Epigem, a high-tech British micro engineering company, has made a major contribution to the EU-funded CoMMiTMenT (Combined Molecular Microscopy for Therapy and Personalised Medication in Rare Anaemia Treatments) project, a significant steptowards the creation of an ‘artificial spleen’.
Researchers at the Universitat Jaume I (UJI) have developed and patented a nanofluid improving thermal conductivity at temperatures up to 400°C without assuming an increase in costs or a remodeling of the infrastructure.
Scientists have been laboring to detect cancer and a host of other diseases in people using promising new biomarkers called "exosomes." Indeed, Popular Science magazine named exosome-based cancer diagnostics one of the 20 breakthroughs that will shape the world this year. Exosomes could lead to less invasive, earlier detection of cancer, and sharply boost patients' odds of survival.
A University of Texas at Arlington team exploring how neuron growth can be controlled in the lab and, possibly, in the human body has published a new paper in Nature Scientific Reports on how fluid flow could play a significant role.
A team of bioengineers, molecular biologists, and clinicians used a novel rare cell-sorter to isolate breast cancer cells from the blood of patients, with the aim of identifying the most effective drugs to treat each individual tumor. Circulating tumor cells (CTCs) were isolated and grown in the laboratory for extensive genetic analysis, which enabled the identification and testing of the most effective cancer-killing drugs for those tumors.
Last night the start-up Lunaphore, which is developing a rapid and precise system for cancer detection, won the PERL Prize (Entrepreneurial Prize for the Lausanne region). Awarding 50,000 Swiss francs to the winner, the prize is intended for innovative start-ups in the region. Another start-up from campus, G-Therapeutics, won the "coup de coeur du jury," receiveing 10,000 Swiss francs.
With a new $5.8 million, three-year award from the National Institutes of Health (NIH), researchers at the University of Pittsburgh School of Medicine will further develop a state-of-the-art, microfluidic 3D model system that mimics structure and function of the liver to better predict organ physiology, assess drug toxicity and build disease models.
Thanks to new LEGO®-like components developed by researchers at the USC Viterbi School of Engineering, it is now possible to build a 3-D microfluidic system quickly and cheaply by simply snapping together small modules by hand.
Transforming substances from liquids into gels plays an important role across many industries, including cosmetics, medicine, and energy. But the transformation process, called gelation, where manufacturers add chemical thickeners and either heat or cool the fluids to make them more viscous or elastic, is expensive and energy demanding.
Industrial wet spinning processes produce fibers from polymers and other materials by using tiny needles to eject continuous jets of liquid precursors. The electrically charged liquids ejected from the needles normally exhibit a chaotic "whipping" structure as they enter a secondary liquid that surrounds the microscopic jets.
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