Alireza Asadpoure, PhD
Civil & Environmental Engineering
|2011||Johns Hopkins University, Baltimore, MD||PhD in Civil Engineering|
|2005||Sharif University of Technology, Tehran||MS in Civil Engineering|
|2003||Tehran University, Tehran||BS in Civil Engineering|
- CEN 202 - Mechanics of Materials
- CEN 307 - Analysis and Design of Reinforced Concrete Structures
- CEN 430/505 - Finite Element Analysis
- MNE 485 - Finite Element Method
- CEN 430/530 & MNE 491/590 - Special Topics: Topology Optimization with Application in Solid and Structural Mechanics
- Civil & Environmental Engineering MS
- Civil Engineering BS, BS/MS
- Engineering and Applied Science PhD
- Environmental Resources Engineering
The methods of structural analysis and design of reinforced concrete beams, columns, frames, and one-and two-way slabs are formulated and discussed.
Fundamental matrix algebra including inversion of matrices. Stiffness matrices for spring assemblages, trusses, beams, and planar frames. Introduction to flexibility method. Computer programs are used by students to solve matrix equations.
Fundamental matrix algebra including inversion of matrices. Stiffness matrices for spring assemblages, trusses, beams, and two and three dimensional frames. Introduction to flexibility method. Computer programs are used by students to solve matrix equations.
- Computational Design of Architected and Multifunctional Materials, Metamaterials
- Structural and Multidisciplinary Optimization
- Robust-based and Reliability-based Optimization
- Data-driven Optimal Design
- Uncertainty Quantification and Stochastic Mechanics
Dr. Asadpoure is a faculty member in the Department of Civil and Environmental Engineering at the University of Massachusetts Dartmouth. He received his PhD in structural mechanics from the Department of Civil Engineering at the Johns Hopkins University. His research experience and interests are in the field of computational mechanics with emphasis on stochastic modeling and optimization of complex systems and materials. Dr. Asadpoure develops design methodologies by incorporating advanced stochastic modeling and applied statistical methods into design topology optimization resulting in materials and systems with unprecedented performance. His research includes robust and reliable device/component/system designs considering a wide range of constraints in their manufacturing, vibration, stability and/or cross physical properties.