Abstract:
Novel coatings are disclosed prepared from electropolymerization of electropolymerizable monomers-analyte complexes onto a conducting layer or non-conducting of a substrate, where the analyte is removed by electrochemically mediated washing permiting linear molecular sensing of the analyte over a wide concentration range. The coating may also include templating particles deposited on the electrod substrate prior to electropolymerization, where the particles can be removed to form a submicron structured coating. Methods for making and using the coatings are also disclosed.
Abstract:
Novel coatings are disclosed prepared from electropolymerization of electropolymerizable monomers-analyte complexes onto a conducting layer or non-conducting of a substrate, where the analyte is removed by electrochemically mediated washing permiting linear molecular sensing of the analyte over a wide concentration range. The coating may also include templating particles deposited on the electrod substrate prior to electropolymerization, where the particles can be removed to form a submicron structured coating. Methods for making and using the coatings are also disclosed.
Abstract:
Novel coatings are disclosed prepared by electropolymerization of non-fluorinated conducting pre-grafted hydrophobic electropolymerizable monomers onto a conducting layer of a substrate, where the electropolymerized coating exhibit both unique reversible wettability and electro-optical properties. The coating may also include one or more layers of polymer particles upon which the non-fluorinated conducting pre-grafted hydrophobic electropolymerizable monomers are polymerized imparting a submicron structure to the coating. Methods for making and using the coatings are also disclosed.
Abstract:
Novel coatings are disclosed prepared by electropolymerization of non-fluorinated conducting pre-grafted hydrophobic electropolymerizable monomers onto a conducting layer of a substrate, where the electropolymerized coating exhibit both unique reversible wettability and electro-optical properties. The coating may also include one or more layers of polymer particles upon which the non-fluorinated conducting pre-grafted hydrophobic electropolymerizable monomers are polymerized imparting a submicron structure to the coating. Methods for making and using the coatings are also disclosed.
Abstract:
Three dimensional anti-reflection porous films or coated substrates and method for forming the films or coated substrates are disclosed, where the films or coatings have optical transmittances of at least 86% or a reflectance of at most 4%. The 3D anti-reflection porous film or coating compositions (a) one polymer or a plurality of network polymers, (b) one particles and/or a plurality particles, (c) optionally one crosslinking agent or a plurality of crosslinking agents, (d) optionally one oligomer or a plurality of oligomers, (e) optionally one polymerized monomer or a plurality of polymerized monomers, and (f) optionally void spaces, where the composition has a transmittance value of at least 86% or a reflectance value of at most 4%.
Abstract:
Three dimensional anti-reflection porous films or coated substrates and method for forming the films or coated substrates are disclosed, where the films or coatings have optical transmittances of at least 86% or a reflectance of at most 4%. The 3D anti-reflection porous film or coating compositions (a) one polymer or a plurality of network polymers, (b) one particles and/or a plurality particles, (c) optionally one crosslinking agent or a plurality of crosslinking agents, (d) optionally one oligomer or a plurality of oligomers, (e) optionally one polymerized monomer or a plurality of polymerized monomers, and (f) optionally void spaces, where the composition has a transmittance value of at least 86% or a reflectance value of at most 4%.