A Dual-Engine Artificial Intelligence Framework Accelerates Sustainable Aviation Fuel Component Synthesis
Frontier Science Foundation · Green Chemistry · +3 more institutions
Abstract
Feedstocks demands multifunctional catalysts whose performance arises from nonlinear, high-dimensional interactions─beyond single-descriptor design rules. Here we present a dual-engine artificial intelligence framework that couples closed-loop active learning with interpretable machine learning, demonstrated for syngas conversion to sustainable aviation fuel. The approach autonomously explores vast catalyst spaces while distilling human-interpretable principles. We identify previously unreported compositions and a general rule: on a stable spinel backbone, placing a d-block metal at the tetrahedral (A)-site and an early lanthanide at the octahedral (B)-site creates cooperative d-f interactions that enable…
Citation impact
- FWCI
- 65.14
- Percentile
- 100%
- References
- 38
Authors
7- GTGuo TianCorresponding
Frontier Science Foundation, Green Chemistry, Southwest Jiaotong University, Tsinghua University
- HCHonghao Chen
State Key Laboratory of Chemical Engineering, Tsinghua University
- RJRunyu Jiang
Tsinghua University
- CZChenxi ZhangCorresponding
Green Chemistry, Tsinghua University
- XNXi Ning Lu
Tsinghua University
Topics & keywords
- Blueprint
- Aviation
- Component (thermodynamics)
- Catalysis
- Syngas
- Flue gas
- Coupling (piping)
- Tetrahedron