Fluorescence/Phosphorescence TRIZ Cases

Merging n and n+1 photon absorption into one 1080-1140 nm band eliminates sequential scanning delays while reducing photodamage.

BonFIRE spectroscopy converts infrared vibrational signals into fluorescence, overcoming water background interference and enabling single-molecule sensitivity.

A fluorescently labelled analyte binding protein and analogue enable rapid point-of-care detection of small molecules in blood samples.

A cyanine-xanthene fluorescent composition selectively stains blood cells while dissolving non-target biomaterials.

A cleavable linker connects a protein of interest to a split fluorescent fragment, resolving folding delays that degrade temporal resolution.

A fluorescence lifetime measurement apparatus computes lifetimes using a least square method applied to simulation functions and detected signals.

Spatial modulation suppresses detector polarization influence while maintaining signal-to-noise ratio for accurate low-intensity measurements.

Irradiate plant parts with varying light wavelengths to measure chlorophyll fluorescence for determining substance content.

A single europium chelate donor emits at two distinct wavelengths to excite separate acceptors for simultaneous dual-analyte detection.

Regression mapping assigns colormap values to voxels based on fluorescence channel correlation for precise three-dimensional visualization.

A reflective member with two surfaces redirects excitation light to align optical spots within a fluorescence detection device.

An angled laser assembly and baffles reduce background noise by 20-fold, enabling high-sensitivity point-of-care protein analysis.

An organic light-emitting diode paired with an optical resonator enhances photoluminescence detection efficiency in a compact device architecture.

Gradient coherent laser field drives resonance fluorescence spectrum to determine atom positions with sub-wavelength precision.

Adapting optical drives for biosensors resolves measurement time versus specificity trade-offs.

Solid PMMA matrix incorporates fluorophores to eliminate solvent evaporation and photodegradation in field analyzers.

An event-based detection unit tracks particle velocity by monitoring luminance changes across a pixel matrix, compensating for positional drift during sorting.

A fluorescent detection system employs a probe with a small sensing surface area and high molecular weight polymer conjugates to capture analyte signals.

A sensor chip with a dielectric member positions the ligand immobilization part between 3b/8 and 6b/8 from the resin inlet to maintain stable signal-to-noise ratios.

A microelectronic sensor device determines wetting grade via light intensity changes at the contact surface.

NIR-II rare earth nanoprobes eliminate tissue autofluorescence interference, achieving accurate tumor biomarker quantification.

A plastic product incorporates a luminescent material that emits specific wavelengths when irradiated, enabling secure authentication without visual inspection.

Pulsed light irradiation generates terahertz waves for solar cell inspection with active temperature control.

A time-resolved intrinsic fluorescence method measures protein decay curves to quantify co-eluting species without extrinsic labels.

A microbial particle measuring apparatus calculates concentration by analyzing the slope of fluorescence intensity waveform during specific time periods.

A stochastic sampling device aligns tabs with a light beam source to collect analytical signals and identifier data simultaneously.

A ratiometric method characterizes fluorescent particles by detecting emission intensity at two distinct wavelengths to determine localization and interaction states.

Fluorescence quenching microscopy images transparent two-dimensional sheets using a quenching substrate and fluorescent dye layer to generate high contrast.

A monolithic lens and reflector unit combines convex and flat surfaces to control optical radiation propagation within a single transparent body.

Functionalized plasmonic nanostructures on an LSPRi chip determine extracellular analyte concentrations without fluorescent labeling or spectrometry.

A microtiter plate system uses simultaneous LED excitation and detection to enable rapid kinetic fluorescence measurements across multiple wells.

A portable one-pot biosensor uses a photocatalyst substrate with metal nanoparticles to detect target molecules via fluorescence resonance energy transfer.

Uninterrupted integration of luminescence responses to excitation pulses determines relaxation parameters using a simplified sensor system.

A simplified fluorometric process measures fluorescence kinetics of biological samples to characterize cellular states without continuous illumination.

A state determination device measures delayed fluorescence and phosphorescence from an inspected object to identify its physical condition.

Computing luminescence decay time resolves detection errors caused by light-impermeable plates and non-deterministic intensity variations.

A diagnostic kit uses distinct first and second blocking agents to isolate target analytes from interfering antibodies during fluorescence detection.

A fluorescing gel formulation applied to surfaces provides objective cleaning verification through UV radiation detection.

A fluorescence probe aptamer system uses optical sectioning to selectively activate target recognition units for precise molecular analysis.

Correlating measured luminescent patterns with reference patterns rejects background signals to improve measurement precision.

Dynamic reagent dispensing manages anisotropy saturation to extend measurable concentration range while maintaining low-concentration sensitivity.

Positioning a DNA chip before the focal point improves height difference detection accuracy for microarray analysis despite reduced fluorescence intensity.

An optical detection device merges excitation and fluorescent light fibers with selection filters to simplify assembly.

Parallel determination chambers saturate sour gas at distinct temperatures and pressures to resolve slow single-condition testing bottlenecks.

Back side illumination photodiodes in biochips collect light from the wafer bottom, avoiding metal wiring absorption and circuit interference.

A detection system uses a magnet arrangement to attract magnetic beads to a substrate surface for fluorescence analysis.

Segmented capture regions eliminate crosstalk between adjacent sensing areas, allowing optimized detection order and high sensitivity.

A fluorescent indicator bonds with quaternary ammonium compounds to enable non-destructive antimicrobial coating detection under ultraviolet light.

A positively charged aggregation-induced emission luminogen detects cardiolipin via fluorescence intensity measurement.

A sealing element with a fluorescing layer re-emits ultraviolet light to visually indicate seal integrity without destruction.