Radiation Intensity Measurement TRIZ Cases

Segmented reinforcing substrates suppress substrate defects in flexible radiation detectors while preserving excellent peeling properties during reworking.

Grooved scintillator sticks and spacers align arrays to boost manufacturing precision without adding assembly steps.

A radiographic image reading device adjusts excitation light intensity and scanning speed based on resolution mode.

A radiation image detector uses a two-dimensional power distribution network to supply stable voltage to multiple control circuits.

A scintillation crystal array couples to a photodetector via a light guide with slits to channel photons.

Segmenting the copper coatings on a gas electron multiplier lowers capacitance to prevent electrical discharges during high-energy electron multiplication.

An open reflective insert positioned between adjacent rows of a scintillator crystal array controls light sharing and enhances transmission.

A radiation detector employs a conductive buffer layer to dissipate charges, preventing dielectric breakdown in the intermediate region.

A diamond-based sensor system with dual readout channels measures lineal energy spectra and dose rates simultaneously.

Scintillating geometrical shapes guide electromagnetic radiation into pixels using total internal reflection.

Scintillator optical fiber dosimeter reduces Cherenkov light interference through signal counter dead time adjustment and photomultiplier spectral filtering.

Energy-sensitive single-photon counting electronics reject scatter radiation below a threshold energy to enhance image contrast in high-density cargo scanning.

Angled mirrors shield detectors from damaging X-rays while maintaining compact camera depth through spatial reconfiguration of the optical path.

A radiation detector integrates laser-formed light scattering portions within scintillator blocks to optically separate adjacent segments.

Embedded heat pipe in thermally conductive plate extracts readout electronics heat, preventing thermal interference with CT imaging systems.

Placing a connector within a substrate opening improves electrical connectivity and thermal management while reducing manufacturing complexity.

Polygonal diode array in cylindrical chamber detects radon with higher efficiency and lower voltage.

Interdigitated electrodes in a semiconductor substrate improve signal-to-noise ratio by separating charge carriers via a p-n junction.

A heating member behind the sensor panel warms the photoconductor layer to reduce accumulated polarization and maintain detection sensitivity.

A dual-response detector uses simultaneous electrical and optical signals to measure ionizing radiation fluxes.

A perovskite radiation detector uses a protective member contacting the absorption layer side surface to provide mechanical strength and moisture resistance.

A plastic enclosure coated with a thin metal layer provides a hermetic seal for scintillation detectors.

A segmented image sensor design separates X-ray blocking and conversion functions to resolve the trade-off between pixel reliability and image resolution.

Stacked scintillators and photosensors detect back-to-back gamma radiation via a coincidence circuit, determining the particle beam endpoint in real time.

Segmented passive and active leakage current compensation circuits expand the maximum total current capacity of direct conversion X-ray detectors.

Shielded radiation-hard imagers eliminate line artifacts by synchronizing readout with treatment beam pulses to ensure accurate patient tracking.

A control unit resets an output amplifier during nondestructive pixel readouts to maintain signal integrity.

Vertex-mounted sensor modules in a polyhedral frame measure radiation levels regardless of sample shape, reducing worker exposure.

A photon counting detector uses shielded pixels to measure dark current independently from irradiated detection elements.

A cadmium zinc telluride rod with a collimating aperture detects gamma rays.

A radiation detector module transmits wireless data via a non-metallic end cap, preventing sparks from contacting explosive atmospheres.

Segmented thin cadmium zinc telluride wafers reduce electron trapping losses while maintaining detection sensitivity.

A proton computed tomography detector uses plastic scintillation fibers and silicon photomultipliers for continuous spatial coverage.

Roughening scintillator crystal surfaces mitigates light trapping in longer crystals, increasing light output by 25%.

A radiation imaging system uses an electrical insulation layer and top electrode to capture x-ray charges without a photoconductive semiconductor.

A dual-energy detector array uses integrated radiation filtering to measure attenuation at distinct photon energies.

A signal data processing method calculates timing sequences to identify charge collection channels in semiconductor radiation detectors.

A multi-layer detector uses a structured spectral filter between conversion layers to divide superpixels for distinct energy sampling.

An elastic ring protrusion and recess engage to seal gaps around the lifting shaft, preventing extrinsic light intrusion during vibration.

A MOS transistor signal processing system converts current pulses into voltage difference signals using switching and capacitance characteristics.

A radiation measuring apparatus specifies electromagnetic radiation incidence direction using recoil electron trajectories within closely spaced semiconductor pixel electrodes.

A two-dimensional indirect photon-counting X-ray detector uses a thick scintillator screen coupled to an optical sensor for high absorption efficiency.

A dynamic imaging system operates in an intermittent mode to acquire multiple frames while controlling radiation exposure levels.

A reed switch electrically insulates an ionization chamber from a charge amplifier to minimize leakage current.

A photonic crystal scintillator uses an anodic alumina membrane to create a hexagonal lattice structure for enhanced light outcoupling.

A photon sensor uses multiple scintillators with distinct decay times to differentiate radiation paths and measure fluid density.

A radiation imaging apparatus estimates scintillator bright burn using non-irradiated image data.

An X-ray detector circuit monitors voltage changes across an NPN bipolar transistor to identify radiation exposure levels.

Intrinsic Lu-176 radiation provides transmission data, eliminating separate CT hardware and reducing device complexity.

A curved porous structural backing applies vacuum pressure to conform imaging detectors, securing film layers and intensifying screens within an airtight barrier.