Lifeboat Foundation

Senolytics meets Synthetic biology so come along and ask them anything!

Hey folks, We are excited to announce that the CellAge longform AMA opens Friday for questions and the CellAge team will answer them from Monday 11am PST/2pm EST/6pm GMT. We will update the link to the Futurology AMA once it is ready.

CellAge are using synthetic biology to create new biomarkers for senescent cell detection, developing a new therapy to remove senescent cells which drive the aging process using custom synthetic biology. Come along and ask them all about it.

Continue reading “The CellAge long form AMA Starts Friday with questions answered Monday 11am PST/2pm EST/6pm GMT” »

CellAge targeting senescent cells using sythetic biology! Check out their new campaign video on Lifespan.io

Check out CellAge and their approach to removing senescent cells that accumulate with age and damage tissue regeneration.

https://www.lifespan.io/campaigns/cellage-targeting-senescen…c-biology/

Creative Machines; however, are they truly without a built in bias due to their own creator/s?

Despite nature’s bewildering complexity, the driving force behind it is incredibly simple. ‘Survival of the fittest’ is an uncomplicated but brutally effective optimization strategy that has allowed life to solve complex problems, like vision and flight, and colonize the harshest of environments.

Continue reading “Evolution’s Brutally Simple Rules Can Make Machines More Creative” »

In Brief

• By combining the fields of quantum physics and biology, researchers have developed more efficient solar cells inspired by photosynthesis.
• With current solar cells wasting about 80 percent of the energy absorbed, it will be interesting to see what future innovative approaches will allow in the pursuit toward universal clean energy.

Science once again reaches a milestone in technology by modeling it after nature. Researchers have devised a new type of highly efficient photocell by studying photosynthesis in plants.

Nathan Gabor, assistant professor for physics and astronomy at the University of California, Riverside, led research spurred by a simple question as to why plants are green. This eventually led to a quest to mimic plants’ ability to efficiently harvest energy from the Sun regardless of how erratic the sunlight is.

Continue reading “Light Harvesting ‘Quantum Photocells’ Herald A New Age in Solar Energy” »

The US Army Research Laboratory (ARL) are at an advanced stage of with their synthetic biology research. The work could see bacteria being used to send signals and sense in a way similar to computers, the advantage being that it could potentially provide a more intuitive sensory experience to a piece of tech, and bypass some of the pitfalls unique to electrical structures. The research also has application for new 3D printing materials.

The goal of roboticists has long been to make A.I. as efficient as the human brain, and researchers at the Massachusetts Institute of Technology just brought them one step closer.

In a recent paper, published in the journal Biology, scientists were able to successfully train a neural network to recognize faces at different angles by feeding it a set of different orientations for several face templates. Although this only initially gave the neural network the ability to roughly reach invariance — the ability to process data regardless of form — over time, the network taught itself to achieve full “mirror symmetry. Through mathematical algorithms, the neural network was able to mimic the human brain’s ability to understand objects are the same despite orientation or rotation.

Continue reading “A.I. Can Teach Itself to Recognize Faces Now” »

Move over, chemists. Thanks to proteins from Icelandic bacteria, scientists at Caltech have managed to coax microbes into making silicon-carbon bonds, a feat that until now has been achieved only by humans in the lab.

The findings, published last week in the journal Science, could open the door to new avenues in organic chemistry and drug development — and could help scientists investigate essential mysteries, such as whether life could be based on silicon instead of carbon on other planets.

A University of California, Riverside assistant professor has combined photosynthesis and physics to make a key discovery that could help make solar cells more efficient. The findings were recently published in the journal Nano Letters.

Nathan Gabor is focused on experimental condensed matter physics, and uses light to probe the fundamental laws of quantum mechanics. But, he got interested in photosynthesis when a question popped into his head in 2010: Why are plants green? He soon discovered that no one really knows.

During the past six years, he sought to help change that by combining his background in physics with a deep dive into biology.

Continue reading “Team combines quantum physics and photosynthesis to make discovery that could lead to highly efficient solar cells” »

A synthetic metabolic pathway developed by Tobias Erb and his colleagues at the Max Planck Institute for Terrestrial Microbiology in Marburg converts CO₂ from the atmosphere into organic matter more efficiently than plants are able to through photosynthesis. We asked the researcher what significance this process could have for climate protection, discussed the hurdles the research team had to overcome to achieve their goal, and looked at the new perspectives that synthetic biology opens up.

Does the synthetic metabolic pathway that fixes CO₂ now represent an effective means of curbing climate change?

Firstly, we are aiming to understand the fundamental biological and chemical principles of how CO₂ in gaseous form can be converted into organic molecules. Our primary motivation is not stopping climate change. We are seeking to develop atmospheric CO₂ as a source of carbon for the future using biological methods. Producing a CO2-neutral process or even one that removes CO₂ from the atmosphere and has a positive impact on the climate would be a fantastic secondary effect.

Continue reading “Biologist discusses a synthetic metabolic pathway that fixes carbon dioxide and synthetic biology” »