Microscopes TRIZ Cases

Static one-dimensional beam distribution avoids high peak intensities that induce photodamage in sensitive biological samples.

A saturated polycyclic hydrocarbon and alkyl aromatic compound mixture maintains stable refractive index and viscosity across varying temperatures.

Ratiometric motion signatures subtract sample drift from interferometric scattering signals, enabling real-time kHz processing.

Acousto-optical beam splitter directs illumination light via mechanical waves, eliminating disruptive stripes from dichroic splitters.

Replacing mechanical mirrors with a 1D phase spatial light modulator eliminates inertia limits to enable high-speed 3D random access scanning.

Adjustable dispersive device distributes focal spots across the back focal plane for simultaneous multi-wavelength imaging.

Dual beam paths and area sensors determine contrast differences, resolving wavelength-dependent penetration depth deviations in modular zoom systems.

A confocal microscope objective lens uses a meniscus component to correct axial chromatic aberrations across wide wavelength ranges.

Angular modulation encodes spatial frequency data into captured images, enabling super-resolution reconstruction without expensive specialized hardware.

A rotatable refractive optical component adjusts the lateral position of a focused light beam within an optical microscope system.

Segmented illumination sources improve stereoscopic perception while reducing device complexity and cost compared to universal coaxial systems.

A cylindrical camera cover houses the lens system with an integrally molded eyelid part to shield stray light and maintain structural integrity.

A three-dimensional confocal microscopy system uses linear-polarizing structured light to capture high-resolution surface images.

A scanning light microscope uses image processing filters to generate optical signals from photoelectric conversion elements.

A structured illumination microscopy imaging system uses line-scanning spatiotemporal focusing to generate sinusoidal light patterns for high-resolution fluorescence capture.

Segmented modules resolve manufacturing cost trade-offs while a security module manages digital rights for image access.

An up-conversion infrared microscope uses a large-aperture objective lens to collect light from the sample.

Segmented impeding beams correct residual background fluorescence to improve signal-to-noise ratio.

A microscope objective lens uses a specialized glass medium to guide pulsed light while maintaining pulse integrity.

Two-pass capture with transmission and reflection modes identifies dust artifacts to correct high-resolution macro images.

An afocal optical system converts illumination light into parallel fluxes, reducing vignetting and light loss across extended distances.

A single particle detection device identifies light-emitting and non-light-emitting particles using a scanning microscope.

A computer-based method monitors optical focus drift values against predefined thresholds to maintain image sharpness.

An optical observation device discriminates imaging data timing during sample stage movement.

Applying least squares to multiple phase-shifted images suppresses noise and enhances spatial frequency components for accurate super-resolution imaging.

Phase and intensity imaging determine complex dipole optical polarizability without prior knowledge of particle composition.

A UV CT fluorescence microscope achieves high-resolution 3D imaging through coincident focal points.

A depth-scanning microscope uses a periodically moving reference mirror to enhance temporal and spatial resolution in distance measurements.

A single spatial light modulator generates and tiles optical lattices to expand the imaging field of view in lattice light sheet microscopy.

Motor-driven stage aligns cell clusters with the optical axis to acquire high-magnification slice images of fluorescence or luminescence.

Removable warm stops enable magnification switching without complex adjustment mechanisms that increase device scale.

Placing the light emitting unit below the eye eliminates eyelid shading while merging power supply lines to reduce installation space.

Stationary front optics and moving focusing elements adjust detection plane height, eliminating heavy vessel positioning time.

A donut-shaped inhibition zone confines excitation light to minimize sample damage during high-resolution imaging.

Interpolating drive tables specify scanning paths between microscope areas to eliminate processing delays from auxiliary stabilization scans.

Differential scanning isolates target emission by subtracting background noise, improving measurement precision in fluorescence imaging.

A microscope stage uses a two-dimensional scale plate to enable precise X-Y-Z coordinate measurement.

A movable head-mounted stereoscopic display system captures real-time video streams and aligns them for the surgeon.

A fluorescence microscope adjusts evaluation parameters using user-defined thresholds to mark fluorescent light distribution areas.

A confocal slide-digitizing apparatus employs a tilting mechanism to adjust the imaging unit relative to the slide handling unit.

A two-photon synthetic aperture microscope captures multi-angle projections using diffraction limit holes to enhance spatial resolution and imaging speed.

Active gradient refractive index lens adjusts focal length dynamically to capture sharp images across multiple depth planes.

Offset Airy disks on a single detector enable spectral discrimination without multiple detectors, reducing device complexity and alignment costs.

Radio frequency generator adjusts signal based on temperature to stabilize acousto-optical components.

Moving the objective lens instead of the sample holder eliminates acceleration-induced blur while maintaining high-throughput imaging speed.

Replacing static lenses with curved mirrors eliminates chromatic dispersion and off-axis aberration while maintaining precise beam centration.

A pulse width correction device adjusts laser light passing through an optical system using two-photon sensors.

A microscopy device generates a multi-wavelength spot pattern to scan samples efficiently.

Removable tissue mount with a well and stem secures biological samples on a microscope base.