Translucent, Inc.

Other

Richard Andrew Sewell

Andrew C Clark

Robin G Smith

Scott Semans

Michael S Lebby

F Erdem Arkun

Compounds, e.g., of formula (I) and (Ia), pharmaceutical compositions comprising the compounds and methods of using the compounds and pharmaceutical compositions for treating pain disorders, e.g., disorders associated with cephalic pain, are provided.

Compostions and methods for preventing and/or treating disorders associated with cephalic pain

Infrared imaging at wavelengths longer than the silicon bandgap energy (&#x3e;1100 nm) typically require expensive focal plane arrays fabricated from compound semiconductors (InSb or HgCdTe) or use of slower silicon microbolometer technology. Furthermore, these technologies are available in relatively small array sizes, whereas silicon focal plane arrays are easily available with 10 megapixels or more array size. A new technique is disclosed to up convert infrared light to wavelengths detectable by silicon focal plane arrays, or other detector technologies, thereby enabling a low-cost, high pixel count infrared imaging system.

Monolithically integrated IR imaging using rare-earth up conversion materials

Examples of device structures utilizing layers of rare earth oxides to perform the tasks of strain engineering in transitioning between semiconductor layers of different composition and/or lattice orientation and size are given. A structure comprising a plurality of semiconductor layers separated by transition layer(s) comprising two or more rare earth compounds operable as a sink for structural defects is disclosed.

Multijunction rare earth solar cell

The use of rare-earth (RE and O, N, P) based materials to transition between two different semiconductor materials and enable up and/or down conversion of incident radiation is disclosed. Rare earth based oxides, nitrides and phosphides provide a wide range of lattice spacing enabling, compressive, tensile or stress-free lattice matching with Group IV, III-V, and Group II-VI compounds.

Active rare earth tandem solar cell

The use of rare-earth (RE+O, N, P) based materials to transition between two semiconductor materials is disclosed. Rare earth based oxides, nitrides and phosphides provide a wide range of lattice spacings enabling, compressive, tensile or stress-free lattice matching with Group IV, III-V, and Group II-VI compounds. Disclosed embodiments include tandem solar cells.

Passive rare earth tandem solar cell

The use of rare-earth (REO, N, P) based materials to covert long wavelength photons to shorter wavelength photons that can be absorbed in a photovoltaic device (up-conversion) and (REO, N, P) materials which can absorb a short wavelength photon and re-emit one (downshifting) or more longer wavelength photons is disclosed. The wide spectral range of sunlight overlaps with a multitude of energy transitions in rare-earth materials, thus offering multiple up-conversion pathways. The refractive index contrast of rare-earth materials with silicon enables a DBR with &#x3e;90% peak reflectivity and a stop band greater than 150 nm.

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New Haven, CT, United States of America

Richard Andrew Sewell