Microscopes TRIZ Cases

This optical filter design creates same-angle wavelength groups, reducing angular spread for high-resolution confocal imaging.

This case adapts microscope FOV shift sensitivity to total magnification, helping users track ROIs smoothly during digital zoom.

Multiple wavelength sensors automatically adjust focus, avoiding manual refocusing for visible and fluorescence imaging.

This light sheet microscope uses collimated beams, Scheimpflug optics, and error correction for clear 3D imaging with fewer moving parts.

Controlled wavelength bands let one microscope sensor capture both reflectance and fluorescence images in separate operating phases.

This rear-adapter case uses segmented, movable lens groups to maintain high etendue, broad zoom magnification, and field illumination.

A beam splitter and light guider homogenize illumination inside a confocal scanner, reducing size and cost while preserving image quality.

Variable-index optics combine wavefront control for high-resolution imaging deeper in tissue.

An optical target, retention arm, and dust cover support precise positioning and continuous calibration in microscopy assemblies.

A collimator and beam-shaping optics format fiber light for uniform rectangular illumination, reducing clipping and stray-light noise.

Parallel line sensors capture fractional-pixel offsets, enabling higher-resolution slide images without sequential pixel shifting.

Dove prisms, lenslets, and cylindrical lenses encode 3D fluorescence lifetime data for fast reconstruction with lower-cost detectors.

A monolithic microscopy body integrates optical pathways, while modular inserts and direct sensing reduce assembly and alignment complexity.

A pulse picker selects femtosecond bursts for fast, high-contrast imaging of unprepared tissue with reduced damage and motion artifacts.