Microscopes TRIZ Cases

A high NA objective lens focusing apparatus uses a reflective element to capture images from selected focal planes within an intermediate image zone.

A diffraction phase microscope uses a grating and Fourier mask to separate and filter zeroth- and first-order beams for quantitative imaging.

Multi-beam confocal scanners capture images at sub-optical increments to generate enhanced spatial resolution.

Axial chromatic aberration encodes depth into wavelength, capturing multiple focal planes simultaneously without side access or multiple lenses.

Segmented detection paths with a reflector redirect missed photons to secondary sensors, improving signal brightness and tissue penetration depth.

A digital optical sensor captures reflected light for endothelium imaging without supplementary photo-detectors.

Piezoelectric-driven acoustic waves alter fluid refractive index in a tunable lens, overcoming mechanical mirror speed limits and energy throughput losses.

A Fourier transform lens and annulus mask generate non-diffracting Bessel light sheets for fluorescence microscopy.

Rotatable turrets align independent LED sources and filters, resolving wavelength selection flexibility limits in conventional microscopy.

A microscopy system uses microphones to capture operational sounds for precise activity monitoring.

Apply pixel-specific error parameters to correct sCMOS sensor noise, resolving the trade-off between modeling complexity and measurement precision.

A beam-shift mechanism moves illuminating light rays to maintain objective lens pupil alignment during two-dimensional scanning.

Maximum intensity projections align SPIM image stacks, reducing computational burden and avoiding biological interference from artificial markers.

A microscope device varies illuminating light phase to generate specimen images from feedback light differences.

A surgical microscope adjusts illuminating light intensity via a control unit and signal generator to prevent tissue damage.

Ultrasound cavitation creates air bubbles as intermediary scattering centers, extending confocal microscope imaging depth without resolution loss.

Segmenting the diffraction pattern across multiple pixels maintains signal-to-noise ratio while achieving resolution beyond the diffraction limit.

An oscillating substrate holder moves a fluidic channel to enable high-resolution 3D particle imaging.

A lens system uses a compressible elastic separation portion to adjust focus between curved optical surfaces.

A waveguide chip directs light through divided paths to outputs arranged transversely for structured illumination.

Liquid crystal polarization grating lenses replace slow mechanical stages with all-optical switching, enabling true simultaneous multi-plane imaging.

A method registers measurement signals over time to control an adaptive optic for correcting imaging errors.

A quantitative phase microscope integrates laser scissors to manipulate and image cellular structures without fluorescent labels.

Electronic control coordinates objective selection with automatic grating insertion, eliminating manual pattern changes and reducing setup time.

Eyepiece optical system compresses focal length to shrink binocular barrel volume, resolving the trade-off between wide field of view and heavy prism size.

A light sheet microscope records a subset of images with at least fifty percent overlap to mathematically reconstruct intermediate planes.

A fast frequency-tunable optical relay uses a single acousto-optic device in double pass to switch beam configurations rapidly.