Examples of using Diffraction limit in English and their translations into German
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Beam quality near diffraction limit.
Excellent diffraction limited lateral resolution of 200- 300 nm.
Microscopy beyond the diffraction limit.
This is below the diffraction limit of conventional microscopes 250 nanometers.
Spatial resolution beyond the diffraction limit ca.
Sharp down to the diffraction limit of the measurement system in the center, slightly blurred at the edges.
The resolution is also very high, close to the diffraction limit.
Divergence, M squared(M2), diffraction limit, wave front distortion- we know how to calculate a beam path.
Microscopic vibrational spectroscopy at or beyond the diffraction limit.
GLOSSARY Diffraction limit A new wave is emitted from every point in a light wave, for instance when it hits the edge of an object.
However, Scanning Near-field Optical Microscopy(SNOM) overcomes the diffraction limit and generates high-resolution optical images.
On the basis of our proven TCS SP8 platform,we now offer a complete portfolio for confocal imaging beyond the diffraction limit.
This phase-shifting interferometer works at the diffraction limit and is compatible with standard 4”(100 mm) reference optics as well as accessories.
Scanning Near-field Optical Microscopy(SNOM): Optical imaging with resolution beyond the diffraction limit 60- 100 nm lateral resolution.
The small focused laser beam is diffraction limited which means that there is no stray lateral interference, which improves the image contrast.
Tip-Enhanced Raman Spectroscopy(TERS)enables the acquisition of chemical information with a lateral resolution far below the diffraction limit.
Using the developed hybrid optics, structures below the diffraction limit can be synthesized across the entire working distance of the optics.
The alpha300 S uses unique micro-fabricated SNOM cantileversensors for optical microscopy with spatial resolution beyond the diffraction limit.
If the distance between two objects is smaller than this so-called"diffraction limit", they can no longer be visually separated- their image appears"blurred.
STED microscopy is a Nobel-Prize-winning technology that allows high-resolutionfluorescence images to be generated far below the diffraction limit.
Define spherical aberrations, coma, astigmatism, chromatic aberration, distortions,explain Abbe's diffraction limit, classifying Zernike polynomials with respect to the context.
Super-resolution microscopy is based on the knowledge that the position of a single fluorophore can be located much moreprecisely than the~200 nm range dictated by the diffraction limit.
With featured SNOM objectives and unique cantilever SNOM sensors,imaging beyond the diffraction limit is accomplished quickly and effortlessly with the WITec SNOM microscopes.
The Institute of Cytobiology is currently one of four institutes in theworld to test a microscope with a resolution well below the diffraction limit nanoscope.
Photolithography follows the fundamental principle of Abbe's diffraction limit, which defines the minimum distance that must lie between two structures in order to identify them as separate structures.
Because mirrors and diffraction are utilized instead of transmissive lenses,the final image is nearly diffraction limited and free of almost all aberrations.
STED microscopy breaks the diffraction limit by downscaling the spot where fluorescence is generated and provides fast and direct, purely optical super-resolution fast enough for live cell imaging and without need of additional data processing.
The available wavelengths cover the range from 473 nm to 1340 nm with optical powers between 5 mW and1,5 W. The beam quality is almost diffraction limited with M2 values less than 1,2 or 1,1.
The research areas include optical microscopy beyond the diffraction limit, multi-dimensional microscopy, spectroscopy with high spatial and temporal resolution, x-ray optics and X-ray imaging, lensless imaging, time-dependent X-ray scattering, data reconstruction and inverse optical problems.
All of these innovative characteristics make the handling of probes during near-field microscopy very easy anduser-friendly for the most reliable optical imaging available beyond the diffraction limit.