A system comprising a patient support surface including a core, a ticking covering the core, a RF welding equipment, and a die are used to emboss a layer of an embossing substrate to a surface of the ticking to form a 3-dimensional structure determined by the die. The ticking has a first surface that faces away from the core and a second surface that faces towards the core, and the 3-dimensional structure is formed on the second surface.

A fabrication method of an elastomer breath structure includes the steps of applying a liquid elastomer onto a substrate an initial curing of the liquid elastomer on the substrate partially into a partially cured polymer, condensation of water droplets from the environment onto the partially cured polymer, and finishing curing of the partially cured polymer with parallel removal of the water droplets creating surface dimples on the cured elastomer.

A device, e.g., a heat exchanger, is disclosed. The device includes a first component and a second component. The first component has at least a first surface portion and a second surface portion. The first surface portion and the second surface portion are located opposite to one another and are spaced apart from one another. The first component includes a first support groove provided at the first surface portion and a functional groove provided at the first surface portion. The functional groove is arranged spaced apart from the first support groove at least in some sections. The functional groove is structured and arranged for partially receiving a second component for a substance-to-substance bond.

Flexible graphite and other graphite materials with surface micro-texturing, and methods and apparatuses for micro-texturing the surface of flexible graphite and other graphite materials are provided. Micro-texturing can be used to modify wettability and/or adhesion characteristics of a flexible graphite surface. Micro-textured flexible graphite materials can be advantageously used in applications where the material is in contact with liquid water or other liquids.

Disclosed is a method for marking film-type dosage forms, comprising at least the positioning of a film-type dosage form between two layers of a sealable packaging material, the sectional heat-sealing of the two layers of the sealable packaging material so as to obtain an edge-sealed bag containing the film-type dosage form, and the blind-embossing of the film-type dosage form contained in the edge-sealed bag through at least one of the two layers of packaging material of the edge-sealed bag.

A matrix for the cultivation of biological cells and differentiation into neuronal cells consists of a polymer base body having a structured surface with a microstructure and a nanostructure embedded therein.

A method of producing nanoscale features on a pre-stressed polymer film is described herein. The method includes: imprinting the pre-stressed polymer film with a nanoscale or microscale pattern; constraining the pre-stressed polymer film in a first direction with a first constraint; shrinking the pre-stressed polymer film in a second direction with a first heat treatment process; releasing the first uniaxial constraint; constraining the pre-stressed polymer film in a third direction with a second constraint, the third direction being different than the first direction; shrinking the pre-stressed polymer film in a fourth direction with a second heat treatment process; and releasing the second constraint to produce the nanoscale features on the pre-stressed polymer film.

A blister pack including a backing and an active layer coextensively attached to the backing. A cover is attached to the layer. The cover forms one or more spaced-apart blisters. Each blister and the layer combine to form a cavity configured to enclose at least one product. The active layer within each blister is embossed to form one or more points of weakness configured to facilitate rupture of the backing and active layer when dispensing a product from the blister.

The invention provides a process to orient a high molecular weight polymer film, formed from molten, dispersed or dissolved state, characterised in that as a start of this orientation process the film becomes embossed in a pattern of closely spaced dots or thin short lines, 5 thereby becoming oriented within these embossments, whereafter the orientation process is continued in one or more steps by m.d. stretching, t.d. stretching, or combined m.d. and t.d. stretching, whereby the embossed and oriented dots or lines gradually grow and develop until essentially the entire film has become oriented.

Provided are a super water repellent polymer hierarchical structure, a heat exchanger having super water repellency, and a manufacturing method thereof A super water repellent polymer hierarchical structure can be simply and repeatedly manufactured by using only a method for utilizing a super water repellent hierarchical structure and mechanically molding a polymer material thereon. In addition, a heat exchanger having super water repellency can be provided by providing super water repellency on the fin surface of a heat exchanger by using a dip method and vacuum drying.