A doped substrate converts neutron interactions into detectable signals, enabling neutron flux measurement with filtered energy response.
A conversion film and solar cell detector measure neutron flux without gas-filled tubes or external bias, enabling compact sensing in hot, high-flux environments.
A FET resonant cavity detects gamma and neutron radiation at room temperature with low power, tunable filtering, and sensitivity to fast pulse events.
A recessed-substrate CdZnTe detector process forms single crystals and patterned electrodes to improve room-temperature X-ray and γ-ray detection.
A perovskite alpha detection film paired with a neutron conversion layer improves thin-film radiation sensing and supports scalable large-area detectors.
Boron-filled microcavities act as both neutron conversion layer and dopant source, boosting semiconductor detector efficiency through conformal diffusion.
Leakage current and temperature tracking correct radiation-induced detector drift in situ, preserving sensitivity without temperature cycling.
Coincidence detection across saturated channels lets a portable dosimeter issue real-time over-range alarms in pulsed radiation fields.
Placing a boron-10 conversion layer beside the depletion region limits detection to alpha rays, reducing neutron-signal variation.
A dosimeter integrates motion sensors with radiation detection to verify active wear periods and exposure events.
An inductive radiation detector measures ionizing radiation via charge carrier-induced changes in an LC circuit's resonance frequency.
Embedding neutron-sensitive nano-powders in 3D structures overcomes thin-film efficiency limits and resolves fabrication constraints.
Composite tungsten plastic injection molding resolves manufacturing complexity and toxicity while delivering isotropic energy response.
A semiconductor substrate with patterned cavities receives radiation-detecting particles via electrophoretic deposition.