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Good read; and highlights fair arguments around science and technology innovations and their patents. CRISPR was highlighted; however, the same can be applied to things like AI. What happens when a Humanoid robot owned by an investment bank innovates and develops new technology for Wall Street? The humanoid robot was (in this example) created by Microsoft; however, is owned by a Goldman Sachs. Who truly owns this new technology innovation? Could we see Goldman Sachs owning 70% of the patent & Microsoft owning 30%?


The worlds of science, technology and patent law eagerly await the U.S. government’s decision on who deserves patents on what many have referred to as the biotechnology invention of the century: the CRISPR/Cas9 gene-editing technique.

Scientists hail CRISPR/Cas9 as more accurate and efficient than other, now-traditional genetic engineering methods. As a result, CRISPR has generated worldwide debate about how it could accelerate the manipulation of plants, animals and even human beings at the molecular level. That some DNA modifications can be passed on to future generations raises particular concern.

But the patent dispute, focusing on whether scientists at the Broad Institute of MIT and Harvard or those at University of California, Berkeley invented the technology, seems far from these ethical concerns. Each institution asserts that its scientists are the rightful inventors — and therefore the owners of the CRISPR/Cas9 patents. As proof, the scientists are submitting their published articles, laboratory notebooks and affidavits to the US Patent and Trademark Office, which will make a decision in the next few months.

Preliminary work suggests that T-cells, which normally target disease, can be genetically engineered to target senescent cells in a wide range of tissues. In future, an infusion of GM blood every few years might be able to keep you going indefinitely (assuming some major advances in treating cancer, Alzheimer’s and heart disease). At which point, the question might be less: “How long have I got?” and more: “How long do you fancy sticking around?”


American scientists have coined the term ‘senolytics’ to describe a new class of drugs designed to delay the ageing process by clearing out doddery cells.

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LONDON The world’s first life-saving gene therapy for children, developed by Italian scientists and GlaxoSmithKline, has been recommended for approval in Europe, boosting the pioneering technology to fix faulty genes.

The European Medicines Agency (EMA) said on Friday it had endorsed the therapy, called Strimvelis, for a tiny number of children with ADA Severe Combined Immune Deficiency (ADA-SCID) for whom no matching bone marrow donor is available.

Around 15 children a year are born in Europe with the ultra-rare genetic disorder, which leaves them unable to make a type of white blood cell. They rarely survive beyond two years unless their immune function is restored with a suitable bone marrow transplant.

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MIT biological engineers have created a programming language that allows them to rapidly design complex, DNA-encoded circuits that give new functions to living cells.

Using this language, anyone can write a program for the function they want, such as detecting and responding to certain . They can then generate a DNA sequence that will achieve it.

“It is literally a for bacteria,” says Christopher Voigt, an MIT professor of biological engineering. “You use a text-based language, just like you’re programming a computer. Then you take that text and you compile it and it turns it into a DNA sequence that you put into the cell, and the circuit runs inside the cell.”

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The duration of epigenetic responses underpinning transgenerational inheritance is determined by an active mechanism relying on the production of small RNAs and modulation of RNAi factors, dictating whether ancestral RNAi responses would be memorized or forgotten (credit: Leah Houri-Ze’evi et al./Cell)

According to epigenetics — the study of inheritable changes in gene expression not directly coded in our DNA — our life experiences may be passed on to our children and our children’s children. Studies on survivors of traumatic events have suggested that exposure to stress may indeed have lasting effects on subsequent generations.

But exactly how are these genetic “memories” passed on?

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Biomedical engineering researchers at North Carolina State University and the University of North Carolina at Chapel Hill have developed a technique that uses a patch embedded with microneedles to deliver cancer immunotherapy treatment directly to the site of melanoma skin cancer. In animal studies, the technique more effectively targeted melanoma than other immunotherapy treatments.

According to the CDC, more than 67,000 people in the United States were diagnosed with melanoma in 2012 alone – the most recent year for which data are available. If caught early, melanoma patients have a 5-year survival rate of more than 98 percent, according to the National Cancer Institute. That number dips to 16.6 percent if the cancer has metastasized before diagnosis and treatment. Melanoma treatments range from surgery to chemotherapy and radiation therapy. A promising new field of cancer treatment is cancer immunotherapy, which helps the body’s own immune system fight off cancer.

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1st of many steps in the gene editing oversight.


PRINCETON, N.J., March 29, 2016 /PRNewswire/ — WIRB-Copernicus Group® (WCG™), one of the world’s leading providers of solutions that measurably improve the quality and efficiency of clinical research, today announced that it has assembled a team of world-renowned experts to advise the company regarding the latest advances in gene therapy research. The WCG Gene Therapy™ Advisory Board will convene today in Princeton, NJ.

“Human gene therapy is one of the fastest-growing areas of medical research, and also one of the most promising,” said WCG Chairman and Chief Executive Officer Donald A. Deieso, Ph.D. “The advances made by scientists and clinicians in the field of gene therapy have enabled us to target disease at the genetic level, redefining the concept of precision medicine.” He added, “More than that, gene transfer researchers have succeeded – over the course of a single lifetime – in transforming the world’s most persistent and lethal viruses into disease-fighting allies in the quest to improve human health.”

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