Dr. Weber specializes in computational engineering with a broad background in mechanical and structural engineering, simulation science, numerical modeling, and hydraulic fracturing. His specific expertise includes fluid induced cracking mechanisms and the coupled thermomechanical analysis of high-temperature systems. Dr. Weber has an extensive knowledge of finite element (FE) based software tools including nonlinear and dynamic behavior.
Dr. Weber supports clients in failure analysis and testing across a wide range of industries, including consumer products, electronics, energy, telecommunication, construction and automotive. He uses advanced knowledge of computational and image data analysis techniques such as volumetric data analysis to help improving his client’s products and performance. Moreover, Dr. Weber manages teams and oversees the operations of individual projects around the globe. He provides hands-on leadership for numerous business areas such as consumer products and medical devices.
Prior to joining Exponent, Dr. Weber was a research fellow at the RWTH Aachen University (Germany), where his research focused on numerical modeling and software development of hydraulic fracturing processes. He modeled and implemented the coupled phenomena of fluid flow, solid deformation and crack propagation within the framework of the Extended Finite Element Method (XFEM). Dr. Weber verified his software tool with fracking experiments on a large-scale testing facility.
CREDENTIALS & PROFESSIONAL HONORS
- DrEng, Engineering Sciences, RWTH Aachen University, Germany, 2016
2016 (with Markus Rost). „Conventional Demolition of Cooling Towers“. In: ICCT 2016, International Conference on Industrial Chimneys and Cooling Towers: 05. – 08.10.2016 Rotterdam.
2016. „The XFEM for Hydraulic Fracture Mechanics“. Dissertation, RWTH Aachen University, http://publications.rwth-aachen.de/record/679277
2014 (with C. Clauser et al.). “Entwicklung eines numerischen Werkzeugs zur Rissausbreitung und erster Abgleich mit hydraulischen Spaltversuchen im Labor”. In: 74. Jahrestagung der Deutschen Geophysikalischen Gesellschaft : 10.-13. März 2014 in Karlsruhe.
2014 (with T.-P. Fries and M. Schätzer). “XFEM-Simulations of hydraulic fracturing in 3D with emphasis on stress intensity factors”. In: 11th World Congress on Computational Mechanics (WCCM XI), 20 - 25 July 2014, Barcelona, Spain.
2014 (with P. Siebert, et al.). “Modeling hydraulic fracture propagation in 3D with the XFEM”. In: Recent Advances in Numerical Simulation of Hydraulic Fracture 2014, July 14-16, 2014 HF2014, Rzeszow, Poland.
2013 (with T.-P. Fries). “The XFEM with an Implicit-Explicit Crack Description for a Plane-Strain Hydraulic Fracture Problem”. In: PAMM 13.1, pp. 83–84.
2013 (with P. Siebert, et al.). “The XFEM with an explicit-implicit crack description for hydraulic fracture problems”. In: Effective and Sustainable Hydraulic Fracturing : proceedings for the International Conference for Effective and Sustainable Hydraulic Fracturing (HF2013) ; 20-22 May 2013, Brisbane, Australia.
2013 (with K. Willbrand et al.). “Laboratory experiments, acoustic emission monitoring and simulation to improve the understanding of EGS fracture formation”. In: EGC 2013 : European Geothermal Congress : Geothermal energy towards a new horizon ; Pisa, 3 -7 June, 2013.
2012 (with K. Willbrand et al.). “Development of a design tool for Hot-Dry-Rock fracture systems”. In: FKPE-LFZG Workshop Induced Seismicity : 26. - 28. November 2012, Karlsruher Institut für Technologie KIT, Campus Süd AVG-Gebäude, Karlsruhe, Germany.
2011 (with P. Siebert et al.). “Development of a design tool for HDR fracture systems”. In: The 9th Euroconference on Rock Physics and Geomechanics, 17 - 21 October 2011 Trondheim, Norway.
Investigated the failure mechanism for collapsed cranes, chimneys, cracked concrete foundations, and high temperature furnaces.
Analyzed numerous platforms for antennas in the mobile radio sector.
Thermal and structural analysis of expansion joint units which were built for gas turbines.
Design of a demolition concept for industrial cooling towers.