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Trapping and killing superbugs with novel peptide ‘nanonets’

National University of Singapore (NUS) pharmaceutical scientists have developed synthetic peptide nanonets for treating infections by bacteria strains resistant to last-resort antibiotics.

In nature, trap-and-kill is a common immune defense mechanism employed by various species, including humans. In response to the presence of pathogens, peptides are released from host cells and they promptly self-assemble in solution to form cross-linked nanonets, which then entrap the bacteria and render them more vulnerable to antimicrobial components.

Several research groups have explored synthetic biomimetics of nanonets as an avenue for addressing the global healthcare challenge of widespread . However, most prominent studies in the field only yielded disjointed short nanofibrils restricted to the bacterial surfaces and are incapable of physically immobilizing the bacteria. Additionally, these designs were lacking in control over the initiation of the self-assembly process.

Longevity company Biophysical Therapeutics emerges from stealth

Biophysical Therapeutics, a drug discovery platform company that leverages computational biology, has emerged from stealth. The primary targets of the Delaware-based company are cancer, the diseases of aging (including Alzheimer’s disease) and – excitingly – aging itself.

Founded by Dr Michael Forrest, a Cambridge University biochemistry graduate with a PhD in computer science, Biophysical Therapeutics boasts renowned biotech entrepreneur Professor George Church (of Harvard Medical School) as an advisor to the company. Professor Bruno Conti of the Scripps Institute in La Jolla, California is also an advisor.

Longevity. Technology: Back in 2006, Conti and his team reported an exciting result in the prestigious journal Science. They showed (in female mice) that slightly reducing the metabolic rate by slightly reducing metabolic heat generation (decreasing body temperature by 0.34°C) increased lifespan by 20%.

Anti-aging Supplements: Science, Snake Oil, and How Do We Know?

🇬🇧FREE WEBINAR🇮🇹: https://draronica.com/free-webinar/

In this Ask Me Anything interview, Prof. Matt Kaeberlein discusses the evidence (and lack thereof) behind popular anti-aging supplements and interventions. Starting from his current research on rapamycin for healthy longevity in dogs (The Dog Aging Project), he describes the promises and perils of anti-aging medicine and shares with us some tips on how to become better critical thinkers and protect us from hype and snake oil.

This interview is a must watch for everyone who wants to develop a critical stance toward the field of longevity research and balance enthusiasm with evidence.

I hope you enjoy this interview!

TIMESTAMPS
00:00 Introduction.
04:33 Definitions: Aging, lifespan, healthspan.
09:08 What is biohacking.
14:56 The Dog Aging project.
19:39 Rapamycin: Longevity effects in mice.
22:28 Can rapamycin impair muscle growth? Is it in contraindicated for people who want to build muscle mass?
27:09 Exercise, inhibition of mTor, and rationale for cycling rapamycin and exercise.
29:46 Getting around the growth vs. resilience tradeoff in longevity.
32:00 Epigenetic clocks: Hope vs. hype.
32:43 Best functional markers of longevity.
36:30 Sterile inflammation, auto-immunity, and immune senescence.
40:24 The best and worst longevity supplements for Matt Kaeberlein.
45:50 What longevity hacks Matt implements in his own life.
48:00 Lucia’s and Matt’s thoughts on calorie restriction for longevity.
50:30 How can people discriminate between science and sneak oil?

🐶 The Dog Aging project: https://dogagingproject.org/

Researchers make human neurons grow inside living rat brains

Because it CAN be done does not mean it SHOULD be done.

We humans have not yet developed a strong understanding of unintended consequences.


Human neurons can survive — and even develop — after being transplanted into newborn rats. But are they still rats?

Understanding the brain is one of the greatest goals of modern science. But parts of what we find out are more curious than we could have ever imagined. A new paper highlights one such discovery.

Researchers at the University of Stanford report that human neurons transplanted into newborn rats can grow and develop with the animal.

Dr. Felicia Goodrum, Ph.D. — Rational Virology Research For Human Health And Pandemic Prevention

Rational Virology Research For Human Health & Pandemic Prevention — Dr. Felicia Goodrum Sterling, Ph.D. Professor, Department of Immunobiology, The University of Arizona.


Dr. Felicia Goodrum, Ph.D. (https://profiles.arizona.edu/person/fgoodrum) is Interim Associate Department Head and Professor of Immunobiology, as well as Professor, BIO5 Institute, Cellular and Molecular Medicine, Molecular and Cellular Biology, Cancer Biology And Genetics Graduate Interdisciplinary Programs, at the University of Arizona.

Dr. Goodrum earned her Ph.D. from Wake Forest University School of Medicine studying cell cycle restrictions to adenovirus replication and then trained as a postdoctoral fellow at Princeton University in the laboratory of Dr. Thomas Shenk studying human cytomegalovirus latency.

Dr. Goodrum joined the faculty at the University of Arizona in 2006, and her long-standing research focus is to understand the molecular virus-host interactions important to human cytomegalovirus (CMV) latency and persistence in the host. She has focused on identifying viral and host determinants mediating the switch between latent and replicative states. The goal of her research program is to define the mechanistic underpinnings of HCMV latency and reactivation to lay the foundation for clinical interventions to control CMV disease in all settings.

Dr. Goodrum is the recipient of the Howard Temin Award from the National Cancer Institute, the Pew Scholar in Biomedical Sciences Award, and the Presidential Award for Early Career Scientists and Engineers.

This Startup Is Building Computer Chips With Real Neurons

There’s an excessive amount of innovation embedded in right now’s cutting-edge pc chips, however not a lot of it’s as out-of-the-box because the considering that’s driving Australian startup Cortical Labs. The corporate, like so many startups with synthetic intelligence in thoughts, is constructing pc chips that borrow their neural community inspiration from the organic mind. The distinction? Cortical is utilizing precise organic neurons, taken from mice and people, to make their chips.

“We’re constructing the primary hybrid pc chip which entails implanting organic neurons on silicon chips,” Hon Weng Chong, CEO and co-founder of Cortical Labs, informed Digital Tendencies.

That is completed by first extracting neurons in two other ways, both from a mouse embryo or by remodeling human pores and skin cells again into stem cells and inducing these to develop into human neurons.

Exercise Timing Is Associated With All-Cause Mortality Risk

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Epigenetic Testing: https://bit.ly/3Rken0n.
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