Radiation Intensity Measurement TRIZ Cases

Enclosed reflector guides scintillator photons into pixels, reducing photon loss and crosstalk.

A dual-layer scintillator radiation detector converts incident X-rays into distinct light signals using stacked phosphor layers.

Through-substrate vias reduce input node capacitance and power consumption while maintaining detection efficiency in radiation sensors.

Transforms voltage amplitude to time width using constant fraction discrimination, reducing system complexity while maintaining measurement precision.

A piezoelectric semiconductor detector uses a controlled microstress pattern to generate a predetermined electrical field.

A scintillator array uses sized separator particles to create optical isolation between elements.

A flexible substrate radiation detector uses a foam supporter to absorb impacts and disperse loads.

A portable radiological cassette employs a sandwich structure with rigid outer layers and a cellular core to enhance rigidity.

Stacked scintillator layers enable single-shot dual-energy imaging, eliminating the need for separate detector panels and reducing overall weight.

A signal correction unit samples and validates process values to generate a correction signal for X-ray detectors.

A reflective contact layer redirects photons to the amorphous silicon photodiode area.

A radiation detector transmitting part uses conductive layers separated by an organic layer to form a capacitor structure.

Conductive housing fixes control substrates to shield sensor panels from electromagnetic interference.

A fitting method transforms non-linear digitized scintillation pulse signals into linear parameters using a double-exponential model.

Distributed read circuits perform local charge sharing correction to improve photon detection accuracy in semiconductor radiation sensors.

Automated gamma detection replaces manual snow measurements, eliminating calibration complexity and harsh weather maintenance.

CT and MRI derived tissue density factors correct Cherenkov emission attenuation, ensuring accurate real-time radiation dose measurement.

Segmented scintillation units on a bendable substrate foil resolve the trade-off between multi-energy detection capability and portability.

Segmented subpixels with dedicated buffers improve pulse shape response and gain uniformity despite increased device size.

A multi-wavelength scintillator detector uses distinct emission domains to separate signal measurement from contrast generation in inspection hardware.

Correlating decay times with constituent concentrations enables accurate three-dimensional imaging without requiring phoswich configurations.

A semiconductor detector array processes signals from multiple radiation types using integrated circuit technology.

A radiation sensor uses floating gate diodes to convert detected energy into electrical signals for autonomous operation.

Readout circuit encodes pixel sensor signals via moment computation to reduce electronic channel count while maintaining spatial resolution.

Protruding spacers between power supply units and the housing distribute load to prevent base warpage and protect the radiation detection panel.

A CZT semiconductor activity meter uses a slab crystal probe to generate electrical signals from X-ray interactions.

Iterative spectral correction algorithm estimates photon interaction stacks to recover true energy resolution from measured X-ray data.

A radiation detector module integrates a photovoltaic layer and porous silicon quantum dot layer to convert incident radiation into electrical charge for signal processing.

A continuous sealant layer bridges tile seams to semi-hermetically enclose tiled CMOS x-ray detector components.

Collective reflow soldering of positioned reader units eliminates repetitive thermal stress and shortens production time.

A coincidence circuit splitter manages event data flow by processing a fraction of radiation events to maintain accurate counting.

A charge-integrating X-ray detector switches between photon-counting and analog modes to optimize signal readout.

A radiation analyzer extracts pulse-height distributions to estimate detector deterioration states using inverse-problem operators.

Bending the support or sensor panel maintains uniform adhesive spacing across the scintillator layer, resolving film-thickness distribution issues.

A detector cap assembly uses a radially expandable member to lock within the housing.

A sensor records multiple frames during one exposure to construct a single image with improved signal-to-noise ratio.

A water-based radiation detector uses a charged housing interior to create an electric field that detects ionized products.

Segmenting optical and X-ray regions on one chip eliminates misregistration artefacts caused by patient movement during separate acquisition cycles.

High atomic number materials shield the circuit unit from soft X-ray interference, ensuring accurate energy measurement by preventing charge discharge.

Charge injection circuit resets integration capacitor voltage to prevent pulse pile-up and maintain measurement precision at high radiation flux rates.

Nesting the photon detector inside the scintillator eliminates dead space, enabling multiple detectors in close proximity for oilfield logging.

A photon identifying radiation imaging device uses a readout substrate with analog to digital conversion and digital processing units for signal handling.

Polyvinyl acetal resin and epoxidized vegetable oil reduce elastic modulus in reflective films.

Plastic housings reduce detector weight and cost while a conductive coating provides electromagnetic shielding against interference.

Capacitive signal merging at a common node reduces overall capacitance and pulse stretching while improving timing resolution.

A radiation detector employs a rigid bending suppression member to prevent substrate deformation from scintillator weight, protecting fragile pixels.

Extending the feedback loop discharge timing via a delay circuit reduces ballistic deficit and noise, enabling accurate high-speed photon counting.

Variable shaping durations compensate for temporal drift in conversion gain, maintaining reliable energy estimation at high counting rates.

Dual adhesion layers secure a waterproof function film over the scintillator to prevent moisture ingress and cracking, enhancing device durability.