Microscopes TRIZ Cases

A light sheet microscope uses a microlens array to simultaneously image multiple object planes around the focal plane.

A laser scanning microscope uses light path switching units to direct optical signals through shared components.

Dynamic gain adjustment in fluorescence microscopy prevents signal overflow while maintaining detection sensitivity for weak phenomena.

Replacing elastic members with magnetic force allows the solid immersion lens to swing smoothly against a spherical body, resolving resistance issues.

Rotational stage holds multiple optical objectives to resolve heat generation and measurement precision trade-offs in semiconductor integrated circuit testing.

A digital microscope adjusts bright and dark field light ratios using a movable optical fiber bundle to display sample textures.

A microscope system reproduces virtual tours via display to guide user operation.

A segmented beam splitter selects wavelength ranges and polarization directions for partial illumination beams in multi-spot scanning microscopy.

A conical observation container seals liquid immersion medium using the objective lens barrel to prevent evaporation during microscopy.

A multiscale imaging system combines MINFLUX nanoscopy with STED microscopy to capture biological specimens at molecular resolution.

A stretched light field microscope expands the information budget by scaling field of view and image circle diameter.

A microscope system outputs graphic data representing the influence of user-defined adjustment parameters on data acquisition steps.

Planar mirrors redirect light from commercial binoculars to reduce cost for remote surgery.

High refractive index solid immersion lens transmits light through specimen features for sub-nanometer resolution imaging.

Rotating diffusers in a variable coherence illumination device reduce coherent artifacts, enhancing phase shift measurement accuracy.

Autofocus module maintains stable optical instrument focus by splitting light into parallel paths, eliminating z-axis drift and scanning interruptions.

Combination microscopy resolves the contradiction between high spatial resolution and measuring speed by segmenting samples into regions of interest.

Electric microscope stage employs microswitch detection to prevent objective lens contact with the specimen, eliminating collision damage risks.

Tension control assemblies lock lenses via tensile cords, eliminating manual adjustment delays during ophthalmic procedures.

An observation device adjusts focal length and position via displacement sensors to enable rapid auto-focus control.

Lateral displacement of quartic metalenses compensates chromatic aberrations for broadband illumination.

A microscope controller divides images into sub-regions to generate in-focus position information using contrast evaluation.

A segmented microscope lens barrel design incorporates a movable extension unit to support heavier measuring devices.

Multichip LEDs enable variable illumination angles without mechanical parts, reducing heat influx and wear in surgical microscopes.

A rotating prism assembly in the adapter corrects image orientation for flexible camera positioning without software processing.

Printed fiducial markers on microscope slides establish a precise reference focal surface for accurate optical imaging.

Manual lens adjustment in the module housing resolves low visual precision by enabling clear fiber end face imaging without complex electronics.

Segmented aperture diaphragms in this illumination device enhance red reflex efficiency and minimize unwanted reflections during eye surgery.

Five-group immersion microscope objective uses cemented triplet lenses to correct optical aberrations.

An observation optical system with alternating positive and negative lens units corrects field curvature and astigmatism when eye relief changes.

Movable lenses adjust the numerical aperture of illumination light on an objective lens pupil plane to control the beam profile.

Non-reflective adhesive layer collects dust and prevents light flares on the camera module optical filter.

A five-element optical configuration uses a fifth lens with an inflection point to correct aberrations while maintaining high imaging performance.

Metal nanostructures produce plasmon resonances to generate fluorescence images for microscope calibration.

An ophthalmic surgical microscope uses an oscillating optical element to generate a volumetric image with enhanced depth of field.

A beam deflector merges manipulation and illumination beams to eliminate dual-synchronisation complexity.

Autofocus microscope apparatus detects refractive index changes at substrate interfaces, maintaining focus accuracy despite varying plastic thickness.

Learning mode stores validated microscope settings to resolve configuration complexity and user-friendliness trade-offs.

Merging illumination components with the focusing arm eliminates separate light sources that risk loss or theft while enabling multiple incident angles.

Automated calibration of focus, contrast, glare, and color temperature balances monocular cues to resolve depth perception confusion and observer fatigue.

Macro and micro observation systems share a unified optical path to minimize device footprint.

Cylindrical lenses create asymmetric magnification to resolve trade-offs between optical sectioning capability and field of view in SCAPE imaging systems.

Optical glass composition balances SiO2, B2O3, and La2O3 ratios to deliver unique anomalous dispersibility across spectral ranges.

An adjustable collimator couples a liquid light guide to a microscope optical train, enabling precise focal distance and illumination area control.

An inverted microscope integrates a removable switching device between the objective and tube lenses to adjust observation wavelengths and magnifications.

Segmented beam paths with Köhler optics suppress reflections while maintaining red reflex homogeneity.

Segmenting a spatial light modulator into wavelength-specific zones maintains diffraction efficiency while enabling rapid multi-color excitation.

An absorbent cap lens reduces retroreflected light intensity by absorbing stray rays at the optical interface.

An automated microscope alignment system uses image processing and motor-driven mounts to optimize focal depth registration.

A transition element corrects optical aberrations in TIRF microscopy by matching refractive indices between the immersion medium and specimen carrier.