Microscopes TRIZ Cases

Achromatic projection modules create compact dark helix light distributions to determine longitudinal positions of re-emitting sources on biological samples.

A nonlinear optical microscope adjusts laser beam diameter to optimize pupil filling ratio for specific sample conditions.

A fluorescence event counting method evaluates microscope images by initializing counters for defined regions and incrementing them upon identifying non-overlapping events.

A microscope stage aligns slide marks to coordinate axes for precise position management.

Radial scanning detects relay lens surface curves to calculate lateral offsets, automatically adjusting the OCT scan origin and eliminating manual recentering.

A beam splitter directs extrafocal light to a separate detector, reducing background noise and crosstalk in thick samples.

Swept Confocally-Aligned Planar Excitation microscopy uses an oblique light sheet swept by a scanning mirror to capture simultaneous depth images.

Inclined immersion chamber bottom aligns light sheets with objective focal planes, simplifying sample movement on inverted microscopes.

An imaging lens uses an optical component with alterable refractive power to adjust focal position continuously.

Dual light paths and insertable modules enable 3D imaging while resolving the trade-off between versatility and device complexity.

An electrically tunable lens changes focal length to observe samples at different depths while maintaining a stable visual field range.

Rotating turret inserts phase plates into the pupil conjugate plane, adding phase contrast capability without replacing the core microscope system.

A microscope dichroic mirror moves to a predetermined position on the observation light path to align with the objective lens optical axis.

A microscope system uses a spatial light modulation device to adjust illumination intensity and wavelength for dynamic image quality optimization.

A field lens array with variable curvature elements images a pupil stop to generate an array of pupils for optical detection.

Segmented lens groups with cemented elements correct chromatic and high-order aberrations, enabling deep tissue imaging through reduced Rayleigh scattering.

A flow cytometer generates three-dimensional cell images by combining cross-sectional fluorescence data captured during continuous fluid transport.

Automated microscope system calculates optimal correction collar settings using iterative image data evaluation.

A microscope camera system captures images of optical fibers to verify actual movement against expected distances.

A multi-layer dielectric waveguide resonantly couples incident light to a leaky guided mode, amplifying the evanescent optical field at the sample surface.

A spatial shaping unit generates light patterns using synchronized acousto-optical deflectors.

Adjusts focus and spherical aberration using image contrast feedback to resolve simultaneous control challenges in high numerical aperture microscopy.

Passage openings in the loupe wall drain liquid from the intermediate space, preventing optical blurriness during eye surgery.

Multiple phase filters on a rotating wheel enable high-resolution microscopy across broad wavelength bands by overcoming narrow spectral limitations.

SLAPMi scans excitation lines at multiple angles using a spatial light modulator, overcoming raster scanning bottlenecks to achieve kilohertz framerates.

Independent spot intensity control improves temporal dynamic range and reduces photodamage during rapid biological process observation.

Automated Z-axis adjustment and adaptive scanning patterns resolve manual focusing errors while increasing specimen analysis throughput.

An automated method defines the z-range using image sharpness measurements for rapid microscope operation.

A specimen holder adjustment method uses reflected illumination radiation captured by a detector to establish actual positioning relative to the beam path.

Coordinated lens group movement eliminates breathing artifacts during focus adjustment, preserving field of view and depth of field.

An image scanning apparatus adjusts focal position during imaging using pre-scan data for accurate tracking.

Wavefront phase and amplitude modulation shapes coherent light to overcome diffraction limits in scattering samples without high-power sources.

A pivoting deployment mechanism moves a secondary measurement aid between deployed and retracted positions on an optical sensor assembly.

Segmented electrodes on a perovskite crystal prevent resonance from piezoelectric effects, ensuring stable light modulation.

A computing unit evaluates the integrated measurement signal from a silicon photomultiplier to determine incident photon counts.

Spiral sample rotation reduces imaging time and stress on living organisms while maintaining high-resolution tomograms.

High-intensity illumination cycles fluorescent molecules between states, enabling sub-resolution imaging that overcomes the diffraction limit.

A stereo 3D imaging system splits near-infrared laser beams to capture simultaneous dual-view images for rapid depth reconstruction.

A wavelength-selective overlay measurement device adjusts optical band widths for distinct wafer layers.

A scanning microscopy method uses deconvolution to generate high-resolution images from overlapping detector signals.

A nanoscale imaging system uses a displacement probe and rotational stage to measure longitudinal elevations for high-resolution surface analysis.

Time-multiplexed laser beams scan multiple sample areas simultaneously to expand the imaging field of view.

A tensioned microscope objective mount uses displacement sensors to detect relative movement and prevent hard crashes.

Temporal focus modulation switches illumination modes to reduce out-of-focus scattered light, improving imaging accuracy and enabling deeper sample penetration.

A microscope apparatus detects objective lens focus position and adjusts the focus state to acquire magnified images without seams between adjacent regions.

Integrated controller synchronizes dual cameras to synthesize RGB data, enabling naked-eye 3D viewing without binocular eyepieces.

Integrating microscope optics within a tactile sensor resolves the trade-off between deep bore accessibility and Z-axis precision.

A dye-doped liquid crystal cell modulates phase in the Fourier plane to generate high-contrast images from coherent light beams.

An automatic polarizing device uses stepping motors to rotate polarizers, eliminating manual slide rotation for accurate birefringent material analysis.

Algorithm generators optimize manipulator travel paths to correct imaging aberrations, reducing computational complexity while maintaining precision.