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.
Dr. Jan Phillip Junker discusses the applications of CRISPR-Cas9 in cell lineage analysis and the development of tomo-seq; a method to study the spatial organization of cells within whole organisms.
In this interview, Prof. Susan Richardson discusses the use of GAC to control disinfection by-products.
Parry outlines her research in diagnosing depression, which led to her winning the Pittcon 2018 Achievement Award.
An interview with Prof. John Richie, describing his presentation at Pittcon 2018 on free radical formation in electronic cigarette aerosols.
Professor Jack Gilbert gives an overview of the Burglary Microbiome Project, which he discussed at Pittcon 2018.
Pancreatic cancer is one of the less common but deadliest cancers. Modified oncolytic adenoviruses represent an alternative to chemotherapy and targeted therapies, which have a high mortality rate.
STReM stands for Super Time-Resolved Microscopy, and as STORM, PALM, and other methods are designed to improve spatial resolution of optical microscopy, we desire to improve the time resolution. STReM makes use of point spread function engineering to encode fast events into each camera frame.
An interview with Dr. Cecília Leal, about a new method for producing bicontinuous cubic phases that are super-swollen and exist as monocrystals in solution.
An interview with Dr. Sheng Ding about using a modified version of the CRISPR-Cas9 system to produce induced pluripotent stem cells.
Our mission is to advance the measurement of human proteins with greater precision, to bring to the world the benefits of absolute molecular specificity when it comes to interrogating proteins at the molecular level.
Developing analytical methods can help the triers of fact, judges and juries, better understand the events surrounding the circumstances of a crime. In forensic analysis, we are talking about determining the identity of unknown individuals through DNA and using DNA and other chemical signatures to determine and clarify the circumstances of the crime.
When a coronary artery is obstructed by atheroma, blood flow is depressed or even arrested. This causes hypoxia of cardiac cells associated with the deprivation of nutrients. In clinic, the first objective is to restore blood flow. However, this is associated with a burst in oxidation of cellular proteins and lipids. This oxidation enhances cell death and participates to the so-called reperfusion injury.
My name is James Gimzewski and I am a distinguished professor at UCLA. I'm in the Chemistry and Biochemistry department, but I am also heavily involved in the California NanoSystems Institute at UCLA. We were probably the first to pioneer the idea of what is now known as mechanobiology – the study of the mechanical properties of cancer cells as a potential diagnostic tool.
We study mammalian cells and try to understand how these cells interact with their environment. We mainly focus on the interactions that can occur with individual ligands.
Cell mechanics was already of interest very early on to people who were using the AFM. The AFM was invented in 1986 and the first biological samples, both proteins and lipid molecules, were investigated around 1989 and the first time cells were investigated was around 1990.
I run a core facility for AFM techniques, biological medical applications. My research is focussed on in the interaction of platelets and cancer cells.
Force microscopy is a technique which would probably be best described with the help of a small finger with an apex just a few atoms in size that can touch objects. This is a learning finger.
My group is interested in host pathogen interaction and we mainly focus on how bacteria enter cells. In essence, the idea is that if you can prevent bacteria from entering cells, then you will prevent illness.
My lab, broadly speaking, is interested in trying to understand interactions between cells and materials. Those could be materials that are present within living tissue or materials that we use for engineering purposes to try to do something of technological or therapeutic interest.
We are working in the field of biomedical engineering and our specific focus is on the development of biohybrid medical systems or biohybrid implants. That means we combine a technical structure with a biological function to make medical systems and implants performing better.