D06M2200/10

NON-FLUORINATED FIBER AND TEXTILE TREATMENT COMPOSITIONS AND APPLICATIONS THEREOF
20200392667 · 2020-12-17 ·

In one aspect, a composition for treating fibers comprises an acidic aqueous or aqueous-based continuous phase and a liquid repellent phase comprising a dendrimer component and/or non-dendrimer alkyl urethane. The treatment composition, for example, can have pH of 2.5 to 6.5. In some embodiments, carboxylic acid is employed in the treatment composition for providing the acidic character of the aqueous or aqueous-based continuous phase. Moreover, the treatment composition can further comprise at least one of an acid stain resist component and soil release component. In some embodiments, fibers treated with compositions described herein exhibit ionic character.

COMPOSITIONS, TREATING METHODS, AND TREATED FIBROUS SUBSTRATES
20200378061 · 2020-12-03 ·

Fluorine free compositions for treating fibrous substrates to make the fibrous substrates water repellent, method for treating the fibrous substrates with said compositions and water repellent fibrous substrates treated with said fluorine free compositions.

FORMULATION FOR DURABLE WICKING SOFTENING AND ANTI-STATIC TEXTILES
20200347544 · 2020-11-05 ·

A chemical formulation for imparting a textile with durable wicking, softening and antistatic properties comprising an amphoteric or betaine surfactant, and an alkoxysilane. A method of treating the textile with the chemical formulation as well as the treated textile and the articles made therefrom are provided.

METHOD FOR SOL-GEL COATING OF TEXTILE MATERIALS

The invention relates to a method for the coating of a textile material, said method comprising the following steps: d) providing a coating composition comprising an aqueous solvent and an organosilicon precursor; e) impregnating the textile material with the coating composition by means of pad finishing; f) drying the impregnated textile material; characterized in that the coating composition contains no polycarboxylic acid or catalyst.

BITUMINOUS MEMBRANES WITH BIODEGRADABLE BINDER

Subject of the invention is a nonwoven, wherein the nonwoven fibers are organic polymer fibers, and wherein the nonwoven is consolidated with an aqueous binder, wherein the binder comprises protein and a polyphenolic compound from natural origin. Preferably, the nonwoven carrier is highly suitable for producing bituminous membranes. Subject of the invention are also uses, methods, bituminous membranes, binders and building materials, which are related to the nonwoven carrier.

WATER REPELLENCY-IMPARTING FIBER ARTICLE

A water repellency-imparted fiber article (10) of the present invention includes: a fiber article (1) having a skin-facing surface (1a) and a non-skin-facing surface (1b); and a water repellency-imparting agent attached to the fiber article (1). The fiber article (1) contains a water-absorbent fiber and has water absorbency in terms of a water absorption time of 30 seconds or less as measured in accordance with the dropping method of JIS L-1907. The water repellency-imparted fiber article (10) has a non-skin-side water-repellent region (2) on the non-skin-facing surface (1b) of the fiber article (1), the non-skin-side water-repellent region (2) including a portion to which the water repellency-imparting agent is attached. The water repellency-imparted fiber article (10) has a water absorbing layer (11) in a section of the fiber article that overlaps the non-skin-side water-repellent region (2) in a plan view and on a side that is closer to the skin of a user than the non-skin-side water-repellent region (2), the water absorbing layer maintaining the water absorbency. A surface of the non-skin-side water-repellent region 2 has a water contact angle of 80 degrees or greater and a water absorption rate of 10 seconds or greater.

Method for Sonochemical Deposition of Metals on Textile Substrates
20200087849 · 2020-03-19 ·

Provided herein are methods for preparing metal coated textile substrate by ultrasonic irradiation deposition processes and products thereof.

Textured Water-Repellant Fabric
20200060366 · 2020-02-27 ·

Textured fabrics have raised projections separated by depressed areas. The raised projections have heights of 0.3 to 8 mm above the level of the surrounding depressed areas. The raised projections have a pitch of 0.25 to 10 mm. The raised projections are locked into the fabric by the presence of a flexible, crosslinked polymer. The fabrics are water-resistant and breathable. The raised projections and the depressed areas create channels through which water can flow, maintaining the air permeability of the textured fabric during rainstorms. The textured fabric may be part of an outerwear rain jacket.

Water-based surface treatment agent

A surface treatment agent which is an aqueous emulsion containing: (a) a fluorine-free polymer including: (i) repeating units derived from a long-chain (meth)acrylate ester monomer represented by the formula: CH.sub.2CA.sup.11-C(O)O-A.sup.12, wherein A.sup.11 is a hydrogen atom or a methyl group, and A.sup.12 is a linear or branched aliphatic hydrocarbon group having 10-30 carbon atoms; (b) a surface active agent including both of a nonionic surface active agent and an anionic surface active agent, wherein the amount of the anionic surface active agent is at least 22% by weight, based on the total of the nonionic surface active agent and the anionic surface active agent; and (c) a liquid medium comprising water.

POLYETHYLENE TEXTILES WITH ENGINEERED FEATURES THAT PROVIDE FOR PASSIVE COOLING AND MANUFACTURE THEREOF

The present disclosure generally relates to textiles that are optimized to maximize moisture wicking and evaporative performance thereof. In some embodiments, raw polyethylene (PE) powder can be extruded into fibers that can be modified by oxidation along a surface thereof to increase hydrophilicity of the surface. Once sufficiently oxidized, the fibers can be bundled to form multi-filament yarns that can then be spun, weaved, knitted, and/or otherwise associated with one another to form a polyethylene fabric. The PE fibers can be further modified to increase a capillary force of the bundle, thereby further increasing hydrophilicity of the resulting fabric. Engineering of the capillary force can be performed by optimizing one or more of a fiber size, a density, or a cross-section of the fibers and/or the bundles. The resultant fabric can exhibit a strong weight reduction, stain resistance, and drying capabilities, among other capabilities.