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Behrooz Yousefzadeh is an Associate Professor in the Department of Mechanical, Industrial and Aerospace Engineering at Concordia University, Montreal. He leads the Wave and Vibration Engineering (WAVE) Lab, affiliated with the Applied Mathematics Lab of Quebec’s Centre de Recherches Mathématiques (CRM) and the Concordia Institute of Aerospace Design and Innovation (CIADI). His research focuses on nonlinear dynamics, mechanical metamaterials, architectural acoustics, and elastic wave propagation in periodic systems. His work bridges engineering, applied physics, and mathematics, with applications in vibration analysis of turbomachinery and novel wave-steering materials. Research Interests Mechanical vibrations and nonlinear dynamics Elastic wave propagation and metamaterials Stability analysis and architectural acoustics Nonreciprocal wave phenomena in spatiotemporally modulated systems Publications & Trends Recent work emphasizes nonreciprocal dynamics in modulated materials, phase-preserved wave steering, and defect engineering in periodic systems. Key contributions include experimental validation of nonreciprocal wave propagation and computational methods for nonlinear system analysis. Over 25 peer-reviewed articles highlight advancements in metamaterial design, parametric instability, and coiling fluid dynamics. Scientific Awards Best Paper Award at the International Symposium on Optomechatronic Systems (2014) Advising & Grants Supervised 6 students to completion (PhD/MASc). Active in securing research funding through collaborative projects with CRM, CIADI, and industry partners. Organized sessions at major conferences like SIAM, ICTAM, and Phononics. Labs & Collaborations WAVE Lab explores cutting-edge topics including: nonlinear wave steering, acoustic black holes in timber structures, and coiling patterns in fluid mechanics. Collaborations span applied mathematics, materials science, and aerospace engineering.

• Mechanical Vibration
• Nonlinear Dynamics
• Elastic Wave Propagation
• +5 more

Prof. Bruno Tremblay serves as a Professor in the Department of Atmospheric and Oceanic Sciences at McGill University's Faculty of Science. His office is located in Burnside Hall 823, with contact information including telephone (514) 398-4369 and fax (514) 398-6115. Dr. Tremblay's research focuses on high-latitude climate systems , particularly sea ice dynamics at the ocean-atmosphere interface. His work examines the Arctic's transition from perennial to seasonal ice cover ("Antarctification of the Arctic Ocean"), investigating drivers such as ocean heat fluxes, radiative processes, and moisture transport. Key methodologies include Global Climate Models (GCMs), coupled ice-ocean models, and field studies in the Canadian Arctic. His publication analysis reveals dominant themes in Arctic climate modeling (83%), sea ice mechanics (75%), and numerical method development (67%). Recent work emphasizes sea ice rheology, seasonal forecasting, and freshwater budget impacts on ocean circulation. Dr. Tremblay leads multiple collaborative projects with institutions including Colorado State University, NCAR, Columbia University's Lamont-Doherty Earth Observatory, and Environment and Climate Change Canada. His research integrates paleoclimate data, observational field work, and advanced computational techniques to address critical questions about Arctic sea ice decline and predictability across multiple time scales.

• High Latitude Climate
• Sea Ice Dynamics
• Arctic Climate Variability
• +4 more

Denis Rancourt, a Professor at Université de Sherbrooke, specializes in biomechanics, mechanical engineering, and adaptive sports equipment design. His research spans musculoskeletal modeling, EMG-torque relationships, and innovative solutions for cancer therapy, vehicle safety, and Paralympic sports. Education: PhD (MIT, 1995), MSc (École Polytechnique de Montréal, 1989), BSc (Université Laval, 1986) Rancourt's work focuses on dynamic modeling of biological systems, vibration analysis, and biomedical device development. Recent projects include EMG-driven joint impedance estimation, tumor self-heating technologies, and wheelchair propulsion optimization. His publications highlight nonlinear tissue mechanics, Gaussian beam alignment algorithms, and ergonomic design innovations. Key grants include ATLAS structural lightweighting initiatives (2017-2021), cancer eradication research (2018-2020), and customized mattress technology (2016-2019), funded by NSERC and FRQNT. Collaborations span institutions like École Polytechnique de Montréal and industry partners including Bombardier Recreational Products. Scientific Awards Research Scholarship Award (1988) Dr. John Chapman Award General Motors Scholarship Award I.W. Smith Award for creative engineering Krashinsky Award Rancourt has mentored over 20 graduate students, including Stephane Martel and Francois Martel, across biomechanics, robotics, and materials science projects. His patents include EMG-based tumor heating devices and wheel chock systems.

• Biomechanics
• Mechanical Engineering
• Musculoskeletal System
• +7 more

Alejandro Diaz Ortiz is an Adjunct Associate Professor in the Department of Engineering Physics at McMaster University. His research focuses on material science, condensed matter physics, and computational physics, with a strong emphasis on magnetism, alloy thermodynamics, and surface science. Key research themes: Magnetism in nanoscale systems Thermodynamics of confined materials Computational modeling of alloys Self-assembly of organic semiconductors His scholarly work spans 15 years (1993–2014) and includes 15 publications in journals like Physical Review Letters , Journal of Alloys and Compounds , and Physical Chemistry Chemical Physics . These works highlight trends in nanotechnology , surface science , and computational material modeling , particularly through cluster expansion methods and ab-initio calculations. Alejandro has contributed to understanding phase transitions in confined antiferromagnets , configurational order in disk packings , and stress engineering in photonic components . His legacy includes foundational studies on size mismatched alloys and quantum well structures .

• Material Science
• Condensed Matter Physics
• Nanotechnology
• +5 more

Henning Struchtrup is a Professor in the Department of Mechanical Engineering at the University of Victoria, Canada. His expertise lies in non-equilibrium thermodynamics, kinetic theory of gases, microscale transport phenomena, and aerosol coagulation. He holds an MS and PhD from Technische Universität Berlin, and is a Professional Engineer (P.Eng). Struchtrup’s research focuses on developing continuum models for rarefied gas flows using the Boltzmann equation, particularly the Regularized 13-Moment (R13) equations, which provide stable solutions for microscale and transitional regimes. Collaborations include work with M. Torrilhon (ETH Zurich) on R13 stability and boundary conditions. His group investigates evaporation/condensation in extreme non-equilibrium, BGK model improvements, and fuel cell membrane transport. Recent articles emphasize thermodynamic consistency in moment equations, wave solutions for carbon capture systems, and boundary modeling for R13 systems. His work bridges kinetic theory with engineering applications in MEMS devices, energy conversion, and climate technologies. Key contributions include stable higher-order transport models and analysis of entropy in non-equilibrium systems. Struchtrup’s research also addresses energy storage via osmotic processes and thermal stress in microcavities. His interdisciplinary approach integrates mathematical rigor with practical engineering challenges across fluid mechanics, materials science, and environmental engineering.

• Non-equilibrium thermodynamics
• Kinetic theory of gases
• Microscale transport
• +3 more

Noureddine Atalla is a prominent researcher and professor in the Department of Mechanical Engineering at the University of Sherbrooke, Quebec, Canada. He leads the Groupe d'Acoustique de l'Université de Sherbrooke (GAUS), a research group focused on advanced acoustics and vibration studies. His work bridges theoretical modeling with practical applications in noise control and vibration reduction across multiple industries including automotive and aerospace. Dr. Atalla earned his Doctorate from Florida Atlantic University in 1991, following Master's and Bachelor's degrees from the Université de Technologie de Compiègne in France (1988). His educational background in mechanical engineering with a focus on acoustics and vibrations has formed the foundation for his extensive research career spanning over three decades. His research focuses on developing advanced numerical models in vibroacoustics, particularly for complex multi-layered and multi-material structures. He specializes in improving acoustic material performance through strategic implementation of heterogeneities. A key aspect of his work involves creating rapid and precise modeling methods for complex multi-layered structures. His research spans theoretical developments in wave propagation, sound absorption mechanisms, and practical applications in noise control engineering. Analysis of his recent publications reveals a strong trend toward advanced modeling techniques for acoustic metamaterials, structural acoustics of complex geometries (particularly curved structures), and innovative approaches to sound absorption and transmission. His work shows increasing integration of numerical methods with experimental validation, particularly in the automotive and aerospace sectors where noise control is critical. The research demonstrates evolution from fundamental wave propagation studies toward more applied engineering solutions with industrial relevance. Dr. Atalla has secured substantial research funding from multiple sources including the Natural Sciences and Engineering Research Council of Canada (NSERC), industry partners like Bombardier, Mecanum Inc., and FCA Canada. His grants portfolio includes numerous Collaborative Research and Development Grants totaling over CAD $1.8 million in the period 2016-2021 alone, demonstrating strong industry-academic partnerships. These projects address real-world challenges in automotive brake noise, acoustic insulation for aerospace, structure-borne noise in aircraft cabins, and recreational vehicle acoustic design. He leads the Groupe d'Acoustique de l'Université de Sherbrooke (GAUS), an active research team that has established international collaborations including a laboratory partnership with the University of Lyon. The group conducts both fundamental research on wave propagation phenomena and applied research addressing industrial noise control challenges. Their work combines advanced numerical modeling with sophisticated experimental techniques in acoustics and vibration measurement, maintaining state-of-the-art facilities for characterizing acoustic materials and structural responses.

• Acoustics
• Vibrations
• Composite Materials
• +9 more

Reine-Marie Guillermic is a Research Professor at the University of Saint-Boniface, teaching Physics, Mathematics, Statistics, and Introduction to Management Sciences. Her research focuses on food physics , rheological properties , acoustic characterization , and X-ray tomography of food systems. Research Highlights: She specializes in food foam and bubbly media, combining ultrasonics and synchrotron imaging to study texture-microstructure relationships in noodles, plant-based proteins, and wheat dough. Her work bridges applied physics , food engineering , and material science . Scientific Awards: Best Poster Award, Ultrasonics Conference (2020) Best Poster & Grand Prize, Material Institute for Materials Conference (2017) Best Poster Awards, Material Institute for Materials (2016) and Eufoam (2010) Professional Activities: Guillermic has presented at international conferences including Phononics (Paris, 2015), Biofoams (Toronto, 2013), and Angewandte Chemie symposia. She serves as Manitoba ACFAS advisor and president of Orienteering Manitoba.

• Food Physics
• Rheological and Mechanical Properties
• Acoustics (Ultrasonics)
• +2 more

Jianming (James) Yang is a Professor in the Faculty of Engineering and Applied Science at Memorial University of Newfoundland. He holds a PhD from Tianjin University and has extensive industry experience as a mechanical design engineer, followed by academic roles at Guilin University of Electronic Technology and University of Shanghai for Science and Technology. His work focuses on mechanical vibration/dynamics, nonlinear random vibration analysis, and fatigue prediction in mechanical systems. Dr. Yang's research emphasizes modeling drillstring dynamics, fatigue control in drilling systems, and random vibration analysis of planetary gear trains in wind turbines. His expertise spans machine design, solid mechanics, and wind turbine simulation. Key contributions include developing empirical models for drilling performance prediction and stochastic linearization techniques for gear dynamics. His academic journey includes post-doctoral studies at Shanghai Jiao Tong University and a career transition from industry to academia in 2003. He has authored numerous publications on mechanical systems, vibration analysis, and renewable energy applications. Notable research trends include advancing predictive models for drilling efficiency, optimizing gear train reliability under random loads, and integrating machine learning for wind turbine performance analysis. Dr. Yang's work bridges theoretical mechanics and practical engineering challenges, contributing to advancements in energy systems and sustainable manufacturing processes.

• Vibration and Dynamics
• Mechanical Engineering
• Fatigue Prediction
• +5 more

Phil Garland is Associate Professor of Mechanical Engineering at University of New Brunswick, specializing in piezoelectric materials, vibration analysis, and finite element modeling. His applied research spans biomechanics, sensor technology, and impact dynamics. Research Focus: Develops analytical and experimental methods for characterizing material behavior under dynamic loading. Current investigations include cochlear biomechanics using high-frequency ultrasound, piezoelectric transducer calibration, and stress analysis in elastic collisions. Applications: Collaborates on medical projects involving middle ear mechanics and hearing diagnostics. Industrial partnerships focus on sensor design, impact testing methodologies, and precision measurement systems. Technical Expertise: Combines analytical modeling with experimental validation in vibration analysis, contact mechanics, and smart material applications. Holds patent for piezoelectric material property control methods (US Provisional 61/548,687).

• Piezoelectricity
• Vibration Analysis
• Solid Mechanics
• +3 more

Lyes Kadem is a Professor in the Department of Mechanical, Industrial and Aerospace Engineering at Concordia University, where he also serves as Director of the Laboratory of Cardiovascular Fluid Dynamics. His research focuses on cardiovascular fluid dynamics, medical devices, and advanced imaging technologies such as MRI and ultrasound. He specializes in hemodynamic analysis, computational fluid dynamics (CFD), and 3D printing applications in medicine. Dr. Kadem leads a multidisciplinary team investigating flow dynamics in heart valves, cardiac devices, and disease models. His work integrates experimental methods, numerical simulations, and AI-driven approaches to address challenges in cardiovascular diagnostics and therapy. Notable contributions include developing frameworks for cardiac ultrasound robotic systems and open datasets for medical imaging analysis (e.g., CACTUS). His teaching portfolio includes courses in thermodynamics (ENGR 251, MECH 351) and renewable energy (MECH 451). He actively supervises research in biomechanical engineering, with a focus on translational solutions for conditions like mitral regurgitation and aortic valve dysfunction. Dr. Kadem’s lab collaborates on innovations such as 3D-printed heart valve prototypes and robotic systems for remote cardiac ultrasound. His research emphasizes patient-specific modeling, with applications in clinical decision-making and medical device optimization.

• Cardiovascular Fluid Dynamics
• Fluid Mechanics
• Medical Devices
• +7 more

Mauricio Sacchi is a Professor in the Department of Physics at the University of Alberta, Faculty of Science. He holds the academic rank of Professor since 2005. His research focuses on geophysics, inverse problems, and seismology, with a particular emphasis on seismic data processing and imaging techniques. He has been Chair of the Department of Physics at UofA from 2010–2015 and 2016–2021. Education: BSc from Universidad Nacional de La Plata (UNLP), Argentina (1988), and PhD in Geophysics from the University of British Columbia (UBC), Canada (1996). Prior to his current role, he served as Assistant Professor (1997–2001) and Associate Professor (2001–2005) at the University of Alberta. Research Interests: Development of algorithms for multi-dimensional seismic data reconstruction, de-noising, and sparsity-promoting methods. Current projects include optimal acquisition design for simultaneous source acquisition, full waveform inversion, and waveform imaging in applied and global seismology. Notable Awards: 2012 CSEG Medal, 2014 SEG Honorary Lecturer, 2015 CSEG Distinguished Speaker, 2019 Vigil Kauffman Gold Medal, and 2023 Killam Annual Professor. Teaching: Courses include Computational Physics (PHYS 420/580) and Introduction to Seismic Imaging (GEOPH 326). He has advised numerous graduate students, including Wenlei Gao, Ke Chen, Gian Matharu, and Iliana Papathanasaki.

• Geophysics
• Inverse Problems
• Seismology
• +5 more

Vakhtang Putkaradze is a Centennial Professor in the Department of Mathematical and Statistical Sciences at the University of Alberta. His research spans mathematical physics, fluid dynamics, robotics, and nonlinear systems. He leads a research group offering graduate positions in areas such as Hamiltonian systems, porous media, and sensor technology. Research interests include geometric mechanics, fluid-structure interactions, and applications in robotics and biomedical engineering. Key topics involve the dynamics of flexible tubes, control theory in sports mechanics, and mathematical models of social conformity. He has developed novel methodologies such as Lie-Poisson neural networks for Hamiltonian systems and CLPNets for multi-part dynamical systems. His work integrates theoretical analysis with experimental applications, such as olfactory sensor devices and inflatable solar towers. Recent articles highlight contributions to variational principles in porous media, integrability in figure skating trajectories, and the thermodynamics of active materials. Putkaradze collaborates on interdisciplinary projects combining mathematics, physics, and engineering. His group focuses on solving complex problems through geometric and computational approaches, with applications ranging from energy systems to biomedical sensing technologies.

• Mathematical Physics
• Fluid Dynamics
• Nonlinear Dynamics
• +4 more

Nilima Nigam is a Professor of Mathematics at Simon Fraser University (SFU), part of the Department of Mathematics within the Faculty of Science. She holds a Ph.D. in Applied Mathematics from the University of Delaware (1999). Her research focuses on numerical analysis of partial differential equations (PDEs), computational electromagnetics, mathematical physiology, and biomechanics. She is also actively involved in interdisciplinary projects, such as modeling muscle-tendon complexes and spectral geometry problems. Nigam serves on editorial boards for journals like the SIAM Journal on Scientific Computing and Mathematics-in-Industry Case Studies. She supervises graduate and undergraduate students in applied mathematics, with a focus on structure-preserving discretizations, computational biology, and spectral problems. Her work includes collaborations with researchers in biomechanics, notably with James Wakeling in studying muscle mechanics and energy dynamics. She has mentored numerous students through programs like the SFU Department of Mathematics USRA competition. Her teaching spans advanced courses in numerical analysis, PDEs, and mathematical physics.

• Applied Mathematics
• Partial Differential Equations (PDE)
• Numerical Analysis
• +5 more

Massimo Ruzzene serves as the Vice Chancellor of Research and Innovation and Slade Professor of Mechanical Engineering at the University of Colorado Boulder. He joined CU Boulder in summer 2019 after previously holding the Pratt and Whitney Professor position in Aerospace and Mechanical Engineering at Georgia Institute of Technology. Dr. Ruzzene received his PhD in Mechanical Engineering from Politecnico di Torino (Italy) in 1999. His academic journey includes significant contributions to mechanical engineering research and leadership roles in academia. Professor Ruzzene's research focuses on solid mechanics, structural dynamics, and wave propagation with applications to structural health monitoring, metamaterials, and vibration and noise control. His work explores periodic structures, phononic crystals, and metastructures for applications ranging from underwater vehicles to rotorcraft noise reduction. Recent work extends to studying wave motion in human bones and the skull/brain system for potential medical applications. His publication portfolio demonstrates a strong emphasis on topological mechanics, elastic wave control, and metamaterials. The research trend shows increasing focus on topological phenomena in mechanical systems, non-reciprocal wave propagation, and expanding metamaterial concepts to structural applications. His work bridges fundamental mechanics with practical engineering solutions. Pratt & Whitney Professor of Aerospace Engineering Fellow of the American Society of Mechanical Engineering (ASME) Associate Fellow of the American Institute for Aeronautics and Astronautics (AIAA) Honorary Professor at Universidad Carlos III, Madrid Spain Chair of Excellence at Universidad Carlos III, Madrid Spain (2016-2017) The Lloyd Hamilton Donnell Applied Mechanics Reviews Paper Award (2016) Office of Naval Research Young Investigator (2002) Dr. Ruzzene has secured extensive research funding as PI or co-PI from federal agencies including the Air Force Office of Scientific Research, Army Research Office, Office of Naval Research, NASA, DARPA, and the National Science Foundation, as well as industry partners like Boeing, Eurocopter, Raytheon, and Corning. He previously served as program director for the Dynamics, Control and System Diagnostics Program at NSF (2014-2016). His Wave Lab at CU Boulder investigates active and passive vibration control strategies with applications to transportation safety and human health.

• Solid Mechanics
• Structural Dynamics
• Wave Propagation
• +7 more

Professor Anasavarapu Srikantha Phani is affiliated with the Department of Mechanical Engineering at the University of British Columbia within the Faculty of Applied Science. His research focuses on the mechanics of lattice materials and devices, dynamics and vibrations, and mechanics of small-scale systems. He serves as a Tier 2 Canada Research Chair in Dynamics of Lattice Material and Devices and is a Fellow of the Cambridge Commonwealth Society. Tier 2 Canada Research Chair (CRC) in Dynamics of Lattice Material and Devices Member of ASME and ASA Fellow of Cambridge Commonwealth Society Professor Phani's research bridges lattice materials, biomedical applications, and nanoscale heat transport. His work includes modeling complex systems like cellulose fiber networks and analyzing biomechanics of vascular diseases. He also contributes to understanding thermal transport in carbon nanotubes and the mechanical behavior of polymer brushes. His recent publications highlight interdisciplinary research spanning materials science , biomechanics , and nanoengineering , with applications in medical diagnostics , microstructured materials , and low-dimensional thermal systems . Key collaborations include researchers from biomedical and computational fields. Top Journals: Applied Physics Letters, Journal of Vascular Surgery, Physical Review series, Macromolecules, ACS Nano Research Trends: Multi-scale modeling, biomechanical analysis, phonon transport, and nonlinear material behavior

• Mechanics of lattice materials and devices
• Dynamics and vibrations
• Mechanics of small scale systems