JP4101587B2 - Synthetic fiber bundle transfer device - Google Patents

Description

[0001]
[Technical field to which the invention belongs]
The present invention relates to a transfer device for a synthetic fiber bundle suitable for smoothly transferring a fiber bundle, in particular, a straight, high-quality acrylic fiber bundle without crimps into a container.
[0002]
[Prior art]
Conventionally, acrylic fiber bundles are generally wound around bobbins using a winder. On the other hand, as a device for transferring pitch fibers or polyester fibers into a container, for example, as disclosed in Japanese Patent Publication No. 61-124479 and Japanese Patent Laid-Open No. 10-297823, an air soccer ball is used and the container is reciprocated. A transfer device has been proposed. Air soccer has the function of converging at the same time without interlacing the fibers.
[0003]
Also, for example, Japanese Patent Laid-Open Nos. 59-1724, 64-3787, and Japanese Patent Laid-Open No. 4-2820 propose a device for transferring pitch-based fibers into a rotating container after passing through air soccer. ing. In particular, according to the pitch fiber transfer device disclosed in Japanese Patent Publication No. 64-3787, the center axis of the air soccer is deviated from the rotation center of the rotating container, and is supported rotatably at the tip of the air soccer. The transfer tube whose tip is curved is driven and rotated around the central axis of the air soccer, and the pitch fiber is transferred while drawing a circle around the rotation center of the container. On the other hand, in Japanese Patent Application Laid-Open No. 4-2820, the pitch fiber that is focused through an air soccer ball is transferred into the container by rotating around the central axis of the container and reciprocating the container in the radial direction. is there.
[0004]
By the way, since the pitch fiber is hydrophobic, it is easily charged with static electricity, and is charged whenever it comes into contact with a guide roll or the like. This electrification makes it easy to wind around the roll, and it is not only difficult to transfer stably, but even if it is swung into the container, the fibers are extremely scattered, and the fibers are entangled severely, and the subsequent firing process is performed as it is. Even if it is turned, it is impossible to produce a homogeneous carbon fiber.
[0005]
Therefore, for example, in JP-A-59-1724, water or a non-aqueous oil agent is applied to a fiber immediately after being discharged from a spinning nozzle by a spray nozzle, etc., thereby eliminating the generation of static electricity and providing a convergence effect. Or, as disclosed in Japanese Patent Publication No. 63-12171, immediately after passing the pitch fiber through the air soccer, without using an atomized gas such as air on the pitch fiber, heating evaporation or ultrasonic Since the sizing agent is directly atomized and applied, the fiber bundle is not scattered or cut, and can be stably stored in the container.
[0006]
On the other hand, in the case of a conventional apparatus that stores the acrylic fiber bundle in a can while being shaken off, in the case of a crimped fiber bundle, the transfer speed and the speed at which the fiber bundle is sent may be different. However, in a straight fiber bundle that is not substantially crimped, it is necessary to match the transfer speed with the speed at which the fiber bundle is sent. Therefore, when a substantially straight fiber bundle is sent at a high speed, the transfer speed as described above cannot keep up with the speed at which the fiber bundle is sent. Problems can arise when twisting and pulling the fiber bundle out of the can.
[0007]
In order to eliminate such problems, for example, in Japanese Patent Laid-Open No. 6-191728, a fiber bundle fed at a high speed is passed through a gear-type nip roll, and then a pair of belt feeders opened below is opened. I drop it and try to store it in the lower cane while staying with the belt feeder. Also, for example, in Japanese Patent Application Laid-Open No. 7-4416, a cycle of 30 seconds or more at a predetermined jet pressure and speed from a gas jet nozzle that faces a fiber bundle sent out from a normal nip roll at high speed in a lateral direction below the nip roll. The fiber bundle is housed in a can placed below while being alternately sprayed onto the fiber bundle in the middle of dropping.
[0008]
[Problems to be solved by the invention]
By the way, normally, the end and the start of the two yarns are joined together for the purpose of continuously processing the yarns in the post-processing step. When the spliced fiber bundle is transferred to a reciprocating or rotating container as described in the above publication, the splicing is easy. However, as the spinning speed increases, the mechanical load increases during the reciprocal reversal of the container. Especially when a rotational motion is added to this reciprocating motion, a large space is required to ensure the strength of the device. The motion control must be performed with high accuracy. In addition, the movement of the fiber bundle to be transferred cannot follow the movement of the container, and there is a problem that the load collapses in the container even during the transfer or the packing density of the fiber bundle becomes low.
[0009]
Furthermore, when the container is reciprocated, even if an ordinary synthetic fiber bundle is merely transferred through an air soccer ball, the fibers are scattered at the outlet, and sufficient convergence cannot be maintained. In order to maintain this convergence and at the same time, eliminate the trouble caused by the generation of static electricity, as described above, conventionally, moisture or oil has been applied to the fiber bundle by roll contact or spraying separately from the air soccer. In the case of contact, damage to the fiber is large, and in the case of spraying, measures such as scattering to the surroundings are required, and in either case, there is a problem that the apparatus becomes complicated. In addition, when such a method of applying water or oil is applied to storing a flat fiber bundle, the fiber bundle is easily twisted, and it is difficult to draw out the fiber bundle drawn out of the container in a uniform manner. In the case where it is composed of carbon fiber precursor fibers, it is difficult to obtain high-quality carbon fibers in the subsequent firing step.
[0010]
The present invention has been made in order to solve the problems at the same time while taking advantage of the conventional advantages as described above. Specifically, the high convergence function of air soccer is used, and the convergence form is maintained and stable. Then, it aims at providing the transfer apparatus of the synthetic fiber bundle which can be transferred in a container.
[0011]
[Means for solving the problems and effects]
The present inventors have studied the above-mentioned prior arts from various viewpoints on the basis that a synthetic fiber bundle excellent in converging property in a small space is transferred to a container and the fiber bundle is not damaged. However, in any case, it is difficult to reduce the space, and in order to perform stable transfer at a spinning speed of 50 m / min or more, it is necessary to apply a certain amount of crimp to the fiber bundle and reduce the transfer speed as much as possible. I understood. However, crimping is not preferable because it buckles the fiber bundle and locally lowers the mechanical strength of the fiber bundle.
[0012]
Therefore, if convergence is ensured when transferring into a container, the use of air soccer is confident that it is effective as a method for transferring fiber bundles composed of substantially straight fibers without crimping. It was. However, the usual method has problems such as the fiber bundles still separating on the air soccer exit side. However, it has been found that the above-mentioned problems can be solved by optimizing the nozzle diameter of the air soccer ball, adding moisture, oil or the like, or tangling the fibers.
[0013]
That is, the basic configuration of the present invention is as described in claim 1, It has a fiber bundle introduction nozzle, an air introduction section, an acceleration tube, and a water or oil addition path added to the synthetic fiber bundle. As a nozzle for feeding a synthetic fiber bundle into a container of Air football When, A mechanism that moves the tip of the air soccer ball to draw a movement trajectory in which the fiber bundle is swung into the container with an arbitrary accumulation shape When, A synthetic fiber bundle transfer device comprising: The synthetic fiber bundle is characterized in that the addition path of moisture or oil is communicated with an air pool part provided between the fiber bundle introduction nozzle and the air introduction part. In the transfer device.
[0014]
The air soccer ball is composed of a fiber bundle introduction nozzle having the same inner diameter and a funnel-like outer shape, an air introduction portion surrounding the fiber bundle introduction nozzle, and a pipe-like acceleration tube having the same inner diameter as the tip opening inner diameter of the air introduction portion. An air pool portion is provided between the air introduction portion and the fiber bundle introduction nozzle. Air is supplied from the entire circumference of the fiber bundle into the accelerating tube from the air pool portion. The inner diameter of the air bundle fiber bundle passing region is preferably in the range of 1.1 to 5 times the total cross-sectional area of the fiber bundle. When it becomes smaller than 1.1 times, the resistance when the fiber bundle passes through the nozzle increases. On the other hand, when it becomes larger than 5 times, the fiber bundle is easily scattered by the air flow.
[0015]
The length of the fiber introduction nozzle of the air soccer is preferably 2 to 20 times the inner diameter. If it is less than 2 times, it becomes difficult to generate an accompanying flow that draws the fiber bundle, and if it exceeds 20 times, the resistance in the nozzle increases and the accompanying flow becomes small. The length of the accelerating tube is preferably in the range of 10 to 50 times the inner diameter. If it is less than 10 times, the fiber bundle cannot be given speed, and if it exceeds 50 times, the resistance in the nozzle becomes large and the fiber cannot be given sufficient speed. The inner diameter of the accelerating tube can be increased stepwise or smoothly as it goes to the outlet.
[0016]
It is necessary to determine the dimensions of the fiber introduction nozzle and the acceleration tube so that air does not blow up from the air introduction portion side when air is supplied. The amount of air can be set arbitrarily according to the spinning speed, the size of the fiber bundle, and the size of the transfer container, and if the air flow rate is too high, the fiber bundle tends to be easily scattered. It is also preferable from an economical aspect. Also, by adding water and oil as appropriate in consideration of maintaining convergence and countermeasures against static electricity along with air and passing through the process in the subsequent process, damage to the fibers in the case of contact type, scattering to the surroundings in the case of spraying Can be eliminated.
[0017]
Furthermore, when maintaining convergence, taking into account static electricity countermeasures and process passability in subsequent processes, water and oil are appropriately added to the fiber bundle. . In this case, it is not preferable to add water or oil using a roll or a liquid jet nozzle because the damage of the fiber due to the contact with the roll is large, and measures such as scattering to the surroundings due to the liquid spray are required. Therefore, in the present invention, an addition path for adding moisture or oil communicating with the air pool part of the air soccer is formed. . If moisture or oil is added to the air pool part from the addition path and the fiber bundle passes through the accelerating tube and is applied with moisture or oil on the air, there will be no damage to the fiber and at the same time the liquid will scatter around There is nothing.
[0018]
In the present invention, it is preferable to further include an entangling nozzle for confounding the fiber bundle on the upstream side of the air soccer. When air soccer is used, the fiber bundle loses convergence at the exit of the acceleration tube. As described above, the convergence is maintained by optimizing the inner diameter of the air soccer ball bundle passing region and applying moisture, etc., but in order to further entangle the fibers between the fiber bundles upstream of the air soccer ball. By providing such an entanglement nozzle, more stable transfer is possible, and the passability in the subsequent process is also improved. The entanglement nozzle can be arranged independently of the air soccer or integrated with the air soccer. Here, the form of the entanglement nozzle is not particularly limited.
[0019]
The present invention further includes a motion mechanism that draws a motion trajectory such that the fiber bundle is swung into the container with an arbitrary accumulation shape at the tip of the air soccer. As the motion mechanism, acceleration is the leading end of the air soccer by drawing an arbitrary movement locus on the biaxial plane with the fiber bundle introduction side end of the air introducing portion being the base end of the air soccer as the base point. A motion mechanism that swings the tip of the tube may be employed.
[0020]
As the motion mechanism, a bracket fixed to a frame or the like supports a base end portion of the air soccer ball so as to be swingable in all directions with respect to a biaxial plane, and a pair of the same arranged on two axes. The base end of each cylinder body is supported by a spherical bearing, etc., and the tip of the piston rod of each cylinder is also supported by a spherical bearing so that the acceleration tube of the air soccer can be rotated, for example, and set in advance in the control unit Each cylinder may be controlled and operated according to the motion trajectory formula, and the tip of the air soccer may be swung so as to draw a desired motion trajectory.
[0021]
In addition to the cylinder as described above, the motion mechanism according to the present invention supports the base end portion of the air soccer ball so as to be swingable in all directions with respect to the biaxial plane on a bracket fixed to a frame, for example. The tip of the accelerating tube can be arbitrarily controlled by a motor controlled drive using a pair of nuts arranged perpendicularly on two axes and a ball screw extending perpendicularly on the same axis. It can also be swung by drawing a motion trajectory. Furthermore, the motion mechanism as described above can be obtained by combining a cylinder and a motor.
In the present invention, in addition to such a motion mechanism, it is also possible to combine the air soccer or the lifting mechanism for lifting and lowering the container itself according to the height of the fiber bundle deposited in the container.
[0022]
As described above, according to the present invention, by using an air soccer ball having a function in which the nozzle tip moves while drawing an arbitrary movement trajectory with respect to the biaxial plane, the container is fixed and substantially straight without crimp. It is possible to stably feed a synthetic fiber bundle into a container without causing fiber dispersion and damage. Since a mechanism for moving the container can be eliminated, not only can the space be reduced, but there is no collapse of the transfer form due to the fiber bundle being shaken in the container when the container is moved at high speed. .
[0023]
However, when the fiber bundle is transferred to the container, it is difficult to realize a higher speed if all the transfer forms are left to air soccer. Therefore, in the present invention, the container may be movable and the fiber bundle may be swung into the container with an arbitrary accumulation shape by a combined motion with the air soccer. That is, as in the conventional case, the container movement and the movement of the tip of the air soccer ball are performed by reciprocating the container on a biaxial plane or by providing a mechanism for rotating the container around the central axis of the container. When combined, an arbitrary transfer form can be obtained at a container speed that can sufficiently cope with the increase in speed.
[0024]
DETAILED DESCRIPTION OF THE INVENTION
Hereinafter, typical embodiments of the present invention will be specifically described based on illustrated examples. FIG. 1 schematically shows an example of the structure of an air soccer used in the present invention. Of course, the specific structure of the air soccer is not limited to the illustrated example, but basically has the structure as illustrated. The present invention can be suitably applied as a precursor transfer device made of large tow composed of, for example, acrylic fibers, but is not necessarily limited to acrylic fiber bundles, other polyester fibers, nylon fibers, vinyl fibers, The present invention can be sufficiently applied to fiber bundles made of ordinary synthetic fibers such as polypropylene fibers.
[0025]
As shown in the figure, the air soccer 10 surrounds its outer peripheral surface with the cylindrical fiber bundle introduction nozzle 11 having the same inner diameter and the introduction side end face of the fiber bundle introduction nozzle 11 exposed to the outside. A cylindrical box-shaped air introduction part 12 arranged in such a manner, and an acceleration tube 13 connected and integrated with a fiber bundle outlet end of the air introduction part 12 are provided. The outer peripheral surface of the fiber bundle introduction nozzle 11 on the fiber bundle outlet side is formed as a conical surface 11a whose outer diameter is gradually reduced in the fiber outlet direction.
[0026]
The fiber bundle introduction nozzle 11 is fitted into the internal cavity of the cylindrical box-shaped air introduction part 12 from the side on which the conical surface 11a is formed with the fiber bundle introduction end face exposed to the outside. The bundle introduction end is fixedly integrated with the fiber bundle introduction end of the air introduction portion 12. The inner diameter of the internal cavity of the air introduction part 12 is larger than the outer diameter of the fiber bundle introduction nozzle 11, and therefore a cylindrical air pool part 14 is formed between the fiber bundle introduction nozzle 11 and the air introduction part 12. Is done.
[0027]
On the other hand, an air introduction port 12 a connected to an external air supply source (not shown) through a pipe is formed in a part of the outer peripheral portion of the air introduction portion 12 so as to communicate with the air pool portion 14. Further, a conical concave portion is formed on the bottom surface of the hollow portion of the air introducing portion 12 so as to surround the conical surface 11a of the fiber bundle introducing nozzle 11, and the inclination angle α of the concave surface 12b is a fiber. It is comprised by the inclination angle (beta) of the conical surface 11a of the bundle introduction nozzle 11. FIG.
[0028]
The inclination angle α is slightly larger than β, or the gap between the recessed surface 12b and the conical surface 11a of the fiber bundle introduction nozzle 11 is adjusted to optimize the amount of air blow or the speed of jetting. The ejected air is blown toward the fiber bundle derived from the fiber bundle outlet 11b of the fiber bundle introduction nozzle 11, and the air ejection speed is increased so that the suction force is made to follow the fiber direction. The diameter of the fiber bundle outlet 12b of the air introduction part 12 is equal to the inner diameter of the acceleration tube 13 connected and integrated with the fiber bundle outlet end of the air introduction part 12.
[0029]
In the present invention, in the air soccer 10 having the above-described configuration, it passes through the fiber bundle passage area of the air soccer 10, that is, the inner diameters of the fiber bundle introduction nozzle 11, the air introduction portion 12 and the acceleration pipe 13. It is set in the range of 1.1 to 5 times the total cross-sectional area of the fiber bundle. When the inner diameter of the fiber bundle passing area of the air soccer 10 is made smaller than 1.1 times the total cross-sectional area of the fiber bundle, the resistance when the fiber bundle passes through the nozzle is increased, and is larger than 5 times. Then, the fiber bundle is easily separated by the air flow. Furthermore, the length of the fiber introduction nozzle 11 is in a range of 2 to 20 times the inner diameter. When the length of the fiber introduction nozzle 11 is smaller than twice the inner diameter, an accompanying flow that draws the fiber bundle becomes difficult to occur, and when it exceeds 20 times, the resistance between the inner wall surface of the fiber bundle introduction nozzle 11 is reduced. Increases and the accompanying flow also decreases.
[0030]
On the other hand, the length of the accelerating tube 13 is also set to a range of 10 to 50 times the inner diameter. If the length of the accelerating tube 13 is smaller than 10 times the inner diameter, no speed is given to the fiber bundle, and if it exceeds 50 times, the resistance in the accelerating tube 13 increases and the speed sufficient for the fiber is increased. Can not give. If the inner diameter of the accelerating tube 13 is increased stepwise toward the fiber bundle outlet 13b with the stepped surface in the air flow direction, or the inner surface is smoothed and gradually increased, the resistance in the accelerating tube 13 does not increase, An accompanying flow is also likely to occur.
[0031]
The fiber introduction nozzle 11 and the acceleration tube 13 are determined in size and shape so that air does not blow up from the air introduction portion side when air is supplied. The amount of air supplied from the air introduction unit 12 can be arbitrarily set according to the spinning speed, the fineness and number of single fibers, and the size of the transfer container. Generally, when the air flow rate is too high, the fiber bundle tends to be easily separated. Therefore, it is preferable to reduce it as much as possible from the standpoint of maintaining convergence, and at the same time, from the economical aspect.
[0032]
In the present invention, the tension applied to the fiber bundle when the fiber bundle is introduced into the air soccer 10 is not particularly limited, and the yarn separation from the immediately preceding feed roll 16 (FIG. 2) is stable, In order to stabilize the transfer into the transfer container 24 without the dispersion of the fiber bundles, it is possible to change the amount of air supplied according to the thickness and weight of the fiber bundles. For example, when the total fineness of the fiber bundle is about 3,000 to 10,000 dtex, the supply amount is set to a range of about 50 to 500 cN.
[0033]
Also, if it is not enough to maintain the convergence of the fiber bundle by using the air suction action as described above, the air soccer ball is taken into consideration for static electricity countermeasures at the time of passing through the process and the process passability in the subsequent process. When water and oil are appropriately added to the fiber bundle using the air flow of the air, compared to the case of liquid application using a roll contact type or liquid spray using a liquid nozzle, damage to the fiber and liquid around the device Spattering can be eliminated. Therefore, in the present embodiment, an addition path 12 c for adding moisture or oil that communicates with the air pool portion 14 is formed in the air introduction portion 12.
The addition path 12c can be connected to a line before air is introduced into the air introduction port 12a.
[0034]
When moisture or oil is added, when the traveling fiber bundle is introduced into the acceleration tube 13 from the air introduction part 12, the atomized moisture or oil is placed on the air and applied to the fiber bundle together with the air. Therefore, the fiber bundle does not receive any special force due to liquid injection as in the case of nozzle injection, so that the fiber is not damaged, and the liquid is completely applied to the fiber bundle when the fiber bundle is led out from the acceleration tube 13. In order to maintain the state of adhering to the liquid, the liquid is not scattered around the apparatus, and the convergence of the fiber bundle is ensured.
[0035]
In the present embodiment, as shown in FIG. 2, an entanglement nozzle 15 for providing entanglement to the fiber bundle F is further arranged on the upstream side of the air soccer 10. The entanglement nozzle 15 can be arranged independently of the air soccer 10 as shown in the drawing, but can also be attached integrally to the air soccer 10. Here, the structure of the entanglement nozzle 15 is not particularly limited. When the air soccer 10 is used, as described above, the convergence is maintained by optimizing the inner diameter of the air soccer fiber bundle passing region and applying moisture, etc., but even if these measures are taken The fiber bundle may lose its convergence at the outlet of the acceleration tube 13. As in this embodiment, by further providing an entanglement nozzle for entanglement of fibers between fiber bundles on the upstream side of the air soccer 10, more stable transfer to the container is possible, and passability in the subsequent process is possible. Will also improve.
[0036]
In this embodiment, as shown in FIG. 2 and FIG. 3, a motion mechanism that draws an arbitrary motion trajectory so that the fiber bundle F is swung into the container with a desired accumulation shape at the tip of the air soccer 10. I have. FIG. 3 shows an example of the motion mechanism. The tip of the accelerating tube 13 that is the tip of the air soccer 10 is in the X-axis direction on the biaxial plane from the fiber bundle introduction side end of the air introduction part that is the base of the air soccer 10 by the motion mechanism. The fiber bundle is swung into the transfer container 24 by swinging individually in the Y-axis direction and drawing an arbitrary movement locus by the combination.
[0037]
As the movement mechanism, the upper end portion of the air introduction portion 12 is supported by a U-shaped bracket 21 so as to be rotatable around a horizontal axis (X axis) via a pin or the like, and at the center portion of the bracket 21, One end of the rotating shaft 22 is fixed so as to be orthogonal to the shaft. The rotary shaft 22 is controlled and rotated by a rotary drive source such as a servo motor installed on a base (not shown) through a bearing (not shown). A fluid cylinder 23 is disposed at the upper end of the air introduction portion 12 in parallel with the rotation shaft 22. The rod end of the piston rod 23a of the fluid cylinder 23 and the upper end portion of the air introduction portion 12 are connected and supported so as to be rotatable in all directions via a universal joint structure (not shown). The base end portion is also connected and supported by a fixed frame (not shown) via a universal joint structure so as to be rotatable in all directions.
[0038]
The rotational drive source such as the motor (not shown) and the fluid control devices such as various control valves arranged in the fluid supply path of the fluid cylinder 23 are connected to a control unit (not shown). Based on the sequence and motion trajectory formula set in advance in the control unit, for example, the rotation angle and the rotation speed of the motor are sequentially changed and controlled, and simultaneously the switching control of the fluid pressure and flow rate of the fluid cylinder is performed. The tip of the acceleration tube 13 of the air soccer 10 swings in the X-axis direction and the Y-axis direction, and the fiber bundle F is transferred into the transfer container 24 while drawing a desired movement locus by the combined operation. The sequence and the motion trajectory formula are not uniform, and the most appropriate various motion trajectories and motion speeds are set according to the size and shape of the transfer container 24, the thickness of the fiber bundle F, the total fineness, etc., and the data is controlled. Stored in advance.
[0039]
In the embodiment described above, the transfer container 24 is fixed to a floor surface, a base or the like, but in the present invention, a desired motion is given to the air soccer 10 and at the same time, the required motion is given to the transfer container 24 as well. Can do. In this case, the motion of the air soccer 10 and the motion of the transfer container 24 are combined, and not only can the transfer of a complicated pattern be performed, but also one of the motions, particularly a transfer that is heavy. Even if the movement of the container 24 is suppressed, it is possible to easily cope with the increase in speed.
[0040]
FIG. 4 shows an example of the movement mechanism of the transfer container 24. In this example of the movement mechanism, the transfer container 24 can be controlled and moved in the X-axis direction and the Y-axis direction on the biaxial plane by a ball screw 25 and a nut 26, and can be moved up and down in the Z-axis direction, and simultaneously rotated around the Z-axis. It is possible. Even if the movement speed of the transfer container 24 is suppressed by adding the movement of the air soccer 10 as described above to the movement of the transfer container 24, the fiber bundle can be transferred in various transfer forms while corresponding to the increase in the transfer speed. The transfer container 24 can be smoothly transferred.
[0041]
As can be understood from the above description, according to the synthetic fiber bundle transfer device of the present invention, by using the air soccer 10, smoothness can be achieved without damaging a substantially straight synthetic fiber bundle having no crimp. Transfer is possible. Since the tip of the transfer nozzle is provided with a function of moving along an arbitrary locus, transfer can be performed without moving the container, the function of moving the container becomes unnecessary, and the space can be reduced. In addition, even when the container is provided with a motion mechanism, because of the combined motion with the air soccer, it is possible to easily cope with the increase in speed even if the motion speed is low, and the fiber bundles to be transferred into the container However, since it is not necessary to move the container itself at a high speed, the fiber bundle is not shaken even after being deposited in the container, so that the transfer form does not become defective.
[0042]
By not crimping the fiber bundle, damage such as local reduction in mechanical strength was eliminated. Since the tip of the transfer nozzle moves, it is no longer necessary to move the container, so it is possible to reduce the space, and the load collapses in the container. The fiber bundle can be easily transferred to the end of the cans by placing it on the air only by moving the lighter soccer tip. There is no risk of being caught and pinched as when using a gear roll, and maintenance and safety are also improved.
In the present invention, in order to increase the bulk density of the fiber bundle transferred into the transfer container 24, it is possible to provide a so-called tamping mechanism that applies a load to the transfer surface simultaneously with the transfer of the fiber bundle. is there.
[Brief description of the drawings]
FIG. 1 is a cross-sectional view schematically showing a structure example of an air soccer applied to the present invention.
FIG. 2 is an explanatory view showing an outline of a transfer process of a fiber bundle by an embodiment apparatus of the present invention.
FIG. 3 is an explanatory diagram showing an example of the exercise mechanism of the air soccer.
FIG. 4 is an explanatory view showing an outline of a fiber bundle transfer process by another embodiment apparatus of the present invention.
[Explanation of symbols]
10 Air soccer
11 Fiber bundle introduction nozzle
11a Conical surface
11b Fiber bundle outlet
12 Air introduction part
12a Air inlet
12b Concave surface
12c (water or oil) addition path
13 Accelerating tube
14 Air pool club
15 Entangling nozzle
16 Feed roll
21 U-shaped bracket
22 Rotating shaft
23 Fluid cylinder
23a Piston rod
23c Cylinder body
24 Transfer container
25 Ball screw
26 nuts
α, β Nozzle tilt angle

Claims (3)

Fiber bundle inlet nozzle, an air inlet portion, having an acceleration tube, and added path of moisture or oil is added to the synthetic fiber bundle, and air sucker of a synthetic fiber bundle as a nozzle for transfer money to the container, the same air sucker tip A mechanism for moving the fiber bundle so as to draw a movement trajectory such that the fiber bundle is swung into the container with an arbitrary accumulation shape, and a synthetic fiber bundle transfer device comprising:
The additive passage of moisture or oil content, characterized by comprising communicating with the air pool portion provided between said fiber bundle inlet nozzle and the air introduction section, the transfer device of the synthetic fiber bundles. 2. The transfer device according to claim 1 , wherein the length of the fiber introduction nozzle of the air soccer is 2 to 20 times the inner diameter.   The transfer device according to claim 1, further comprising a nozzle for confounding the fiber bundle upstream of the air soccer.

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