But the disgraced CRISPR scientist admits his mistakes: “I did it too quickly.”
Category: genetics – Page 239
Bioelectric Networks: Taming the Collective Intelligence of Cells for Regenerative Medicine
Seminar summary: https://foresight.org/summary/bioelectric-networks-taming-th…-medicine/
Program & apply to join: https://foresight.org/biotech-health-extension-program/
Foresight Biotech & Health Extension Meeting sponsored by 100 Plus Capital.
Michael Levin, Tufts Center for Regenerative and Developmental Biology.
Bioelectric Networks: Taming the Collective Intelligence of Cells for Regenerative Medicine.
Michael Levin, Distinguished Professor in the Biology department and Vannevar Bush Chair, serves as director of the Tufts Center for Regenerative and Developmental Biology. Recent honors include the Scientist of Vision award and the Distinguished Scholar Award. His group’s focus is on understanding the biophysical mechanisms that implement decision-making during complex pattern regulation, and harnessing endogenous bioelectric dynamics toward rational control of growth and form. The lab’s current main directions are:
• Understanding how somatic cells form bioelectrical networks for storing and recalling pattern memories that guide morphogenesis;
• Creating next-generation AI tools for helping scientists understand top-down control of pattern regulation (a new bioinformatics of shape); and.
• Using these insights to enable new capabilities in regenerative medicine and engineering.
Prior to college, Michael Levin worked as a software engineer and independent contractor in the field of scientific computing. He attended Tufts University, interested in artificial intelligence and unconventional computation. To explore the algorithms by which the biological world implemented complex adaptive behavior, he got dual B.S. degrees, in CS and in Biology and then received a PhD from Harvard University. He did post-doctoral training at Harvard Medical School (1996−2000), where he began to uncover a new bioelectric language by which cells coordinate their activity during embryogenesis. His independent laboratory (2000−2007 at Forsyth Institute, Harvard; 2008-present at Tufts University) develops new molecular-genetic and conceptual tools to probe large-scale information processing in regeneration, embryogenesis, and cancer suppression.
Scientist Who Gene Edited Human Babies Says Mistakes Were Made
Chinese geneticist He Jiankui rocked the scientific world with his gene-edited baby experiments back in 2018, a highly controversial use of the technology that ended up sending him to a three-year stint in prison for illegal medical practices.
Now, just under a year after being released, He has some regrets about rushing into the experiments.
“I did it too quickly,” He told the South China Morning Post in a new interview.
Potential therapeutic target for schizophrenia identified
Targeting calcium signaling in neurons represents a promising therapeutic approach for treating a rare form of schizophrenia, according to a Northwestern Medicine study published in Biological Psychiatry.
“This is the first time that human neurons are made and characterized from schizophrenia patients with the 16p11.2 duplication, one of the most prominent genetic risk factors in schizophrenia, and the first time that calcium signaling is found as a central abnormality in schizophrenia neurons,” said Peter Penzes, Ph.D., the Ruth and Evelyn Dunbar Professor of Psychiatry and Behavioral Sciences and senior author of the study.
Schizophrenia is characterized by auditory and visual hallucinations, delusions, and trouble with forming and sorting thoughts, which severely impacts productivity and overall quality of life. The disease, which affects roughly one percent of the general population, has strong genetic associations, however the exact genes involved are unknown.
Dr Nir Barzilai, MD — Advancing Geroscience & Gerotherapeutics — Albert Einstein College of Medicine
Advancing Geroscience & Gerotherapeutics — Dr. Nir Barzilai, MD, Albert Einstein College of Medicine.
Dr. Nir Barzilai, MD (https://www.einsteinmed.edu/faculty/484/nir-barzilai/) is the Director of the Institute for Aging Research at the Albert Einstein College of Medicine and the Director of the Paul F. Glenn Center for the Biology of Human Aging Research and of the National Institutes of Health’s (NIH) Nathan Shock Centers of Excellence in the Basic Biology of Aging. He is the Ingeborg and Ira Leon Rennert Chair of Aging Research, professor in the Departments of Medicine and Genetics, and member of the Diabetes Research Center and of the Divisions of Endocrinology & Diabetes and Geriatrics.
Dr. Barzilai’s research interests are in the biology and genetics of aging, with one focus of his team on the genetics of exceptional longevity, where they hypothesize and demonstrate that centenarians (those aged 100 and above) may have novel protective genes, which allow the delay of aging or for the protection against age-related diseases. The second focus of his work, for which Dr. Barzilai holds an NIH Merit award, is on the metabolic decline that occurs during aging, and his team hypothesizes that the brain leads this decline with some very interesting neuro-endocrine connections.
Dr. Barzilai is currently leading an international effort to approve drugs that can target aging (Gerotherapeutics). Targeting Aging with METformin (TAME) is a specific study designed to prove the concept that a basket of diseases (multi-morbidities) of aging can be delayed simultaneously, in this protocol by the drug metformin, working with the FDA to approve this approach which will serve as a template for future efforts to delay aging and its diseases in humans.
Dr. Barzilai has received numerous grants, among them ones from the National Institute on Aging (NIA), American Federation for Aging Research, the Ellison Medical Foundation and The Glenn Medical foundation. He has published over 280 peer-reviewed papers, reviews, and textbook chapters. He is an advisor to the NIH on several projects and serves on several editorial boards and is a reviewer for numerous other journals.
Auburn University researchers combining alligator, catfish DNA: ‘Who would have thought to do this?’
It sounds like the start of a Southern gothic horror thriller. Auburn University scientists have been putting alligator DNA in catfish. It’s delicious, but with less chance for infection. Don’t worry, it won’t bite back. MIT Technology Review recently highlighted the work of Rex Dunham, Baofeng Su and their colleagues at Auburn University, who have used genetic modification to reduce problems of disease in catfish farming.
Engineering Cyborg Bacteria Through Intracellular Hydrogelation
Synthetic biology has made major strides towards the holy grail of fully programmable bio-micromachines capable of sensing and responding to defined stimuli regardless of their environmental context. A common type of bio-micromachines is created by genetically modifying living cells.[ 1 ] Living cells possess the unique advantage of being highly adaptable and versatile.[ 2 ] To date, living cells have been successfully repurposed for a wide variety of applications, including living therapeutics,[ 3 ] bioremediation,[ 4 ] and drug and gene delivery.[ 5, 6 ] However, the resulting synthetic living cells are challenging to control due to their continuous adaption and evolving cellular context. Application of these autonomously replicating organisms often requires tailored biocontainment strategies,[ 7-9 ] which can raise logistical hurdles and safety concerns.
In contrast, nonliving synthetic cells, notably artificial cells,[ 10, 11 ] can be created using synthetic materials, such as polymers or phospholipids. Meticulous engineering of materials enables defined partitioning of bioactive agents, and the resulting biomimetic systems possess advantages including predictable functions, tolerance to certain environmental stressors, and ease of engineering.[ 12, 13 ] Nonliving cell-mimetic systems have been employed to deliver anticancer drugs,[ 14 ] promote antitumor immune responses,[ 15 ] communicate with other cells,[ 16, 17 ] mimic immune cells,[ 18, 19 ] and perform photosynthesis.
Quantifying Biological Age: Blood Test #1 in 2023
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