Sentences with phrase «cell imaging technology»

To pursue these studies, the Noma laboratory employs genomic technologies and single locus / live - cell imaging technology along with molecular and chromatin biology and epigenetics.

Not exact matches

A veteran of digital imaging technology, in 1999 he founded Quantitative Imaging Corp. (QImaging), a manufacturer of digital cameras for scientific and industrial uses — the kind, for example, that can detect microscopic, early - stage cancerimaging technology, in 1999 he founded Quantitative Imaging Corp. (QImaging), a manufacturer of digital cameras for scientific and industrial uses — the kind, for example, that can detect microscopic, early - stage cancerImaging Corp. (QImaging), a manufacturer of digital cameras for scientific and industrial uses — the kind, for example, that can detect microscopic, early - stage cancer cells.

CAREstream America also distributes a large line of Aesthetic products ranging from water - jet assisted technology, to ultrasound imaging, to cell counting and vascular access imaging.

The latest in live - cell microscopy — multiphoton imaging, light - sheet techniques, and technology borrowed from Raman spectroscopy — allow researchers to study living cells in more detail with less effort.

Scientists at Barrow Neurological Institute have recently made discoveries about use of a new technology for imaging brain tumors in the operating room — a finding that could have important implications for identifying and locating invading cells at the edge of a brain tumor.

At Actelion, employees are increasingly motivated by visualization technologies, such as automated live - cell imaging and high content screening, that offer new means to view and quantify cellular, even subcellular, processes.

Quantum dots, which have use in diverse applications such as medical imaging, lighting, display technologies, solar cells, photocatalysts, renewable energy and optoelectronics, are typically expensive and complicated to manufacture.

To better determine the role of specific chemoattractants in type III hypersensitivity, lead author Yoshishige Miyabe, MD, PhD, a research fellow in Luster's lab, used multiphoton intravital microscopy — an imaging technology pioneered for studies of immune cell movements in living animals by CIID investigator and co-author Thorsten Mempel, MD, PhD — to follow in real time the development of IC - induced arthritis in a mouse model of rheumatoid arthritis.

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.

«After surgery, you always have microscopic cells that spread,» he says, «and they hide throughout the brain, beyond the areas we can visualize by any kind of imaging technology.

Through the new imaging technology, researchers use fluorescent imaging to locate proteins and other molecules in cells and tissues.

The detection and imaging of protein - protein interactions in live cells just got a lot more colorful, thanks to a new technology developed by University of Alberta chemist Dr. Robert E. Campbell and his team.

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.

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.

Using sophisticated imaging technology, they were then able to watch as the broken ends of the chromosomes were reattached correctly or incorrectly inside the cells.

«Scientists design bacteria to reflect «sonar» signals for ultrasound imaging: New technology may one day allow doctors to image therapeutic bacterial cells in patients.»

Employing the advanced technology of the Institute's Cytometry, Imaging and Histology centers, the researchers examined the relationship between megakaryocytes and hematopoietic stem cells in mouse bone marrow.

Researchers from PSG College of Technology, India have developed nano - contrast agents for magnetic resonance imaging (MRI) as well as optical imaging of cancer cells.

Researchers in China have developed tiny nanocrystals that could be used in the next generation of medical imaging technologies to light up cancer cells.

CellSearch is used primarily to check the progress of cancer treatment, whereas U.C.L.A.'s imaging technology could find cancerous cells at an earlier stage, before they can form a new tumor.

His laboratory currently applies high throughput imaging technologies to study trafficking between the endoplasmic reticulum and Golgi complex, and the internalization pathways taken by synthetic nanoparticles on exposure to cells.

The researchers used two - photon calcium imaging and patch - clamp electrophysiology, two sophisticated technologies that allowed the researchers to record the signals from individual brain cells.

Systems Biology and Genomics, including systems neurobiology, quantitative cell biology, cellular dynamics, algorithms, methods and technology development, data integration and visualization, imaging, synthetic biology, deep learning applied to biology and human health, and single cell biology.

They found that injecting into the carotid artery breast cancer cells that express markers allowing them to enter the brain — cells labelled with bioluminescent and fluorescent markers to enable tracking by imaging technologies — resulted in the formation of many metastatic tumors throughout the brain, mimicking what is seen in advanced breast cancer patients.

Using state - of - the - art micro-computed tomography and digital imaging technology applied to hundreds of fossil and recent molars, Ortiz and colleagues created virtual maps of the dental landscape of developing teeth to chart the precise location of embryonic signaling cells from which molar cusps develop.

The injected cells express markers that allow them to enter the brain and are labelled with bioluminescent and fluorescent markers to enable tracking by imaging technologies.

IDMIT is an infrastructure for preclinical research in infectious diseases and immunology which is certified ISO9001 and which includes 1) A large animal facility with capacity to host NHP in BSL2 and BSL3 containment, 2) State - of - the - art laboratories for cell biology, immunology, molecular biology, flow cytometry and mass cytometry (CyTof), cell - sorting and confocal microscopy in BSL3 containment; 3) A biological resources centre with high storage capacity; 4) Highly innovative technologies for in vivo imaging of large animals in BSL2 and BSL3 containment, including a two - photon microscope, a PET - CT facility, and several optic based technologies (fibered endo - microscopy, near infra - red imaging).

We are also equipped with advanced imaging system technology offering non-invasive longitudinal monitoring of disease progression, cell trafficking and gene expression patterns in relevant models using non-virulent mycobacteria tagged with bioluminescense genes.

diSPIM technology enables rapid 3D imaging of samples ranging from single cells to small organisms over the course of hours to days.

We develop antibodies that may help us detect cancer cells through highly sensitive medical imaging technologies, as well as antibodies that directly trigger cell - killing mechanisms in the tumour.

This research makes use of single - molecular fluorescence imaging technology to visualize and analyze the behavior of exogenous DNA that were introduced into the cell from outside.

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.

Today, analyzing and editing genomes, proteomes and metabolomes has become a standard for many model systems; imaging beyond the diffraction limit of light and new technologies for studying protein structures provide insights deeper than ever before; the characterization of large populations of cells or organisms brings unprecedented statistical power; and studying nearly all organisms of an ecosystems as a whole allows generating comprehensive models.

This significant speed difference combined with the superior sensitivity of high end CCDs has made spinning disk confocal a must have technology for advanced live cell imaging labs.

We employ a wide variety of state - of - the - art technologies such as in vivo optical imaging and high - throughput methods including cell - based screening, genomics, and proteomics approaches.

The Bulte Lab has developed methods to label cells magnetically using tiny superparamagnetic iron oxide nanoparticles in order to make them visible by magnetic resonance imaging; this technology has now been introduced in the clinic for several cell therapy applications.

・ Use of single - molecular fluorescence imaging technology to elucidate the fate of DNA introduced into a living cell.

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.

We've devised ways to test patients using new imaging technologies to measure the health of their retinal ganglion cells and of their fibers entering the optic nerve.

Topics covered include embryonic stem cells, pluripotency, germline stem cells, tissue - specific stem cells, stem cell differentiation, epigenetics, stem cell genomics and systems biology, genome reprogramming, cancer stem cells, stem cell niches, stem - cell - based disease models, nuclear transfer technology, bioengineering, drug discovery, in vivo imaging of stem cells, therapeutic applications, regenerative medicine, clinical and translational insights, stem cell research policies, ethical issues, and technical or resource - based innovations.

The overall goal of the Cell Imaging Shared Resource is to supply VICC researchers with access to cutting edge technology and expert technical support for microscopic observation and analysis of tissue and cellular anatomy and physiology related to cancer research.

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).

To pursue these studies, we employ Hi - C and ChIA - PET genomic technologies and single locus / live - cell imaging approach.

By combining two state - of - the - art imaging technologies, Howard Hughes Medical Institute Janelia Research Campus scientists, led by 2014 chemistry Nobel laureate physicist Eric Betzig, have imaged living cells at unprecedented 3D detail and speed, the scientists report on April 19, 2018 in an open - access paper in the journal Science.

The Okyanos facility is fitted with a Class C operating theatre, a Philips bi-plane cardiac catheterization lab with advanced imaging systems and offers leading technologies for enzyme - derived cell processing.

He has experience and knowledge in a variety of technologies including various wireless technologies (WCDMA, HSPA, LTE, CDMA2000, wireless modems, cellular Multi-media Messaging Service (MMS)-RRB-, vehicle navigation systems, digital and analog electronics, optics, LCD, and other display technologies, magnetic resonance imaging technology, digital image processing, nanotechnology, MEMS devices, photovoltaic cells, hard disk drive technology, semiconductor devices and processing, medical devices, computer software, motors and motor drives for electric vehicles and CNC machining centers.

«Our technology will provide significantly higher forces and faster impact cycles than have previously been possible, and by building these tools onto microfluidic devices, we can leverage a host of other on - chip diagnostics and imaging tools and can collect the cells after testing for longer - term studies,» said Valentine.