1701 - 1710 of 1799 Results
This invention is a device for tracking motion of an unrestrained small animal during a tomographic scan with a rotating detector for computing three-dimensional image data.
High Volume Production (HVP) Nanostructured Materials including Carbon, Ceramic, and other Materials
This invention describes new, innovative methods and technical approaches for the high volume production (HVP) of nanoparticles, nanotubes, and nanostructured materials.
This invention is a method for real-time rapid analysis of data that is collected by biosensors or normal sensors. The key motivation for this development to improve the existing UT-Batelle patented AquaSentinel technology that has been licensed to United Defense.
This invention is the next generation on the miniaturization of the AquaSentinel technology. The key motivation for this development is to improve the existing UT-Battelle, L.L.C. patented AquaSentinel technology that has been licensed to United Defense, L.P.
The optional improvements on the HSUB machines are side magnets, thin axial magnets, retaining rings, and non-magnetic gap between stator core and frame. These optional improvements can be applied to HSUB machines with or without reluctance paths.
This invention deals with the development of new cast heat-resistant austenitic alloys whose compositions were scientifically designed based on an understanding of the effect of alloying elements on the thermodynamic stabilities and compositions of various phases in the Fe-Cr-
A method for substantially improving the efficiency of neutralizing negative ions by photodetachment. The method includes slowing, cooling, or storing negative ions in a gas-filled radio frequency quadrupole ion guide device.
A method is described for non-contact ultrasonic treatment of metals via induction heating in a high magnetic field.
Preparation of new heterogeneous inorganic scintillator screens that detect thermal and epithermal neutrons with high efficiency. The high optical transparency of the inorganic material allows scintillation light propagation through neutron absorbing screens as thick as 1 mm.