An equipment for making a clothing lining with deodorizing and antibacterial functions

Abstract

The application relates to a kind of anti-odor and antibacterial functional clothing lining manufacturing equipment, including support mechanism arranged on textile machine and first punching mechanism, second punching mechanism, power mechanism arranged on support mechanism, first punching mechanism includes blanking assembly for being lifted and arranged on support mechanism and for putting graphene into the tapered hole of cloth, hole cutting assembly arranged at the lower end of blanking assembly, sintering assembly for deburring tapered hole is arranged on hole cutting assembly and waste cleaning assembly is arranged at the position below support mechanism;The application can automatically and alternately set up round hole and tapered hole to cloth, improve the punching efficiency, can mass production and processing cloth, increase enterprise benefit, ensure that cloth can adsorb peculiar smell, improve the antibacterial property of cloth, so as to solve the problem that existing cloth does not have antibacterial property, sweat is immersed in cloth and produces peculiar smell, which is not conducive to personal hygiene.

Description

Technical Field

[0001] This invention relates to the field of clothing fabric technology, and in particular to a device for manufacturing clothing linings with deodorizing and antibacterial functions. Background Technology

[0002] In the garment manufacturing process, the garment and lining need to be layered and bonded together. A certain temperature and pressure are applied to the fabric for bonding, especially for garments with padding. A garment positioning device is generally used to complete the point bonding operation. To ensure good breathability, perforations are often made into the fabric, creating small, evenly distributed ventilation holes.

[0003] Patent document CN201810850633.X discloses a punching device with adjustable punching diameter for garment fabric production, including a base plate, a movable plate, a bracket, a positioning shaft, and a cylinder. The base plate has a first positioning hole. The movable plate is connected to the base plate via a hinge and is located on the left side of the base plate. A storage box is located below the base plate, and the storage box contains a drawer with a handle on its left side. A bracket is fixed to the upper side of the base plate, and a second positioning hole is formed on the upper side of the bracket. A fixed shaft and a movable strip are located on the upper side of the bracket, with the fixed shaft passing through the movable strip. The upper end of the positioning shaft is fixed to the lower side of the bracket. This punching device with adjustable punching diameter for garment fabric production allows for punching holes in the fabric by rotating the outer casing to select punching rods of different diameters.

[0004] However, in actual use, the inventors found that the breathable pores on the fabric did not have antibacterial properties. Sweat seeped into the fabric and would produce an odor over time, which was detrimental to personal hygiene. Summary of the Invention

[0005] The purpose of this invention is to address the shortcomings of existing technologies by providing a garment lining manufacturing device with deodorizing and antibacterial functions. Through the cooperation of a first punching mechanism and a power mechanism, the device can automatically and alternately punch round and conical holes in the fabric, improving punching efficiency, enabling mass production of fabric, increasing enterprise benefits, ensuring that the fabric can absorb odors, and improving the antibacterial properties of the fabric. This solves the problem that existing fabrics do not have antibacterial properties, and that sweat soaking into the fabric will produce odors, which is detrimental to personal hygiene.

[0006] To address the above technical issues, the following technical solution is adopted:

[0007] A garment lining manufacturing device with deodorizing and antibacterial functions includes a support mechanism mounted on a textile machine for driving the fabric to move forward intermittently, a first punching mechanism mounted on the support mechanism for making conical holes in the fabric, a second punching mechanism mounted on the support mechanism for making round holes in the fabric, and a power mechanism mounted on the support mechanism for driving the first punching mechanism and the second punching mechanism to work alternately.

[0008] The first punching mechanism includes a feeding assembly that is lifted and mounted on the support mechanism and used to feed graphene into the tapered hole of the fabric, a cutting assembly located at the lower end of the feeding assembly, a sintering assembly located on the cutting assembly and used to deburr the tapered hole, and a waste cleaning assembly located below the support mechanism.

[0009] Preferably, the support mechanism includes a support box disposed on the textile machine for supporting the fabric, a feed inlet on one side of the support box, a discharge outlet on the other side of the support box, and a fabric conveying assembly disposed on the support box. The bottom of the feed inlet and the bottom of the discharge outlet are flush with the bottom of the support box. The bottom of the support box is used to support the fabric for punching.

[0010] Preferably, the fabric conveying assembly includes a fabric conveying roller disposed inside the outlet, a first stepper motor disposed on the support box for driving the fabric conveying roller, a pressing plate disposed vertically inside the inlet, and a first hydraulic component disposed on the support box for driving the pressing plate.

[0011] Preferably, the material feeding assembly includes two sets of first lifting blocks that are slidably disposed on the inner wall of the support box through the first limiting groove, a first lifting plate disposed between the two sets of first lifting blocks, and several sets of material feeding cylinders that are vertically disposed on the first lifting plate and contain graphene particles.

[0012] Preferably, the cutting assembly includes a first gear rotatably disposed at the lower port of the discharge cylinder, a second hydraulic component obliquely disposed on the first gear via a bracket, a cutting needle disposed on the output end of the second hydraulic component, a through hole opened on the first gear for the cutting needle to pass through, a third hydraulic component disposed on the inner wall of the support box, a first rack disposed on the output end of the third hydraulic component for synchronously driving the first gear, and a plurality of first waste holes opened at the bottom of the support box for discharging tapered waste.

[0013] Preferably, the sintering assembly includes two sets of symmetrically arranged limiting holes on the first gear, a fourth hydraulic component disposed at the end of the limiting hole, an inclined plate disposed at the output end of the fourth hydraulic component and slidingly matched with the limiting hole, a sliding hole disposed on the inclined plate and slidably matched with a slider, two sets of semi-arc heating plates respectively disposed on the slider and adapted to the conical hole, and a fifth hydraulic component disposed at the end of the sliding hole and used to drive the slider to move up and down with the semi-arc heating plates.

[0014] Preferably, the waste cleaning assembly includes a rejection unit disposed below the support box for hooking up waste and a discharge unit disposed on the rejection unit for unloading waste.

[0015] The rejection unit includes a first waste bin located below the support box, several sets of sixth hydraulic components located at the bottom of the first waste bin, a puncture needle located on the output shaft of the sixth hydraulic component, a puncture head located at the upper end of the puncture needle, two sets of levers symmetrically hinged to the puncture head, a support tube slidably sleeved on the puncture needle, two sets of diagonal braces symmetrically located at the upper end of the support tube, a support groove formed on the lever, a transmission block hinged to the upper end of the diagonal brace and slidably matched with the support groove, a support plate located on the puncture needle, and a support elastic element located between the support plate and the lower end of the support tube.

[0016] Preferably, the unloading unit includes several sets of horizontal plates disposed between the inner walls of the first waste bin, clearance holes opened on the horizontal plates and adapted to the support pipe, cutters disposed on both sides of the clearance holes for cutting the waste into two halves, several sets of blowers disposed on one side wall of the first waste bin for blowing off the cut waste, and ventilation holes disposed on the opposite side wall of the first waste bin.

[0017] Preferably, the second punching mechanism includes two sets of second lifting blocks disposed on the inner wall of the support box via second limiting grooves, a second lifting plate disposed between the two sets of second lifting blocks, several sets of punching tubes disposed on the second lifting plate, a seventh hydraulic component disposed at the upper end of the punching tube, an electric heating rod disposed at the output end of the seventh hydraulic component and adapted to the inner wall of the punching tube, a second waste bin disposed below the support box, and several sets of second waste holes opened at the bottom of the support box for discharging round hole waste.

[0018] Preferably, the power mechanism includes a first toothed plate disposed on the side of the first lifting block via a connecting rod, a second toothed plate disposed on the side of the second lifting block via a connecting rod, a second gear disposed on the inner wall of the support box for synchronously driving the first toothed plate and the second toothed plate, and a second stepper motor disposed on the support box for driving the second gear.

[0019] The beneficial effects of this invention are:

[0020] (1) In this invention, by setting a first punching mechanism and a power mechanism in cooperation, on the one hand, the fabric can be automatically and alternately punched with round holes and conical holes, which improves the punching efficiency of the fabric, ensures the breathability of the fabric, has a high degree of automation and good linkage, and can be mass-produced and processed to increase the benefits of enterprises; on the other hand, it can automatically fill the conical holes of the fabric with graphene particles, ensuring that the fabric can absorb odors, improve the deodorizing effect of the fabric, prevent bacteria from growing on the fabric, improve the antibacterial properties of the fabric, and benefit personal physical and mental health.

[0021] (2) In this invention, the waste cleaning component and the sintering component work together. On the one hand, the bottom of the semi-arc heating plate of the sintering component can limit the punching point of the fabric, making it easier for the piercing needle of the removal unit to pierce the fabric and prevent the fabric from being pushed up by the piercing needle, thus improving the working effect of the piercing needle. On the other hand, the puller on the piercing needle can pull the waste from the conical hole downwards, making it easier to remove the waste generated by punching the fabric. This is beneficial for subsequent sintering and filling of graphene particles into the conical hole, and can automatically clean up the waste on the piercing needle, ensuring that the piercing needle can work continuously.

[0022] (3) In this invention, by setting the sintering component and the feeding component together, on the one hand, the inner wall of the conical hole on the fabric can be automatically de-linted to prevent the lint from being dispersed to the surface of the fabric, thus ensuring the cleanliness of the fabric and facilitating the bonding of the fabric with other composite layer fabrics; on the other hand, the feeding operation of the feeding component can be controlled so that the feeding component drops one graphene particle at a time and the graphene particle accurately fills the conical hole, thus ensuring the continuity of the feeding component's operation.

[0023] In summary, this equipment has the advantages of simple and ingenious structure and easy use, and is especially suitable for the field of clothing fabric technology. Attached Figure Description

[0024] To more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0025] Figure 1 This is a schematic diagram of a device for manufacturing clothing linings with deodorizing and antibacterial functions.

[0026] Figure 2 This is a schematic diagram of the structure of the present invention.

[0027] Figure 3 This is a structural diagram of the support mechanism.

[0028] Figure 4 This is a schematic diagram of the fabric conveying assembly.

[0029] Figure 5 This is a schematic diagram of the transmission operation of the power mechanism.

[0030] Figure 6 This is a schematic diagram of the second punching mechanism.

[0031] Figure 7 This is a schematic diagram of the internal structure of a perforated tube.

[0032] Figure 8 This is a schematic diagram of the material feeding assembly.

[0033] Figure 9 This is a schematic diagram of the hole-cutting assembly.

[0034] Figure 10 This is a schematic diagram of the sintering assembly.

[0035] Figure 11 This is a schematic diagram of the structure of a semi-circular electric heating plate.

[0036] Figure 12 A schematic diagram of the transmission system for sintering.

[0037] Figure 13 A schematic diagram of the transmission mechanism used to release graphene particles.

[0038] Figure 14 This is a schematic diagram of the waste cleaning component.

[0039] Figure 15 This is a schematic diagram of the unloading unit.

[0040] Figure 16 This is a schematic diagram of the internal structure of the first waste bin.

[0041] Figure 17 This is a structural diagram of the unit to be eliminated.

[0042] Figure 18 for Figure 17 A schematic diagram of the structure at point A.

[0043] Figure 19A schematic diagram of the working transmission for removing punctures in the fabric by the unit. Detailed Implementation

[0044] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings.

[0045] Example 1

[0046] like Figure 1-19 As shown, a garment lining manufacturing equipment with deodorizing and antibacterial functions includes a support mechanism 2 mounted on a textile machine 1 for intermittently driving the fabric forward, a first punching mechanism 3 mounted on the support mechanism 2 for making conical holes in the fabric, a second punching mechanism 4 mounted on the support mechanism 2 for making round holes in the fabric, and a power mechanism 5 mounted on the support mechanism 2 for driving the first punching mechanism 3 and the second punching mechanism 4 to work alternately.

[0047] The first punching mechanism 3 includes a feeding component 31 that is lifted and mounted on the support mechanism 2 and used to feed graphene into the tapered hole of the fabric, a cutting component 32 located at the lower end of the feeding component 31, a sintering component 33 located on the cutting component 32 and used to deburr the tapered hole, and a waste cleaning component 34 located below the support mechanism 2.

[0048] It should be noted that this fabric, as a lining, has a certain thickness and is the middle layer of the composite fabric.

[0049] In this embodiment, the first punching mechanism 3 and the power mechanism 5 work together to automatically and alternately punch round and conical holes in the fabric, improving the punching efficiency, ensuring the fabric's breathability, and achieving a high degree of automation and good linkage. This allows for mass production of fabric, increasing enterprise profits. On the other hand, the mechanism can automatically fill the conical holes in the fabric with graphene particles, ensuring that the fabric can absorb odors, improving the deodorizing effect, preventing bacterial growth on the fabric, and enhancing the fabric's antibacterial properties, which is beneficial to personal health.

[0050] In detail, after the fabric enters the support mechanism 2, the support mechanism 2 drives the fabric to move forward intermittently for a specified distance. The power mechanism 5 drives the first punching mechanism 3 and the second punching mechanism 4 to work alternately. The first punching mechanism 3 first punches a conical hole in the fabric and deburrs the inner wall of the conical hole. Then, a graphene particle is filled into the conical hole. Then, the second punching mechanism 4 punches a round hole in the fabric and deburrs the inner wall of the round hole. The processed fabric is output from the support mechanism 2.

[0051] Furthermore, such as Figure 2-5As shown, the support mechanism 2 includes a support box 21 disposed on the textile machine 1 for supporting the fabric, a feed inlet 22 opened on one side of the support box 21, a discharge outlet 23 opened on the other side of the support box 21, and a fabric conveying assembly 24 disposed on the support box 21.

[0052] It should be noted that the bottom of the inlet 22 and the bottom of the outlet 23 are flush with the bottom of the support box 21, and the bottom of the support box 21 is used to support the fabric for punching.

[0053] The fabric conveying assembly 24 includes a fabric conveying roller 241 disposed inside the discharge port 23, a first stepper motor 242 disposed on the support box 21 for driving the fabric conveying roller 241, a pressing plate 243 disposed and lifted inside the feed port 22, and a first hydraulic component 244 disposed on the support box 21 for driving the pressing plate 243.

[0054] In this embodiment, the support mechanism 2 not only supports the fabric for punching, but also drives the fabric to move forward intermittently a specified distance, ensuring continuous punching of the fabric; on the other hand, it can tighten the fabric to prevent wrinkles during punching, thus improving the accuracy of punching.

[0055] In detail, after the fabric enters the support mechanism 2, the first stepper motor 242 drives the fabric conveying roller 241 to work. After the fabric conveying roller 241 drives the fabric forward a specified distance, the first hydraulic component 244 drives the pressing plate 243 to descend and press the fabric, so that the fabric stops moving forward, while the fabric conveying roller 241 continues to rotate, so that the fabric is in a taut state, which facilitates the perforation work of the fabric.

[0056] Furthermore, such as Figure 5 and Figure 14-19 As shown, the waste cleaning assembly 34 includes a rejection unit 341 located below the support box 21 for hooking up waste and a discharge unit 342 located on the rejection unit 341 for unloading waste.

[0057] The rejection unit 341 includes a first waste bin 3411 located below the support box 21, several sets of sixth hydraulic components 3412 located at the bottom of the first waste bin 3411, a puncture needle 3413 located on the output shaft of the sixth hydraulic component 3412, a puncture head 3414 located at the upper end of the puncture needle 3413, two sets of levers 3415 symmetrically hinged to the puncture head 3414, a support tube 3416 slidably sleeved on the puncture needle 3413, two sets of diagonal braces 3417 symmetrically located at the upper end of the support tube 3416, a support groove formed on the lever 3415, a transmission block 3418 hinged to the upper end of the diagonal brace 3417 and slidably matched with the support groove, a support plate located on the puncture needle 3413, and a support elastic member 3419 located between the support plate and the lower end of the support tube 3416.

[0058] The unloading unit 342 includes several sets of horizontal plates 3421 disposed between the inner walls of the first waste bin 3411, clearance holes opened on the horizontal plates 3421 and adapted to the support tube 3416, cutters 3422 disposed on both sides of the clearance holes for cutting the waste into two halves, several sets of blowers 3423 disposed on one side wall of the first waste bin 3411 for blowing off the cut waste, and ventilation holes 3424 disposed on the opposite side wall of the first waste bin 3411.

[0059] In this embodiment, the waste cleaning component 34 and the sintering component 33 work together. On the one hand, the bottom of the semi-circular heating plate 335 of the sintering component 33 can limit the perforation of the fabric, making it easier for the piercing needle 3413 of the rejection unit 341 to pierce the fabric and prevent the fabric from being lifted by the piercing needle 3413, thus improving the working efficiency of the piercing needle 3413. On the other hand, the puller 3415 on the piercing needle 3413 can pull the waste from the conical hole downwards, making it easier to remove the waste generated by the perforation of the fabric. This is beneficial for subsequent sintering and filling of graphene particles into the conical hole, and can automatically clean up the waste on the piercing needle 3413, ensuring that the piercing needle 3413 can work continuously.

[0060] In detail, after the sintering component 33 descends, the bottom of the semi-circular heating plate 335 gently presses against the perforated area of ​​the fabric. The sixth hydraulic component 3412 of the removal unit 341 drives the piercing needle 3413 to rise, causing the piercing head 3414 to pass through the first waste hole at the bottom of the support box 21 and press against the perforated area of ​​the fabric. The piercing needle 3413 continues to rise. During the process of the piercing head 3414 piercing the fabric, it forces the two pull rods 3415 to rotate inward. The pull rods 3415 drive the support tube 3416 to descend relatively through the diagonal brace 3417. After the pull rods 3415 rise and pass through the piercing hole of the fabric, the support tube 3416 is lifted by the elastic force of the support elastic component 3419, causing the support tube 3416 to rise through the diagonal brace 3417. 17 drives the two pull rods 3415 to open to both sides for resetting, so that the two pull rods 3415 can hook the fabric downwards. After the tapered hole on the fabric is cut, the sixth hydraulic component 3412 drives the piercing needle 3413 to descend, so that the pull rod 3415 at the upper end of the piercing needle 3413 hooks and pulls out the waste material, thereby cleaning the waste material out of the tapered hole. When the pull rod 3415 of the piercing needle 3413 descends to the position of the cutter 3422 of the unloading unit 342, the waste material of the piercing needle 3413 is split in two by the cutter 3422. The blower 3423 blows the two halves of the waste material off the horizontal plate 3421, thereby cleaning up the waste material of the piercing needle 3413 and making it convenient for the next use of the piercing needle 3413.

[0061] Furthermore, such as Figure 8-10 As shown, the cutting assembly 32 includes a first gear 321 rotatably disposed at the lower port of the discharge cylinder 313, a second hydraulic component 322 obliquely disposed on the first gear 321 via a bracket, a cutting needle 323 disposed on the output end of the second hydraulic component 322, a through hole 324 opened on the first gear 321 for the cutting needle 323 to pass through, a third hydraulic component 325 disposed on the inner wall of the support box 21, a first rack 326 disposed on the output end of the third hydraulic component 325 for synchronously driving the first gear 321, and a plurality of first waste holes opened at the bottom of the support box 21 for discharging tapered waste.

[0062] It should be noted that the cutting needle 323 has a cutting blade on its side, which allows the cutting needle 323 to cut the fabric in the circumferential direction.

[0063] In this embodiment, the cutting component 32 and the sintering component 33 work together to automatically cut tapered holes into the fabric and smooth out the fuzz on the inner wall of the tapered holes, which facilitates the sintering of the inner wall of the tapered holes.

[0064] In detail, the bottom of the semi-circular heating plate 335 of the sintering component 33 is gently pressed against the perforated area of ​​the fabric. After the piercing needle 3413 of the removal unit 341 pierces the fabric, the second hydraulic component 322 drives the cutting needle 323 to tilt and descend, so that the cutting needle 323 passes through the through hole 324 and pierces the fabric. Then, the third hydraulic component 325 drives the first rack 326 to translate, so that the first rack 326 drives the first gear 321 to rotate one revolution, so that the first gear 321 drives the cutting needle 323 to cut a conical hole in the fabric. After the piercing needle 3413 cleans out the waste in the conical hole, the third hydraulic component 325 drives the first rack 326 to reset, so that the first rack 326 drives the first gear 321 to rotate one revolution in the opposite direction, so that the first gear 321 drives the cutting needle 323 to smooth the fuzz on the inner wall of the conical hole. Then, the second hydraulic component 322 drives the cutting needle 323 to rise and reset, ready for the next use.

[0065] Furthermore, such as Figure 8-13 As shown, the sintering assembly 33 includes two sets of symmetrically opened limiting holes 331 on the first gear 321, a fourth hydraulic component 332 disposed at the end of the limiting hole 331, an inclined plate 333 disposed at the output end of the fourth hydraulic component 332 and slidingly matched with the limiting hole 331, a sliding hole 334 opened on the inclined plate 333 and slidably matched with a slider, two sets of semi-arc heating plates 335 respectively disposed on the slider and adapted to the conical hole, and a fifth hydraulic component 336 disposed at the end of the sliding hole 334 and used to drive the slider to move up and down with the semi-arc heating plate 335.

[0066] The material feeding assembly 31 includes two sets of first lifting blocks 311 that are slidably disposed on the inner wall of the support box 21 through the first limiting groove, a first lifting plate 312 disposed between the two sets of first lifting blocks 311, and several sets of material feeding cylinders 313 that are vertically disposed on the first lifting plate 312 and contain graphene particles.

[0067] It should be noted that the diameter of the graphene particles is larger than the diameter of the small circle of the conical hole, which allows the graphene particles to fill and embed themselves in the conical hole.

[0068] It should also be noted that the height of the semi-circular heating plate 335 is the same as the height of the conical hole, and the top of the graphene particle falling into the conical hole is flush with the fabric, ensuring that only a single graphene particle can be embedded in the conical hole.

[0069] It is worth mentioning that the semi-circular electric heating plate 335 sinters the fluff on the inner wall of the conical hole using existing electric heating methods.

[0070] In this embodiment, the sintering component 33 and the feeding component 31 work together to automatically remove lint from the inner wall of the conical hole on the fabric, preventing lint from spreading to the fabric surface and ensuring the cleanliness of the fabric, which is beneficial for the bonding of the fabric with other composite layer fabrics. On the other hand, the feeding operation of the feeding component 31 can be controlled so that the feeding component 31 drops one graphene particle at a time and accurately fills the conical hole, ensuring the continuity of the operation of the feeding component 31.

[0071] In detail, the power mechanism 5 drives the material feeding assembly 31 to descend, causing the bottom of the semi-circular heating plate 335 of the sintering assembly 33 to gently press against the perforation point of the fabric. After the cutting assembly 32 punches holes in the fabric and the piercing needle 3413 removes the waste material, the fourth hydraulic component 332 of the sintering assembly 33 moves the inclined plate 333 to both sides. At the same time, the fifth hydraulic component 336 drives the semi-circular heating plate 335 to move diagonally downward, causing the two semi-circular heating plates 335 to descend into the conical hole. The high temperature generated by the semi-circular heating plate 335 after being energized sinters the fibers in the conical hole. Then, the fifth hydraulic component 336... The 36th drive of the semi-circular heating plate 335 moves obliquely upward, causing the semi-circular heating plate 335 to reset on the inclined plate 333, thereby opening the lower port of the feeding cylinder 313. The graphene particles in the feeding cylinder 313 descend as a whole, so that the graphene particles at the bottom end are embedded in the conical hole. Then, the fourth hydraulic component 332 drives the inclined plate 333 to move inward and reset, so that the two semi-circular heating plates 335 clamp the second to last graphene particle near the bottom again, thereby closing the lower port of the feeding cylinder 313. Then, the power mechanism 5 drives the feeding assembly 31 to rise and reset, ready for the next use.

[0072] Furthermore, such as Figure 5-8 As shown, the second punching mechanism 4 includes two sets of second lifting blocks 41 disposed on the inner wall of the support box 21 through the second limiting groove, a second lifting plate 42 disposed between the two sets of second lifting blocks 41, several sets of punching tubes 43 disposed on the second lifting plate 42, a seventh hydraulic component 44 disposed at the upper end of the punching tube 43, an electric heating rod 45 disposed at the output end of the seventh hydraulic component 44 and adapted to the inner wall of the punching tube 43, a second waste box 46 disposed below the support box 21, and several sets of second waste holes opened at the bottom of the support box 21 for discharging round hole waste.

[0073] It should be noted that the heating rod 45 sinters the fluff inside the round hole using existing electric heating methods.

[0074] In this embodiment, the second punching mechanism 4 and the power mechanism 5 work together to automatically punch round holes in the fabric and sinter the fluff inside the round holes.

[0075] In detail, the power mechanism 5 drives the second punching mechanism 4 to descend, causing the lower end of the punching tube 43 to punch a round hole in the fabric. The waste material in the round hole stays inside the punching tube 43. Then, the seventh hydraulic component 44 drives the heating rod 45 to descend, causing the heating rod 45 to push out the waste material in the punching tube 43. The waste material falls from the second waste hole into the second waste box 46. At the same time, the high temperature generated by the heating rod 45 after being energized sinters the fluff inside the round hole. Then, the power mechanism 5 drives the second punching mechanism 4 to rise and reset, ready for the next use.

[0076] Furthermore, such as Figure 2-5 As shown, the power mechanism 5 includes a first toothed plate 51 disposed on the side of the first lifting block 311 via a connecting rod, a second toothed plate 52 disposed on the side of the second lifting block 41 via a connecting rod, a second gear 53 disposed on the inner wall of the support box 21 and used to synchronously drive the first toothed plate 51 and the second toothed plate 52, and a second stepper motor 54 disposed on the support box 21 and used to drive the second gear 53.

[0077] In this embodiment, the power mechanism 5 can drive the first punching mechanism 3 and the second punching mechanism 4 to work alternately to alternately open round holes and conical holes on the fabric.

[0078] In detail, the second stepper motor 54 drives the second gear 53 to rotate. The second gear 53 drives the first punching mechanism 3 to descend through the first toothed plate 51. At the same time, the second gear 53 drives the second punching mechanism 4 to rise synchronously through the second toothed plate 52. After the first punching mechanism 3 makes a conical hole in the fabric, the power mechanism 5 drives the first punching mechanism 3 to rise and reset. After the fabric advances a specified distance, the second stepper motor 54 drives the second gear 53 to rotate in the opposite direction. The second gear 53 drives the first punching mechanism 3 to rise through the first toothed plate 51. At the same time, the second gear 53 drives the second punching mechanism 4 to descend synchronously through the second toothed plate 52 to make a round hole in the fabric. The power mechanism 5 drives the second punching mechanism 4 to rise and reset again, thus repeatedly driving the first punching mechanism 3 and the second punching mechanism 4 to work alternately.

[0079] Example 2

[0080] like Figure 2-5 As shown, components that are the same as or corresponding to those in Embodiment 1 are referred to using the same reference numerals as in Embodiment 1. For simplicity, only the differences from Embodiment 1 are described below. The difference between Embodiment 2 and Embodiment 1 is as follows:

[0081] Furthermore, such as Figure 2-5 As shown, both the first waste bin 3411 and the second waste bin 46 are equipped with chip removal doors 6.

[0082] It is worth mentioning that after opening the chip removal door 6, the waste materials in the first waste bin 3411 and the second waste bin 46 are collected in a unified manner.

[0083] Work process:

[0084] After the fabric enters the support mechanism 2, the support mechanism 2 drives the fabric to move forward intermittently for a specified distance. The power mechanism 5 drives the first punching mechanism 3 and the second punching mechanism 4 to work alternately. The first punching mechanism 3 first punches a conical hole in the fabric and deburrs the inner wall of the conical hole. Then, a graphene particle is filled into the conical hole. Then, the second punching mechanism 4 punches a round hole in the fabric and deburrs the inner wall of the round hole. The processed fabric is output from the support mechanism 2.

[0085] In the description of this invention, it should be understood that the terms "front and back", "left and right", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or component referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the invention.

[0086] Of course, those skilled in the art should understand that the term "a" should be understood as "at least one" or "one or more". That is, in one embodiment, the number of an element can be one, while in another embodiment, the number of the element can be multiple. The term "a" should not be understood as a limitation on the quantity.

[0087] The above description is merely a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art under the technical guidance of the present invention should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope of the claims.

Claims

1. A garment lining manufacturing equipment with deodorizing and antibacterial functions, characterized in that, The support mechanism is arranged on the textile machine and used for driving the intermittent advancement of the cloth, the first punching mechanism is arranged on the support mechanism and used for opening the conical hole on the cloth, the second punching mechanism is arranged on the support mechanism and used for opening the round hole on the cloth, and the power mechanism is arranged on the support mechanism and used for driving the first punching mechanism and the second punching mechanism to work alternately. The first punching mechanism comprises a dropping assembly arranged on the support mechanism in a lifting mode and used for putting the graphene into the conical hole of the cloth, a cutting assembly arranged at the lower end of the dropping assembly, a sintering assembly arranged on the cutting assembly and used for deburring the conical hole, and a waste cleaning assembly arranged at the position below the support mechanism. The support mechanism comprises a support box arranged on the textile machine and used for supporting the cloth, a feeding port opened in one side surface of the support box, a discharging port opened in the other side surface of the support box, and a cloth conveying assembly arranged on the support box, the bottom of the feeding port and the bottom of the discharging port are flush with the inner bottom of the support box, and the inner bottom of the support box is used for supporting the cloth to perform the punching work. The cloth conveying assembly comprises a cloth conveying roller arranged inside the discharging port, a first stepping motor arranged on the support box and used for driving the cloth conveying roller, a pressing plate arranged inside the feeding port in a lifting mode, and a first hydraulic component arranged on the support box and used for driving the pressing plate. The dropping assembly comprises two groups of first lifting blocks arranged on the inner wall of the support box in a sliding mode through first limiting grooves, a first lifting plate arranged between the two groups of first lifting blocks, and a plurality of groups of dropping cylinders arranged vertically on the first lifting plate and containing graphene particles.

2. The apparatus according to claim 1, wherein the apparatus is characterized by comprising: a first coating device for coating the first surface of the fabric with the first coating solution; a second coating device for coating the second surface of the fabric with the second coating solution; and a drying device for drying the fabric coated with the first and second coating solutions. The cutting assembly comprises a first gear arranged at the lower end of the dropping cylinder in a rotating mode, a second hydraulic component arranged on the first gear in an inclined mode through a support, a cutting needle arranged on the output end of the second hydraulic component, a through hole opened in the first gear and used for the cutting needle to pass through, a third hydraulic component arranged on the inner wall of the support box, a first rack arranged on the output end of the third hydraulic component and used for synchronously driving the first gear, and a plurality of groups of first waste holes opened in the bottom of the support box and used for discharging the waste of the conical hole.

3. The apparatus according to claim 2, wherein the apparatus is characterized by: The sintering assembly comprises two groups of limiting holes symmetrically opened in the first gear, a fourth hydraulic component arranged at the end of the limiting hole, an inclined plate arranged on the output end of the fourth hydraulic component in an inclined mode and slidingly matched with the limiting hole, a sliding hole opened in the inclined plate and slidingly matched with a sliding block, two groups of semi-arc-shaped electric heating plates arranged on the sliding block respectively and matched with the conical hole, and a fifth hydraulic component arranged on the end of the sliding hole and used for driving the sliding block to lift with the semi-arc-shaped electric heating plate.

4. The apparatus according to claim 3, wherein the apparatus is characterized by: The waste cleaning assembly comprises a rejection unit arranged at the position below the support box and used for hooking the waste, and a discharging unit arranged on the rejection unit and used for discharging the waste. The removing unit comprises a first waste box arranged at a position below the supporting box, a plurality of groups of sixth hydraulic components arranged at the bottom of the first waste box, a puncture needle arranged on the output shaft of the sixth hydraulic components, a puncture head arranged at the upper end of the puncture needle, two groups of symmetrically hinged prying rods arranged on the puncture head, a supporting tube slidingly sleeved on the puncture needle, two groups of symmetrically arranged inclined supporting rods arranged at the upper end of the supporting tube, a supporting groove arranged on the prying rod, a transmission block hingedly arranged at the upper end of the inclined supporting rod and slidingly matched with the supporting groove, a supporting disc arranged on the puncture needle, and a supporting elastic component arranged between the supporting disc and the lower end of the supporting tube.

5. The apparatus according to claim 4, wherein the apparatus is characterized by: The discharging unit comprises a plurality of groups of transverse plates arranged between the inner walls of the first waste box, a plurality of groups of avoiding holes arranged on the transverse plates and matched with the supporting tube, a plurality of groups of cutters arranged on both sides of the avoiding holes and used for cutting the waste into two halves, a plurality of groups of air blowers arranged on one side wall of the first waste box and used for blowing off the cut waste, and a plurality of groups of ventilation holes arranged on the opposite side wall of the first waste box.

6. The apparatus according to claim 1, wherein the apparatus is characterized by comprising: a first coating device for coating the first surface of the fabric with the first coating solution; a second coating device for coating the second surface of the fabric with the second coating solution; and a drying device for drying the fabric coated with the first and second coating solutions. The second punching mechanism comprises two groups of second lifting blocks arranged on the inner walls of the supporting box through second limiting grooves, a second lifting plate arranged between the two groups of second lifting blocks, a plurality of groups of punching pipes arranged on the second lifting plate, a seventh hydraulic component arranged at the upper end of the punching pipe, an electric heating rod arranged at the output end of the seventh hydraulic component and matched with the inner wall of the punching pipe, a second waste box arranged at a position below the supporting box, and a plurality of groups of second waste holes arranged on the bottom of the supporting box and used for discharging the round hole waste.

7. The apparatus according to claim 6, wherein the apparatus is characterized by: The power mechanism comprises a first toothed plate arranged on the side of the first lifting block through a connecting rod, a second toothed plate arranged on the side of the second lifting block through a connecting rod, a second gear wheel arranged on the inner side wall of the supporting box and used for synchronously driving the first toothed plate and the second toothed plate, and a second stepping motor arranged on the supporting box and used for driving the second gear wheel.

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