KR960013192B1 - Selvedge edges cutting and winding device of finished fabric - Google Patents

Abstract

The process of the position correcting part(100) includes: raw cloth(A) passing through the first driving roller(126) and the first adjusting rollers(144)(146); a sensor(164) for perceiving the position, operating a solenoid, and actuating an air cylinder(152) connected between a operating bar(142) and a traverse bar(138); and an air cylinder(152) for moving the first adjusting rollers(144)(146) in the right or left, adjusting the placement of the raw cloth. The cutting part(200) includes: the raw cloth passing through the second adjusting roller(184) being supplied to a cutting device(212); and edge-cutted between a upper cutting wheel(216) and a lower cutting wheel(218) (When moving an adjustable lever(208), a movable body(214) moves in the right and left, which makes the cutting width adjustable). The accumulating part(300) includes : the raw cloth(A) being pulled out by the second driving roller(306), falling down, and being accumulated in a hook shaped J-box(318). The rolling part(4) includes: the raw cloth(A) being rolled on a rolling beam(14).

Description

Toilet cutting and alignment winding device of processing fabric

1 is a schematic configuration diagram of the present invention.

2 is a configuration diagram of a position correction unit in the apparatus of the present invention.

3 is a front configuration diagram of the first calibration roller section, and (b) a planar configuration diagram of the second calibration roller section.

4 is a perspective view of the primary drive take-out roller in the position correction of the apparatus of the present invention.

5 is a planar configuration diagram of a sensing sensor unit installed in the first calibration roller of the present invention.

6 is a perspective view of a cutting unit provided in the present invention.

7 is a perspective view of the cutting portion provided in the present invention.

8 is a rotational power transmission of the cutting blade provided in the cutting unit of the present invention.

9 is a block diagram of an accumulating unit provided in the present invention.

* Explanation of symbols for main parts of the drawings

A: processing fabric 100: position correction

102: vertical frame 104: between protrusions

106: first guide roller 108: shaft

110: fixed piece 112, 114: tension adjustment roller

116: Worm Gear 118: Worm

120: shaft 122: handle

124: support interval 126: primary drive take-out roller

128: pressure roller 130: drive pulley

132: reducer 134: pulley

136: belt 138: transverse

140,142: Between operations 144,146: First calibration roller

148: fixed between 150: between connections

152: air cylinder 154: shaft

156: fixed interval 158: guide rod

160: screw rod 162: moving piece

164 detection sensor166 handle

168: the second guide roller 170: the third guide roller

172: expansion roller 174: fourth guide roller

176: transverse 178: transverse frame

180,182: Between operation 184: 2nd calibration roller

186: Between Connections188: Air Cylinder

190: shaft 192: guide rod

194: screw rod 195: handle

196: Moving piece 198: Detection sensor

200: accumulator 202: frame

204: side plate 206: guide rod

208: handle 210: screw rod

212: cutting machine 214: moving object

216,218: cutting blade 220: shaft

222,226 Timing pulley 224 Shaft

228: belt 230: shaft

232,234: Gear 236: 4th guide roller

238: seventh guide roller 300: the accumulation portion

302: frame 304: support

206: secondary drive drawer roller 308: join roller

310: driving pulley 312: reducer

314 pulley 316 belt

318: J-Box 320: tension adjustment roller

322: The eighth guide roller 323: Worm

324: Combined Roller 326: 9th Guide Roller

400: alignment winding unit 402: frame

404: rubber roller 406: 10th guide roller

408: direction change roller 410: support frame

412: winding roller

The present invention is mainly coated and processed to fabrics made of synthetic yarns, such as tents or tents, and spread the wrinkles of the fabric while sequentially withdrawing the fabric from the large-capacity fabric beam wound in roll state, at the same time This drawer is supplied so that the position of the fabric to be supplied is always passed to a constant position. When the position of the fabric is adjusted, the cutting part (uncoated part) of the fabric is cut using a cutting machine, and then cut into the winding beam again. The present invention relates to a device for cutting and aligning winding of fabrics to improve the production efficiency and increase the merchandise, and to reduce the manpower in the cutting and winding work of the fabric.

In general, fabrics widely used as tents, tents, or bags are mainly woven using synthetic yarn, and the finished fabrics are dyed, water-repellent, waterproof, coated, etc. Is rewound in the roller beam.

However, the fabric wound on the roller beam is not wound evenly aligned on the roller beam and is zigzag.

In addition, the fabric can not be neatly wound on the roller beam because the debris of the fabric is woven thicker than the other parts, if the winding is neat winding is difficult because the volume of the debris becomes too large.

Therefore, the finished fabric is often rolled out after winding on the roller beam arbitrarily, in this case, the appearance of the product is not neat and bulky need not be large, the marketability is inferior.

In addition, the debris portion of the fabric to increase the volume of the wound fabric without need is formed pin pins of the clip for holding and fixing the fabric during the processing process, and also the cut portion is not processed during the processing process, so It must be removed and must be cut at the time of export.

Recently, in order to correct the above problems, the processing is completed and the fabric wound in the roll state is released on one side, and on the other side, the worker places the cutting knife on the side of the winding beam so that the edge of the fabric is cut. There is also a way.

However, this method is a reality that the operator can not cut neatly cut the deformed part of the fabric is irregularly supplied, and also because the fabric is not wound up in a aligned state satisfactorily to be rewound.

In view of the above problems, the present invention sequentially pulls out the rolled fabric wound in a random (zigzag) shape, and adjusts the left and the position of the fabric in the position correction section so that the fabric passing through the center portion is located behind the position correction section. In the equipped cutting part, the toilet part of the fabric is cut, and the fabric in which the toilet part is cut is moved back to one side and moved to the accumulator part, and then aligned on the beam in the alignment winding part by the operator's operation. It is for the purpose of being wound up.

In order to achieve the above object, the present invention constitutes a toilet cutting and sorting winding apparatus, and the toilet cutting and sorting winding apparatus is largely divided into a position correction part and a cutting part, an accumulation part, and an alignment winding part from the front.

In the position correction section, the processing fabric in the zigzag rolled state passes through the primary drive take-out roller, and then passes through a pair of primary calibration rollers and primary sensor which are located at the lower side, to roughly center the fabric.

After the first calibration roller passes through the expansion roller, the second calibration roller, and the sensing sensor, the position of the fabric is adjusted secondly, and the complete positioning of the fabric is completed.

At this time, the fabric passes the 1st and 2nd calibration rollers and the sensing sensor, and when the position of the fabric is biased to the left and right, the sensing sensor immediately detects and activates the hydraulic cylinder and the position of each calibration roller by the operation of the hydraulic cylinder. Rotate to the right to correct the position of the fabric.

Each sensor located behind each of the calibration rollers can be moved in and out according to the width of the fabric, and the primary drive take-out roller rotates by receiving the power of the motor and supplies the processing fabric in roll state to the calibration roller. It serves to serve as, and the take-out of the raw material supplied to the calibration roller is moved by the secondary drive take-out roller installed in the accumulation portion.

Ideally, the primary calibration rollers installed in the position correction are positioned vertically on the vertical frame to adjust the position of the fabric, and the secondary calibration rollers are ideally used horizontally on the transverse frame.

With the same configuration and action as above, the processing fabric is completely fed out to the rear to cut the pin marks or uncoated debris of the clip generated during processing at the cutting portion.

That is, the supplied fabric is cut only by the cutting edge of the cutting unit and the cutting blade of the cutting machine is adjusted to the width of the fabric on the left and right sides.

The cutting blades installed in the left and right cutters consist of a pair of roller cutting blades, upper and lower, and the pair of cutting blades are cut by the pair of cutting blades. A pair of cutting blades will rotate.

The left and right cutters provided in the cutting unit are configured to be adjustable in position by the operation of the adjusting knob configured on one side.

The fabric cut in the cut part is supplied to the accumulation part again, and the movement of the fabric is moved by the secondary drive take-out roller.

The fabric supplied to the accumulator by the secondary drive take-out roller was dropped into the J-box located in the lower part of the roller and piled up in zigzag, and the fabric loaded in the J-box was supplied to the upper guide roller by the operator's operation again. After the lowering, it is configured to rewind in a state aligned evenly on the roller of the alignment winding unit formed on one side of the accumulation unit.

In carrying out the present invention configured as described above, in some cases, the processing fabric may be cut and passed through the position corrector, and then immediately supplied to the alignment winding unit, and the position of the processing fabric may be adjusted. It can also be used by passing through the alignment winding section without cutting the next toilet section.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings.

1 is a schematic configuration diagram of the apparatus of the present invention, and is largely divided into a position correcting unit 100, a cutting unit 200, an accumulating unit 300, and an alignment winding unit 400. As shown in FIG.

2 is a side configuration diagram of the position correction unit 100 and the configuration of the position correction unit 100 is as follows.

A pair of longitudinal frames 102 are disposed to face each other at a predetermined interval, and the protrusions 104 are projected to the front upper end of the longitudinal frames 102, and the first guide roller 106 is attached to the protrusions 104. A mandrel is provided, and the shaft bar 108 is provided in the mandrel of the front guide part 104 of the 1st guide roller 106.

A fixing piece 110 is formed inside the shaft 108, and a pair of tension adjusting rollers 112 and 114 are formed at both ends of the fixing piece 110, and a worm gear 116 is disposed outside the shaft 108. ), A worm 118 that engages with the worm gear 116 is provided below, and a handle 122 is formed at the shaft end of the worm 118.

The support frame 124 is provided on the upper end of the vertical frame 102, and the primary drive take-out roller 126 is mandrel mounted on the vertical frame 302 between the support frames 124, and the pressure roller ( 128, the primary drive take-out roller 126 is pressurized by the weight of the pressure roller 128.

A drive pulley 130 is installed in the outer side of the primary drive take-out roller 126, and the drive roller 130 has a pulley 134 and a belt () of the reducer 132 configured behind the primary drive take-out roller 126. 136, the reducer 132 is operated by the drive of the motor (M) installed on one side, the primary drive take-out roller 126 is configured to rotate.

The transverse 138 is installed inside the vertical frame 102, and the operating intervals 140 and 142 are respectively installed on both sides of the transverse interval 138, and at the ends of the operation intervals 140 and 142. The fixed rod 148 equipped with the first calibration rollers 144 and 146 is vertically connected, and the air cylinder 152 installed in the transverse 138 is connected to the connection rod 150 configured at one side of the operation 142. When the air cylinder 152 is operated by connecting the shaft rods 154, the first calibration roller 144, 146 is configured to move left and right.

Fixing rod 156 is installed to protrude below the first calibration roller 144 and 146, guide rod 158 and screw rod 160 are respectively installed in fixing rod 156, and guide rod 158. ) And the moving rod 162 is installed on the threaded rod 160, and the moving piece 162 is equipped with a detection sensor 164 composed of a light transmitting unit, and a handle 166 is formed at one side of the screw rod 160. Rotating the handle 166 is configured to move the position of the sensor 164 inward, outward.

The second guide roller 168 and the third guide roller 170 are freely installed at the lower end and the upper end of the vertical frame 102, and are directly opposite the third guide roller 170 with the central portion of the roller as a starting point. The spreading roller 172 is provided with a spiral portion in the direction, and the fourth guide roller 174 is provided behind the expanding roller 172.

Another transverse frame 178 is installed in front of the vertical frame 102 in which the fourth guide roller 174 is installed, and another transverse 176 is connected on the transverse frame 178, and the left side of the transverse 176 is provided. The operation sections 180 and 182 are configured on both right sides, and the second calibration roller 184 is rotatably connected to the end of the operation sections 180 and 182.

The connecting rod 186 is protruded between the one side operation 182, and the connecting rod 186 is connected to the shaft rod 190 of the air cylinder 188, but the air cylinder 188 is connected to the transverse 176. When the air cylinder 188 is connected to the second calibration roller 184 is configured to rotate left and right.

Guide rods 192 and screw rods 194 are formed at the rear of the second calibration roller 184, and the moving pieces 196 are installed on the guide rods 192 and the screw rods 194, respectively. 196 is fixed to the sensor 198, and by rotating the handle 195 formed on one side of the screw rod 194, the position of the sensor 198 is configured to move inward and outward, the sensor ( 198) The fifth guide roller 199 is fixedly installed at the rear, and the fifth guide roller 199 is made fine so as to widen the fabric passing therethrough.

6 is a schematic perspective view of the cutting unit 200 configured behind the position correction unit 100 and the cutting unit 200 is configured as follows.

The side plate 204 is fixedly installed on the frame 202, and on both side plates 204, a threaded rod 210 having a guide rod 206 and a handle 208 is installed, and the guide rod 206 and b. The ordinary cutting machine 212 is installed on the four sticks 210 so as to be movable.

The cutting machine 212 has a movable body 214 formed in the cutting machine 212 is fitted to the guide rod 206 and the screw rod 210, the motor M1 is installed on the movable body 214, A pair of upper and lower cutting blades 216 and 218 are provided on the lower side, but the driving of the cutting blades 216 and 218 is driven by the power of the motor M1 as shown in FIG.

That is, the timing pulley 222 is installed on the shaft rod 220 of the motor M1 to connect the timing pulley 226 and the timing belt 228 fitted to the shaft rod 224 of the upper cutting blade 216, and the lower portion thereof. Gear shaft 232 is installed in the shaft bar 230 of the cutting blade 218 to engage with the gear 234 fitted to the shaft bar 224 of the upper cutting blade 216, so that the motor M1 operates when Lower cutting blades 216 and 218 are configured to rotate, a sixth guide roller 236 is provided in front of the cutting machine 212, and a pair of seventh guide rollers 238 are provided in the rear. .

The accumulation part 300 formed behind the cutting part 212 is comprised as follows.

9 is a schematic configuration diagram of the accumulator 300, wherein the support section 304 is disposed on the upper portion of the frame 302, and the secondary drive take-out roller 306 is disposed on the frame 302 between the support sections 304. Is rotatably installed, and the secondary drive take-out roller 306 is pressurized by its own weight by placing the pressure roller 308 on the secondary drive take-out roller 306.

The drive roller 310 mandrel installed outside the secondary drive take-out roller 306 is connected to the pulley 314 of the reducer 312 by a belt 316, and the reducer 312 is connected to the motor M2 installed at one side. When the motor (M2) is connected to operate the reducer 312 is rotated, the secondary drive take-out roller 306 is rotated by the rotation of the reducer 312 so that the machining fabric is drawn out.

Below the secondary drive take-out roller 306, its cross-sectional shape is generally J-box 318 is formed in a type, and a pair of tension adjustment roller 320 is provided directly on the J-box 318, the tension adjustment roller 320 and the worm gear 321 configured on one side and The tension is adjusted to the fabric supplied by rotation by the worm 323.

An eighth guide roller 322 is provided above the tension adjusting roller 320, and a pair of compound rollers 324 and a ninth guide roller 326 are provided on the lower frame 302 of the eighth guide roller 322. Is made of rotating material.

At the rear of the accumulator 300, an alignment winding unit 400 is configured, but the alignment winding unit 400 is configured as follows.

That is, the rubber roller 404 is mounted on the frame 402, and the tenth guide roller 406 and the turning roller 408 are installed behind the rubber roller 404, and the turning roller 408 is left and right. On the support frame 410 configured on the right side, a pair of winding rollers 412 is formed.

Unexplained sign

(A) is the processing fabric

10, the roller is a processing fabric wound

12 is the saddle

14 is a winding beam.

According to the present invention configured as described above, a processing fabric A in a roll state wound in an arbitrary (zigzag) roll on the roller 10 after completion of the processing in the preceding step (processing step) is placed in the position of the arranging unit 100 in front of the positioning unit 100. After mounting on (12), the processing fabric (A) is taken out and taken out to the position correcting unit 100, the cutting unit 200, the accumulating unit 300, and the alignment winding unit 400 as shown in FIG. In this case, the processing fabric (A) may be directly connected to the apparatus of the present invention, but if possible, the waste fabric is first connected by connecting a waste fabric such as a defective fabric to the front of the processing fabric wound in a roll state. Working after passing each of the above device parts can reduce the loss of the machining (A).

When operating the machine in the above state, the first drive motor (M1) and the second drive motor (M2) is rotated to operate the reducer 132, 312 and by the operation of the reducer (132, 312) and the belt The primary drive take-out roller 126 and the secondary drive take-out roller 136 connected by (136) 316 are rotated to take out the movable fabric A to the rear, and each drive take-out roller 126 (306) The pressing roller 128, 308 placed on the) pressurizes the processing fabric (A), so the withdrawal of the processing fabric (A) is made without any obstacle.

As the above-described processing method (A) wound around the take-up roller 10 is released, the adjustment of the position of the fabric and the cutting and re-winding of the toilet part proceed as follows.

As the processing fabric A is drawn out, firstly, the tension adjusting rollers 112 and 114 and the first guide roller 106 positioned in front of the longitudinal frame 102 are first driven and taken out rollers 126 and pressure rollers 128. ) Is passed through, and at this time, the processing fabric (A) wound in a rolled state by the rotation of the primary drive take-out roller 126 and the pressure roller 128 is sequentially released, and adjust the tension of the released fabric If you want to rotate the handle 122 of the worm gear 116 and the worm 118 meshed with the worm gear 116 is rotated, so that the tension adjustment roller 112, 114 configured on the fixing piece 110 The fabric pulled out by rotating it up or down is tensioned.

The fabric A passed through the primary drive take-out roller 126 is first adjusted in the position of the original fabric (A) in the first calibration roller (144, 146).

That is, the fabric A is passed through the first calibration roller 144, 146, and then directly connected to the second guide roller 168 after passing through the sensor 164, at this time passes through the sensor 164 When the far end (A) is out of the light transmission unit of the sensor 164 or blocked, immediately detect the sensor 164 to operate the solenoid of the pneumatic operation unit (not shown) installed on one side, the operation of the solenoid By operating the air cylinder 152 to rotate the first calibration rollers (144, 146) left and right to adjust the position of the fabric.

For example, when the fabric A exits the light transmitting part of the sensor 164, the protruding shaft 154 of the air cylinder 152 rotates counterclockwise while the operation 142 connected to the shaft 154 rotates counterclockwise. The first calibration rollers 144 and 146 connected to the end of each operation 140 and 142 are lowered while the other operation 140 is rotated clockwise as well. When the fabric A is passed through the fabric A in this state, the fabric A which is out of the sensing sensor 164 is gradually moved toward the sensing sensor 164 again.

Contrary to the above, when the far end A completely blocks the light transmitting part of the sensor 164, the air cylinder 152 operates as described above to detect the positions of the first calibration rollers 144 and 146. Since the far end (A) is supplied after positioning the sensor 164 lower, the far end that is biased toward the sensing sensor 164 is gradually moved to the opposite side of the sensing sensor 164 to adjust its position.

The processing fabric A whose position is primarily adjusted in the first calibration rollers 144 and 146 is the second guide roller 168 and the third guide roller 170 installed at the bottom and top of the vertical frame 102. Through the third guide roller 170 and the processing fabric (A) passing through the feed through the feed roller 172 and the fourth guide roller 174 installed on the lower side sequentially, and the third guide roller The processing fabric (A) that has passed 170 is completely unfolded wrinkles of the processing fabric (A) by the expansion roller 172 is formed spirally opposite to each other from the center.

The processing fabric A passing through the fourth guide roller 174 is supplied to the fifth guide roller 199 through the second calibration roller 184 and the sensor 198 configured at the rear, and at this time, the second calibration roller 174. The position of the processing fabric A is secondarily corrected by 184 and the sensor 198 and is supplied to the cutting unit 200 in a neatly aligned state.

Position calibration of the processing fabric (A) by the second calibration roller 184 and the sensor 198 described above is made as follows.

That is, when the fabric A passes through the second calibration roller 184 and passes through the light transmitting part of the detection sensor 198, and then exits the light transmitting part of the detection sensor 198, the solenoid of the pneumatic operation part is immediately operated to Since the axial rod 190 of the air cylinder 188 installed in the connecting rod 184 of the 182 protrudes, the operating rod 182 rotates in the clockwise direction, and thus the second drive connected to the end of the operating rod 182. The roller 184 also rotates in the clockwise direction of the sensor 198, and when the fabric A passes in the above state, the fabric A that is biased toward the sensor 198 is gradually detected. 198).

Therefore, the air cylinder 188 operates according to the position where the processing fabric A passes through the detection sensor 198 to immediately modify the position of the processing fabric A, and the processing fabric A is the sensing sensor ( The air cylinder 188 does not operate because it is a normal state when passing through the light transmitting part of the block 198 halfway.

In the same manner as described above, when the processing fabric A is secondarily corrected in position, the processing fabric A passing through the fifth guide roller 199 almost passes through the correct position. In this case, the fifth guide roller 199 ) Is in the part where the fabric is in contact with, the center portion is slightly protruded, and is relatively low at both ends, so that the cutting part 200 is precisely cut by supplying the wrinkles formed in the passing fabric to the cutting part 200 completely. It becomes possible.

The processing fabric A, whose position is completely corrected by the first and second calibration rollers 144, 146, 184 in the position correction unit 100, is cut through the sixth guide roller 236. ) And the fabric supplied to the cutting unit 200 is cut by the upper and lower cutting edges 216 and 218.

The cutting part 200 of the cutting fabric A is cut at the cutting part 200, while the processing fabric A is supplied to the cutting machine 212 configured at both sides of the cutting part 200, and is installed at the cutting machine 212. It is supplied between the cutting blades 216 and 218, and the edge part is cut | disconnected by operation of the upper and lower cutting blades 216 and 218, therefore.

At this time, the cutting machine 212 can be adjusted according to the straight width of the processing fabric (A) is supplied, this adjustment is the screw rod 210 is rotated by rotating the adjustment knob 208 configured on one side of the cutting unit 200 Thus, the movable body 214 is adjusted by moving inward or outward along the guide rod 216.

The processing fabric A, in which the cutting part is cut in the cutting part 200, is fed out to the storage part 300 again through the seventh guide roller 238.

That is, the fabric passing through the seventh guide roller 238 is forcibly drawn out by the second drive take-out roller 306 that is driven by the power of the motor M2, and is configured on the top of the second drive take-out roller 306. The pressure roller 308 presses the processing fabric A passing through the secondary drive take-out roller 306 to the weight of the pressure roller 308, so that the withdrawal supply of the raw material is supplied by the rotation of the secondary drive take-out roller 306. It is to make it smooth.

The fabric A passed through the secondary drive take-out roller 306 falls down to have a cross section. In the J-box 318 which is a type, it is sequentially stacked.

The cross-sectional configuration of the J box 318 The mold is configured to allow the fabric passing through the secondary drive take-out roller 306 to be sequentially loaded in a zigzag fashion without being tangled, so that a larger amount of fabric is loaded into the J-box 318.

By allowing the fabric to be loaded in the J-box 318 as described above, even if the worker leaves the alignment winding unit 400 for a while, the fabric supplied in the meantime may be loaded in the J-box 318 to proceed to the next operation. .

In this case, the fabric loaded in the J box 318 may be directly supplied to the alignment winding unit 400 without being loaded in the J box 318.

The fabric supplied to the J-box 318 falls back to the eighth guide roller 322 through the tension adjusting roller 320 located directly above the J-box 318, and starts from the eighth guide roller 322. The fabric (A) is lowered again and supplied to the rubber roller 404 of the alignment winding unit 400 through the composite roller 324 and the ninth guide roller 326, the raw material supplied to the rubber roller 404 Is fed back to the take-up roller 412 through the tenth guide roller 406 and the turning roller 410 and the processing fabric is neatly aligned in the take-up beam 14 placed on the take-up roller 412. It is rewinding.

Therefore, the present invention is to correct the position of the finished fabric through the first and second calibration rollers (144, 146, 184) of the position correction portion 100, and the fabrication state (A) in the corrected position By cutting the edge portion of the cutting unit 200, and the re-winding the processing fabric (A) is cut and aligned in a state aligned neatly on the winding beam 14 in the alignment winding unit 400, the productability of the product In addition to improving the efficiency, it is possible to save a lot of time and manpower in the cutting work of the raw dies.

Claims (3)

The primary drive take-out roller 126 which is driven by the operation of the motor M at the upper end of the vertical frame 102 is constituted, and a pair of operation sections 140 and 142 are connected to the transverse section 138 configured at the lower end thereof. However, the fixed rod 148 is vertically connected to the ends of both operation sections 140 and 142, and the pair of upper and lower first calibration rollers 144 and 146 are rotatably connected to the fixed rod 148. , By connecting the air cylinder 152 to the center of the one-side operation 142 to adjust the position of the first calibration roller 144, 146 by the operation of the air cylinder 152, the first calibration roller 144 146 is formed at the bottom of the sensing sensor 164, and detects the position of the fabric (A) passed by the operation of the sensor 146 to operate the air cylinder 152 is supplied to the processing fabric (A) ) And the first calibration roller 144, 146 to connect the two sides of the operation (180, 182) on both sides of the transverse 176 configured in the rear, but between the two sides of operation (180, 182) At the end of the second calibration roller 184 Rotatably connected, connecting the air cylinder 188 to the center of one side operation 182, and installing the sensor 198 behind the second calibration roller 184, the position of the processing fabric (A) to pass through The fabrication process is made to sense, and the secondary cylinder to operate the air cylinder (188) by the operation of the sensor 198 to correct the position of the processing fabric (A) passing through and then to be supplied to the winding winding configured to the rear Toilet cutting and staggering winding device. The guide rod on the side plate 204 of claim 1, wherein the frame 202 is opposed between the position correction unit 100 and the alignment winding unit, and the side plates 204 are fixedly installed on both side frames 202. (206) and the screw rod 210 formed with the adjusting knob 208 is connected and installed, the movable body 214 and the upper and lower cutting blades (216, 18) on the screw rod 210 and the guide rod 206. By installing a conventional cutting machine 212 consisting of, the cutting edge and processing equipment of the processing fabric was configured to be cut so that the cutting edge of the processing fabric (A) passed. According to claim 1 or 2, the frame 302 is installed upright in front of the alignment winding, the secondary drive take-out roller 306 is rotated by receiving the power of the motor M2 on the frame 302, The cross-sectional shape is generally located directly below the secondary drive take-out roller 306. A die cutting and alignment winding device of a processing fabric, in which a processing fabric (A) provided with a mold-type J box (318) and drawn out from the secondary drive take-out roller (106) is configured to be zigzag loaded in the J box (318).