Abstract:
Scintillator and semiconductor based materials incorporating radioactive materials and their method of manufacture are disclosed. The disclosed materials are integrated with energy conversion devices and structures to provide nuclear battery assemblies which exhibit increased power densities.
Abstract:
The present invention relates to quaternary compound scintillators and related devices and methods. The scintillators may include, for example, a mixed halide scintillator composition including at least two different CsLiLa halide compounds and a dopant. Related detection devices and methods are further included.
Abstract:
Li-containing scintillator compositions, as well as related structures and methods are described. Radiation detection systems and methods are described which include a Cs2LiLn Halide scintillator composition.
Abstract:
Devices and methods for detecting defects in reinforced concrete using eddy current detection technology are disclosed. In one aspect, a method for detecting defects in reinforced concrete may include the steps of: providing a probe with a plurality of eddy current sensors disposed along a circumferential direction of the probe; inducing an eddy current in a reinforcing structure of the reinforced concrete with at least one of the plurality of eddy current sensors; and detecting a circumferential and longitudinal location of a defect in the reinforcing structure of the reinforced concrete with at least one of the plurality of eddy current sensors.
Abstract:
Systems and methods for detecting radiation are generally described. The radiation detector comprises at least one semiconductor material, such as a thallium halide, that provides an electrical signal and optical signal upon exposure to a source of radiation. The electrical signal and optical signal may both be measured to detect the radiation.
Abstract:
Scintillators that can support up to 20 MHz count rates, which is significantly faster than the required 100K counts/second needed for single crystal diffractometers and methods for fabricating them.
Abstract:
Scintillator compositions comprising lithium, an alkaline earth metal, a halide, and optionally a dopant, and related systems and methods for detecting radiation are disclosed.
Abstract:
The present invention relates to scintillator compositions and related devices and methods. The scintillator compositions may include, for example, a scintillation compound and a dopant, the scintillation compound having the formula x1-x2-x3-x4 and x1 is Cs; x2 is Na; x3 is La, Gd, or Lu; and x4 is Br or I. In certain embodiments, the scintillator composition can include a single dopant or mixture of dopants.
Abstract:
Li-containing scintillator compositions, as well as related structures and methods are described. Radiation detection systems and methods are described which include a Cs2LiLn Halide scintillator composition.
Abstract:
An analysis system for analyzing circuits and other appropriate devices as well as its method of use are disclosed. In one embodiment, a system may include one or more electromagnetic field generators configured to generate an electromagnetic field proximate to a circuit. The system may also include one or more electromagnetic field sensors configured to scan the circuit by detecting an electromagnetic field induced in the circuit. An associated computing device may be configured to receive the scan of the circuit and compare the scan to a reference scan of the circuit to determine whether the circuit is different from the reference scan.