Abstract: A wearable fabric for photo-stimulating a biological system includes at least one piece of textile, a plurality of bioceramic particles, and at least one nutrient-based precursor. The at least one piece of textile includes a plurality of interwoven polymeric fibers, an outer textile surface, and an inner textile surface. The outer textile surface and the inner textile surface are positioned opposite to each other about the at least one piece of textile. The quantity of bioceramic particles is uniformly integrated amongst the plurality of interwoven polymeric fibers. The at least one nutrient-based precursor is integrated amongst the plurality of interwoven polymeric fibers as the at least one nutrient-based precursor is configured to frictionally dislodge from the plurality of interwoven polymeric fibers as the inner textile surface is in physical contact with a wearer's skin to stimulate the production of Vitamin D and to stimulate bone growth.

Abstract: A microstructured textile with microencapsulated compounds is used to enable a three part therapeutic delivery system. The microstructured textile can be turned into garments that passively deliver treatments to a user's skin. The microstructured textile has an a textile substrate, an abrasive material, and a microencapsulated compound. The textile substrate is an elastic material onto which the abrasive material is superimposed. The abrasive material removes dead skin when the microstructured textile is worn by the user. The microencapsulated compound is integrated into the textile substrate so that a therapeutic compound stored therein can be gradually released into the user's skin. Far infrared (FIR) emitting particles are integrated into the textile substrate. So, FIR radiation is applied to the user's skin to facilitate circulation.

Abstract: Disclosed herein is a method for producing low thermal conductivity fibers for manufacturing low thermal conductivity textiles, in accordance with some embodiments. Accordingly, the method may include a step of grinding manganese oxide into manganese oxide particles of a particle size ranging from 20 (nanometers) to 600 (nanometers). Further, the method may include a step of mixing the manganese oxide particles with an applicable substance for creating a masterbatch based on the grinding. Further, the masterbatch may include the manganese oxide particles in an amount ranging from 0.25% to 20% by weight of the masterbatch. Further, the method may include a step of applying the masterbatch to hollow fibers of a polymer based on the mixing. Further, the method may include a step of producing low thermal conductivity fibers based on the applying. Further, the low thermal conductivity textiles may be manufactured using the low thermal conductivity fibers.

Abstract: The present disclosure relates to relates to fibers, yarns, fabrics and other materials that interact with electromagnetic radiation, wherein these materials are made from a carrier material (such as a cellulose or semi-cellulose) and a plurality of mineral particles as well as methods of making these materials. Specifically, the materials interact with electromagnetic radiation by absorption, reflection, refraction, polarization, or wavelength shifting. The fibers, yarns, fabrics and other materials of the disclosure are useful in a variety of products including furniture upholstery, sportswear and fashion applications.

Abstract: The present application teaches compositions and methods of using active polymer materials to manipulate solar radiation to improve or otherwise alter plant growth, development, health and/or production.

Abstract: The present application teaches compositions and methods of using active polymer materials to manipulate solar radiation to improve or otherwise alter plant growth, development, health and/or production.

Abstract: The present application teaches compositions and methods of using active polymer materials to manipulate solar radiation to improve or otherwise alter plant growth, development, health and/or production.