Microscopes TRIZ Cases

A mesoscope imaging system uses synchronized multi-channel illumination to achieve high-speed, high-resolution optical capture.

Resonant scanning mirrors and GPU-accelerated interpolation correct distortions, enabling high-speed volumetric imaging that exceeds Nyquist sampling limits.

Interchangeable filter and dichroic modules enable rapid wavelength switching, resolving the trade-off between system versatility and structural complexity.

A beam expanding telescope mediates focus control to eliminate vibration transmission through immersion liquid while maintaining high sample throughput.

Capturing the eyepiece field diaphragm as a light spot on a camera sensor enables automatic image mask alignment, eliminating manual adjustment complexity.

Detachable front-end lens enables deep imaging with index-matching solvents while maintaining long working distances.

Segmented optical channels in a large format biocular lens correct spherical and chromatic aberrations for minimal distortion.

Sequential region segmentation enables high laser power for deep PpIX detection while minimizing photobleaching and safety risks in neurosurgery.

A multi-channel computational fluorescence microscope system synchronizes signals across a camera array for high-resolution imaging.

Dynamic beam path switching optimizes light intensity distribution between optical observation and digital capture, reducing radiation exposure during surgery.

Smartphone cameras replace complex spectrophotometers to measure light spectra, reducing equipment costs while maintaining assay precision.

Pyramidal frustum light mixing elements homogenize distributed sources to reduce direct reflections on non-flat samples.

An automated laser system replaces manual pen marking to eliminate cumbersome rotation and improve labeling accuracy during microscopic examination.

An automated opto-mechanical assembly replaces manual positioning to pivot a microscope, resolving inspection time and error trade-offs.

A method defines local coordinate systems for serial sections to automate high-magnification imaging of selected regions.

Subwavelength metasurface structures in a planar metalens expand Fresnel zone plate diffraction to overcome the 300 nm optical resolution limit.

Localizing fluorescence illumination via spatial light modulators prevents carbon support film heating and preserves vitrified ice integrity.

A microscope uses a rotating condenser turret to switch optical elements for rapid observation method changes.

An inclined carrier surface eliminates pedestal requirements, resolving integration complexity while maintaining high-resolution imaging.

A both-side telecentric illumination optical system uses a movable field stop to maintain optimal light distribution across varying magnifications.

Demagnified illumination achieves nanometer resolution beyond the diffraction limit without complex mechanical alignment.

A microscope display unit integrates with a movable mechanical arm to expand the visual output area while maintaining a compact physical footprint.

Rotational probe arrays eliminate background bias by excluding the center point.

A microscope auto-focus system estimates focal distance using cumulative averaging of previous measurements to guide image acquisition.

A hypercentric lens assembly uses a high numeric aperture aspheric element to converge light into a small spot for image formation.

A bayonet-style attachment apparatus uses a ring part and retaining collar to secure microscope objectives.

A fluorescence imaging system projects an in-focus light pattern through a pinhole mask to generate composite confocal images.

A controllable phase mask shapes illumination light into a uniform sheet by adjusting spatial phase angle deviations across alternating regions.

An illumination turret switches optical elements to adjust aperture and field stops for precise observation modes.

A scanning microscope uses orthogonal scanners with distinct oscillation speeds to capture sample images.

Branching the optical path across multiple SSPDs distributes photon load to prevent detector saturation and boost maximum counting rates.

Beam splitter overlays digital images on optical paths, avoiding fluorescence interference and stroboscopic effects.

Position sensors detect head orientation to dynamically adjust the microscope optical path, eliminating manual alignment errors in surgical exoscopes.

A magnifying observation apparatus uses a light projecting unit to irradiate ring and directional illumination for generating display image data.

A dynamic focusing system uses a deformable sealing member to maintain constant chamber volume while displacing an immersed objective.

Aperture plate displacement enables linear scanning in confocal optical systems.

A ptychographic imaging system uses a rotatable mirror to direct light from a single source through a converging lens for multi-angle illumination.

A projection device attaches to a microscope photo-port and directs illumination through a pattern mask onto the object plane.

An electrical rotary feedthrough enables automatic component identification during rotation, eliminating the need for complete turret revolutions.

Varying optical filter diameters across microscope units suppresses off-axis vignetting and expands the observation field.

A modulation contrast microscope uses a modulator with 1 to 8 percent transmittance to enhance sperm tail end visibility.

Digital image sensors and processors replace mechanical optics to reduce adjustment time while maintaining measurement precision.

A perpendicular objective mount converts conventional microscopes to selective plane illumination microscopy.

A compact detection device integrates an image sensor with a light-guiding structure to capture fluorescence signals from multiple specimen wells simultaneously.

A scanning microscope system calculates amplitude and phase changes to assign sampling values accurately.

Compliant kinematic mounts secure substrates without deformation, ensuring consistent imaging quality across variable geometries.