Abstract: A method for making a nanoimprinted perovskite film or a perovskite crystal. The method includes applying a solution onto a substrate, thereby forming a precursor film or a precursor crystal, wherein the solution comprises an organo-metal halide precursor in a solvent. The method also includes fabricating an organo-metal halide perovskite film or an organo-metal halide perovskite crystal, wherein fabricating includes annealing the precursor film or the precursor crystal, thereby at least partially evaporating the solvent. The method also includes imprinting the organo-metal halide perovskite film or the organo-metal halide perovskite crystal with a mold, thereby forming an imprinted film or an imprinted crystal. The method also includes separating the mold from the imprinted film or the imprinted crystal, thereby forming the perovskite film or the perovskite crystal.

Abstract: The claimed invention is directed to a finFET biosensor with improved sensitivity and selectivity. Embodiments of the invention are also directed to finFET biosensor arrays, methods for operating finFET biosensors with improved sensitivity and selectivity, and methods of operating finFET biosensor arrays.

Abstract: The claimed invention is directed to a fmFET biosensor with improved sensitivity and selectivity. Embodiments of the invention are also directed to finFET biosensor arrays, methods for operating fmFET biosensors with improved sensitivity and selectivity, and methods of operating finFET biosensor arrays.

Abstract: The present invention provides a device and methods for the detection and quantification melamine in a sample by rapid and specific electrochemical detection. The present invention includes using a field-effect transistor (FET) biosensor having an open Si channel with a melamine antigen, or hapten, or an antibody, anchored via a linker molecule such as self assembled monolayer to the surface of the gate dielectric of the said open Si channel. The anchoring molecule having the capability of detecting melamine directly or indirectly by selectively binding melamine antibodies, which changes a field-effect on a Si channel, causing a change in conductivity of the FET. This change in conductivity can be measured and is used to determine the presence or absence of melamine in a sample compared to a standard signal or pre-measured database.

Abstract: The present technology provides a system and/or method for a photoresist-based immunoisolative microcontainer with nanoslots defined by nanoimprint technology. The present technology further provides a method of immunoisolating one or more biomolecules, the method comprising providing a biocompatible microcontainer, wherein the microcontainer comprises a base and semi-permeable nanoporous surface. Methods of using the microcontainers for transplantation and cell therapy are also described.

Abstract: The present invention includes a template, an optoelectronic device and methods for making the same. The optoelectronic device includes a first substrate; a first electrode disposed on the first substrate; a first interdigitating, nano-structured charge-transfer molded material (e.g., a polymer) with a first electron affinity disposed on the first electrode; a second interdigitating, nano-structured charge-transfer material (e.g., single molecules, quantum dots, or particles) with a second electron affinity disposed on the first interdigitating, nano-structured charge-transfer material; a second electrode disposed in the second interdigitating, nano-structured charge-transfer material; and a second substrate disposed on the second electrode.

Abstract: The present invention includes compositions, methods and pharmaceutical compositions formed by template-directed polymer molding by contacting a porous template with one or more layers of polymeric material coated on a release layer coated on a substrate, applying pressure to the porous template, the substrates or both and separating the porous template from the polymer material to form one or more polymer nonspherical nanostructures with one or more layers on the substrate. The template includes one or more nonspherical nanostructure features. The size and shape of the one or more single- or multi-layer polymeric nonspherical nanostructures are controlled by the one or more nonspherical nanostructure features and the polymer material optionally including one or more active agents with or without retardants, dyes, etc.