Accelerating Materials Development via Automation, Machine Learning, and High-Performance Computing
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Abstract (arXiv)
Successful materials innovations can transform society. However, materials research often involves long timelines and low success probabilities, dissuading investors who have expectations of shorter times from bench to business. A combination of emergent technologies could accelerate the pace of novel materials development by 10x or more, aligning the timelines of stakeholders (investors and researchers), markets, and the environment, while increasing return-on-investment. First, tool automation enables rapid experimental testing of candidate materials. Second, high-throughput computing (HPC) concentrates experimental bandwidth on promising compounds by predicting and inferring bulk, interface, and defect-related properties. Third, machine learning connects the former two, where experimental outputs automatically refine theory and help define next experiments. We describe state-of-the-art attempts to realize this vision and identify resource gaps. We posit that over the coming decade, this combination of tools will transform the way we perform materials research. There are considerable first-mover advantages at stake, especially for grand challenges in energy and related fields, including computing, healthcare, urbanization, water, food, and the environment.
Key facts. Cited by 11 papers in the map (data through 7 Oct 2026). First posted on arXiv 20 Mar 2018.
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Citing papers per year: 2021: 3; 2022: 1; 2023: 2; 2024: 3; 2025: 1; 2026: 1.
11 papers.
- 2022Bayesian optimization with known experimental and design constraints for chemistry applicationscited by 11
- 2023Spectroscopy-Guided Discovery of Three-Dimensional Structures of Disordered Materials with Diffusion Modelscited by 8
- 2025Artificial Intelligence and Generative Models for Materials Discovery -- A Reviewcited by 8
- 2021Gemini: Dynamic Bias Correction for Autonomous Experimentation and Molecular Simulationcited by 2
- 2024Generating Realistic X-ray Scattering Images Using Stable Diffusion and Human-in-the-loop Annotationscited by 2
- 2021Functional Nanomaterials Design in the Workflow of Building Machine-Learning Modelscited by 0
- 2021Opportunities for Machine Learning to Accelerate Halide Perovskite Commercialization and Scale-Upcited by 0
- 2023Scientific Computing with Diffractive Optical Neural Networkscited by 0
- 2024Combining unsupervised and supervised learning in microscopy enables defect analysis of a full 4H-SiC wafercited by 0
- 2024Emerging Microelectronic Materials by Design: Navigating Combinatorial Design Space with Scarce and Dispersed Datacited by 0
- 2026SemiConLens: Visual Analytics for 2D Semiconductor Discoverycited by 0
- 2026SemiConLens: Visual Analytics for 2D Semiconductor Discovery11 Apr 2026
- 2025Artificial Intelligence and Generative Models for Materials Discovery -- A Review5 Aug 2025
- 2024Emerging Microelectronic Materials by Design: Navigating Combinatorial Design Space with Scarce and Dispersed Data23 Dec 2024
- 2024Generating Realistic X-ray Scattering Images Using Stable Diffusion and Human-in-the-loop Annotations22 Aug 2024
- 2024Combining unsupervised and supervised learning in microscopy enables defect analysis of a full 4H-SiC wafer20 Feb 2024
- 2023Spectroscopy-Guided Discovery of Three-Dimensional Structures of Disordered Materials with Diffusion Models9 Dec 2023
- 2023Scientific Computing with Diffractive Optical Neural Networks12 Feb 2023
- 2022Bayesian optimization with known experimental and design constraints for chemistry applications29 Mar 2022
- 2021Opportunities for Machine Learning to Accelerate Halide Perovskite Commercialization and Scale-Up8 Oct 2021
- 2021Functional Nanomaterials Design in the Workflow of Building Machine-Learning Models16 Aug 2021
- 2021Gemini: Dynamic Bias Correction for Autonomous Experimentation and Molecular Simulation5 Mar 2021