Microscopes TRIZ Cases

A twelve-element camera optical lens corrects aberrations through specific focal length ratios.

Anti-reflective coatings on low-autofluorescence substrates minimize ghost light, improving signal-to-background ratio in confocal imaging.

A fluorescence imaging system calibrates pinhole locations using excitation path masks to generate composite confocal images.

A condenser arrangement uses swiveling arms to position interchangeable front optics for brightfield and darkfield illumination modes.

Three-group immersion microscope objective corrects spherical and chromatic aberrations to maintain high resolution despite cover glass thickness variations.

Segmented magazine design resolves the trade-off between optical versatility and specimen view obstruction in microscope systems.

A shaped reflective surface redirects light from a single source to illuminate fiber optic ferrule endfaces.

Maximized deactivation light saturation reduces background fluorescence while preserving localization accuracy.

A piezoelectric microscope focusing device uses a dual-block structure to position an objective lens.

Back focal plane interferometry measures mechanical trap drift with angstrom-level precision for real-time optical correction.

Grouping multichannel detector cells prevents unnecessary sensitivity degradation by turning off unused segments while maintaining detection capability.

A solid immersion lens tilts freely within a housing cavity to maintain optical axis alignment with the sample surface.

A rotating optical device transmits light from one source while reflecting others to combine multiple wavelengths.

A microscope uses a beam splitter to direct light from a common detection objective into separate paths for a camera detector and a point detector.

A calibration slide uses metal nanostructures to produce plasmon resonances for generating stable color images under bright-field illumination.

A scanning microscope modulates stimulation light intensity to prevent interference with image acquisition during exposure periods.

Adding optical brighteners to transparent substrates increases signal strength and depth map accuracy by converting UV light to visible emission.

Staged pixel grouping in a confocal microscope accelerates data processing while maintaining high resolution beyond the diffraction limit.

A microscope housing encloses optical components to block external light, while a pinhole filters transmitted light for cleaner imaging.

Variable illumination intensity captures diverse brightness levels without changing exposure time, maintaining frame rate and avoiding chip noise.

A beam splitter assembly guides light through distinct spatial paths to separate spectral portions for microscopy.

A signal processing device generates stereoscopic images by analyzing input content and acquiring viewer-screen distance data to adjust parallax.

Segmentation separates the optical system from the smartphone, resolving bulkiness while maintaining universal compatibility across devices.

A wavelength sensitive optical assembly deforms wavefronts of one light component while phase correcting another to guide beams coaxially.

A microscope uses a non-imaging redistribution element to direct radiation across a detector array.

Adjusting oscillating mirror angles based on optical element positions prevents group velocity delay dispersion and lateral deviations.

A confocal microscope imaging head mounts on a boom stand to enable vertical, lateral, and rotational adjustments for flexible sample positioning.

Different optically effective diameters in stereomicroscope telescope systems increase numerical aperture without expanding equipment dimensions.

A microscope illumination apparatus uses a light diffusing element to create a virtual light source for consistent pupil filling.

An optical arrangement uses an obtuse angle between illumination and detection objective lenses to enhance numerical aperture.

Switching illumination direction via partial and complete image inversion resolves spatial frequency detection limits and shadowing artifacts.

Aperture placement between telescope and tube optics increases light conduction while expanding infinite space for fluorescence microscopy.

A modular microscope objective integrates a laser assembly and indicator beam to align energy through the optical axis.

Multiple reflections on shared mirror surfaces reduce individual refractive power, minimizing chromatic aberrations across broadband wavelength ranges.

Modulated clock pulses define start times, eliminating unused periods and reducing delays between modules.

A lens cover contacts a solid immersion lens top surface to enable precise movement and installation without complex mechanical constraints.

A microscope attachment device decouples focusing movement from lens element positioning to simplify the mechanical structure.

Dedicated optical paths eliminate turret rotation errors, ensuring precise alignment between bright field and fluorescence imaging areas.

Dynamic focal stacking combined with spatial frequency filtering recovers z resolution while minimizing photobleaching in wide field-of-view imaging.

A fluorescence recovery after photobleaching controller computes time-dependent diffusion coefficients from individual data points.

An inverse transformation using a multiple diagonal matrix calculates estimated pulses from the digital signal to eliminate temporal crosstalk.

A surgical microscope system calibrates an optical coherence tomography reference arm to match the objective lens working distance.

Probability analysis weights measured values to determine object surface location, excluding incorrect measurements that reduce positioning accuracy.

An asymmetric phase mask creates a tri-spot point spread function that measures molecular orientation and rotational mobility with high precision.

A transparent flat substrate section contacts a gel-like sample to enable high-definition light collection by an objective lens.

Offset center of gravity in the reticle mount allows self-aligning orientation, eliminating manual adjustments during user head position changes.

Segmented chambers isolate toxic clearing media from objectives while spherical geometry reduces aberrations for deep tissue visualization.