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New AI model predicts which genetic mutations truly drive disease

Scientists at Mount Sinai have created an artificial intelligence system that can predict how likely rare genetic mutations are to actually cause disease. By combining machine learning with millions of electronic health records and routine lab tests like cholesterol or kidney function, the system produces “ML penetrance” scores that place genetic risk on a spectrum rather than a simple yes/no. Some variants once thought dangerous showed little real-world impact, while others previously labeled uncertain revealed strong disease links.

After the Singularity — What Life Would Be Like If A Technological Singularity Happen?

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What happens after intelligence explodes beyond human comprehension? We explore a world shaped by superintelligence, where humanity may ascend, adapt — or disappear.

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Credits:
After the Singularity — What Life Would Be Like If A Technological Singularity Happened?
Written, Produced & Narrated by: Isaac Arthur.
Editors: Lukas Konecny.
Select imagery/video supplied by Getty Images.
Music Courtesy of Epidemic Sound http://epidemicsound.com/creator.

Chapters.
0:00 Intro.
3:36 Is the Singularity Inevitable? The Case for Limits and Roadblocks.
8:42 Scenarios After the Singularity.
9:15 Scenario One: The AI Utopia.
10:31 Scenario Two: Digital Heaven.
11:57 Scenario Three: The AI Wasteland.
13:10 Scenario Four: The Hybrid Civilization.
14:48 What Does the Singularity Mean for Us?
16:31 Humanity’s Response: Resistance, Adaptation, or Surrender.
20:22 PRecision.
21:45 The Limits of Superintelligence: Why Even Godlike Minds Might Struggle.
25:48 Humanity’s Role in a Post-Singularity Future.
29:06 The Fermi Paradox and the Silent Singularity.
31:10 Reflections in Pop Culture and History.
32:27 Writing the Future.

AI and lab tests to predict genetic disease risk

When genetic testing reveals a rare DNA mutation, doctors and patients are frequently left in the dark about what it actually means. Now, researchers have developed a powerful new way to determine whether a patient with a mutation is likely to actually develop disease, a concept known in genetics as penetrance.

The team set out to solve this problem using artificial intelligence (AI) and routine lab tests like cholesterol, blood counts, and kidney function. Details of the findings were reported in the journal Science. Their new method combines machine learning with electronic health records to offer a more accurate, data-driven view of genetic risk.

Traditional genetic studies often rely on a simple yes/no diagnosis to classify patients. But many diseases, like high blood pressure, diabetes, or cancer, don’t fit neatly into binary categories. The researchers trained AI models to quantify disease on a spectrum, offering more nuanced insight into how disease risk plays out in real life.

Using more than 1 million electronic health records, the researchers built AI models for 10 common diseases. They then applied these models to people known to have rare genetic variants, generating a score between 0 and 1 that reflects the likelihood of developing the disease.

A higher score, closer to 1, suggests a variant may be more likely to contribute to disease, while a lower score indicates minimal or no risk. The team calculated “ML penetrance” scores for more than 1,600 genetic variants.

Some of the results were surprising, say the investigators. Variants previously labeled as “uncertain” showed clear disease signals, while others thought to cause disease had little effect in real-world data.

How many self-driving vehicles can one person monitor at the same time?

It is possible for one person to safely monitor up to five self-driving vehicles at once, according to new research led by Coventry University.

As self-driving vehicle trials expand across the UK, having trained people to intervene remotely if something goes wrong is essential for both safety and reliability.

This kind of remote oversight is likely to be used for services such as driverless buses, and robotaxis, where one person monitors several vehicles as they follow fixed routes. It doesn’t apply to private self-driving cars, where a driver would currently need to be in the vehicle and in control.

Scientists develop the world’s first 6G chip, capable of 100 Gbps speeds

Sixth generation, or 6G, wireless technology is one step closer to reality with news that Chinese researchers have unveiled the world’s first “all-frequency” 6G chip. The chip is capable of delivering mobile internet speeds exceeding 100 gigabits per second (Gbps) and was developed by a team led by scientists from Peking University and the City University of Hong Kong.

6G technology is the successor to 5G and promises to bring about a massive leap in how we communicate. It will offer benefits such as ultra-high-speed connectivity, ultra-low latency and AI integration that can manage and optimize networks in real-time. To achieve this, 6G networks will need to operate across a range of frequencies, from standard microwaves to much higher terahertz waves. Current 5G technology utilizes a limited set of radio frequencies, similar to those used in previous generations of wireless technologies.

The new is no bigger than a thumbnail, measuring 11 millimeters by 1.7 millimeters. It operates across a wide frequency range, from 0.5 GHz to 115 GHz, which traditionally takes nine separate radio systems to cover this spectrum.

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