Classifications

• • B—PERFORMING OPERATIONS; TRANSPORTING
  • B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
  • B65H—HANDLING THIN OR FILAMENTARY MATERIAL, e.g. SHEETS, WEBS, CABLES
  • B65H65/00—Securing material to cores or formers
• • B—PERFORMING OPERATIONS; TRANSPORTING
  • B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
  • B65H—HANDLING THIN OR FILAMENTARY MATERIAL, e.g. SHEETS, WEBS, CABLES
  • B65H67/00—Replacing or removing cores, receptacles, or completed packages at paying-out, winding, or depositing stations
  • B65H67/04—Arrangements for removing completed take-up packages and or replacing by cores, formers, or empty receptacles at winding or depositing stations; Transferring material between adjacent full and empty take-up elements
• • B—PERFORMING OPERATIONS; TRANSPORTING
  • B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
  • B65H—HANDLING THIN OR FILAMENTARY MATERIAL, e.g. SHEETS, WEBS, CABLES
  • B65H2701/00—Handled material; Storage means
  • B65H2701/30—Handled filamentary material
  • B65H2701/31—Textiles threads or artificial strands of filaments
  • B65H2701/312—Fibreglass strands
  • B65H2701/3122—Fibreglass strands extruded from spinnerets

Definitions

• the invention disclosed herein relates to the production of continuous textile strands incorporating process and apparatus for the semi-automatic start up of such production.
• the production of continuous glass filaments is effected in a two level operation.
• the first, or forming room, level generally contains the fiber-forming feeder and size applicating systems, and the second, or lower level, generally contains the winder and other associated equipment.
• the method and apparatus disclosed herein provides a system wherein the operator on the forming room level, without help from an operator on the winder level, can initiate the attentuation and collection of such strands.
• Method and apparatus for producing wound packages of strand comprising: a feeder adapted to supply streams of heat softened inorganic material, said feeder being located on a first level of a structure, a winder adapted to attenuate said streams into filaments having a driven rotatable collet having a package collection region and a temporary collection region associated with a strand engaging section, said winder being located on a second level of said structure, means for gathering said filaments into a strand, an interim advancement means for advancing said strand when said strand is not being collected on said collet, said interim advancement means being spaced from said collet, said interim advancement means and said collet being oriented such that said strand is advanced along a path immediately adjacent said strand engaging section when said strand is advanced by said interim means from said gathering means; movable member positioned intermediate said collet and said interim advancement means, said member being adapted to move said strand from a first zone spaced from said collet and said interim advancement means
• FIGURE 1 is a semi-schematic front elevational view of a fiberforming operation according to the principles of this invention.
• FIGURE 2 is a side elevational view of the system as shown in FIGURE 1.
• FIGURE 3 is a plan view of one of the components shown in FIGURES 1 and 2.
• FIGURE 4 is a sectional view along view 4-4 of
• FIGURE 1 of certain components of the system at a first point in time.
• FIGURE 5 is similar to FIGURE 4 depicting the same components in a different relationship at a different point in time.
• FIGURE 6 is similar to FIGURES 4 and 5 depicting the relationship of some components at yet another point in time.
• FIGURE 7 is similar to Figures 4, 5 and 6 depicting such components in a different relationship at yet another point in time.
• FIGURE 8 shows another embodiment of one form of the invention disclosed herein. BEST MODE OF CARRYING OUT INVENTION
• feeder 10 supplies a plurality of streams of molten inorganic mineral material, such as glass, which are attenuated into filaments 14 by means of winder 40.
• size applicator 18 applies a suitable liquid sizing or coating material as is known in the art.
• filaments 14 are divided into strands 15 and 16 at gathering shoes 20 and a pair of gathering shoes 22 and 23, respectively.
• Strands 15 and 16 then advance through opening 26 in floor 25 which separates first level 28 and second level 30 of the structure where strands 15 and 16 are wound into packages 17 on winder 40.
• a forming room operator occupies the first level 28 where he tends to the feeder and size applicators, and another operator located on the second level 30 tends to the winder 40.
• Winder assembly 40 is comprised of driven rotatable collets 42 and 43 which are rotatably mounted on turret 45 which is rotatably mounted in housing 41.
• Such turret type winders can be of any suitable type, for example, see U.S. Patents No. 3,109,602 and No. 3,292,871.
• Traversing assembly 47 of winder 40 is comprised of a shaft 48 and spiral wires 49 and 50 as is known in the art.
• Each of the collets 42 and 43 has a plurality of package collection sections 52 and 53 and a temporary collection region 55 having a strand engagement section 56 associated therewith.
• Collets 42 and 43 having package collection sections 52 and 53 and temporary collection region 55 having an associated strand engagement section 56 can be of the type disclosed in U.S. Patents No. 4,069,984, No. 4,046,329, and No. 4,054,249 issued to Klink and Eisenberg which are hereby incorporated by reference.
• strand engagement section 56 consists of a groove having a pin projecting therefrom to entrap strands 15 and 16 when the strands are brought into the strand engagement section 56 as the collet is rotating.
• rubber bands may be wrapped in the base of the groove as an alternative or in combination with the pin.
• actuator means 60 which can be attached to winder 40, is comprised of shaft 61 which is attached at one end to carriage 62 which is rotatable and linearly movable to advance shaft 61 in a direction along its length and rotate about an axis substantially parallel to shaft 61 but spaced therefrom, as is known in the art.
• Projections 64 and 65 extend laterally outward from shaft 61 to engage strands 15 and 16 as will be described later herein.
• threading device 71 which can be attached to housing 41, is comprised of an interim advancement means 72, movable member 79 and a nozzle means 84.
• Housing 74 of threading device 71 securely contains interim advancement means 72 which is comprised of a pair of meshed rolls 75 adapted to advance strand therebetween at predetermined times.
• interim advancement means can be of the type disclosed in U.S. Patents No. 3,539,317 and No. 4,050,639 which are hereby incorporated by reference.
• Movable member or bar 79 is attached at one end to motive means 77 such as a rotary pneumatic cylinder.
• Distal end 80 of movable member 79 is a forwardly disposed J-shaped configuration which is employed to move strands 15 and 16 from first zone 94 to second zone 95 as will be explained later herein.
• Nozzle means 84 is positioned opposite rolls 75 to direct a stream of fluid, such as water, inwardly between rolls 75 such that strands 15 and 16 positioned in second zone 95, which is located immediately in front of and adjacent to rolls 75, are fluidically forced in between driven rotatable rolls 75 and advanced thereby.
• a stream of fluid such as water
• Plate or guide means 91 extends approximately from a point adjacent opening 26 and floor 25 to a point adjacent first zone 94.
• the lower edge of guide means 91 is laterally displaced from threading device 71 such that strands 15 and 16 can be hand fed by the forming operator on the first level down guide means 91 into first zone 94.
• Guard 92 located intermediate the apparatus of winder assembly 40 and guide means 91 is positioned to assist the operator in directing strands 15 and 16 along guide means 91.
• control means 97 which can be of the foot operated solenoid type readily known in the art, is positioned to allow the operator on the first level to control the movements of threading device 71 from the forming room area to initiate the attenuation and advancement of strands 15 and 16 by winder assembly 40 in the absence of assistance from an operator located on the second level.
• the threading device 71 when employed with a winder adapted to wind a plurality of packages on each collet, is used in conjunction with an actuator means 60 which is spaced from collets 42 and 43 and from threading device 71.
• actuator device 60 is a modified hold-off means which, as is known in the art, operates during automatic transfer of the winding operation from one collet to the next.
• the forming room operator on the first level 28 manually pulls filaments 14 over size applicators 18 and separates the filaments into two groups of strands 15 and 16 at gathering shoes 20, 22 and 23, respectively.
• a tandem pair of gathering shoes 22 and 23 are employed to more positively retain strand 16 within the gathering shoes as the operator manually advances strands 15 and 16 through opening 26 to first zone 94 in the second level 30.
• control means or foot switch 97 to activate member 79 to move through a partial arc such that strands 15 and 16 are moved or swept into second zone 95 located immediately in front of rolls 75.
• nozzle means 84 is also activated to supply a stream of fluid 86 (from a source not shown) such that strands 15 and 16 are fluidically forced into and between rolls 75 such that strands 15 and 16 are advanced thereby.
• the interim advancement means 72 and the collet in the package build position (collet 42 as shown in FIGURE 1) are oriented such that the strands are advanced along a path immediately adjacent the strand engaging section 56 of collet 42. As such, the strands may or may not be in contact with collet 42, but in any event are not being advanced by means of collet 42, even though collet 42 may be rotating.
• Actuator means 60 may also be activated by control means 97 to extend shaft 61 such that the strands do not improperly engage various components of the winder such as traversing assembly 47 as the forming room operator manually controls strands 15 and 16 so they engage the interim advancement means.
• an automatic start switch located on the first level to activate actuator means 60 to place actuator in the automatic start-up mode to initiate the advancement of strands 15 and 16 upon collet 42 and the subsequent initiation of package build for both packages.
• FIGURES 4, 5, 6 and 7 schematically depict the orientation of strands 15 and 16 with respect to collet 42, traversing assembly 47 and actuator means 60 during the auto-start-up mode.
• FIGURE 4 depicts a point in time wherein strands
• Interim advancement means 72, collet 42, gathering means 20, 22 and 23 are oriented such that strands 15 and
• FIGURE 5 depicts the system at a point in time subsequent to that of FIGURE 4 after the operator has activated the automatic start up mode switch causing actuator means 60 to activate such that shaft 61 moves linearly and arcuately outwardly such that first projection 64 forces or moves strands 15 and 16 into the strand engagement section 56 causing strands 15 and 16 to be wound upon temporary collection region 55 of collet 42.
• Carriage 62 is attached to a cam guided pneumatic cylinder assembly, as is known in the art, to produce the rotational and lateral movement of shaft 61.
• actuator means 60 is momentary to move strands 15 and 16 into section 56, and actuator means 60 is deactivated or retracts for a predetermined length of time to allow strands 15 and 16 to assume their natural spaced apart-orientation tangent to the circumference of the collet as shown in FIGURE 6.
• the gathering shoes 20, 22 and 23 and collet 42 are oriented to provide the spaced-apart orientation of strands 15 and 16 when the strands are not influenced by the spiral wires and/or the actuator means 60.
• actuator means 60 is reactivated to laterally and rotatably thrust shaft 61 along collet 60 such that projection 64 engages only strand 15 and projection 65 engages only strand 16 moving strands
• Traversing assembly 47 is then positioned with respect to strands 15 and 16 such that as actuator means 60 is again deactivated strands 15 and 16 properly engage spiral wires 49 and 50, respectivelyas shown in Figure 7.
• actuator means 60 is again deactivated strands 15 and 16 properly engage spiral wires 49 and 50, respectivelyas shown in Figure 7.
• the electro-mechanical control system for controlling actuator means or hold off assembly 60 can be modified by the addition of a pair of timers and associated contacts, switches and relays to effect the first activation of the actuator means 60 to force strands 15 and
• the control system for activating the actuator means 60 is not energized during the fully automatic mode operation of the turret type winder. That is, the actuator means or hold off arm resumes normal function as a hold off means during the fully automatic mode of the winder for strand transfer from collet to collet with the double thrust being reserved only for automatic start-up.
• threading device 117 as shown in FIGURE 8 incorporates interim advancement means 120, movable member 128, nozzle means 136 and actuator means 131.
• Housing 122 which can be attached to winder 40 contains driven meshed rolls 124 adapted to advance the strand therebetween, as is known in the art.
• first zone 94 which is spaced from the collet spiral wire and threading device
• the operator activates motive means 126, such as a rotary air cylinder, by means of control means 97 located on the first or forming level.
• Motive means 126 can be fastened to housing 122.
• element 134 Attached to the output end of motive means 126 is element 134 which is attached to one end of movable member 128.
• the distal end of movable member 128 is J- or cup-shaped to effect the transfer of movement of the strand from the first zone to the second zone immediately in front of rolls 124.
• actuator means 131 which can be another curved or bent rod having a forwardly biased end 132 similar to movable member 128. As can be seen in FIGURE 8, rod 131 is substantially shorter than member 128 and is arcuately displaced forwardly of member 128.
• the motive means 126 is first activated to effect an arcuate sweep of member 128, as shown in FIGURE 8, to engage and move the strand from the first zone to the second zone immediately in front of rolls 124.
• a stream of fluid from nozzle 136 forces the strand between rolls 124.
• the operator then disengages or deactivates motive means 126 to return the member 128 and rod 131 to the position shown in solid lines in FIGURE 8.
• the strand is being advanced by the interim advancement means 120 and is advancing along a path immediately adjacent strand engagement section 56 of the collet.
• Rod 131 has a forwardly biased end 132 to permit the withdrawal of rod 131 without permanently displacing the strand from the staged position adjacent the strand engagement section of the collet. That is, the curved or forwardly biased end 132 merely "bumps" the strand slightly outwardly and does not substantially carry the strand back with the rod, which permits rod 131 to be retracted.
• rod 131 Upon the subsequent activation of motive means 126, rod 131 then engages the strand being advanced by the pull rolls and laterally moves the strand into engagement with the strand engagement section to initiate collection of the strand upon the collet. Rod 131 must not extend into the first zone to effect proper strand transfer.

Landscapes

• Replacing, Conveying, And Pick-Finding For Filamentary Materials (AREA)
• Winding Filamentary Materials (AREA)

Applications Claiming Priority (2)

Publications (1)

Family

ID=22005806

Family Applications (1)

Country Status (6)

Families Citing this family (11)

Citations (8)

Family Cites Families (1)

• 1979
  • 1979-07-11 US US06/056,653 patent/US4230284A/en not_active Expired - Lifetime
• 1980
  • 1980-06-02 WO PCT/US1980/000680 patent/WO1981000247A1/en active IP Right Grant
  • 1980-06-02 JP JP55501509A patent/JPS6363462B2/ja not_active Expired
  • 1980-06-20 CA CA354,506A patent/CA1131602A/en not_active Expired
  • 1980-07-08 BE BE0/201324A patent/BE884214A/fr not_active IP Right Cessation
• 1981
  • 1981-02-09 EP EP80901290A patent/EP0032904B1/en not_active Expired

Patent Citations (8)

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