JP3410420B2 - Yarn entanglement processing device - Google Patents

Yarn entanglement processing device

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Publication number
JP3410420B2
JP3410420B2 JP2000052937A JP2000052937A JP3410420B2 JP 3410420 B2 JP3410420 B2 JP 3410420B2 JP 2000052937 A JP2000052937 A JP 2000052937A JP 2000052937 A JP2000052937 A JP 2000052937A JP 3410420 B2 JP3410420 B2 JP 3410420B2
Authority
JP
Japan
Prior art keywords
yarn
running
flow rate
entanglement
path
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 - Fee Related
Application number
JP2000052937A
Other languages
Japanese (ja)
Other versions
JP2001248031A (en
Inventor
章雄 湯口
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.)
Kyocera Corp
Original Assignee
Kyocera Corp
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Publication date
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Priority to JP2000052937A priority Critical patent/JP3410420B2/en
Publication of JP2001248031A publication Critical patent/JP2001248031A/en
Application granted granted Critical
Publication of JP3410420B2 publication Critical patent/JP3410420B2/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

Links

Description

【発明の詳細な説明】Detailed Description of the Invention

【0001】[0001]

【発明の属する技術分野】本発明は、マルチフィラメン
トからなる糸条に圧縮流体を噴射させることにより糸条
に交絡を付与する糸条交絡処理装置に関するものであ
る。詳しくは、交絡の欠落が無く、開繊部と交絡部とを
極めて安定して形成することができる糸条交絡処理装置
に関するものである。
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a yarn entanglement treatment device for imparting entanglement to a yarn made of a multifilament by injecting a compressed fluid into the yarn. More specifically, the present invention relates to a yarn entanglement processing device capable of forming a fiber opening portion and an entanglement portion extremely stably without missing entanglement.

【0002】[0002]

【従来の技術】従来、合成繊維の製造工程において、マ
ルチフィラメントからなる糸条に圧縮流体を噴射させる
ことにより単繊維相互間に交絡処理を施し、交絡部と紡
錘形に開繊された開繊部とが交互に連続してなる交絡糸
を形成することが行われている。この交絡糸を形成する
糸条交絡処理装置として、これまで様々なものが提案さ
れている。
2. Description of the Related Art Conventionally, in a synthetic fiber manufacturing process, a entanglement process is performed between filaments by injecting a compressed fluid into a filament made of multifilament, and an entanglement part and an opening part opened in a spindle shape. It is performed to form an entangled yarn in which and are alternately continuous. Various yarn entanglement processing devices for forming this entangled yarn have been proposed so far.

【0003】図5は従来の代表的な糸条交絡処理装置を
示す図で、(a)はその斜視図、(b)は(a)のY−
Y線断面図である。
FIG. 5 is a diagram showing a conventional typical yarn entanglement processing apparatus, (a) is a perspective view thereof, and (b) is a Y-axis of (a).
It is a Y line sectional view.

【0004】この糸条交絡処理装置30は、糸道22と
なる断面形状が円形をした貫通孔を有するブロック体2
1からなり、糸道22には、圧縮流体を噴出するための
噴射孔25を備えたもので、糸条Mを糸道22の走入口
23へ走入するとともに、糸道22の走出口24より走
出させた状態で噴射孔25より圧縮流体を噴出させるこ
とにより、糸道22内を走行する糸条Mに対して交絡を
付与するようになっている。
This yarn entanglement treatment device 30 has a block body 2 having a through hole having a circular cross-section as the yarn path 22.
1, the yarn path 22 is provided with an injection hole 25 for ejecting a compressed fluid, and the yarn M is introduced into the run-in port 23 of the yarn path 22 and the run-out port 24 of the yarn path 22. The compressed fluid is ejected from the ejection holes 25 in a state where the yarn M is running further, so that the yarn M running in the yarn path 22 is entangled.

【0005】また、従来の他の糸条交絡処理装置30と
して、図6に示すように、糸道22の走入口23に絞り
部を有するものや、図7に示すように、糸道22の走入
口23が細くなったラッパ状に形成されたもの、あるい
は図8に示すように、噴射孔25を糸道22の軸線に対
して斜めに開口させたものもあり、いずれも走出口24
より排出される流量を走入口23より排出される流量よ
り多くすることにより、糸道22内を走行する糸条Mに
推進効果を持たせるようになっていた(特開昭54−1
12249号公報、実開昭56−11276号全文明細
書、特開平8−92839号公報参照)。
Further, as another conventional yarn entanglement processing device 30, as shown in FIG. 6, a device having a narrowed portion at the run-in port 23 of the yarn path 22, or as shown in FIG. Some of the runners 23 are formed in a thin trumpet shape, or some of the spray holes 25 are opened obliquely with respect to the axis of the yarn path 22 as shown in FIG.
By increasing the flow rate discharged more than the flow rate discharged from the run-in port 23, the yarn M running in the yarn path 22 has a propulsive effect (Japanese Patent Laid-Open No. 54-1).
No. 12249, Japanese Utility Model Laid-Open No. 56-11276, and Japanese Unexamined Patent Publication No. 8-92839).

【0006】[0006]

【発明が解決しようとする課題】ところで、糸条Mに交
絡を付与するには、噴射孔25より噴出された圧縮流体
の作用によって糸道22内を走行する糸条Mが充分に振
動運動できるような状態、即ち糸張力が充分に緩い状態
に保つ必要があるが、図5乃至図8に示す糸条交絡処理
装置では、走入口23に走入する糸条Mの糸張力と走出
口24から走出される糸条Mの糸張力との関係について
全く考慮していなかったため、安定して交絡を付与する
ことが難しいものであった。
By the way, in order to impart the entanglement to the yarn M, the yarn M running in the yarn path 22 can be sufficiently vibrated by the action of the compressed fluid ejected from the ejection holes 25. Although it is necessary to keep such a state, that is, the state in which the yarn tension is sufficiently loose, in the yarn confounding processing device shown in FIGS. Since no consideration was given to the relationship with the yarn tension of the yarn M run from the fiber, it was difficult to stably provide the entanglement.

【0007】即ち、本件発明者の研究によれば、糸条M
に交絡を安定して付与するには、糸道22を走行する糸
条Mの糸張力が充分に緩いことは勿論のこと、糸道22
に走入する糸張力と、糸道22より走出される糸張力と
を同等又は近似させることが必要であることを見出した
のであるが、図8(a)(b)に示す従来の糸条交絡処
理装置30では、糸道22の走入口23の断面積と走出
口24の断面積とが等しく、また噴射孔25より噴出さ
れた圧縮流体は、糸道22の中央において糸条Mの走行
方向に対して直角に噴出されるため、糸道22の走入口
23より排出される流量と糸道22の走出口24より排
出される流量とは等しくなるものの、糸道22を走行す
る糸条Mには噴射孔25より噴出される圧縮流体によっ
て糸道22の内壁と摺動することによる走行抵抗が作用
しているため、走入口23に走入する糸条Mの糸張力は
緩く、走出口24から走出される糸条Mの糸張力は高く
なり、走入口23側と走出口24側の糸張力を近似させ
ることができず、交絡加工が不安定であった。
That is, according to the study by the present inventor, the yarn M
In order to stably apply the entanglement to the yarn, the yarn tension of the yarn M traveling in the yarn passage 22 is, of course, sufficiently low.
It has been found that it is necessary to equalize or approximate the yarn tension that runs into the yarn and the yarn tension that runs from the yarn path 22. However, the conventional yarn shown in FIGS. In the entanglement treatment device 30, the cross-sectional area of the run-in port 23 of the yarn path 22 and the cross-sectional area of the run-out port 24 are equal, and the compressed fluid ejected from the injection hole 25 runs the yarn M at the center of the yarn path 22. Since it is jetted at a right angle to the direction, the flow rate discharged from the running port 23 of the yarn path 22 and the flow rate discharged from the running port 24 of the yarn path 22 are equal, but the yarn running in the yarn path 22 Since a running resistance is exerted on M by sliding on the inner wall of the yarn path 22 by the compressed fluid jetted from the jet holes 25, the yarn tension of the yarn M entering the runner port 23 is gentle, The thread tension of the yarn M run from the exit 24 becomes high, and the runway 23 It is impossible to approximate the yarn tension of the preparative run outlet 24 side, intermingling process was unstable.

【0008】そこで、高くなった走出口24側の糸張力
を低くするためには、走入口23側の糸条Mの走行速度
を速くするか、あるいは走出口24側の糸条Mの走行速
度を遅くすれば良いのであるが、このような高いオーバ
ーフィードの加工条件では、同時に走入口23に走入す
る糸条Mの糸張力が極めて低くなり、走入口23側にお
いて糸条Mに過剰な緩みが発生し、糸条Mの走行が不安
定となり、交絡に悪影響を及ぼす恐れがあった。
Therefore, in order to reduce the yarn tension on the side of the running outlet 24, which is increased, the running speed of the yarn M on the running port 23 side is increased, or the running speed of the yarn M on the running port 24 side is increased. However, under such high overfeed processing conditions, the yarn tension of the yarn M that enters the runner port 23 at the same time becomes extremely low, and the yarn M on the runner port 23 side becomes excessive. There is a possibility that loosening may occur, the running of the yarn M may become unstable, and entanglement may be adversely affected.

【0009】一方、図6乃至図8に示す糸条交絡処理装
置30では、噴射孔25より噴出する圧縮流体による走
出口24側の排出流量を走入口23側の排出流量より多
くすることができるため、走入口23側での糸条Mの過
剰な緩みの発生を低減することができるものの、走出口
24側の糸張力が走入口23側の糸張力に比べて緩い
(小さい)アンバランスな状態であると、噴射孔25よ
り噴出された圧縮流体の推進効果により、糸道22内に
おいて走行している糸条Mが、塊となった状態で一度に
移動を起こす現象、いわゆるジャンピング現象が生じ易
く、この一挙に移動した箇所が交絡の欠落となり、安定
して交絡を付与することができなかった。
On the other hand, in the yarn entanglement treatment device 30 shown in FIGS. 6 to 8, the discharge flow rate of the compressed fluid ejected from the injection holes 25 on the side of the running port 24 can be made larger than the discharge flow rate on the side of the running port 23. Therefore, although it is possible to reduce the occurrence of excessive slack in the yarn M on the runner entrance 23 side, the thread tension on the runner exit 24 side is looser (smaller) than the thread tension on the runner entrance 23 side and is unbalanced. In this state, a so-called jumping phenomenon occurs in which the yarn M running in the yarn path 22 moves at once in a lump state due to the propelling effect of the compressed fluid ejected from the ejection holes 25. The entanglement is likely to occur, and the entanglement cannot be stably applied because the entanglement is lost at the locations where the entanglement is performed all at once.

【0010】特に近年、糸条Mの品種、特性は多様化し
ており、交絡加工条件もそれに伴い個々の設定が必要に
なっている。また、糸条Mの加工速度も速くなり、それ
に伴い高オーバーフィードの加工条件下での交絡処理を
行う機会が多くなってきている。そのため、多様な糸条
Mの品種、特性、加工条件に対して噴射圧力を変動させ
ることにより安定した交絡が得られることが求められて
いるが、一つの糸条交絡処理装置で多様な糸条Mに対し
て安定した交絡を付与することができるものは得られて
いなかった。
In recent years, in particular, the types and characteristics of the yarn M have been diversified, and the entanglement processing conditions have to be individually set accordingly. In addition, the processing speed of the yarn M is also increasing, and accordingly, the chances of performing the entanglement treatment under the high overfeed processing conditions are increasing. Therefore, it is required that stable entanglement can be obtained by varying the injection pressure with respect to various types, characteristics, and processing conditions of various yarns M. However, one yarn entanglement processing device can be used for various yarns. No material capable of imparting a stable entanglement to M has been obtained.

【0011】[0011]

【発明の目的】本発明の目的は、多様な糸条の品種、特
性、加工条件に対して供給される0.1〜0.4MPa
の噴射圧の範囲内で、噴射圧を変動させてもジャンピン
グ現象等を生じることなく安定した交絡処理が可能であ
るとともに、圧縮流体の流量消費が少なく、かつ糸条へ
のダメージが少ない糸条交絡処理装置を提供することに
ある。
OBJECT OF THE INVENTION The object of the present invention is to supply 0.1 to 0.4 MPa for various yarn types, characteristics and processing conditions.
Within the range of the injection pressure, stable entangling processing is possible without causing a jumping phenomenon even if the injection pressure is changed, and the flow rate consumption of the compressed fluid is small and the yarn is not damaged. An object is to provide a confounding processing device.

【0012】[0012]

【課題を解決するための手段】そこで、本発明は上記課
題に鑑み、請求項1に係る発明では、マルチフィラメン
トからなる糸条の走行を案内する糸道と、該糸道に開口
する少なくとも1つの噴射孔を有し、該噴射孔から圧縮
流体を噴射して前記糸道内を走行する糸条に交絡を付与
する糸条交絡処理装置において、前記噴射孔に0.1〜
0.4MPaの噴射圧で圧縮流体を供給し、前記いずれ
の噴射圧においても前記糸道における糸条の走入口から
排出される流量をQin、前記糸道における糸条の走出口
から排出される流量をQoutとした時、走入口と走出口
の排出流量の総和(Qin+Qout)に対する走入口の排
出流量の割合を30〜40%、走入口と走出口の排出流
量の総和(Qin+Qout)に対する走出口の排出流量の
割合を60〜70%とするとともに、前記走入口に走入
する糸条の糸張力を0.5〜5gとし、かつ前記走入口
に走入する糸条の糸張力と走出口から走出する糸条の張
力との差を4g以下としたことを特徴とする。
In view of the above problems, the present invention provides a yarn path for guiding the running of a yarn made of multifilament and at least one opening to the yarn path in the invention according to claim 1. In a yarn entanglement treatment device that has two injection holes and injects a compressed fluid from the injection holes to give entanglement to the yarn running in the yarn path,
Compressed fluid is supplied at an injection pressure of 0.4 MPa, and at any of the injection pressures, the flow rate discharged from the yarn inlet of the yarn path is Qin, and the flow rate is discharged from the yarn outlet of the yarn path. When the flow rate is taken as Qout, the ratio of the discharge flow rate at the runway entrance to the total discharge flow rate at the runway entrance and exit (Qin + Qout) is 30 to 40% , and the runway exit for the total discharge flow rate at the runway entrance and runway (Qin + Qout) Of the discharge flow rate of 60 to 70% , the yarn tension of the yarn running into the running inlet is 0.5 to 5 g, and the yarn tension of the yarn running into the running inlet and the running outlet. It is characterized in that the difference from the tension of the yarn running from the fiber is 4 g or less.

【0013】請求項2に係る発明は、前記噴射孔の軸線
を、糸道の軸線に対して直角に開口させるとともに、前
記糸道における糸条の走入口の断面積をSin、前記糸道
における糸条の走出口の断面積をSoutとした時、走入
口の断面積(Sin)と走出口の断面積(Sout)の比(S
in/Sout)が0.3〜0.7となるようにしたことを特
徴とする。
According to a second aspect of the present invention, the axis of the injection hole is opened at a right angle to the axis of the yarn path, and the cross-sectional area of the yarn running port in the yarn path is Sin. When the cross-sectional area of the yarn outlet is Sout, the ratio of the cross-sectional area of the inlet (Sin) to that of the outlet (Sout) (S
In / Sout) is set to 0.3 to 0.7.

【0014】請求項3に係る発明は、糸道における糸条
の走入口の断面積と糸条の走出口の断面積が同一で、前
記噴射孔の軸線を、糸道の軸線に垂直な垂線に対して斜
めに開口させるとともに、前記噴射孔の軸線と前記糸道
の軸線に垂直な垂線とのなす角度をα、前記噴射孔の開
口面積をSn(mm 2 とした時、Snが0.2〜40m
2 、Sn×sinαが0.15〜0.35となるように
したことを特徴とする。
According to a third aspect of the present invention, the cross-sectional area of the yarn running port and the cross-sectional area of the yarn running port in the yarn path are the same, and the axis of the injection hole is perpendicular to the axis of the yarn path. When the angle between the axis of the injection hole and the perpendicular line to the axis of the yarn path is α and the opening area of the injection hole is Sn (mm 2 ) , Sn is 0 .2-40m
It is characterized in that Sn × sin α is set to be 0.15 to 0.35 in m 2 .

【0015】[0015]

【発明の実施の形態】以下、本発明の実施形態について
説明する。
BEST MODE FOR CARRYING OUT THE INVENTION Embodiments of the present invention will be described below.

【0016】図1は本発明に係る糸条交絡処理装置を示
す図で、(a)はその斜視図、(b)は(a)のX−X
線断面図であり、この糸条交絡処理装置10は、マルチ
フィラメントかなる糸条Mの走行を案内する糸道2と、
この糸道2に開口する噴射孔5を有するブロック体1か
らなり、糸道2は、断面形状が円形をなし、大きな断面
を有する孔6と、断面形状が円形をなし、小さな断面を
有する孔7とをそれぞれの軸線が同軸となるように双方
を連通させてある。そして、孔7の開口部を糸条Mの走
入口3とするとともに、孔6の開口部を糸条Mの走出口
4とし、噴射孔5を孔6に開口させてある。
1A and 1B are views showing a yarn entanglement processing apparatus according to the present invention. FIG. 1A is a perspective view thereof, and FIG.
1 is a line cross-sectional view showing a yarn entanglement treatment device 10 including a yarn path 2 for guiding the traveling of a yarn M made of multifilament,
The yarn path 2 is composed of a block body 1 having an injection hole 5 that opens to the yarn path 2. The yarn path 2 has a circular cross-sectional shape and a large cross section, and a hole 6 having a circular cross-sectional shape and a small cross section. 7 and 7 are communicated with each other such that their axes are coaxial. The opening of the hole 7 is used as the running inlet 3 of the yarn M, the opening of the hole 6 is used as the running outlet 4 of the yarn M, and the injection hole 5 is opened in the hole 6.

【0017】また、噴射孔5の軸線Aは、糸道2の軸線
Bに垂直な垂線Cに対して傾斜させてあり、噴射孔5よ
り0.1〜0.4MPaの噴射圧で圧縮流体を噴出さ
せ、走入口3から排出される流量をQin、走出口4から
排出される流量をQoutとした時、走入口3と走出口4
の排出流量の総和(Qin+Qout)に対する走入口3の
排出流量の割合(Rin)が25〜45%で、かつ走入口
3と走出口4の排出流量の総和(Qin+Qout)に対す
る走出口4の排出流量の割合(Rout)が55〜75%
となるようにしてある。
The axis A of the injection hole 5 is inclined with respect to a perpendicular line C perpendicular to the axis B of the yarn path 2, and compressed fluid is injected from the injection hole 5 at an injection pressure of 0.1 to 0.4 MPa. Letting jet flow out and the flow rate discharged from the runway 3 be Qin and the flow rate discharged from the runway 4 be Qout, the runway 3 and the runway 4
The discharge flow rate (Rin) of the runway 3 to the total discharge flow rate (Qin + Qout) is 25 to 45%, and the discharge flow rate of the runway 4 with respect to the total discharge flow rate (Qin + Qout) of the runway 3 and the runway 4 Ratio (Rout) is 55-75%
It is designed to be

【0018】そして、この糸条交絡処理装置10により
糸条Mに交絡を付与するには、糸道2に糸条Mを走行さ
せ、噴射孔5に0.1〜0.4MPaの噴射圧を有する
圧縮流体を供給するとともに、走入口3側の糸条Mの走
行速度を調整し、走入口3に走入する糸条Mの糸張力を
0.5〜5gとすることにより、走入口3に走入する糸
条Mの糸張力と走出口4から走出する糸条Mの糸張力と
の差を4g以下、好ましくは3.5g以下、更に好まし
くは3g以下とすることができるため、ジャンピング現
象等の発生がなく、また、糸条Mにダメージを与えるこ
となく、圧縮流体の少ない流量消費で安定した交絡を付
与することができる。
In order to make the yarn M entangled by the yarn entanglement treatment device 10, the yarn M is run in the yarn path 2 and the injection pressure of 0.1 to 0.4 MPa is applied to the injection hole 5. By supplying the compressed fluid having the same and adjusting the traveling speed of the yarn M on the side of the inlet 3 to set the yarn tension of the yarn M entering the inlet 3 to 0.5 to 5 g, the inlet 3 The difference between the thread tension of the thread M entering into the yarn and the thread tension of the thread M running out of the outlet 4 can be 4 g or less, preferably 3.5 g or less, and more preferably 3 g or less. Stable entanglement can be imparted with a small flow rate consumption of the compressed fluid without causing a phenomenon or the like and without damaging the yarn M.

【0019】即ち、図1(a)(b)の糸条交絡処理装
置10では、走出口4の断面積(Sout)を走入口3の
断面積(Sin)より大きくするとともに、噴射孔5を傾
斜させ、その開口部を走出口4側に向けてあることか
ら、走出口4からの排出流量(Qout)を走入口3から
の排出流量(Qin)より多くすることができ、走入口3
側での糸条Mの過剰な緩みの発生を防止できるととも
に、糸条Mが走入口3に走入する糸張力を0.5〜5g
としてあることから、糸道2内を走行する糸条Mの糸張
力は小さく、適度な撓みを有するため噴射孔5より噴出
される圧縮流体の作用によって糸条Mを糸道2内で振動
運動させることができる。そして、走入口3と走出口4
の排出流量の総和(Qin+Qout)に対する走入口3の
排出流量の割合を25〜45%、走入口3と走出口4の
排出流量の総和(Qin+Qout)に対する走出口4の排
出流量の割合を55〜75%とし、かつ予め設定した糸
条Mが走入口3に走入する糸張力(0.5〜5g)との
関係により、走出口4側の糸張力と走入口3側の糸張力
との差を4g以下に近似させることができる。
That is, in the yarn entanglement treatment device 10 of FIGS. 1 (a) and 1 (b), the cross-sectional area (Sout) of the running outlet 4 is made larger than the cross-sectional area (Sin) of the running inlet 3 and the injection hole 5 is formed. Since the opening is inclined and the opening is directed toward the running outlet 4, the discharge flow rate (Qout) from the running exit 4 can be made larger than the discharge flow rate (Qin) from the running entrance 3,
It is possible to prevent the occurrence of excessive looseness of the yarn M on the side, and to adjust the yarn tension of the yarn M entering the run-in port 3 to 0.5 to 5 g.
Therefore, since the yarn tension of the yarn M traveling in the yarn path 2 is small and has an appropriate bending, the yarn M vibrates in the yarn path 2 by the action of the compressed fluid ejected from the injection hole 5. Can be made. And runway 3 and runway 4
The ratio of the discharge flow rate of the runway 3 to the total discharge flow rate (Qin + Qout) of 25 to 45%, and the ratio of the discharge flow rate of the runway 4 to the total discharge flow rate of the runway 3 and the runway 4 (Qin + Qout) is 55 to 55%. The yarn tension of the yarn 4 on the side of the running port 4 and the yarn tension on the side of the running port 3 are set to 75% and due to the relationship with the yarn tension (0.5 to 5 g) at which the yarn M runs into the running port 3 in advance. The difference can be approximated to 4 g or less.

【0020】ここで、糸条Mが走入口3に走入する糸張
力を0.5〜5gとしたのは、糸張力が0.5g未満で
あると、糸条Mの糸張力があまりに緩い状態であるた
め、走入口3側での糸条Mの走行が不安定となり、交絡
に欠落が発生するからであり、逆に、糸張力が5gを超
えると、糸道2内を走行する糸条Mの糸張力が大きくな
りすぎるために、糸道2内で糸条Mの大きな振動運動が
得られず、交絡加工が不安定となるからである。なお、
糸条Mが走入口3に走入する糸張力を0.5〜5gとす
るには、走入口3に走入する糸条Mの走行速度あるいは
走出口4より走出する糸条Mの走行速度を調整し、例え
ばテンションメーターの数値が0.5〜5gとなるよう
にすれば良い。
The yarn tension at which the yarn M runs into the inlet 3 is set to 0.5 to 5 g. The yarn tension of the yarn M is too loose when the yarn tension is less than 0.5 g. This is because the running of the yarn M on the side of the run-in port 3 becomes unstable and a drop in the entanglement occurs. Conversely, when the yarn tension exceeds 5 g, the yarn running in the yarn path 2 is This is because the yarn tension of the yarn M becomes too large, so that a large vibration movement of the yarn M cannot be obtained in the yarn path 2, and the entanglement process becomes unstable. In addition,
The traveling speed of the yarn M entering the running inlet 3 or the traveling speed of the yarn M running through the running outlet 4 is set so that the yarn tension of the yarn M entering the running inlet 3 is 0.5 to 5 g. Is adjusted so that the value of the tension meter is 0.5 to 5 g, for example.

【0021】また、走入口3と走出口4の排出流量の総
和(Qin+Qout)に対する走入口3の排出流量の割合
が25%未満(走入口3と走出口4の排出流量の総和
(Qin+Qout)に対する走出口4の排出流量の割合が
75%を超える場合)では、糸条Mを押し出す推進効果
が過剰になってジャンピング現象が発生するからであ
り、逆に、走入口3と走出口4の排出流量の総和(Qin
+Qout)に対する走入口3の排出流量の割合が45%
を超える(走入口3と走出口4の排出流量の総和(Qin
+Qout)に対する走出口4の排出流量の割合が55%
未満)と、糸条Mを押し出す推進効果が小さく、糸張力
の調整ができなくなるからである。
Also, the ratio of the discharge flow rate of the runway 3 to the total discharge flow rate (Qin + Qout) of the runway 3 and the runway 4 is less than 25% (to the total discharge flow rate (Qin + Qout) of the runway 3 and the runway 4). This is because, when the discharge flow rate of the running outlet 4 exceeds 75%, the propulsion effect of pushing out the yarn M becomes excessive and a jumping phenomenon occurs, and conversely, the discharging of the running inlet 3 and the running outlet 4 occurs. Sum of flow rate (Qin
45% of the discharge flow rate of run-in port 3 to + Qout)
(The sum of the discharge flow rates of the run-in port 3 and the run-out port 4 (Qin
55% of the discharge flow rate of the outlet 4 to + Qout)
If less than), the propulsive effect of pushing out the yarn M is small, and the yarn tension cannot be adjusted.

【0022】なお、より好ましくは走入口3と走出口4
の排出流量の総和(Qin+Qout)に対する走入口3の
排出流量の割合が30〜40%で、かつ走入口3と走出
口4の排出流量の総和(Qin+Qout)に対する走出口
4の排出流量の割合が60〜70%となるようにするこ
とが良い。
More preferably, the runway entrance 3 and the runway exit 4
The ratio of the discharge flow rate at the runway 3 to the total discharge flow rate (Qin + Qout) is 30-40%, and the ratio of the discharge flow rate at the runway 4 to the total discharge flow rate at the runway 3 and the runway 4 (Qin + Qout) is It is preferable to set it to 60 to 70%.

【0023】また、図1(a)(b)では、糸道2の走
入口3や走出口4の近傍に糸ガイドを持たない例を示し
たが、糸条Mの走行を規制するために、糸条交絡処理装
置の走入口3側と走出口4側の近傍にそれぞれ糸ガイド
を設けても構わない。ただし、糸ガイドを設ける場合、
走入口3側の糸ガイドと走出口4側の糸ガイドとは同一
高さに設置するとともに、各糸ガイドのガイド面は糸道
2の開口部より延設された領域内にあることが好まし
い。なぜなら、糸ガイドの高さが異なるとガイド面で糸
条Mが曲げられて走行抵抗が増大するため、走行する糸
条Mにダメージを与える恐れがあるからである。
1 (a) and 1 (b) show an example in which a yarn guide is not provided in the vicinity of the running inlet 3 and the running outlet 4 of the yarn path 2, but in order to regulate the running of the yarn M. A thread guide may be provided in the vicinity of the running inlet 3 side and the running outlet 4 side of the yarn entanglement processing device. However, when providing a thread guide,
It is preferable that the thread guide on the runner entrance 3 side and the thread guide on the runner exit 4 side are installed at the same height, and the guide surface of each thread guide is within a region extending from the opening of the yarn path 2. . This is because if the heights of the yarn guides are different, the yarn M is bent on the guide surface and the running resistance increases, which may damage the running yarn M.

【0024】また、同様の理由で、糸道2の走入口3側
の孔7の長さLは0.5〜5mmとすることが良く、こ
の範囲で設定することにより接糸長が短くなり摩擦抵抗
が減るため走行抵抗を低減することができる。
For the same reason, it is preferable that the length L of the hole 7 on the runway entrance 3 side of the yarn path 2 be 0.5 to 5 mm. By setting the length L within this range, the yarn contact length can be shortened. Since the frictional resistance is reduced, the traveling resistance can be reduced.

【0025】なお、この他、糸道2の全長は5〜100
mm、噴射孔5の断面積は0.2〜40mm2程度に設
定してあれば良く、噴射孔5の開口位置は糸道2の中央
付近にあることが好ましい。
Besides, the total length of the yarn path 2 is 5 to 100.
mm, the cross-sectional area of the injection hole 5 may be set to about 0.2 to 40 mm 2, and the opening position of the injection hole 5 is preferably near the center of the yarn path 2.

【0026】また、糸道2を構成する孔6,7の断面形
状は円形だけに限らず、長円形、半円形、多角形のいず
れの形状であっても構わない。
The cross-sectional shape of the holes 6 and 7 forming the yarn path 2 is not limited to a circular shape, and may be any of an oval shape, a semicircular shape and a polygonal shape.

【0027】さらに、噴射孔5の開口部における断面形
状も円形に限らず、多角形や楕円をしたものでも良く、
また、噴射孔5の数も1つに限らず複数個設けても構わ
ない。
Further, the cross-sectional shape of the opening of the injection hole 5 is not limited to a circle, but may be a polygon or an ellipse.
Moreover, the number of the injection holes 5 is not limited to one, and a plurality of injection holes 5 may be provided.

【0028】次に、本発明に係る糸条交絡処理装置の他
の例について説明する。
Next, another example of the yarn entanglement processing apparatus according to the present invention will be described.

【0029】図2の糸条交絡処理装置10は、噴射孔5
の軸線Aが糸道2の軸線Bに対して直角に開口するとと
もに、糸道2の走入口3の断面積をSin、糸道2の走出
口4の断面積をSoutとした時、走入口3の断面積(Si
n)と走出口4の断面積(Sout)の比(Sin/Sout)を0.
3〜0.7とする以外は図1と同様の構造をしたもの
で、噴射孔5より噴射させる圧縮流体の噴射圧力を0.
1〜0.4MPaとし、走入口3から排出される流量を
Qin、走出口4から排出される流量をQoutとした時、
走入口3と走出口4の排出流量の総和(Qin+Qout)
に対する走入口3の排出流量の割合が25〜45%で、
かつ走入口3と走出口4の排出流量の総和(Qin+Qou
t)に対する走出口4の排出流量の割合が55〜75%
となるようにしてある。
The yarn entanglement treatment device 10 of FIG.
When the axis A of the yarn path 2 is opened at a right angle to the axis B of the yarn path 2 and the cross-sectional area of the running inlet 3 of the yarn path 2 is Sin and the cross-sectional area of the running outlet 4 of the yarn path 2 is Sout, Cross-sectional area of 3 (Si
n) and the cross-sectional area (Sout) of the outlet 4 (Sin / Sout) is 0.
It has the same structure as that of FIG. 1 except that it is set to 3 to 0.7, and the injection pressure of the compressed fluid injected from the injection hole 5 is set to 0.
When the flow rate discharged from the running inlet 3 is Qin and the flow rate discharged from the running outlet 4 is Qout,
Sum of discharge flow rate at run-in 3 and run-out 4 (Qin + Qout)
Of the discharge flow rate of the run-in port 3 to 25-45%,
And the sum of the discharge flow rate at the runway 3 and runway 4 (Qin + Qou
The ratio of the discharge flow rate of the runway 4 to t) is 55 to 75%
It is designed to be

【0030】そして、この糸条交絡処理装置10により
糸条Mに交絡を付与するには、糸道2に糸条Mを走行さ
せるとともに、噴射孔5より0.1〜0.4MPaの圧
縮流体を供給し、糸条Mが走入口3に走入する糸張力を
0.5〜5gとすることにより、走入口3側の糸張力と
走出口4側の糸張力との差を3g以下に近似させること
ができ、糸条Mにダメージを与えたり、ジャンピング現
象の発生がなく、少ない流量で交絡を安定して付与する
ことができる。
In order to give the yarn M an entanglement by the yarn entanglement treatment device 10, the yarn M is made to travel along the yarn path 2 and a compressed fluid of 0.1 to 0.4 MPa is injected from the injection hole 5. And the yarn tension at which the yarn M enters the run-in port 3 is set to 0.5 to 5 g, thereby reducing the difference between the thread tension on the run-in port 3 side and the thread tension on the run-out port 4 side to 3 g or less. They can be approximated to each other, and the yarn M is not damaged or the jumping phenomenon does not occur, and the entanglement can be stably applied with a small flow rate.

【0031】この糸条交絡処理装置10によれば、噴射
孔5を傾斜させる場合に比べて効率良く交絡処理を施す
ことができるとともに、噴射孔5より直接噴射している
圧縮流体による推進効果で無く、間接的に生じる排出流
量の差による推進効果を利用することができるため、押
し出し推進効果が自然で流れが安定し易く、またジャン
ピング現象が極めて生じ難いといった効果を奏すること
ができる。
According to this yarn entanglement treatment device 10, the entanglement treatment can be performed more efficiently than in the case of inclining the injection hole 5, and the propelling effect of the compressed fluid injected directly from the injection hole 5 is obtained. Since the propulsion effect due to the difference in the discharge flow rate that occurs indirectly can be utilized, the push propulsion effect is natural, the flow is easily stabilized, and the jumping phenomenon is extremely unlikely to occur.

【0032】ただし、交絡をさらに効率良く行うために
は、断面形状を長穴や多角形とすれば良い。
However, in order to perform the entanglement more efficiently, the cross-sectional shape may be an elongated hole or a polygon.

【0033】更に、図3の糸条交絡処理装置10は、ブ
ロック体1に同一断面形状の貫通孔を穿孔し、この貫通
孔を糸道2とするとともに、糸道2には噴射孔5を開口
させ、噴射孔5の開口部が走出口4を向くように傾斜さ
せてあり、噴射孔5の軸線Aと糸道2の軸線Bに垂直な
垂線Cとのなす角度をα、噴射孔5の開口面積をSnと
した時、Sn×sinαが0.15〜0.35、好ましくは
0.20〜0.30となるようにしてあり、噴射孔5よ
り噴射させる圧縮流体の噴射圧力を0.1〜0.4MP
aとし、走入口3から排出される流量をQin、走出口4
から排出される流量をQoutとした時、走入口3と走出
口4の排出流量の総和(Qin+Qout)に対する走入口
3の排出流量の割合が25〜45%で、かつ走入口3と
走出口4の排出流量の総和(Qin+Qout)に対する走
出口4の排出流量の割合が55〜75%となるようにし
てある。
Further, in the yarn entanglement treatment device 10 of FIG. 3, a through hole having the same cross-sectional shape is bored in the block body 1, and this through hole is used as the yarn path 2, and the yarn path 2 is provided with the injection hole 5. The opening of the injection hole 5 is inclined so as to face the outlet 4, and the angle between the axis A of the injection hole 5 and the perpendicular C perpendicular to the axis B of the yarn path 2 is α, and the injection hole 5 When the opening area of is Sn, Sn × sin α is set to 0.15 to 0.35, preferably 0.20 to 0.30, and the injection pressure of the compressed fluid injected from the injection hole 5 is set to 0. .1-0.4MP
a, the flow rate discharged from the runway 3 is Qin, and the runway 4
When the flow rate discharged from the outlet is Qout, the ratio of the discharge flow rate of the runway 3 to the total discharge flow rate of the runway 3 and the runway 4 (Qin + Qout) is 25 to 45%, and the runway 3 and the runway 4 are The ratio of the discharge flow rate of the running port 4 to the total discharge flow rate (Qin + Qout) is 55 to 75%.

【0034】そして、この糸条交絡処理装置10により
糸条Mに交絡を付与するには、糸道2に糸条Mを走行さ
せるとともに、噴射孔5より0.1〜0.4MPaの圧
縮流体を供給し、糸条Mが走入口3に走入する糸張力を
0.5〜5gとすることにより、走入口3側の糸張力と
走出口4側の糸張力との差を3g以下に近似させること
ができ、糸条Mにダメージを与えたり、ジャンピング現
象の発生がなく、少ない流量で交絡を安定して付与する
ことができる。
To make the yarn M entangled by the yarn entanglement treatment device 10, the yarn M is made to travel in the yarn path 2 and a compressed fluid of 0.1 to 0.4 MPa is injected from the injection hole 5. And the yarn tension at which the yarn M enters the run-in port 3 is set to 0.5 to 5 g, thereby reducing the difference between the thread tension on the run-in port 3 side and the thread tension on the run-out port 4 side to 3 g or less. They can be approximated to each other, and the yarn M is not damaged or the jumping phenomenon does not occur, and the entanglement can be stably applied with a small flow rate.

【0035】即ち、この糸条交絡処理装置10によれ
ば、図4にその模式図を示すように、噴射孔5から噴射
された流量によるエネルギーをFnとすると、Fnは推進
効果になる分力f2と、交絡加工に寄与する分力f1に分
けることができ、流量エネルギーは噴射孔5の開口面積
(Sn)と比例する関係にあるので、推進効果の大きさを
示すSn×sinαの値を0.15〜0.35に管理するこ
とで安定した交絡が付与できることを本件発明者は見出
したのである。
That is, according to the yarn entanglement processing apparatus 10, as shown in the schematic view of FIG. 4, when the energy due to the flow rate injected from the injection hole 5 is Fn, Fn is a component force that has a propulsive effect. It can be divided into f2 and component force f1 that contributes to the confounding process, and the flow rate energy is the opening area of the injection hole 5.
The present inventor has found that stable confounding can be imparted by controlling the value of Sn × sin α, which indicates the magnitude of the propulsion effect, to be 0.15 to 0.35 because of the proportional relationship with (Sn). is there.

【0036】ところで、これらの糸条交絡処理装置10
において、糸道2の内壁を形成する材質としては、高速
で走行する糸条Mとの摺動に対して耐摩耗性に優れた材
質により形成することが好ましく、アルミナ、ジルコニ
ア、窒化珪素、炭化珪素、窒化アルミニウムを主成分と
するセラミックスを用いることができ、ブロック体1全
体を上記セラミックスにより形成しても構わない。
By the way, these yarn entanglement processing devices 10
In the above, as the material forming the inner wall of the yarn path 2, it is preferable to use a material having excellent wear resistance against sliding with the yarn M running at high speed, such as alumina, zirconia, silicon nitride, carbonized Ceramics containing silicon or aluminum nitride as a main component can be used, and the entire block body 1 may be formed of the above ceramics.

【0037】また、糸道2の内壁は、糸条Mの種類にも
よるが、例えば、フラットヤーンのような滑らかな表面
を有する糸条Mに対しては、中心線表面粗さ(Ra)で
0.8μm程度の凹凸を有する梨地とすれば良く、加工
糸やテクスチャードヤーンのような表面に凹凸を有する
糸条Mに対しては、中心線平均表面粗さ(Ra)で0.
2μm以下の平滑面とすれば良い。
The inner wall of the yarn path 2 depends on the type of the yarn M, but for the yarn M having a smooth surface such as a flat yarn, the center line surface roughness (Ra). The surface roughness of the center line average surface roughness (Ra) of the yarn M having irregularities on the surface such as textured yarn and textured yarn is 0.
A smooth surface of 2 μm or less may be used.

【0038】以上、本実施形態について説明したが、本
発明はこれらの実施形態だけに限定されるものではな
く、本発明の範囲を逸脱しない範囲で種々変更や改良で
きることは言うまでもない。
Although the present embodiment has been described above, the present invention is not limited to these embodiments, and it goes without saying that various modifications and improvements can be made without departing from the scope of the present invention.

【0039】[0039]

【実施例】(実施例1)ここで、図1に示す糸条交絡処
理装置10において、糸道2の寸法を異ならせることに
より、噴射孔5から0.1〜0.4MPaの噴出圧力で
圧縮流体を噴出させた時の走入口3と走出口4の排出流
量の総和(Qin+Qout)に対する走入口3の排出流量
の割合(Rin)と、走入口3と走出口4の排出流量の総
和(Qin+Qout)に対する走出口4の排出流量の割合
(Rout)を異ならせ、ポリエステルマルチフィラメン
トに交絡処理を施した時の交絡特性(交絡数、交絡
率)、糸条Mが走入する糸張力(Tin)、糸条Mが走出
する糸張力(Tout)についてそれぞれ調べる実験を行
った。
Example 1 In the yarn entanglement treatment apparatus 10 shown in FIG. 1, the size of the yarn path 2 is changed so that the ejection pressure from the ejection hole 5 is 0.1 to 0.4 MPa. The ratio (Rin) of the discharge flow rate of the runway 3 to the total discharge flow rate (Qin + Qout) of the runway 3 and the runway 4 when the compressed fluid is jetted, and the total discharge flow rate of the runway 3 and the runway 4 ( The ratio (Rout) of the discharge flow rate of the running outlet 4 to Qin + Qout) is made different, and the entanglement characteristics (entanglement number, entanglement ratio) when the polyester multifilament is subjected to the entanglement treatment, the yarn tension (Tin ) And an experiment for examining the yarn tension (Tout) at which the yarn M runs.

【0040】本実験における交絡加工条件は、150d
/48fのポリエステルマルチフィラメントからなる糸
条Mを走行速度600m/分で糸道2を走行させ、噴射
孔5から0.4MPaの圧縮流体を噴射させるようにし
た。
The entanglement processing conditions in this experiment are 150d.
A yarn M made of / 48f polyester multifilament was run in the yarn path 2 at a running speed of 600 m / min, and a compressed fluid of 0.4 MPa was jetted from the jet holes 5.

【0041】なお、各糸条交絡処理装置10は、いずれ
も表1の寸法とした。
Each of the yarn entanglement treatment devices 10 has the dimensions shown in Table 1.

【0042】そして、交絡特性の評価にあたり、交絡数
の測定は、交絡処理後において、糸条に1d(デニー
ア)当たり0.1g(グラム)の荷重を付与して伸ばし
た状態にて基準長を設定し、その基準長内で交絡してい
る数と、上手く交絡していない数を数回測定した。そし
て、交絡数は、交絡している数を1m当たりに換算した
値の平均値として求め、また交絡率は、交絡している数
と上手く交絡していない数との総和に対する交絡してい
る数の割合を百分率で求めた。
In the evaluation of the entanglement characteristics, the number of entanglement is measured by measuring the entanglement number with a standard length in a state where a load of 0.1 g (gram) per 1 d (denier) is applied to the yarn and stretched. After setting, the number of entangled points within the standard length and the number of entangled points were measured several times. Then, the number of confounding is calculated as an average value of the values obtained by converting the number of confounding per 1 m, and the confounding ratio is the number of confounding and the number not confounding well. Was calculated as a percentage.

【0043】また、糸条の張力については、テンション
メーターを用い、走入口3へ走入する糸張力と走出口4
から走出する糸張力を測定し、それぞれTin(g)、T
out(g)とした。
As for the tension of the yarn, a tension meter is used, and the tension of the yarn entering the running port 3 and the running port 4
Measure the tension of the thread running from each of the threads, Tin (g), T
out (g).

【0044】なお、走入口3の排出流量(Qin)と走出
口4の排出流量(Qout)の測定は、走入口3、走出口
4からそれぞれ排出される気体を捕捉するようにゴム配
管を当て、それぞれの流量を流量計にて測定し、Qin
(l/分)、Qout(l/分)とした。
The measurement of the discharge flow rate (Qin) at the run-in port 3 and the discharge flow rate (Qout) at the run-out port 4 is performed by applying a rubber pipe so as to capture the gas discharged from each of the run-in port 3 and the run-out port 4. , Each flow rate is measured with a flow meter, and Qin
(L / min) and Qout (l / min).

【0045】結果は表1に示す通りである。The results are shown in Table 1.

【0046】[0046]

【表1】 [Table 1]

【0047】この結果、走入口3と走出口4の排出流量
の総和(Qin+Qout)に対する走入口3の排出流量の
割合(Rin)を25〜45%、走出口4の排出流量の割
合(Rout)を55〜75%とし、かつ走入口3側の糸
張力(Tin)を0.5〜5gの範囲で設定することによ
り、糸条の走入口3と走出口4における糸張力の差を近
似させることができ、交絡率をいずれも90%以上に高
めることができることが判る。 (実施例2)次に、図2の糸条交絡処理装置10におい
て、糸道2の寸法を異ならせることにより、噴射孔5か
ら0.1〜0.4MPaの噴出圧力で圧縮流体を噴出さ
せた時の走入口3と走出口4の排出流量の総和(Qin+
Qout)に対する走入口3の排出流量の割合(Rin)
と、走入口3と走出口4の排出流量の総和(Qin+Qou
t)に対する走出口4の排出流量の割合(Rout)を異な
らせるとともに、走入口3の断面積(Sin)と走出口4の
断面積(Sout)の比(Sin/Sout)を異ならせ、以下の2
つの条件で交絡処理を施して、交絡特性(交絡率)、糸
条が走入する糸張力(Tin)、糸条が走出する糸張力
(Tout)についてそれぞれ調べる実験を行った。
As a result, the ratio (Rin) of the discharge flow rate of the runway 3 to the sum (Qin + Qout) of the discharge flow rate of the runway 3 and the exit 4 is 25 to 45%, and the ratio of the discharge flow rate of the runway 4 (Rout). Is set to 55 to 75%, and the thread tension (T in ) on the runner entrance 3 side is set in the range of 0.5 to 5 g, thereby approximating the difference in thread tension between the runner entrance 3 and the exit 4 of the yarn. It can be seen that it is possible to increase the confounding rate to 90% or more. (Embodiment 2) Next, in the yarn entanglement treatment apparatus 10 of FIG. 2, the compressed fluid is jetted from the jet holes 5 at a jet pressure of 0.1 to 0.4 MPa by varying the dimensions of the yarn paths 2. Sum of discharge flow rate of run-in port 3 and run-out port 4 (Qin +
Ratio of discharge flow rate of run-in port 3 to Qout (Rin)
And the sum of the discharge flow rates of the run-in port 3 and the run-out port 4 (Qin + Qou
The ratio (Rout) of the discharge flow rate of the discharge port 4 to t) is made different, and the ratio (Sin / Sout) of the cross-sectional area (Sin) of the discharge port 3 and the cross-sectional area (Sout) of the discharge port 4 is made different. Of 2
An experiment was conducted in which the entanglement treatment was performed under two conditions, and the entanglement characteristics (entanglement rate), the yarn tension (Tin) at which the yarn runs, and the yarn tension (Tout) at which the yarn runs out were examined.

【0048】交絡加工条件は、150d/48fのポリ
エステルマルチフィラメントからなる糸条Mを走行速度
600m/分で糸道2を走行させ、噴射孔5から0.4
MPaの圧縮流体を噴射させる場合と、75d/36f
のポリエステルマルチフィラメントからなる糸条Mを走
行速度650m/分で糸道2を走行させ、噴射孔5から
0.4MPaの圧縮流体を噴射させる場合を設定した。
As the entanglement processing conditions, a yarn M made of a polyester multifilament of 150d / 48f is made to run in the yarn path 2 at a running speed of 600 m / min, and 0.4 from the injection hole 5
When injecting compressed fluid of MPa, 75d / 36f
The case was set in which the yarn M made of the polyester multifilament was run in the yarn path 2 at a running speed of 650 m / min, and 0.4 MPa of compressed fluid was jetted from the jet holes 5.

【0049】結果は表2及び表3に示す通りである。The results are shown in Tables 2 and 3.

【0050】[0050]

【表2】 [Table 2]

【0051】[0051]

【表3】 [Table 3]

【0052】この結果、図2の糸条交絡処理装置10で
も、走入口3と走出口4の排出流量の総和(Qin+Qou
t)に対する走入口3の排出流量の割合(Rin)を25
〜45%、走出口4の排出流量の割合(Rout)を55
〜75%とし、かつ走入口3側の糸張力(Tin)を0.
5〜5gの範囲で設定することにより、糸条の走入口3
と走出口4における糸張力の差を近似させることがで
き、交絡率をいずれも90%以上に高めることができ、
さらに走入口3の断面積(Sin)と走出口4の断面積(So
ut)の比(Sin/Sout)を0.3〜0.7とすることによ
り、糸条の走入口3と走出口4における糸張力の差を3
g以下に近似させることができ、交絡率をいずれも94
%以上に高めることができ、特に優れていた。 (実施例3)次に、図3の糸条交絡処理装置10におい
て、糸道2の寸法を異ならせることにより、噴射孔5か
ら0.1〜0.4MPaの噴出圧力で圧縮流体を噴出さ
せた時の走入口3と走出口4の排出流量の総和(Qin+
Qout)に対する走入口3の排出流量の割合(Rin)
と、走入口3と走出口4の排出流量の総和(Qin+Qou
t)に対する走出口4の排出流量の割合(Rout)を異な
らせるとともに、糸条推進効果(Sn×sinα)を異なら
せ、以下の2つの条件で交絡処理を施して、交絡特性
(交絡率)、糸条が走入する糸張力(Tin)、糸条が走
出する糸張力(Tout)についてそれぞれ調べる実験を
行った。
As a result, even in the yarn entanglement treatment device 10 of FIG. 2, the sum of the discharge flow rates of the running inlet 3 and the running outlet 4 (Qin + Qou)
The ratio (Rin) of the discharge flow rate of runway 3 to t) is set to 25
~ 45%, the discharge flow rate ratio (Rout) of outlet 4 is 55
˜75%, and the thread tension (T in ) on the runner entrance 3 side is set to 0.
By setting in the range of 5 to 5 g, the yarn running port 3
It is possible to approximate the difference in the yarn tension at the running outlet 4 and the entanglement rate can be increased to 90% or more,
Furthermore, the cross-sectional area of the runway 3 (Sin) and the cross-section of the runway 4 (So
ut) ratio (Sin / Sout) is set to 0.3 to 0.7, the difference between the thread tensions at the yarn entry port 3 and the yarn exit port 3 is set to 3
It can be approximated to g or less, and the confounding rate is 94 in each case.
It was especially excellent because it could be increased to over%. (Embodiment 3) Next, in the yarn entanglement treatment device 10 of FIG. 3, the compressed fluid is jetted from the jet holes 5 at a jet pressure of 0.1 to 0.4 MPa by making the dimensions of the yarn paths 2 different. Sum of discharge flow rate of run-in port 3 and run-out port 4 (Qin +
Ratio of discharge flow rate of run-in port 3 to Qout (Rin)
And the sum of the discharge flow rates of the run-in port 3 and the run-out port 4 (Qin + Qou
The discharge flow rate ratio (Rout) of the running outlet 4 with respect to t) is made different, and the yarn propulsion effect (Sn × sin α) is made different, and the confounding processing is performed under the following two conditions, and the confounding characteristics (entanglement rate) Experiments were conducted to examine the thread tension (Tin) with which the yarn runs and the thread tension (Tout) with which the yarn runs.

【0053】交絡加工条件は、150d/48fのポリ
エステルマルチフィラメントからなる糸条Mを走行速度
600m/分で糸道2を走行させ、噴射孔5から0.4
MPaの圧縮流体を噴射させる場合と、75d/36f
のポリエステルマルチフィラメントからなる糸条Mを走
行速度650m/分で糸道2を走行させ、噴射孔5から
0.4MPaの圧縮流体を噴射させる場合を設定した。
As the entanglement processing conditions, a yarn M made of a polyester multifilament of 150 d / 48 f is run in the yarn path 2 at a running speed of 600 m / min, and 0.4 from the injection hole 5
When injecting compressed fluid of MPa, 75d / 36f
The case was set in which the yarn M made of the polyester multifilament was run in the yarn path 2 at a running speed of 650 m / min, and 0.4 MPa of compressed fluid was jetted from the jet holes 5.

【0054】結果は表4及び表5に示す通りである。The results are shown in Tables 4 and 5.

【0055】[0055]

【表4】 [Table 4]

【0056】[0056]

【表5】 [Table 5]

【0057】この結果、図3の糸条交絡処理装置10で
も、走入口3と走出口4の排出流量の総和(Qin+Qou
t)に対する走入口3の排出流量の割合(Rin)を25
〜45%、走出口4の排出流量の割合(Rout)を55
〜75%とし、かつ走入口3側の糸張力(Tin)を0.
5〜5gの範囲で設定することにより、糸条の走入口3
と走出口4における糸張力の差を近似させることがで
き、交絡率をいずれも90%以上に高めることができ、
さらに糸条推進効果(Sn×sinα)を0.15〜0.35
とすることにより、糸条の走入口3と走出口4における
糸張力の差を3g以下に近似させることができ、交絡率
をいずれも95%以上に高めることができ、特に優れて
いた。
As a result, also in the yarn entanglement treatment device 10 of FIG. 3, the sum of the discharge flow rates (Qin + Qou) of the running inlet 3 and the running outlet 4 is obtained.
The ratio (Rin) of the discharge flow rate of runway 3 to t) is set to 25
~ 45%, the discharge flow rate ratio (Rout) of outlet 4 is 55
˜75%, and the thread tension (T in ) on the runner entrance 3 side is set to 0.
By setting in the range of 5 to 5 g, the yarn running port 3
It is possible to approximate the difference in the yarn tension at the running outlet 4 and the entanglement rate can be increased to 90% or more,
Furthermore, the yarn propulsion effect (Sn x sin α) is 0.15 to 0.35.
By this, the difference in yarn tension between the yarn inlet 3 and the yarn outlet 4 can be approximated to 3 g or less, and the entanglement ratio can be increased to 95% or more, which is particularly excellent.

【0058】[0058]

【発明の効果】以上のように、本発明によれば、マルチ
フィラメントからなる糸条の走行を案内する糸道と、該
糸道に開口する少なくとも1つの噴射孔を有し、該噴射
孔から圧縮流体を噴射して前記糸道内を走行する糸条に
交絡を付与する糸条交絡処理装置において、前記噴射孔
に0.1〜0.4MPaの噴射圧で圧縮流体を供給し、
前記いずれの噴射圧においても前記糸道における糸条の
走入口から排出される流量をQin、前記糸道における糸
条の走出口から排出される流量をQoutとした時、走入
口と走出口の排出流量の総和(Qin+Qout)に対する
走入口の排出流量の割合を30〜40%、走入口と走出
口の排出流量の総和(Qin+Qout)に対する走出口の
排出流量の割合を60〜70%とするとともに、前記走
入口に走入する糸条の糸張力を0.5〜5gとし、かつ
前記走入口に走入する糸条の糸張力と走出口から走出す
る糸条の張力との差を4g以下としたために、噴射孔に
供給する噴射圧力0.1〜0.4MPaのいずれかを変
動させても糸条の走入口と走出口の糸張力の差を近似さ
せているので、ジャンピング現象等を生じることなく安
定した交絡処理が可能で、多種多様な糸条においても安
定した交絡を付与することができるとともに、圧縮流体
の流量消費が少なく、かつ糸条へのダメージを少なくす
ることができる。
As described above, according to the present invention, a yarn path that guides the running of a yarn made of multifilament and at least one injection hole that opens in the yarn path are provided. In a yarn entanglement treatment device for injecting a compressed fluid to give entanglement to a yarn traveling in the yarn path, the compressed fluid is supplied to the injection holes at an injection pressure of 0.1 to 0.4 MPa,
When the flow rate discharged from the yarn running port in the yarn path is Qin and the flow rate discharged from the yarn running port in the yarn path is Qout at any of the injection pressures, The ratio of the discharge flow rate at the runway to the total discharge flow rate (Qin + Qout) is 30 to 40%, and the ratio of the discharge flow rate at the runway to the total discharge flow rate at the runway and the runway (Qin + Qout) is 60 to 70%. The thread tension of the yarn entering the running inlet is 0.5 to 5 g, and the difference between the yarn tension of the yarn entering the running inlet and the tension of the yarn running from the running outlet is 4 g or less. Therefore, even if the injection pressure supplied to the injection hole is changed from 0.1 MPa to 0.4 MPa, the difference in the yarn tension between the yarn entry port and the yarn exit port is approximated. Stable confounding processing is possible without occurring, It is possible to have stable entangled in species diversity of yarn, less flow consumption of the compressed fluid, and it is possible to reduce the damage to the yarn.

【0059】また、上記条件に加えて噴射孔の軸線を糸
道の軸線に対して直角に開口させるとともに、糸道の走
入口の断面積を(Sin)、糸道の走出口の断面積を(S
out)とした時、走入口の断面積(Sin)と走出口の断面
積(Sout)の比(Sin/Sout)が0.3〜0.7となるよ
うにするか、あるいは糸道の走入口の断面積と糸道の走
出口の断面積を同じとし、噴射孔の軸線を糸道の軸線に
垂直な垂線に対して傾斜させて開口させるとともに、噴
射孔の軸線と糸道の軸線に垂直な垂線とのなす角度を
α、噴射孔の開口部における開口面積をSn(mm 2
した時、Snが0.2〜40mm 2 、Sn×sinαが
0.15〜0.35となるようすることで、交絡率が非
常に高く安定した交絡を付与することができる。
In addition to the above conditions, the axis of the injection hole is opened at a right angle to the axis of the yarn path, and the cross-sectional area of the runway inlet is (Sin) (S
out), the ratio (Sin / Sout) of the cross-sectional area (Sin) of the running inlet and the cross-sectional area (Sout) of the running outlet should be 0.3 to 0.7, or the running of the yarn path The cross-sectional area of the inlet is the same as the cross-sectional area of the outlet of the yarn path, the axis of the injection hole is inclined and opened with respect to the vertical line perpendicular to the axis of the thread path, and the axis of the injection hole and the axis of the thread path are aligned. the angle between line perpendicular alpha, when the opening area and the Sn (mm 2) at the opening of the injection hole, Sn is in 0.2~40mm 2, and Sn × sin .alpha is 0.15 to 0.35 By doing so, it is possible to impart stable entanglement with a very high entanglement rate.

【図面の簡単な説明】[Brief description of drawings]

【図1】本発明に係る糸条交絡処理装置の一例を示す図
で、(a)は斜視図、(b)は(a)のX−X線断面図
である。
FIG. 1 is a diagram showing an example of a yarn entanglement treatment device according to the present invention, in which (a) is a perspective view and (b) is a sectional view taken along line XX of (a).

【図2】本発明に係る糸条交絡処理装置の他の例を示す
断面図である。
FIG. 2 is a cross-sectional view showing another example of the yarn entanglement processing device according to the present invention.

【図3】本発明に係る糸条交絡処理装置の更に他の例を
示す断面図である。
FIG. 3 is a cross-sectional view showing still another example of the yarn entanglement processing device according to the present invention.

【図4】図3の糸条交絡処理装置を用いた時の噴射孔か
ら噴射される圧縮流体により糸条が受ける力を説明する
ための模式図である。
FIG. 4 is a schematic diagram for explaining a force applied to a yarn by a compressed fluid injected from an injection hole when the yarn entanglement processing device of FIG. 3 is used.

【図5】従来の糸条交絡処理装置の一例を示す図で、
(a)は斜視図、(b)は(a)のY−Y線断面図であ
る。
FIG. 5 is a diagram showing an example of a conventional yarn entanglement processing device,
(A) is a perspective view, (b) is a YY line sectional view of (a).

【図6】従来の糸条交絡処理装置の他の例を示す断面図
である。
FIG. 6 is a cross-sectional view showing another example of a conventional yarn entanglement processing device.

【図7】従来の糸条交絡処理装置の他の例を示す断面図
である。
FIG. 7 is a cross-sectional view showing another example of a conventional yarn entanglement processing device.

【図8】従来の糸条交絡処理装置の他の例を示す断面図
である。
FIG. 8 is a cross-sectional view showing another example of a conventional yarn entanglement processing device.

【符号の説明】[Explanation of symbols]

1 :ブロック体 2 :糸道 3 :走入口 4 :走出口 5 :噴射孔 10:糸条交絡処理装置 A :噴射孔の軸線 B :糸道の軸線 C :糸道の軸線に垂直な垂線 M :糸条 1: Block body 2: Thread path 3: Runway 4: Runway exit 5: injection hole 10: Thread entanglement processing device A: injection hole axis B: Thread axis C: A perpendicular line perpendicular to the axis of the yarn path M: Thread

Claims (3)

(57)【特許請求の範囲】(57) [Claims] 【請求項1】 マルチフィラメントからなる糸条の走行
を案内する糸道と、該糸道に開口する少なくとも1つの
噴射孔を有し、該噴射孔から圧縮流体を噴射して前記糸
道内を走行する糸条に交絡を付与する糸条交絡処理装置
において、前記噴射孔に0.1〜0.4MPaの噴射圧
で圧縮流体を供給し、前記いずれの噴射圧においても前
記糸道における糸条の走入口から排出される流量をQi
n、前記糸道における糸条の走出口から排出される流量
をQoutとした時、走入口と走出口の排出流量の総和
(Qin+Qout)に対する走入口の排出流量の割合を
0〜40%、走入口と走出口の排出流量の総和(Qin+
Qout)に対する走出口の排出流量の割合を60〜70
とするとともに、前記走入口に走入する糸条の糸張力
を0.5〜5gとし、かつ前記走入口に走入する糸条の
糸張力と走出口から走出する糸条の張力との差を4g以
下としたことを特徴とする糸条交絡処理装置。
1. A yarn path that guides the running of a yarn made of multifilament and at least one injection hole that opens in the yarn path, and a compressed fluid is injected from the injection hole to run in the yarn path. In the yarn entanglement treatment device for imparting entanglement to the yarn, the compressed fluid is supplied to the injection hole at an injection pressure of 0.1 to 0.4 MPa, and at any of the injection pressures of the yarn in the yarn path, Qi is the flow rate discharged from the runway
n, when the flow rate discharged from the yarn outlet of the yarn path is Qout, the ratio of the discharge flow rate of the runner to the sum of the discharge flow rate of the runner and outlet (Qin + Qout) is 3
0-40% , sum of discharge flow rate at run-in and run-out (Qin +
The ratio of the discharge flow rate at the outlet to Qout) is 60 to 70
%, And the yarn tension of the yarn running into the running inlet is 0.5 to 5 g, and the yarn tension of the yarn running into the running inlet and the tension of the yarn running from the running outlet are A yarn entanglement treatment device characterized in that the difference is 4 g or less.
【請求項2】前記噴射孔の軸線を、糸道の軸線に対して
直角に開口させるとともに、前記糸道における糸条の走
入口の断面積をSin、前記糸道における糸条の走出口の
断面積をSoutとした時、走入口の断面積(Sin)と走
出口の断面積(Sout)の比(Sin/Sout)が0.3〜
0.7となるようにしたことを特徴とする請求項1に記
載の糸条交絡処理装置。
2. The axis line of the injection hole is opened at a right angle to the axis line of the yarn path, and the cross-sectional area of the yarn entry port of the yarn path is Sin, When the cross-sectional area is taken as Sout, the ratio (Sin / Sout) of the cross-sectional area (Sin) at the running inlet to the cross-sectional area (Sout) at the running outlet is 0.3-
The yarn entanglement treatment device according to claim 1, wherein the yarn entanglement treatment device is 0.7.
【請求項3】前記糸道における糸条の走入口の断面積と
糸条の走出口の断面積が同一で、前記噴射孔の軸線を、
糸道の軸線に垂直な垂線に対して斜めに開口させるとと
もに、前記噴射孔の軸線と前記糸道の軸線に垂直な垂線
とのなす角度をα、前記噴射孔の開口面積をSn(m
2)とした時、Snが0.2〜40mm2で、Sn×sin
αが0.15〜0.35となるようにしたことを特徴と
する請求項1に記載の糸条交絡処理装置。
3. The cross-sectional area of the yarn running port and the cross-sectional area of the yarn running port in the yarn path are the same, and the axis of the injection hole is
The opening is formed obliquely with respect to a vertical line perpendicular to the axis of the yarn path, the angle between the axis of the injection hole and the vertical line perpendicular to the axis of the yarn path is α, and the opening area of the injection hole is Sn (m
m 2 ), Sn is 0.2 to 40 mm 2 , and Sn × sin
The yarn entanglement treatment device according to claim 1, wherein α is set to 0.15 to 0.35.
JP2000052937A 2000-02-29 2000-02-29 Yarn entanglement processing device Expired - Fee Related JP3410420B2 (en)

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JP5604080B2 (en) * 2009-10-26 2014-10-08 Tmtマシナリー株式会社 Yarn entanglement device
EP2886690B1 (en) * 2013-12-19 2019-07-24 Heberlein AG Nozzle and method for producing a slubbed yarn

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