Accelerating a Transition of the Global Fossil Fuel Industry Toward a Sustainable Built Environment
ORAL · Invited
Abstract
This session discusses the fundamental research underpinning a possible transition of global hydrocarbon output and products from fuels to construction materials. Research presented will include microscale design and tailoring of fiber reinforced polymer composites, modeling of composite behavior at the component-scale and building-scale, and design of urban spaces and communities that make use of hydrocarbon resources to accelerate development. An overarching framework for the multi-scale design and operation of such built environments is also presented.
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Publication: Li, Zhiye and Lepech, Michael, Quantifying Aging and Damage Uncertainties from Climate Change in the Urban Environment Based on Multiscale Modeling of a Gfrp Civil Infrastructure System: https://ssrn.com/abstract=4917012 <br><br>Li, Z., Bosse, A. W., & Lepech, M. D. (2022). Net irreversible synergistic effects of environmental deterioration on fatigue and flexure properties of fiber reinforcement composite: A homogenization based model. Composites Part B: Engineering, 246, 110234.<br><br>Li, Z., Furmanski, J. and Lepech, M.D., 2021. Micromechanics modeling and homogenization of glass fiber reinforced polymer composites subject to synergistic deterioration. Composites Science and Technology, 203, 108629.<br><br>Li, Z., Lepech, M.D. and Furmanski, J., 2021. Development of a Multiphysics model of synergistic effects between environmental exposure and damage in woven glass fiber reinforced polymeric composites. Composite Structures, 258, 113230.
Presenters
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Michael Lepech
Stanford
Authors
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Michael Lepech
Stanford