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A team of Rutgers scientists dedicated to pinpointing the primordial origins of metabolism—a set of core chemical reactions that first powered life on Earth—has identified part of a protein that could provide scientists clues to detecting planets on the verge of producing life.

The research, published in Science Advances, has important implications in the search for because it gives researchers a new clue to look for, said Vikas Nanda, a researcher at the Center for Advanced Biotechnology and Medicine (CABM) at Rutgers.

Based on laboratory studies, Rutgers scientists say one of the most likely chemical candidates that kickstarted life was a simple peptide with two nickel atoms they are calling “Nickelback” not because it has anything to do with the Canadian rock band, but because its backbone nitrogen atoms bond two critical nickel atoms. A peptide is a constituent of a protein made up of a few elemental building blocks known as .

A new paper in Nature Communications illuminates how a previously poorly understood enzyme works in the cell. Many diseases are tied to chronic cellular stress, and UMBC’s Aaron T. Smith and colleagues discovered that this enzyme plays an important role in the cellular stress response. Better understanding how this enzyme functions and is controlled could lead to the discovery of new therapeutic targets for these diseases.

The enzyme is named ATE1, and it belongs to a family of enzymes called arginyl-tRNA transferases. These enzymes add arginine (an amino acid) to proteins, which often flags the proteins for destruction in the cell. Destroying proteins that are misfolded, often as a result of cellular stress, is important to prevent those proteins from wreaking havoc with cellular function. An accumulation of malfunctioning proteins can cause serious problems in the body, leading to diseases like Alzheimer’s or cancer, so being able to get rid of these proteins efficiently is key to long-term health.

The new paper demonstrates that ATE1 binds to clusters of iron and sulfur ions, and that the enzyme’s activity increases two-to three-fold when it is bound to one of these iron-sulfur clusters. What’s more, when the researchers blocked cells’ ability to produce the clusters, ATE1 activity decreased dramatically. They also found that ATE1 is highly sensitive to oxygen, which they believe relates to its role in moderating the cell’s stress response through a process known as .

A quick introduction to Yamanaka factors!


The quest for longevity has always been with us. Ever since the ancient kings of old we have been trying everything we can think of in order to stave off death and disease, with most of our efforts unfortunately baring little fruit. However, as it turns out, the power to reverse the aging process has been nestled within us this whole time. Not in the metaphorical sense, but rather in the quite literal sense. For you see, we have been reversing the aging process every single time we have reproduced.

Have you ever wondered how it is that regardless of how old the parents of a child are, the child is never born ‘pre-aged?’. This seems like a ridiculous question, but if the genetic material that came from the parents (especially from the father) has already undergone the aging process, then how is it that ‘genetic aging’ is not passed onto the child? If such a process were to occur, then it would obviously spell doom for our entire species, as we would eventually accumulate age with each subsequent generation and we would very quickly perish. Yet, this obviously does not happen. So the question was asked, why is this?

The future of computing includes biology says an international team of scientists.

The time has come to create a new kind of computer, say researchers from John Hopkins University together with Dr. Brett Kagan, chief scientist at Cortical Labs in Melbourne, who recently led development of the DishBrain project, in which human cells in a petri dish learned to play Pong.

In an article published on February 27 in the journal Frontiers in Science, the team outlines how biological computers could surpass today’s electronic computers for certain applications while using a small fraction of the electricity required by today’s computers and server farms.

Working from home has many of us wondering how we can make this new experience more comfortable and accommodating. lately we’ve seen brands like established & sons collaborate with french designers erwan and ronan bouroullec to create flexible pieces of furniture that really work for these changing times. but this new chair got us both excited and confused as we can’t decide if it’s genius or just borderline crazy. developed by cluvens, the cluvens IW-SK zero-gravity esports gaming chair boast a scorpion shape that cocoons you — if that’s what you like.

We humans have a wonderful ability to keep developing, innovating, and engineering bigger, better, and faster contraptions. Close to Earth, we’ve been soaring through the skies in airplanes since 1903 thanks to the Wright brothers, and we’ve been launching spacecraft into space since 1957 when the Soviet Union rocketed the Sputnik satellite above our heads.

The team discovered a way of stabilizing detonation for hypersonic propulsion by creating a hypersonic reaction chamber for jet propulsions.