Cal Poly research shows time-varying magnetic fields can engineer exotic quantum matter
Peer-Reviewed Publication
Updates every hour. Last Updated: 27-Oct-2026 10:17 ET (27-Oct-2026 14:17 GMT/UTC)
A study focusing on fundamental aspects of quantum physics led by Cal Poly Physics Department Lecturer Ian Powell analyzed how a changing magnetic field can make matter behave in unusual ways. Working in collaboration with student researcher Louis Buchalter, an article coauthor, Powell published the journal article “Flux-Switching Floquet Engineering,” which demonstrates that changing magnetic fields over time in time can create quantum states that do not exist in any stationary material. By engineering new quantum behaviors by timing the field, physicists can potentially create technologies that are very stable and hard to disrupt by “noise” or imperfections that can interfere with quantum technology functionality and avoid system errors.
"Ultra-Processed Food and Health: From Mechanisms to Actions” brought together many of the world’s leading experts to examine one of the most pressing topics in nutrition science.
The symposium convened an international group of researchers, clinicians and policy experts to explore the rapidly evolving science surrounding ultra-processed foods and their impact on human health. Discussions spanned the biological mechanisms linking ultra-processed foods to chronic disease, the gaps in available research, the role of the food environment and industry practices, and opportunities for policy and public health action.
Insilico Medicine announced that its research paper, “When Single Answer Is Not Enough: Rethinking Single-Step Retrosynthesis Benchmarks for LLMs,” has been accepted for presentation at the International Conference on Machine Learning 2026. The study challenges conventional retrosynthesis benchmarking approaches that rely on single “ground-truth” answers and Top-K accuracy metrics, which may not reflect the multi-solution nature of real-world chemistry.
The paper introduces ChemCensor, a chemistry-aware evaluation metric designed to assess model performance based on reaction centers and functional groups, aligning more closely with expert human reasoning. Additional contributions include the CREED dataset, comprising 6.4 million validated reactions; benchmarking results from the C3LM model; and the URSA-expert-2026 dataset, an expert-annotated benchmark designed to reduce data leakage and improve evaluation rigor.
The research supports the development of more realistic and scalable training and evaluation frameworks for AI-driven retrosynthesis and drug discovery. Supporting materials will be made publicly available to promote transparency and reproducibility.
Manganese dioxide can convert amino acids into hydrogen cyanide (HCN) without requiring methane, solving a long-standing puzzle about the origin of this key prebiotic molecule on early Earth, as reported by researchers from Science Tokyo. Although HCN is central to origin-of-life theories, recent evidence suggests early Earth's atmosphere didn’t contain sufficient methane needed for classic HCN-producing reactions. The newly found chemical pathway shows that HCN could instead have been continuously supplied from abundant amino acids.
Research reveals that new forms of glass can be tuned in the same way as traditional glasses – making them easier to manufacture.
A new study found that across nearly every U.S. region and every year through 2050, an amount of money spent deploying wind or solar delivers more combined climate and public health benefit than if it is spent on direct air capture, even under extremely optimistic assumptions of the development of direct air capture.
UChicago researchers show how arsenic leaves its mark on human DNA, offering a potential new tool for exposure assessment.