Process for producing textile articles and textile articles obtained therefrom
a technology for textile articles and textile articles, applied in the field of textiles, can solve the problems of long working time, white garments and apparels have some drawbacks, and the production of a very limited variety of garments and clothing articles, and achieve the effect of increasing the opacity of fabrics
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example 1
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[0119]Example 1 refers to different embodiments of the aqueous composition of the invention.
[0120]In all the exemplary composition, the final volume of the aqueous composition is 1 L.
[0121]Composition 1:
Titanium dioxide100 g / L ORGAL ® ES 6140 g / LWaterup to a final volume of 1 L
[0122]Composition 2:
Titanium dioxide100g / LORGAL ® ES 6140g / LSANYON DQ5g / LHELIZARIN COMP. PFA4g / LBLANKOPHOR ® B SUN20g / LCOTTOCLARIN TR CT3g / LWaterup to a final volume of 1 L
[0123]Composition 3:
Titanium dioxide100g / LORGAL ® ES 6140g / LSANYON DQ5g / LHELIZARIN COMP. PFA4g / LCOTTOCLARIN TR CT3g / LWaterup to a final volume of 1 L
[0124]In the above mentioned compositions 1-3, ORGAL® ES 61 (styrene acrylic copolymer, having a Tg of −12° C.) was the binder, SANYON DQ was the dispersing agent, HELIZARIN COMP. PFA was the stabilizing agent, BLANKOPHOR® B SUN was the brightening agent and COTTOCLARIN TR CT was the wetting agent.
[0125]Composition 4:
Titanium Dioxide:100g / lHELIZARIN BINDER TOW:46g / lSANYON DQ:5g / lHELIZARIN COM...
example 2
n of Treated Fabrics
[0132]Treated Fabric 1
[0133]A cotton woven fabric was treated with the “Composition 1” according to Example 1.
[0134]The aqueous composition was applied by padding.
[0135]The fabric was dried 150° C. and cured at 180° C. for 45 seconds.
[0136]The treated fabric obtained was provided with:
Titanium dioxideabout 7% by weightBinderabout 2.8% by weight
[0137]The amounts are expressed as percentage by weight of the total weight of the treated fabric.
[0138]Treated Fabric 2
[0139]A cotton woven fabric was treated with the “Composition 3” according to Example 1.
[0140]The aqueous composition was applied by padding.
[0141]The fabric was dried 150° C. and cured at 180° C. for 45 seconds.
[0142]The treated fabric obtained was provided with:
Titanium dioxideabout 7% by weightBinderabout 2.8% by weightDispersing agentabout 0.35% by weightStabilizing agentabout 0.28% by weightWetting agentabout 0.2% by weight
[0143]The amounts are expressed as percentage by weight of the total weight of ...
example 3
n of Opacity and CMC DE (Color Difference) of Exemplary Treated Fabrics
[0156]Opacity and CMC DE (color difference) of three samples of a fabric before and after the process of the invention were measured.
[0157]In particular, the fabric was treated to obtain the “Treated fabric 1”, the “Treated fabric 3” and the “Treated fabric 4” according to Example 2.
[0158]Opacity and CMC DE (color difference) were measured spectrophotometrically, according to methods which are known per se, using white and black background cards, by Datacolor 600 spectrophotometer.
[0159]Opacity of fabrics was measured, on paper backing, as the ratio expressed as a percentage, of the single-sheet luminous reflectance factor, R0, to the intrinsic luminous reflectance factor, R∞, of the same sample, according to the formula:
Opacity=100×R0 / R∞
[0160]The single-sheet luminous reflectance factor, “R0” is defined as the luminous reflectance factor of a single sheet of fabric with a black cavity as backing. The intrinsic l...
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