TCA-SIR reformulates Scientific Inspiration Retrieval (SIR) as a target-conditioned abstraction task, where a transferable principle is extracted from a candidate paper specifically relative to a target problem, rather than ranking by topical similarity. The system learns to generate these abstractions and uses their representations to predict transferability, outperforming prior SIR methods including MOOSE-Chem by more than 10 percentage points in HitRate@top4% on ResearchBench. The approach is motivated by how humans abstract and remap problem-solving principles across domains, making it particularly useful for retrieving 'remote' inspirations with low topical overlap.
SandboxAQ has published a blog post on Hugging Face describing SAIR (Structural AI for Research), a system applying AI to structural biology data for drug discovery acceleration. The post outlines how structural intelligence—likely leveraging protein structure prediction or molecular modeling—is being applied to pharmaceutical R&D pipelines. This represents an enterprise deployment of AI in the life sciences domain, combining structural biology with machine learning.
SPECTRA is a reproducible framework for generating synthetic information retrieval test collections, separating latent topical structure, surface text realization, and query intent generation to produce deterministic relevance oracles without human annotation. A Python prototype generated corpora up to 60,000 documents at roughly 12K–14K documents per second, with graded relevance labels for 96 queries. Controlled distractor experiments showed BM25 nDCG@10 degrading from 1.00 at 2% distractors to 0.43 at 36%, demonstrating the framework's utility for exposing retrieval system failure modes before expensive real-world collection construction. The authors position SPECTRA as a diagnostic complement to Cranfield/TREC-style evaluation rather than a replacement for human judgment.
NatureBench introduces a 90-task benchmark derived from peer-reviewed Nature-family publications to evaluate whether AI coding agents can advance beyond reproduction toward genuine scientific discovery. Built on NatureGym, an automated pipeline that creates containerized per-task environments, the benchmark addresses environment fragmentation that has undermined prior agent-on-research evaluations. Evaluating ten frontier agent configurations under a web-search-disabled protocol, the strongest model exceeds published SOTA on only 17.8% of tasks, with failures driven primarily by wrong method choice and insufficient compute rather than task misunderstanding. Agents succeed mainly through methodological translation—recasting scientific problems as supervised prediction—rather than genuine scientific invention.
A new arXiv preprint introduces Supra Cognitive Modes (SCM), an agent memory architecture that routes queries to specialized retrieval and synthesis pipelines over a shared ingest substrate combining dense embeddings, knowledge graph triples, and fact-version metadata. A frozen semantic classifier dispatches queries among lexical/dense lookup, multi-hop graph reasoning, and long-form synthesis modes. The system is evaluated on three agent memory benchmarks—LoCoMo (84.87% factoid), MemoryAgentBench (61.49%), and LongMemEval (86.00%)—though the authors note that causal routing effects, efficiency gains, and statistical significance remain unestablished.
Researchers introduce SciReasoner, a multimodal scientific foundation model that discretizes molecular coordinates, topologies, and periodic connectivities into a unified structure-aware vocabulary for reasoning over proteins, small molecules, and inorganic crystals. The model achieves state-of-the-art performance on 67 of 86 benchmarks, with notable gains in Gene Ontology prediction (F_max 0.42→0.55), retrosynthesis accuracy (0.63→0.72), and materials phase separation. Expert evaluators rated its reasoning traces as preferred or comparable to a frontier LLM in 98% of cases, suggesting meaningful interpretability alongside accuracy gains.
Researchers introduce G-RRM (Guiding with Recurrent Reasoning Models), a neuro-symbolic framework that uses symbol-equivariant recurrent neural networks (SE-RRMs) to guide classical symbolic solvers—including backtracking and SAT solvers Glucose 4.1 and CaDiCaL 3.0.0—for constraint satisfaction problems. On 9×9 Sudoku, the approach achieves 33.3× speedup for backtracking and 1.70× for Glucose 4.1, but shows no significant gain for CaDiCaL due to its overhead-dominated runtime and inability to overwrite injected hints. The paper identifies two conditions for neural guidance to be effective: a large combinatorial search space and a solver architecture capable of dynamically overriding imperfect neural hints.
Researchers introduce InMind, a 125-task expert-verified benchmark targeting a failure mode in agent long-term memory: facts stored in memory are not retrieved when the query lacks surface-level textual overlap with the relevant memory (e.g., a nut allergy should affect a macaron recommendation but shares no keywords). Testing six vector, graph, and agentic memory systems reveals a stark gap — backbone models answer 84% of indirect queries when the relevant memory is placed in context, but retrieval systems surface the correct answer at most 14.4% of the time despite near-perfect on-demand recall. The study isolates the failure to the query-conditioned retrieval interface itself, framing routing — deciding which facts must remain visible — as the core open problem.
Researchers introduce Analogical Deep Research (ADR), a new task and benchmark (ADR-bench) for evaluating whether LLM agents can find and leverage structural historical analogies for foresight analysis. The paper identifies a core failure mode: agents match on surface features rather than causal mechanisms. The authors propose CANA (Causal Analogical Researcher), an agentic framework using structural decomposition and reflective feedback, achieving up to 10% improvement in analogy generation and outperforming state-of-the-art deep research agents on ADR-bench.