JPS58115187A - Enhancing of dye fastness of polyester fiber product - Google Patents

Enhancing of dye fastness of polyester fiber product

Info

Publication number
JPS58115187A
JPS58115187A JP56215722A JP21572281A JPS58115187A JP S58115187 A JPS58115187 A JP S58115187A JP 56215722 A JP56215722 A JP 56215722A JP 21572281 A JP21572281 A JP 21572281A JP S58115187 A JPS58115187 A JP S58115187A
Authority
JP
Japan
Prior art keywords
low
dyeing
present
polyester
color fastness
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
JP56215722A
Other languages
Japanese (ja)
Other versions
JPS6361438B2 (en
Inventor
後藤 徳樹
逸雄 田中
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.)
Unitika Ltd
Original Assignee
Unitika 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 Unitika Ltd filed Critical Unitika Ltd
Priority to JP56215722A priority Critical patent/JPS58115187A/en
Publication of JPS58115187A publication Critical patent/JPS58115187A/en
Publication of JPS6361438B2 publication Critical patent/JPS6361438B2/ja
Granted legal-status Critical Current

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  • Coloring (AREA)
  • Chemical Or Physical Treatment Of Fibers (AREA)

Abstract

(57)【要約】本公報は電子出願前の出願データであるた
め要約のデータは記録されません。
(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.

Description

【発明の詳細な説明】 本発明は、低温プラズマを利用して行うぼりエステル繊
維染色物の染色堅牢度向上方法に関するものである。
DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a method for improving the color fastness of dyed ester fibers using low-temperature plasma.

さらに詳しくは、浸染染色したポリエステル繊維品に還
元洗浄を行わず、これに酸化性気体あるいは還元性気体
の低温プラズマ処理を行うことにより浸染染色したポリ
エステル繊維品の染色堅牢度を向上さ讐る方法に関する
ものである。
More specifically, a method for improving the color fastness of dyed polyester textiles by subjecting the dyed polyester textiles to low-temperature plasma treatment with oxidizing gas or reducing gas without performing reduction cleaning. It is related to.

本発明でいうポリエステル繊維品とは/9エチレンテV
jタレート繊維、あるいはポリエチレンテレフタレート
#c第ミ成分例えばイソフヌAI#スpホネート、パフ
オキシ安息香鹸などを共重合した繊維を使った原綿、糸
(紡績糸、フィラメント糸、加工糸など)、織物9編物
、不織布及びセーター、を下などの半製品を意味し ま
た上記ポリエステA/s維や共電合繊、維と他繊維例え
ば木綿。
What is the polyester fiber product referred to in the present invention? /9 EthyleneteV
Raw cotton, yarn (spun yarn, filament yarn, processed yarn, etc.), 9 knitted fabrics using fibers copolymerized with j tallate fiber or polyethylene terephthalate #c second component such as Isofnu AI #spphonate, puff oxybenzoin soap, etc. , refers to semi-finished products such as non-woven fabrics and sweaters, as well as the above-mentioned polyester A/s fibers, Kyodo synthetic fibers, fibers and other fibers such as cotton.

羊毛、ナイロンなどとの混用繊維からなるものもこのな
かに含有されるものとする。
This includes fibers made of fibers mixed with wool, nylon, etc.

一般にポリエステル繊維品を浸染染色しただけでは、と
くに濃色染めの場合、染料の一部がポリエステA/繊維
の表面に付着しているため染色堅牢度が不良で、とくに
臘擦県牢度、洗IIIu牢度、昇IIl牢度などは督し
、<低い値であるのが普通である。このため一般晶には
゛浸染染色後の工程として染色φ牢度向上のため還元洗
浄工程が取り入れられている。
In general, if polyester textiles are simply dyed by dyeing, especially in the case of deep color dyeing, some of the dye adheres to the surface of the polyester A/fiber, resulting in poor dye fastness. IIIu prison degree, promotion IIl prison degree, etc. are controlled and are usually low values. For this reason, general crystals incorporate a reduction washing process as a process after dyeing to improve the durability of the dyeing process.

還元洗浄工程はハイドロサルファイド等の還元剤とカセ
イソーダ′、ソーダ灰等のアμカリ物質。
The reduction cleaning process uses reducing agents such as hydrosulfide and caustic substances such as caustic soda and soda ash.

及び非イオンi性剤i併用し、70C〜90Cで10分
〜40分処理した後、水洗する方法が一般的である0、
この還元洗浄工程を採ることによりポリエステル繊維染
色物の染色堅牢度は向上するが、一方当然のことながら
、S品、・水、熱を使用するためコスト高になり、かつ
全書M’lll上廃水処理などの必要性も生じてくる0
本発−はかかる現状に鑑みて行われたもので、従来法の
ごとく水や薬品などを使用せずに従来の還元洗浄の場合
と同等の染色堅牢度向上効果を得ることを目的とするも
のである。
A common method is to use a non-ionic agent i in combination and treat at 70C to 90C for 10 to 40 minutes, followed by washing with water.
Adopting this reduction washing process improves the color fastness of dyed polyester fibers, but on the other hand, it naturally increases costs due to the use of water and heat. There will also be a need for processing etc.
This development was carried out in view of the current situation, and the purpose is to obtain the same color fastness improvement effect as conventional reduction cleaning without using water or chemicals like conventional methods. It is.

かかる目的を達成するために本発明は次の構成′を有す
るものである。すなわち本発明は49工ステA/繊維品
を浸染染色したあと還元洗浄を行わすcsmル、しかる
後に該繊維品に酸化性気体又は還元性気体の低温プラズ
マ処理を行うことを特徴とするlリエステル繊維品の染
色堅牢度向上方法である。本発明によれば従来の還元洗
浄のごとき薬品、水、熱等を使用せず、したがってその
ための分書対策上の廃水処理等をも必要としないので極
めて合理的に低コストでボリエスデA/威維品の染色堅
牢度の向上を行うことができる。
In order to achieve this object, the present invention has the following configuration. That is, the present invention is a 49-process step A/CSM method in which a textile product is subjected to dyeing and then subjected to reduction cleaning, and then the textile product is subjected to low-temperature plasma treatment with an oxidizing gas or a reducing gas. This is a method for improving the color fastness of textile products. According to the present invention, unlike conventional reduction cleaning, chemicals, water, heat, etc. are not used, and there is no need for wastewater treatment as a countermeasure for book separation. It is possible to improve the color fastness of textile products.

以下9本発明方法について詳細に説明するつ本発明方法
では、まず初めにポリエステμ繊維福な通常の浸染染色
方法で染色したあと還元洗浄を行わずに乾燥する。染色
はポリエステル用の染料である分散染料又はカチオン染
料で通常の条件例えば120c〜150cで10分〜1
20分程度染色する。従来法ではこのあと還元洗浄を行
うが9本発明方法ではこれを行わず水洗、乾燥する。乾
燥後1本発明では従来の還元洗浄工程に代えて鋏繊細品
に鹸化性気体又は還元性気体の低温プラズマ処理を行う
ことにより染色堅牢度の向上を行う。
The method of the present invention will be described in detail below.In the method of the present invention, first, polyester μ fibers are dyed by a conventional dip dyeing method and then dried without reduction washing. Dyeing is done using disperse dyes or cationic dyes, which are dyes for polyester, under normal conditions such as 120c to 150c for 10 minutes to 1 hour.
Stain for about 20 minutes. In the conventional method, reduction cleaning is performed after this, but in the method of the present invention, this is not performed, but water washing and drying are performed. After drying 1. In the present invention, the color fastness is improved by subjecting scissors delicate products to low-temperature plasma treatment with saponifiable gas or reducing gas instead of the conventional reduction cleaning process.

本発明でいう低温プラズマ処理とは、被処理物であるポ
リエステル繊維染色物を、気体の減圧系すなわち0.1
〜10Torrに保持した状態でグロー放電させること
により得られる雰囲気におくことを意味する。気体とし
ては酸31100%あるいは酸素と他の気体例えば窒素
、アルゴン。ヘリウム、炭酸ガス、水蒸気などとの混合
気体などの酸化性気体か、あるいは、水嵩1004や水
素と他の気体例えば膳素、アルゴン、へりつふ、炭酸N
ス、水蒸気などとの混合ガスなどの還元性気体を使用す
る。
The low-temperature plasma treatment referred to in the present invention means that the dyed polyester fiber material to be treated is treated in a gas reduced pressure system, that is, at 0.1
It means to be placed in an atmosphere obtained by performing glow discharge while maintaining the temperature at ~10 Torr. Gases include acid 31100% or oxygen and other gases such as nitrogen and argon. An oxidizing gas such as a mixture of helium, carbon dioxide, water vapor, etc., or a mixture of water, hydrogen, and other gases such as diluted food, argon, chlorine, N carbonate, etc.
Use a reducing gas such as a gas mixture with gas, water vapor, etc.

低温プラズマを発生させるには上記気体を0.1〜10
 Torrの減圧下でこれに高周波の照射を行う。
To generate low-temperature plasma, the above gas should be mixed at a concentration of 0.1 to 10
This is irradiated with high frequency under a reduced pressure of Torr.

かくして低温プラズマが発生しプラズマ処理が可能とな
る。処理′圧力を0.1〜10Torr にする理由は
0・ITorr以下では気体の濃度が低すぎて処理時間
がかかること、真空度保持費がコスト高になり経済的に
不利であること、また10Torr以上では低温プラズ
マの発生が不安定になりやすいこと′、雰囲気の温度が
高くなりすぎることなどによるものである。
In this way, low-temperature plasma is generated and plasma processing becomes possible. The reason for setting the processing pressure to 0.1 to 10 Torr is that below 0.IT Torr, the gas concentration is too low and processing time is required, and the cost of maintaining the vacuum level is high, which is economically disadvantageous. This is due to the fact that the generation of low-temperature plasma tends to become unstable' and the temperature of the atmosphere becomes too high.

グロー放電させる高周波電源は長波長から短波長まで相
当広い範囲で使用できるが、操業安定性。
High-frequency power sources that generate glow discharge can be used over a fairly wide range of wavelengths, from long wavelengths to short wavelengths, but operational stability is limited.

効率などを考えるとIKHz−10M七 の範囲が使い
やすい。
Considering efficiency, etc., the range of IKHz-10M7 is easy to use.

処理時間は、ポリエステル繊維品の櫨傾、染料の種類、
染料便用量により異なるが9通常は5〜300秒さらに
望ましくは20〜120抄である。
The processing time depends on the slant of the polyester textile, the type of dye,
Although it varies depending on the amount of dye stool, it is usually 5 to 300 seconds, more preferably 20 to 120 seconds.

上述の酸化性気体や還元性気体に減圧系で高周波エネμ
ギーを与えると、酸化性気体あるいは還元性気体は活性
化され、非常に反応しやすい状態になるので、その雰囲
気に49工ステル繊維品の染色物を置くとポリエステル
繊維品に表面染着している染料が酸化あるいは還元され
、これにより染色堅牢度が向上する。
High-frequency energy μ is applied to the above-mentioned oxidizing gases and reducing gases in a reduced pressure system.
When gas is applied, oxidizing or reducing gases are activated and become highly reactive, so if dyed 49-ester fibers are placed in that atmosphere, the surface of the polyester fibers will be dyed. The dye present in the dye is oxidized or reduced, which improves color fastness.

本発明は以上の構成を有するものであり1本発明によれ
ば従来の還元洗浄のごとき薬品、水、熱等を使用せず、
したがってそのための全書対策上の廃水処理をも必要、
としないので、極めて会場的に低コストでポリエステル
繊維品の染色φ牢度の向上を行うことができる。
The present invention has the above configuration. According to the present invention, chemicals, water, heat, etc., as in conventional reduction cleaning are not used, and
Therefore, wastewater treatment is also necessary as a countermeasure for this purpose.
Therefore, it is possible to improve the dyeing strength of polyester textiles at extremely low cost.

よって本゛発明は染色分野におiる産業上の利用価値が
極めて大きいものである。
Therefore, the present invention has extremely great industrial utility value in the field of dyeing.

次に実施例にて本発明の方法について述べるが。Next, the method of the present invention will be described in Examples.

本発明はこれに限定されるものではない。The present invention is not limited to this.

なお、実施例における染色盛牢度の評価につし)ては、
洗濯略牢度はJIS L−0844A−2法(ただし。
In addition, regarding the evaluation of dyeing robustness in Examples),
Approximate laundry strength is determined by JIS L-0844A-2 method (however.

洗剤は蜜庭用合成洗剤を使用)、昇華堅牢度はJI8L
−0854乾式法、 jlll!!牢度)! JIS 
L−08491[型法渥式にて評価した。
The detergent is a synthetic detergent for honey gardens), and the sublimation fastness is JI8L.
-0854 Dry method, jllll! ! prison)! JIS
L-08491 [Evaluated using the model method.

実施例1 1リエステA/嵩高加工糸150ti/1of(1!い
の両面九編地を用意し、これを液流染色機で下記染色処
方11cて染色した。
Example 1 A double-sided 9-knitted fabric of 1 Rieste A/bulky processed yarn 150ti/1of (1!I) was prepared and dyed using the following dyeing recipe 11c using a jet dyeing machine.

染色処方1 染色後、水洗を行った後乾燥した。Dyeing recipe 1 After dyeing, it was washed with water and then dried.

次にこの染色物を11等分し、そのうちの9点について
は、第1表の本発明の方法の411IIC示した9種類
の気体、をそれぞれ用いて下−dグフズマ処理条件1の
条件の低+Mデフズマ処理を行った。得られた布間の染
色堅牢度の測定を行い、その結果を第1表に示した。ま
た本発明方法との比較のため。
Next, this dyed material was divided into 11 equal parts, and for 9 of them, the 9 types of gases shown in 411IIC of the method of the present invention in Table 1 were used to reduce the conditions of lower-d Gufusma treatment conditions 1. +M defsumer processing was performed. The color fastness of the obtained fabrics was measured and the results are shown in Table 1. Also for comparison with the method of the present invention.

上記11点のうちの残り2点については、一方を未処理
布として比較用に残し、他方については従来から一般に
行われている下faI11元洗浄処方1の還玩洗浄を行
い、水洗、乾燥後、染色堅牢度の一定を行って本発明方
法と比較した。その結果を合わせて第1表に示した。
Regarding the remaining two items among the above 11 items, one was left as an untreated cloth for comparison, and the other was washed with the conventional lower faI 11 original cleaning prescription 1, washed with water, and dried. The color fastness was determined and compared with the method of the present invention. The results are shown in Table 1.

プフズマ処場条件1 還元洗浄処方1 第1表から明らかなごとく1本発明の方法は。Pfusma disposal site conditions 1 Reduction cleaning prescription 1 As is clear from Table 1, the method of the present invention is as follows.

使用する気体の種類により若干ばらつきはあるものの従
来法すなわち還元洗浄を行ったものと間等の染色堅牢度
を示しており本発明方法の染色嗅牢度向上効果の優れて
いることが確認できた。
Although there was some variation depending on the type of gas used, the color fastness was comparable to that of the conventional method, that is, reduction cleaning, and it was confirmed that the method of the present invention has an excellent effect of improving the color fastness. .

実施例2 ポリエステ〃フイフ′メン) 75d/48fの債撚希
(撚数25007/M )を使ったジローゼット繊物(
経糸密度112禾/吋、緯糸密度94本/吋)を準備し
た。
Example 2 Polyester fife'men) Girozette fabric using 75d/48f bonded yarn (number of twists 25007/M)
A warp yarn density of 112 threads/inch and a weft density of 94 threads/inch) were prepared.

この織物にVボ立て、アルカリ減量処理を行つ凌後、液
流染色機を用いて下記染色処方2にて染色した。
This fabric was subjected to V-embossing and alkali weight loss treatment, and then dyed using a jet dyeing machine according to dyeing recipe 2 below.

染色処方2 次にこの染色物を9等分し、そのうちの7点については
それぞれ鹸索、水素、空気、 **、ア〃ゴン、ヘリウ
ム、炭酸ガスの各気体を用いて下記デフズマ処場条件2
の条件の低温グラズマ処理を行った。vkられた布帛の
染色堅牢度の測定な行い。
Dyeing Recipe 2 Next, this dyed material was divided into 9 equal parts, and each of the 7 parts was treated with the following defuzma treatment conditions using each gas: hydrogen, air, **, argon, helium, and carbon dioxide. 2
Low-temperature glazma treatment was performed under the following conditions. Measurement of color fastness of dyed fabrics.

その結果を第2表に示した。また上記9点のうちの1点
は未処理布として比較用に、残し、他の1点については
本発明方法と従来の還元洗浄方法との比較のため、実施
例1で用いた還元洗浄処方1の6方により従来の還元洗
浄を行い、水洗、乾燥後。
The results are shown in Table 2. In addition, one of the above nine items was left as an untreated cloth for comparison, and the other one was prepared using the reduction cleaning recipe used in Example 1 for comparison between the method of the present invention and the conventional reduction cleaning method. After performing conventional reduction cleaning using 6-way method 1, washing with water and drying.

染色堅牢度の測定を行って本発明方法と比較した。The color fastness was measured and compared with the method of the present invention.

その結果を合わせて第2表に示した。The results are shown in Table 2.

プラズマ処理条件2 第2表から明らかなごとく本発明方法のごとく酸素、水
素、空気を使ったものは一従来の還元洗浄法とほぼ同等
の染色堅牢度を示し1本発明方法が気相での短時間処理
であるにもかかわらず、従来の還元洗浄法に6適する染
色堅牢度向上効果のあることが確認できた。
Plasma treatment conditions 2 As is clear from Table 2, the method of the present invention using oxygen, hydrogen, and air has almost the same color fastness as the conventional reduction cleaning method. Despite being a short-time treatment, it was confirmed that the dyeing fastness improvement effect was suitable for conventional reduction washing methods.

なお、m化性あるいは還元性のない気体(例えばアμゴ
ン、ヘリウムなど)についても試験の結果、染色堅牢度
の若干の向上は認められたが、還元洗浄とP4等のレベ
ルまでは向上しなかった。
In addition, as a result of testing with gases that do not have mercury or non-reducing properties (e.g. argon, helium, etc.), a slight improvement in color fastness was observed, but the improvement did not reach the level of reduction washing and P4 etc. There wasn't.

実施例3゜ ポリエステル短1100優からなる紡績糸605′1を
使った天竺編地を用意し、これをII練した後。
Example 3 A jersey knitted fabric using spun yarn 605'1 made of 1100 short polyester fibers was prepared, and this was kneaded in II.

液流染色機で下記染色処方5にて染色した。It was dyed using the following dyeing recipe 5 using a jet dyeing machine.

染色処方5 染色後、水洗、乾燥を行った。Dyeing prescription 5 After dyeing, it was washed with water and dried.

次にこの染色物を6等分し、そのうちの4点については
、第6表の本発明方法の−に示した気体及び処場峙間を
用いて下記プラズマ処理条件5の条件の低温プラズマ処
理を行った。得られた布帛の染色堅牢度の測定を行い、
その結果を第5表に示した。
Next, this dyed material was divided into six equal parts, and four of them were subjected to low-temperature plasma treatment under the following plasma treatment conditions 5 using the gas and processing conditions shown in - of the method of the present invention in Table 6. I did it. The color fastness of the obtained fabric was measured,
The results are shown in Table 5.

また、上記6点のうちの1点は未処理布として比較用に
残し、他の1点については本発明方法と従来の還元洗浄
方法との比較のため、実施例1で用いた還元洗浄処方1
の処方により従来の還元洗浄を行い、水洗、乾燥後、染
色堅牢度の測定を行って本発明方法と比較した。その結
果を合わせて第3表に示した。
In addition, one of the above six items was left as an untreated cloth for comparison, and the other one was prepared using the reduction cleaning recipe used in Example 1 for comparison between the method of the present invention and the conventional reduction cleaning method. 1
Conventional reduction cleaning was carried out using the following recipe, and after washing with water and drying, color fastness was measured and compared with the method of the present invention. The results are shown in Table 3.

プフズマ処理条件5 第  6  表 第5表から明らかなごとく9本発明方法は従来の還元洗
浄法とほぼ同等の染色竪牢度の陶土効果が得られること
が確認できた。
Pfusma Treatment Conditions 5 Table 6 As is clear from Table 5, it was confirmed that the method of the present invention provides a china clay effect with dyeing firmness that is almost the same as that of the conventional reduction cleaning method.

特許出願人 ユニチカ株式会社Patent applicant: Unitika Co., Ltd.

Claims (1)

【特許請求の範囲】 ti)ポリエステル繊維品を浸染染色したあと還元洗浄
を行わずに乾燥し、しかる後に該繊維品に酸化性気体又
は還元性貿体の低温デフズマ処理を行うことを特徴とす
るポリエステル繊維品の東色盛牢度肉上方法。 (2)酸化性気体の低温プラズマが0.1〜10 To
rr ec減圧された酸素又は酸素と他の気体との混合
気体に高周波を照射して発生させた低温プラズマであり
、11元性気体の低温プラズマが0.1〜10Torr
に減圧された水素又は水素と他の気体との混合気体に高
周波を照射して発生させた低温プラズマであることを特
徴とする特許請求の範囲第1項記載のポリエステル繊維
品の染色堅牢度向上方法。
[Claims] ti) After dyeing a polyester textile product, it is dried without reduction washing, and then the textile product is subjected to a low-temperature defusma treatment using an oxidizing gas or a reducing agent. A method for increasing the color density of polyester textiles. (2) Low temperature plasma of oxidizing gas is 0.1 to 10 To
rr ec Low-temperature plasma generated by irradiating high-frequency waves to reduced pressure oxygen or a mixture of oxygen and other gases.
Improving color fastness of polyester textile products according to claim 1, characterized in that the low-temperature plasma is generated by irradiating high frequency to hydrogen or a mixed gas of hydrogen and other gases under reduced pressure. Method.
JP56215722A 1981-12-28 1981-12-28 Enhancing of dye fastness of polyester fiber product Granted JPS58115187A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP56215722A JPS58115187A (en) 1981-12-28 1981-12-28 Enhancing of dye fastness of polyester fiber product

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP56215722A JPS58115187A (en) 1981-12-28 1981-12-28 Enhancing of dye fastness of polyester fiber product

Publications (2)

Publication Number Publication Date
JPS58115187A true JPS58115187A (en) 1983-07-08
JPS6361438B2 JPS6361438B2 (en) 1988-11-29

Family

ID=16677090

Family Applications (1)

Application Number Title Priority Date Filing Date
JP56215722A Granted JPS58115187A (en) 1981-12-28 1981-12-28 Enhancing of dye fastness of polyester fiber product

Country Status (1)

Country Link
JP (1) JPS58115187A (en)

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS59106588A (en) * 1982-12-02 1984-06-20 信越化学工業株式会社 Enhancement in fastness of dyed synthetic fiber product
JPH04106245A (en) * 1990-08-23 1992-04-08 Misawa Homes Co Ltd Fire-proof floor panel
ITBA20090035A1 (en) * 2009-09-03 2011-03-04 Fortex S R L CLEANING OF POLYESTER, ACETATE FABRICS AND RELATED MIXTURES BY PLASMOCHEMICAL PROCESSES.

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS59106588A (en) * 1982-12-02 1984-06-20 信越化学工業株式会社 Enhancement in fastness of dyed synthetic fiber product
JPH0115631B2 (en) * 1982-12-02 1989-03-17 Shinetsu Kagaku Kogyo Kk
JPH04106245A (en) * 1990-08-23 1992-04-08 Misawa Homes Co Ltd Fire-proof floor panel
ITBA20090035A1 (en) * 2009-09-03 2011-03-04 Fortex S R L CLEANING OF POLYESTER, ACETATE FABRICS AND RELATED MIXTURES BY PLASMOCHEMICAL PROCESSES.

Also Published As

Publication number Publication date
JPS6361438B2 (en) 1988-11-29

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