Microscopes TRIZ Cases

A displaced pattern lets the optical imaging system calculate offsets and correct stage rotation and scaling automatically.

Iterative activation of target emitters and detector zones reduces microscopy size while preserving image quality and spatial coherence.

Curve-fitted parameters embedded in raw images reduce storage and computation for on-demand flat-field correction in microscopy.

Continuous imaging during sample motion identifies focal depth and distinguishes parasites from non-parasitic entities faster.

Synchronized confocal filtering isolates thin fluorescent sections for precise wavefront correction in volumetric biological imaging.

A smartphone-linked microscope analyzes twelve porcelain surface features to replace subjective authentication with repeatable results.

A lightweight XY/Z actuator separates focus movement from the microscope body for stable wireless three-axis control.

A calibration slide and robotic sample positioning align images from different modalities for coherent, scalable multimodal analysis.

Controlled La3+, Nb5+, and Al3+ ratios plus floating melting support 1.95–2.15 refractive index, 80% transmittance, and stable large glass gobs.

A microscope monitors emitted light and adjusts sample-fluid composition to control blinking and emission lifetime during imaging.

This MSIM approach uses parallel focal points and physical pinhole filtering to improve resolution, scanning speed, and optical sectioning.

Rotated asymmetric illumination and detection pupils reconstruct high-contrast images without full objective-pupil illumination.

A negative-positive cemented doublet corrects chromatic aberration, concentrates light, and reduces fixing and coating complexity.

Two equal-power lenses provide unity-magnification, diffraction-limited imaging for portable anterior and posterior eye capture.

This case uses fluorescence image-quality indicators to set allowable microscope ranges and preserve processing reliability.

Folded relay optics shorten the microscope illumination path while preserving uniform light.

Immersion fluid and curved SIMlens surfaces reduce refractive distortion while allowing three-dimensional sample-holder movement.

A concave third lens group forms an intermediate pupil to reduce lens diameter while supporting aberration correction.

A specified positive meniscus lens and cemented meniscus groups correct chromatic aberration, coma, and field curvature.

La3+ and Nb5+ cation control with floating melting balances high index, transmittance, and devitrification resistance.

A thin-layer sample holder and reference markers help compact microscopy correct scale shifts, distortion, and uneven illumination.

Computational lightfield imaging combines aberration measurement with anterior and retinal imaging in one lower-cost instrument.

Penta-right angle prisms and flexure mounts simplify binocular alignment, focusing, and eye-spacing adjustment in surgical microscopes.

A graphical interface maps cursor position to multiple microscope settings while guiding safe energy combinations.

A fixed probe-signal minimum and prior source geometry resolve closely spaced fluorophores without switchable-source control.

Position sensors detect Z-stack offsets so optical imaging systems can correct image data or reacquire affected stacks after vibration.

A segmented microscope objective uses meniscus and cemented lens groups to balance high NA, long working distance, and wide field imaging.

A spherical-interface mounting stage enables compact, independent linear and rotary adjustments for precise optical alignment.

Autonomous mobile microscopy collects, images, and classifies samples in hazardous environments.

Nineteen spherical lenses and cemented groups support high-resolution, large-field imaging across visible and near-infrared bands.

Optical shearing projects volumetric fluorescence data into one camera frame, accelerating live imaging of dynamic cellular processes.

A common tube lens and thin dichroic splitter align dual-spectral images, reducing distortion and improving contrast.

A delay loop and beam splitters create timed, diminishing pulses so microscopy captures bright and faint fluorescence without saturation.

A non-parallel rotating member switches light conditions while preserving the full angle of view and preventing vignetting.

Real-time feedback aligns light-sheet geometry and detection focal planes, sustaining resolution and signal strength in dynamic specimens.

Viewing status guides spectral and pulsed illumination changes, reducing harmful light exposure during microsurgery.

This case converts line-ordered fluorescence images into wavelength-ordered data, simplifying and accelerating subsequent image processing.

A tip orientation indicator automatically configures connector indices, reducing setup time and errors in optical fiber inspection.

Real-time image processing and two-photon illumination target regions across microscope fields of view for rapid biomolecular sampling.

A processor adjusts microscope field-of-view shift sensitivity with total magnification, balancing fast ROI search and screen tracking.

A single-beamsplitter 4Pi layout encodes z-position in azimuthal phase, reducing channels and calibration demands.

Perpendicular optical surfaces reduce aberrations in modular microscope sample holders.

Indexed galvanometer tilts and static mirrors replace slow mechanical stages, preserving beam clarity for rapid image collection.

External site information narrows the z-scan range, helping optical imaging systems find the best focal plane faster.

A holder-mounted optical system uses LEDs, light guides, and adjustable illumination to improve microfluidic sample observation.

A ring mask with azimuthal polarization and spiral phase modulation reduces focusing diameter and optical loss.

A self-retaining gonioscopy lens attaches to the microscope, maintaining corneal contact through eye and microscope movement.

Fiber combiners and beam splitters enable compact multichannel phase imaging with simultaneous reconstruction of sample phase maps.

This case shows how changing filter geometry and interaction parameters limits angular spread while preserving broad spectral bandwidth.

A 90° illumination and detection path uses an angled optical subassembly for high-resolution oblique-plane imaging with less photodamage.