Sentences with phrase «cancer cell imaging»

In vitro cancer cell imaging and therapy using transferrin - conjugated gold nanoparticles.

Not exact matches

That company is pioneering medical uses for carbon molecules called nanospheres, such as attacking cancer cells and dramatically improving magnetic - resonance - imaging contrasts.

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.

To surmount this hurdle, Dr. Hodgson and his colleagues in the Gruss Lipper Biophotonics Center at Einstein devised a new fluorescent protein biosensor that, combined with live - cell imaging, revealed exactly when and where Rac1 is activated inside cancer cells.

When Conklin joined his lab, he had no experience in his PI's core area of cancer research, but he brought valuable expertise in cell imaging techniques.

The gold - iron oxide core - shell nanorods may be useful in cancer therapy, with MRI imaging enabled by the iron oxide shell, and local heating created by the photothermal effect on the gold nanorod core killing cancer cells.

To overcome these problems, Min and his team developed a new modality to visualize glucose uptake activity inside single cells based on stimulated Raman scattering (SRS) imaging, and demonstrated its use in live cancer cells, tumor xenograft tissues, primary neurons and mouse brain tissues.

In a study presented in the featured clinical investigation article of the November issue of The Journal of Nuclear Medicine, they used 18F - fluorodeoxyglucose (FDG) PET / CT imaging to show that the amount of cell - free tumor DNA circulating in the bloodstream correlates with tumor metabolism (linked to cancer aggressiveness), not tumor burden (amount of cancer in the body).

Diagnosing cancer today usually involves various imaging techniques, examining tissue samples under a microscope, or testing cells for proteins or genetic material.

«We showed with this technique that we can detect very tiny tumors of just a few hundred cells,» Lu said, adding that the study pushed imaging boundaries, revealing smaller cancers than can be detected with current clinical imaging modalities.

I also think that the next revolution in science might be new imaging techniques to observe our cells and molecules in real time within the entire body during infections or cancer or even while we watch our favorite movie star on video in our doctor's office.

Through laser imaging at speeds up to 3,000 frames per second, a computer can capture images from all angles and reconstruct a model of all cells in the given sample, testing for all types of cancer in a matter of minutes.

To diagnose the cancer cells, various imaging modalities are being used.

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.

«We can tell through high - speed imaging that cancer cells tend to be larger than white or red blood cells.

By engineering red blood cells to have «sticky» proteins on their surface, a team of researchers has given the cells the ability to carry anything from drugs to treat immune disorders or cancer to radioactive molecules used in imaging of blood vessels.

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.

For years researchers have been developing molecular imaging techniques that visualize hormonally active breast cancer cells — specifically those testing positive for human epidermal growth factor receptor 2 (HER2).

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.

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 cancer agents.

His research interests include medicinal chemistry, nanotechnology, drug delivery, cell trafficking and molecular imaging for theranostic applications in cancer and Alzheimer's disease (AD).

To answer this question, a study presented at the AACR Annual Meeting 2018 used real - time, single - cell imaging to make movies of live cancer cells.

For leadership and pioneering contributions in the field of biophotonics, comprising the diverse use of label - free native fluorescence, Raman spectroscopy, and optical imaging for cancer detection in tissues and cells.

Breast cancer cell movement: imaging invadopodia by TIRF and IRM microscopy.

Atkinson explains, «Alex's video, «Killing Cancer,» has some of the most advanced — and most exciting — cell imaging in the world.

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.

We focus on squamous tissues, the skin epidermis and the lining of the oesophagus, using transgenic models, novel sequencing approaches, live imaging and single cell analysis to uncover key steps in cancer development, with aim of developing rational interventions to decrease cancer risk.

Correlative nanomechanical profiling with super-resolution F - actin imaging reveals novel insights into mechanisms of cisplatin resistance in ovarian cancer cells Sharma S, Santiskulvong C, Bentolila, L A, Rao J, Dorigo O and Gimzewski J K 2012 Nanomedicine: Nanotechnology, Biology, and Medicine 8 757 - 766

Foreign researchers honored as the 31st KIA laureates include: Prof. Eric Vivier (France) for his research on harnessing innate immunity against cancer; Prof. Jianfang Wang (Hong Kong, China) for his research on Colloidal Plasmonic Metal Nanocrystals; Prof. Majed Chergui (Switzerland) for his research on unravelling the fundamentals of solar; Prof. Katharina Gaus (Australia) for her research on Single molecule imaging of T cell receptor signaling; and Prof. Dr. Burkhard Büdel (Germany) for his research on Role of lichens and cyanobacteria in biological soil crusts.

With key strengths in advanced medical imaging, cell biology, genomics, immunology and stem cell biology, our scientists and their skilled staff conduct research on some of the most debilitating diseases of our time: heart disease and stroke, Alzheimer's, cancer, organ failure, diabetes and many others.

Embryonic stem cells, Adult stem cells, Reprogramming to pluripotency and lineage conversion, Directed differentiation, Germ cells, Genetic and epigenetic mechanisms, Stem cells in development, Stem cell niche, Cancer stem cells, Disease modeling and drug screening, Stem cell therapy, Clinical studies in regenerative medicine, Tissue engineering and biomaterials, Imaging and diagnostics, Stem cell products, manufacturing, and quality control, Ethical, legal, and social issues Read Journal

Decreased metastasis by ABL - deficient breast cancer cells was accompanied by a significant reduction in the extent of hindlimb osteolytic lesions, as determined by x-ray and micro — computed tomography (μCT) imaging (Fig. 2, I and J).

The 1833 and SCP28 breast cancer cells were engineered to express reporters with luciferase and green fluorescent protein to monitor metastatic progression by bioluminescence imaging (Fig. 2A).

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 method, called «theranostic» imaging, targets potent drug therapies directly and only to cancer cells while also tracking and monitoring the journey.

By imaging cancer cells in vivo, we are studying how cells migrate in and interact with complex environments in the living animal (Fig 2C).

This article describes methods for preparation and imaging of 3D cancer cell cultures, either as single cells or spheroids.

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.

I am a Morgridge Postdoctoral Fellow working jointly with Kevin Eliceiri, Morgridge Institute for Research and LOCI; Patricia Keely, Cell and Regenerative Biology; and Sean Fain, Medical Physics; in multiscale imaging — including fluorescence lifetime imaging microscopy and magnetic resonance imaging of tumor metabolic signatures — to predict cancer metastasis.

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.

«Theranostics» Simultaneously Kill and Image Prostate Cancer Cells Experimenting with human prostate cancer cells and mice, cancer - imaging experts developed a method for finding and killing malignant cells while sparing healthyCancer Cells Experimenting with human prostate cancer cells and mice, cancer - imaging experts developed a method for finding and killing malignant cells while sparing healthy Cells Experimenting with human prostate cancer cells and mice, cancer - imaging experts developed a method for finding and killing malignant cells while sparing healthycancer cells and mice, cancer - imaging experts developed a method for finding and killing malignant cells while sparing healthy cells and mice, cancer - imaging experts developed a method for finding and killing malignant cells while sparing healthycancer - imaging experts developed a method for finding and killing malignant cells while sparing healthy cells while sparing healthy ones.

The optical contrast (measured as a ratio of the fluorescent image amplitudes for C4 - 2B to HS - 5) of fluorescent imaging for cancer versus stromal cells was 2.3 (Figure 7B, D).

I am also developing various imaging and molecular sequencing methods for tracking genes, molecules, and cells to understand how cancer cells arise and evolve.

Up to 40 investigators will eventually be part of this new program, including teams looking at experimental therapeutics, cancer stem cells, molecular imaging and genomics.

Using imaging techniques, the cell signaling pathway can be investigated in detail to target areas that could prevent cancer from developing.

We support 10 major research thematic areas including — immunotherapy, stem cells, genomics, epigenetics, diagnostics, proteomics and computational biology, cancer imaging, drug development, supportive care and other key areas.