Nicholaos Demas serves as a Principal Mechanical Engineer at Argonne National Laboratory, where he leverages over 15 years of specialized experience in tribology to drive innovative research and development initiatives. His role as Principal Investigator for Strategic Partnership Programs (SPPs) and Cooperative Research and Development...
Nicholaos Demas serves as a Principal Mechanical Engineer at Argonne National Laboratory, where he leverages over 15 years of specialized experience in tribology to drive innovative research and development initiatives. His role as Principal Investigator for Strategic Partnership Programs (SPPs) and Cooperative Research and Development Agreements (CRADAs) positions him at the forefront of advancing benchtop test methodologies that replicate real-world field phenomena. This critical work not only enhances the understanding of lubricant-material interactions but also addresses complex challenges such as white-etch cracking in wind turbine bearings and the performance of piston ring and skirt-cylinder liner components.
Demas's expertise in material development and characterization is complemented by his proficiency in advanced metrology and design of experiments, enabling him to conduct thorough failure analysis and optimize mechanical properties of materials. His involvement in Small Business Innovation Research (SBIR) and Small Business Technology Transfer (STTR) programs further underscores his commitment to fostering collaboration between academia and industry, ensuring that cutting-edge research translates into practical applications.
With a strong foundation in nanoindentation, spectroscopy, and thin film analysis, Demas is adept at utilizing state-of-the-art instrumentation to investigate and enhance material performance. His technical consulting experience enriches his contributions, allowing him to provide valuable insights that guide the selection and application of materials in various engineering contexts. Through his leadership and innovative approach, Nicholaos Demas continues to make significant strides in the field of tribology, driving advancements that have far-reaching implications for energy efficiency and sustainability in mechanical systems.
