in the following description , a “ nominal ” size payout tube or payout hole refers to the size ( diameter ) of the payout hole or payout tube that is formed for filamentary material having little or no twist characteristics in accordance with the winding techniques disclosed in u . s . pat . no . 5 , 678 , 778 ) high speed , dual head , on - line winding apparatus , u . s . pat . no . 5 , 470 , 026 , uniform width payout hole and u . s . pat . no . 4 , 406 , 419 , method and apparatus for winding flexible material and all being assigned to windings , inc . the assignee of the present application . the respective disclosures of these patents are incorporated herein by reference . in accordance with the principles of the present invention , the payout hole is produced in the wound coil by producing a payout hole of ninety degrees ( 90 ) or larger . in present day state of the art reelex winding machines that have digital input controls , the size of the hole ( in degrees ) may simply be dialed as an input to the winding machine control and the winding process will produce a payout hole having the dialed - in diameter . unless corrections are made during the normal reelex winding proces such as set forth in windings &# 39 ; u . s . pat . no . 4 , 406 , 419 and 5 , 678 , 778 , for example , a payout hole having a diamond shape rather than a circular shape will be produced . however , as disclosed in windings &# 39 ; u . s . pat . no . 5 , 470 , 026 , a payout hole having a substantially constant diameter may be produced . as set forth in the description of this patent , a constant diameter coil results in eliminating or reducing “ valleys ” and lumpiness of wound coils . commensurate with the decrease in the lumpiness of the wound coil is a reduction in the overall diameter of the wound coil ( for a given wind ), thereby resulting in a decreased overall diameter coil that can be packaged in a smaller container . finally , maintaining the desired diameter payout hole results in a smaller circumference wind , thereby also attributing to a smaller diameter coil because increasing the size of the payout hole diameter as the coil is wound causes increasing circumference of the wind . the reelex winding process normally does not produce twist in the wound coil ; however , such a winding process does not eliminate or reduce the inherent twist in certain filamentary materials such as cat - type cables , for example . thus , it is necessary to account for the twist in wound coils with such twist - inherent filamentary materials when a wound coil of such filamentary material is being unwound through the payout hole and payout tube . the large diameter payout tube and payout hole according to the invention serves several functions . 1 ) it keeps the crossovers further away from the exit hole in the wound coil or cable , thereby limiting the radius of the loops that develop near the payout hole . 2 ) it allows any “ backed - up ” twist that develops a way to exit the package . 3 ) it allows the payout exit point the freedom to move away from the crossover or a developing loop . with a smaller diameter payout tube the exit point is essentially fixed so the crossover must move . if the crossover does not move , the fig8 loop can become quite small . 4 ) because the payout smoothness is so greatly enhanced there is little force on the payout tube during payout . this increases the options available for the material that can be used for producing the payout tubes . tubes made from molded paper pulp and die cut cardboard or corrugated paper board have all been used with success . the payout hole produced by the reelex method of winding , as exemplified by the aforementioned u . s . patents , is already diamond - shaped and nothing special needs to be done to produce such a shape . until recently the payout tubes have all had a round cross - section . as described above , by making the payout hole larger than nominal and using a large diameter ( round ) payout tube , the distance , in degrees , between the exit point and where the crossover nearest the hole is greatly increased . using an oval shape can increase this distance even more . the diamond and oval - shaped tube guides are similar to each other except that the corners are rounded in the case of oval - shaped guides / tubes . what makes the diamond - shaped guide / tube interesting is that it can be made without expensive molding equipment and can be made from the waste portions of the corrugated material that is used to make the box for the coil . all of the molded payout tubes have a generous radius at the “ mouth ” that helps smooth out the payout even further . in fact all of the large payout tubes ( guides ) are tapered for improved payout characteristics , and because this allows them to be stacked inside one another , they will take up less room during shipment . the wound coils or cable are produced with payout holes of in excess of 90 degrees of circumference . this is easily accomplished using any one of windings , inc .&# 39 ; s winding machines in existence ( for example , see windings , inc .&# 39 ; s u . s . pat . no . 4 , 406 , 419 and / or u . s . pat . no . 5 , 678 , 778 ). the hole slant is corrected for , and the constant hole size is adjusted for , using the methods described in the windings , inc .&# 39 ; s u . s . pat . no . 5 , 470 , 026 for generating a uniform width payout hole . the payout tube 20 of fig1 is preferably made of injection molded plastic or pulp paper and includes body 22 , coaxial entrance opening 24 and exit opening 25 . as illustrated in fig1 entrance opening 24 and exit opening 25 are circular ( see fig3 ) as will be explained more fully hereinafter . the distance between entrance 24 and exit 25 openings may be varied as desired to accommodate different sized diameter windings . flange 26 extends around the circumference of exit opening 25 to engage the side panel of a container holding the wound coil as is well known to those skilled in the art of payout technology . payout tube 20 is made of injection molded plastic in accordance with well - known plastic molding , pulp paper or corrugated paper techniques . the body 22 of payout tube 20 narrows from the diameter of exit opening 25 to the diameter of entrance opening 24 as illustrated in fig1 . in the side view of the payout tube 20 shown in fig2 the wall thickness of body 22 is approximately 0 . 04 inches for plastic tubes and ¼ inch for paper pulp tubes . the distance between the inside of entrance opening 24 and the outside of exit opening 25 is approximately 3 . 5 inches . the length of the payout tube 20 may be increased or decreased as necessary to accommodate the thickness of the wound coils with which the payout tube 20 is used . flange 26 extends beyond the sides 27 of the payout tube 20 a sufficient amount to provide appropriate engagement of the flange with the side panel of the container ( not shown ). [ 0055 ] fig3 is a rear view of payout tube 20 ( i . e . as viewed from the exit opening 24 end of payout tube 20 ) and shows the circular configuration of both the entrance 24 and exit 25 openings of the payout tube 20 . the inner diameter 24 a and outer diameter 24 b of exit opening 24 differ by approximately 0 . 04 inches for plastic tubes and ¼ inch for paper pulp to provide suitable stiffness and ruggedness to accommodate stiff filamentary material . the inner diameter 25 a and outer diameter 25 b of exit opening 25 is also shown and preferably there is a difference of ½ inch in the respective diameters to provide a 0 . 04 inch for plastic tubes and ¼ inch thickness for pulp payout tubes of the body 22 of the payout tube 20 . exit opening 25 includes a flange portion 25 b that rests against the outer surface of a container panel housing the wound coil ( not shown ) as is known to the art . entrance and exit openings 24 and 25 are sufficiently large to allow filamentary material wound in a configuration with a radial opening from the outer to the inner winds to be withdrawn from the inside of the coil and through the payout tube 20 without birdnesting or kinking . the configuration of the payout tube 20 in accordance with the invention essentially eliminates kinking and birdnesting of cat 5 , cat 6 and cat 7 cables and also improves the winding payout of all other filamentary material wound in accordance with the reelex i and reelex ii techniques , for example as described in u . s . pat . no . 4 , 406 , 419 for reelex i and this application as well as application ser . no . 09 / 063 , 278 for reelex ii techniques . for further explanation of the size of the openings to allow for kinkless payout , ( see the explanation below as taken from u . s . pat . no . 5 , 979 , 812 ). fig4 - 6 illustrate another embodiment of the invention wherein the entrance and exit openings are oval in shape . in the top view of payout tube 30 the tube includes exit opening 31 and entrance opening 32 , both in the form of a diamond , and wherein the dimensions of the two openings are as follows : width and length of the entrance opening are 2 . 49 and 1 . 77 inches , respectively ; width and length of the exit diamond shaped opening are 5 . 06 and 3 . 66 , respectively . fig5 illustrates the manner in which the payout tubes 30 may be nested . [ 0059 ] fig7 simply illustrates an elliptical ( football ) shaped payout tube 40 and fig9 shows a side view of the payout tube 40 . [ 0060 ] fig9 a and 9b illustrates a payout tube 50 made of folded corrugated fiber and having a truncated shape as shown in fig9 b . flaps 51 , 52 , 53 and 54 extending from the respective sides of the diamond - shaped exit opening 55 are folded to form the sides 56 and 57 of the payout tube 50 . flanges 58 , 59 are formed by the folded flaps to engage the side panel of a container ( not shown ) to enable the payout tube 50 to remain in position with respect to the payout hole of the wound coil housed in the container . the formation of the payout tube using corrugated fiber or other paper products provides a significant advantage with respect to the ecological disposal of the payout tube , for example as compared with a payout tube formed of plastic . a combined container and payout tube in accordance with a fourth embodiment of the invention is illustrated in fig1 a and shows container 60 for holding a wound coil of filamentary material ( not shown ) and including a payout hole extending from the inner coil to the outer coil and formed in accordance with the method disclosed in previously mentioned u . s . pat . no . 5 , 979 , 812 . a serrated opening 62 is provided in panel 63 and is opened to allow the wound filamentary to be removed from the container 60 . the filamentary material ( not shown ) is threaded through a payout tube 64 shown in phantom lines and which is incorporated as part of the container 60 as will be more fully described hereinafter . hand hold 65 enables container 60 to be carried from site to site . semi - circularly - shaped cutout provides access to the interior of container 60 after it is assembled as is described more fully hereinafter with respect to fig1 b . container 60 is dimensioned in accordance with the diameter of the wound coil that is to be contained therein and may be manufactured in standard sizes to accommodate standard diameters of wound coils . for example , the container 60 shown in fig1 a may be 9 . 5 inches × 13 . 5 inches to accommodate a 12 inch diameter wound coil . opening 62 may be circular - shaped , diamond - shaped , or oval - shaped in conformance with the disclosure in application ser . no . 09 / 063 , 278 . cross - shaped opening 67 enables the end of the filamentary material protruding from opening 62 to be inserted to prevent it from freely moving in a random manner and falling back into the container . [ 0064 ] fig1 b shows a plan view of container 60 as it appears in unassembled form and consists of four sections , namely sections 70 , 72 , 74 and 76 . first section 70 includes end panel 71 , bottom panel 73 and top panel 75 . top panel 75 in turn includes v - shaped cutout 77 which forms part of a diamond - shaped payout tube to be more fully described hereinafter . hand hold 78 enables the container 60 to be carried about as desired . serrated hole 79 enables the end of the filamentary material of the wound coil to be inserted , thereby preventing it from moving freely . flap 80 at the side of end panel 71 is a glue flap that connects panel sections 70 and 76 during the manual process that produces the box . second section 72 comprises side panel 81 , bottom panel 82 and top panel 83 . top panel 82 includes a diamond - shaped payout tube opening 84 , hand - hold 85 , opening 86 , which aligns with opening 79 in top panel 75 . flaps 87 and 88 in top panel 83 provide a means for securing top panel 83 with a counterpart top panel in fourth section 76 to be described more fully hereinafter . flaps 89 and 90 in bottom panel 82 also aid in securing bottom panel 82 with a counterpart bottom panel in fourth section 76 . third section 74 comprises an end panel 91 , bottom panel 92 and top panel 93 . top panel 93 includes the other half of the diamond - shaped and round - shaped opening payout tube 94 formed along with v - shaped cutout 77 in top panel 75 when the various sections of the container are folded over during assembly . fourth section 76 includes side panel 95 , bottom panel 96 and top panel 97 . side panel 95 includes port 98 which provides access to the wound coil when container 60 is assembled . bottom panel 96 includes flap 98 for engaging a counterpart opening in the bottom panel 82 . top panel 97 includes serrated opening 99 , which is aligned with payout tube opening 84 in top panel 83 when container 60 is assembled . once the box is assembled serrated hand hold 100 aligns with hand - holds 78 and 85 providing three larger corrugated thicknesses and increased strength for carrying the container 60 . flap 101 engages a counterpart opening in top panel 83 when the container 60 is assembled by folding over the various sections described above . the procedure for assembling the container 60 is as follows : ( 1 ) the payout tube ( round , diamond or oval - shaped ) is inserted into the hole of the coil . ( 2 ) the coil is then inserted into the box ( after the bottom is made and the coil material is threaded through the guide tube ). ( 3 ) the flaps 75 and 93 are slid under the flange of the tube by bending the flaps at a and b . at this point a round tube will be held by the round portion of the cutout 77 / 94 . a diamond will be held in place and in shape by the pointy area of the cutout 77 / 94 . the side flaps 75 and 93 both have tabs ( x & amp ; y ) that mate with slot z . when these tabs are mated with the slot the two flaps prevent the tube from falling into the box when the coil is completely payed out . ( 4 ) the flap 83 is folded over the tube , which helps hold the tube in place along with the top flap 97 . when the container 60 is assembled as shown in fig1 a , and as described above , with a wound coil of filamentary material enclosed therein , the end of the filamentary material ( not shown ) is unwound through the payout tube 71 , 77 , and 84 without kinking or birdnesting . the combined container and payout tube structure according to the invention provides a single structure for housing and paying out the wound filamentary material . the construction of the container 60 of corrugated paperboard makes the payout tube and the container recyclable . in summary , the round paper pulp guide tube has a wall thickness of approximately ¼ inch and may be made in various lengths depending on the coil size with a 2½ inch entrance opening as illustrated in fig1 . the diamond - shaped ( with round corners ) paper pulp guide tube has a wall thickness of approximately ¼ inch and has the approximate dimensions as the diamond shape discussed in the above description . the paper pulp material has the distinct advantages of being biodegradable and recyclable . it is also the least expensive of the three materials disclosed herein and may be purchased close to any location where it is to be used , thereby significantly reducing transportation costs . the round plastic guide tube has a wall thickness of approximately 0 . 04 inches , is biodegradable and has the advantage of stacking more efficiently than the pulp paper guides . this makes shipping costs lower , plus the other advantages mentioned in the above description . the advantage of the round tube over the diamond - shaped corrugated tube is that they tend to retain their shape once inserted into the payout hole . at most they may tend to become oval . however , the side flaps 75 and 93 ( fig1 b ) form a diamond shape opening once placed behind the flange of the guide tube and help to retain the diamond shape . the above description serves only to describe exemplary embodiments of the best mode of making the combined fiber container and payout tubes and plastic payout tubes to demonstrate the features and advantages of its construction and operation . the invention is not intended to be limited thereby , as those skilled in the art to which the invention is directed will readily perceive modifications of the above - described embodiments . thus the invention is intended to be limited only by the following claims and the equivalents to which the claimed components thereof are entitled . the general representation of one fig8 of a reelex coil laid out flat and shown in fig1 represents two revolutions of the mandrel . if the coil in fig1 were wrapped around a circle of proper diameter such that the points marked a and b were located at the same point would represent one revolution of the mandrel . if the representation were wrapped around the same circle twice , points a , b and c would be coincident and a complete fig8 would be represented . in this example the fig8 is wound on an 8 ″ mandrel and the loops of the fig8 extend 3 . 5 ″ on either side from the center of the mandrel . the pattern is roughly a sinusoid represented by equation ( 1 ): where dm is the diameter of the mandrel , x is the length along the circumference and yc is the coil pattern . [ 0082 ] fig1 illustrates the commensurate payout hole . if the hole is created to be 99 degrees then it exists for 99 / 360 of the circumference , which for an 8 ″ mandrel is l = 99 × 8 × pi / 360 = 6 . 912 ″. with this data and the angle ( h ), the width of the payout hole is found to be 3 . 024 ″. therefore , the opening of the tube is a diamond that is 6 . 912 ″ long and 3 . 024 ″ wide . however , it has been found that the wire gets caught in the narrow v &# 39 ; s at the ends of the long dimension . also a payout tube created in this way is weak and subject to cracking ( especially for plastic ). a radius of ¼ ″ to ½ ″ is created as shown . the new length is 4 . 626 ″. the minor dimension of the guide tube is simply rounded as shown in fig1 , thereby reducing the width but not less than 2½ ″. the current tube is about 2¾ ″. if the payout hole were produced with a constant angle the size of the hole would be 13 . 824 ″ by 4 . 32 ″ at the end of a 16 ″ diameter coil . however , the payout holes are not produced with a constant angle , but they are larger . the shape of the payout tube , its taper in this case , is more a function of molding and stacking stability . thus , for example , a ¾ ″ taper from the entrance of the payout tube to the exit thereof may be approximately ¾ ″ to enable the payout tubes to be stacked , thereby enhancing their transportability . the wound coil 90 shown in fig1 a has a 40 degree payout hole 92 with a 1 inch od payout tube 94 . the distance between the top cross - over 95 and the exit point 96 is approximately 26 degrees as illustrated in the fig . this subtends a coil arc of 1 . 82 inches on an 8 inch mandrel and a 3 . 18 inch coil arc at 14 inches ( 14 inches is chosen because this is the nominal size for cat5 - cat7 unshielded cables ). the wound coil 100 shown in fig1 b has a payout hole 102 of 110 degrees using a round payout tube / guide 102 of approximately 2 . 75 inches . the crossover 103 and exit point 104 distance is 70 degrees which corresponds to coil arcs of 4 . 89 inches and 8 . 55 inches for an 8 inch mandrel and a 14 inch coil , respectively . the wound coil 110 shown in fig1 c has a diamond - shaped hole 111 of 110 degrees and includes a diamond - shaped payout guide 112 . the crossover 113 and exit point 114 distance is 100 degrees which corresponds to coil arcs of 7 inches and 12 . 22 inches for an 8 inch mandrel and a 14 inch coil , respectively . the wound coil 120 shown in fig1 d has a payout hole 121 of 110 degrees and uses a generally oval - shaped guide 122 . the crossover 123 and exit point 124 distance is 100 degrees which corresponds to coil arcs of 7 inches and 12 . 22 inches for an 8 inch mandrel and 14 inch coil , respectively . it is apparent that , since the distance from the exit point and the crossovers nearest the payout hole are greatly increased , the filamentary material ( cable or wire ) does not have to experience anywhere as much bending stress with a larger than nominal hole and guide in accordance with the method of the invention . moreover , the larger than nominal payout hole / tube of the invention is better than the nominal prior art - sized payout holes / tubes for many electronic and fiber optic cables as the bending radius of the coil is increased over that afforded by prior art winding techniques . furthermore , the payout is also much smoother because the bending forces are much lower . with the smaller payout hole and tube , as the bending radius decreases , and the forces increase , the cable tends to spring free from the coil wall , placing many loops in the path of the exiting cable . this is reduced ( or even eliminated ) with the large hole . this is all in addition to the twist that is allowed to exit the package . therefore , it is desired that the present invention not be limited to the embodiments specifically described , but that it include any and all such modifications and variations that would be obvious to those skilled in this art . it is our intention that the scope of the present invention should be determined by any and all such equivalents of the various terms and structure as recited in the following annexed claims .