Photometry TRIZ Cases

A flow cell design generates non-Gaussian temporal signals using specific excitation and collection fiber positioning.

A fluorescence detecting method utilizes surface plasmon enhancement at a metal film interface to amplify signals from fluorescent labels.

Direct optical detection of warfarin via fluorescence lifetime overcomes low sensitivity from serum albumin binding, enabling precise therapeutic monitoring.

Periodic action synchronizes laser wavelength scanning with compressor blade passage, resolving insufficient temporal resolution in turbulent environments.

A fluorescence imaging system uses control markers to determine focusing positions before staining biological samples.

A sensor window uses alternating refractive index layers to transmit near-infrared light while reflecting visible colors.

Phosphor layers shift stray light wavelengths outside detection ranges, eliminating false signals from lambertian reflections and sensor cross-talk.

A thermistor sensor uses distinct infrared absorbing and reflecting films to isolate thermal signals across a thin insulating sheet.

Parallelogram rhombs introduce phase retardation via total internal reflection to stabilize optical parameters.

A photometric apparatus corrects measured values using a reflective member to maintain optical path consistency.

A laser scanning microscope design segments the culture vessel and optical system to maintain distinct temperature and humidity environments.

Non-volatile memory preserves image data against power failure in portable X-ray detectors, eliminating retakes and reducing patient radiation exposure.

Segmenting the optical path with a secondary mirror attitude detection mirror separates individual mirror displacement errors from combined optical axis errors.

A sleeve unit surrounds the lens light-incident side to define a protected space for the incoming beam.