Abstract:
The present invention describes microfluidic devices that provide novel fluidic structures to facilitate the separation of fluids into isolated, pico-liter sized compartments for performing multiplexing chemical and biological reactions. Applications of the novel devices including biomolecule synthesis, polynucleotide amplification, and binding assays are also disclosed.
Abstract:
A microactuator may be configured by activating a source of electromagnetic radiation to heat and melt a selected set of phase-change plugs embedded in a substrate of the microactuator, pressurizing a common pressure chamber adjacent to each of the plugs to deform the melted plugs, and deactivating the source of electromagnetic radiation to cool and solidify the melted plugs.
Abstract:
This invention provides method and apparatus for performing chemical and biochemical reactions in solution using in situ generated photo-products as reagent or co-reagent. In particular, the present invention provides methods and devices for generating a photogenerated reaction in solution on a substrate comprising generating a light beam using an optical device system comprising a light source and a computer-controlled spatial optical modulator comprising a digital micromirror device and using the spatial optical modulator to direct light to fluidly isolated reaction sites under conditions such that a photogenerated reaction takes place. The method and apparatus of the present invention have applications in parallel synthesis of molecular sequence arrays on solid surfaces.