Massimo MILANI

Massimo MILANI is a Full Professor in the Department of Engineering Sciences and Methods at the University of Modena and Reggio Emilia. His work focuses on fluid mechanics and hydraulic systems, with particular emphasis on Computational Fluid Dynamics (CFD) applications. He teaches Industrial Hydraulic Systems for the Mechatronic Engineering Master's program, preparing students to design and analyze hydraulic circuit architectures for industrial applications.

Professor Milani's research spans multiple areas within fluid mechanics, with strong emphasis on hydraulic machinery, pump technologies, and energy systems. His work bridges theoretical fluid dynamics with practical engineering applications, particularly in automotive transmissions and industrial hydraulic systems. He has increasingly expanded his research into biomedical applications of fluid dynamics, including lung mechanics and particle deposition studies. His research methodology typically combines advanced CFD techniques with experimental validation, often employing innovative meshing approaches and multi-physics simulations to address complex fluid-structure interactions.

His publication record reveals a clear trend toward increasingly sophisticated modeling techniques applied to hydraulic systems, with a growing emphasis on sustainable energy applications including hydrogen production systems and electrolyzer technologies. While his core expertise remains in hydraulic machinery (particularly pumps and transmissions), he has successfully branched into biomedical fluid dynamics and sustainable energy systems, demonstrating remarkable interdisciplinary reach while maintaining technical depth in fluid mechanics.

Professor MilANI leads research activities through the Fluid Power Laboratory (www.fluidpower.unimore.it), where his team develops advanced numerical models and conducts experimental validation for various fluid power applications. His research group appears to collaborate extensively with both industrial partners and other academic institutions, as evidenced by the multi-institutional authorship on many publications. The group's work spans from fundamental fluid dynamics research to applied engineering solutions for automotive, industrial, and biomedical applications.