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I love the analogy they use here of space flight — a deeply impressive human accomplishment that has, nevertheless, primarily relied on engineering solutions because the science behind it is relatively well understood. It’s a great reminder that BCIs are not “rocket science” because, unlike rocket science, we don’t yet have the science to underpin the engineering that advances will rely on.

Yet despite this, Gordon and Seth throw a bone to engineers who can’t wait for the science to catch up. And they do this by suggesting that artificial intelligence may “soften” if not completely eliminate the science challenges facing the development of successful BCIs.

At this point it’s hard to tell how far AI-driven engineering solutions might support BCIs designed to enhance performance — and Gordon and Seth suggest that near term technologies may be “limited to controlling apps on phones or other similarly prosaic activities”. But they also acknowledge that, in spite of the considerable challenges, BCIs still hold promise for human enhancement in the future.

Researchers at the National Institutes of Health (NIH) and their collaborators have discovered a new way in which RAS genes, which are commonly mutated in cancer, may drive tumor growth beyond their well-known role in signaling at the cell surface.

Mutant RAS, they found, helps to kick off a series of events involving the transport of specific nuclear proteins that lead to uncontrolled , according to a study published November 11, 2024, in Nature Cancer.

RAS are the second most frequently mutated genes in cancer, and mutant RAS proteins are key drivers of some of the deadliest cancers, including nearly all , half of colorectal cancers, and one-third of lung cancers.

Dutch astrophysicists have observed the collision of two neutron stars, capturing unprecedented data that offers new insights into the formation of black holes.

The team, based at the Niels Bohr Institute at the University of Copenhagen, documented the birth of the smallest black hole ever recorded through their observations. Their findings, published in Astronomy and Astrophysics, illuminate the immense cosmic forces at play and how such events have shaped the universe and the creation of atoms.

Microorganisms—bacteria, viruses and other tiny life forms—may drive biological variation in visible life as much, if not more, than genetic mutations, creating new lineages and even new species of animals and plants, according to Seth Bordenstein, director of Penn State’s One Health Microbiome Center, professor of biology and entomology, and the Dorothy Foehr Huck and J. Lloyd Huck Endowed Chair in Microbiome Sciences.

Bordenstein and 21 other scientists from around the world published a paper in Science, summarizing research that they said drives a deeper understanding of biological variation by uniting life’s seen and unseen realms.

The authors explained that this newly described concept—holobiont —underpins a multidisciplinary and holistic understanding of how life’s forms and functions, from human disease to , depend upon the relationships between microorganisms and their hosts. Penn State News spoke with Bordenstein about the paper and the emerging field of holobiont biology.

Spanning 18 kilometers, the new Fehmarn Belt fixed link between Germany and Denmark will be the world’s longest and deepest underwater tunnel, combining road and rail.

Once completed, the tunnel promises to reduce travel time, strengthen ties between Scandinavia and Central Europe, form a greener traffic lane, and boost train transport. The ten billion euro price tag, therefore, promises to be worth it and has the stamp of approval from the European Commission’s Ten-T Programme.

The underwater fixed link tunnel will consist of two two-lane highways divided by a service passage and two separate railways.

A patient’s own blood could be used to help create a material potentially capable of repairing their broken bones, new research suggests.

Scientists have transformed blood into a substance which successfully repaired bones in animals, paving the way for personalised 3D-printed implants.

They suggest the new material has the potential to create regenerative blood products that could be used as effective therapies to treat injury and disease.