Microscopes TRIZ Cases

A visual interface displays macroscopic and confocal images to enable precise tissue site selection.

Beam modulation means modulate illumination perpendicularly to the axis, enhancing detection resolution and penetration depth in scattering media.

A beam splitter device couples measurement radiation from the illumination path to a monitoring detector.

Path length difference compensation arrangement matches excitation and emission beams to resolve light efficiency versus optical space constraints.

A catadioptric scanning microscope uses a curved partially transmissive mirror to focus excitation beams toward the sample focal plane.

Tilted optical axes resolve spatial resolution limits in small vessels by enabling continuous light sheet imaging during sample translation.

Dynamic nozzle positioning suppresses air bubble formation during lateral jet injection, enabling clear imaging and unhindered objective exchange.

A sample positioning stage uses a dual-mode drive system to enable seamless manual and motor operation.

A tilted autofocus image sensor acquires oblique cross-section of slide tissue to generate polar error signals via contrast comparison.

A microscope optical group uses spectral splitting and beam selection to enable parallelized imaging modes.

Flexible bristles between the lens and cover manage stray light entry, resolving volume-weight trade-offs while preventing flare artifacts.

Selective re-snapping of individual fluorescence microscope channels reduces sample bleaching and acquisition time by avoiding full series re-capture.

Divergent illumination sources detect sample carrier reflections for precise distance and tilt determination in microscopy systems.

A microscopy controller analyzes a single image captured through a tilted epi-illumination module to determine focus direction and distance.

A microscope estimates specimen surface shape to determine optimal Z-scanning conditions for each observation area.

Rotatable mirrors adjust horizontal and vertical image spacing, resolving the trade-off between multi-image output and device complexity.

Structured illumination with a spatially modulated imaging field reduces scattering interference and enhances resolution in dense tissue samples.

A microscope apparatus uses a movable reflector module to adjust optical path length for capturing phase images.

A rotating microscope body enables seamless upright to inverted configuration switching.

Segmented lens units correct aberrations to resolve the trade-off between wide observation area and magnification accuracy.

Periodic pulsed excitation reduces photobleaching while maintaining temporal resolution for biological imaging.

Four-group immersion microscope objective design corrects spherical and chromatic aberrations.

A sample shape measuring apparatus calculates surface tilt using transmitted light intensity ratios through the observation optical system.

A fluid-driven alignment device adjusts optical elements using pneumatic pushing forces balanced against elastomeric deformation.

Six-mirror imaging optics use a through-opening mirror and transverse pupil plane to reduce light loss.

Spectral segmentation directs overlapping fluorophore emissions to separate detectors, reducing cross-talk and enabling precise multi-color imaging.

Aggregating detection times in separate memories and combining them computationally reduces pile-up errors while increasing excitation light intensity.

Stationary microlens array projects diffraction-limited foci onto moving sample to resolve device complexity trade-off in image-scanning microscopy.

A microscope system projects an F-stop pattern onto a specimen to empirically determine depth of field boundaries.

A laser pulse shaping method assigns phase, amplitude, and polarization to frequency components using temporal and spatial modulation devices.

Segmented crystals on stepped surfaces enable high-speed beam steering, reducing power consumption while maintaining imaging resolution.

Optical design balances imaging quality against lens length through precise parameter changes, achieving low distortion and long operating distance.

An adapter mechanism rotates an imaging unit relative to a microscope base around shared optical axes.

Nanopatterned porous silicon oxide coatings on multiple lenses enable average transmittance of 70% or greater in the 450 nm to 1600 nm range.

A static cylindrical lens generates an Airy beam light sheet to maintain axial resolution across a large field of view without complex spatial light modulators.

A heated stage assembly uses an optical window to transfer thermal energy uniformly to specimens during fluorescence microscopy.

Detection unit corrects imaging region signals using adjacent pixel data to improve signal-to-noise ratio.

A microscope system uses a table-based interface to manage image capture conditions for multiple light groups.

A microscope reflection mechanism adjusts optical path length via movable mirrors to change magnification levels.

Segmented illumination and parallel optical arms improve spatial resolution while reducing photo-damage in live specimen imaging.

A micromirror array in the pupil shaping assembly defines illumination angles, resolving intensity distribution inconsistencies across the object field.

A spatial light modulator imparts a time-varying phase gradient to laser illumination during detector integration.

A microfluidic cell sorter uses a scanning Bessel-Gaussian beam to image individual particles flowing in a carrier fluid.

Repeated scanning accumulates photons across lower-intensity cycles, preventing detector saturation while reducing photon noise for super-resolution imaging.

Dynamic profile matching corrects focus across warped sample slides by comparing real-time optical data against stored reference profiles.

A lens adapter telecommunication unit uses arc-shaped pin contacts to maintain electrical connection between interchangeable lenses and camera bodies.

A wave front manipulator element integrates directly into the objective pupil to control light phase via metamaterials.

Medical stereoscopic observation device applies prestored correction data to adjust parallax between imaging sections.