JPH0345756A - Stopper device for cloth-pressing means of circular knitting machine - Google Patents

Abstract

PURPOSE:To surely keep a cloth-pressing means at a prescribed position by protruding a stopper for keeping a cloth-pressing means when an extraction apparatus is separated from the extraction-starting position. CONSTITUTION:When an extraction apparatus begins to extract divided shafts 11B (11A is not shown) in the delivery of a wound fabric 6A, a stopper 129 is protruded interlocking with the motion of the extraction apparatus. The cloth-pressing means 180 is surely held with the stopper 129 in the case of delivering the wound fabric 6A by extracting the divided shafts and, accordingly, the unstable swing and the interference with the winding shaft can be prevented.

Description

DETAILED DESCRIPTION OF THE INVENTION (Field of Industrial Application) The present invention relates to a stopper device for a fabric pressing means of a circular stockinette knitting machine.

(Prior art) A stockinette circular knitting machine is knitted using a pair of left and right support frames that rotate and stop in synchronization with the WR control means and a can bottom means, as disclosed in Japanese Patent Application Laid-Open No. 63-59459. The winding shaft is provided with a winding shaft for winding the circular knitted fabric, and a fabric pressing means for pressing the fabric wound on the winding shaft, and a pair of left and right split shafts constituting the winding shaft when the rolled fabric is taken out. Some are equipped with a pulling device that pulls out the rolled material.

In this type of circular knitting machine, the presser means is usually provided with a presser member, such as a presser roller, at the tip of a support arm that is swingably supported on a shaft, etc., and when the rolled fabric is taken out, The holding means is adapted to swing toward the winding shaft.

(Problem B to be solved by the invention) However, in the past, there was no means for regulating the movement of the presser when taking out the rolled fabric, so the position of the presser was not constant and the fabric hanging from the knitting means could be prevented. There are drawbacks such as the work of pressing and winding onto the next winding shaft becomes cumbersome, the holding means interferes with the winding shaft and is damaged, or it becomes difficult to insert the split shaft.

In view of such conventional problems, an object of the present invention is to make it possible to reliably restrict the presser means to a predetermined position by using a stopper that is interlocked with the extraction device.

(Means for Solving the Problems) The present invention provides a winding shaft 11 for winding the circular knitted fabric 6 knitted by the knitting means, between a pair of left and right support frames 10 that rotate and stop in synchronization with the knitting means. , and a fabric pressing means 180 that presses the fabric 6 wound up on the winding shaft 11, and a pair of left and right split shafts 11A, IIB that constitute the winding shaft 11 when the rolled fabric 6A is taken out. In a stockinette circular knitting machine equipped with a pulling device 29 for pulling from
A fabric pressing means 180 is attached to the winding shaft 11 on the support frame 10.
A stopper 129 is provided to prevent interference with the pull-out device 29, and when the pull-out device 29 leaves the first pull-out start position,
the stopper 129 so that the stopper 129 protrudes.
and the extraction device 29 are linked together.

(Function) When taking out the rolled fabric 6A, the pulling device 29 pulls the dividing shaft 1
When pulling out 1A and IIB begins, the stopper 129 projects in conjunction with the pulling device 29. Therefore, even if the dividing shafts 11A and IIB are pulled out to take out the winding fabric 6A, the fabric pressing means 180 is reliably regulated by the stopper 129 and will not swing unstably or interfere with the winding axis 11. There isn't.

(Example) Embodiments of the present invention will be described below based on the drawings.

Referring to FIG. 1, a circular knitting machine 1 for knitting stockinette fabric is shown, which includes a thread 2 feeding means 3, an upper hook 4 and a lower hook 5.
The machine is equipped with a knitting means consisting of a knitting means, etc., and knits a cylindrical nine-knit stockinette fabric 6 and sequentially sends it downward in a hanging pattern.

A winding device is provided below the circular knitting machine 1, that is, below the knitting means, and which rotates around the vertical axis and stops in synchronization with the knitting means.

The winding device 7 includes a winding base 9 having a built-in ring gear 8 that is rotatable on a horizontal plane, a pair of left and right support frames 10 whose upper ends are fixed to the ring gear 8 and extend downward, and a lower part of the support frame lO. It has a winding shaft 11 installed in the horizontal direction and rotating around the axis, and the cylindrical fabric 6 inserted into the ring gear 8 is wound around the winding shaft 11.

That is, the ring gear 8 of the winding device 7 is rotated and stopped in synchronization with the knitting means of the circular knitting machine 1, so that the pair of left and right support frames IO are rotated and stopped.
Moreover, the winding shaft 11 which is pivotally supported by the support frame 10
The fabric 6 rotates around this axis and is sequentially knitted into a cylindrical shape so that the fabric 6 hanging downward can be wound into a roll without twisting.

The winding base 9 is supported by three supporting legs 12, and the fabric wound into a roll can be carried out from between the three supporting legs 12 from the winding device.

The winding device 7 has a fabric feed roller 13 on the upper side of the support frame 10, and the winding shaft 11 is mounted between the support frames 10 below the feed roller 13.

This winding shaft 11 has a pair of left and right split shafts 11A and IIB.
As shown in FIG. 2, the outer peripheral end portions are supported by the lower ends of the left and right support frames 10 via slide bearings 14, bearing boxes 15, etc. that are capable of transmitting rotational force. A transmission sleeve 17 in which the slide bearing 14 is fitted and engaged by a key 16 is rotatably fitted in the bearing box 15 via two radial bearings 18 and a thrust bearing 19. And, at the opposing inner ends of the left and right transmission sleeves 17,
A flange 20 is provided to support the thrust bearing 19.
A sprocket 21 for driving a winding shaft is fixed to the opposite end surface of the flange 20, and a chino 22 is wound around the sprocket 21 for driving the winding shaft.

A pulling device 29 is provided at each outer end of the redividing shafts 11A and 11B.
A retaining flange 23 to which the engaging tool 30 is removably engaged
A cylindrical body 24 is fixed with bolts 25.

Reference numeral 26 denotes a winding interlocking shaft, which is located directly below the rear end of the fabric feed roller 13 and has a bearing 27 between the left and right support frames 10.
A sprocket 28 for interlocking the left and right is fixed in the vicinity of the left and right support frame io in correspondence with the sprocket 21, and the chain 722 is wound around it. There is.

Further, one end of the winding interlocking shaft 26 is connected to the right support frame 1.
0, and a sprocket 31 is fixed to the shaft end. This sprocket 31 is the third sprocket.
As shown in FIG.
3 is a large diameter gear 35 fixed to this, a small diameter gear 37 and a large diameter gear 38 fixed to an intermediate shaft 36, a reduction means 41 consisting of a small diameter gear 40 loosely fitted to a human power shaft 39, and a constant speed reducer on the input shaft 39. It is operatively connected to the input shaft 39 via a torque transmission means 42 . Note that the shaft 33°36.39 is rotatably supported by the right support frame 10 via a bearing. The input shaft 39 is connected to a transmission shaft 48 via bevel gears 43 and 44, and this transmission shaft 48 is vertically attached to the outer surface of the right support frame 10 via bearings 49 and 50, and has a transmission sprocket at its upper end. 51 is wedged.

The transmission sprocket 51 is located inside and engaged with an annular chino 54 attached to the lower surface of the winding base 9 via a suspension bracket 52 and a support ring 53, and is engaged with the annular chino 54 that rotates the support frame 10. The movement causes the transmission sprocket 51 to be rotated by the fixed annular chino 54.

As shown in FIGS. 5 and 6, the fabric feed roller 13 is composed of three rollers 13A, 13B, and 13C, and the center roller 13B is mounted between the left and right support frames 10, and the front and rear rollers 13A , 13C are mounted on an axis via a slide block 58 that slides in the front-rear direction and whose position can be adjusted, and by driving the central roller 13B, the front and rear rollers 13A and 13C are rotated through the fabric. There is. Then, the central roller 13B is
6, a ring sprocket 6 is attached to the outer periphery of the shaft portion 59 extending outward from the left support frame 10.
0 is fixed to a one-way clutch 61 (a clutch that transmits power only in the winding direction), and a chain 762 is wound around the ring sprocket 60. This check 762 has a roller 13 attached to the support frame 10 on the left side.
It is wound around a sprocket 65 which is wedged around a horizontal shaft 64 which is located directly below B and is rotatably supported via a bearing 63. A large-diameter gear 66 is wedged on the other end of the horizontal shaft 64, and this large-diameter gear 66 is connected to a small-diameter gear 46 and a large-diameter gear 4 fixed to the intermediate shaft 45, as shown in FIG.
7. It is operatively connected to the input shaft 55 via a deceleration means 57 consisting of a gear 56 etc. which is loosely fitted to the input shaft 55, and a constant torque transmission means 63 on the input shaft 55. In addition, the shafts 45, 5
5.64 is rotatably supported by the left support frame 10 via a bearing. The input shaft 55 is a bevel gear 67
．． 68 to a transmission shaft 69, and the transmission shaft 69 is connected to a bearing 70 on the outer surface of the left support frame IO.
A transmission sprocket 72 that meshes with the annular chain 54 is wedged at the upper end of the sprocket 71 . Therefore, the rotational power of the transmission sprocket 72 rolling on the circumferential surface of the annular chino 54 as the ring gear 8 rotates is transmitted to the constant torque power transmission means 63 via the transmission shaft 69 and the bevel gears 67 and 68. Ru. The power that has passed through the constant torque power transmission means 63 is transmitted through each gear of the reduction means 57, through the sprocket 5, the chain 762, the ring sprocket 1-60, and the one-way clutch 61, and then to the intermediate portion of the fabric feed roller 13. Shaft portion 59 of roller 13B
As mentioned above, the fabric feed roller 13 is rotated at a constant torque.

In this way, power is transmitted to the winding shaft 11 and the fabric feeding roller 13 through separate drive lines.

Incidentally, reference numeral 73 denotes a manual handle, which is wedged at both wheel ends of the fabric feed roller 13B, and is used when removing walnuts from the fabric. 74 to 77 are idle sprockets.

As shown in FIGS. 8 to 11, at opposite ends of the subdivision shafts 11A and IIB, distal shaft portions 89.90 incorporating retaining means are connected by poles 91.92. ,
Opposing end surfaces of the tip shaft portions 89 and 90 are concentrically abutted against each other.

The engaging means 88 is constructed as follows.

That is, a tapered engagement portion 93 whose diameter is reduced toward the tip is formed in the tip shaft portion 89 of one split shaft 11A, and an opposing end surface is formed in the tip shaft portion 90 of the other split shaft 11B. On the other hand, an engagement member mounting base 96 on which a set of four engagement members 94 is rotatably mounted in the radial direction around the pin 95 is attached by a bolt 97 to the engagement member 94 at the tip end of the engagement member 94. It is fixed with the mating portion 94A protruding from the end surface of the tip shaft portion 90. The engagement member mounting base 96 is a first
As shown in Figure 1, a sliding hole 99 for a sliding rod 98 is provided in the center, and a mounting platen that is approximately V-shaped when viewed from the side is provided on the outside of the sliding hole 99! -100 is taken in four places at equal angles,
The base of the retaining member 94 is fitted between each bracket 100 and is pivotally connected by the pin 95. and,
An engaging member pressing body 101 is formed at the tip of the sliding rod 98 and has a taper that increases in diameter toward the tip, and this pressing body 101 presses the engaging member 94 against the engaging portion 93. It is designed to maintain a consistent state. Note that the taper angles of the engaging portion 93 and the engaging member pressing body 101 are the same, and the tip engaging portion 94A of the engaging member 94 that contacts them also has the same taper angle both inside and outside. It has a face. The sliding rod 98 has the other end 9
8A is the retaining flange 23 provided at the outer end of the split shaft 11B.
It protrudes slightly more than the sliding amount S. Also, a sliding guide 102 in the split shaft 11B and a spring receiver 104 fixed to the sliding rod 98 by a pin 103
A coil spring 105 is fitted between the sliding rod 98 and the sliding rod 98 to constantly bias the sliding rod 98 toward the outer end and press the engaging member 94 against the engaging portion 93 to maintain the engaged state. It looks like this.

An expansion/contraction spring fitting recess 106 is formed on the outer surface of the distal end engagement portion 94A of the retaining member 94, and an expansion/contraction spring 107 formed in a ring shape is fitted into the engagement member 94.
is pressed against the pressing body 101 at all times.

The sliding guide 102 has an annular shape, has the split shaft 11B located at the inner end, and has a bolt 92 for connecting the tip shaft portion 90.
are fixed together by.

The tip shaft portions 89.90 of the split shafts 11A, IIB are provided with rectangular through holes 108, 109 in their peripheral walls, respectively, and the clothing 110.111 is inserted into the through holes 108, 109.
It is fitted in such a way that it can be moved in and out. This clothing 110.11
1, as shown in FIG.
14,115 are implanted, and the base 112,113
Pins 116 and 117 are installed on the fork portion of the fork, and cams 118 and 119 for advancing and retracting are fitted into diagonals 4120 and 121. Then, the cam 119 inside the split shaft 11B
is connected to the middle of the sliding rod 98, and when the sliding rod 98 slides, that is, when the retaining member 94 is in the expanded and engaged state, the needle 115 protrudes, and when the engaging member 94 is in the contracted/closed/disengaged state. The needle 115 is retracted at .

Further, the cam 118 in the other divided shaft 11A is connected to the divided shaft 1
1A, it is fixed to the inner end of a sliding loft 123 that slides in the axial direction while being guided by an annular sliding guide 122 that is fixed together with the tip shaft portion 89 by a bolt 91. This sliding rod 123 has an outer end that is connected to the split shaft 11^.
outwardly from the retaining flange 23 attached to the outer end of the
A spring receiver 12 is projected longer than the sliding amount S of the sliding rod 123 and is fixed to the rod 123 by a pin 124.
5 and the sliding guide 122, the coil spring 1268 is always biased toward the outer end. Therefore, the needle 114 of the clothing 110 is maintained in a protruding state at all times, and is retracted by pushing the sliding rod 123 inward.

The fabric 6 to be wound onto the winding shaft 11 is constantly pressed against the winding shaft 11 by a fabric pressing roller 126 during winding. The presser roller 126 is rotatably supported between the lower ends of a pair of left and right support arms 127, and the upper end of the support arm 127 is relatively rotatably supported on the winding interlocking shaft 26 via a bearing. It is urged toward the winding shaft 11 by a spring 128 suspended between each support frame 127 . Note that the presser roller 126 and the support arm 1
27, the spring 128 constitutes a dough pressing means 180.

On the other hand, each support frame 127 has a presser roller 126 on the winding shaft 11 when the rolled fabric 6A on the winding shaft 11 is taken out.
A strike to prevent interference with 1.

There is a par of 129. As shown in FIG. 12, the stopper 129 has an L-shape and is connected to the brackets [314
It is pivotably supported by this and is biased in the protruding direction by a spring 133 hung between it and a bolt 132. The stopper 129 is a cylinder 13 fixed to the support frame IO.
The support arm 12 is
It can be operated so as not to come into contact with push rod 1.
35 is urged outward by a spring 136, that is, in the direction in which the stopper 129 protrudes. push rod 13
A cam roller 137 is provided at the outer end of 5. Further, an inclined surface 138 is formed at the tip of the stopper 129 so as to allow the support arm 127 to be driven in a direction in which the presser roller 126 moves away from the take-up shaft 11 .

The extraction device 29 is constructed as shown in FIGS. 13 to 15. That is, in FIGS. 13 to 15, reference numeral 139 denotes a bracket that supports the pair of upper and lower engagement tools 3o, and is attached to the support stand 140. Reference numeral 141 denotes a movable frame, which has a pair of left and right upright plates 142. Between the upright plates 142, two guide rods 143 and 144, front and rear, and screw shafts 145 and 146 arranged between them are connected to the axis of the split shaft 11A11B. It is constructed 2 Mi above and below parallel to the center. The support stand 340 is slidably supported and guided by the upper guide rod 143, and the female screw body 147 is attached to the upper screw shaft 145.
The split shafts 11A and IIB can be pulled out and pushed in by forward and reverse rotation of the screw shaft 145. The lower guide rod 144 is slidably supported by a guide portion 149 of the fixed frame 148, and the lower screw shaft 146 is screwed into a female screw body 150 of the guide portion 149. The threaded shafts 145 and 146 have reverse threads, and meshing gears 151 and 152 are wedged at their outer ends. The lower screw shaft 146 is sprocket 1
53, this sprocket 153 has a chain 154
It is interlocked and connected to a sprocket 156 of a motor (drive device) 155 with a reduction gear. Therefore, motor 15
If 5 is rotated forward or reverse, sprocket 156, chain 154, sprocket 153, gear 152.15
1, screw shafts 145 and 146 rotate in opposite directions to each other, and the support base 140 and movable frame 141 can be moved in the same direction. The motor 155 is attached to the upright plate 142 of the movable frame 141 via a bracket 157.

As shown in FIGS. 13 to 17, the bracket 139 has an insertion opening and a throat 1 when the retainer 30 is at the pulling start position where it engages with the flanges 23 of the split shafts 11A and 14B.
The cam body 15 is arranged so that the cam roller 137 of 35 can be operated.
8 is attached to the upper surface via a spacer 159, and a cam body 160 for pushing in the sliding rod 123 and releasing the retaining means 88 etc. is attached to the bracket 161 and the port 16.
2 on the front side, and switch 1 on the side.
A cam body 166 for operating 63, 164, 165 is attached. The switch 163 is at the pulling start position;
The switch 164 is for detecting the intermediate position, and the switch 165 is for detecting the complete withdrawal position.

Bearing box 1 that supports the split shafts 11A and 11B
5, a side plate 166 at the outer end is provided with a mechanism 167 for preventing the split shaft 11^ from coming off, as shown in FIGS. 3 and 5.

This retaining mechanism 167 has a guide hole 167 in the side plate 166.
, a retaining frame 169 that is vertically slidably supported via bolts 168, etc., a retaining roller 170 provided on the retaining frame 169 to abut against the flange 23A, and a retaining roller 170 attached to the flange 23A. A spring 171 urges the retaining frame 169 to the lowered position where it comes into contact. On the other hand, below the retaining mechanism 167, a push-up body 173 is provided at the upper end of a screw shaft 172 to push up the retaining frame 169, and the screw shaft 172 is moved in the vertical direction by a motor 174 on the fixed frame 148 side. Driven. Note that the push-up body 173 is connected to the push-up body 173 from the retaining frame 169.
A switch 175 is provided to output a signal indicating that the retaining mechanism 167 has retained the retainer after a predetermined period of time from the time when the retainer 167 has left the retainer. Further, a switch 176 for detecting the protrusion of the push rod 123 is provided on the bracket 139 of the support base 140.
is attached via a bracket 177.

Next, the operation will be explained. When the winding shaft 11 is in the winding state, as shown in FIG.
B are connected to each other by engagement means, and both shafts 11A, I
Needle 114.11 of clothing cloth 110.111 from the outer circumferential surface of IB
5 stands out. Therefore, the winding start end of the cylindrical circular knitted fabric 6 that has been knitted by the circular knitting machine 1 and sent downward from the circular knitting machine 1 is fixed to the clothing 110 and 111 of the winding shaft 11, and is wound up. Circle axis 11! 411 and wind it up.

When the rolled fabric 6A is fully wound, a cutter (not shown) cuts the end of the rolled fabric 6A, and the motor 174
is activated to push up the retaining frame 169 with the push-up body 173, remove the retaining roller 170 from the flange 23A, and release the retainer by the retaining mechanism 167. After that, the engaging tool 30 of the extracting device 29 is divided. It is engaged with the retaining flanges 23 provided at the outer ends of the shafts LIA and IIB. At this time, the cam body 160 on the front surface of the support body 140 pushes the outer ends of the sliding rods 98 and 123 inward against the elastic force of the coil springs 105 and 126, respectively, so that the clothing 110 and 111 By the operation of 118, 119, the dividing shafts 11A, 11B
At the same time, the pressing body 101 at the inner end of the sliding rod 98 is moved into the dividing shaft 11^ to release the stuck state of the winding start end of the rolled material 6A (the state shown in FIG. 11). In order to enter further, the engagement member 94 is released from the pressure and rotates around the bottle 95 toward the axis by the expansion/contraction spring 107.
It separates from the locking portion 93 and the locked state of both is released. Such an operation is performed instantaneously, and then the retainer 30 is moved outward, and each of the divided shafts 11A and IIB are pulled out outward.

When the motor 155 is rotated in the normal direction during this pulling out, the sprocket 156, chain 154, sprocket 1-153
The screw shaft 146 rotates through the movable frame 141, and the movable frame 141 moves outward with respect to the fixed frame 148. At the same time, the screw shaft 145 rotates via gears 152 and 151, so
The support stand 140 moves outward with respect to the movable frame 141. Therefore, the engagement tool 30 is connected to the movable frame 141 and the support base 140.
, it moves outward, that is, in the pulling direction, and each split shaft 11A, IIB is sequentially pulled out outward.

Then, when the opposing ends of the dividing shafts 11A and IIB are removed from the rolled fabric 68, the rolled fabric 6A falls onto a lower carriage and is taken out. When the support stand 147 moves to the complete withdrawal position, the switch 165 is activated, and the motor 155 is reversely rotated to push the split shafts 11A and IIB in the opposite direction.

At this time, the engaging member 94 and its pressing body 101
3, and both side shafts 11A.

Opposite ends of 11B abut.

On the other hand, before pulling out the split shafts 11A and 11B, the retainer 30
When the lever moves to the pulling start position, the cam body 158 pushes the push rod 135 and the stopper 129 is retracted, but as the engaging tool 30 pulls out the split shafts 11A and IIB as described above, 1. Since the cam body 158 is removed from the push rod 135, the stopper 129 returns to the protruding position. Therefore,
After the dividing shaft 11^, IIB is pulled out from the winding material 6A and the winding material 6A falls downward, the presser roller 126 swings toward the winding shaft 11, but the support arm 127 comes into contact with the stopper 129. Therefore, the presser roller 126 does not approach the take-up shaft 11 any further.

Then, when the engagement tool 30 returns to the pulling start position, the cam body 158 is again moved to the stopper 1 via the pusher tip 135.
29, the stopper 129 is connected to the support arm 1.
27 is released, the presser roller 126 swings toward the take-up shaft Il, and presses the new fabric 6. Note that after this, as the diameter of the material 6A to be wound on the winding shaft 11 increases, the support arm 127 opens against the spring 128, but on the way, it comes into contact with the inclined surface 138 and rotates the stopper 129. , passes through this stopper 129.

Next, after removing the retaining tool 30 from the engaging flange 23, the motor 155 is rotated in the normal direction, and the engaging tool 30 is retracted to a position where the switch 164 is activated. At this time, the sliding rod 98
．． Since the cam body 160 is removed from 123, the sliding rod 9
8.123 are each pushed outward by the spring force of the coil springs 105.126. Therefore, the engaging member 94
are pressed into engagement with the retaining portion 93 by the pressing body 101 and are in a securely connected state, while the clothing 110, 111 is engaged with the retaining portion 93 by the pressing body 101, while the clothing cloths 110, 111 are connected to the shafts 11A, IIB on both sides by the operation of the cams 118, 119.
It protrudes outward from the outer circumferential surface of the winder and becomes ready for winding operation. Subsequently, when winding up the circular knitted fabric 6, the above-mentioned operation may be repeated.

(Effects of the Invention) According to the present invention, the support frame 10 includes the fabric pressing means 1.
A stopper 129 is provided to prevent the winding shaft 80 from interfering with the winding shaft 11, and the stopper 129 protrudes when the two pull-out devices are separated from the pull-out start position side.
Since the stopper 129 and the pull-out device 29 are interlocked, even when the rolled fabric 68 is taken out, the fabric pressing means 180 can be reliably controlled by the stopper 129, and the fabric pressing means 1
Conventional problems such as interference between the winding shaft 80 and the winding shaft 11 can be solved.

[Brief explanation of drawings]

The drawings show an embodiment of the present invention, and FIG. 1 is an elevational front view of a stockinette circular knitting machine, FIG. 2 is an enlarged sectional view of the section ■ in FIG. 1, and FIG. FIGS. 4 and 7 are sectional views of the deceleration means, FIG. 5 is a right side view of FIG. 3,
Fig. 6 is a left side view of Fig. 2, Fig. 8 is a vertical sectional view of the main part of the winding shaft, Fig. 9 is a sectional view taken along line IX-IX of Fig. 8, and Fig. 10 is a - An X-ray sectional view, FIG. 11 is a vertical sectional view of the main part showing the state in which the winding shaft split shaft body is pulled out, FIG. 12 is a sectional view of a part of the stopper, FIG. 13 is a front sectional view of the pulling device,
4 is a side sectional view of the same, FIG. 15 is a front view of the same, FIG. 16 is a plan view of the push rod operating section, and FIG. 17 is a plan view of the sliding rod operating section. 6--Dough, 6A-Wound fabric, 1o-Support frame,
11-Rewinding shaft, 1A, IIB--dividing shaft, 29-pulling device, 30--engaging tool, 126--fabric pressing roller, 127-support arm, 129--stopper, 140
...-support stand, 141, -movable frame, 148-fixed frame, 1
55-motor (drive device), 180--dough pressing means.

Claims (1)

[Claims] (1) A winding shaft (11) for winding the circular knitted fabric (6) knitted by the knitting means, between a pair of left and right support frames (10) that rotate and stop in synchronization with the knitting means; shaft(
fabric pressing means (11) that presses the fabric (6) wound up on
180), and a pair of left and right split shafts (1A
) (11B) from the rolled fabric (6A).
In the stockinette circular knitting machine equipped with
Stopper (129) to prevent interference with
), and the stopper (129) and the pull-out device (29) are interlocked so that the stopper (129) projects when the pull-out device (29) leaves the pull-out start position side. A stopper device for the material pressing means of a circular knitting machine.