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Category: biotech/medical – Page 1,736

Interview with Harold Katcher

https://www.biorxiv.org/content/10.1101/2020.05.07.082917v1.…e=youtu.be

Hi everybody. Around 10 days ago, I participated in an online conference about aging, organized by HEALES and ILA, and Harold Katcher was one of the speakers. As each speaker had only 15 minutes for their presentation (and Harold spoke only for 10 minutes because he had some technical issues with Zoom), I thought that it would be a good idea to make an interview with him so that he has more time to speak about his rejuvenation therapy with E-5, the test with dogs, the timeframe for the arrival of the therapy for humans, and, above all else, his theory of aging. So, it’s a more informal conversation, but I think it helps everybody to know more about Harold Katcher, maybe one of the most (if not the most) influent people in human history.

Harold Katcher, one of the discoverers of the human breast cancer gene and possibly the discoverer of the greatest rejuvenation therapy to date, talks to Nicolas Chernavsky about his rejuvenation therapy with E-5, his carreer and his theory of aging. 2020 paper on experiments with E-5: https://www.biorxiv.org/content/10.1101/2020.05.07.082917v1.…1.full.pdf Harold’s 2013 paper on aging: https://link.springer.com/article/10.1134/S0006297913090137 Conboy’s 2005 paper on parabiosis: https://www.biorxiv.org/content/10.1101/2020.05.07.082917v1.…ature03260 1994 paper on human breast cancer gene: https://courses.washington.edu/gs466/readings/miki.pdf Find out more about Nicolas Chernavsky and NTZ on www.ntzplural.com #rejuvenation #aging #biotechnology #health #science.

Human Body 2.0 Project

Table of Contents.

As of 2015940 million people suffer from a form of visual impairment. Today, some forms of blindness can be cured by cornea implants and other procedures. Other forms of blindness like glaucoma (where the issue is related to the optic nerve) are beyond our abilities to fix. Despite advances in bioprinting and camera miniaturization, the issue of optical connection remains when attempting to replace the human eye. So far, technological progress has largely not risen to the challenge that 2.0 poises.

The tech industry is looking to replace the smartphone — and everybody is waiting to see what Apple comes up with

Today, the most common use cases are much more mundane, including smartphone-based games and apps like Pokemon Go or Apple’s Ruler app, which use the phone’s screen and camera rather than relying on glasses or another set of screens sitting on your face. The few companies who are actively producing AR glasses are mostly focused on work scenarios, like manufacturing and medicine.

Industry watchers and participants think that Apple has a good chance to validated and revolutionize augmented reality like it did with smartphones.

Mike Wang — Johns Hopkins — Hallucinogens, NeuroImmunology And The Microbiome In Mental Healthcare

Hallucinogens, neuro-immunology and the microbiome — convergent approaches in mental healthcare — mike wang, johns hopkins university.

Mike Wang, is a neuro-psychiatric researcher and adjunct teaching faculty in neuroscience at the Johns Hopkins Krieger School of Arts and Sciences.

Mike is one of the youngest principal investigators at the Johns Hopkins School of Medicine and currently leads a clinical trial examining how hallucinogenic levels of over-the-counter dextromethorphan might serve as the world’s first rapid acting oral antidepressant. (Those interested in the clinical trial for dextromethorphan can.

Mike’s work has been featured in academic journals like the American Journal of Psychiatry, as well as popular outlets like Psychology Today and VICE.

Mike received his graduate training in immunology at the Johns Hopkins Bloomberg School of Public Health studying rare viral encephalitides and neuro-immune determinants of depressive disorders.

Continue reading “Mike Wang — Johns Hopkins — Hallucinogens, NeuroImmunology And The Microbiome In Mental Healthcare” | >

Bioengineered hybrid muscle fiber for regenerative medicine

Muscle constitutes the largest organ in humans, accounting for 40% of body mass, and it plays an essential role in maintaining life. Muscle tissue is notable for its unique ability for spontaneous regeneration. However, in serious injuries such as those sustained in car accidents or tumor resection which results in a volumetric muscle loss (VML), the muscle’s ability to recover is greatly diminished. Currently, VML treatments comprise surgical interventions with autologous muscle flaps or grafts accompanied by physical therapy. However, surgical procedures often lead to reduced muscular function, and in some cases result in a complete graft failure. Thus, there is a demand for additional therapeutic options to improve muscle loss recovery.

A promising strategy to improve the functional capacity of the damaged muscle is to induce de novo regeneration of skeletal muscle via the integration of transplanted cells. Diverse types of cells, including satellite cells (muscle stem cells), myoblasts, and mesenchymal stem cells, have been used to treat muscle loss. However, invasive muscle biopsies, poor cell availability, and limited long-term maintenance impede clinical translation, where millions to billions of mature cells may be needed to provide therapeutic benefits.

CRISPR Dreams: The Potential for Gene Editing

Bonny Lemma. Originally published in the HIR Winter 2019 Issue.

Jennifer Lopez has one more industry to add to her illustrious résumé: molecular biology. In 2016, she was asked to be the executive producer of a new futuristic bio-crime drama for NBC called C.R.I.S.P.R. While that project is a work of science fiction, the CRISPR technology that it is based on is very real.

CRISPR, or Clustered Regularly Interspaced Short Palindromic Repeats, is not just a gene editing technique, but also a phenomenon that carries significant implications for the future of biotechnology. Therefore, the interactions between the countless players in this field and the objectives driving them are crucial to understanding of CRISPR and the promise it holds.