Barzin Mobasher, Ph.D., P.E., FACI, FRILEM
I am a Professor at the School of Sustainable Engineering and the Built Environment, Arizona State University.
My training is in the general area of mechanics of materials, as I got all my degrees in Civil Engineering from the University of Wisconsin-Platteville, Northeastern University, and Northwestern University, respectively. My research focuses on learning more about the interaction of three fields of materials science, mechanics of solids, and structural design. I am simply curious about and interested in understanding how things fail. That way, we can make safer products and systems which range from better corneal surgery procedures, to electric power insulators, jet engines, and buildings that are resistant to total collapse under earthquake.
We can accomplish these seemingly unrelated fields through a few tools of the trade that include: experimental stress analysis, constitutive modeling, durability of composites, and are thus able to manipulate the toughness and strength of materials. My sense of purpose is based on working toward a belief: A safe and secure shelter is a human right.
“Let yourself be silently drawn by the stronger pull of what you really love. There are a thousand ways to kneel and kiss the ground. Be a lamp, a lifeboat, a ladder. Help someone's soul heal. Walk out of your house like a shepherd.”
Education
- Ph.D., Civil Engineering, Northwestern University
- M.S., Civil Engineering, Northeastern University
- B.S., Civil Engineering, University of Wisconsin-Platteville
Selected publications
A Meso-Scale Modeling Framework Using the Discrete Element Method (DEM) for Uniaxial and Flexural Response of Ultra-High Performance Concrete (UHPC)
Applied Sciences, 16, 1230
An Interactive Inverse-Analysis and Design Tool for Reinforced UHPC Beams
Fourth International Interactive Symposium on UHPC
Damage modeling of ballistic impact in woven fabrics
Advanced Fibrous Composite Materials for Ballistic Protection, 627-642
Design Framework for Sustainable Textile-Reinforced Concrete Using Laminate Theory and Damage Modeling
RILEM Bookseries, 249-256
Influence of Hybrid Short Fibres on the Mechanical Performance of Textile Reinforced Concrete Composites
Lecture Notes in Civil Engineering, 687-695
Limit-state based design of hybrid reinforced UHPC flexural beams using parametric modeling
Engineering Structures, 357, 122353
Mechanism of tensile load sharing in hybrid reinforced concrete flexural members
Construction and Building Materials, 506, 144835
Modeling of layered, multi-material 3D-printed concrete flexural members—towards efficient structural design and optimization
Materials and Structures, 59