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Humanity has a plastic problem, but who said the problem couldn’t also be tasty? Scientists are trying to come up with creative solutions to address the ever-growing issue every day, with some even converting plastic bottles into vanillin using bacteria. Most recently, two scientists have echoed this sentiment and won the $1.18 million (1 million euro) 2021 Future Insight Prize in the process by creating a food ‘generator’ concept that turns plastics into protein.

The names behind the project, which was initially funded by a Defense Advanced Research Projects Agency (DARPA) cooperative agreement award for $7.2 million over four years, are Ting Lu, a professor of bioengineering at the University of Illinois Urbana-Champaign, and Stephen Techtmann, associate professor of biological sciences at Michigan Technological University.

Their goal was to improve a process for converting plastic trash into protein powder and lubricants using a combination of chemicals and high heat (pyrolysis). The two scientists call their project a food ‘generator.’

The result is optogenetics, a mind-controlling technique that’s become one of neuroscience’s most popular tools. Here, scientists use genetic engineering to put different types of algae proteins into the brains of mice. They can then activate a neuron with an implanted fiber optic cable by pulsing certain wavelengths of light. These enhanced brain cells react as they would naturally, generating an electrical signal that’s passed down and interpreted by the mouse’s brain.

Sound familiar?

If an algae protein can artificially allow neurons in the brain to translate light into electrical information, why can’t it do the same for damaged eyes?

Bioprinting in seconds.


Biofabrication technologies, including stereolithography and extrusion-based printing, are revolutionizing the creation of complex engineered tissues. The current paradigm in bioprinting relies on the additive layer-by-layer deposition and assembly of repetitive building blocks, typically cell-laden hydrogel fibers or voxels, single cells, or cellular aggregates. The scalability of these additive manufacturing technologies is limited by their printing velocity, as lengthy biofabrication processes impair cell functionality. Overcoming such limitations, the volumetric bioprinting of clinically relevant sized, anatomically shaped constructs, in a time frame ranging from seconds to tens of seconds is described. An optical-tomography-inspired printing approach, based on visible light projection, is developed to generate cell-laden tissue constructs with high viability (85%) from gelatin-based photoresponsive hydrogels. Free-form architectures, difficult to reproduce with conventional printing, are obtained, including anatomically correct trabecular bone models with embedded angiogenic sprouts and meniscal grafts. The latter undergoes maturation in vitro as the bioprinted chondroprogenitor cells synthesize neo-fibrocartilage matrix. Moreover, free-floating structures are generated, as demonstrated by printing functional hydrogel-based ball-and-cage fluidic valves. Volumetric bioprinting permits the creation of geometrically complex, centimeter-scale constructs at an unprecedented printing velocity, opening new avenues for upscaling the production of hydrogel-based constructs and for their application in tissue engineering, regenerative medicine, and soft robotics.

💠 Japanese researchers have created a “nose” mosquito that can detect odors from tiny droplets of liquid droplets. The research could lead to the creation of Smell-O-Vision for machines and a means of diagnosing early cancer, they say. Japanese researchers have created a “nose” that can detect different odors at the same time. The team used two bubbles, each filled with oil, broken horizontally, to create a squinted figure-eight. They hope to use it to develop an artificial nose in the future.

Researchers have developed a “bionic nose” that can detect odor molecules. The team hopes to use the device as an inexpensive way to diagnose the early stages of illness. Eventually, the team wants to use their bionic nose for cancer and other health issues. They hope to make the device available to the public soon.

Thanks and Enjoy 🔥 🔥
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🎥 #BioEngineering #Mosquitoes #Cells.

Sources:
https://www.nature.com/articles/nature.2014.14904#:~:text=Th…%20roughly, report%20today%20in%20Science1.
https://www.eurekalert.org/pub_releases/2021-01/uot-hdy011121.php.
https://advances.sciencemag.org/content/7/3/eabd2013

Check out our new promo for #transvision #future Summit 2021! Get your tickets! -> www.TransVisionMadrid.com There will be talks about #longevity #artificialintelligence #cryonics and much much more. You will also be able to network with speakers and attendees during 5 optional dinner/cocktails, and 2 tours of several UNESCO heritage sites and historical places: Ávila, Segovia, Monsaterio de El Escorial, Valle de los Caídos (Valley of the Fallen), Aranjuez & Toledo.

Humanity Plus Humanity Plus Humanity Plus Magazine MUTISHAN Interactive Vivian Francos #SEOHashtag Alcor Life Extension Foundation Cryonics Institute Cryonics Institute SENS Research Foundation SENS Research Foundation Posthuman Network Posthuman Network Cryonics4U Longevity Conferences Longevity for All U.S. Transhumanist Party Transhumanist Party Australia Transhumanist Party Virtual Rational Transhumanism Singularity University Ray Kurzweil Singularity Singularity Hub Ray Kurzweil’s Singularity Singularity Network Transhumanismo Brasil Transhumanismo Brasil TRANSHUMANISMO Christian Transhumanist Association Mormon Transhumanist Association SingularityNET Singularitarianism Foresight Institute Lifeboat Foundation Lifeboat Foundation Machine Intelligence Research Institute KrioRus The Hedonistic Imperative — Paradise Engineering.

Promo by sergio tarrero for alianza futurista & transvision madrid.


http://www.TransVisionMadrid.com.

Spain will host the next world futurist summit on October 8, 9 and 10, 2021. Humanity+ will be the main international organizer of this international congress. Afterwards, during October 11 and 12, we will continue with informal conversations while traveling to UNESCO World Heritage Sites around Madrid: Aranjuez, Ávila, El Escorial, Segovia y Toledo. Every night will finish with optional cocktails in beautiful places for networking and meeting the participants and speakers.

One of the scientists prodding and poking the Kelly brothers is Prof Christopher E Mason, the lead geneticist on the Twins Study. Mason’s lab at Cornell University is nothing if not ambitious. Its work centres on a “500-year plan for the survival of the human species on Earth, in space, and on other planets.”

As well as studying what happens to astronauts, it involves laying the genetic groundwork for humans to live among the stars. Mason envisions a future in which the human genome can be bioengineered to adapt to almost any environment, augmented with genes from other species that allow us to explore and settle the farthest corners of the Universe.

We probably at this point should make all animals immortal: 3.


The advance promises to unlock new insights into human biology and disease, aiding in the study of everything from the developing immune system to tissue regeneration to skin cancer.

“Studying biodiversity is not just about exploring the biology of a bunch of interesting organisms, but ultimately for a better understanding of human biology,” developmental biologist and lead study author Hiroshi Kiyonari said via email.

Five years ago, his team began to systematically work out the problem that had so long plagued the opossum field. The first barrier was to collect zygotes (fertilized eggs) at the right time. Ideally, that would be before they began dividing, when they are still a single cell. If you inject CRISPR at this stage, you can be sure all the resulting animals’ cells will carry whatever DNA changes you make. Doing it later can mean some cells but not others will be edited — a less ideal outcome known as mosaicism. Another benefit of collecting fertilized eggs as early as possible is that the shell coat hasn’t had time to thicken.

In this video, Drs Irina and Mike Conboy talk about their theory of why we age and introduce Neutral Blood Exchange, which came from their original parabiosis experiments documented in a 2005 paper.

Our guests today are Drs. Irina and Michael Conboy of the Department of Bioengineering at the University of California Berkeley. their discovery of the rejuvenating effects of young blood through parabiosis in a seminal paper published in Nature in 2005 paved the way for a thriving field of rejuvenation biology. The Conboy lab currently focuses on broad rejuvenation of tissue maintenance and repair, stem cell niche engineering, elucidating the mechanisms underlying muscle stem cell aging, directed organogenesis, and making CRISPR a therapeutic reality.

Papers mentioned in this video.
Plasma dilution improves cognition and attenuates neuroinflammation in old mice.
https://pubmed.ncbi.nlm.nih.gov/33191466/
Rejuvenation of three germ layers tissues by exchanging old blood plasma with saline-albumin.
https://pubmed.ncbi.nlm.nih.gov/32474458/
Rejuvenation of aged progenitor cells by exposure to a young systemic environment.
https://pubmed.ncbi.nlm.nih.gov/15716955/

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Replacing Aging — Dr. Jean M. Hebert, Ph.D. Albert Einstein College of Medicine.


Dr. Jean M. Hebert, Ph.D. (https://einsteinmed.org/faculty/9069/jean-hebert/) is Professor in the Department of Genetics and in the Dominick P. Purpura Department of Neuroscience, at Albert Einstein College of Medicine.

He’s also the author of the book Replacing Aging, which describes how regenerative medicine will beat aging.

With a Ph.D. in Genetics from the University of California, San Francisco, Dr. Hebert’s current lab’s projects fall into two groups.

First, they focus on using the mouse neocortex as a platform for testing the ability of multi-cell type grafts (increasingly resembling normal neocortex) to integrate with host tissue.

“Prime Editing is a wonderful example of the revolution in genetic medicine that we are living through,” said Robert Nelsen, co-founder and Managing Director of ARCH Venture Partners, one of several companies to fund Prime Medicine. “Gene editing technologies like this, when mature, could totally change our conception of what’s possible in treating disease.”

“This is an opportunity to take a giant step toward cures for a much wider range of diseases than previously possible,” said Stephen Knight, President and Managing Partner of F-Prime Capital, another backer of the new company.

The funds raised will be used to continue building the company, expand the capabilities of its technology platform and rapidly advance towards clinical indications. By the end of 2021, Prime Medicine expects to employ more than 100 people full-time.