Abstract: The present invention relates to the use of a substrate for enhancing the fluorescence of a fluorescent molecule, wherein the substrate comprises a solid polymer carrier having a plurality of recesses separated from each other and wherein the solid carrier is coated at least in part by a metal.

Abstract: The present invention relates to the use of a substrate for enhancing the fluorescence of a fluorescent molecule, wherein the substrate comprises a solid polymer carrier having a plurality of recesses separated from each other and wherein the solid carrier is coated at least in part by a metal.

Abstract: A structured substrate is described which is suitable for forming and hosting a crystal array, as well as associated methods for making and using such a structured substrate. The structured substrate is made by injection molding and has on one side a combination of macro- and micro-structured features. Each macro-structured feature comprises an edge that forms a perimeter around an enclosed area containing a large number of the micro-structured features. When a droplet of a solution containing molecules of interest and a solvent is deposited onto one of the enclosed areas such that it extends somewhat beyond the perimeter, the droplet slowly dries and shrinks through evaporation of the solvent, during which the edge acts to seed crystallization of the molecules, and the micro-structured features act to direct crystal growth from the seed into the enclosed area. The crystal thus forms over the whole of the enclosed area in a shape that conforms to the perimeter.

Abstract: A method of manufacturing a batch of sample containers optimized for culturing particular animal cells or binding particular proteins under particular growth conditions. When a customer requires a batch of sample containers, an appropriate surface is first selected by a testing process. A test container is provided which has a surface subdivided into a plurality of test areas, for example in a two-dimensional square array. Each test area has a pre-defined combination of surface properties including a micro- or nano-structure and these properties are varied from test area to test area. The animal cells or protein of interest are then tested under the particular conditions to be used. The test area that provides the ‘best’ conditions is then selected. The manufacture of a production batch of containers is then carried out, wherein the test areas in the production batch all copy the ‘best’ surface structure selected in the test.

Abstract: A structured substrate is described which is suitable for forming and hosting a crystal array, as well as associated methods for making and using such a structured substrate. The structured substrate is made by injection molding and has on one side a combination of macro- and micro-structured features. Each macro-structured feature comprises an edge that forms a perimeter around an enclosed area containing a large number of the micro-structured features. When a droplet of a solution containing molecules of interest and a solvent is deposited onto one of the enclosed areas such that it extends somewhat beyond the perimeter, the droplet slowly dries and shrinks through evaporation of the solvent, during which the edge acts to seed crystallization of the molecules, and the micro-structured features act to direct crystal growth from the seed into the enclosed area. The crystal thus forms over the whole of the enclosed area in a shape that conforms to the perimeter.