Epomaker NT68: Mobile mechanische Tastatur für Notebooks angekündigt

Epomaker entwickelt mit der NT68 eine Bluetooth-Tastatur für Notebooks, die mit mechanischen Tasten ausgerüstet ist und im 65-Prozent-Layout gefertigt werden soll. (Tastatur, Eingabegerät)

Epomaker entwickelt mit der NT68 eine Bluetooth-Tastatur für Notebooks, die mit mechanischen Tasten ausgerüstet ist und im 65-Prozent-Layout gefertigt werden soll. (Tastatur, Eingabegerät)

USA: Weniger Demokratie wagen!

Können die US-Demokraten unter Biden die Demokratie verteidigen? Sie scheinen sich nicht einmal einig zu sein, inwieweit das nötig ist

Können die US-Demokraten unter Biden die Demokratie verteidigen? Sie scheinen sich nicht einmal einig zu sein, inwieweit das nötig ist

Warum die Bitcoin-Apokalypse ausbleibt

Es gibt keinen permanent steigenden Stromverbrauch, der zum Crash der Kryptowährung führen wird. Replik zum Artikel “Der Bitcoin-Crash ist programmiert” von Christian Kreiß

Es gibt keinen permanent steigenden Stromverbrauch, der zum Crash der Kryptowährung führen wird. Replik zum Artikel "Der Bitcoin-Crash ist programmiert" von Christian Kreiß

Google details its protein-folding software, academics offer an alternative

Once computationally impossible, AIs now translate protein sequence to structure.

Image of two multi-colored traces of complex structures.

Enlarge (credit: University of Washington)

Thanks to the development of DNA-sequencing technology, it has become trivial to obtain the sequence of bases that encode a protein and translate that to the sequence of amino acids that make up the protein. But from there, we often end up stuck. The actual function of the protein is only indirectly specified by its sequence. Instead, the sequence dictates how the amino acid chain folds and flexes in three-dimensional space, forming a specific structure. That structure is typically what dictates the function of the protein, but obtaining it can require years of lab work.

For decades, researchers have tried to develop software that can take a sequence of amino acids and accurately predict the structure it will form. Despite this being a matter of chemistry and thermodynamics, we've only had limited success—until last year. That's when Google's DeepMind AI group announced the existence of AlphaFold, which can typically predict structures with a high degree of accuracy.

At the time, DeepMind said it would give everyone the details on its breakthrough in a future peer-reviewed paper, which it finally released yesterday. In the meantime, some academic researchers got tired of waiting, took some of DeepMind's insights, and made their own. The paper describing that effort also was released yesterday.

Read 17 remaining paragraphs | Comments

Google details its protein-folding software, academics offer an alternative

Once computationally impossible, AIs now translate protein sequence to structure.

Image of two multi-colored traces of complex structures.

Enlarge (credit: University of Washington)

Thanks to the development of DNA-sequencing technology, it has become trivial to obtain the sequence of bases that encode a protein and translate that to the sequence of amino acids that make up the protein. But from there, we often end up stuck. The actual function of the protein is only indirectly specified by its sequence. Instead, the sequence dictates how the amino acid chain folds and flexes in three-dimensional space, forming a specific structure. That structure is typically what dictates the function of the protein, but obtaining it can require years of lab work.

For decades, researchers have tried to develop software that can take a sequence of amino acids and accurately predict the structure it will form. Despite this being a matter of chemistry and thermodynamics, we've only had limited success—until last year. That's when Google's DeepMind AI group announced the existence of AlphaFold, which can typically predict structures with a high degree of accuracy.

At the time, DeepMind said it would give everyone the details on its breakthrough in a future peer-reviewed paper, which it finally released yesterday. In the meantime, some academic researchers got tired of waiting, took some of DeepMind's insights, and made their own. The paper describing that effort also was released yesterday.

Read 17 remaining paragraphs | Comments

Hackers got past Windows Hello by tricking a webcam

Researchers used infrared photos and third-party hardware to best facial-recognition tech.

Clearly the quickest way to bypass Microsoft facial recognition, no?

Clearly the quickest way to bypass Microsoft facial recognition, no?

Biometric authentication is a key piece of the tech industry's plans to make the world password-less. But a new method for duping Microsoft's Windows Hello facial-recognition system shows that a little hardware fiddling can trick the system into unlocking when it shouldn't.

Services like Apple's FaceID have made facial-recognition authentication more commonplace in recent years, with Windows Hello driving adoption even farther. Apple only lets you use FaceID with the cameras embedded in recent iPhones and iPads, and it's still not supported on Macs at all. But because Windows hardware is so diverse, Hello facial recognition works with an array of third-party webcams. Where some might see ease of adoption, though, researchers from the security firm CyberArk saw potential vulnerability.

That's because you can't trust any old webcam to offer robust protections in how it collects and transmits data. Windows Hello facial recognition works only with webcams that have an infrared sensor in addition to the regular RGB sensor. But the system, it turns out, doesn't even look at RGB data. Which means that with one straight-on infrared image of a target's face and one black frame, the researchers found that they could unlock the victim's Windows Hello–protected device.

Read 11 remaining paragraphs | Comments