JPS6026912A - Apparatus for producing optical fiber cable - Google Patents

Apparatus for producing optical fiber cable

Info

Publication number
JPS6026912A
JPS6026912A JP58135027A JP13502783A JPS6026912A JP S6026912 A JPS6026912 A JP S6026912A JP 58135027 A JP58135027 A JP 58135027A JP 13502783 A JP13502783 A JP 13502783A JP S6026912 A JPS6026912 A JP S6026912A
Authority
JP
Japan
Prior art keywords
spacer
grooves
die
optical fiber
groove
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
JP58135027A
Other languages
Japanese (ja)
Other versions
JPH0132485B2 (en
Inventor
Akira Watanabe
昭 渡辺
Tsuneyuki Kobayashi
恒之 小林
Yasuhiko Suzuki
保彦 鈴木
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Hitachi Cable Ltd
Original Assignee
Hitachi Cable Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Hitachi Cable Ltd filed Critical Hitachi Cable Ltd
Priority to JP58135027A priority Critical patent/JPS6026912A/en
Publication of JPS6026912A publication Critical patent/JPS6026912A/en
Publication of JPH0132485B2 publication Critical patent/JPH0132485B2/ja
Granted legal-status Critical Current

Links

Classifications

    • GPHYSICS
    • G02OPTICS
    • G02BOPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B6/00Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings
    • G02B6/44Mechanical structures for providing tensile strength and external protection for fibres, e.g. optical transmission cables
    • G02B6/4479Manufacturing methods of optical cables

Landscapes

  • Physics & Mathematics (AREA)
  • Engineering & Computer Science (AREA)
  • Manufacturing & Machinery (AREA)
  • General Physics & Mathematics (AREA)
  • Optics & Photonics (AREA)

Abstract

PURPOSE:To enable free selection of sizes of grooves and groove pitch and elimination of inclined ribs and narrowed grooves by forming a spacer by extrusion molding to a tension member and forming at the same time shallow grooves thereto and cooling the member then cutting deeply the grooves by a slotting device. CONSTITUTION:A tension member 1 is formed with shallow grooves in the extrusion die 10 of an extruder 8 and is formed with a spacer 7 by extrusion molding and thereafter the spacer 7 is cooled while the member passes through a water tank 14. The spacer 7 is fed via a feeder 24 into a slotting device 15 attached to a cage 22 and is cut to have prescribed grooves 4 by a cutter 25. The cut spacer enters an aggregating die 20. On the other hand, optical fibers 2 from a bobbin 23 enter the die 20 via an aggregating plate 21. The fibers 2 in said die are inserted into the grooves 4 of the spacer 7 and after a tape for retentive winding is wound thereon by a taping head 19, the optical fiber cable is wound on a coiler 17. The groove pitch is determined by the revolution of the cage 22 and the take-off speed of a take-off sapstan 18.

Description

【発明の詳細な説明】 [発明の背景と目的] 本発明は、特にスペーサ型光ファイバケーブル製造装置
に関1−るものである。
DETAILED DESCRIPTION OF THE INVENTION [Background and Objects of the Invention] The present invention particularly relates to a spacer type optical fiber cable manufacturing apparatus.

第1図(イ)は従来の光フアイバケーブルの断面図、(
ロ)は(イ)のスペーサの断面図、(ハ)はく口)のス
ペーυの正面図である。第1図において、1はテンショ
ンメンバで、テンションメンバ1の外周には押出【ノ成
形によりスペーサ7が形成され同時にスペーサ7に複数
個の溝4がらせん状に形成され、満4内には光ファイバ
2が挿入されている。3はリブでリブ3の外周及び光フ
ンフィバ2が挿入された溝4の開1:1面には押え巻テ
ープ5が巻回され、押え巻テープ5の外側にシース6が
被覆されている。Aは満ビツヂである。
Figure 1 (a) is a cross-sectional view of a conventional optical fiber cable, (
B) is a sectional view of the spacer in (A), and (c) is a front view of the spacer in (c). In FIG. 1, reference numeral 1 denotes a tension member, and a spacer 7 is formed on the outer periphery of the tension member 1 by extrusion molding. At the same time, a plurality of grooves 4 are formed in the spacer 7 in a spiral shape. Fiber 2 is inserted. Reference numeral 3 denotes a rib, and a presser winding tape 5 is wound around the outer periphery of the rib 3 and the open 1:1 side of the groove 4 into which the optical fiber 2 is inserted, and a sheath 6 is coated on the outside of the presser winding tape 5. A is Manbitsuji.

従来のスペーサ型光ファイバケーブル製造装置において
は、スペーサ7の溝4が押出機の回転ダイスにより設け
られるため、溝4の寸法が幅3m×深さ31rIIR以
上になると冷却過程において、リブ3の重みと、リブ3
及びテンションメンバ1付近の材料の冷却速度の違いに
より、リブ3が倒れ溝4がつぶれ溝ピッチへと撚合ピッ
チの不一致を生じる。このため、溝4の1法を確保する
ためにはスペーサ7の外径を大きくする必要がありコス
トアップにつながる。更に、溝ピッチAが300 mm
以下になると回転により、リブが倒れ溝4の幅が狭くな
り、このため、ケーブルを曲げた場合、特性が悪くなり
許容半径が大きくなる。また、押出機でのスペーサ溝形
成では、押出機回転ダイスの回転むらによりスペーサ溝
ピッチの乱れが生じファイバ2の挿入時に山越し等を生
じる。
In conventional spacer-type optical fiber cable manufacturing equipment, the grooves 4 of the spacer 7 are provided by a rotating die of an extruder, so if the dimensions of the grooves 4 exceed 3 m in width x 31 rIIR in depth, the weight of the ribs 3 will be reduced during the cooling process. and rib 3
Due to the difference in the cooling rate of the materials near the tension member 1, the ribs 3 collapse and the grooves 4 collapse, resulting in a mismatch in the twisting pitch. Therefore, in order to secure the groove 4 in one direction, it is necessary to increase the outer diameter of the spacer 7, leading to an increase in cost. Furthermore, the groove pitch A is 300 mm.
Below this, the ribs will fall due to rotation, and the width of the groove 4 will become narrower. Therefore, when the cable is bent, the characteristics will deteriorate and the allowable radius will become larger. Furthermore, when forming spacer grooves using an extruder, irregular rotation of the rotating die of the extruder causes irregularities in the pitch of the spacer grooves, resulting in overlapping or the like when the fiber 2 is inserted.

本発明は上記の状況に鑑みなされたものであり、溝及び
溝ピツチ寸法を自由に選定できると共にリブの倒れや溝
が狭くなることを解消でき、スペーサ外径を小さく、か
つ、許容曲げ半径を縮小でき、作業工数を著しく低減で
きる光フアイバケーブル製造装置を提供することを目的
としたものである。
The present invention has been developed in view of the above-mentioned circumstances, and allows the groove and groove pitch dimensions to be freely selected, eliminates the problem of rib collapse and groove narrowing, reduces the outer diameter of the spacer, and increases the allowable bending radius. The object of the present invention is to provide an optical fiber cable manufacturing apparatus that can be downsized and significantly reduce the number of work steps.

[発明の概要1 本発明の光フアイバケーブル製造装置は、走行駆動され
るテンションメンバ周囲にスペーサを押し出し成形する
押出機と、該押出機から押し出し成形された上記スペー
サを冷却する水槽と、上記スペーサに設けられた溝内に
挿入される光ファイバを繰り出1ように形成されたボビ
ンを取り付(プ回転駆動されるケージと、該/7−ジに
固定し一体回転駆動ハれl−記スペーりに−に配溝を形
成りる溝切装置と1.を−記ボビンから繰り出される」
−配光ファイバを集合板を介し集合させた後−): j
j[’!溝内に収納する集合ダイスと、該集合ダイスか
ら送り出される上記スペーり外周に押え巻テープを巻き
付(〕るデデーピングヘラとを設()たものく・ある。
[Summary of the Invention 1 The optical fiber cable manufacturing apparatus of the present invention comprises: an extruder that extrudes and molds a spacer around a tension member that is driven to travel; a water tank that cools the spacer extruded from the extruder; and a water tank that cools the spacer extruded from the extruder; The optical fiber to be inserted into the groove provided in the cage is fed out, and the bobbin formed as shown in 1 is attached. A groove cutting device that forms grooves in the space and 1. are fed out from the bobbin.
−After the distribution fibers are gathered together via the gathering board−): j
j['! The present invention is equipped with a collecting die to be housed in the groove and a de-daping spatula for wrapping a pressure tape around the outer periphery of the space fed out from the collecting die.

[実施例] 以下本発明の光フアイバケーブル製造装置を実施例を用
い第1図と同部品は同符号で示し同部分の構造の説明は
省略し第2図、第3図により説明する。第2図はスペー
サ製造装置の概略平面図、第3図はスペー勺の満切りと
ファイバの撚線を同時に行なう光フアイバ製造装置の概
略図である。
[Embodiment] The optical fiber cable manufacturing apparatus of the present invention will be described below using an embodiment, with reference to FIGS. 2 and 3, where the same parts as in FIG. FIG. 2 is a schematic plan view of a spacer manufacturing apparatus, and FIG. 3 is a schematic diagram of an optical fiber manufacturing apparatus that simultaneously performs full cutting of spacers and twisting of fibers.

第2図において、8は押出機、9はクロスヘッド、10
は押出ダイス、11はモータ、12.13はスプ[コケ
ットホイル、1/lは水槽、15は溝切装置、16は引
取キャタピラである。テンションメンバ1は押出lll
8の押出ダイス10において溝43− を付されスベー1J7を押(〕出し形成さねだ後、水槽
14を通る間(、−スペーサ7が冷7J1され満V)装
置15において溝4が史に深く削られた後、引I& 4
=ヤタビラ16にスペーゆ7は引き取t)れる。尚、押
出ダイス10はスプ[lケラトホイル12.13を介在
しモータ11に駆動されるようになっている。
In FIG. 2, 8 is an extruder, 9 is a crosshead, and 10 is an extruder.
1 is an extrusion die, 11 is a motor, 12.13 is a sprocket foil, 1/l is a water tank, 15 is a groove cutting device, and 16 is a take-up caterpillar. Tension member 1 is extruded
After the groove 43- is formed in the extrusion die 10 of 8, the groove 4 is pressed in the device 15 while passing through the water tank 14 (when the spacer 7 is cooled down to 7J1). After being deeply cut, pull I & 4
= Spey 7 is taken over by Yatabira 16. Incidentally, the extrusion die 10 is driven by a motor 11 with a sprocket foil 12, 13 interposed therebetween.

また、第3図において、17は巻取機、18は引取1−
1?プスタン、19はテーピングヘッド、20は集合ダ
イス、21は集合板、22はケージ、23はボビン、2
4は送出機である。第2図の装置においCは、テンショ
ンメンバ1にスペーサ7を押出し成形し同時に溝4を浅
く形成し冷却した後溝切装置15によって満4を深く加
Tする場合であるが、第3図の装置においては、スペー
サ7の押出し成形時に溝4を形成しイ1いで、満4の形
成は溝切装置15だ1)により形成している。以後第3
図の溝切装置15により説明−4る。そし−C、スペー
サ7は、送出機24を経て7/−ジ22に取りイ・ロブ
られた溝切装置15に入り、ここで所定の4− 満4に削られ、集合板21を経て集合ダイス20に入る
。一方、光フッフィバ2はボビン23から集合板21を
軽−C果合ダイス11に入るようになっている。ここで
、スペーサ7の溝4に光フッフィバ2が挿入(されテー
ピングヘッド19にJ、り押え巻ぎテープ5が巻かれた
後、引取キャプスタン18により引き付(二Jられ巻取
機17に巻かれる。その後、シース押出機(図示せず)
においでシース6が被覆されr光ファイバクーグルが完
成する。
In addition, in Fig. 3, 17 is a winding machine, 18 is a take-up 1-
1? 19 is a taping head, 20 is a collecting die, 21 is a collecting plate, 22 is a cage, 23 is a bobbin, 2
4 is a sending machine. In the apparatus shown in FIG. 2, C is a case in which the spacer 7 is extruded into the tension member 1, the groove 4 is formed shallowly at the same time, and after cooling, the groove 4 is deeply cut by the groove cutting device 15. In the apparatus, the grooves 4 are formed during extrusion molding of the spacer 7 (1), and the grooves 4 are formed by a groove cutting device 15 (1). From now on, the third
This will be explained using the groove cutting device 15 shown in the figure. Then, the spacer 7 passes through the sending machine 24 and enters the groove cutting device 15 which is taken up by the 7/-ji 22, where it is cut to a predetermined 4-4, and then collected through the collecting plate 21. Enter dice 20. On the other hand, the optical fiber bar 2 is configured such that the collecting plate 21 is fed from the bobbin 23 into the light-C fruit die 11. Here, the optical flip fiber 2 is inserted into the groove 4 of the spacer 7 (J is inserted into the taping head 19, and after the presser winding tape 5 is wound, it is pulled by the take-up capstan 18 (J is pulled into the winding machine 17). Then, a sheath extruder (not shown)
The sheath 6 is coated with the odor and the optical fiber coil is completed.

第4図、第5図はぞれぞれ溝切装置15の詳細を示し、
第4図はスペー丈7に溝4が未形成の状態から満1を形
成の場合の断面図であり、第5図は満4が押出加工また
は第4図の装置により浅く形成された状態から更に深く
形成の場合の断面図である。第4図において、カッタ2
5を、ポル1〜26を介し固定したホルダ31はボルト
32を介しケージ22に固定されている。7は切粉、3
0はホルダ31に固定されたダイスである。そしC1矢
印方向に駆動されるスペーサ7は溝4が形成され、溝ピ
ッチAはケージ22の回転と引取キセブスタン18の引
取速度によって決定される。尚、カッタ2F′1の取(
’I穴1.1、長穴になつ−(おりスペー(J7の外径
、1笥4の深さに対応し調整できるようになっている。
4 and 5 respectively show details of the groove cutting device 15,
Fig. 4 is a cross-sectional view of a state in which grooves 4 have not been formed in the space length 7, and Fig. 5 shows a state in which grooves 4 have been formed shallowly by extrusion processing or the device shown in Fig. 4. FIG. 7 is a cross-sectional view of a case where the groove is formed deeper. In Figure 4, cutter 2
A holder 31 to which 5 is fixed via poles 1 to 26 is fixed to the cage 22 via bolts 32. 7 is chips, 3
0 is a die fixed to the holder 31. The spacer 7 driven in the direction of the arrow C1 has grooves 4 formed therein, and the groove pitch A is determined by the rotation of the cage 22 and the take-up speed of the take-up kisebustan 18. In addition, the removal of cutter 2F'1 (
'I hole 1.1, becomes an elongated hole - can be adjusted to correspond to the outer diameter of J7 and the depth of 1.

第5図において、ホルダ31は、ボールベアリング33
、スライドベアリング34を介しケージ22に固定され
たケース38に回動自在に支持されている。カッタ25
はカッタホルダ28にポル1〜26を介し固定さねカッ
タホルダ28はポル1へ39にJ、リホルダ31に固定
されlいる。35はガイドであり、ポルI・36を介し
11\ルダ3′1に固定されている1、カッ/)25)
、力゛イト3 h l;1それぞれポル12fi、36
にJ、り周/i向へ調整自イ■に取り付(jられ、また
、カッタホルダ’ 28 l−11、力Yド3F)とカ
ッタ25が同じ溝にI11/置りるよう(4−円周方向
に移動自在にポル1へ39で固定でき、切粉27は抜は
穴ご37から抽出されるようになっている。
In FIG. 5, the holder 31 has a ball bearing 33
, is rotatably supported by a case 38 fixed to the cage 22 via a slide bearing 34. Cutter 25
The cutter holder 28 is fixed to the cutter holder 28 via ports 1 to 26, and the cutter holder 28 is fixed to the reholder 31 through ports 1 to 39. 35 is a guide, which is fixed to 11\ruda 3'1 via port I 36.
, force 3 h l; 1 port 12fi, 36 respectively
Attach the cutter 25 in the same groove as the cutter 25 (4- It can be fixed to the hole 1 with a hole 39 so as to be movable in the circumferential direction, and the chips 27 are extracted from the hole 37.

そして、押出ダイス10によってスペーサ7にg内j[
/)iMlを形成1jる揚台(1、深さくHmm)X幅
(W mm )が、1.5〜3.0HX1.5〜3.0
Wの範囲であればガイド35が外れることなく安定(−
7だig4が得られる。溝切装置15の回転カッタ25
の取付f1′l置は第2図に示?J J、うに引取キャ
タピラ16の手前部分に取り付けると、カッタ25の刃
先がスペーIJ7に掛か・プだとき、スペーサ−7に強
大な張力がかかるため張力に引張でき好ましい。また、
同転カッタ25は1へ・5段にかまえ、徐々に満4を深
く削るようにすることにより張力が極端に強くなること
を避IJられカッタホルダ28は4〜6本のカッタ25
が収り付【プられるようにしておく、1 回転カッタ25及びガイド35はポールベアリング33
.r332&びスラストベアリング34に回動自在に支
持されるボルダ31によってJR4に従って自由に回転
でき、ダイス30はスペーり外径より0.5へ・1.5
mm人径の内径どづる。また、溝切装置15の取付ケー
ジ22は、スペー41溝ピッチとファイバ挿入ピッチと
が同一とイするため光ファイバ2のボビン23を取(=
i I〕るようにする、17− このように本実施例の光フアイバクープルの製造装置は
スペーサの溝をカッタを介し形成覆るので、満11払及
び溝ピッチX1法を自由(、−選定′cさ、従来の如き
リブの倒れやiにの狭<イ【ることを確実に防]1でさ
る1、ぞ1ノで、外径が小さくCきるので安価に、満ピ
ッチを小さくできるので曲げ特性が玲好となり許容曲げ
半径を小さくできる。また、iν1形成形成力ッタを、
fM内に挿入Mる光フアイバ供給用のボビンが取り(J
 l:Jられたゲージど一体回転するように構成したの
で、光ファイバ挿入ピッチど渦ピッチとが同一どhり混
合°14が不用で無人化運転ができ、更に狭いiRによ
る光−)′/フィバのFト迫や溝ピッチ不一致にJ:る
山越し等が<K < <Kリッツ・イバロスを低減1ノ
作業r数を減少し安価に光ファイバを製造で・さる。
Then, the extrusion die 10 presses the spacer 7 into g within j [
/) The lifting platform for forming iMl (1, depth Hmm) x width (W mm) is 1.5 to 3.0H x 1.5 to 3.0
Within the W range, the guide 35 will not come off and will be stable (-
You can get 7 ig4. Rotary cutter 25 of groove cutting device 15
The installation f1'l position is shown in Figure 2. If it is attached to the front part of the sea urchin picking caterpillar 16, when the cutting edge of the cutter 25 is hooked on the spacer IJ7, a great tension is applied to the spacer 7, which is preferable. Also,
The co-rotating cutters 25 are arranged in stages 1 and 5, and the tension is prevented from becoming extremely strong by gradually cutting deeply.
1. The rotary cutter 25 and guide 35 are mounted on the pole bearing 33.
.. The boulder 31 rotatably supported by the r332 and thrust bearing 34 can freely rotate according to JR4, and the die 30 can be rotated from the outer diameter of the space to 0.5 or 1.5.
Inner diameter of mm human diameter. The mounting cage 22 of the groove cutting device 15 also removes the bobbin 23 of the optical fiber 2 because the groove pitch of the spacer 41 and the fiber insertion pitch are the same.
17- As described above, the optical fiber coupler manufacturing apparatus of this embodiment forms and covers the grooves of the spacer through the cutter, so the full 11 pitch and groove pitch X1 method can be freely selected. 1, 1, 1, 1, 1, 2, 1, 2, 1, 2, 1, 2, 1, 1, 2, 1, 2, 1, 2, 1, 2, 1, 2, 1, 2, 1, 2, 1, 2, 1, 2, 1, 2, 1, 2, 1, 1, 1, 2, and the outer diameter is small, so the full pitch can be reduced at low cost. Therefore, the bending properties are improved and the allowable bending radius can be reduced.In addition, the iν1 forming force is
The bobbin for supplying the optical fiber inserted into fM is removed (J
Since the optical fiber insertion pitch and the vortex pitch are configured to rotate together, unmanned operation is possible without the need for mixing 14 degrees, and even narrower iR allows for light-)'/ Reduces fiber F distance, groove pitch mismatch, J: over mountains, etc. <K <<K Reducing Ritz/Ibaros 1. Reduces the number of operations and allows for the production of optical fibers at low cost.

また、カッタの代りに回転刃を取り(=jけ一気14二
削るJ、うにしで−bよく、ガイドどカッタとの調節を
副盤のチャックのような構造にり−れば簡単にイする。
Also, instead of a cutter, you can use a rotating blade (142 cuts at a time), and you can easily adjust the guide and cutter by using a chuck-like structure on the sub-plate. do.

ぞしC゛、ダイスどスペーサとの間の削りをJ、くする
ために、ダイスとホルダとの間14ニボールベ8− アリングを挿入すると円滑に削るようになる。また、押
出ダイスにより溝形成を行わないことにより一般の押出
機によりスペーサを形成づることができる。
However, in order to reduce the amount of scraping between the die and the spacer, inserting a 14 nib ball bearing between the die and the holder will ensure smooth scraping. Furthermore, since grooves are not formed using an extrusion die, spacers can be formed using a general extruder.

[発明の効果1 以−[記述した如く本発明の光フアイバケーブル製造装
置は、溝及び溝ピッチ\1法を自由に選定でさると共に
リブの倒れや溝の狭クイ「ることを解消でき、スペーサ
外径を小さく、かつ、許容曲げ半径を縮小でき、作業J
数を著しく低減できる効果を有ケるものである。
[Effects of the Invention 1] [As described above, the optical fiber cable manufacturing apparatus of the present invention allows free selection of the groove and groove pitch\1 method, and eliminates the problem of rib collapse and groove narrowing. The outer diameter of the spacer can be reduced and the allowable bending radius can be reduced, making it possible to
This has the effect of significantly reducing the number of

【図面の簡単な説明】[Brief explanation of the drawing]

第1図(イ)は従来の光フアイバケーブルの断面図、(
ロ)は(イ)のスペー4ノの断面図、(ハ)は(ロ)の
正面図、第2図、第3図はそれぞれ本発明の光フ7・イ
バ製造装置の実施例を示し、第2図はスペーサ製造装置
の概略平面図、第3図はスペーサの溝切りと光ファイバ
の撚線とを行なう装置の概略図、第4図、第5図はそれ
ぞれ第2図、第3図の装置の溝切装置の一部を断面で示
した側面図である。 1:テンシ、」ンメンバ、2:)Y、ノアイバ、/l:
iL5:押え巻テープ、7:スペーリ、8:押出機、1
4:水槽、15:溝切装置、19:j−ピングヘッド、
20:集合ダイス、2に集合IFy、22:ケージ、2
3:ボビン。 11− 第 1 目 7 宛 Z 図 1 見3図
Figure 1 (a) is a cross-sectional view of a conventional optical fiber cable, (
(b) is a sectional view of the spacer 4 of (a), (c) is a front view of (b), and FIGS. 2 and 3 each show an embodiment of the optical fiber 7 and fiber manufacturing apparatus of the present invention, Figure 2 is a schematic plan view of a spacer manufacturing device, Figure 3 is a schematic diagram of a device for cutting spacer grooves and twisting optical fibers, and Figures 4 and 5 are Figures 2 and 3, respectively. FIG. 3 is a side view showing a part of the groove cutting device of the device in section. 1: Tenshi, 'n member, 2:) Y, Noaiva, /l:
iL5: presser tape, 7: spacer, 8: extruder, 1
4: water tank, 15: groove cutting device, 19: j-ping head,
20: Set dice, set IFy at 2, 22: Cage, 2
3: Bobbin. 11- To 1st item 7 Z Figure 1 View 3

Claims (1)

【特許請求の範囲】[Claims] (1)走行駆動されるデンジ三1ンメンバ周囲にスペー
サを押し出し成形する押出機と、該押出機から押し出し
成形されたL記スペーサを冷却する水槽と、−1−記ス
ペーサに設けられた)h内に挿入される光ファイバを繰
り出づように形成されたボビンを取り付は回転駆動され
るケージと、該ケージに固定1ノ一体回転駆動され上記
スペーサに上記溝を形成づる溝切装置と、上記ボビンか
ら繰り出される上記光ファイバを集合板を介し集合させ
た後上記渦内に収納する集合ダイスと、該集合ダイスか
ら送り出される上記スペーサ外周に押え巻テープを巻き
付けるテーピングヘッドとを設けたことを特徴とする光
フアイバケーブル製造装置。
(1) An extruder that extrudes and molds a spacer around the spacer member that is driven to travel, a water tank that cools the spacer L extruded from the extruder, and a water tank provided in the spacer -1-. a cage to which a bobbin formed to unwind an optical fiber inserted therein is rotatably driven; a grooving device fixed to the cage and integrally driven to rotate to form the groove in the spacer; and a collecting die that collects the optical fibers unwound from the bobbin via a collecting plate and then stores them in the vortex, and a taping head that wraps a pressing tape around the outer periphery of the spacer sent out from the collecting die. Optical fiber cable manufacturing equipment featuring:
JP58135027A 1983-07-22 1983-07-22 Apparatus for producing optical fiber cable Granted JPS6026912A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP58135027A JPS6026912A (en) 1983-07-22 1983-07-22 Apparatus for producing optical fiber cable

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP58135027A JPS6026912A (en) 1983-07-22 1983-07-22 Apparatus for producing optical fiber cable

Publications (2)

Publication Number Publication Date
JPS6026912A true JPS6026912A (en) 1985-02-09
JPH0132485B2 JPH0132485B2 (en) 1989-07-04

Family

ID=15142222

Family Applications (1)

Application Number Title Priority Date Filing Date
JP58135027A Granted JPS6026912A (en) 1983-07-22 1983-07-22 Apparatus for producing optical fiber cable

Country Status (1)

Country Link
JP (1) JPS6026912A (en)

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS6350806A (en) * 1986-08-21 1988-03-03 Nippon Telegr & Teleph Corp <Ntt> Water-proof optical fiber cable and its manufacture
JPH01101212U (en) * 1987-12-25 1989-07-07
JPH02110411A (en) * 1988-10-19 1990-04-23 P T Kogyo Kk Manufacture of metal spacer for transmitting medium

Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS58126504A (en) * 1982-01-22 1983-07-28 Kato Hatsujo Kaisha Ltd Device for working optical fiber spacer cable

Patent Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS58126504A (en) * 1982-01-22 1983-07-28 Kato Hatsujo Kaisha Ltd Device for working optical fiber spacer cable

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS6350806A (en) * 1986-08-21 1988-03-03 Nippon Telegr & Teleph Corp <Ntt> Water-proof optical fiber cable and its manufacture
JPH01101212U (en) * 1987-12-25 1989-07-07
JPH02110411A (en) * 1988-10-19 1990-04-23 P T Kogyo Kk Manufacture of metal spacer for transmitting medium

Also Published As

Publication number Publication date
JPH0132485B2 (en) 1989-07-04

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