In July 2001, scientists at Cedars-Sinais Maxine Dunitz Neurosurgical Institute published their findings that one "isoform" or variant of a specific gene was significantly upregulated in high-grade, malignant brain tumors called glioblastoma multiforme (GBM). They theorized that this increased activity might be a critical step in the development, progression and spread of these highly aggressive tumors.
Now, in laboratory experiments designed to mimic the environment of a brain tumor and its abnormal influence on surrounding normal blood vessel cells, the researchers have found that by blocking the expression of this gene, laminin-8, they were able to reduce the tumors ability to invade neighboring tissue. The new study supports the hypothesis that laminin-8 is involved in the spread of these malignancies, and it reinforces the possibility that a therapy may be developed to arrest the tumors by targeting the gene.
In the original study, published in Cancer Research, the scientists used "gene array" technology to rapidly and efficiently analyze the expression of 11,004 genes in samples of low-grade tumors; high-grade tumors; brain tissue that had been located in close proximity to high-grade tumors; and unrelated normal brain tissue.
Sandra Van | Van Communications
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On the way to an intelligent laboratory, physicists from Innsbruck and Vienna present an artificial agent that autonomously designs quantum experiments. In initial experiments, the system has independently (re)discovered experimental techniques that are nowadays standard in modern quantum optical laboratories. This shows how machines could play a more creative role in research in the future.
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For the first time, scientists have precisely measured the effective electrical charge of a single molecule in solution. This fundamental insight of an SNSF Professor could also pave the way for future medical diagnostics.
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At the JEC World Composite Show in Paris in March 2018, the Fraunhofer Institute for Laser Technology ILT will be focusing on the latest trends and innovations in laser machining of composites. Among other things, researchers at the booth shared with the Aachen Center for Integrative Lightweight Production (AZL) will demonstrate how lasers can be used for joining, structuring, cutting and drilling composite materials.
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Scientists at Tokyo Institute of Technology (Tokyo Tech) and Tohoku University have developed high-quality GFO epitaxial films and systematically investigated their ferroelectric and ferromagnetic properties. They also demonstrated the room-temperature magnetocapacitance effects of these GFO thin films.
Multiferroic materials show magnetically driven ferroelectricity. They are attracting increasing attention because of their fascinating properties such as...
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