Machine learning-assisted catalyst design

【Answer 1】 Machine Learning-Assisted Catalyst Design Course Background In the pursuit of highly efficient catalysts, researchers have long faced a major challenge: traditional catalyst design relies heavily on trial-and-error, resulting in low efficiency. Catalytic performance is influenced by multiple complex factors—including composition, structure, and reaction conditions—making conventional trial-and-error approaches inefficient. With the rapid development of high-throughput experimentation and computational chemistry, the catalysis community has accumulated massive amounts of data. Yet, how to extract actionable insights from these data to guide the design of new materials remains an unsolved challenge. Machine learning, combined with big-data analytics, offers a promising new approach. Machine learning applications in catalysis span nearly the entire R&D pipeline for all catalyst types. Models are trained to predict catalyst activity (e.g., conversion rate, reaction rate) for specific reactions. For complex reactions with multiple possible pathways—such as CO₂ reduction or selective methane oxidation—predicting catalyst selectivity toward target products is critical. ML can correlate catalyst structure with energy barriers across different reaction pathways, thereby guiding the design of highly selective catalysts. It predicts composition–activity relationships in multi-metallic alloys, aiding the discovery of low-cost, high-activity non-precious-metal alternatives to precious metals. It forecasts stability and activity of various metal centers supported on diverse substrates (e.g., graphene, MOFs, oxides), facilitating the design of efficient single-atom catalysts. It predicts stable crystal structures of unknown materials—or screens existing materials databases (e.g., Materials Project, OQMD)—to identify promising catalytic candidates. It also predicts how different crystal facets and defects (e.g., vacancies, step sites) affect catalytic performance, guiding surface modification strategies. Instructor Introduction Dr. Zhou is affiliated with a nationally key university—a top-tier institution under China’s “Project 985” and “Project 211.” He has long focused on innovative applications of machine learning in catalyst design, especially leveraging cutting-edge techniques such as deep learning and graph deep learning for catalytic material discovery. He has accumulated extensive experience in this field and authored over 70 high-impact publications. His teaching style is clear and engaging; he excels at transforming abstract theories and complex computational methods into accessible knowledge points, helping learners grasp core concepts effortlessly. Course Outline Day 1, Morning Theoretical Content (~1 hour): 1. Frontier applications of machine learning in materials science 2. Common machine learning methodologies for catalyst design 3. Detailed applications of machine learning in catalyst design Hands-on Content (~1.5 hours): 1. Python fundamentals: strings, lists, dictionaries, variables, if-statements, loops, functions 2. Scientific data processing in Python: NumPy, Pandas, seaborn, Matplotlib, SciPy Case Study: In today’s era—where AI for Science is profoundly reshaping research paradigms and industrial operations—machine learning has become a core tool for breaking traditional research boundaries and generating innovative solutions. This course focuses on helping participants overcome bottlenecks in basic Python application, building essential programming capabilities tailored to scientific data modeling and software development. It also guides learners in rapidly setting up robust and efficient development and analysis environments—laying a solid foundation for subsequent AI-driven scientific computing, data mining, and algorithm implementation—and empowering them to truly join the new generation of AI-augmented scientific innovation.

‘AI + Materials’ Accelerating Catalyst Development

【Answer 2】 There is a global imperative to advance renewable energy development to address climate change and energy shortages. Catalyst discovery and optimization are pivotal to solving many energy-related challenges—including solar fuel synthesis, energy storage, and production of renewable fertilizers. Catalysts play a crucial role in enabling novel reaction pathways and enhancing process efficiency. Yet, discovering or optimizing catalysts remains a time-consuming endeavor. The number of candidate catalyst materials that could be synthesized or rationally designed is enormous; however, simulating their behavior under realistic reaction conditions remains elusive. For years, researchers have sought to leverage artificial intelligence (AI) to assist in catalyst development, design, and optimization. Yet, modeling heterogeneous catalysis involves all the fundamental challenges present in both organic and inorganic chemical modeling. In organic chemistry, modeling entails vast numbers of molecules and reactions, along with numerous similar low-energy conformers. In inorganic chemistry, it involves the immense diversity of elements, coordination environments, lattice structures, and interatomic interactions. Consequently, for complex compositions and vast chemical spaces, more computationally efficient modeling approaches are urgently needed for comprehensive exploration. Although researchers in catalysis have invested substantial effort in applying machine learning models to computational catalyst discovery, constructing models capable of simultaneously generalizing over surface elemental composition *and* adsorbate configurations remains an open challenge—likely due in part to the scarcity of high-quality catalysis data relative to related fields. To address this issue, Meta partnered with Carnegie Mellon University to develop the OC20 dataset.

Copernic deploys AI to discover better catalysts for making chemicals

22 hours ago

Copernic secures $10 million in funding to deploy artificial intelligence for discovering improved catalysts used in high-volume chemical manufacturing. Founded by former BASF executives, the startup focuses on computational materials discovery to optimize industrial chemical production.

cen

2026-10-12

Copernic deploys AI to discover better catalysts for making chemicals

Copernic deploys AI to discover better catalysts for making chemicals

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