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Industrial Decarbonization: Gap and opportunity for ammonia, bioproducts, and cement.
Abstract not provided.
Continued Development and Advanced Testing of DPC Filler Cements (on FY22 R&D and Demonstration Activities) (Progress Report)
Commercial generation of energy by nuclear power plants in the United States (U.S.) has produced thousands of metric tons of spent nuclear fuel (SNF), the disposal of which is the responsibility of the U.S. Department of Energy (DOE). Utilities typically utilize the practice of storing this SNF in dual-purpose canisters (DPCs). DPCs were designed, licensed, and loaded to meet Nuclear Regulatory Commission (NRC) requirements that preclude the possibility of a criticality event during SNF storage and transport, but were not designed or loaded to preclude the possibility of a criticality event during the regulated post-closure period following disposal, which could be up to 1,000,000 years (Price, 2019). There are several options being investigated that could facilitate the disposal of SNF stored in DPCs in a geologic repository (Hardin et al., 2015; SNL 2020b; SNL 2021b). These include: (1) repackage the SNF into canisters that are designed to prevent criticality during the regulated post-closure period following disposal, but with an increased disposal cost estimated at approximately $\$$20B in United States dollars (USD) (Freeze et al., 2019); (2) analysis of the probability and consequences of criticality from the direct disposal of DPCs during a 1,000,000-year post-closure period in several geologic disposal media (Price, 2019); and (3) filling the void space of a DPC with a material before its disposal that significantly limits the potential for criticality over the post-closure regulatory period. This report further investigates the third option, filling DPC already containing SNF with a material to limit the potential for criticality over the post-closure regulatory period.
Progress Report: Continued Development and Advanced Testing of DPC Filler Cements
Commercial generation of energy by nuclear power plants in the United States (U.S.) has produced thousands of metric tons of spent nuclear fuel (SNF), the disposal of which is the responsibility of the U.S. Department of Energy (DOE). Utilities typically utilize the practice of storing this SNF in dual-purpose canisters (DPCs). DPCs were designed, licensed, and loaded to meet Nuclear Regulatory Commission (NRC) requirements that preclude the possibility of a criticality event during SNF storage and transport, but were not designed or loaded to preclude the possibility of a criticality event during the regulated post-closure period following disposal, which could be up to 1,000,000 years (Price, 2019).
Sealing Components - Elastomers, Threaded Connections, and Cements
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Carbon Capture in Fully Hydrated Cement-Mordenite
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Stability of Synthetic Zeolites in Portland Cement
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Characterization and Simulation of Cement-Rock Interface Long-Term Performance
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Concentrating Solar Power for Cement Decarbonization
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THE EVOLUTION OF CHEMO-MECHANICAL PROPERTIES AT CEMENT-ROCK INTERFACES
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Evaluation of Radiation Models for Concentrating Solar Thermal and Cement Production Using Greenhouse Gases
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Precalciner Geometry Optimization Considering H2O and CO2 Heat Transfer Fluid for Cement Production
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The Role of Porous Additives on Carbonation of Cement-Based Composites
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Enhancing Cement Sustainability through the Use of Porous Supplemental Cementitious Materials
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Exploring the Impact of Carbonation in Uncalcined and Calcined Clay-Cement Composites
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Impact of Sodium Mordenite on Carbonation Rate and Minerology of Portland Cement
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Cavalcade Mechanisms for Gaseous Mineralization in Portland Cement
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Y-Type Zeolites as a Porous Admixture for Increased Calcite Formation in Portland Cement
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