Pyrometry Using Electric Radation Detectors TRIZ Cases

Varying period through holes create multiple phononic band gaps, resolving temperature-dependent insulation drops in infrared sensors.

A microelectromechanical infrared sensing device uses a voltage-controlled movable reflecting plate to adjust the optical path length between layers.

Thermal isolation via micro-suspensions enables background-limited sensitivity at 4K to 10K, reducing cryogenic infrastructure complexity.

A microbolometer detector uses inkjet printed PEDOT:PSS thermistors to convert infrared radiation into electrical signals.

Material transfer fabricates unreleased thermopile infrared sensors with enhanced sensitivity by eliminating fragile suspended membrane structures.

Forward tapered contact holes enable thin film support leg metal wiring layers in infrared sensor pixels.

A contrast phantom uses semiconductive oxide layers to create discrete reflection coefficients for millimeter wave imaging testing.

Laminated metal oxide and fluororesin films shield carbon nanotube bolometer detectors from oxygen and moisture, stabilizing resistance fluctuations.

Quantum infrared sensor module integrates a high conductivity thermal conductor leg within the seal structure to couple heat paths.

Interleaved thermocouple groups balance substrate resistances and parasitic capacitances to eliminate temperature-dependent offsets in infrared sensors.

Wet chemical etching of mineral sacrificial layers creates a reinforced peripheral wall that prevents cavity edge separation in thermal detectors.

A temperature sensing device uses a SON membrane element and integrated transistor structure to generate output signals.

Thermal annealing of doped vanadium oxide maintains electrical resistivity above 10% of its native value while reducing 1/f noise in microbolometers.

A handheld device uses a camera and selectable infrared sensor array to measure object temperature.

Segmenting detected radiation into emitted and reflected components resolves measurement precision versus device complexity contradictions.

A test apparatus uses a heat emitter to verify infrared sensor accuracy for train undercarriage monitoring.

Thermal isolation of a silicon germanium base from the bulk substrate enables high sensitivity while eliminating low-frequency 1/f noise.

Localized surface plasmon resonance in the variable resistance film enables rapid infrared detection without complex thermal compensation structures.

A rear surface infrared sensor uses a segmented through hole to expand the field of view.

Variable cross-section arms reduce heat conduction to the thermistor while maintaining sufficient bulk for efficient electromagnetic wave absorption.

Conductive vias through the dielectric layer maintain electric contact with the absorber while the planar surface reduces low-frequency noise.

A four-wire circuit connects an RTD and thermopile in series to enable precise ambient temperature compensation.

A self-referenced ambient radiation thermometer uses a temperature-stabilized isothermal enclosure to maintain long-term stability.

A hollow supporting body allows infrared rays to pass through while providing thermal insulation.

Multiple sub-resonators absorb broadband infrared light, overcoming narrow bandwidth limits and improving signal-to-noise ratio.

Variable beam width design balances thermal insulation and mechanical strength, reducing stress while enhancing signal-to-noise ratio.

A germanium semiconductor annulus paired with a metal layer forms a Schottky junction for infrared detection.

Alternating metallic and insulating layers in a suspended bolometer absorber improve infrared absorption while minimizing thermal loss to the substrate.

Integrating a resistive switch within the anchor structure eliminates standby power consumption by enabling selective ON/OFF addressing of individual pixels.

A multi-layer thin film stack on an electromagnetic radiation sensor substrate reduces reflection losses through optical interference.

Stacked 3D infrared thermopile sensor with dual sensing elements.

Segmented p-type and n-type semiconductor portions create nanoscale solid regions that scatter phonons, improving heat insulation for better sensitivity.

A semiconductor infrared detector uses a shielded reference pixel to calculate responsivity changes through thermal matching.

Optimizing the thermal resistance ratio between thermocouple and beam pathways improves signal-to-noise ratios while preserving mechanical strength.

Refractory metal thermopile junctions on a stepped ceramic substrate measure thermal data in environments exceeding 1000°C where conventional sensors fail.

A flexible bolometer uses a resin exterior to enclose the light detector.

A thermal detector features a sealed encapsulation layer with a single release vent positioned opposite the absorbing membrane.

A reference element design uses an air gap between a fence and supporting structure to maintain uniformity.

A thermal detection device merges visual camera signals with thermopile array outputs to generate a combined image for display.

Vertical segmentation decouples the absorber from stress-induced buckling, maintaining planarity and fill factor.

Compensation pixels measure parasitic fluxes to correct infrared sensor signals.

Porous silicon oxidization maintains consistent vacuum states without complex getter allocation, improving sensitivity in packaged infrared sensor arrays.

A passivation layer protects carbon nanotube optical absorbers during suspended platform release in thermal radiation detectors.

A semiconductor lens layer focuses infrared radiation onto a bolometer absorber.

Nanostructured graphene sheets coupled with optical cavities generate thermoelectric voltage through plasmon-assisted hot carrier generation.

Atomic layer deposition spacers suspend the membrane to reduce thermal conductance while maintaining electrical contact, resolving pixel pitch scaling limits.

Multiple thin absorbers separated by collectors prevent carrier recombination, resolving the trade-off between photon absorption and diffusion length limits.

Monolithic integration of CMOS-SOI and MEMS reduces manufacturing costs while maintaining high sensitivity for terahertz imaging applications.

Smart leash integrates temperature, humidity, and infrared sensors for real-time environmental monitoring.

A superparamagnetic material layer changes magnetization under a constant magnetic field to generate electrical signals from infrared radiation.