JPS58500246A - automatic knot gun - Google Patents

Abstract

(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.

Description

[Detailed description of the invention] automatic knot gun field of invention The present invention relates to automatic application of knots.

Background of the invention Elongated objects, e.g. objects that are potentially dangerous and unsightly if unbound. It may be necessary to tie bundles of cables or wires together. cables to each other One way to tie a flexible Using a plastic knot, thread the tail end of the knot once through the edge of the blade. This is done by sending the cable bundle to mawashi 9.

The manual operation of tying is slow and labor-intensive, so the tying operation is performed automatically. Preferably using a tool.

Conventional technology Traditionally, a pair of claws automatically create a knot that can be closed around a cable bundle. A target gun was proposed. In this gun, the syranger allows the flexible knot to be moved forward. Push the tail end around the loop formed by the claw and the other end of the knot. Push it into the perforated gunokuru. Then pull the tail tightly against the buckle Twist it 90 degrees, lock it in place, and cut off the excess length. The knot is The guns attached to the outside of the gun are supplied one by one from the gun. this species Among the disadvantages of guns, there are also disadvantages caused by the type of knot used. That is, Knots of the "twist and fix" type are over-tensioned and then removed before fixing. must be loosened, which does not always provide satisfactory tension relief or The tail of the tied knot is threaded approximately perpendicular to the length of the knot adjacent to the fastener. It has a knurled end with a perforated buckle. Moreover, the gun Manufactured in sealed units that are heavy, large and cannot be easily handled. It will be done.

Transport the knots one at a time from the magazine set apart from the gun, and transport the other knots first. Other guns have been proposed that are similar to those mentioned. The third machine has separate buckles and A continuous susol of tape is used. None of these machines are used consistently. It was found to be unreliable for use.

Purpose of invention It is an object of the present invention to provide a knot feed mechanism that is reliable, easy to handle and a standard replacement. It is an object of the present invention to provide a tying gun that can incorporate possible components.

Summary of the invention The tying tool or gun provided by the present invention and to be described herein is , connected in a parallel arrangement by integral splices, preferably coiled around the bandolier. It utilizes a belt of knots, or bandolier, which is fed into the pig iron from a replaceable magazine. I am using it. The buckle or head of the knot is formed with a hole that allows the knot to and extends into the buckle across the plane of the body.

In this gun, the knot is a bundle or roll whose tail is initially to be tied from the gun. Before being pushed by the knot 9, the buckle part of the knot (relative to the rest of the knot) ) oriented at 90°. This head orientation occurs after the tail is guided by the bundle mawashi. done to such an extent as to ensure that it is directed into the buckle hole and returned to the gun. .

Brief description of the drawing Embodiments of the invention will now be described by way of example only, with reference to the accompanying drawings.

FIG. 1A shows a portion of the length of a bandolier according to a preferred embodiment, and FIG. 1B shows a section thereof. Top view; Figures 2A to 2D are detailed views of the knot of the preferred embodiment of Figure 1; Figure 3 shows the interior of the open magazine for the belt of Figure 1; Figure 4 shows the interior of the magazine closed. Figures 5A and 5B show the magazine with the Cross-sectional view on B-B; Figure 6 is for use with the ammunition belt and magazine shown in Figures 1 to 5. A plan view of a preferred embodiment of the knotting gun used in the present invention; FIG. Elevated view; Figures 8 and 8A are of the front end of the gun of Figure 6, including the nose ring assembly. Enlarged detailed view; Figure 9 is a configuration diagram of the push rod of the gun in Figure 6; Figure 10 is a cutaway view of the gun in Figure 6. Detailed view of the exchange valve; Figures 11 and 11A show the mechanism in which the knot is fed from the magazine. Detailed view showing the entry area and knot removal assembly of the gun of FIG. 6; and FIG. Figures 12A and 12B relate to the gun knot cutting assembly of Figure 6. FIG.

detailed description Figure 1A has a head and a tail extending from the head, with the free end of the tail being tied when tying. A knot 100 whose head is perforated transversely to the plane of the tail to receive it. A portion of the ammunition belt 80 is shown. This ammunition belt has 500 knots tied in parallel. Each pair of adjacent knots is connected to each other by two integral joints 90. It is connected. The piece 90 is connected to the tail portion 102 of the knot through a groove 92. The groove 92 is a weak point or A line of broken portion 94 is formed.

In use, the knife means of the gun joins generally in line with the longitudinal edge 96 of the breech section 102. Acts to apply cutting pressure to the piece, causing the splice piece 92 to cut generally along line 94. It becomes. Any weak spots or rough areas along the break line should be removed from the entire tail between the longitudinal edges. It does not protrude laterally beyond its width, does not interfere with the operation of the gun, and when tightening the knot. It does not damage the rolls or bundles and preserves the look and feel of the knots used. Do not damage the touch. Figure 1B is a sectional view along line B-B in Figure 1A, and this figure As is clear from the above, the thickness of the joint piece 90 is less than or equal to the thickness of the tail portion 102 of the knotted body 100. be.

The knot 100 is arranged such that the clamp is transverse to the length of the knot 100, that is, in FIG. 1A. As previously mentioned, the head 104 is drilled at 106 at right angles to the plane of view of the This is different from the solid knot body 10. The knotting body 100 is used for the knotting gun shown in FIGS. 6 to 12. This tying gun is used to close the knot around the roll or bundle to be tied. The swivel of the nose ring that is attached acts to push the tied body forward, and the tail part 102 moves into the barrel of the gun. It is then re-entered into the body and passed through the hole 106 of the clamp 104. This hole is for the re-entry tail. Oriented at right angles. Thus, in order to be able to pass the tail 102 through the clamp 104, , when the knot 100 is positioned in the pig iron, it is bent at 90° adjacent to the clamp and clamped. Orient holes 106 appropriately. The knot 100 is bent so that the head of the knot is bent at a required 90°. This can be achieved by pre-forming the knot by bending it. knot When filling the body flat (e.g. into a magazine), the clamp enters the gun and contracts. to obtain the desired orientation. Alternatively, the bending means may be incorporated into the gun or later It may be stated.

The configuration of each knot 100 is shown in FIGS. 2A-D.

Figure 2B is a longitudinal sectional view of the knot, and Figure 2D is a cross-sectional view of the knot along line D-D in Figure 2A. FIG. The tail 102 is formed inside the hole 106 of the clamp or head 104. The serrated tail has serrations 108 that engage the tightened pawl 110 during tightening. Stretch the knotting body through the winding wheel of the roll or bundle to be tied by advancing it through the The threaded tail cannot be pulled out of the clamp.

As shown, the serrations 108 are oriented inwardly into the ring of the tied roll or bundle. is formed on the side of the tail portion 102 that You will understand that it is okay to do so. The knot 100 also has no teeth along its edge. It has a rib 112 which is a part of the hole 106 of the clamp 104. It is housed in a part away from the side of 110.

3-5 illustrate a magazine containing the bandolier 80 of FIG. ammunition belt 8 0 is formed by two parts 122 and 124 hinged at 126 as shown in Figure 3. has been completed. Figure 3 shows the inside of an empty magazine when opened. 2nd part The elongated mouth of the magazine 120 formed when the parts 122 and 124 are closed together. is indicated by 128 in FIG.

The closed magazine 120 generally has a length corresponding to the level of one end of the mouth 128. It has a cylindrical shape with a maximum diameter at an intermediate position 130. The magazine looks like this is formed so that adjacent rotating parts of the clamp are in a juxtaposed relationship rather than an overlapping relationship in a spiral shape. The bandolier 80 of the knot 100 is coiled into a coil. Like this, Maga When the coil is full, one end of the group coil formed by the 01 rotation of the clamp is As shown in FIG. 4, it is housed at the bottom of the magazine. Continuous rotation of the clamp progresses. As the coil is wound around more and more tails, the diameter of the coil increases along the magazine. It reaches its maximum at the level corresponding to the intermediate position 130. This level is the final round of tightening This is the level of the outermost turn of the coil. The end of the ammunition belt 80 is It exits this final turn through the mouth 128. The top of the coil is at the top of the magazine. The number of tails that make up it decreases as we move towards the Second, the diameter decreases.

The magazine mouth 128 allows the knot 100 to attach the magazine from the magazine. When going out into the tied pig iron, the knot 100 is bent 90 degrees adjacent to the head. It is suitable for sea urchins. The purpose of this bending of the knot is to accept the tail as mentioned earlier. This is to pre-orient the clamp in the pig iron. to bend the knot , the opening has a series of five ribs 13, 6, 138 as shown in FIGS. 4 and 5A. , 140, 142, 144. The knot tries to come out of the magazine. During this period, the ribs 136, 138, 140 act on the head of the knot and its adjacent parts. flex the head 90 degrees to the length of the tail. In this case, the tail is rib 142°1 44 to keep it straight and flat. 90 of 100 knots with ribs The manner in which the bend is formed becomes clear from FIG. 5A. FIG. 5A shows the mouth portion 128. This is a cross-sectional view near the exit. In FIG. 5, reference number 146 indicates the passage through which the clamp passed. and 148 is a passage through which the bent portion of the knot adjacent to the clamp passes. rib 1 36 (not visible in Figure 5A) has a large radius gradually moving away from the mouth outlet. Since it is facing a shallow bend, the bending of the knot will cause the knot to advance toward the mouth exit. It develops gradually over time.

In practice, several ties 100 at the ends of the bandolier 80 follow each other. while the magazine is suitably advanced by the indexing means of the gun to which it is attached. It exits from the mouth portion 128. The above-mentioned knife means which acts to join the pieces is a knotter. It is not activated until the tip leaves the magazine, and in any case this knife hand The stage is arranged on the side of said indexing means remote from the mouth of the magazine.

FIG. 5B shows that the bandolier 80 is designed to prevent the bandolier 80 from sliding back into the magazine. A pawl 150 is shown within the mouth 128 of the gazine. The ammunition belt is magaji When indexed outward from the lock, the knot 100 is pulled out above the pawl 150. and fall in front of it.

The gun shown in FIGS. 6 to 12 will be described below. This gun is shown in Figures 1 to 5. The ammunition belt and magazine shown are used. The tool is a push rod 21 that is movable in the length direction. 2, the structure of which is shown in FIG. . The push rod 212 is operated (preferably pneumatically) via a member 214 at the rear of the tool. Piston rod 2 of cylinder/piston assembly (cylinder shown at 218) 16.

The trigger 220 can be actuated in opposition to the return action of the trigger spring 222, and the switching valve 224 is actuated to push the push rod 212 through the piston 216 and the connecting member 214. Drive forward. Additionally, nose wheel actuation rod 226 is connected to members 228 and 230. It is connected to the rear of the tool via a push rod 212. The nose ring 232 is It is normally closed and biased by a screw spring 234 (FIGS. 8 and 8A). ), thereby forcing the actuating rod 226 generally longitudinally forward.

During the initial forward movement of the pusher rod 212, the actuating rod 226 is under the action of the screw syringe. to follow you in the forward direction.

As shown in FIG. 8, in order to completely close nose ring 232, nose ring 232 Only 36 relatively small movements are required. The push rod 212 continues to move forward. Upon closing, member 228 separates from stop pin 230 as the north ring closes.

The front and rear guides for the nose wheel actuation rod 226 are 238 and 240. It is shown. In addition, the member 228 constitutes a valve switching tool (see FIG. 10), which The return longitudinal movement of piston 216 begins at the end of its forward movement. .

At the end of the operating cycle, the cylinder/piston assembly and diverter valve are activated by trigger 220. Therefore, it returns to its original state in which it is ready for further operation. Return movement of push rod 212 In the moving direction, the valve switching tool 228 moves toward the end of the rearward stroke of the push rod when the nose wheel Upon re-engaging the enabling pin 230 and completing its stroke, the actuating rod 22 6 to the rear to open the nose wheel 232 again.

In FIG. 7, reference numeral 242 indicates a handle associated with trigger 220. The number 244 indicates a non-dollar copper. The main body of the switching valve 224 is a non-standard Located within.

After the nose ring 232 has been closed, for example around the bundle to be secured, the push rod 21 The first purpose of continuously moving 2 forward is to fix it with the closed nose ring. Push in the knot that has entered the tool in the channel formed between the bundle. It's for a reason.

), the knotted bandolier in the magazine 248 is shown and described in FIGS. 1-5. It is wrapped around an arm body with an increasing diameter as if it had been wrapped around the body. 1 knot during each operating cycle is advanced from the magazine 248 into the tool and cut from the bandolier. Has a head 252 One such knot 250 is shown in FIG. shown in the initial insertion position into the tool. The knot 250 is attached to its head 252. Approximately 90 bends are made at adjacent points 254 so that the hole in the head is oriented along the length of the tool. You will understand that it will happen.

For indexing and cutting the knot, the tool includes a longitudinally extending indexing rod 2. 56 (see FIG. 11). This indexing rod 256 is connected to the indexing operation cam 2. 62 and rotates freely against the action of a torsion spring on the spindle 260. The index actuating cam is located in the cam drive slot 2 of the push rod 212. Collaborate with 64. During its initial forward movement, push rod 212 rotates index rod 256. The actuator increases the shear force to sever each knot without a bandolier. cam 262 If is fully driven, this working part will also remain fully driven and its tip will be It slides along the side of the push rod 212. Therefore, the indexing rod 256 is the push rod 212. It does not rotate during forward movement towards the end of .

Thus, when the push rod 212 continues to move forward after the nose ring 232 is closed, , the knot 250 is already in its initial position in the tool. Therefore, in front of the push rod The end engages the head 252 of the knot and presses the knot around the closed nose ring. vinegar. During such forward movement, the end of the knot opposite the head (tip) curved downwardly by a sloped section 265 (one of which is shown in FIG. 8). It is designed so that it goes into the channel of the nose ring and into the bundle to the right. Ru.

The front end of the push rod is loaded with a spring that serves both to hold the head and to cut off the knot. Press between the two tabs.

These pawls prevent any backward movement of the knot head as the push rod begins its return stroke. It is prevented. Towards the end of the forward movement of the push rod 212, the tail of the knot is connected to the nose ring. from the front side of the tool casing 210 in a straight line with the perforated head 252. It re-enters backwards and then into the head. The push rod 212 moves further and the head While holding the head and pushing the knot between the claws that also serve as cutting the knot, simultaneously press the tail of the knot. The stroke is completed by engaging the inner end tooth with the striped lug 302. At this time, the push rod 212 starts to move backwards, pushes the tail of the knot, grasps the head, and cuts the knot. The head of the knot is held in place by the claw that also serves as a handle.

In that case, the push rod 212 pulls back the tail of the knot and connects the stripe lug and the tail of the casing. It is held between the chamber root and pulled through the head of the knot to the ratchet stopper in the head. put out. Thus, the teeth of the knot body (tail) are attached to both the internal teeth of the head and the push rod Szorag teeth. engage. Due to this pulling action, the main body of the knotted pot is pulled from between the inclined parts 265 (Fig. 8). Pull out. Note that the distance between the inclined parts is determined by the downward bending of the inner end that occurs during forward drive. The same should be tied slightly so that there is only a slight resistance to the pull-out action during tensioning. It was carefully selected to be no wider than the width of the pot itself. This action puts tension on the bundle. The pressure inside the cylinder increases. The end of the cylinder body has a mounting pin 272. It is attached to the swing arm 268 by. The swinging arm 268 is attached to the bin 27 Nolan Sawyer 28 pivoted to the tool body by 0 and biased by a spring. 2 (attached to arm 268 or It is held by a notched cam 266 (formed integrally with).

The increasing pressure within the cylinder 218 of the cylinder/piston drive causes the knot to be in tension. When applied, the cam 266 is released from the spring-loaded syringe 282. This creates an increasing force on cam 266 that tends to increase the pressure in cylinder 218. When the force increases to a preset predetermined level, the cam 266 releases and the cylinder The swinging arm 266 is brought into contact with the knot-cutting pawl device in a short, sharp movement. Cut off the tail of the knot that protrudes from the hole head. 1 or more channels 2 78 allows the tail of the severed knot to be ejected from the tool. Ru.

The amount of tension applied to knot 250 is adjustable by tension adjustment device 280. , this tension adjustment device is operated by the cam 26 under the pressure of the detent compression spring 284. It is equipped with a notched sylange R282 that engages with 6. This adjustment device 280 The adjustment increases the pressure in cylinder 218 before cam 266 releases from syringe 282. change to a level that must rise.

As the push rod 212 continues to move backward, the indexing rod cam 262 moves toward the push rod. The cam drive slot 264 of 212 is reentered, and this action causes the split Activate the release mechanism to lower the cutting blade 3o8 (described later) to remove the next knot. and advance the new knot into the tool. Between these processes Because of the time lag, the blade 308 is lowered first and the breech is removed before the next knot is moved forward. open. A final reverse movement of the push rod 212 opens the nose ring 232.

Additional details of important parts of the tool mechanism are shown in FIGS. 8-12.

Figures 8 and 8A show details of the tool including the nose wheel assembly. In Figure 8 In this case, the nose ring 232 is shown in the closed position, and the open position is shown in dotted lines.

In FIG. 8A, reference numeral 286 indicates the nose wheel pivot pin; The nose ring is closed and biased by a torsion spring 234 centered on There is. The pivot bin extends through the forward end 246 to the casing 210. (see Figure 7), this casing is preferably made of molded plastic material in one piece. may be formed.

In addition, FIG. 8 shows the inclined part 300 for directing the tail of the knot, the stripe lug 302, and the stripe lug. Compression spring 304 is shown. In the final forward stroke of the push rod 212, When the tail of the knot reaches the head of the knot, the striped lug is compressed by the striped lug compression spring. Therefore, it is biased and the tail of the knot is held.

FIG. 10 shows the switching valve 244, including the relative position of the valve switching tool 290, and the nose ring enabling valve. 23o1 push rod 212, nose wheel operating rod 226 and cylinder 218. It shows additional details. Reference number 288 indicates the spindle for cylinder mounting. are doing.

Figures 11 and IIA show details of the entry area of the tool; through which the knot is advanced from the magazine 24.8. In FIG. 11, reference number 2 90 indicates the mouth of the tool casing 210, and the magazine 248 is attached to this mouth. Accepted during 290.

The outlet of the magazine 248 has an upper lid f292 and a lower lid f294 to , the tip of the bandolier of the knotted body stored in the magazine faces the tool between these lips. It is pulled out. These Rizzo 292.294 are integrated with plastic molded magazines. May be formed in the body. Bearing post 296 is attached to index rod 256 on spindle 260. It supports adjacent portions of the indexing mechanism, including the forward end.

The indexing rod 256 is used for continuous passage of a booster rod that tensions and cuts one knot. During this process, the length of the ammunition belt (in the plane of the drawing) is By moving the index finger 206 that engages the end knot (disposed perpendicular to the direction), Advance it into the filling. The mouth of the magazine is tied and the knot adjacent to the head is approximately 90mm. In order for the knot to assume the state of the knot 250 shown in FIG. 7 during bending, In the illustrated tool, the mouth of the tool itself is bent to bend the knot.

Figure 11A shows the release mechanism, and this release occurs during the reverse stroke of the push rod. The tip knot is indexed into the mouth of the tool by the mechanism, and the front end of the push rod is the knot. during the next forward stroke of the pushrod before engaging the head of the belt. Cut and release The cutting blade 308 is attached to a pair of swing levers 310, and a spring 31 2 (see Figure 7). Cutting blade swing lever 310 is the tip roller attached to the indexing rod that is driven under the cam drive mentioned above. 314.

Figures 12, 128 and B show details associated with the knot tensioning and cutting mechanism. are doing. FIG. 12B shows the mounting of the cylinder 218 to the swing arm 268. This swing arm is pivotably attached to the casing on the spindle 270. It is attached. Reference numeral 316 designates a support for the indexing syringe 282 described above. It shows.

Hereinafter, FIGS. 12 and 12A will be explained.

The knot cutting pawl device consists of a pair of cutting pawls 318, these pawls 3 18 is initially connected to a pawl 320 tensioned by a spring 322. ing. Certain other details of this part of the cutting mechanism are shown in FIG. , a pawl plate 326, an adjustment device support 328, and a pair of spring blades 330. Contains. The pawl 318 is directly opposed to the tension spring 32 by the blade 330. It is held partially open to allow the knot to pass through. At first, the head passes , when the pawl is half-closed, the swinging arm 268 is then released with the desired tension. Shake When the swing arm is released from the cam 266, the cam 269 on the swing arm 268 Cut the tail of the knot under tension against the pawl linkage. Each claw is a pillar It includes a portion 31Bg, blades 318 and a protruding portion 318L. Pillar part 318 soil is It is attached so that it can rotate freely around its own axis, and protrudes in the direction . The streak ring 330 is the protrusion 318! It is pressed against the outer surface near the rear end.

FIG, IB.

7♂ surface H5850024G (8’1 Procedural amendment December 1, 1981 Mr. Kazuo Wakasugi, Commissioner of the Patent Office 1.Display of the incident PCT/GB82100044 2 Name of the invention automatic knot gun , Be, the old man who makes up for it. Connection with the incident Patent applicant Name: Birasoghu Rahman Limited 5, date of amendment order November 9, 1982 0 draw [1 snake's AJ, ■, A'.

Translated international search report of prescribed documents (representative's column) and drawings

Claims (1)

[Claims] 1. an actuating means that initially drives the tail portion forward; and a knot that is driven forward. the body and its tail is advanced in a loop into a roll or bundle. A guide provided at the front end of the tool both towards the perforated head and back through the perforated head. a hole perforated transversely to the length of the tail and knot, comprising: A flexible knot with a rounded head is automatically tied around an elongated roll or bundle. In the tool shown in FIG. 250) laterally into the breech advance ready position within the gun (prior to forward drive). Then, rotate the perforated head (252 in Figure 7) of the knot by 90° relative to the tail. When the tail wraps around a roll or bundle and returns toward the head, The tool is characterized in that the head is oriented to receive the tail of the tool. 2. The actuation means includes a push rod (212) and the push rod has a forward stroke and a backward stroke. drive means (218, 216) for performing different operating cycles; The push rod drives the knotted body forward, initially the tail part, during the forward stroke, and The pulling means is controlled by the push rod during its backward stroke, and the next knot is placed on the front side of the push rod. The device according to claim 1, characterized in that the device rotates at 90° with respect to the above part. Ingredients. 3. The push rod moves back and forth in the breech passage for pushing in the knot, and the tool is pushed through the elongated mouth. The outside communicates directly with the breech passage, and the indexing means connects the body to the outside of the tool. Step horizontally from the side to the prepared position and directly upward through the elongated opening. Claims characterized in that it comprises means (306) for pushing into the breech passage. The tool described in box 2. 4. The elongated mouth of the tool allows the knot to be stepped laterally into the breech passage. The claim is characterized in that it is shaped so that it is bent at 90° at its head when Tools listed in scope 3. 5. The indexing means includes an actuating member (256) and a cam between the push rod and the actuating member. couplings (262, 264), said lateral stepping means being attached to the actuating member; Claim 3 characterized in that it comprises a finger (306) attached thereto. Tools listed in section. 6. In the above breech passage for processing the belt of the knot connected by the splice. shearing means for cutting the laterally stepped knot from the belt to the above-mentioned prepared position; (3'08, 310) is driven by the actuating member. A tool according to item 5 in the scope of . 7. A return ring (258) returns the actuating member during the backward stroke of the push rod. 6. A tool according to claim 5, characterized in that it acts on the actuating member so as to act on the actuating member. 8. The return spring is a torsion spring, and the operating member is the cam. 8. The tool according to claim 7, wherein the tool is rotatably driven by a coupling. 9. A tightening device that grasps the tail of the knot passed through the perforated head and pulls it backwards. (302, 304), means (318, 320) for cutting the tail behind the head; ), and in response to a preselected knot tension achieved early in the backward stroke of the push rod. tension sensing means (268, 282) for actuating the cutting means in response. The driving means includes a piston/cylinder unit (218), and the tension feeling The system in which the detection means has risen to a tight level corresponding to the preselected knot tension The cylinder of the above unit is arranged to operate in response to cylinder pressure. Claim 2, characterized in that it is provided with a pivot arm (?68). tool. 10. A toggle mechanism (320, 320) and a pair of hooks arranged to catch the head of the knot at the front end of the push rod stroke. and knives (318, 318), the claws respectively having knives (3) &b, 318b. ) and is operated by the above-mentioned toggle mechanism. Tools described in scope item 9. 11 A perforated head part (J04) and a tail part (102) continuous from this head part. A knot gun tool is provided with a large number of elongated knots (100), each having a large number of elongated knots (100). In a belt with flexible knots, most of the knots are arranged in parallel. and integral splices (92) interconnect adjacent ties to form a bandolier arrangement. and at least one pair of splices are connected between the tails of the knot and opposite edges of the tails. Each knot on the break line (94) located slightly inward from (96) to the width of the tail. A flexible knotted belt characterized by being connected to. 12° Each has a perforated head (104) and a tail (102) extending from the head. A housing (122° 124), a flexible knot magazine attached to the knot gun tool. The above-mentioned knots are arranged in parallel, and the integrated joint piece (92) is arranged in parallel. Adjacent ties are interconnected to form a bandolier arrangement, and the housing is connected to the belt. It is formed with an elongated opening for leading out, and the opening bends each knot by 900 degrees at its head. A flexible knotting body characterized by being shaped so that it can be bent and passed through. Gazin. Each has a perforated head (1o4) and a tail (102) extending from the head. A housing (722° 124) in a flexible knotting magazine attached to a knotting tool. The above-mentioned knots are arranged in parallel, and the integrated joint pieces (92) are arranged adjacently. The ties are interconnected to form a bandolier arrangement, and the housing is generally cylindrical. The bandolier has a maximum circumference at the midpoint of its length, and the bandolier is The coil is wound in a spiral shape. The maximum diameter of the coil should be at the final outermost turn of the head. A flexible knot magazine characterized in that it can be determined by: