The world’s first quantum computer has entered orbit on a SpaceX rocket, promising energy-efficient edge computing from 550 km above Earth.
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Connected Minds: Preparing For The Cognitive Gig Economy
There’s also the risk of neuro-exploitation. In a world where disadvantaged individuals might rent out their mental processing to make ends meet, new forms of inequality could emerge. The cognitive gig economy might empower people to earn money with their minds, but it could also commoditize human cognition, treating thoughts as labor units. If the “main products of the 21st-century economy” indeed become “bodies, brains and minds,” as Yuval Noah Harari suggests, society must grapple with how to value and protect those minds in the marketplace.
Final Thoughts
What steam power and electricity were to past centuries, neural interfaces might be to this one—a general-purpose technology that could transform economies and lives. For forward-looking investors and executives, I recommend keeping a close eye on your head because it may also be your next capital asset. If the next era becomes one of connected minds, those who can balance bold innovation with human-centered ethics might shape a future where brainpower for hire could truly benefit humanity.
Metal-organic frameworks with metallic conductivity pave new paths for electronics and energy storage
Metal-organic frameworks (MOFs) are characterized by high porosity and structural versatility. They have enormous potential, for example, for applications in electronics. However, their low electrical conductivity has so far greatly restricted their adoption.
Using AI and robot-assisted synthesis in a self-driving laboratory, researchers from Karlsruhe Institute of Technology (KIT), together with colleagues in Germany and Brazil, have now succeeded in producing an MOF thin film that conducts electricity like metals. This opens up new possibilities in electronics and energy storage —from sensors and quantum materials to functional materials.
The team reports on this work in the Materials Horizons journal.
AI tool identifies five distinct cancer cell groups within individual tumors
A multinational team of researchers, co-led by the Garvan Institute of Medical Research, has developed and tested a new AI tool to better characterize the diversity of individual cells within tumors, opening doors for more targeted therapies for patients.
Findings on the development and use of the AI tool, called AAnet, have been published in Cancer Discovery.
Tumors aren’t made up of just one cell type—they’re a mix of different cells that grow and respond to treatment in different ways. This diversity, or heterogeneity, makes cancer harder to treat and can in turn lead to worse outcomes, especially in triple-negative breast cancer.
Can we fix AI’s evaluation crisis?
This is something that I often wonder about, because a model’s hardcore reasoning ability doesn’t necessarily translate into a fun, informative, and creative experience. Most queries from average users are probably not going to be rocket science. There isn’t much research yet on how to effectively evaluate a model’s creativity, but I’d love to know which model would be the best for creative writing or art projects.
Human preference testing has also emerged as an alternative to benchmarks. One increasingly popular platform is LMarena, which lets users submit questions and compare responses from different models side by side—and then pick which one they like best. Still, this method has its flaws. Users sometimes reward the answer that sounds more flattering or agreeable, even if it’s wrong. That can incentivize “sweet-talking” models and skew results in favor of pandering.
AI researchers are beginning to realize—and admit—that the status quo of AI testing cannot continue. At the recent CVPR conference, NYU professor Saining Xie drew on historian James Carse’s Finite and Infinite Games to critique the hypercompetitive culture of AI research. An infinite game, he noted, is open-ended—the goal is to keep playing. But in AI, a dominant player often drops a big result, triggering a wave of follow-up papers chasing the same narrow topic. This race-to-publish culture puts enormous pressure on researchers and rewards speed over depth, short-term wins over long-term insight. “If academia chooses to play a finite game,” he warned, “it will lose everything.”
Modified perovskite solar cells harvest energy from indoor fluorescent lighting
When you think of solar panels, you usually picture giant cells mounted to face the sun. But what if “solar” cells could be charged using fluorescent lights?
Perovskite solar cells (PeSCs) have emerged as a lower-cost, higher-efficiency alternative to traditional silicon solar cells due to their material structure and physical flexibility. Their large power conversion efficiency rate (PCE), which is the amount of energy created from the amount of energy hitting the cell, makes PeSCs well suited to converting lower light sources into energy.
In APL Energy, researchers from National Yang Ming Chiao Tung University in Taiwan created perovskite solar cells that effectively convert indoor lighting into electrical power.
Researchers confirm fundamental conservation laws at the quantum level
Researchers at Tampere University and their collaborators from Germany and India have experimentally confirmed that angular momentum is conserved when a single photon is converted into a pair – validating a key principle of physics at the quantum level for the first time. This breakthrough opens new possibilities for creating complex quantum states useful in computing, communication, and sensing.
Conservation laws are the heart of our natural scientific understanding as they govern which processes are allowed or forbidden. A simple example is that of colliding billiard balls, where the motion – and with it, their linear momentum – is transferred from one ball to another. A similar conservation rule also exists for rotating objects, which have angular momentum. Interestingly, light can also have an angular momentum, e.g., orbital angular momentum (OAM), which is connected to the light’s spatial structure.
In the quantum realm, this implies that single particles of light, so-called photons, have well-defined quanta of OAM, which need to be conserved in light-matter interactions. In a recent study in Physical Review Letters, researchers from Tampere University and their collaborators, have now pushed the test of these conservation laws to absolute quantum limit. They explore if the conservation of OAM quanta holds when a single photon is split into a photon pair.
