41results about How to "New application" patented technology

New thermoelectric materials and devices are disclosed for application to high efficiency thermoelectric power generation. New functional materials based on oxides, rare-earth-oxides, rare-earth-nitrides, rare-earth phosphides, copper-rare-earth oxides, silicon-rare-earth-oxides, germanium-rare-earth-oxides and bismuth rare-earth-oxides are disclosed. Addition of nitrogen and phosphorus are disclosed to optimize the oxide material properties for thermoelectric conversion efficiency. New devices based on bulk and multilayer thermoelectric materials are described. New devices based on bulk and multilayer thermoelectric materials using combinations of at least one of thermoelectric and pyroelectric and ferroelectric materials are described. Thermoelectric devices based on vertical pillar and planar architectures are disclosed. The advantage of the planar thermoelectric effect allows utility for large area applications and is scalable for large scale power generation plants.

A method and apparatus providing automatic circuit breaker identification to an electronic trip unit includes a processor and a configuration module comprising configuration data identifying the particulars of a circuit breaker and that is in operable communication with the processor.

According to one embodiment of the invention, a method for integrated decision support is disclosed. The method includes receiving decision inputs. The method also includes converting the received decision inputs to graph representations and mathematical representations. The method further includes decomposing the converted decision inputs to sub-problems. The method further includes detecting strongly-connected components associated with the sub-problems. The strongly-connected components represent the sub-problems that are coupled. The method further includes solving the sub-problems.

The invention provides a nanoscale particle comprising a lipid binding polypeptide, lipids and a hydrophobic agent, wherein the hydrophobic agent is different from the lipids, and wherein the lipid binding polypeptide is a saposin-like protein or a derivative or truncated form thereof. The invention further provides a process for preparing a particle comprising a saposin-like protein or a derivative or truncated form thereof and lipids comprising the step of (a) contacting the saposin-like protein or a derivative or truncated form thereof with solubilized lipids in a liquid environment and (b) allowing for the self-assembly of the particle at a pH of from 5.0 to 10.0. In addition, the invention provides a pharmaceutical composition comprising the particle of the invention for delivering a hydrophobic agent to an individual in need thereof and includes the use of the particle of the invention in preventing, treating or lessening the severity of a disease or its use in a diagnostic method, a cosmetic treatment, as hydrophobic agent delivery particle, as a tool for drug development, drug screening, membrane protein research or as vaccination formulation.

Provided is an antigen-binding protein prepared merely by a method of in vitro selection using the RNF8-FHA domain, which has no intramolecular disulfide bond and functions in cells as it is. One to four loops extending from the FHA domain are randomized, and a recognition site for a target molecule is artificially created on the FHA domain surface to construct an RNF8-FHA domain library. Using the library, an antigen-binding protein is efficiently selected in vitro.

A fiber and a process for obtaining same from a high-modulus polyethylene, extrudable in state-of-the-art equipment and in the absence of previous solubilization in any kind of organic solvent is described, the process comprising providing such a polyethylene, introducing it in a state-of-the-art extruder, extruding it according to a temperature pattern, obtaining an extrudate that is directed to a cooling bath to have its temperature reduced, then directing the extrudate to a first stretcher where it is stretched or drawn into a fiber of improved tenacity, at a first velocity v1, then heating the fiber at nearly 90° C. and then directing said fiber to a second stretcher to be drawn at a final velocity v2, wherein v1<v2, at a draw ratio of 2 / 1 until 65 / 1. The tenacity of the polyethylene fiber obtained by the said process attains at least 4 gf / den, which makes it useful to naval and offshore applications.