JPH0770405B2 - Coil winding method - Google Patents
Coil winding methodInfo
- Publication number
- JPH0770405B2 JPH0770405B2 JP61200864A JP20086486A JPH0770405B2 JP H0770405 B2 JPH0770405 B2 JP H0770405B2 JP 61200864 A JP61200864 A JP 61200864A JP 20086486 A JP20086486 A JP 20086486A JP H0770405 B2 JPH0770405 B2 JP H0770405B2
- Authority
- JP
- Japan
- Prior art keywords
- winding
- frame
- coil
- diameter
- wound
- 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.)
- Expired - Lifetime
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- Coil Winding Methods And Apparatuses (AREA)
- Manufacture Of Motors, Generators (AREA)
Description
【発明の詳細な説明】 ［発明の目的］ （産業上の利用分野） 本発明は、巻枠に導線を複数層に重ね巻きしてコイルを
形成するコイル巻回方法に関する。Description: [Object of the Invention] (Field of Industrial Application) The present invention relates to a coil winding method for forming a coil by winding a conductive wire in multiple layers on a winding frame.
（従来の技術） 従来のコイル巻回装置は、第６図に示すように長円形の
巻枠１を駆動軸２によって回転させる構成である。そし
て、コイル３を巻回成形する場合には、導線４の先端を
巻枠１の係止溝５に係止した後、導線４に張力Ｔをかけ
ながら巻枠１を回転させることにより導線４を複数層に
重ね巻きするものである。(Prior Art) A conventional coil winding device has a structure in which an oblong winding frame 1 is rotated by a drive shaft 2 as shown in FIG. When the coil 3 is formed by winding, the leading end of the conductive wire 4 is locked in the locking groove 5 of the winding frame 1, and then the winding frame 1 is rotated while applying the tension T to the conductive wire 4 to rotate the conductive wire 4. Is to be wound in multiple layers.
しかしながら、導線４にはある程度の剛性があるから、
巻回時に導線４に張力Ｔをかけたぐらいでは導線４が巻
枠１の全周に密着するように巻回されず、第６図に示す
ように巻枠１外周の直線部分とコイル３内周との間に部
分的に隙間Ｓが形成されたまま巻回されてゆく。この隙
間Ｓは、導線４の剛性が高い程、また張力Ｔが小さい
程、更には巻枠１のコーナー部分の曲率半径R0が小さい
程、大きくなる傾向がある。このように隙間Ｓが形成さ
れた状態で、さらに導線４を巻き付けていくと、第７図
に示すように後から巻き付けられた導線４の張力Ｔによ
りいわゆる巻き締りが発生し、内周側の導線が波状に変
形して、巻回層間に小さな隙間S1を多数発生させてしま
う。このような多数の小隙間S1は、後工程でレジン含浸
処理するときにボイド発生の原因となり、ボイド放電に
よる絶縁寿命の低下を招くことになる。また、第８図に
示すように巻回後のコイル３を中央成形型６と外側成形
型7,7との間に挾んで加圧成形する際に、コイル３内周
の波形部分の各頂部と中央成形型６との間で外側成形型
７の加圧力を集中荷重として受けることになるため、そ
の部分の絶縁被膜に損傷をあたえてしまうことになる。However, since the conductor wire 4 has a certain degree of rigidity,
When a tension T is applied to the conducting wire 4 at the time of winding, the conducting wire 4 is not wound so as to be in close contact with the entire circumference of the winding frame 1, and as shown in FIG. It is wound while a gap S is partially formed between it and the circumference. The gap S tends to increase as the rigidity of the conductive wire 4 increases, the tension T decreases, and the curvature radius R 0 of the corner portion of the winding frame 1 decreases. When the conductor wire 4 is further wound with the gap S formed in this manner, so-called winding tightening occurs due to the tension T of the conductor wire 4 wound afterwards as shown in FIG. The conductor wire is deformed in a wave shape, and many small gaps S 1 are generated between the winding layers. Such a large number of small gaps S 1 cause generation of voids during the resin impregnation treatment in the subsequent process, which leads to a decrease in insulation life due to void discharge. Further, as shown in FIG. 8, when the coil 3 after winding is sandwiched between the central molding die 6 and the outer molding dies 7, 7 and pressure-molded, the tops of the corrugated portions on the inner circumference of the coil 3 Since the pressing force of the outer molding die 7 is received as a concentrated load between the central molding die 6 and the central molding die 6, the insulating coating in that portion is damaged.
（発明が解決しようとする問題点） 上述したように、従来、巻き締りによりコイル内周側が
波形になってその巻回層間に多数の小隙間が形成されて
しまうため、レジン含浸処理の際にボイド発生の原因に
なったり、加圧成形処理の際にコイルの絶縁被膜の損傷
の原因となり、絶縁性に劣る問題点があった。(Problems to be Solved by the Invention) As described above, conventionally, since the coil inner circumference side is corrugated due to winding tightening and a large number of small gaps are formed between the winding layers, during resin impregnation treatment. There is a problem that the insulating property is inferior because it causes voids and damages the insulating coating of the coil during the pressure molding process.
本発明はこのような問題点を解決しようとするもので、
従ってその目的は、巻き締りによってコイル内周側の巻
回層間に波形の隙間が形成されてしまうことを防止でき
て、絶縁性を向上できるコイル巻回方法を提供するにあ
る。The present invention is intended to solve such problems,
Therefore, it is an object of the present invention to provide a coil winding method capable of preventing a corrugated gap from being formed between winding layers on the inner circumference side of a coil due to tightening, and improving insulation.
［発明の構成］ （問題点を解決するための手段） 本発明のコイル巻回方法は、巻枠の径を拡縮可能に構成
し、巻始め時には前記巻枠の径を縮小した状態で導線を
巻回し、その後前記巻枠の径を最終的に必要なコイルの
内径と同一になるように拡大し、この状態で前記導線を
最後まで巻回するようにしたものである。[Structure of the Invention] (Means for Solving the Problems) The coil winding method of the present invention is configured such that the diameter of the winding frame can be expanded and contracted, and at the beginning of winding, the conductor wire is reduced with the diameter of the winding frame reduced. After winding, the diameter of the winding frame is expanded so as to be the same as the finally required inner diameter of the coil, and in this state, the conductor wire is wound to the end.
（作用） 巻始め時には、導線の巻枠からの浮上り量（だぶつき）
を見込んで、巻枠の径を縮小した状態で導線を巻回す
る。そして、所定量巻回したところで、巻枠の径を最終
的に必要なコイルの内径と同一になるように拡大するこ
とにより、コイル内周側を巻枠の全周にまんべんなく密
着させる。その上で、導線を最後まで巻回してコイルを
形成するものである。(Operation) At the beginning of winding, the amount of floating of the conductor from the bobbin (looseness)
In anticipation of this, the conductor wire is wound with the diameter of the winding frame reduced. Then, after winding a predetermined amount, the diameter of the winding frame is expanded so as to be the same as the finally required inner diameter of the coil, so that the inner circumference of the coil is evenly attached to the entire circumference of the winding frame. Then, the conductor wire is wound to the end to form a coil.
（実施例） 以下、本発明の一実施例を第１図乃至第５図に基いて説
明する。まず全体構成を示す第１図において、11はコイ
ル巻回装置の基台で、その底部にはモータ12が配設され
ている。13は基台11上面に一対の軸受14,14を介して支
持させた中空の駆動軸で、その図示右端部に嵌着した従
動プーリ15と、モータ12の回転軸に嵌着した駆動プーリ
16との間にベルト17が掛け渡されている。そして、この
駆動軸13の図示左端部には、径大円筒部13aが形成され
ている。18は長円形の巻枠で、これは第２図及び第３図
にも示すように中央から分割された２個の枠体19から成
り、各枠体19に固定されたスライドブロック20が、駆動
軸13の径大円筒部13aにスライド可能に支持されてい
る。この場合、各枠体19のスライド方向は、互いに反対
方向であって且つ駆動軸13と垂直な方向である。そし
て、一方の枠体19には、例えば平角の導線21の端部を係
止するための係止溝22が形成されている。一方、第１図
において、23は駆動軸13の径大円筒部13a内において軸2
4を介して回動可能に支持された一対のＬ字形レバー
で、各Ｌ字形レバー23の一端部が各スライドブロック20
に形成した係合溝25に係合されている。26は駆動軸13内
に挿通した心棒で、その図示左端部に設けた径大部27が
駆動軸13の径大円筒部13a内に突出された状態でスライ
ド移動可能に挿通支持され、その径大部27に形成した係
合溝28に前述したＬ字形レバー23の他端部が係合されて
いる。一方、心棒26の図示右端部を支持する軸受29は、
スライドブロック30に固着され、このスライドブロック
30が基台11上のスライドガイド31に沿って図示左右方向
（心棒26の軸方向）にスライド可能になっている。32は
スライドブロック30の図示右方に位置して基台11に固定
したモータで、これの回転軸に設けた雄ねじ部材33が、
スライドブロック30に形成した雌ねじ部34に螺合され、
その雌ねじ部材33の回転によってスライドブロック30が
図示左右方向に移動されるようになっている。斯かるモ
ータ32、雄ねじ部材33、スライドブロック30、心棒26、
Ｌ字形レバー23等から枠体移動機構35が構成されてい
る。36はモータ32に設けた位置検出器で、これによって
モータ32の回転を検出することにより枠体19の位置を検
出する。37は駆動軸13の回転を検出するための回転検出
器で、これに対応して駆動軸13の外周に設けたドッグ38
が通過する毎にこの回転検出器37から回転検出信号をカ
ウンタ39に出力して駆動軸13の回転回数を計る。(Embodiment) An embodiment of the present invention will be described below with reference to FIGS. 1 to 5. First, in FIG. 1 showing the overall structure, 11 is a base of a coil winding device, and a motor 12 is arranged at the bottom thereof. Reference numeral 13 denotes a hollow drive shaft supported on the upper surface of the base 11 via a pair of bearings 14, 14, and a driven pulley 15 fitted to the right end portion of the figure and a drive pulley fitted to the rotary shaft of the motor 12.
Belt 17 is stretched between 16 and. A large diameter cylindrical portion 13a is formed at the left end of the drive shaft 13 in the figure. 18 is an oblong reel, which is composed of two frame bodies 19 divided from the center as shown in FIGS. 2 and 3, and a slide block 20 fixed to each frame body 19, It is slidably supported by the large diameter cylindrical portion 13a of the drive shaft 13. In this case, the sliding directions of the respective frame bodies 19 are opposite to each other and perpendicular to the drive shaft 13. The one frame 19 is formed with a locking groove 22 for locking the end of the flat conductor wire 21, for example. On the other hand, in FIG. 1, 23 is the shaft 2 in the large diameter cylindrical portion 13a of the drive shaft 13.
A pair of L-shaped levers are rotatably supported via 4, and one end portion of each L-shaped lever 23 is a slide block 20.
It is engaged with the engaging groove 25 formed in. Reference numeral 26 denotes a mandrel which is inserted into the drive shaft 13 and is slidably inserted and supported in a state where a large diameter portion 27 provided at the left end portion in the figure is projected into the large diameter cylindrical portion 13a of the drive shaft 13 and has a diameter thereof. The other end of the L-shaped lever 23 described above is engaged with the engagement groove 28 formed in the large portion 27. On the other hand, the bearing 29 that supports the right end of the mandrel 26 in the drawing is
This slide block is fixed to the slide block 30.
30 is slidable along the slide guide 31 on the base 11 in the left-right direction in the drawing (axial direction of the mandrel 26). 32 is a motor which is located on the right side of the slide block 30 in the figure and is fixed to the base 11, and a male screw member 33 provided on the rotation shaft of the motor is
It is screwed into the female screw portion 34 formed on the slide block 30,
The slide block 30 is moved in the left-right direction in the drawing by the rotation of the female screw member 33. The motor 32, the male screw member 33, the slide block 30, the mandrel 26,
A frame moving mechanism 35 is composed of the L-shaped lever 23 and the like. Reference numeral 36 is a position detector provided in the motor 32, which detects the rotation of the motor 32 to detect the position of the frame body 19. Reference numeral 37 is a rotation detector for detecting the rotation of the drive shaft 13. Corresponding to this, a dog 38 provided on the outer periphery of the drive shaft 13
A rotation detection signal is output from the rotation detector 37 to the counter 39 every time when the drive shaft 13 passes, and the number of rotations of the drive shaft 13 is measured.
次に、上記構成の作用について説明する。巻回作業を行
うに際し、巻始め時における導線21の巻枠18外周からの
浮上り量（だぶつき量）を見込んで、巻枠18の径を縮小
しておく。径を縮小するには、枠体移動機構35のモータ
32により雄ねじ部材33を所定方向に回転させることによ
ってスライドブロック30ひいては心棒26を第１図図示右
方向に移動させる。これによって、両Ｌ字形レバー23が
軸24を中心に夫々第１図矢印方向に回動され、両枠体19
がその間隔を狭める方向にスライドされる。この際、位
置検出器36によってモータ32の回転位置を検出すること
により、両枠体19のスライド量ひいては位置を検出し、
巻枠18の経が所定寸法W0（第２図参照）にまで縮小され
たところでモータ12を停止する。この後、導線21の先端
を巻枠18の係止溝22に係止した上で、導線21に張力Ｔを
かけながらモータ12により駆動軸13を介して巻枠18を回
転させることにより、導線21を重ね巻きする。この場合
でも、巻始めの数ターンは導線21の剛性により第２図に
示すように各枠体19外周の直線部分から浮上った状態に
なり、各枠体19外周との間には隙間Ｓが形成される。そ
こで、本実施例では巻回当初からの巻枠18の回転回数を
回転検出器37及びカウンタ39によって計数し、巻回途中
で導線21のターン数が所定数に達したところで、モータ
12を一旦停止して、巻枠18の径を拡大する。径を拡大す
るには、枠体移動機構35のモータ32を前述とは反対方向
に回転させて心棒26を第１図図示左方向に移動させるこ
とによって、両Ｌ字形レバー23を夫々、第１図矢印方向
とは反対方向に回動させて、両枠体19をその間隔を拡げ
る方向にスライドさせる。この際、前述と同じく、位置
検出器36によってモータ32の回転位置ひいては両枠体19
の位置を検出し、巻枠18の径を最終的に必要なコイル40
の内径と同一寸法W1（第３図参照）にまで拡大したとこ
ろでモータ12を停止する。このようにして巻枠18の径が
拡大されると、それまでに巻回されたコイル40が両枠体
19によって第２図図示左右方向に押し拡げられ、これに
伴ってそのコイル40の第２図図示上下方向寸法が狭めら
れるように変形する。この結果、第３図に示すように前
述したコイル40内周と各枠体19外周の直線部分との間の
隙間Ｓがなくなり、各枠体19の外周全体にコイル40内周
がまんべんなく密着することになる。この後、再び巻枠
18を回転させて目的の巻回数になるまで導線21を巻回す
る。この際、既に巻回された導線21は巻枠18の外周に隙
間なく密着した状態になっているから、その後巻回され
る導線21によって巻き締りが発生することはなく、従来
の巻き締りに起因する隙間の発生が防止される。しか
も、巻枠18の各コーナー部分における導線21の曲げ半径
は、巻回当初のR0から導線21の巻回層の厚さ寸法分だけ
拡大されてR1になっていて、導線21の曲げの程度が緩く
なっているから、その後巻回される導線21は、既に巻回
された導線21の外周にまんべんなく密着するようにな
り、巻回層間に隙間は発生しない。尚、巻回層間に隙間
が発生しなくなる曲げ半径R1は、導線21のサイズ、剛
性、導線21に加える引張力等により変化するものである
から、予め実験等により求めておき、この曲げ半径R1に
なるまで巻回してから、前述した巻枠18の拡大工程に移
行する。Next, the operation of the above configuration will be described. When carrying out the winding work, the diameter of the winding frame 18 is reduced in consideration of the amount of floating (amount of loosening) of the conducting wire 21 from the outer periphery of the winding frame 18 at the beginning of winding. To reduce the diameter, use the motor of the frame moving mechanism 35.
By rotating the male screw member 33 in a predetermined direction by 32, the slide block 30 and thus the mandrel 26 are moved to the right in FIG. As a result, both L-shaped levers 23 are rotated about the shaft 24 in the directions of the arrows in FIG.
Are slid in the direction of narrowing the gap. At this time, by detecting the rotational position of the motor 32 by the position detector 36, the sliding amount and thus the position of both frame bodies 19 are detected,
The motor 12 is stopped when the length of the winding frame 18 is reduced to a predetermined dimension W 0 (see FIG. 2). After that, the tip of the conductive wire 21 is locked in the locking groove 22 of the winding frame 18, and the winding frame 18 is rotated by the motor 12 via the drive shaft 13 while applying the tension T to the conductive wire 21. 21 is rolled up. Even in this case, the several turns at the beginning of winding are in a state of floating from the straight line portion of the outer periphery of each frame 19 due to the rigidity of the conductor 21, and the gap S is formed between the outer periphery of each frame 19 as shown in FIG. Is formed. Therefore, in the present embodiment, the number of rotations of the winding frame 18 from the beginning of winding is counted by the rotation detector 37 and the counter 39, and when the number of turns of the conductive wire 21 reaches a predetermined number during the winding, the motor
12 is once stopped and the diameter of the bobbin 18 is enlarged. To increase the diameter, the motor 32 of the frame moving mechanism 35 is rotated in the opposite direction to the above to move the mandrel 26 leftward in FIG. By rotating in the direction opposite to the direction of the arrow in the figure, both frame bodies 19 are slid in the direction of expanding the space between them. At this time, similarly to the above, the rotational position of the motor 32 by the position detector 36, and by extension, both frame members 19
The position of the coil 18
The motor 12 is stopped when it is expanded to the same size W 1 (see FIG. 3) as the inner diameter of the motor. When the diameter of the winding frame 18 is increased in this manner, the coils 40 wound up to that point are
It is pushed and spread in the left-right direction in FIG. 2 by 19 and accordingly, the coil 40 is deformed so that the vertical dimension in FIG. 2 is narrowed. As a result, as shown in FIG. 3, the gap S between the inner circumference of the coil 40 and the linear portion of the outer circumference of each frame 19 is eliminated, and the inner circumference of the coil 40 is evenly adhered to the entire outer circumference of each frame 19. It will be. After this, reel again
Rotate 18 and wind the wire 21 until the desired number of turns is reached. At this time, since the already-wound conducting wire 21 is in close contact with the outer periphery of the winding frame 18 without any gap, the conducting wire 21 that is subsequently wound does not cause winding tightening. Occurrence of a gap due to this is prevented. Moreover, the bending radius of the conductive wire 21 at each corner portion of the winding frame 18 is expanded from R 0 at the beginning of winding by the thickness dimension of the winding layer of the conductive wire 21 to R 1, and the bending radius of the conductive wire 21 is increased. Since the degree of the wire is gradually loosened, the conductive wire 21 wound thereafter comes to evenly adhere to the outer circumference of the already wound conductive wire 21, and no gap is generated between the winding layers. Since the bending radius R 1 at which no gap is generated between the winding layers varies depending on the size and rigidity of the conductive wire 21, the tensile force applied to the conductive wire 21, and the like, it is obtained in advance by experiments and the like. After winding to R 1 , the process proceeds to the enlarging process of the bobbin 18 described above.
以上のようにして形成されたコイル40の巻回層間には、
第４図及び第５図に示すように隙間が形成されていない
から、後工程におけるレジン含浸処理の際に巻回層間に
ボイドが発生しにくく、ボイド放電による絶縁性劣化が
抑えられる。しかも、コイル40の内周が従来のような波
形に屈曲されるといったこともないから、コイル40の加
圧成形処理時にコイル40の内周部に加わる荷重が部分的
に集中することなく全体にまんべんなく分散されて、そ
の荷重による絶縁被膜21a（第５図参照）の損傷が防止
され、前述した事情と相俟って絶縁性が確実に向上す
る。Between the winding layers of the coil 40 formed as described above,
Since no gap is formed as shown in FIGS. 4 and 5, voids are less likely to occur between the winding layers during the resin impregnation treatment in the subsequent step, and deterioration of insulation due to void discharge can be suppressed. In addition, since the inner circumference of the coil 40 is not bent into a waveform as in the conventional case, the load applied to the inner circumference of the coil 40 during the pressure molding process of the coil 40 is not partially concentrated and is entirely concentrated. Evenly distributed, the insulation coating 21a (see FIG. 5) is prevented from being damaged by the load, and the insulation is surely improved in combination with the above-mentioned circumstances.
尚、上記実施例においては、枠体移動機構35の駆動源と
してモータ32を用いたが、これに代えて油圧シリンダ
ー、空気圧シリンダー等を利用しても良い。また、上記
実施例では巻枠18が二分割形（枠体19が２個）になって
いるが、例えば３分割形（矩形状の枠体の両側に夫々半
円状の枠体を設けたもの）であっても良い。更には、巻
枠18の形状は、長円形に限定されず、例えば等脚台形形
（いわゆるなまこ形）であっても良い。また、上記実施
例では、導線21を１列に巻回したが、２列以上に巻回す
るようにしても良い。また、上記実施例では、枠体移動
機構35のモータ32の回転位置を位置検出器36によって検
出することによって間接的に枠体19の位置を検出するよ
うにしたが、これに代えて例えば枠体19の位置を直接検
出する検出器を位置検出器として設ける構成としても良
い。Although the motor 32 is used as the drive source of the frame moving mechanism 35 in the above embodiment, a hydraulic cylinder, a pneumatic cylinder or the like may be used instead. Further, in the above-described embodiment, the winding frame 18 is of a two-part type (two frame members 19), but for example, a three-part type (a rectangular frame member is provided with semicircular frame members on both sides thereof, respectively). Stuff). Furthermore, the shape of the winding frame 18 is not limited to the oval shape, and may be, for example, an isosceles trapezoidal shape (so-called namako shape). Further, in the above embodiment, the conductive wire 21 is wound in one row, but it may be wound in two or more rows. Further, in the above embodiment, the position of the frame body 19 is indirectly detected by detecting the rotational position of the motor 32 of the frame body moving mechanism 35 by the position detector 36, but instead of this, for example, the frame A detector for directly detecting the position of the body 19 may be provided as the position detector.
［発明の効果］ 本発明は以上の説明から明らかなように、巻回の途中で
巻枠の径を拡大することによってコイルの内周を巻枠の
外周全体に隙間なく密着させることができるから、巻き
締りによってコイル内周側の巻回層間に波形の隙間が形
成されてしまうことを防止できて、レジン含浸処理の際
のボイド発生や加圧成形処理の際の絶縁被膜の損傷を抑
えることができ、以って絶縁性を向上できるという優れ
た効果を奏する。[Effects of the Invention] As is apparent from the above description, the present invention makes it possible to make the inner circumference of the coil closely contact the entire outer circumference of the winding frame by increasing the diameter of the winding frame during winding. , It is possible to prevent the formation of corrugated gaps between the winding layers on the inner circumference side of the coil due to tightening, and to suppress the occurrence of voids during resin impregnation and damage to the insulating coating during pressure molding. It is possible to obtain the excellent effect that the insulation can be improved.
第１図乃至第５図は本発明の一実施例を示したもので、
第１図は全体の縦断側面図、第２図及び第３図は作用を
説明するために夫々異なる状態で示す巻枠部分の正面
図、第４図はコイルの正面図、第５図は同断面図であ
り、第６図乃至第８図は従来例を示したもので、第６図
は第２図相当図、第７図は第３図相当図、第８図は加圧
成形処理時のコイルの正面図である。 図面中、18は巻枠、19は枠体、21は導線、32はモータ、
35は枠体移動機構、36は位置検出器、40はコイルであ
る。1 to 5 show an embodiment of the present invention.
FIG. 1 is a vertical sectional side view of the whole, FIGS. 2 and 3 are front views of a winding frame portion shown in different states for explaining the operation, FIG. 4 is a front view of a coil, and FIG. 5 is the same. FIG. 6 to FIG. 8 are cross-sectional views showing a conventional example. FIG. 6 is a view corresponding to FIG. 2, FIG. 7 is a view corresponding to FIG. 3, and FIG. 3 is a front view of the coil of FIG. In the drawing, 18 is a reel, 19 is a frame, 21 is a conductor wire, 32 is a motor,
Reference numeral 35 is a frame moving mechanism, 36 is a position detector, and 40 is a coil.
Claims (1)
を形成する方法であって、前記巻枠の径を拡縮可能に構
成し、巻始め時には前記巻枠の径を縮小した状態で前記
導線を巻回し、その後前記巻枠の径を最終的に必要なコ
イルの内径と同一になるように拡大し、この状態で前記
導線を最後まで巻回するようにしたことを特徴とするコ
イル巻回方法。1. A method for forming a coil by winding a plurality of layers of conductive wire on a winding frame, wherein the diameter of the winding frame is expandable / contractible, and the diameter of the winding frame is reduced at the beginning of winding. The conductive wire is wound with, then the diameter of the winding frame is enlarged so as to be the same as the finally required inner diameter of the coil, and the conductive wire is wound to the end in this state. Coil winding method.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP61200864A JPH0770405B2 (en) | 1986-08-27 | 1986-08-27 | Coil winding method |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP61200864A JPH0770405B2 (en) | 1986-08-27 | 1986-08-27 | Coil winding method |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| JPS6356907A JPS6356907A (en) | 1988-03-11 |
| JPH0770405B2 true JPH0770405B2 (en) | 1995-07-31 |
Family
ID=16431493
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP61200864A Expired - Lifetime JPH0770405B2 (en) | 1986-08-27 | 1986-08-27 | Coil winding method |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JPH0770405B2 (en) |
Families Citing this family (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| DE10052546A1 (en) * | 2000-10-23 | 2002-04-25 | Wittenstein Gmbh & Co Kg | Arrangement for spooling fiber or wire object, has spool former coupled to bearer sleeve arranged approximately in direction of pipe axis while maintaining distance for feeding object |
| JP6024905B2 (en) * | 2013-01-08 | 2016-11-16 | トヨタ自動車株式会社 | Winding processing method and processing apparatus |
Family Cites Families (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS6230459Y2 (en) * | 1978-06-07 | 1987-08-05 | ||
| JPS5643162A (en) * | 1979-09-07 | 1981-04-21 | Mitsubishi Electric Corp | Variable drum diameter coil winder |
| JPS61120274U (en) * | 1985-01-12 | 1986-07-29 |
-
1986
- 1986-08-27 JP JP61200864A patent/JPH0770405B2/en not_active Expired - Lifetime
Also Published As
| Publication number | Publication date |
|---|---|
| JPS6356907A (en) | 1988-03-11 |
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