“DIVE” into hydrogen storage materials discovery with AI agents
«DIVE»: к открытию материалов для хранения водорода с помощью ИИ-агентов
2026-01-01
SCID: 54.1/v5za7dzu
Discuss with AI
DIVE multi-agent workflowexperimental data extractionhydrogen storage materialsinverse designmultimodal AI agents
Figures from the paper
Abstract (AI)
Despite the surge of AI in energy materials research, fully autonomous workflows that connect high-precision experimental knowledge to the discovery of credible new energy-related materials remain at an early stage. Here, we develop the Descriptive Interpretation of Visual Expression (DIVE) multi-agent workflow, which systematically reads and organizes experimental data from graphical elements in scientific literature. Applied to solid-state hydrogen storage materials-a class of materials central to future clean-energy technologies-DIVE markedly improves the accuracy and coverage of data extraction compared to the direct extraction method, with gains of 10-15% over commercial models and over 30% relative to open-source models. Building on a curated database of over 30 000 entries from >4000 publications, we establish a rapid inverse-design AI workflow capable of proposing new materials within minutes. This transferable, end-to-end paradigm illustrates how multimodal AI agents can convert literature-embedded scientific knowledge into actionable innovation, offering a scalable pathway for accelerated discovery across chemistry and materials science.
Key Findings
1
A curated database contains over 30,000 entries drawn from more than 4,000 publications on solid-state hydrogen storage materials.
2
DIVE demonstrates a transferable end-to-end approach for converting multimodal literature knowledge into actionable materials-discovery insights.
3
DIVE improves data-extraction accuracy and coverage by 10–15% over commercial models and by more than 30% relative to open-source models.
4
The DIVE multi-agent workflow systematically extracts and organizes experimental data embedded in graphical elements of scientific literature.
5
The workflow enables rapid inverse design, proposing new hydrogen-storage materials within minutes.
Research Object
solid-state hydrogen storage materials
Research Subject
AI-agent-driven discovery and inverse design of new materials based on systematic extraction and organization of experimental literature data
Publication Details
Publication Date
2026-01-01
Journal
Publisher
ISSN
Cited by
29
Open access PDF
Access Type
Author Information
Download PDF
Subscribe to digest
Cited by3
Digital materials ecosystem: from databases to AI agents for autonomous discovery2026
DIVE-to-design: how a multi-agent workflow converts figure-centric literature into an ai-native hydrogen storage discovery engine2026
Building a Physics-Aware AI Ecosystem for Solid-State Hydrogen Storage Materials2026