Abstract: A contractile tissue-based analysis device is provided, in which a strip of contractile tissue is supported by support structure. The support structure comprises a substantially planar base element, and first and second support pillars extending from said base element. An optical detection device is arranged on the side of the base element opposite to said support pillars, and is arranged to capture image data from at least one of the head portions of the support pillars. The motion of the support pillars induced by the strip of contractile tissue can thus be captured from below, i.e. through the planar base element.

Abstract: A single-step method for applying a coating to a polymeric substrate comprising: exposing a photoreactive compound and a polymeric compound in an aqueous solvent to ultraviolet radiation in the presence of the polymeric substrate to obtain a covalently bound coating thereon comprising a reaction product of the photoreactive compound and the polymeric compound. More particularly, a method of applying a coating to a polymeric substrate in order to reduce the adsorption of analytes in solution to the substrate by imparting properties to the substrate similar to the properties of the coating applied.

Abstract: A single-step method for applying a coating to a polymeric substrate comprising: exposing a photoreactive compound and a polymeric compound in an aqueous solvent to ultraviolet radiation in the presence of said polymeric substrate to obtain a covalently bound coating thereon comprising a reaction product of the photoreactive compound and the polymeric compound. More particularly, the present invention relates to a method of applying a coating to a polymeric substrate in order to reduce the adsorption of analytes in solution to said substrate by imparting properties to the substrate similar to the properties of the coating applied.

Abstract: A sample processing device is disclosed, which sample processing device comprises a first substrate and a second substrate, where the first substrate has a first surface comprising two area types, a first area type with a first contact angle with water and a second area type with a second contact angle with water, the first contact angle being smaller than the second contact angle. The first substrate defines an inlet system and a preparation system in areas of the first type which two areas are separated by a barrier system in an area of the second type. The inlet system is adapted to receive a sample liquid comprising the sample and the first preparation system is adapted to receive a receiving liquid. In a particular embodiment, a magnetic sample transport component, such as a permanent magnet or an electromagnet, is arranged to move magnetic beads in between the first and second substrates.

Abstract: A method of providing at least one heat sensitive material on at least part of a surface of a polymer article formed from a heated polymer whose temperature is sufficient to adversely affect the at least one heat sensitive material, wherein an at least partly textured shaping surface is provided. The heat sensitive material is applied to at least part of the shaping surface, the shaping surface being at a temperature at which the heat sensitive material is not adversely affected. The heated polymer is brought in contact with the shaping surface and formed by the surface shape of the shaping surface. The at least one heat sensitive material is transferred from the shaping surface to the polymer surface, while maintaining sufficiently low the temperature of the shaping surface so that the heat sensitive material is not substantially adversely affected by heat upon or after contact with the heated polymer.

Abstract: A method of providing at least one heat sensitive material on at least part of a surface of a polymer article formed from a heated polymer whose temperature is sufficient to adversely affect the at least one heat sensitive material, wherein an at least partly textured shaping surface is provided. The heat sensitive material is applied to at least part of the shaping surface, the shaping surface being at a temperature at which the heat sensitive material is not adversely affected. The heated polymer is brought in contact with the shaping surface and formed by the surface shape of the shaping surface. The at least one heat sensitive material is transferred from the shaping surface to the polymer surface, while maintaining sufficiently low the temperature of the shaping surface so that the heat sensitive material is not substantially adversely affected by heat upon or after contact with the heated polymer.

Abstract: A method of providing at least part of a diaphragm and at least a part of a back-plate of a condenser microphone with a hydrophobic layer so as to avoid stiction between said diaphragm and said back-plate. The layer is deposited via a number small of openings in the back-plate, the diaphragm and/or between the diaphragm and the back-plate. Provides a homogeneous and structured hydrophobic layer, even to small internal cavities of the microstructure. The layer may be deposited by a liquid phase or a vapor phase deposition method. The method may be applied naturally in continuation of the normal manufacturing process. Further, a MEMS condenser microphone is provided having such a hydrophobic layer. The static distance between the diaphragm and the back-plate of the microphone is smaller than 10 ?m.

Abstract: A method of providing at least part of a diaphragm and at least a part of a back-plate of a condenser microphone with a hydrophobic layer so as to avoid stiction between said diaphragm and said back-plate. The layer is deposited via a number small of openings in the back-plate, the diaphragm and/or between the diaphragm and the back-plate. Provides a homogeneous and structured hydrophobic layer, even to small internal cavities of the microstructure. The layer may be deposited by a liquid phase or a vapor phase deposition method. The method may be applied naturally in continuation of the normal manufacturing process. Further, a MEMS condenser microphone is provided having such a hydrophobic layer. The static distance between the diaphragm and the back-plate of the microphone is smaller than 10 ?m.