Microscopes TRIZ Cases

A unitary movable mirror device integrates a position sensor, processing circuit, and analog-to-digital converter for direct digital interfacing.

A nano-structured lens collimates light from surface emitters using periodic transparent materials.

Discrete sampling regions measure surface micro-roughness to adjust mechanical processes and improve bonding characteristics.

A Mirau objective integrates optical coherence tomography with orthogonal polarization spectral imaging for skin tissue analysis.

Opposing illumination and detection scans maintain signal-to-noise ratio without mechanical pinholes, enabling faster measurement times.

Integrated discharge channel within protective sheath manages immersion media flow, eliminating user intervention during lens changes.

An optical element with refractive surfaces converts incident light fluxes to parallel beams within a microscope apparatus.

Automated ΔZ and ΔΘ stages correct slide tilt using position sensors, resolving mechanical errors that prevent accurate morphological image alignment.

Fixed diffraction gratings select pattern angles in structured illumination microscopy systems.

A catadioptric projection objective uses a concave mirror and negative lens group to correct chromatic aberrations in semiconductor exposure systems.

Optical microscopy measures partition protrusion height from the base side to ensure accurate sub-pixel electrode alignment.

A polarization scanning interferometer varies optical path length differences between orthogonal light components to generate interference signals.

Segmented apertures align with detector elements to eliminate crosstalk and preserve optical information across wavelengths.

Universal slide loaders route samples to parallel microscope modules, increasing scanning throughput while managing workflow complexity.

A laser scanning microscope uses an acousto-optic tunable filter to adjust light levels with finer resolution than output-power control.

A microscope illumination device uses structured dark field optics to achieve high resolution imaging.

A magnifying observation apparatus executes image synthesis processing asynchronously with z-axis lens movement.

A microscope uses a beam splitter and filter to shield ghosting light from the imaging sensor.

An objective assembly integrates a laser and indicator beam path to provide direct visual feedback in the microscope eyepiece.

A total internal reflection microscope adjusts illumination angle using a piezoelectric element and controller to detect returning light intensity.

A multi-sensor apparatus captures image data ahead of the imaging sensor to determine optimal focus heights for line scan microscopy.

Merging prism bases with a dichroic layer reduces alignment effort and enables compact fluorescence measurement arrangements.

A graphical user interface simplifies digital microscopy operations for young learners through interactive image capture and manipulation tools.

MEMS mirrors rotate and translate to shape the focal surface, eliminating curvature that complicates image stitching.

A primary imaging system uses multiphoton excitation to acquire spectrally separated images of tissue specimens through optical depth sectioning.

Integrates a multi-element optical lens assembly into smartphone camera modules, eliminating bulky external attachments and enabling high-resolution microscopy.

Dynamic optical elements adjust light sheet geometry to reduce specimen shadows and prevent bleaching across different objectives.

A composite microscope integrates STED and two-photon imaging units to align excitation and depletion light spots accurately in three dimensions.

Periodic scanning of the detection region accumulates signals from single particles, reducing wavelength scattering and improving measurement precision.

A multispectral illumination device uses color splitters to couple optical radiation from semiconductor sources into a shared beam path.

A light sheet fluorescence microscope uses a lens array and galvanometric mirrors to transmit sub-images for rapid 3D reconstruction.

An optical scanner detects magnification indicia on microscope objectives to eliminate manual recording errors.

Adjustable correction lens group stabilizes evaluation function slope for microscope autofocus tracking.

A movable light blocking unit positioned between the stage and illumination system blocks direct ambient light entering the objective lens.

A single planar scanning mirror mounted on a rotatable stage moves an excitation light beam along two spatial directions within a microspectrometry system.

Segmented illumination via a spatial light modulator resolves z-coordinate inaccuracies by isolating emitters at specific depths without statistical averaging.

A spectral filter adjusts illumination light spectrum to reduce ultraviolet radiation damage and blue light scattering during ophthalmologic surgeries.

Variable aperture diaphragm adjusts numerical aperture during electronic image scaling to maintain brightness and resolution without mechanical movement.

A biocompatible optical slide uses a dielectric multilayer stack to amplify the evanescent electromagnetic field at the sample interface.

A laser microscope expands signal dynamic range through adjustable full-scale settings to capture high-contrast brightness information.

An oblique plane microscope applies an anamorphic magnification system to reduce pixel readout time and resolve volumetric imaging inefficiencies.

Sparse activation of photoswitchable fluorophores enables sub-diffraction resolution imaging, bypassing the constraints of standard fluorescence microscopy.

Separate subunits with conjugate light sources and apertures resolve optical adjustment complexity while maintaining high imaging accuracy.

A microscopic observation apparatus uses segmented photoelectric conversion elements to detect filtered fluorescence signals from an irradiated target.

An ocular tube integrates a projector to superimpose assistive images directly onto the optical image plane.