Terje Haukaas is a Professor in the Department of Civil Engineering at UBC Vancouver, where he has been a member of the Structural Engineering group since 2003. He received his MS and PhD degrees from the University of California at Berkeley in 1999 and 2003. Originally from Norway, he obtained his undergraduate degree from the Norwegian University of Science and Technology in 1996 after obtaining an engineering degree from the Stavanger University College in 1994 and a technician degree from the Stavanger Technical College in 1992. He worked as an engineer in Norway from 1997 to 1998. Prior to entering the field of engineering, Dr. Haukaas had become a Journeyman and Master Builder of Carpentry. Dr. Haukaas conducts research on probabilistic modelling of a wide range of hazards, structures, and impacts, with particular emphasis on numerical simulation models. He has authored or co-authored more than thirty journal papers on reliability, sensitivity, and optimization analysis applied to civil engineering problems. Software development is an integral part of Dr. Haukaas’ research. He developed the first version of the Matlab toolbox FERUM and he implemented the first reliability and sensitivity options in OpenSees. He later spearheaded the development of Rt, a program for multi-hazard, multi-model reliability and optimization analysis.
Awards & Honours
- 2016-2017 UBC Killam Teaching Prize
- Semi-Plenary Speaker, COMPDYN 2017, Rhodes, Greece, June 15-17, 2017
- Keynote Speaker, ICCSTE'16, Ottawa, Canada, May 5-6, 2016
- Chair, ICASP12, Vancouver, Canada, July 12-15, 2015
- Early Career Keynote Speaker, ICOSSAR 2013, New York, June 16-20, 2013
- Student Appreciation Award from the Civil Undergraduate Student Club: Top 4th Year Professor 2015, 2016
- Student Appreciation Award from the Civil Undergraduate Student Club: Top 3rd Year Professor 2007, 2010, 2012, 2013
- Best paper award, ASCE Journal of Computing in Civil Engineering, 2007
- Fulbright Fellowship, 1998
Probabilistic mechanics, structural reliability and optimization, timber engineering, earthquake engineering, decision making, risk, advanced structural analysis, finite elements, response sensitivity analysis, software development.
Introduction to indeterminate structural analysis; approximate analysis of structures; calculation of displacements using virtual work; flexibility (force) method; stiffness method for frames; moment distribution method.
Advanced Structural Analysis
Shear flow, shear deformation, St. Venant torsion, warping torsion, P-delta and geometric stiffness, buckling of columns and frames, cylindrical shells, beams on elastic foundation, shear wall analysis, elasto-plastic analysis. Introduction to the finite element method.
Introduction to Ship Structures
Structural theory and practice of ship structural design; longitudinal and transverse strength of hull girder; plates and shells; matrix analysis; introduction to classification society rules; ship section design synthesis; finite element analysis.
Reliability and Structural Safety
Probability theory and random variables. Performance functions and probability of non-performance: simulations and FORM/SORM methods. Applications. System reliability. Time-dependent reliability and introduction to stochastic processes.
Advanced Ship Structures
Pressure hull design; finite element analysis applications; classification rules; ice and ice loads; dynamic loads including slamming, risk and reliability.