Photometry TRIZ Cases

Spatially polarization-inhomogeneous light beams encode spatial features, enabling high-resolution detection without complex liquid crystal modulators.

Polygonal sensor elements eliminate dead spots in round housings, ensuring complete infrared radiation coverage across the detection field.

Segmented angular half-wave plate sections with distinct c-axis orientations suppress the primary Airy pattern while maintaining manufacturing simplicity.

A correction portion adjusts measured distances using predefined waveform characteristics from light reception signals.

Pulsed UV LED system with reflecting walls detects trace ozone without large mercury lamps, enabling compact design.

A time-gated measurement method isolates luminescent emissions using fast excitation pulses to amplify signals while rejecting background noise.

Trenches filled with opaque material block unwanted light without increasing sensor footprint.

Single casing with internal partition separates optical transmitter and receiver assemblies, preventing crosstalk while optimizing space utilization.

A light-transmissive conductive member shields a photoelectric sensor from electromagnetic interference while maintaining optical signal transmission.

A microscope casing uses a lid-linked switch to restrict drive voltage on the high-sensitivity detector.

Fixing a quantum dot layer in an inert atmosphere with small molecules prevents oxygen degradation and extends device lifetime.

Angled surfaces direct electromagnetic radiation through a flame detector window to monitor transmission integrity.

A movable detector compensates for temperature-dependent expansion fluctuations using a spring device, stabilizing signal-to-noise ratio.

Faceted hemispherical domes direct infrared radiation onto angled sensors, resolving detection precision issues at high warehouse altitudes.

Opaque dam and encapsulation blocks isolate optical emitter and sensor chips, preventing light interference while maintaining compact device size.

Conformal resilient coating on flex connectors protects traces from bending damage during folding, resolving assembly yield issues in compact proximity sensors.

Needle-like scintillator structures coated with an absorbing film improve spatial resolution while preventing electron saturation in detectors.

A portable radiographic image capture device features a casing with sloped end sections that house internal components within the angled region.

A protective cap with a light-transmitting window isolates the catheter from fixtures during power monitoring.

A moving phosphor plate converts excitation light into broad band illumination with constant intensity and spectrum.

A particle sensor reduces stray light noise by routing scattered light through a first reflector and attenuating unwanted light via a smaller third aperture.

Evaporating water from a boron-10 dispersion deposits a sensitive coating on neutron detector cathodes.

A substrate processing apparatus calculates ink pattern density to select nozzles for uniform distribution.

A controllable apodized lens system directs light into multiple focal points to expand the operational range of optical sensors.

A radiation detector head assembly merges rigid shell extrusion with cast shielding material to form a seamless, unitary structure.

Flat adapter on light curtain end cap holds optoelectronic elements, eliminating dead zones at housing ends.

Absorptive rigid shield and multi-layer insulation decouple thermal stress from the strut, preserving optical spacing precision against stray light.

A lidar device calculates distance using periodic wave phase differences.

A shared circuit architecture combines imaging and pulse detection functions within a single pixel unit.

Removable connector cartridge protects instrument optical ports from contamination and wear during repeated device under test connections.

A detecting layer uses wavelength converting materials to transform visible light into near-infrared radiation for infrared camera sensors.

Determines the critical angle of total internal reflection using image contrast analysis from an existing sensor.

A single-photon avalanche diode device integrates two segmented detectors with matched breakdown voltages to manage dark count rates for precise excess bias control.

Lanthanide halide matrices doped with praseodymium replace thallium to eliminate hygroscopicity while maintaining high light yield and energy resolution.

A fiber optic dosimeter probe uses radiochromic film to monitor radiation dose in real time.

Beam-steering mirrors adjust signal angles to maintain precise line-of-sight alignment on a masted head mirror.

An aperture stop blocks infrared radiation from specific angles to reduce nuisance alarms while maintaining detection performance.

Peripheral welding of the fixing cover eliminates tolerance accumulation, ensuring long-term sealing reliability in harsh environments.

A photodetector measuring system converts ionizing radiation into electrical pulses for evaluation.

Solid-state light sensors detect fluorescent emissions through integrated filter regions within light guides.

Gaseous precursors diffuse into cracks and react to form size-dependent quantum dots, enabling non-destructive visualization of sub-nanometer defects.

A lens body depression uses total internal reflection to redirect light rays toward a receiver.

Dual filters on a single photodiode resolve the trade-off between measurement precision and device complexity by enabling multiple health metrics.

Patterned opaque conductive layers block reflected light to reduce fingerprint sensor noise interference.

Optical integration technique measures single-mode fiber mode field diameter using a gradually variable aperture.

A fluorescence microscope focusing apparatus segments excitation light to form focus images.

An annular scatterer redirects light from thick samples into a light guide via elastic scattering, overcoming evanescent coupling limits.

A colorimetry apparatus mounts light emission and receiving elements on a common substrate to maintain detection accuracy.

A solid-state pulsed time-of-flight LIDAR system uses adaptive pulse control to enhance signal-to-noise ratio.