Assist. Prof. Dr. Cesar Vasques, University of Aveiro, Portugal
Dr. Cรฉsar Vasques, an accomplished mechanical engineer ๐, earned his MSc (2003) and PhD (2008) from the University of Porto, Portugal. With expertise in vibrations, acoustics, and structural health monitoring ๐๏ธ, he has held key roles in academia and industry, including INEGI, EFACEC, and the University of Aveiro. He has led 13+ R&D projects (โฌ4M+), collaborated with ESA and EDA ๐, and published extensively ๐. As an invited expert for the European Commission, he has evaluated โฌ28M+ H2020 projects. His work spans aerospace, energy, and mechatronics, making impactful contributions to engineering innovation.
Professional Profile
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Education ๐
Assist. Prof. Dr. Cรฉsar Vasques ๐ is a distinguished academic with a Ph.D. in Mechanical Engineering from the University of Porto, Portugal ๐ต๐น. With a strong background in mechanical, aerospace, and energy engineering ๐โก, he has contributed significantly to research and education. Dr. Vasques has held various academic positions, including Assistant Professor at multiple universities, where he has mentored students and advanced scientific knowledge ๐. His expertise and dedication to innovation make him a leading figure in his field, continuously pushing the boundaries of engineering excellence ๐ฌ๐ก.
Work Experience ๐ผ
Dr. Cรฉsar Vasques has demonstrated exceptional leadership in research and innovation, successfully leading 13 R&D projects, including collaborations with prestigious organizations like ESA ๐ (European Space Agency) and EDA ๐ก๏ธ (European Defence Agency). Managing a budget of over 4 million euros ๐ถ, he has driven groundbreaking advancements in engineering. Additionally, his participation in 11 more projects, with a combined budget exceeding 7 million euros, highlights his strategic vision and expertise ๐. Dr. Vasques continues to push the boundaries of research, fostering innovation and technological progress for the future ๐ง๐ก.
Awards ๐
Dr. Cรฉsar Vasques has earned prestigious accolades for his contributions to engineering and research. He was honored with the Best National Ph.D. Thesis Award in Applied and Computational Mechanics (2008) ๐
and received the Best Student Article Award ๐. His impactful research has been highlighted twice by IOP and Elsevier ๐. Actively engaged in the global scientific community, Dr. Vasques has participated in 32+ international conferences as a scientific board member, session chair, and organizer ๐ค๐. His achievements underscore his dedication to advancing knowledge and fostering innovation in engineering ๐ฌ๐ก.
Research Focus
Assist. Prof. Dr. Cรฉsar M. A. Vasques specializes in mechanical engineering, with a primary research focus on vibration control, smart materials, and viscoelastic damping technologies โ๏ธ๐ฌ. His work explores active vibration control, piezoelectric actuation, and finite element modeling, contributing to advancements in structural dynamics and acoustics ๐๏ธ๐. Dr. Vasques has also delved into experimental validation of damping models and optical fiber sensors for structural monitoring ๐ญ๐ก. His expertise spans feedback control strategies, multibody system dynamics, and smart beam applications, making significant impacts in aerospace, automotive, and civil engineering .
Publications ๐
Active vibration control of smart piezoelectric beams: comparison of classical and optimal feedback control strategies
Viscoelastic Damping Technologies-Part I: Modeling and Finite Element Implementation.
Arbitrary active constrained layer damping treatments on beams: Finite element modelling and experimental validation
Coupled threeโlayered analysis of smart piezoelectric beams with different electric boundary conditions
Combined feedback/feedforward active control of vibration of beams with ACLD treatments: Numerical simulation
Active vibration control of a smart beam through piezoelectric actuation and laservibrometer sensing: simulation, design and experimental implementation
Active vibration control of spatial flexible multibody systems
Experimental identification of GHM and ADF parameters for viscoelastic damping modeling