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Research

Equivariant Deep Learning in Direct-Product Space for Electronic-Structure Hamiltonian Prediction

Researchers propose DP-Learner, an equivariant learning framework that performs message passing directly on Hamiltonian-like operator blocks in direct-product space rather than direct-sum spaces of irreducible spherical tensors. The method introduces Lie-generator-based directional embedding and invariantly weighted left-right products and contractions intended to preserve equivariance to SO(3), SU(2), and spatial inversions without explicit Clebsch-Gordan decomposition. It is instantiated as a Transformer architecture and accompanied by MP-HAM-110K, a dataset of more than 110,000 material structures covering 68 elements with Hamiltonian and wavefunction data. Experiments on MP-HAM-110K and Materials-HAM-SOC report improved Hamiltonian prediction accuracy and inference efficiency over the state-of-the-art method.

AI for scienceequivariant neural networkselectronic structure
Research Editor selected

Research World Model for Power Engineering Learns Field Dynamics and Simulates What-Ifs

Researchers built a 'research world model' for power engineering using 1.1 million papers, treating the field as a dynamical system. A distilled language model extracts role-typed concepts, and graph-temporal neural networks learn how the concept network evolves, enabling forecasts of concept growth and new method-target pairings. The model also estimates intervention effects and answers natural-language what-if questions via paired simulations, with high faithfulness ratings.

Why it matters: This introduces a novel AI-driven method for simulating research decisions in a technical field, with demonstrated predictive and counterfactual capabilities, offering practical value for strategic planning.

AI for scienceresearch dynamicspower engineering
Research Editor selected

OmniQ and Residual Agents: A self-improving AI scientist for computational quantum research

The paper introduces OmniQ, a virtual research environment that converts published computational quantum science papers into executable reproduction tasks, and evaluates five agentic systems across 59 papers. It finds that current AI scientists frequently fail to reproduce published results due to a mismatch between paper content and agent requirements. The authors develop Residual Agents (RA), a quantum-tailored self-improving AI scientist that distills verified workflow repairs, boosting DeepSeek V4.1 Flash from 68% to 85% accuracy at one-third the cost of Claude Code with Opus 5.

Why it matters: Provides a concrete, reproducible framework and a cost-effective solution to the reproducibility gap in AI-driven scientific research, with clear performance benchmarks.

AI for sciencecomputational quantum researchautonomous discovery
Models Editor selected

Deep Principle Releases Hydrogen-1.0: A 753B Open-Weight Model for Scientific Discovery

Deep Principle has released Hydrogen-1.0, a 753B-parameter open-weight scientific model built by post-training Z.ai's GLM-5.3 on domain data, laboratory records, and discovery trajectories. It reports a 38.3% score on FrontierScience-Research, outperforming GPT-6-Astra's 33.3%, and matches Kimi-K3 on GPQA-Diamond. The model is MIT-licensed and designed for chemistry, materials science, and life sciences, with deployment options on NVIDIA and AMD GPUs.

Why it matters: This is a concrete, recent release of a large open-weight model with novel training data and competitive benchmark results, offering practical value for researchers and developers in scientific AI.

AI for scienceopen-source modelsmodel benchmarking
Research Editor selected

SETI Researchers Use AI Agents to Operate Telescope and Analyze Live Signals

Breakthrough Listen and the SETI Institute are integrating AI agents into observations at the Allen Telescope Array, enabling telescope control, calibration and live signal analysis through natural-language requests. NVIDIA reports that the GPU-based pipeline handles 2.4 terabits per second and has demonstrated real-time AI detection of a pulsar in the Crab Nebula. The team is also evaluating open models, including NVIDIA Nemotron, for locally operated observatories.

Why it matters: The development offers a concrete example of AI agents controlling scientific instruments and analyzing high-throughput sensor data in real time.

SETI InstituteBreakthrough ListenNVIDIA
Research

Reaction Precedents Extend Retrosynthesis Beyond Training Coverage

Researchers used 2.71 million reactions to test whether retrieving reaction precedents can compensate for gaps in task-specific training coverage. With model parameters fixed, expanding only the retrieval corpus raised mean Top-1 accuracy on excluded transformations from 13.0% to 58.0% on a historical test set and from 4.9% to 23.1% on a temporally held-out set. A model trained on pre-2017 records matched or exceeded a non-retrieval model trained on pre-2025 records after retrieval expansion. Without task-specific fine-tuning, precedents improved all 14 representative general-purpose models tested, and the strongest model with precedents surpassed all eight representative specialized models.

retrosynthesisretrieval-augmented generationAI for science
Research Editor selected

Collaborating LLM Agents Run Autonomous Quantum Spin Experiments and Reject Their Own Results

Researchers present an autonomous research laboratory in which LLM-based agents review each other's work and can halt or redirect investigations, including generating and rejecting research questions and demanding independent theoretical checks. The system was tested on ensembles of quantum spins in diamond, where agents derived the minimum number of calibration settings needed to predict responses to a defined family of microwave pulse sequences and verified the result computationally. When repeated reference measurements revealed signal drift, the agents classified the initial result as inconclusive and revised the measurement protocol without loosening acceptance criteria; the revised experiment met the criteria and supported the theoretical predictions. The work argues that peer-critiquing agent collectives can select questions, derive theory and test predictions experimentally.

Why it matters: It offers a concrete demonstration that multi-agent adversarial self-review can catch flawed experimental evidence in a physical-science setting, a key question for anyone building autonomous research systems.

autonomous research agentsNV-center quantum spinsAI for science
Research

Microsoft Research Focus #97: Agent Frameworks, Coding-Agent Limits, and BioEmu2 Preview

Microsoft Research's latest Research Focus edition rounds up new work on self-improving agents (ForkPilot), coding-agent evaluation (CABRA), and skill learning from activity logs (TeleTune). It also highlights a study of Copilot use across industries, Shiksha Copilot in Indian classrooms, a probabilistic bias-correction framework for extended-range weather forecasting, and the public preview of biomolecular foundation model BioEmu2. The episode points to concrete research directions in agent reliability, workplace AI adoption, and AI for science.

Microsoft ResearchAI agentsAI for science
Research Editor selected

Microsoft researchers, with AI-guided search, prove the KLS conjecture

Microsoft Research's Xinzhi Zhang and co-author Zhao Song proved the Kannan–Lovász–Simonovits conjecture, a 31-year-old central problem in high-dimensional geometry. The proof establishes a dimension-free bound showing flat cuts capture log-concave distributions' narrowest bottlenecks within a universal constant. The authors used a human-directed agentic process, exploring roughly 100 research trajectories before the key criterion emerged, while unguided AI attempts fell short. Independent paral

Why it matters: It documents a landmark math result achieved through guided human-AI collaboration, offering concrete evidence on how agentic AI assists scientific discovery.

Microsoft ResearchKLS conjectureAI for science
Industry

OpenAI acquires Orchestra Bio to strengthen life-sciences AI and Rosalind

OpenAI has acquired the startup Orchestra Bio, adding its team and technology to its biotech efforts. The acquired capabilities will support Rosalind, OpenAI's AI model for life-sciences research, and Rosalind Workbench, a tool for planning experiments and analyzing results. The deal signals continued investment in applying AI to scientific research workflows.

OpenAIOrchestra BioAI for science
Research

GPT-6-Astra solves 49 of 50 physics problems on TheoPhysEval benchmark

On the TheoPhysEval benchmark, GPT-6-Astra reportedly solved 49 of 50 unpublished theoretical physics calculations as accurately as leading specialists, according to The Decoder. Researchers noted that some apparent failures were actually errors in the experts' own reference solutions. They also said physics has not seen a breakthrough comparable to those in mathematics because the agents lack "taste." They expect autonomous, top-level AI research could arrive soon, with consequences for how you

GPT-6-AstraTheoPhysEvalAI for science
Research Editor selected

Microsoft Research Open-Sources RetroChimera, an Ensemble Model for Retrosynthesis Prediction

Microsoft Research describes RetroChimera, a retrosynthesis framework published in Nature that ensembles a Transformer-based de-novo model (R-SMILES 2) with a graph neural network that selects reaction templates (NeuralLoc). A learned re-ranking strategy combines their complementary strengths, improving recall of rare reactions and alignment with expert chemists' preferences. In expert assessments, RetroChimera was accepted on nine of ten challenging targets versus fewer for baselines, and in bl

Why it matters: It gives chemists and AI researchers an openly available ensemble retrosynthesis model with published validation, potentially accelerating molecule synthesis planning.

Microsoft Researchretrosynthesissmall molecule synthesis