Disclosed herein are methods and items for flocking festive goods or holiday decorations, such as trees and wreaths, that reduce the loss of flocking material. The method can include applying a first glue emulsion onto an item, applying one or more layers of flocking material onto the glue emulsion, and applying one of: a second glue emulsion, an acrylic, or acrylic-like substance, over the one or more layers of flocking material. A decorative item can include one or more layers of flocking material, and a layer of: a glue emulsion, an acrylic, and/or acrylic-like substance applied on the one or more layers of flocking material.

A device for coating a wire with polymer fibers and method thereof are provided. The device includes a wire holder unit fixing both ends of a wire, a fiber forming unit including a first fiber forming module and a second fiber forming module that receive a polymer solution, face each other, and form fibers while approaching each other and retreating from each other, and a control unit adjusting a tension of the wire by controlling the wire holder unit and crossing the wire and the fibers by controlling the fiber forming unit. The fiber forming unit rotates the wire along an axis which extends in a longitudinal direction of the wire. The fibers are attached and coated on the wire when the wire and the fibers cross each other. The wire coating method can improve an adsorption state of coated fibers by including a post-processing step.

The present disclosure discloses a method for forming a high-density aligned carbon nanotube film. The method includes injecting a carbon nanotube solution into a container, and adding a dispersant to form a carbon nanotube-dispersant composite. The method also includes adding a substance that interacts with the carbon nanotube-dispersant composite and then dispersing the obtained carbon nanotube solution using water ultrasonic or probe ultrasonic to obtain a carbon nanotube solution containing a dispersant. Then a large-area or patterned high-quality aligned carbon nanotube film can be formed on a substrate by using processes such as pulling, injection dripping or printing. The method is low-cost and suitable for the preparation of large-area high-density aligned carbon nanotubes, and satisfies various needs for industrial application of carbon-based integrated circuits.

A roofing material including a substrate having a top face and a bottom face. The roofing material further includes a non-asphalt coating applied to the substrate and an asphalt layer covering at least a portion of the top face. The bottom face is asphalt-free, or substantially asphalt-free.

A roofing material including a substrate having a top face and a bottom face. The roofing material further includes a non-asphalt coating applied to the substrate and an asphalt layer covering at least a portion of the top face. The bottom face is asphalt-free, or substantially asphalt-free.

The present disclosure relates to a glove with both flock-lined and unlined interior surfaces The glove generally comprises a hand region including a palm portion and a dorsal portion; a thumb region and four individual digit regions projecting away from one end of the hand region; and a cuff region extending outwardly from another end of the hand region opposing to the thumb region and the four individual digit regions. The cuff region terminates to a terminal end defining an opening for insertion of a user hand therein. Preferably, the hand region comprises flock lining on at least the interior surface of the palm portion or one or more selected areas on the interior surface of the palm portion. The cuff region is free from having any flock lining.

A composite flock material including a base layer comprising a hot melt adhesive, an elastic adhesive layer disposed on a top surface of the hot melt adhesive, and a plurality of flock fibers potted into the elastic adhesive layer is disclosed. The composite flock material is stretchable up to 20% from an initial unstretched length while maintaining the structural integrity of the composite flock material. Methods of producing a composite flock material are also disclosed.

The invention provides a method and apparatus for treating at least part of an edge of an acoustic panel, and acoustic panels with such an edge treatment.

The invention provides a method and apparatus for treating at least part of an edge of an acoustic panel, and acoustic panels with such an edge treatment.

A process for the large-scale manufacturing vertically standing hybrid nanometer scale structures of different geometries including fractal architecture of nanostructure within a nano/micro structures made of flexible materials, on a flexible substrate including textiles is disclosed. The structures increase the surface area of the substrate. The structures maybe coated with materials that are sensitive to various physical parameters or chemicals such as but not limited to humidity, pressure, atmospheric pressure, and electromagnetic signals originating from biological or non-biological sources, volatile gases and pH. The increased surface area achieved through the disclosed process is intended to improve the sensitivity of the sensors formed by coating of the structure and substrate with a material which can be used to sense physical parameters and chemicals as listed previously. An embodiment with the structures on a textile substrate coated with a conductive, malleable and bio-compatible sensing material for use as a biopotential measurement electrode is provided.