News Medical's "Thought Leaders" series is a selection of articles written by national and
international experts and trusted advisers in the life sciences industry. All the articles are
written by experts who have been invited as recognised leaders in their fields to provide
a "state of the art" contribution.
Electrochemical methods are appealing because simple and inexpensive instrumentation can be used to make highly sensitive measurements. However, it has been quite difficult to realize clinically-relevant levels of sensitivity using electrochemistry in highly complex, real-world samples.
For about the last 25 years, the cardiology group here have been developing a platform technology for both the diagnosis and treatment of atherosclerosis. The group began at Northwestern University, Chicago, under the direction of Dr. David McPherson and he continues to lead the group.
Hi my name is Christina Thomas, we're here at the Institute of Clinical Chemistry in Munich. Our research focuses on interleukin 1 and the inflammasome and their role in innate immunity and inflammation.
Up to now, we've seen a lot of improvements made, but now we're almost at the point of focusing on the application of MPI and proving what the real benefits of this technology are, which is very exciting...
The CLIRSPEC network is a UK Engineering and Physical Sciences Research Council (EPSRC – EP/L012952/1) funded network in clinical infrared and Raman spectroscopy. Infrared and Raman spectroscopy can identify the hallmarks of disease and distinguish between diseased and non-diseased samples based upon inherent chemistry.
I’m Dr Panagiotopoulos and I am a resident at the University Hospital of Schleswig-Holstein. I work in the Radiological and Nuclear Medicine Department, at the Lübeck campus.
I am Mauro Magnani, Professor of Biochemistry at the University of Urbino, Italy. My background is essentially the transition of activity from the lab to application. I am also the founder of a spin-off company called EryDel, which uses technology to load materials or drugs inside cells.
I'm Jeff Bulte, professor of Radiology and Director of Cellular Imaging at the Institute for Cell Engineering at Johns Hopkins University School of Medicine, Baltimore, Maryland in the United States. I lead a group of about 20 to 25 people who focus their research on imaging cells.
T cells are taken from the patient’s blood and then modified using lentivirus, adenovirus or RNA electroporation. The modifications allow us to reprogram T cells to recognize cancer cells.
Professor Dame Carol Robinson has just been announced as the “L’Oréal-UNESCO For Women In Science” European Laureate for 2015...
CABI is a preclinical imaging laboratory where we have about ten modalities. We started off with MRI and we have a 9.4T high-field system.
Imaging techniques used to live in medical physics departments, where physicists worked on them, but now we're seeing biologists, cell biologists and developmental biologists looking at cellular processes and it's those advances that are really enabling imaging to move forward in a way that it hasn't previously been able to...
Our research into gynaecological oncology focuses around understanding mechanisms of how genes are regulated or how they become dysregulated in a disease; and also the effects that has on the surface of the endometrium and also the function of the ovaries...
Christian Griesinger, director of the NMR-based Structural Biology department at the Max-Planck Institute for Biophysical Chemistry, talks about his research into neurodegenerative diseases using NMR to examine the dynamics of disordered proteins.
Our current focus is on areas in protein folding, molecular recognition by proteins and also enzyme catalysis. NMR spin relaxation is one of the very powerful techniques in NMR for studying conformational dynamics in proteins or chemical kinetic processes.
Michael Summers is the Professor of Chemistry and Biochemistry at the University of Maryland, Baltimore County, and an investigator with the Howard Hughes Medical Institute. In this interview, he tells us about his work investigating the structure of large RNAs using NMR spectroscopy.
In this interview, Tim Cross, Director of the NMR and MRI programs at the National High Magnetic Field Lab (NHMFL) in Tallahassee, Florida, talks about his research into protein structures in viruses and bacteria, and how the findings will affect medical research into disease prevention.
My research these days is generally classified as structural biology, although as I trained in chemistry. I specialize in nuclear magnetic resonance (NMR) applied to biological problems. Our lab is very interested in studying mammalian proteins, particularly systems involved in cancer, in order to try to understand mechanisms to provide that information for our collaborators, and for the general knowledge of the community as well.
The biological mesoscale range includes biological structures that range from 10 to 100 nanometers (billionths of a meter). Structures in this size range include viruses, cellular organelles, large molecular complexes, and any other internal cellular environments within that range.
The most common form of diabetes is sometimes referred to as metabolic diabetes, which is the diabetes most people are very familiar with, type 2 diabetes. This form of diabetes is most prevalent in people that are overweight or obese. Historically, it has been confined to adults or older patients but it has been on the rise as the global obesity problem has continued to worsen.