Our research focuses on advancing concrete infrastructure through multifunctional materials that integrate energy harvesting capabilities. By embedding energy harvesting technologies directly into concrete, we aim to transform traditional structures into sustainable, self-sufficient systems. This innovation allows concrete structures to contribute to environmental sustainability by generating energy while maintaining their primary functions, offering a forward-thinking approach to modern infrastructure.

We also leverage AI-driven analysis and design methodologies for reinforced and prestressed concrete structures, pushing beyond conventional techniques to enhance reliability, safety, and cost-effectiveness. AI-based optimization allows us to predict structural behavior with greater precision, improving the design process and ensuring resilient, long-lasting infrastructure capable of withstanding extreme environmental conditions. In bridge engineering, we prioritize resilience and reliability, developing solutions that extend the lifespan of critical infrastructure while reducing maintenance costs and enhancing disaster resilience.

In addition to terrestrial applications, we explore innovative concrete solutions for extraterrestrial construction. By addressing the unique challenges posed by environments such as the Moon and Mars, our work lays the foundation for future space missions, aiming to build durable and sustainable infrastructure beyond Earth. Through these efforts, we are contributing to a more resilient, adaptable built environment, ready to meet the evolving challenges of both our planet and the frontiers of space.

Dr. Matthew Soltani