Sentences with phrase «microscope image taken»

A transmission electron microscope image taken at Argonne shows the honeycomb structure of the silicon nanowires.

Not exact matches

The only species Onstott has observed in action are nematode worms; he could see them squirming under a microscope, and took detailed electron microscopy images of their hundredth - of - an - inch - long bodies.

«One rather exciting feature is that the images taken under the electron microscope show the nanowires to have a slightly different shape,» says co-author Thomas Keller from DESY NanoLab.

Image of a blood smear from a cell phone camera (left), following enhancement by the algorithm (center), and taken by a lab microscope (right).

The Shot: Pan took this digital image with an Olympus FluoView FV1000 confocal microscope using a 20x objective and a photomultiplier tube.

This artist rendering is based on an image of deoxyribonucleic acid (DNA) taken with an atomic force microscope (AFM).

The image, captured by a scanning electron microscope, was taken as the nanowires grew on silicon at room temperature.

The neurons were traced from a large set of monochrome pictures of the rabbit's retina taken with an electron microscope, such as the black - and - white images on either side of the neural tangle.

These scanning electron microscope images of coccolithophorids were all taken by Markus Geisen of the Alfred Wegener Institute for Polar and Marine Research in Bremerhaven, Germany.

This an image taken of a toroid using a confocal microscope, false - colored by height.

The identification is based on images taken with a scanning electron microscope.

Both images are taken with a scanning electron microscope.

The emitted light is blue - green, Lupton says, but images accompanying the paper — taken with a scanning tunneling electron microscope — show the rotelle - and spaghetti - shaped molecules with a false yellow - brown color to provide good contrast.

The image has been taken in a fluorescence microscope.

Now they will be able to see the images instantly instead of waiting hours or sometimes days, and the data itself takes about 1 % of the hard drive space as that produced by previous microscopes.

Traditionally, SPIM microscopes rotate the sample so that they can clearly see all the dimensions, but this severely limits the imaging speed and can increase the damage done to the cells from light exposure because of the many extra images taken at multiple angles.

Using electron microscopes, the scientists took images of the thin films (about 100 nanometers thick) of the material they prepared, before and after they hit the films with low - energy protons.

Image taken with polychromatic scanning electron microscope.

Images taken with an electron microscope confirmed that not only was its DNA separate from the rest of the cell, it was enclosed by a double membrane — just like the membrane envelope surrounding the nucleus of complex cells.

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

Unlike many images of crystalline structures, this one is not taken with an electron microscope.

Images taken with a fluorescent microscope show the activity of a kinase (green) in tumor cells (bottom) compared to normal cells (top).

An automated microscope takes images every 20 minutes at multiple locations in the microfluidic device, and multiple devices at once, allowing for the tracking of dozens of cells in one experiment.

A software - controlled microscope peers into each capillary and takes images of the biochemical reaction occurring therein.

Now Peter Velikov and Siu - Tung Yau at the University of Alabama at Huntsville have used an atomic force microscope to take the first images of the birth of the seed crystals, a process called nucleation.

First image of the structure of a silicon crystal lattice taken by scanning tunneling microscope (STM), by Gerd Binnig and Heinrich Rohrer (1983) STM is one of the primary methods we use to see individual atoms and molecules, and it revolutionized many areas of science, including materials science (nanotechnology).

The molecular bonds in a Pentacene molecule, by IBM Research (2009) Taken with an atomic force microscope, which grew out of the technologies pioneered by Bennig and Rohrer's STM, this is the first image ever taken that shows molecular bTaken with an atomic force microscope, which grew out of the technologies pioneered by Bennig and Rohrer's STM, this is the first image ever taken that shows molecular btaken that shows molecular bonds.

The results, and some incredible images taken by electron microscope, were published in Science on Sunday night.

Images were taken with the confocal microscopes Zeiss LSM710 and image analysis was accomplished with Fiji (ImageJ).

The image was taken with a confocal laser scanning microscope and shows cells giving strong inmmunofluorescence staining for CD3 antigen (green), indicating presence of cells of T - lymphocytes origin in the infarct zone of the heart tissue, counterstained nuclei with DAPI (blue).

Images were taken on a Zeiss LSM 510 confocal microscope (Carl Zeiss, Canada) equipped with Argon and Helium - Neon lasers.

Images of lungs were taken using a digital microscope camera.

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.

Nodules on the surface of lungs were visualized under the dissecting microscope, and a USB digital camera (Leica Microsystems, Bannockburn, IL, USA) from the microscope was used to take gross images of each lung.

Images were taken on a DeltaVision OMX V4 Blaze super-resolution microscope (Applied Precision, GE Healthcare).

The image was taken using a fluorescent microscope at the SLIM facility in the School of Life Sciences.

Ban's group — which developed the coating for silicon electrodes, called alucone, and is currently the only group that can create alucone - coated silicon particles — took high magnification images of the particles in an electron microscope.

An image taken with a microscope shows a cross section of the trap of a humped bladderwort (Utricularia gibba).

This is your last opportunity to view this ground breaking exhibition, featuring 15 larger - than - life images taken with a scanning electron microscope.