
Microsoft Research has released Skala 1.1, an updated version of its deep-learning approach to density functional theory (DFT). This version is trained on 2.5 times more data, significantly improving accuracy in molecular simulations. Skala is now integrated into major software packages like CP2K and is being added to others such as Psi4 and VASP. These integrations aim to make advanced DFT capabilities more accessible to scientists, enhancing the predictive power of computational chemistry across various fields.
Read original
© TechCrunch AINvidia's latest research reveals that the software harness is crucial for AI performance, particularly in long-horizon tasks. By implementing a custom harness with a supervisory component, Nvidia's Claude Opus 5 achieved a perfect score on the ARC-AGI-3 benchmark, outperforming competitors like OpenAI. This finding suggests that while the AI model is significant, the harness — which manages memory and context — is essential in turning a model into an effective agent. Nvidia's work points to the potential of open harnesses to improve AI accuracy and user control, challenging the traditional emphasis on model selection alone.
© Google Research BlogGoogle Research has unveiled the Biomarker Discovery Framework, a multi-agent AI system designed to prioritize candidate biomarkers from wearable sensor data. This framework addresses the challenge of turning vast physiological data streams into clinically meaningful insights by combining hypothesis generation, statistical analysis, and literature-grounded reasoning. It successfully identified 41 mental health and 25 metabolic biomarkers across large cohorts, demonstrating its potential to enhance predictive performance when integrated with demographic data. By maintaining human oversight and rigorous statistical validation, this tool represents a significant step forward in digital medicine research.
© Google Research BlogGoogle Research has introduced a novel framework called Mobility-Embedded POIs (ME-POIs) that enhances AI models' understanding of real-world places by integrating mobility data with traditional text-based representations. This approach allows AI to capture the dynamic rhythms of places, improving predictions about attributes like busyness and price levels. By combining text descriptions with anonymized mobility patterns, ME-POIs creates a more holistic representation of places, leading to significant accuracy gains in various predictive tasks. This development marks a shift in how AI models can perceive and interpret the physical world, moving beyond static metadata to a richer, context-aware understanding.