Aug 2026· AI Agent· Vol 2· 0 citations· 37 references
TL;DR
In this review, three stages of AI-agent development in MOFs and COFs research are distinguished: LLM-native, human-mediated systems; database-grounded, tool-using agents; and experiment-integrated, feedback-driven platforms.
Abstract
Metal-organic frameworks (MOFs) and covalent organic frameworks (COFs) are highly tunable in pore structure and chemical environment, yet their discovery remains slow and fragmented. Synthesis reports are often difficult to compare, characterization data are laborious to interpret, and computational predictions rarely guide experiments directly. Recent advances in large language models (LLM) have enabled the development of artificial intelligence (AI) agents that can interpret research goals, search the literature and databases, call external tools, and adapt workflows based on intermediate results. In this review, we distinguish three stages of AI-agent development in MOFs and COFs research: LLM-native, human-mediated systems; database-grounded, tool-using agents; and experiment-integrated, feedback-driven platforms. This progression reflects increasing scientific grounding and experimental agency. In our view, further progress will depend less on scaling language models alone than on developing traceable machine-actionable data, chemistry-aware validation, persistent experimental memory, and robust interfaces between AI agents and laboratory automation.
We report an end-to-end computational-experimental workflow for the discovery of metal-organic frameworks (MOFs), demonstrated by the computational design and synthesis of two novel Zn-based frameworks, UCHI-1 and UCHI-2, exhibiting enhanced methane uptake and selectivity at low pressure under ambient conditions (298 K...
A. Darù, Jianheng Ling, Xiaoliang Wang et al.· Journal of the American Chem...· 1 citation
By connecting the heterogeneous stages of computational materials discovery, the LLM-based agents of MAESTRO can operate across application domains and uncover high-performance materials that conventional screening approaches would be unlikely to consider.
Yun-Tong Chen, Ju Huang, Yu Liu et al.· 0 citations
ALKEMIE Agent is introduced, an agentic platform in which retrieval-augmented generation, a materials-computation knowledge base, registered skills, database-supported provenance, AI-assisted structure modeling, bounded task execution, tool-calling iteration, and error-diagnostic assistance are integrated within a trac...
Hongfu Huang, Yu-Zhe Li, Ao Xu et al.· 0 citations
The integration of large-language-model (LLM) agents into materials science requires a balance between adaptive reasoning and reliable scientific execution. Here, we present a Harness framework that converts agent proposals into structured and validated actions, connects them to the Materials Project and deterministic...
Tian-Lei Wang, Lei Zhang· AI for Materials· 0 citations
The system architecture, core workflows, and benchmarks that reach literature performance for quantum mechanical, physicochemical and bioactivity property prediction, and use cases involving time series datasets demonstrating applications beyond molecular chemistry datasets are described.
Brendan Smith, S. López-Moreno, E. Dolores-Cuenca et al.· 0 citations
Large Language Models (LLMs) have emerged as a cutting-edge tool in the era of advanced science and technology, in materials science by enabling novel approaches such as the development of open-source libraries, intelligent research tools, AI accelerated design platforms, AI driven morphology prediction and related inn...
J. N. Ethica, Md. Nafiz Chowdhury Emon, Md. Al Amin Meia et al.· AI for Materials· 0 citations
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