Microscopes TRIZ Cases

An aperture on a light shielding member blocks flare light to maintain signal-to-noise ratio and acquisition range.

Automated mobile microscope stage captures images using onboard processing to reduce system complexity and cost.

Functional equation modeling of slide surface heights allows automatic lens adjustment, resolving the trade-off between imaging quality and scanning efficiency.

A gamma-ray microscope uses a single-point source generated by positron and electron beam collisions to achieve high-resolution imaging.

A microscope slide holder uses securing blocks with ramps to guide substrates into position.

Graphene plasmons enable nanometer resolution imaging while minimizing sample damage from high light intensity.

Inverting the camera assembly below the sample stage lowers the center of gravity, resolving the trade-off between portability and imaging stability.

A micro-camera array microscope refocuses individual lenses on detected features to capture high-resolution images across large specimen areas.

Heated oscillating wires impact foil tape on laboratory cassettes, resolving damage from stylus dragging while ensuring sharp markings.

Segmented optical components resolve complexity trade-offs by supporting simultaneous recording and overlays.

Laser scanning microscope applies disturbance correction via weighting factors during MINFLUX imaging, reducing motion blur and improving localization accuracy.

A microscope camera captures and compares interstitial material images to detect optical fiber positioning errors.

A phase cancellation microscope uses spatial light modulation to detect single-shot neural action potentials with high sensitivity.

A microscope processor detects image position shifts during lens correction and activates a scanning unit to realign the optical path.

Variable aperture openings match individual light source images in the conjugate plane, reducing stray light and improving imaging quality.

Asymmetric joint point spread function fiduciary markers enable precise 3D position tracking in fluorescence microscopy.

A small-diameter objective optical system uses segmented lens groups to correct aberrations while maintaining a compact form factor.

A scanning microscope uses an isolation unit to separate irradiation and emitted light paths, resolving detection efficiency limits of dichroic mirrors.

Placing beam splitter in infinity space resolves structural complexity while maintaining high light throughput.

Transform processing isolates merged wavelength peaks in thin workpieces to resolve measurement precision errors.

A mid-infrared refractive lens assembly uses an aplanatic front element to gather and focus electromagnetic radiation.

Segmented lens components with optimized dispersion reduce group delay dispersion while correcting astigmatism for bright multiphoton images.

A cast microscope plate body with a recessed beam path dampens internal vibrations and maintains rigidity for stable imaging.

A multiplexed metalens array captures 4D light fields using interleaved sub-elements with distinct phase profiles.

Three segmented lens groups correct field curvature and spherical aberrations to ensure uniform image quality across a wide field of view.

Parallel laser diodes enable rapid writing of microstructures, overcoming the trade-off between local resolution and throughput.

A five-lens variation system adjusts imaging scale to resolve fine object details.

A pivot system rotates a holder to position lighting units, eliminating sliding contacts and reducing installation space.

Acoustic wave modulation in a fluid medium replaces mechanical mirrors to achieve megahertz switching speeds and high energy throughput.

A relay optical system connects off-the-shelf imaging lenses with liquid resonant lenses, reducing design time while maintaining adaptability.

Meso-optical elements eliminate secondary maxima through interference to maintain focused excitation cross-sections in scattering specimens.

Oblique stage movement maintains orthogonal alignment to resolve optical path length variations during focus adjustment.

Arrayed visual inspectors use multiple microscope probes to examine fiber connector end-faces simultaneously.

Dual spatial light modulators apply distinct intensity distributions to generate Fourier transformed pseudo speckle patterns.

A microscope illumination system switches between confocal and GSDIM modes using a scanning mirror device and a focusing lens.

Multi-step photoactivation prevents unintended dye activation by high-intensity STED stimulation light, enabling precise spatial resolution.

Digital processing merges single-camera images with varied parameters to resolve the trade-off between optical complexity and stereo imaging capability.

Variable-width saw blade shielding grooves in a lens barrel suppress flare and ghosting by reflecting stray light back toward the object side.

Autofocusing system adapts wavelength and spatial position via dynamic rules, resolving static focus limitations in microscopy.

Segmented lens elements extend working distance beyond focal length to resolve trade-offs between measurement precision and standoff accessibility.

An active stereoscopic shutter splits light from a single microscope lens into separate paths, enabling stereo imaging without degrading optical quality.

A method adjusts light beam intensity in an acousto-optical tunable filter by modifying sound wave amplitude.

A localization microscopy method adjusts excitation radiation intensity to control fluorescence emitter blinking frequency for rapid image capture.

Controller computes rotation and displacement values to guide manual detector adjustment, resolving alignment errors in multi-wavelength microscopy.

Interfering partial illumination beams generates structured patterns within the sample plane to enhance optical resolution.

A scanning microscope uses a position sensor to measure stage transverse displacement and orientation for probing system adaptation.

Rotatable reflectors route optical signals through an amplifier or bypass it to adapt image acquisition across varying illuminance levels.

A laser scanning microscope alternates between galvanometer and resonant scanners to optimize observation modes.

C-shaped stand relocates electronics to base, reducing disturbing contours and motion forces.