JPH02229271A - Protein fiber having improved dyeability and production thereof - Google Patents

Protein fiber having improved dyeability and production thereof

Info

Publication number
JPH02229271A
JPH02229271A JP4327589A JP4327589A JPH02229271A JP H02229271 A JPH02229271 A JP H02229271A JP 4327589 A JP4327589 A JP 4327589A JP 4327589 A JP4327589 A JP 4327589A JP H02229271 A JPH02229271 A JP H02229271A
Authority
JP
Japan
Prior art keywords
protein fiber
protein
dyeing
dyeability
dyes
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
JP4327589A
Other languages
Japanese (ja)
Other versions
JPH0830304B2 (en
Inventor
Hideki Shiozaki
英樹 塩崎
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.)
KANAGAWA PREF GOV
Kanagawa Prefecture
Original Assignee
KANAGAWA PREF GOV
Kanagawa Prefecture
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 KANAGAWA PREF GOV, Kanagawa Prefecture filed Critical KANAGAWA PREF GOV
Priority to JP1043275A priority Critical patent/JPH0830304B2/en
Publication of JPH02229271A publication Critical patent/JPH02229271A/en
Publication of JPH0830304B2 publication Critical patent/JPH0830304B2/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

Links

Landscapes

  • Treatments For Attaching Organic Compounds To Fibrous Goods (AREA)

Abstract

PURPOSE:To produce an improved protein fiber having excellent dyeability to enable the finish in clear color by introducing a sulfone group into a protein fiber molecule, thereby imparting the fiber with resistance to dyeing with anionic dye and increased dyeability with cationic dye. CONSTITUTION:A sulfone group is introduced into an amino group or hydroxyl group in the molecule of a protein fiber such as silk or wool by immersing the protein fiber in a bath of an organic solvent (e.g. dimethyl sulfonamide) containing 0-sulfobenzoic anhydride. The protein fiber modified by this treatment has resistance to dyeing with anionic dye and increased dyeability with cationic dye, is able to be finished in dark and extremely clear hue by using a clear cationic dye and is dyeable to a color having high fastness.

Description

【発明の詳細な説明】 く産業上の利用分野〉 本発明は、通常の衣服等の素材として利用される絹や羊
毛のような蛋白繊維に、アニオン染料にに対しては防染
性を,カチオン染料に対しては増染性を付与して染色性
を改質するようにしたことを特徴とする蛋白繊維及びそ
の製造法に関する。
[Detailed description of the invention] Industrial application field> The present invention provides protein fibers such as silk and wool, which are used as materials for ordinary clothing, with dye resistance against anionic dyes. The present invention relates to a protein fiber and a method for producing the same, characterized in that the dyeability is improved by imparting dyeing properties to cationic dyes.

《従来の技術〉 周知のように、絹や羊毛は約18種類のアミノ酸により
構成される蛋白繊維であり、一般に,比熱及び比重が人
体のそれに似ているため蛋白繊維を素材として作製した
衣服は着心地がよいといわれる素材である. 上記した蛋白繊維は、一般的には酸性染料、直接染料,
反応染料のようなアニオン染料によって染色されている
が、アニオン染料によって得られないような鮮明な色を
要求される場合には塩基性染料を使用することもあった
。しかし、塩基性染料は、染色堅牢度が極めて低いので
実用に問題があり、また、アクリル繊維用のカチオン染
料は、色が鮮明で染色堅牢度も優れているが、濃色に染
色することができないものであった.一方、蛋白繊維を
ア二オン染料に染まらないようにする防染法としては、
例λば被染物の一部を糸で結束するなどして染まらない
ようにして染色するしぼり,ク<り、板締め、ろう結等
の機械的或いは物理的な防染法が従来より知られている
が、化学的な防染法に成功した例は未だ提案されていな
い. 〈発明が解決しようとする問題点〉 上記したように、蛋白繊維の染色において、鮮明な色に
且つ実用に耐え得る染色堅牢度を有する染料或いは染色
方法は未だ提案されていないものであり、またアニオン
染料に対する化学的な防染法についても実用化に至った
例が未だ無い状況である.従って、上記したそれぞれの
問題点を解決する方法が嘱望されていた。
<Prior Art> As is well known, silk and wool are protein fibers composed of about 18 types of amino acids, and their specific heat and gravity are generally similar to those of the human body, so clothing made from protein fibers is The material is said to be comfortable to wear. The protein fibers mentioned above are generally produced using acid dyes, direct dyes,
Although it is dyed with anionic dyes such as reactive dyes, basic dyes were sometimes used when a vivid color that could not be obtained with anionic dyes was required. However, basic dyes have extremely low color fastness, which poses a practical problem, and cationic dyes for acrylic fibers have vivid colors and excellent color fastness, but cannot be dyed in deep colors. It was impossible. On the other hand, as a resist dyeing method to prevent protein fibers from being dyed with anionic dyes,
For example, mechanical or physical resist dyeing methods such as shibori, kukuri, board-jime, and wax-tying, in which a part of the material to be dyed is bound with thread to prevent it from being dyed, have been known for a long time. However, no successful example of chemical resist dyeing has yet been proposed. <Problems to be Solved by the Invention> As mentioned above, in dyeing protein fibers, a dye or dyeing method that produces vivid colors and has a color fastness that can withstand practical use has not yet been proposed. There are still no examples of chemical resist dyeing methods for anionic dyes that have been put into practical use. Therefore, a method has been desired to solve each of the above-mentioned problems.

く問題点を解決するための手段》 本発明は、上記に鑑み提案されたもので、蛋白繊維を無
水0−スルホ安息香酸の有機溶媒溶液中に浸漬して加熱
することにより蛋白繊維を横成する蛋白質の分子内にス
ルホン基を導入してなり、アニオン染料に対しては防染
性をカチオン染料に対しては増染性を付与することを特
徴とする染色性を改質した蛋白繊維及びその製造法に関
するものである. 本発明の染色性を改質した蛋白繊維は、上記したように
アニオン染料に対しては防染性を有し、且つカチオン染
料に対しては増染性を有するものであるが、上記した特
性は蛋白繊維を構成する蛋白質分子内に強力なアニオン
基を化学的に導入することによって達成することができ
るものである。
Means for Solving the Problems> The present invention was proposed in view of the above, and involves the process of laterally forming protein fibers by immersing them in an organic solvent solution of 0-sulfobenzoic anhydride and heating them. A protein fiber with improved dyeability, characterized in that it has a sulfone group introduced into the molecule of a protein that imparts resistance to anionic dyes and dyeability to cationic dyes. It concerns the manufacturing method. The protein fiber with improved dyeability of the present invention has resisting properties against anionic dyes and dyeing properties against cationic dyes as described above, but does not have the above-mentioned properties. This can be achieved by chemically introducing strong anion groups into the protein molecules that constitute protein fibers.

即ち、蛋白質は両性電解質であり分子内に酸性基(−C
OOH等)と塩基性基(−Nl{,等)を共有するもの
であるが、塩基性基であるアミノ基(−Nl+21或い
は水酸基(−0}1)に土記した強力なアニオン基であ
るスルホン基(−SQ.H)を導入することによって、
アニオン染料に対してはイオン的斥力が働き防染性を、
且つカチオン染料に対してはイオン的親和力が働き増染
性な付与することができるのである. 上紀した蛋白質分子内のアミノ基或いは水酸基としては
,蛋白質を構成するアミノ酸の一ってあるリジンの側鎖
のアミノ基、 (CH.).−CH.一配h −NH−Cl{−GO− チロシンの側鎖のフェノール水酸基、 CL−O−興 −NH−CH−CO− 等を挙げることができる. 上記したリジンの側鎖のアミノ基と無水O−スルホ安息
香酸、 の反応は容易に行われるが、チロシンの側鎖のフェノー
ル水酸基と無水0−スルホ安息香駿の反応は高い処理温
度を必要とする。
In other words, proteins are ampholytes and have acidic groups (-C
It shares a basic group (-Nl{, etc.) with the basic group (-Nl+21 or hydroxyl group (-0}1), which is a strong anionic group. By introducing a sulfone group (-SQ.H),
Ionic repulsion works against anionic dyes to improve dye resistance.
In addition, cationic dyes have ionic affinity and can be given dye enhancement properties. The amino groups or hydroxyl groups in protein molecules that have been introduced include the amino group on the side chain of lysine, which is one of the amino acids that make up proteins, (CH.). -CH. Examples include monovalent h -NH-Cl{-GO- phenol hydroxyl group on the side chain of tyrosine, CL-O-X-NH-CH-CO-, and the like. The above reaction between the amino group of the side chain of lysine and O-sulfobenzoic anhydride is easily carried out, but the reaction between the phenol hydroxyl group of the side chain of tyrosine and O-sulfobenzoic anhydride requires a high treatment temperature. .

従って、蛋白繊維に対する無水0−スルホ安息香駿の反
応性、即ちスルホン基の導入のしやすさは、蛋白質を構
成するアミノ酸の種類と構成割合によって異なるもので
ある. 即ち、上記したリジンとチロシンとを例にとると、メリ
ノ羊毛(ケラチン)はリジン3. 3wt%、ヂロシン
6.4wt%を含有してなり、絹(シグロイン)はリジ
ン0. 4wt%、チロシン13.8をwt%を含有す
るものであり、メリノ羊毛はリジンを多く含有し、絹は
チロシンを多く含有するものである。従って、本発明に
おける無水O−スルホ安患香酸を絹へ反応させる処理温
度は、メリノ羊毛の′それよりも高いものでなければぼ
らない。
Therefore, the reactivity of anhydrous 0-sulfobenzoin to protein fibers, that is, the ease with which sulfone groups can be introduced, differs depending on the type and composition ratio of amino acids constituting the protein. That is, taking the above-mentioned lysine and tyrosine as an example, merino wool (keratin) contains lysine 3. Silk (sigloin) contains 3 wt% of lysine and 6.4 wt% of lysine. Merino wool contains a large amount of lysine, and silk contains a large amount of tyrosine. Therefore, the treatment temperature for reacting O-sulfobenzoic anhydride with silk in the present invention must be higher than that of merino wool.

通常、羊毛における本発明の具体的な処理方法は、5〜
25%の無水O−スルホ安息香酸の浴中に温度40〜6
0℃において30〜90分間浸漬するものであり,それ
に対して絹の処理においては、上記した浴中に温度60
〜80℃において60〜120分間浸漬することが実用
に最も適している。
Usually, the specific treatment method of the present invention for wool is 5 to
Temperature 40-6 in a bath of 25% O-sulfobenzoic anhydride
In contrast, in the treatment of silk, the temperature is 60°C in the bath described above.
Immersing for 60 to 120 minutes at ~80°C is most suitable for practical use.

また、上記した無水0−スルホ安息香酸のスルホン基を
導入する反応における反応媒体としては、一般の有機溶
剤を使用することができるが、蛋白繊維に対して膨潤能
の高いジメチルホルムアミド若しくはジメチルスルホキ
シドが最も効果的であった。
In addition, general organic solvents can be used as the reaction medium in the reaction for introducing the sulfonic group of 0-sulfobenzoic anhydride, but dimethylformamide or dimethyl sulfoxide, which has a high swelling ability for protein fibers, is preferable. It was the most effective.

上記したように本発明の染色性を改質した蛋白繊維は、
無水O−スルホ安患香酸の浴中に浸漬し7て加熱するだ
けで得られ、鮮明な色を付与することができるカチオン
染料に対しては極めて良好な染色性を有するので、鮮明
な蛋白繊維製の服飾品を得ることができる。
As described above, the protein fiber of the present invention with improved dyeability is
It can be obtained simply by dipping it in a bath of anhydrous O-sulfobenzoic acid and heating it, and it has extremely good dyeing properties for cationic dyes that can impart vivid colors. You can get clothing items made from textiles.

また、本発明の染色性を改質した蛋白繊維の製造法は、
蛋白繊維にアニオン染料に対する防染性を付与するもの
でもあり、従来の物理的な防染法に対する化学的な防染
法であり、例えば防染性を付与した本発明の蛋白繊維と
通常の蛋白繊維とを組み合せて布地を作製し、アニオン
染料で染色すると、通常の蛋白繊維の部分のみが染色さ
れた織物を作製することができる。
In addition, the method for producing protein fibers with improved dyeability of the present invention includes:
It also imparts resistance to anionic dyes to protein fibers, and is a chemical resistance dyeing method as opposed to the conventional physical resistance dyeing method. By combining these fibers to create a fabric and dyeing it with an anionic dye, it is possible to create a fabric in which only the normal protein fibers are dyed.

〈実施例〉 実施例1 精練済みの14匁付絹羽二重を,無水O−スルホ安息香
酸100gとジメチルホルムアミド900gとからなる
浴に浸漬し、70℃で1時間加熱した。処理布を取り出
してメタノールで洗滌し、さらに水でよく洗滌して乾燥
した。処理布の里量増加率は5.8%であった。
<Examples> Example 1 A refined 14 momme silk habutae was immersed in a bath consisting of 100 g of anhydrous O-sulfobenzoic acid and 900 g of dimethylformamide, and heated at 70° C. for 1 hour. The treated cloth was taken out, washed with methanol, thoroughly washed with water, and dried. The rate of increase in weight of the treated fabric was 5.8%.

実施例2 加熱時間を70℃で2時間にした以外は上記した実施例
1と同様に処理、洗滌,乾燥を行った。得られた処理布
の重量増加率は11.5%であった。
Example 2 The treatment, washing, and drying were carried out in the same manner as in Example 1 above, except that the heating time was changed to 70° C. for 2 hours. The weight increase rate of the obtained treated fabric was 11.5%.

実施例3 加熱時間を70℃で3時間にした以外は上記した実施例
1と同様に処理、洗滌、乾燥を行った。得られた処理布
の重量増加率は16.5%であった。
Example 3 The treatment, washing, and drying were carried out in the same manner as in Example 1 above, except that the heating time was changed to 70° C. for 3 hours. The weight increase rate of the obtained treated fabric was 16.5%.

実施例4 羊毛モスリンを無水O−スルホ安息香酸100gとジメ
チルホルムアミド900gとからなる浴に浸漬し、60
℃で0.5時間加熱した。処理布を取り出してメタノー
ルで洗滌し、さらに水でよく洗滌して乾燥した。処理布
の重量増加率は8.2%であった. 実施例5 加熱時間を60℃で1.0時間にした以外は上記した実
施例4と同様に処理、洗滌、乾燥を行った。
Example 4 Wool muslin was immersed in a bath consisting of 100 g of anhydrous O-sulfobenzoic acid and 900 g of dimethylformamide.
Heated at ℃ for 0.5 hour. The treated cloth was taken out, washed with methanol, thoroughly washed with water, and dried. The weight increase rate of the treated fabric was 8.2%. Example 5 The treatment, washing, and drying were carried out in the same manner as in Example 4 above, except that the heating time was changed to 60° C. for 1.0 hour.

得られた処理布の重量増加率は13.4%であった。The weight increase rate of the obtained treated fabric was 13.4%.

実施例6 加熱時間を60℃で1.5時間にした以外は上記した実
施例4と同様に処理、洗滌、乾燥を行った。
Example 6 The treatment, washing, and drying were carried out in the same manner as in Example 4 above, except that the heating time was changed to 60° C. for 1.5 hours.

得られた処理布の重量増加率はl8,0%であった。The weight increase rate of the obtained treated fabric was 18.0%.

比較例1 未処理の精練済みの14匁付絹羽二重を比較例lとした
Comparative Example 1 Comparative Example 1 was made of untreated refined 14 momme silk habutae.

比較例2 未処理の羊毛モスリンを比較例2とした。Comparative example 2 Comparative Example 2 was an untreated wool muslin.

(評価方法) ■染色性(対カチオン染料) 上記した実施例1〜3及び比較例lの処理布を2%アイ
ゼンカチロンレッドG L H (C. I.Basi
cRed 38)の酢酸浴(pH 4,浴比40:l)
中において温度85℃で30分間染色した。
(Evaluation method) ■ Dyeability (anti-cationic dye) The treated fabrics of Examples 1 to 3 and Comparative Example 1 described above were dyed with 2% Eisencatylone Red G L H (C.I.Basi
cRed 38) acetic acid bath (pH 4, bath ratio 40:l)
The dyeing was carried out for 30 minutes at a temperature of 85°C.

各染色布を充分に水洗して乾燥した後、表面染着濃度(
K/S)を日立カラーアナライザ617型によって求め
た結果を表1に示した。
After thoroughly washing each dyed fabric with water and drying it, the surface dyeing concentration (
Table 1 shows the results obtained using Hitachi Color Analyzer Model 617.

また、実施例4〜6及び比較例2の処理布については、
2%スミアクリルブルーE−6G  (C.I.Bas
ic Blue 3)の酢酸浴(pH 4,浴比40:
1)中において温度80℃で45分間染色し、上記の操
作と同様にしてK/Sを求め、結果を表1に示した。
In addition, regarding the treated fabrics of Examples 4 to 6 and Comparative Example 2,
2% Sumia Acrylic Blue E-6G (C.I.Bas
ic Blue 3) acetic acid bath (pH 4, bath ratio 40:
1) was dyed for 45 minutes at a temperature of 80° C., and K/S was determined in the same manner as above. The results are shown in Table 1.

■防染性(対アニオン染料) 上記した実施例1〜3及び比較例lの処理布を2%力ヤ
ノールレッドR S (C.I.Acid Red99
)の酢酸浴(pH 4,浴比40:1)中において温度
85℃で45分間染色した。
■ Resistance (against anionic dyes) The treated fabrics of Examples 1 to 3 and Comparative Example 1 described above were treated with 2% Yanol Red R S (C.I.Acid Red99).
) in an acetic acid bath (pH 4, bath ratio 40:1) at a temperature of 85° C. for 45 minutes.

各染色布を上記した■染色性と同様に水洗、乾燥した後
、K/Sを求めて結果を表1に示した。
After each dyed fabric was washed with water and dried in the same manner as described in (1) Dyeability, the K/S was determined and the results are shown in Table 1.

また、実施例4〜6及び比較例2の処理布については、
2%力ヤノールブルーN 2 G (C.I.Acid
Blue 40)の酢酸浴(pH4,浴比40:l)中
において温度80℃で45分間染色し、K/Sを求め、
結果を下記の表1に示した. 表 上記した表1より明らかなように、絹のカチオン染料に
対する染色性は重量増加率が比較的低《ても、顕著に向
上し、処理時間が短いもの(実施例1)でも高い染色性
を有することがわかる.また、アニオン染料に対する防
染性は、重量増加率が10%以上のもの(実施例2、3
)において極めて良好であることがわかる。
In addition, regarding the treated fabrics of Examples 4 to 6 and Comparative Example 2,
2% Yanol Blue N2G (C.I.Acid
Blue 40) in an acetic acid bath (pH 4, bath ratio 40:l) at a temperature of 80°C for 45 minutes, and K/S was determined.
The results are shown in Table 1 below. As is clear from Table 1 above, the dyeability of silk with cationic dyes is significantly improved even when the weight increase rate is relatively low, and even with a short treatment time (Example 1), high dyeability is achieved. It can be seen that it has In addition, the resistance to anionic dyes was determined by those whose weight increase rate was 10% or more (Examples 2 and 3).
), it can be seen that the results are extremely good.

また、羊毛のカチオン染料に対する染色性、アニオン染
料に対する防染性においても、上記した絹の場合と同様
でア二オン染料に対する防染性は、重量増加率が13%
以上のもの(実施例5、実施例6)において極めて良好
であることが明らかである. ■洗濯堅牢度の測定 上記した実施例2の処理布を表2に示す各カチオン染料
の酢酸浴(pH 4,浴比40:l)中において温度8
5℃で30分間染色した. 各染色布を上記した■染色性と同様に水洗、乾燥した後
、K/Sを求め、さらにJIS LO844−A2に準
じて洗濯堅牢度を試験した。洗濯堅牢度は、変退色と汚
染の2項目において評価し、それぞれの結果を表2に示
した。
In addition, the dyeability of wool against cationic dyes and the resistance against anionic dyes are similar to those of silk described above, and the resistance against anionic dyes is 13% in weight increase rate.
It is clear that the above examples (Example 5 and Example 6) are extremely good. ■ Measurement of washing fastness The treated fabric of Example 2 above was placed in an acetic acid bath (pH 4, bath ratio 40:l) of each cationic dye shown in Table 2 at a temperature of 8.
Staining was carried out at 5°C for 30 minutes. After each dyed fabric was washed with water and dried in the same manner as described above in (1) Dyeability, K/S was determined, and washing fastness was further tested in accordance with JIS LO844-A2. Washing fastness was evaluated in two categories: discoloration and staining, and the results are shown in Table 2.

表  2 上記した表2より明らかなように,本発明の実施例2は
各カチオン染料により濃色に染色され、しかも実用に耐
えるだけの洗濯堅牢度を備えていることが認められる。
Table 2 As is clear from Table 2 above, Example 2 of the present invention was dyed in deep colors with each cationic dye, and was found to have wash fastness sufficient for practical use.

《発明の効果》 以上説明したように本発明の染色性を改質した蛋白繊維
は、カチオン染料に対しては優れた染色性を示し、アニ
オン染料に対しては防染性を有するものである. 従って,本発明の蛋白繊維は、絹や羊毛等の蛋白繊維を
鮮明な色のカチオン染料を用いて染色なすることができ
るので、鮮明な色を有する蛋白繊維製の服飾品を得るこ
とができる. また、本発明の蛋白繊維は、アニオン染
料に対して防染性を有するので、通常の蛋白繊維との併
用により複数の色を有する織物を作製することができる
<<Effects of the Invention>> As explained above, the protein fiber with improved dyeability of the present invention exhibits excellent dyeability against cationic dyes and resists against anionic dyes. .. Therefore, the protein fiber of the present invention allows protein fibers such as silk and wool to be dyed using a cationic dye with a bright color, so that it is possible to obtain clothing items made of protein fiber with a bright color. .. Furthermore, since the protein fiber of the present invention has resisting properties against anionic dyes, it is possible to produce textiles having a plurality of colors by using it in combination with ordinary protein fibers.

また、本発明の蛋白繊維は、蛋白繊維の特徴である水分
吸収性及び機械的性質(特に長範囲の弾性)を損なうこ
とがなく、通常の蛋白繊維と同様な保温性や装着感を維
持するものである。
In addition, the protein fiber of the present invention does not impair the moisture absorption and mechanical properties (particularly long-range elasticity) that are characteristic of protein fiber, and maintains the same heat retention and wearing comfort as ordinary protein fiber. It is something.

さらに,本発明の染色性を改質した蛋白繊維の製造法は
、特別な装置や設備を必要とするものでないので従来の
物理的な防染法に比べて実用的価値は極めて高い。
Furthermore, the method for producing protein fibers with improved dyeability according to the present invention does not require any special equipment or equipment, and therefore has extremely high practical value compared to conventional physical resist dyeing methods.

Claims (2)

【特許請求の範囲】[Claims] (1)分子内にスルホン基を導入した蛋白質よりなる蛋
白繊維であって、アニオン染料に対しては防染性をカチ
オン染料に対しては増染性を有するようにしたことを特
徴とする染色性を改質した蛋白繊維。
(1) A protein fiber made of protein with sulfone groups introduced into its molecules, which is characterized by having resistance dyeing properties for anionic dyes and dyeing properties for cationic dyes. Protein fiber with modified properties.
(2)蛋白繊維を無水0−スルホ安息香酸の有機溶媒溶
液中に浸漬して加熱することにより蛋白繊維を構成する
蛋白質の分子内にスルホン基を導入し、アニオン染料に
対しては防染性をカチオン染料に対しては増染性を付与
するようにしたことを特徴とする染色性を改質した蛋白
繊維の製造法。
(2) Protein fibers are immersed in an organic solvent solution of 0-sulfobenzoic anhydride and heated to introduce sulfone groups into the molecules of the proteins that make up the protein fibers, making them resistive against anionic dyes. A method for producing a protein fiber with improved dyeability, characterized in that the dyeing property is imparted to a cationic dye.
JP1043275A 1989-02-27 1989-02-27 Protein fiber with improved dyeability and method for producing the same Expired - Lifetime JPH0830304B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP1043275A JPH0830304B2 (en) 1989-02-27 1989-02-27 Protein fiber with improved dyeability and method for producing the same

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP1043275A JPH0830304B2 (en) 1989-02-27 1989-02-27 Protein fiber with improved dyeability and method for producing the same

Publications (2)

Publication Number Publication Date
JPH02229271A true JPH02229271A (en) 1990-09-12
JPH0830304B2 JPH0830304B2 (en) 1996-03-27

Family

ID=12659271

Family Applications (1)

Application Number Title Priority Date Filing Date
JP1043275A Expired - Lifetime JPH0830304B2 (en) 1989-02-27 1989-02-27 Protein fiber with improved dyeability and method for producing the same

Country Status (1)

Country Link
JP (1) JPH0830304B2 (en)

Also Published As

Publication number Publication date
JPH0830304B2 (en) 1996-03-27

Similar Documents

Publication Publication Date Title
KR100619113B1 (en) Triphendioxazine dyestuffs for dyeing organic substrates
Rehman et al. A revolution of silk dyeing with FL based cotton-reactive dyes
TWI619773B (en) Acid dye composition and dyeing method using same
Musa et al. Studies on the dyeing of wool and nylon fabrics with some acid dyes
JPS6220312B2 (en)
JPH02229271A (en) Protein fiber having improved dyeability and production thereof
Rehman et al. Effective method development on wool dyeing by using Fl based cotton-reactive dyes
DE3881095T2 (en) Dyeing and printing fibers.
US2368690A (en) Process for the improvement of the properties of artificial masses and fibers manufactured from proteinlike substances
JP2004036037A (en) Method for dyeing mixed spun fiber of silk and animal hair, and dyed mixed spun fiber of silk and animal hair
KR100367926B1 (en) Preparation Method of Suede Synthetic Leather for Shoes
JPH04174781A (en) Cloth made from silk yarn treated with zeolite
JP3265329B2 (en) How to process protein fiber products
JPH07300772A (en) Method for processing silk fibroin
KR100243973B1 (en) Washable silk fabric and their manufacturing method
RU2093628C1 (en) Method of dyeing natural silk or silk-cotton mixture
JPH0813361A (en) Method for dyeing animal protein fiber or fiber product into dark color
MX2007005607A (en) Textile products dyed by means of cationic dyes, and process for the manufacture thereof.
JPH04119179A (en) Dyeing of fiber
JP2799346B2 (en) Dyeing method for protein fiber products
BR102014009138A2 (en) TISSUE PROCESSING OF TEXTILE SUBSTRATES USING NATURAL COLORS
JPS6220314B2 (en)
JPH0978451A (en) Treatment of protein fiber product
SU1130632A1 (en) Textile material dyeing method
JPH0559666A (en) Method for modifying finishing of silk yarn