JP2014009052A - Textile machine - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a textile machine which, even when an unnecessary yarn is caught in a passage route, can automatically release the caught yarn.SOLUTION: A fine spinning machine (a textile machine) includes: a plurality of spinning units 2; a yarn piecing truck 3; yarn detection devices (a first yarn detection sensor 52 and a second yarn detection sensor 54); and a truck control section. Each spinning unit winds up a spun yarn 10 to form a package 45. The yarn piecing truck 3 includes: yarn suction devices (a suction pipe 44 and a suction mouth 46); and guide members (a first duct connection tube 51 and a second duct connection tube 53). The first yarn detection sensor 52 and the second yarn detection sensor 54 detect that the spun yarn 10 is caught in the yarn piecing truck. The truck control section at least moves the guide members according to the detection result of at least one of the first yarn detection sensor 52 and the second yarn detection sensor 54.

Description

  The present invention relates to a textile machine including a work carriage that travels along a direction in which a plurality of winding units are arranged.

  Conventionally, as shown in Patent Document 1, a textile machine (spinning machine) including a plurality of winding units and a yarn splicing cart that travels between the winding units is known. The yarn joining cart includes a yarn suction device such as a suction mouth and a suction pipe, and a yarn joining device.

  When this yarn machine detects a yarn defect or the like, the yarn machine cuts the yarn to prevent the yarn defect from being wound around a package. The yarn joining cart travels to the winding unit where the yarn defect is detected, and performs yarn joining.

  When piecing is performed, an extra portion of the yarn (a portion including a yarn defect or the like, hereinafter sometimes referred to as an unnecessary yarn) is generated because the yarn is usually pulled out to perform piecing. The unnecessary yarn passes through a guide member connected to the yarn suction device, a duct provided in the machine base body of the textile machine, and the like, and is discharged after being guided to a predetermined position.

JP 2010-77576 A

  However, unnecessary yarn may be caught inside the guide member connected to the yarn suction device. In this case, the unnecessary yarn cannot be discharged to the outside.

  If the yarn splicing cart travels toward another winding unit in a state where the unnecessary yarn is caught, the unnecessary yarn is rotated by the yarn splicing cart. As a result, the unnecessary yarn may come into contact with a member or the like on the traveling rail, and in the worst case, this member may be damaged.

  If the splicing is performed in a state where the unnecessary yarn is hooked inside the guide member, it is possible that the newly generated unnecessary yarn is further entangled. As a result, the guide member may be clogged, and unnecessary yarn may not be properly discharged.

  The present invention has been made in view of the above circumstances, and an object of the present invention is to provide a textile machine that can automatically unlock the yarn even when an unnecessary yarn is caught in the passage path. .

Means and effects for solving the problems

  The problems to be solved by the present invention are as described above. Next, means for solving the problems and the effects thereof will be described.

  According to an aspect of the present invention, a textile machine includes a plurality of winding units, a work carriage, a detection device, and a control unit. The winding unit winds a yarn to form a package. The work carriage includes a yarn suction device that sucks a yarn, and a guide member in which a passage path through which the yarn sucked by the yarn suction device passes is formed. The detection device detects catching of a thread in the work carriage. The control unit moves at least the guide member based on a detection result of the detection device.

  Thereby, since the force can be applied to the hooked yarn from various directions as the control unit moves the guide member, the yarn can be discharged by releasing the hook. Therefore, it is possible to prevent the hooked thread from being taken by the work carriage and the thread from being caught by another member. Moreover, since the textile machine can grasp | ascertain whether the thread | yarn is hooked in the inside of a guide member, it can detect and discharge | emit the hooked thread | yarn automatically. Therefore, since the time during which the textile machine is stopped can be shortened, the winding efficiency can be improved.

  In the textile machine, the control unit controls the work carriage so as to reciprocate the work carriage within a distance less than the length of one winding unit in a direction in which the winding units are arranged. It is preferable to do.

  Thereby, the hooked yarn can be discharged with a simple configuration without providing a special device for moving the guide member. Since the work carriage is not moved more than the length of the winding unit, it is possible to prevent the hooked yarn from interfering with other winding units.

  The textile machine includes a discharge duct that carries the yarn that has passed through the guide member. The discharge duct has a path extending in the parallel arrangement direction of the winding units, and a connection hole that can be connected to the guide member is formed for each winding unit.

  This prevents the working carriage from moving more than the length (width) of one winding unit, so that when a yarn is caught by a certain winding unit, the yarn is discharged from the connection hole corresponding to the winding unit. Can do.

  In the textile machine, it is preferable that the detection device is provided so as to detect the presence or absence of a thread in the guide member.

  Thereby, the catch of a thread | yarn is detectable by detecting the presence or absence of the thread | yarn in a guide member.

  In the textile machine, the control unit controls the guide member so as to move the guide member when the detection device detects a yarn. The controller controls the guide member to stop the movement of the guide member when the detection device no longer detects the yarn after the guide member is moved.

  Thereby, since the movement of the guide member can be continued until the hooked yarn can be discharged, the yarn can be discharged more reliably and the guide member can be prevented from being moved in vain.

  In the textile machine, it is preferable to include a notification unit that notifies the detection of the yarn when the detection device detects the yarn after the guide member is moved a predetermined number of times or more.

  Thereby, for example, the operator can appropriately perform the maintenance work of the textile machine based on the notification of the notification unit.

  In the textile machine, the winding unit includes a draft device, a spinning device, and a winding device. The draft device drafts a fiber bundle with a draft roller. The spinning device twists the fiber bundle supplied by the draft device by a swirling air flow to generate a spun yarn. The winding device winds the spun yarn around the package.

  As a result, it is possible to avoid winding of the package while unnecessary yarn is caught on the guide member, so that the package can be efficiently wound.

  The textile machine preferably includes a yarn joining device for joining the yarn sucked by the yarn suction device.

  As a result, an unnecessary yarn is normally generated when piecing is performed, but since the state where the unnecessary yarn is caught on the guide member can be eliminated, the piecing can be performed smoothly.

  In the textile machine, the yarn suction device includes a first yarn suction member and a second yarn suction member. The single yarn suction member sucks and captures the yarn end of the yarn supplied from the spinning device. The two-yarn suction member sucks and captures the yarn end of the yarn on the package side.

  Accordingly, when the yarn on the spinning device side and the yarn on the package side are spliced, the state where the unnecessary yarn is caught on the guide member can be eliminated, so that the splicing can be performed smoothly.

1 is a front view showing an overall configuration of a spinning machine according to an embodiment of the present invention. The side view of a spinning unit. The front view which showed typically the passage route of the unnecessary thread | yarn of a yarn splicing cart. The block diagram which shows the electrical structure of a yarn splicing cart. The front view which showed typically a mode that the unnecessary thread | yarn was caught on the passage route. The flowchart which shows the process for discharging | emitting an unnecessary thread | yarn.

  Next, a spinning machine (spinning machine, textile machine) according to an embodiment of the present invention will be described with reference to the drawings. A spinning machine 1 shown in FIG. 1 includes a large number of spinning units (winding units) 2 arranged in parallel, a yarn splicing carriage 3, a prime mover box 5, a blower box 80, a suction duct (discharge duct) 85, And a machine base control device 90.

  The machine base control device 90 is for centrally managing each component included in the spinning machine 1 and includes a monitor (notification unit) 91 and an input key 92. When the operator performs an appropriate operation using the input key 92, the settings and states of the specific spinning unit 2 or all the spinning units 2 can be displayed on the monitor 91.

  The suction duct 85 is provided below the spinning unit 2 in the machine height direction so as to follow the direction in which the spinning units 2 are arranged side by side. The suction duct 85 is connected to the blower box 80. The suction duct 85 can supply a suction air flow to the spinning unit 2 and the yarn splicing carriage 3, and can discharge the generated unnecessary yarn.

  As shown in FIG. 2, each spinning unit 2 includes a draft device 7, a spinning device 9, a yarn accumulating device 12, and a winding device 13 that are arranged in order from upstream to downstream. . In this specification, “upstream” and “downstream” mean upstream and downstream in the traveling direction of fiber bundles and yarns during spinning. Further, the length in the width direction (parallel direction) of the spinning units 2 may be referred to as “unit width”. Each spinning unit 2 spins the fiber bundle 8 sent from the draft device 7 by the spinning device 9 to generate the spun yarn 10, and winds the spun yarn 10 by the winding device 13 to form the package 45. .

  The draft device 7 is provided near the upper end of the casing 6 of the spinning machine 1. The draft device 7 includes four draft rollers: a back roller 16, a third roller 17, a middle roller 19 on which a rubber apron belt 18 is mounted, and a front roller 20 in this order from the upstream side. Each draft roller is rotationally driven at a predetermined rotational speed. The draft device 7 has opposing rollers arranged to face each draft roller.

  The draft device 7 sandwiches and conveys a sliver 15 supplied from a sliver case (not shown) via a sliver guide between a rotating draft roller and a counter roller opposed to the sliver 15 so as to have a predetermined width. The fiber bundle 8 is drawn (drafted) until it becomes.

  A spinning device 9 is disposed immediately downstream of the front roller 20. The fiber bundle 8 drafted by the draft device 7 is supplied to the spinning device 9. The spinning device 9 twists the fiber bundle 8 supplied from the draft device 7 to generate the spun yarn 10. In the present embodiment, a pneumatic spinning device that twists the fiber bundle 8 using a swirling airflow is employed.

  A yarn quality measuring device 57 is provided downstream of the spinning device 9. The spun yarn 10 spun by the spinning device 9 passes through the yarn quality measuring device 57 before passing through the yarn storage device 12.

  The yarn quality measuring device 57 monitors the thickness of the traveling spun yarn 10 with a capacitance sensor (not shown). The yarn quality measuring device 57 transmits a yarn defect detection signal to a unit controller (not shown) when a yarn defect of the spun yarn 10 (a portion where the thickness of the spun yarn 10 is abnormal) is detected. The yarn quality measuring device 57 is not limited to a capacitance type sensor, and may be a light transmission type sensor, for example, to monitor the thickness of the yarn.

  A yarn accumulating device 12 is provided downstream of the yarn quality measuring device 57. As shown in FIG. 2, the yarn storage device 12 includes a yarn storage roller 14 and an electric motor 25 that rotationally drives the yarn storage roller 14.

  The yarn accumulating roller 14 can temporarily store a certain amount of spun yarn 10 around its outer peripheral surface. When the spun yarn 10 is wound around the outer peripheral surface of the yarn accumulating roller 14, the yarn accumulating roller 14 is rotated at a predetermined rotation speed, whereby the spun yarn 10 is pulled out from the spinning device 9 at a predetermined speed and conveyed downstream. can do. Further, by temporarily storing the spun yarn 10 on the outer peripheral surface of the yarn accumulating roller 14, the spinning speed in the spinning device 9 and the winding speed in the winding device 13 do not match for some reason (for example, spinning) The slack of the yarn 10) can be eliminated.

  A winding device 13 is disposed downstream of the yarn storage device 12. The winding device 13 includes a cradle arm 71, a winding drum 72, and a traverse device 75.

  The cradle arm 71 is supported so as to be swingable around the support shaft 73. The cradle arm 71 can rotatably support a bobbin 48 for winding the spun yarn 10. The winding drum 72 can be driven in contact with the outer peripheral surface of the bobbin 48 or the package 45. The traverse device 75 includes a traverse guide 76 that can be engaged with the spun yarn 10.

  While the traverse guide 76 is reciprocated by a driving means (not shown), the winding drum 72 is driven by an electric motor (not shown) to rotate the package 45 in contact with the winding drum 72 and traverse the spun yarn 10. Wind it up.

  Next, the yarn joining cart 3 will be described. As shown in FIGS. 1 to 4, the yarn splicing cart 3 includes a cart control unit (control unit) 40, a yarn splicing device 43, a suction pipe (first yarn suction member) 44, and a suction mouth (second Thread suction member) 46.

  The spinning machine 1 includes a rail 41 formed along the direction in which the spinning units 2 are arranged side by side. The yarn splicing cart 3 includes a traveling wheel 42 that moves along the rail 41 and a traveling wheel drive motor 49 that drives the traveling wheel 42. The yarn splicing cart 3 can move freely along the juxtaposed direction by driving the traveling wheel drive motor 49 according to an instruction from the cart control unit 40.

  A pipe-like suction airflow supply unit 55 is disposed below the yarn splicing carriage 3 in the machine table height direction. The suction air flow supply unit 55 can move along the upper surface of the suction duct 85. On the upper surface of the suction duct 85, a connection hole 85a is formed for each spinning unit 2 (for each unit width). When the yarn splicing cart 3 performs yarn splicing with a certain spinning unit 2, the connection hole 85a corresponding to the spinning unit 2 and the suction airflow supply unit 55 are made to coincide with each other. The connection hole 85a that is not connected to the suction air flow supply unit 55 is closed by a shutter valve 56 provided for each connection hole 85a.

  As shown in FIG. 3, the suction pipe 44 is connected to a suction air flow supply unit 55 via a first duct connecting pipe (guide member) 51. Therefore, the suction pipe 44 can generate a suction air flow (arrow in FIG. 3) for sucking the spun yarn 10 from the opening. The suction mouth 46 is connected to a suction air flow supply unit 55 via a second duct connecting pipe (guide member) 53. Accordingly, the suction mouth 46 can generate a suction air flow (arrow in FIG. 3) for sucking the spun yarn 10 from the opening.

  The suction pipe 44 is capable of guiding the yarn end of the spun yarn 10 delivered from the spinning device 9 while sucking it by a suction air flow and guiding it to the yarn joining device 43 while rotating in the vertical direction about the axis. it can. The suction mouse 46 can guide the yarn end of the spun yarn 10 on the side of the package 45 to the yarn splicing device 43 while sucking it with a suction air flow while rotating in the vertical direction around the axis.

  The yarn joining device 43 performs yarn joining between the guided yarn ends. Although the detailed configuration of the yarn joining device 43 will not be described, the yarn joining is performed by a method of twisting yarn ends with a fluid such as a compressed air flow.

  When the yarn splicing is performed, the spun yarn 10 (hereinafter sometimes referred to as an unnecessary yarn) on the tip side from the yarn splicing portion is sucked into the suction pipe 44 (suction mouth 46) by a suction air flow indicated by an arrow in FIG. ) And the first duct connecting pipe 51 (second duct connecting pipe 53), etc., are carried to the suction duct 85 and collected at an appropriate position.

  However, as shown in FIG. 5, it is conceivable that the unnecessary yarn 10a is caught by the first duct connecting pipe 51 and / or the second duct connecting pipe 53 or the like. In this case, in the conventional spinning machine, the unnecessary yarn is rotated together with the yarn splicing carriage, and the unnecessary yarn may be caught with other members. In contrast, the spinning machine 1 of the present embodiment can automatically unhook the unnecessary yarn 10a and guide (discharge) the unnecessary yarn 10a to the suction duct 85. Hereinafter, the process performed by the carriage control unit 40 in order to discharge the hooked unnecessary yarn 10a will be specifically described with reference to FIG.

  As shown in FIG. 3, the yarn splicing carriage 3 includes a first yarn detection sensor (detection device) 52 that detects the presence or absence of the spun yarn 10 (unnecessary yarn 10a) in the first duct connecting pipe 51. The yarn joining cart 3 includes a second yarn detection sensor (detection device) 54 that detects the presence or absence of the spun yarn 10 in the second duct connecting pipe 53. The detection results of the first yarn detection sensor 52 and the second yarn detection sensor 54 are output to the cart control unit 40. The first yarn detection sensor 52 and the second yarn detection sensor 54 may be sensors using infrared rays, or may be sensors having other configurations as long as the catch of the spun yarn 10 can be detected. good.

  The carriage control unit 40 performs the process shown in FIG. 6 after piecing. First, the cart control unit 40 determines whether or not at least one of the first yarn detection sensor 52 and the second yarn detection sensor 54 detects the unnecessary yarn 10a (step S101). If both the first yarn detection sensor 52 and the second yarn detection sensor 54 have not detected the unnecessary yarn 10a, the carriage control unit 40 waits until the next instruction is given, assuming that the unnecessary yarn 10a is not caught ( Step S107). If the next instruction has already been received, the vehicle travels to the corresponding spinning unit 2.

  When at least one of the first yarn detection sensor 52 and the second yarn detection sensor 54 detects the unnecessary yarn 10a, the carriage control unit 40 sends an instruction to the traveling wheel drive motor 49, and causes the yarn joining carriage 3 to move to the rail 41. Are started to reciprocate along (step S102). By reciprocating the yarn splicing carriage 3, the first duct connecting pipe 51 and the second duct connecting pipe 53 can be moved, so that the direction in which the unnecessary yarn 10a is pulled can be changed. Therefore, the unnecessary yarn 10a can be released and the unnecessary yarn 10a can be discharged to the suction duct 85. In step S102, the carriage control unit 40 makes a reciprocation within a distance less than the unit width with respect to the traveling wheel drive motor 49 so that the unnecessary yarn 10a does not reach the other connection hole 85a. Direct movement. Note that the distance at which the yarn joining cart 3 is reciprocated may exceed the unit width as long as the unnecessary yarn is not caught by other members.

  The number of times that the yarn joining cart 3 is reciprocated may be one or more, and the number of times is not particularly limited. For reciprocating motion, there are various patterns such as a pattern starting from a predetermined starting point and returning to the starting point, and a pattern starting from the predetermined starting point, returning and passing once through the starting point, and then returning again to the starting point. There are various patterns.

  The cart controller 40 determines whether or not the first yarn detection sensor 52 and the second yarn detection sensor 54 detect the unnecessary yarn 10a while the yarn joining cart 3 reciprocates (step S103). ). When the first yarn detection sensor 52 and the second yarn detection sensor 54 no longer detect the unnecessary yarn 10a, the carriage control unit 40 considers that the unnecessary yarn 10a is released and the unnecessary yarn 10a is discharged, The reciprocation of the connecting cart 3 is stopped (step S104). Thereafter, the truck control unit 40 stands by until the next instruction is given (step S107).

  If the first yarn detection sensor 52 and the second yarn detection sensor 54 continue to detect the unnecessary yarn 10a even after the predetermined number of times has passed (step S105), the cart controller 40 cannot eliminate the catch of the unnecessary yarn 10a. Is determined, and the reciprocating motion of the yarn splicing carriage 3 is stopped and an abnormality (a yarn is detected) is notified (step S106). In the present embodiment, an alarm sound is generated and the fact is displayed on the monitor 91. The notification means is not limited to this, and may be displayed on a monitor (not shown) provided for each spinning unit 2, or an abnormality is notified by lighting a lamp (not shown) provided for each spinning unit 2. May be.

  By performing the processing as described above, it is possible to automatically detect that the unnecessary yarn 10a is caught in the passage route (the first duct connecting pipe 51 and / or the second duct connecting tube 53), and the caught unnecessary yarn 10a. Can be discharged automatically.

  As described above, the spinning machine 1 includes the plurality of spinning units 2, the yarn joining cart 3, the first yarn detection sensor 52 and the second yarn detection sensor 54, and the cart control unit 40. The plurality of spinning units 2 winds the spun yarn 10 to form a package 45. The yarn splicing carriage 3 includes a yarn suction device (a suction pipe 44 and a suction mouth 46) and a guide member (a first duct connecting pipe 51 and a second duct connecting pipe 53). The first yarn detection sensor 52 and the second yarn detection sensor 54 detect catching of the spun yarn 10 in the yarn joining cart 3. The cart controller 40 moves at least the guide member based on the detection result of at least one of the first yarn detection sensor 52 and the second yarn detection sensor 54.

  Thereby, since the trolley | bogie control part 40 can move force to the unnecessary thread | yarn 10a from various directions by moving a guide member, it can discharge | emit after releasing the catch of the unnecessary thread | yarn 10a. Therefore, it is possible to prevent the unnecessary yarn 10a from being taken around by the yarn joining cart 3 and being caught by other members. Further, since the spinning machine 1 can grasp whether or not the spun yarn 10 is caught inside the guide member, the spun yarn 10 that is caught can be automatically detected and discharged. Therefore, since the time for which the spinning machine 1 is stopped can be shortened, the winding efficiency can be improved.

  The spinning machine 1 of the present embodiment includes a suction duct 85 that carries the unnecessary yarn 10a that has passed through the guide member. The suction duct 85 has a path extending in the juxtaposed direction, and a connection hole 85 a that can be connected to the guide member is formed for each spinning unit 2.

  Thereby, in this embodiment, since the yarn splicing carriage 3 is not moved more than the unit width, the unnecessary yarn 10a generated in a certain spinning unit 2 can be discharged from the connection hole 85a corresponding to the spinning unit 2.

  The preferred embodiment of the present invention has been described above, but the above configuration can be modified as follows, for example.

  In the above embodiment, the first duct connecting pipe 51 and the second duct connecting pipe 53 are moved by reciprocating the yarn splicing carriage 3. However, the first duct connecting pipe 51 or the second duct connecting pipe 53 may be moved without moving the yarn splicing carriage 3. Further, a mechanism for independently moving the first duct connection pipe 51 and the second duct connection pipe 53 is provided. For example, when the first yarn detection sensor 52 detects the unnecessary yarn 10a, only the first duct connection pipe 51 is provided. You may control to move.

  In the above embodiment, the yarn joining cart 3 includes two detection devices (a first yarn detection sensor 52 and a second yarn detection sensor 54). Instead of this, one detection device may be provided at a position where it is possible to detect both catches of unnecessary yarn in the first duct connection pipe 51 and the second duct connection pipe 53. In addition, when the second duct connecting pipe 53 is not expected to catch unnecessary yarn, the second yarn detection sensor 54 may be omitted and only the first yarn detection sensor 52 may be provided. When the first duct connecting pipe 51 is not expected to catch unnecessary yarn, the first yarn detection sensor 52 may be omitted and only the second yarn detection sensor 54 may be provided.

  When it is assumed that the unnecessary thread 10a is caught between the opening of the suction pipe 44 (or the suction mouth 46) and the first duct connecting pipe 51, the unnecessary thread 10a is rotated by rotating the suction pipe 44 up and down. Can be eliminated. In this case, the space from the opening of the suction pipe 44 to the first duct connecting pipe 51 also corresponds to the “guide member”.

  The flowchart shown in FIG. 6 is an example, and as long as the effects of the invention can be exhibited, processes can be added or deleted, and the order of the processes can be changed. For example, when the yarn splicing cart 3 is reciprocated a predetermined number of times and the unnecessary yarn 10a is discharged almost certainly, the yarn splicing cart 3 may be stopped after reciprocating the number of times.

  The spinning device is not limited to the pneumatic spinning device 9, and may be another type of spinning device.

  In the above-described embodiment, the yarn joining cart 3 is reciprocated by an instruction from the cart control unit 40. However, the yarn joining cart 3 is reciprocated by an instruction from a device other than the yarn joining cart 3 (such as the machine control device 90). May be. The first yarn detection sensor 52 and the second yarn detection sensor 54 may be arranged at other locations than the yarn joining cart 3. However, since the guide members such as the first duct connecting pipe 51 are provided in the yarn joining cart 3, the spun yarn 10 can be detected more smoothly if the yarn joining cart 3 includes the first yarn detecting sensor 52 and the like.

  In the above embodiment, the spun yarn 10 is pulled out from the spinning device 9 by rotating the yarn accumulating roller 14 of the yarn accumulating device 12. Instead of this, a yarn feeding device for pulling out the spun yarn from the spinning device by sandwiching and rotating the spun yarn between the delivery roller and the nip roller may be provided.

  In the above embodiment, the spun yarn 10 is cut by stopping spinning of the spinning device 9 during the yarn splicing operation, but a cutter for cutting the spun yarn 10 may be provided separately.

  The present invention is not limited to a spinning machine, and can be applied to other textile machines as long as it has a work cart that can travel, and sucks and discharges yarn by the work cart. For example, a doffing device for an automatic winder is movable between winding units, and has a yarn suction device that catches the spun yarn to wind the spun yarn around a new bobbin. Therefore, the present invention can be applied to an automatic winder.

1 Spinning machine (spinning machine)
2 Spinning unit (winding unit)
3 Yarn splicing cart 40 Cart control unit (control unit)
44 Suction pipe (first thread suction member)
46 Suction mouse (second thread suction member)
51 First duct connection pipe (guide member)
52 First thread detection sensor (detection device)
53 Second duct connection pipe (guide member)
54 Second thread detection sensor (detection device)
85 Suction duct (discharge duct)

Claims (9)

A plurality of winding units for winding a yarn to form a package;
A work carriage having a yarn suction device that sucks the yarn, and a guide member in which a passage path through which the yarn sucked by the yarn suction device passes is formed;
A detection device for detecting thread catching in the work carriage;
A control unit that moves at least the guide member based on a detection result of the detection device;
A textile machine comprising: The textile machine according to claim 1,
The control unit controls the work cart so as to reciprocate the work cart within a range of a distance less than a length of one of the winding units in the juxtaposing direction of the winding units. Textile machinery. The textile machine according to claim 1 or 2,
A discharge duct for carrying the yarn that has passed through the guide member;
The discharge duct has a path extending in a direction in which the winding units are arranged side by side, and a connection hole connectable to the guide member is formed for each winding unit. A textile machine according to any one of claims 1 to 3,
The textile machine according to claim 1, wherein the detection device is provided to detect the presence or absence of a thread in the guide member. A textile machine according to claim 4,
The controller is
Controlling the guide member to move the guide member when the detection device detects a yarn;
After the movement of the guide member, the textile machine controls the guide member to stop the movement of the guide member when the detection device no longer detects the yarn. A textile machine according to claim 4 or 5,
A textile machine comprising an informing unit for informing the detection of the yarn when the detecting device detects the yarn after the guide member is moved a predetermined number of times or more. A textile machine according to any one of claims 1 to 6,
The winding unit is
A draft device for drafting fiber bundles with a draft roller;
A spinning device that produces a spun yarn by twisting a fiber bundle supplied by the draft device by a swirling air flow;
A winding device for winding the spun yarn around the package;
A textile machine comprising: A textile machine according to claim 7,
The working carriage is
A textile machine comprising a yarn splicing device for splicing the yarn sucked by the yarn suction device. A textile machine according to claim 7 or 8,
The yarn suction device includes:
A first yarn suction member that sucks and captures the yarn end of the yarn supplied from the spinning device;
A second yarn suction member for sucking and catching the yarn end of the yarn on the package side;
A textile machine comprising:

Images