Abstract: A solar cell module includes solar cells that are encased in a protective package and a high electric susceptibility layer that is placed on the solar cells. The high electric susceptibility layer is polarized such that a sheet charge is developed at the interface of the high electric susceptibility layer and the solar cells. The protective package includes an encapsulant that encapsulates the solar cells. The encapsulant may be a multilayer encapsulant, with the high electric susceptibility layer being a layer of the encapsulant. The high electric susceptibility layer may also be a material that is separate from the encapsulant.

Abstract: A solar cell module includes solar cells that are encased in a protective package and a high electric susceptibility layer that is placed on the solar cells. The high electric susceptibility layer is polarized such that a sheet charge is developed at the interface of the high electric susceptibility layer and the solar cells. The protective package includes an encapsulant that encapsulates the solar cells. The encapsulant may be a multilayer encapsulant, with the high electric susceptibility layer being a layer of the encapsulant. The high electric susceptibility layer may also be a material that is separate from the encapsulant.

Abstract: The invention provides a versatile technique for machining of nanometer-scale features using tightly-focused ultrashort laser pulses. By the invention, the size of features can be reduced far below the wavelength of light, thus enabling nanomachining of a wide range of materials. The features may be extremely small, of nanometer size, and are highly reproducible.

Abstract: A thermal modulator device for gas chromatography and associated methods. The thermal modulator device includes a recirculating fluid cooling member, an electrically conductive capillary in direct thermal contact with the cooling member, and a power supply electrically coupled to the capillary and operable for controlled resistive heating of the capillary. The capillary can include more than one separate thermally modulated sections.

Abstract: A thermal modulator device for gas chromatography and associated methods. The thermal modulator device includes a cooling member, an electrically conductive capillary in direct thermal contact with the cooling member, and a power supply electrically coupled to the capillary and operable for controlled resistive heating of the capillary.

Abstract: A cast-in-place and lithographically shaped mobile, monolithic polymer element for fluid flow control in microfluidic devices and method of manufacture. Microfluid flow control devices, or microvalves that provide for control of fluid or ionic current flow can be made incorporating a cast-in-place, mobile monolithic polymer element, disposed within a microchannel, and driven by fluid pressure (either liquid or gas) against a retaining or sealing surface. The polymer elements are made by the application of lithographic methods to monomer mixtures formulated in such a way that the polymer will not bond to microchannel walls. The polymer elements can seal against pressures greater than 5000 psi, and have a response time on the order of milliseconds. By the use of energetic radiation it is possible to depolymerize selected regions of the polymer element to form shapes that cannot be produced by conventional lithographic patterning and would be impossible to machine.

Abstract: The invention provides a versatile technique for machining of nanometer-scale features using tightly-focused ultrashort laser pulses. By the invention, the size of features can be reduced far below the wavelength of light, thus enabling nanomachining of a wide range of materials. The features may be extremely small, of nanometer size, and are highly reproducible.

Abstract: A cast-in-place and lithographically shaped mobile, monolithic polymer element for fluid flow control in microfluidic devices and method of manufacture. Microfluid flow control devices, or microvalves that provide for control of fluid or ionic current flow can be made incorporating a cast-in-place, mobile monolithic polymer element, disposed within a microchannel, and driven by either fluid or gas pressure against a retaining or sealing surface. The polymer elements are made by the application of lithographic methods to monomer mixtures formulated in such a way that the polymer will not bond to microchannel walls. The polymer elements can seal against pressures greater than 5000 psi, and have a response time on the order of milliseconds. By the use of energetic radiation it is possible to depolymerize selected regions of the polymer element to form shapes that cannot be produced by conventional lithographic patterning and would be impossible to machine.