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Newborn screening covers more than 30 conditions. Yet, with genome sequencing, we could screen newborns for several thousand genetic conditions.


In the surveys’ open-ended responses about risks of genome sequencing, parents and clinicians both expressed concerns about psychological distress related to difficult or uncertain results. Clinicians were more likely to raise concerns about returning results for adult-onset conditions, unnecessary parental stress over health problems that might never actually occur, and the possibility of future discrimination against the child on the basis of their genomic information.

On the other hand, parents mentioned a broader range of benefits than clinicians. Both parents and clinicians saw potential health benefits of genome sequencing, such as the ability to search for more conditions compared to standard newborn screening and the ability to predict a child’s future disease risks. Parents went further, though, seeing benefits in family planning, preparing for the child’s future, and knowledge just for the sake of knowing. Those potential benefits fall outside of traditional definitions of clinical utility, which means they are less likely to be considered in the professional guidelines that steer adoption of practices like genome sequencing.

This brings us into a debate that may be central to the near future of genome sequencing, not only for newborns but for ostensibly healthy adults as well: how to define the utility of genomic technologies. How much weight, if any, should patients’ perceptions carry? If they think genomic information will have utility, should that count for something, even if clinicians and researchers have their doubts? Should the idea of “clinical utility” be expanded beyond information that directly affects medical care, perhaps including perceived quality of life impacts for patients?

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Microsoft co-founder Bill Gates has been working to improve the state of global health through his nonprofit foundation for 20 years, and today he told the nation’s premier scientific gathering that advances in artificial intelligence and gene editing could accelerate those improvements exponentially in the years ahead.

“We have an opportunity with the advance of tools like artificial intelligence and gene-based editing technologies to build this new generation of health solutions so that they are available to everyone on the planet. And I’m very excited about this,” Gates said in Seattle during a keynote address at the annual meeting of the American Association for the Advancement of Science.

Such tools promise to have a dramatic impact on several of the biggest challenges on the agenda for the Bill & Melinda Gates Foundation, created by the tech guru and his wife in 2000.

Dr. Theodore Ho talks about the rapidly expanding possibilities of stem cells to be used in reversing or slowing the aging process. He discusses his previous and current work with the brain, including such methods as tissue clearing, multifiber photometry and optogenetics, and single resolution calcium imaging and control. Dr. Ho is a neuroscientist and stem cell biologist studying the mechanisms and causes of biological aging and potential strategies to slow or reverse them, in order to prevent the onset of age

Associated diseases to help us live healthier and longer lives.

He completed a four-year joint bachelor’s/master’s degree program in.

Human developmental and regenerative biology/bioengineering at.

Harvard University, and he received his PhD in Biophysics from the.

University of California San Francisco, studying stem cell aging in the lab of Dr. Emmanuelle Passegue. In college he developed a nanoparticle drug delivery system, in graduate school he discovered previously unknown mechanisms of cellular and molecular aging of stem cells, and now in the Deisseroth lab he is using optical recording and perturbation of neuronal activity to study neural circuit dynamics that control behavior. This talk was given at a TEDx event using the TED conference format but independently organized by a local community.

AZOKH, Nagorno-Karabakh (People of Ar)—Scholars from Britain, US, Denmark and Armenia led by Professor Levon Yepiskoposyan have been examining prehistoric caves near the village of Azokh in Artsakh (Nagorno Karabakh) and found unique artifacts from different periods, among them a tooth from a human who lived 7000 years ago. Due to the cave’s climate DNA was preserved inside the tooth and was send to Copenhagen University’s genetics department (in Denmark) for examination. The results of this inquiry have revealed that the genetic makeup of the tooth belonging to an individual 7000 years ago perfectly matches with the genetic makeup of modern Armenians.

“This is the conclusion we’ve reached after numerous excavations carried out on the territory of Karabakh, where we examined more than a dozen caves, among them the cave of Azokh and Alexan Uzes,” Yepiskoposyan said.

An American biotech company says it created a coronavirus vaccine three hours after getting access to the virus’ genetic sequence in mid-January, and now scientists are racing to get the vaccine on the market in record time.

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Inovio Pharmaceuticals is based in Pennsylvania, but scientists in its laboratory in San Diego made the discovery.

Caution required for using CRISPR in potential gene therapies – and food plants

Scientists at the Wellcome Sanger Institute have discovered that CRISPR/Cas9 gene editing can cause greater genetic damage in cells than was previously thought. These results create safety implications for gene therapies using CRISPR/Cas9 in the future as the unexpected damage could lead to dangerous changes in some cells. Potential consequences could include triggering cancer.

Reported on 16 July 2018 in the journal Nature Biotechnology, the study also revealed that standard tests for detecting DNA changes miss finding this genetic damage, and that caution and specific testing will be required for any potential gene therapies.

Georgia Tech Research Institute (GTRI) is looking into ways to speed up DNA-based cold storage in a $25m Scalable Molecular Archival Software and Hardware (SMASH) project.

DNA is a biopolymer molecule composed from two chains in a double helix formation, and carrying genetic information. The chains are made up from nucleotides containing one of four nucleobases; cytosine ©, guanine (G), adenine (A) and thymine (T). Both chains carry the same data, which is encoded into sequences of the four nucleobases.

GTRI senior research scientist Nicholas Guise said in a quote that DNA storage is “so compact that a practical DNA archive could store an exabyte of data, equivalent to a million terabyte hard drives, in a volume about the size of a sugar cube.”

https://www.youtube.com/watch?v=G6ZRmAtj6l8&t=1s

For the first time, scientists have sequenced the entire genetic code of a giant squid.

Because the massive creature has never been captured alive, biologists have largely been left in the dark as to how the giant squid grows and behaves. After sequencing its genes, University of Copenhagen and Marine Biological Laboratory researchers found several oddities in the giant squid’s DNA — genes that are rarely found in other invertebrates, for instance — giving scientists new tools with which understand the bizarre animals.

Santa Cruz, CA February 7, 2020 —Research into the novel Wuhan seafood market pneumonia virus, the deadly “coronavirus” that has forced the Chinese government to quarantine more than 50 million people in the country’s dense industrial heartland, will be facilitated by the UC Santa Cruz Genomics Institute. The Genomics Institute’s Genome Browser team has posted the complete biomolecular code of the virus for researchers all over the world to use.

“When we display coronavirus data in the UCSC Genome Browser, it lets researchers look at the virus’ structure and more importantly work with it so they can research how they want to attack it,” said UCSC Genome Browser Engineer Hiram Clawson.

Samples of the virus have been processed in labs all over the world, and the raw information about its genetic code has been sent to the worldwide repository of genomic information at the National Institutes of Health’s National Center for Bioinformatics (NCBI) in Bethesda, Maryland.