Sentences with phrase «developed by a microscope»

Ana Andrade has abstracted the smallest fragment of the landscape, which were later developed by a microscope, making visible the most invisible particles of Playas de Tijuana.

Not exact matches

Veeraraghavan said SAVI leans on work by the California Institute of Technology and the University of California, Berkeley, which developed the Fourier ptychography technique that allows microscopes to resolve images beyond the physical limitations of their optics.

They proposed a new way to study a cuprate, one that no other group had tried: a powerful imaging technique developed by Davis, called sublattice imaging - which is performed using a specialized scanning tunneling microscope (STM) capable of determining the electronic structure in different subsets of the atoms in the crystal, the so - called sublattices.

Specifically, the MPI / Wyss Institute team developed the technique for «Spinning Disk Confocal» (SDC) microscopes that detect fluorescence signals from an entire plane all at once by sensing them through a rotating disc with multiple pinholes.

Instead of approaching the problem by creating better imaging software that helps to increase the resolution after the fact, as most high resolution microscopes do, Shroff and his lab developed a microscope with better lenses and mirrors so that the higher resolution is captured in the original image.

The researchers developed a novel algorithm that can recover the phase information from a stack of bright - field images taken by a classical microscope.

A collaborative team led by researchers from Osaka University has therefore developed an optical system for use in full - field X-ray microscopes that offers a more practical way to overcome the chromatic aberration problem.

The technique, developed by two separate research groups, one at Princeton led by Thomas Gregor, associate professor of physics and the Lewis - Sigler Institute for Integrative Genomics, and the other led by Nathalie Dostatni at the Curie Institute in Paris, involves placing fluorescent tags on RNA molecules to make them visible under the microscope.

Together with Professor Philipp Mayer, who is presently employed at the Technical University of Denmark (DTU), she has developed a new test setup that allows exposing the ciliates to a concentration gradient while concurrently enabling their observation through a microscope in real time and measuring the transport of PAH by means of chromatographic methods.

In recognition of their work in developing the scanning confocal microscope to the point where it is used in hundreds of research laboratories worldwide and reveals microstructures not discernible by other methods.

First developed by Nobel Laureate Dr. Eric Betzig, the 3i Lattice LightSheet microscope is capable of imaging biological systems spanning four orders of magnitude in space and time.

Ever since the 1980s, when Gerd Binnig of IBM first heard that «beautiful noise» made by the tip of the first scanning tunneling microscope (STM) dragging across the surface of an atom, and he later developed the atomic force microscope (AFM), these microscopy tools have been the bedrock of nanotechnology research and development.

Now, Rosso and teams at PNNL, EMSL, the Environmental Molecular Sciences Laboratory, a DOE Office of Science User Facility at PNNL, and the University of Pittsburgh developed a new approach by combining an environmental transmission electron microscope, called an ETEM, with nanocrystal force probes that allows scientists to watch crystals interact in a life - like situation.

A French and Japanese research group has developed a new way of visualizing the atomic world by turning data scanned by an atomic force microscope into clear color images.

By taking multiple images of the iron - platinum nanoparticle with an advanced electron microscope at Lawrence Berkeley National Laboratory and using powerful reconstruction algorithms developed at UCLA, the researchers determined the precise three - dimensional arrangement of atoms in the nanoparticle.

An international research team led by Mats Nilsson at Uppsala University and Stockholm University / SciLifeLab has developed a small, 3D - printed microscope that is connected to an ordinary cell phone.

The project was born in 2011, when Golshani read about a miniaturized microscope developed at Stanford University that was light enough to be worn by a laboratory mouse.