Sentences with phrase «cell resolution imaging»

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«The new Park Nanoscience Center at SUNY Polytechnic Institute provides researchers with greater access to Park Systems» cutting - edge AFM nanoscopic tools, featuring reliable and repeatable high - resolution imaging of nanoscale cell structures in any environment without damage to the sample.»

The field of live - cell imaging has expanded greatly in recent years, but still faces many challenges, such as how to improve spatial and temporal resolution as well as how to keep cells healthy for extended periods of time.

Previously, high - resolution live imaging has been done with cells cultured on glass slides, which flattens samples.

Earlier, for his Ph.D., he used his physics training to study biological interactions at the molecular resolution — but for his postdoc he changed approaches dramatically, turning to cell biology and applying his skills to the development of high - resolution functional imaging of DNA transcription in living cells.

Because SR - STORM gives full spectral and spatial information for each molecule, the technology opens the door to high - resolution imaging of multiple components and local chemical environments, such as pH variations, inside a cell.

This method has already been used successfully to reach a maximum resolution in the imaging of cells.

To determine the most common type of age - related segregation errors, the researchers first used a novel high resolution imaging technique to visualize chromosomes in live mouse egg cells throughout the whole first stage of meiosis.

His work involves high - resolution imaging of chick embryonic tissue slices to study the cell - biological mechanisms driving neurogenesis in the spinal cord, for which Dr. Das played an instrumental role in pioneering new imaging technology.

But several new imaging techniques at a range of resolutions provide new views — and new understanding — of how cells function.

learn from our speakers the benefits of imaging live cells using techniques such as high resolution microscopy, superresolution microscopy, and high - content analysis

Building on traditional SIM technology, the iSIM allows real - time, 3 - D super resolution imaging of small, rapidly moving structures — such as individual blood cells moving through a live zebrafish embryo.

This kind of imaging is impossible with other microscopes; the ones that are fast enough to record rapid movement do not have a high enough resolution to see inside the cells; and other microscopes with similar resolution are just too slow to capture that amount of motion clearly.

The significance of the team's approach is that it «enables imaging of live cells in a high - throughput manner at a time resolution at which all biologically relevant dynamics appear static,» he said.

Exploratorium, San Francisco Study live specimens, like mouse stem cells as they progress toward becoming beating heart cells, at the high - resolution Microscope Imaging Station.

The new methods dramatically improve on the spatial resolution provided by structured illumination microscopy, one of the best imaging methods for seeing inside living cells.

Invaluable as markers for monitoring photosynthesis and other energy - related processes in living cells, green fluorescent proteins (GFPs), discovered in a species of jellyfish, are vital in extremely high - resolution imaging studies.

In studying the functional behavior of the brain, from control of muscles to the formation of memories, scientists are using such tools such as electron microscopy, recordings of electrical signals from individual brain cells, and imaging of brain structures and processes using functional magnetic resonance imaging (fMRI), positron emission tomography (PET), and high - resolution optical imaging.

The researchers used a 2 - photon photolysis technique that can be performed in vivo, together with imaging, to manipulate and monitor neuronal activity at single - cell resolution.

The speed, noninvasiveness, and high spatial resolution of this approach make it a promising tool for in vivo 3D imaging of fast dynamic processes in cells and embryos, as shown here in five surrounding examples.

Contact: 508-289-7139; [email protected] WOODS HOLE, Mass. — Using a simple «mirror trick» and not - so - simple computational analysis, scientists affiliated with the Marine Biological Laboratory (MBL) have considerably improved the speed, efficiency, and resolution of a light - sheet microscope, with broad applications for enhanced imaging of live cells and embryos.

Ueda, Kurihara and their colleagues improved the resolution of this imaging technique to be able to observe the internal structure of the cell.

The High Resolution Electron Microscopy Facility (HREMF) provides a resource to the scientific community at MD Anderson for high resolution imaging of cells, tissues, organs or polymers containing cancResolution Electron Microscopy Facility (HREMF) provides a resource to the scientific community at MD Anderson for high resolution imaging of cells, tissues, organs or polymers containing cancresolution imaging of cells, tissues, organs or polymers containing cancer agents.

The combination of two processes makes this high - resolution 3D imaging possible: lattice light - sheet microscopy (LLSM), which images one slice of the cell at a time, and adaptive optics (AO), which corrects for any blurriness.

But the development of new, high - resolution imaging technology able to capture single cells has finally enabled scientists to reliably chart noise at this level, and to study how it influences behavior.

To address this, I am building a microscope and developing analytical tools for high resolution live - cell imaging in Archaea - friendly conditions, i.e. 70 - 80ºC, low pH and minimal photo damage.

Combined with spinning confocal, it enables Super Resolution to be achieved at high speed and low photo - toxicity, making it the ideal solution for live high resoluion cell imaging.

Several more researchers presented their work during the day, including protein synthesis at atomic resolution, bio-imaging opportunities at synchrotrons, multi-dimensional imaging during plant cell differentiation, how to use electron cryomicroscopy for in situ structural biology, and how structured illumination microscopy can offer insights into the regulation of mammalian meiosis.

Furthermore, the microscope will be capable of performing live - cell super-resolution imaging through structured illumination microscopy (SIM) and Super-Resolution Radial Fluctuations (SRRF); for fixed cells resolutions on the scale of tens of nanometres will be achievable using single molecule localization microscopy (SMLM) techniques.

Currently, there is no commercial microscopy system available for live imaging of Archaea with sufficiently high spatio - temporal resolution to accurately observe processes such as cell division.

Cell biology has continued to expand ever since, extending its impact on clinical medicine and pharmacology while drawing on new technologies in bioengineering, high - resolution imaging, massive data handling, and genomic sequencing.

Multiplexed Imaging Here the goal is to add spatial resolution to cytometry - data in order to understand, in a tissue, WHERE immune and cancer cells interact We design, develop and apply methods for multiplexed visualization of protein and RNA molecules in tissue sections.

The Plant Cell Imaging Center (PCIC) provides researchers at Boyce Thompson Institute (BTI), Cornell University, and SUNY Cortland with access to high - resolution fluorescence microscopes, including a confocal microscope with spectral and quantitative imaging capabiImaging Center (PCIC) provides researchers at Boyce Thompson Institute (BTI), Cornell University, and SUNY Cortland with access to high - resolution fluorescence microscopes, including a confocal microscope with spectral and quantitative imaging capabiimaging capabilities.

While imaging captures brain activation during specific tasks and therefore may identify general brain regions that are abnormal in diseases, it does not have that critical cell - level resolution.

The Metabolomics & Proteomics Technology Unit will offer localizomics approaches based on MS Imaging on tissue / organs slices (or on in - vitro cell cultures), either in targeted MS (i.e. drug and metabolites distribution) or in untargeted high resolution (HR) MS (metabolite profiling).