Microscopes TRIZ Cases

Segmenting correction elements near the pupil plane and intermediate region resolves the trade-off between imaging quality and device complexity.

Software replicates optical paths to analyze virtual samples, preventing physical specimen degradation during training.

Synchronized flash illumination and rotating diffraction grating resolve photoreceptors despite limited depth of focus.

A dry objective lens uses a moving component to correct wavefront aberrations across the optical axis.

A carrier moves between defined stop poses to set capture angles with high repetition accuracy.

A motor adjusts air spacing between lens groups in a microscope objective to correct spherical aberration across varying substrate thicknesses.

External beam delivery eliminates internal lens scattering noise, enabling high sensitivity detection of sub-resolution defects.

A microscope uses a beam-splitting grating to duplicate light into angled beams for simultaneous three-dimensional multispectral imaging.

A variable power optical system for stereo microscopes uses coordinated lens group movement to enhance magnification flexibility.

Phase-modulated structured illumination detects fluorescence intensity to determine single molecule central location with high precision.

A light-pad microscope uses a diffraction-limited light-sheet to confine fluorescence excitation within a specific focal plane.

Using long-pulse excitation light above 150 picoseconds reduces cost by enabling inexpensive laser sources while maintaining super-resolution.

An inverted microscope forms a stable liquid column between the immersion objective and sample container to enable precise focal adjustment.

Virtual relay lens corrects spherical aberrations and coma from oblique light paths through sample carriers.

A scanning microscope directs a light beam to an offset entrance pupil area to generate a variable thin light sheet for high-resolution imaging.

Intersecting objective lenses separate illumination and detection paths, reducing feedback noise during deep tissue scanning.

Segmented laser beams penetrate deeper tissue layers, resolving low intensity and poor diagnostic accuracy in wide field FLIM.

Stepwise optical saturation combines weighted fluorescence images captured at varying irradiance levels to generate high-resolution output.

Wave front modulation creates a focal intensity minimum that reduces fluorescent dye bleaching during high-resolution scanning.

Anti-reflection layer on rotating plate suppresses light beam reflection from high-flatness surfaces, enhancing imaging quality.

A variable focus stereoscopic display system adjusts the optical focus plane to match viewer eye vergence for accurate depth perception.

A handheld optical probe uses a micromirror to direct laser beams through an objective lens for tissue imaging.

A microscope objective lens uses a diffractive optical element to correct chromatic aberration while maintaining high numerical aperture.

A microscope uses phase-modulated fringe illumination and multiple detectors to generate super-resolution images.

Aspherical third lens compensates negative power to reduce manufacturing complexity and cost.

Wavefront modulating elements correct sample-induced aberrations to maintain diffraction-limited resolution during volumetric imaging.

Segmented quadrant photodiodes resolve position measurement precision losses when tracking multiple objects with a single laser beam.

Rotating turret positions mirror units and analyzer on the optical axis to switch observation modes, preventing alignment errors during method changes.

Variable focus lenses adjust light sheet focal distance to enhance axial resolution in selective plane illumination microscopy.

Objective testing module integrates mechanical probe with microscope turret for in-situ sample deformation analysis.

A five-element plastic lens assembly uses aspheric surfaces to correct optical aberrations in compact mobile devices.

Spatial light modulator controls optical modes in a multimode fiber to steer and focus an output beam.

A Doppler observation device uses Fourier transforms to extract data from moving objects.

A microscope manipulation device generates variable illumination patterns upstream of a beam splitter to enable individual pixel activation in the detector.

A dedicated stand positions a smartphone camera over an assay device using polarized lenses to reduce glare.

A light microscope adjusts illumination diaphragms to cover equal-sized cross-sectional areas, producing contrast images by offsetting brightness differences between settings.

Piezoelectric microlens array segments optical paths to capture parallel image data, resolving diffraction bottlenecks that limit high-magnification speed.

A microscope illumination lens projects light to infinity while a rectangular diaphragm blocks stray paths.

Adapter arm stabilizes optical coherence tomography probes on surgical microscopes, resolving handheld alignment difficulties.

An oblique plane microscope uses reflecting elements in intermediate image spaces to redirect detection light bundles back into objectives.

A microscope uses a fiducial pattern to establish focus on the inner surface of a fluidic channel without illuminating fluorescent labels.

A calculation section measures light path differences from single interference images to determine surface shape.

Annular light source set directs beams toward the optical axis to illuminate samples.

Virtual trap centers and dynamic reference frames recover relative displacement data lost during mobile trap operations, enabling accurate force measurements.

A vortex-pair beam optical tweezer system manipulates particles via spatial light modulator phase diagrams.

A surgical microscope directs measurement light onto the retina to form an image whose position determines refractive error.

A microscope lens barrel uses a deflecting optical system to guide observation light through a triangular prism and plane mirror.

Illumination device images a radiant field stop into a specific plane to direct light through the microscope objective system.

A predictive focus tracking system derives error signals in advance to maintain nanometer-scale precision during rapid sample scanning.

Frame-synchronized acousto-optic scanning of excitation wavelengths enables simultaneous imaging of multiple subcellular targets with high temporal resolution.