Lobachevsky University researchers are working to explore the mechanisms of adaptation of the nervous system to ischemic damage. Scientists say that under certain conditions, the brain's protective forces can be activated, even in some severe cases. According to Maria Vedunova, Director of the Institute of Biology and Biomedicine at Lobachevsky University, a large number of stressors affect the body by depleting its internal reserves and, as a consequence, leading to a number of diseases.
A new original research article in SLAS Discovery presents a fast, sensitive, and robust methodology for screening small molecule inhibitors against CD73/Ecto-5'-Nucleotidase, a promising target for developing anti-cancer drugs.
A new study describes novel probes that enable non-invasive, non-destructive, direct monitoring of the differentiation of mesenchymal stem cells (MSCs) in real-time during the formation of engineered cartilage to replace damaged or diseased tissue.
An international science team has developed an innovative therapeutic complex based on multi-layer polymer nano-structures of superoxide dismutase (SOD). The new substance can be used to effectively rehabilitate patients after acute spinal injuries, strokes, and heart attacks.
A new study has shown that a fully 3-D-printed whisker sensor made of polyurethane, graphene, and copper tape can detect underwater vortexes with very high sensitivity.
Testing new clinical drugs' effect on heart tissue could become quicker and more straightforward, thanks to new research from Harvard University. The study, published today in the journal Biofabrication, sets out a new, faster method for manufacturing a 'heart-on-a-chip,' which can be used to test the reaction of heart tissue to external stimuli.
Shale gas is one of least sustainable options for producing electricity, according to new research from The University of Manchester.
Using a unique technology called 'cell quake elastography,' scientists can now map to the millisecond the elasticity of components vibrating inside a cell. This discovery published in PNAS this week by Guy Cloutier and his team from CRCHUM, Université de Montréal and INSERM, opens up a whole new field of research in mechanobiology, opening the door to many practical applications in medicine.
A team of researchers has developed an ultrasound-based system that can non-invasively and remotely control genetic processes in live immune T cells so that they recognize and kill cancer cells.
A team led by David Mooney at Harvard's Wyss Institute for Biologically Inspired Engineering and John A. Paulson School of Engineering and Applied Sciences (SEAS) is now reporting in Nature Biotechnology a material-based T-cell-expansion method using APC-mimetic biomaterial scaffolds, which helps achieve greater expansion of primary mouse and human T cells than existing methods.