The integration of artificial intelligence(AI)into experimental design and manufacturing processes is revolutionizing industries by enabling unprecedented levels of precision, efficiency, and innovation. This column explores the transformative role of AI in optimizing experimental workflows, accelerating hypothesis testing, and streamlining production systems. From automated design of experiments(DoE)to predictive analytics in manufacturing, AI-driven tools are reducing costs, minimizing resource waste, and unlocking novel solutions to complex challenges.
We delve into case studies where AI algorithms enhance material discovery, optimize production parameters, and enable real-time quality control. Additionally, this column examines ethical considerations, scalability challenges, and the collaborative potential between AI and human expertise. By bridging theoretical advancements with practical applications, this series highlights how AI is reshaping the future of R&D and manufacturing, fostering a new era of smart, agile, and sustainable industrial practices. Contributors from academia, industry, and technology sectors will share insights on emerging trends, tools, and strategies, making this column a vital resource for engineers, researchers, and decision-makers navigating the AI-driven industrial revolution.
Predicting effective thermal conductivity of sintered nano-Ag with artificial neural networks
Machine-learned molecular modeling of ruthenium: A Kolmogorov-Arnold Network approach
Improvement of multiaxial fatigue life prediction performance based on contrastive learning feature extraction