Sabbie A. Miller
University of California, Davis
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Publication
Featured researches published by Sabbie A. Miller.
Nature Materials | 2017
Paulo J.M. Monteiro; Sabbie A. Miller; Arpad Horvath
Paulo J. M. Monteiro, Sabbie A. Miller and Arpad Horvath provide an overview of the challenges and accomplishments in reducing the environmental burden of concrete production.
Environmental Research Letters | 2015
Sabbie A. Miller; Arpad Horvath; Paulo J.M. Monteiro; Claudia P. Ostertag
Author(s): Miller, SA; Horvath, A; Monteiro, PJM; Ostertag, CP | Abstract:
Environmental Research Letters | 2016
Sabbie A. Miller; Arpad Horvath; Paulo J.M. Monteiro
Due to its prevalence in modern infrastructure, concrete is experiencing the most rapid increase in consumption among globally common structural materials; however, the production of concrete results in approximately 8.6% of all anthropogenic CO2 emissions. Many methods have been developed to reduce the greenhouse gas emissions associated with the production of concrete. These methods range from the replacement of inefficient manufacturing equipment to alternative binders and the use of breakthrough technologies; nevertheless, many of these methods have barriers to implementation. In this research, we examine the extent to which the increased use of several currently implemented methods can reduce the greenhouse gas emissions in concrete material production without requiring new technologies, changes in production, or novel material use. This research shows that, through increased use of common supplementary cementitious materials, appropriate selection of proportions for cement replacement, and increased concrete design age, 24% of greenhouse gas emissions from global concrete production or 650 million tonnes (Mt) CO2-eq can be eliminated annually.
Nature Sustainability | 2018
Sabbie A. Miller; Arpad Horvath; Paulo J.M. Monteiro
Concrete is the most-used construction material worldwide. Previous studies on the environmental impacts of concrete production have mainly focused on the materials involved and energy consumption, as well as CO2 emissions; little is known, however, about its water consumption as well as the effective measures to reduce such consumption. We quantify water use of global concrete production in 2012 and project the value to 2050. The results show that concrete production was responsible for 9% of global industrial water withdrawals in 2012 (this is approximately 1.7% of total global water withdrawal). In 2050, 75% of the water demand for concrete production will likely occur in regions that are expected to experience water stress. Among possible ways of mitigating water demand are choosing the appropriate selection of electricity fuel mixes and improved processing of raw materials; however, these strategies may conflict with greenhouse gas emissions reduction goals. This work develops a baseline estimate for water consumption and withdrawal for concrete production and identifies locations for targeted mitigation.Little is known about the water impacts of concrete production. This study quantifies this impact globally for 2012 and projects it to 2050. It also evaluates in which regions the impacts will be more severe, based on the availability of renewable water resources.
Resources Conservation and Recycling | 2015
Sabbie A. Miller; Wil V. Srubar; Sarah L. Billington; Michael D. Lepech
Construction and Building Materials | 2016
Sabbie A. Miller; Paulo J.M. Monteiro; Claudia P. Ostertag; Arpad Horvath
Cement & Concrete Composites | 2016
Sabbie A. Miller; Paulo J.M. Monteiro; Claudia P. Ostertag; Arpad Horvath
Journal of Cleaner Production | 2013
Sabbie A. Miller; Sarah L. Billington; Michael D. Lepech
Materials & Design | 2013
Sabbie A. Miller; Michael D. Lepech; Sarah L. Billington
Journal of Cleaner Production | 2016
Sabbie A. Miller; Sarah L. Billington; Michael D. Lepech