Maxime Lanoy serves as an Associate Professor at Le Mans University, France, conducting research at the Institute of Acoustics (LAUM), a joint research unit of Le Mans University and the CNRS. He is a member of the Materials team, which focuses on the acoustics and mechanics of porous materials, contributing to the university's strategic research in physical sciences and engineering. His primary research interests encompass the acoustics of heterogeneous media and multiple scattering phenomena, the design and characterization of acoustic and elastic metamaterials, and the dynamics of flexible structures such as soft strips and elastomers. He investigates wave propagation in unstable structures and complex media, with applications in sound control, imaging, and particle manipulation. This work sits at the intersection of acoustics, materials science, and mechanical engineering, aiming to develop innovative solutions for wave-based technologies. Analysis of Lanoy's recent publications (2018-2025) reveals a consistent emphasis on metamaterials, particularly those utilizing bubble arrays and soft polymers. His research trajectory shows progression from fundamental studies of wave propagation in structured media to applied work on devices for filtering, lensing, and absorption. Key themes include the control of elastic waves in soft materials, the exploitation of space-time interfaces, and the development of broadband acoustic absorbers. These contributions advance the field of wave physics and have potential applications in medical ultrasound, underwater acoustics, and precision manufacturing. No scientific awards, fellowships, or medals were mentioned in the provided text sources. The available information does not specify any graduate students advised by Dr. Lanoy or details of research grants he has secured. His academic role as Associate Professor implies teaching and mentoring responsibilities, but specific advising activities are not documented in the given materials. Lanoy is embedded in the Materials team at LAUM, which operates within a well-equipped laboratory environment featuring advanced facilities for acoustic and ultrasonic measurements, optical methods, and material fabrication. The LAUM institute fosters collaboration across several transversal axes, including metamaterials and nonlinear acoustics, providing a rich interdisciplinary context for his research on wave phenomena in complex media.