on the side of the dye barrel 2 away from the main tube axis 1, the driving telescopic rod 18 is arranged at the power end of the driving motor 17, the driving disk 19 is arranged on the side of the driving telescopic rod 18 away from the driving motor 17, and multiple groups of expansion telescopic rods 20 are arranged at one end of the driving disk 19 away from the driving telescopic rod 18. The expansion spring 21 is arranged between the side wall of the driving motor 17 on the outside of the driving telescopic rod 18 and the side wall of the driving disk 19. The expansion electromagnet 31 is arranged on the side wall of the dye barrel 2 on the outside of the expansion spring 21, and the expansion electromagnet 31 is opposite to the driving disk 19. The linkage mechanism 23 includes a linkage frame 24, a linkage spring 25 and a groove 26, wherein the linkage frame 24 is arranged on the side of the expansion telescopic rod 20 away from the driving disk 19, and the groove 26 is arranged on the side of the linkage frame 24 close to the sliding magnetic block 7, and the groove 26 is opened at one end, and the linkage spring 25 is arranged between the side wall of the linkage frame 24 outside the groove 26 and the side wall of the sliding magnetic block 7 outside the loading hole 12, and the expansion rod 13 passes through the loading hole 12 and is arranged inside the groove 26; the covering mechanism 27 includes an atomizing motor 28 and an atomizing nozzle 29, and multiple groups of the atomizing motors 28 are arranged on the side wall of the main tube shaft 1, and the power end of the atomizing motor 28 is arranged through the inner wall of the main tube shaft 1, and the atomizing nozzle 29 is arranged at the atomizing end of the atomizing motor 28.

[0037] The controller 30 is disposed on a side of the dye tube 2 away from the current meter 22 .

[0038] The controller 30 is electrically connected to the driving electromagnet 8 , the current meter 22 , the lighting lamp 14 , the driving motor 17 , the expansion electromagnet 31 and the atomizing motor 28 , respectively.

[0039] The model of the current meter 22 is AA-24TN / AV-24TN.

[0040] When used specifically, in Example 1, the fabric of the stockings to be processed is cut into a rectangle, the short sides are sewn together, and the expansion rod 13 is pulled, and the expansion rod 13 moves toward one end of the main tube shaft 1, and the expansion rod 13 extends into the inside of the loading hole 12 at one end of the main tube shaft 1, and the expansion rod 13 penetrates the loading hole 12 and fits the inner wall of the groove 26. The expansion rod 13 is deformed by the linkage spring 25 so that the expansion rod 13 at the other end of the main tube shaft 1 is pulled out from the inside of the loading hole 12, and then the sewn fabric is inserted into the outside of the multiple groups of expansion rods 13, and the expansion rod 13 is released. The expansion rod 13 extending out of the loading hole 12 is reinserted into the inside of the groove 26 under the deformation of the linkage spring 25, and the expansion rod 13 is clamped between the linkage frames 24;

[0041] The fabric outside the expansion rod 13 is unfolded and laid flat, the fabric wraps the main tube axis 1, the compression spring 9 is shortened, the distance between the inner wall of the tubular fabric and the main tube axis 1 is the minimum value, and the tubular fabric is the diameter in the unstretched state. The controller 30 controls the driving electromagnet 8 to start, and the external current passes through the current meter 22 to power the driving electromagnet 8. The driving electromagnet 8 is energized to generate magnetism. The driving electromagnet 8 and the sliding magnetic block 7 are set with opposite poles. According to the material standard of the elastic fabric, it is stretched to the maximum distance, and the stretching distance of the fabric is observed through the diameter marking groove 10. The driving electromagnet 8 is fixed to the end of the polygonal turntable 3 away from the dye cylinder 2 and the sliding magnetic block 7 is attracted by magnetic force. The sliding magnetic block 7 slides along the inner wall of the slide groove 6 under the deformation of the compression spring 9 and approaches the driving electromagnet 8. After the sliding magnetic block 7 drives the fabric to reach the stretching distance specified by the user through the expansion rod 13, the current passing through the current meter 22 from the outside remains unchanged and the value of the stretching current is recorded;

[0042] The controller 30 controls the lighting lamp 14 to start, and the lighting lamp 14 illuminates the inside of the tubular fabric. The user observes the outer surface of the tubular fabric to find a larger bright spot that penetrates the fabric. When a gap in a certain place of the tubular fabric is larger or a hole appears, the light inside the tubular fabric will be emitted to illuminate the user's eyes. When no light illuminates the user's eyes, it is determined that the fabric to be processed is not damaged at the specified stretching distance, thereby testing the fabric's bearing strength under the maximum elastic tension.

[0043] Embodiment 2: This embodiment is based on the above embodiment, and tests the elastic performance of the fabric to be processed when the tension suddenly increases. The controller 30 controls the driving electromagnet 8 to be powered off and demagnetized, and the compression spring 9 is deformed and reset to drive the expansion rod 13 to gather toward the outside of the main tube axis 1. During the test, the expansion rods 13 facing each other in pairs form a group of test units. There are three groups of test units that work alternately. The first group of expansion rods 13 expands rapidly to stretch the diagonal of the tubular fabric. When the driving electromagnet 8 of the first group is powered off, the driving electromagnet 8 of the second group is powered on to stretch the expansion rod 13, and the expansion rods 13 are stretched in sequence. The test is performed as many times as the user requires, and then the test results of the tested tubular fabric are detected. The three sets of driving electromagnets 8 are energized to generate magnetism. The driving electromagnets 8 attract the sliding magnetic block 7 through magnetic force. The sliding magnetic block 7 drives all the expansion rods 13 on the outside of the main tube axis 1 to expand. After the fabric is stretched to the position of the recorded diameter mark groove 10, the fabric stretching is stopped. The lighting lamp 14 is used to illuminate the tubular fabric to observe whether there are large gaps or holes on its surface, thereby completing the test of the stockings fabric to be processed under rapid stretching to ensure the elastic performance of the fabric processed into the product.

[0044] Embodiment 3: This embodiment is based on the above embodiment. To prevent the elastic properties of the fabric from being affected after dyeing, the expansion rod 13 drives the fabric to gather on the outside of the main body tube shaft 1. At this time, the gap between the fabrics is not stretched to the minimum value. The dye for stockings processing and dyeing is injected into the dye barrel 2. The dye injected into the dye barrel 2 flows into the main body tube shaft 1. The controller 30 controls the atomizing motor 28 to start. The atomizing motor 28 extracts the dye inside the dye barrel 2 through the power end. The dye is atomized by the atomizing motor 28 and then sprayed into the inside of the tubular fabric through the atomizing nozzle 29. The mist sprayed by the atomizing nozzle 29 does not have impact force, so as to prevent the mist from penetrating the tubular fabric and overflowing.

[0045] The controller 30 controls the driving motor 17 to start, and the driving motor 17 drives the driving disk 19 to rotate by driving the telescopic rod 18, and the driving disk 19 drives the linkage frame 24 to rotate by expanding the telescopic rod 20, and the linkage frame 24 drives the expansion rod 13 to rotate through the polygonal turntable 3, and the expansion rod 13 drives the tubular fabric to rotate in a circle, and the dye spray inside the tubular fabric performs centrifugal motion, and the dye mist gradually contacts the tubular fabric, so that the dye spray sprayed by the atomizing nozzle 29 is adsorbed on the surface of the tubular fabric, thereby dyeing the tubular fabric. The user observes the color change of the fabric. When the color of the fabric meets the user's requirements, the controller 30 controls the atomizing motor 28 to stop atomizing the dye inside the main tube shaft 1 and the dye cylinder 2;

[0046] The controller 30 controls the driving electromagnet 8 to start, and the external current supplies power to the driving electromagnet 8 through the current meter 22. The driving electromagnet 8 generates magnetism when it is energized and is fixed to one end of the polygonal turntable 3 by magnetic attraction of the sliding magnetic block 7. The sliding magnetic block 7 drives the fabric to be attracted to the position of the recorded diameter mark groove 10 through the expansion rod 13. The controller 30 controls the lighting lamp 14 to illuminate the inside of the tubular fabric. The user observes whether there is a large bright spot through the surface of the tubular fabric. When there is no large bright spot, it means that the dyeing effect of the dye has no damage to the surface morphology of the fabric.

[0047] The user observes the current value inputted into the driving electromagnet 8 by the current meter 22. When the elasticity of the fabric does not change after dyeing, the current inputted into the driving electromagnet 8 is the same as that before dyeing. When the elasticity of the fabric decreases after dyeing, a larger magnetic force is required to attract the sliding magnetic block 7 to drive the fabric to the position of the designated diameter mark groove 10. When the elasticity of the fabric increases after dyeing, the tensile strength of the driving electromagnet 8 on the fabric decreases, and the current inputted into the driving electromagnet 8 decreases.

[0048] Compare the value of the current meter 22 of the stretched fabric after dyeing with the value of the current meter 22 of the stretched fabric before dyeing. If the difference between the two values ​​is large, it means that the dyeing effect of the dye has a certain influence on the elasticity of the fabric, and it can be concluded from the side that the dye is not suitable for dyeing processing of the fabric of this material;

[0049] Subsequently, the elastic performance of the dyed fabric under the sudden increase in tension is tested. The relatively arranged expansion rods 13 form a group of stretching units. The three groups of stretching units act alternately to test the gaps and holes on the surface of the dyed fabric after the stretching test. The driving electromagnet 8 is energized to drive the expansion rod 13 to move toward the outside of the main tube axis 1 until the sliding magnetic block 7 drives the fabric to reach the position of the recorded diameter mark groove 10. The lighting lamp 14 lights up to illuminate the inside of the tubular fabric, and the user observes the condition of the outer surface of the tubular fabric. In this way, the elastic performance test operation of the silk stockings fabric to be processed before processing is completed, and the elastic performance of the fabric after dyeing by the dye can be detected, thereby effectively ensuring the quality of the product after production; the above operation can be repeated the next time it is used.

[0050] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0051] The above is a description of the present solution and its implementation methods, which is not restrictive. The drawings show only one implementation method of the present solution, and the actual structure is not limited thereto. In short, if ordinary technicians in this field are inspired by it and design structural methods and embodiments similar to the technical solution without creative design without departing from the creative purpose of the present solution, they should all fall within the protection scope of the present solution.

Claims

1. A processing device for stockings, comprising a main body tube shaft (1), a dye cylinder (2) and a multi-angle turntable (3), characterized in that: The dye barrel (2) is symmetrically arranged on both sides of the main body tube axis (1); the multi-angle turntable (3) is rotatably arranged at one end of the dye barrel (2) close to the main body tube axis (1); the dye barrel (2) is arranged on the multi-angle turntable (3); the multi-angle turntable (15) is arranged at one end of the dye barrel (2) away from the main body tube axis (1); the dye barrel (2) comprises a distance adjustment mechanism (5) and a locking mechanism; the distance adjustment mechanism (5) is arranged at one end of the multi-angle turntable (3) away from the dye barrel (2); and the locking mechanism is arranged on the distance adjustment mechanism (5); The anti-external dispersion type contrast mechanism (15) comprises a driving mechanism (16), a linkage mechanism (23) and a covering mechanism (27), wherein the driving mechanism (16) is arranged on a side of the dye cylinder (2) away from the main body tube axis (1), the linkage mechanism (23) is arranged on a side of the polygonal turntable (3) close to the driving mechanism (16), and the covering mechanism (27) is arranged on a side wall of the main body tube axis (1); The distance adjustment mechanism (5) comprises a slide groove (6), a sliding magnetic block (7), a driving electromagnet (8), a compression spring (9), a diameter marking groove (10) and an electric current meter (22); a plurality of groups of the slide grooves (6) are arranged at one end of the polygonal turntable (3) away from the dye cylinder (2); the slide grooves (6) are arranged through-through, and the sliding magnetic block (7) is slidably arranged on the inner wall of the slide groove (6); The locking mechanism comprises a loading hole (12), an expansion rod (13) and an illumination lamp (14); the loading hole (12) is arranged on the side wall of the sliding magnetic block (7); the illumination lamp (14) is symmetrically arranged on the side walls at both ends of the main body tube axis (1); and the expansion rod (13) is arranged between the loading hole (12); The driving mechanism (16) comprises a driving motor (17), a driving telescopic rod (18), a driving disk (19), an expansion telescopic rod (20), an expansion spring (21) and an expansion electromagnet (31); the driving motor (17) is arranged on a side of the dye tube (2) away from the main body tube axis (1); the driving telescopic rod (18) is arranged on a power end of the driving motor (17); and the driving disk (19) is arranged on a side of the driving telescopic rod (18) away from the driving motor (17); The linkage mechanism (23) comprises a linkage frame (24), a linkage spring (25) and a groove (26); the linkage frame (24) is arranged on a side of the expansion and telescopic rod (20) away from the drive disk (19); the groove (26) is arranged on a side of the linkage frame (24) close to the sliding magnetic block (7); and the groove (26) is arranged with one end open; The driving electromagnet (8) is arranged at one end of the polygonal turntable (3) away from the dye barrel (2), the driving electromagnet (8) and the sliding magnetic block (7) are arranged opposite to each other, the compression spring (9) is arranged between the sliding magnetic block (7) and the inner wall of the slide groove (6), a plurality of groups of diameter marking grooves (10) are arranged on the side wall of the polygonal turntable (3), and the current meter (22) is arranged on the side wall of the dye barrel (2).

2. The processing equipment for stockings according to claim 1, characterized in that: A plurality of groups of the expansion and telescopic rods (20) are arranged at one end of the driving disk (19) away from the driving telescopic rod (18); the expansion spring (21) is arranged between the side wall of the driving motor (17) outside the driving telescopic rod (18) and the side wall of the driving disk (19); the expansion electromagnet (31) is arranged on the side wall of the dye cylinder (2) outside the expansion spring (21); and the expansion electromagnet (31) and the driving disk (19) are arranged opposite to each other.

3. The processing equipment for stockings according to claim 2, characterized in that: The linkage spring (25) is arranged between the side wall of the linkage frame (24) outside the groove (26) and the side wall of the sliding magnetic block (7) outside the object loading hole (12), and the expansion rod (13) passes through the object loading hole (12) and is arranged inside the groove (26).

4. The processing equipment for stockings according to claim 3, characterized in that: The coating mechanism (27) comprises an atomizing motor (28) and an atomizing nozzle (29). A plurality of groups of the atomizing motors (28) are arranged on the side wall of the main body tube shaft (1). The power end of the atomizing motor (28) penetrates the inner wall of the main body tube shaft (1), and the atomizing nozzle (29) is arranged at the atomizing end of the atomizing motor (28).

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