Microscopes TRIZ Cases

A microscope moves the observation field using a tilted mirror and shift mechanism without moving the sample.

Angled pusher forces maintain optical element alignment during loading, eliminating pixel shift caused by mechanical vibrations.

Multiple projectors emit light onto different planes to cross within the working distance, eliminating mirrors and simplifying the apparatus configuration.

Optical focal references in spacers improve focusing precision on dispersed cytological samples without increasing device complexity.

A catadioptric imaging system combines reflective and refractive optics to reduce thermal stress birefringence in high-power projection.

A scanning microscope unit with a tilt adjustment mechanism aligns the scan lens optical axis to the host microscope system.

Acousto-optic deflectors steer counter-propagating beams for rapid random-access scanning in super-resolution microscopy.

A multi-telescope imaging system uses a single sensor with alternating shutters to capture images from multiple optical paths.

A tilted area scan sensor captures multiple image planes simultaneously to generate contiguous 3D volume data.

Temporal multiplexing enables simultaneous multi-plane imaging, doubling throughput while reducing cross-talk and maintaining signal quality.

A microscope correction objective uses a movable second lens group to adjust optical parameters.

A microscope connecting unit uses relay optics to merge light paths from multiple external devices into a single observation channel.

An acousto-optic system generates traveling inhomogeneously polarized beams for high-resolution surface imaging.

An exterior cover on a microscope stage exposes the slide placement area while preventing accidental falls and positional shifts during movement.

A piezoelectric actuator drives an objective lens using pulsed voltage to correct optical-axis chromatic aberration.

Segmented vacuum chambers and bellows barriers capture 90% of particles larger than 3 nm, protecting precision alignment.

Dynamic spatial light modulators enable 3D particle manipulation in holographic optical tweezers, resolving alignment complexity and fixed beam limitations.

Local intensity minima of suppression light excite fluorescent markers to resolve nanoscale positions beyond the diffraction limit.

A liquid crystal phase modulation device compensates wave front aberrations in laser microscopes by applying controlled voltages to annular electrodes.

A single threaded spindle with axial bearing adjusts binocular eyepiece spacing, eliminating hysteresis and play from dual-drive systems.

Near-field scanning microscopy overcomes diffraction limits by confining electromagnetic fields at a probe apex, enabling label-free biological studies.

A transflective digital holographic microscope system combines reflection and transmission light paths to capture sample data.

Segmenting the objective into four specialized groups manages Petzval sum and coma to maintain high numerical aperture across a wide field of view.

Inverting pin and cutout positions simplifies lens barrel shape, reducing production costs while maintaining reliable attachment.

A nanofabricated test slide uses concentric guides to orient phase objects for precise optical path difference verification.

Three-photon light sheet imaging directs a non-diffractive Bessel beam that preserves axial resolution and penetration depth despite scattering.

A dermatoscope links digital driving values to absolute focus depths for precise skin imaging.

A laser-based autofocus system detects reflections from multiple surfaces using high-resolution cameras to measure spatial characteristics.

A microscope objective changer uses a transfer interface on an immovable carrier to supply energy via connectors on a movable carrier.

Spatially incoherent illumination eliminates speckle artifacts from coherent radiation, enabling accurate dark-field imaging of small pitch alignment marks.

An optical element with distinct central and outer region properties corrects non-uniform light distribution in microscopic illumination systems.

Coaxial laser illumination overcomes copper reflections in high aspect ratio structures by separating fluorescent signals from reflected light.

Segmenting raw line images for parallel artifact correction reduces data transfer time while maintaining measurement precision during bidirectional scanning.

A segmented lifter head uses independent suction cups to transport and deposit coverslips onto microscope slides.

Wavefront coding extends depth of focus while digital filtering restores image resolution, resolving the trade-off between numerical aperture and clarity.

A lens positioning assembly uses a voice coil actuator to move the objective lens along the optical axis.

Electro-optically induced force system scales manipulation by integrating force over longer distances, avoiding sample damage from high peak intensity.

Tilted focal planes in unobscured two-mirror telescopes eliminate central obscuration and diffraction effects while maintaining wide fields of view.

An infinity-corrected microscope objective lens uses segmented positive lens groups to manage light paths and form an intermediate image.

Segmenting the imaging area into subregions allows continuous scanning that captures moving particles, resolving raster scan tracking errors.

A microscope proxy representation allows users to manipulate viewing parameters directly on a display.

A microscope apparatus shifts illumination light to align with the objective lens pupil center during optical-path switching.

Structured light sheet microscopy achieves isotropic optical resolution by minimizing out-of-focus autofluorescence interference.

An auto-focus displacement sensor precedently detects container vertical position to adjust the imaging lens.

A TIRFM microscope spatial filter shapes excitation light into adjustable patterns to control evanescent field penetration depth.

A frame with leveling portions and a compliant device biases the microsection sample, eliminating manual focal adjustments during inspection.

Adjustable axicon lens shapes laser beams into uniform annular illumination for evanescent field excitation.

Parallel microscope array captures microtiter plate samples simultaneously using dedicated chips and lenses.

A dual-configuration microscope rotates its body to switch between upright and inverted modes, eliminating the need for separate equipment.

A microscope focus knob switches between controlling stage movement and vertical focusing, eliminating the need to look away from the eyepiece.