Dr. Hamid Jahed is professor, Associate Chair Graduate Studies, and Director of Fatigue and Stress Analysis Laboratory in the Department of Mechanical and Mechatronics Engineering of the University of Waterloo. His research activities are on characterization and modeling of lightweight materials behavior under cyclic loading, and the development of robust methods in cyclic plasticity analysis.
Research Field:
Fatigue of Spot-welded Magnesium Alloys
Research Field:
Cyclic Plasticity Modeling of Wrought Magnesium Alloys
Research Field:
Corrosion fatigue of cold spray coated and uncoated Mg alloys
Research Field:
Behavior of magnesium alloy under load-control cyclic test
Research Field:
Research fields:
Research Field:
Research Areas:
Alumni
Research Field:
Fatigue Life Assessment of 30CrNiMo8HH Steel Under VAL
HUNAN University-Mechanical and Vehicle Engineering Department, Changsha city, HUNAN province, CHINA.
Research Field:
Fatigue characterization and life estimation of Magnesium alloys
Application of Cohesive Zone Model to fracture and fatigue life prediction of adhesively bonded Magnesium sheets
Fracture and fatigue analyses of brazed joints using damage coupled Cohesive Zone Model
PhD, research associate
Research Field:
Research Field:
Research Field:
Research Field:
Research Field:
Research Field:
Research Field:
Research Field:
Research Field:
Research Field:
Co-op student
Co-op student
Co-op student
Co-op student
Exchange student from Technische Universität Braunschweig.
Exchange student from Karlsruhe Institute of Technology.
Exchange student from Braunschweig University, Germany.
Energy-based fatigue life prediction model for proportional and non-proportional loading.
Strength and fatigue analysis of CNG upgraded urban bus frame.
Design and testing of a laboratory size HP equiments vessel.
Optimum wheel profile for RAJA commuter trains and railways
Effect of residual stress induced by forming process on a vehicle rim fatigue life.
Dynamic response of a thick-walled tube under moving pressure
Single and double swage analysis using actual unloading behaviour
Residual stress measurements of an autofrettage tube using hole drilling method
Optimum design of rotating discs
Flow induced high cycle fatigue analysis of J79 turbine blade
Actual unloading behaviour and its significance in residual stress predictions of autofrettage tubes
2-D large deformation analysis - a finite element code
Thermo-Structural and low cycle fatige analysis of turbine blisk, using Ansys
Placticity estimation ahead of crack tip
Creep analysis of a roatating disc at elevated temperature
Elastic-plastic analysis of rotating discs using VMP method