Marginal abatement costs for greenhouse gas emissions in the United States using an energy systems approach

Abstract Deep decarbonization requires fundamental changes in meeting energy service demands, with some efforts increasing overall costs. Examining abatement measures in isolation, however, fails to capture their interactive effects within the energy system. Here we show the abatement costs of decarbonization in the United States using an energy system optimization model to capture technological interactions, multi-decadal path dependence, and endogenous end-use technology selection. Energy-system-wide net-zero CO 2 -eq emissions are achieved in 2050 at a cost under $400 per tonne CO 2 -eq, led by emissions reductions in power generation, end-use electrification of ground transportation, space heating, and some industrial applications. Differences in mitigation costs and CO 2 geological storage potential lead to regional heterogeneities in mitigation rates and residual emissions. The marginal abatement cost curves show that additional decarbonization comes at higher incremental costs, this cost penalty decreases over time, and substantially greater abatement occurs in future time periods at the same abatement cost.

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Publication Details

Journal
Environmental Research Energy
Published
2025-02-13
DOI
https://doi.org/10.1088/2753-3751/adb588
Citations
4
Primary Topic
Climate Change Policy and Economics
Type
article
Field-Weighted Citation Impact
12.52

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Marginal abatement costs for greenhouse gas emissions in the United States using an energy systems approach

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Environmental Research Energy
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Marginal abatement costs for greenhouse gas emissions in the United States using an energy systems approach

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article en
4 citations

Abstract

Abstract Deep decarbonization requires fundamental changes in meeting energy service demands, with some efforts increasing overall costs. Examining abatement measures in isolation, however, fails to capture their interactive effects within the energy system. Here we show the abatement costs of decarbonization in the United States using an energy system optimization model to capture technological interactions, multi-decadal path dependence, and endogenous end-use technology selection. Energy-system-wide net-zero CO 2 -eq emissions are achieved in 2050 at a cost under $400 per tonne CO 2 -eq, led by emissions reductions in power generation, end-use electrification of ground transportation, space heating, and some industrial applications. Differences in mitigation costs and CO 2 geological storage potential lead to regional heterogeneities in mitigation rates and residual emissions. The marginal abatement cost curves show that additional decarbonization comes at higher incremental costs, this cost penalty decreases over time, and substantially greater abatement occurs in future time periods at the same abatement cost.

Environmental Research EnergyVol. 2(1)
National Bureau of Economic Research (US), North Carolina State University (US), Technical University of Nova Scotia (CA), Carnegie Mellon University (US)
Alfred P. Sloan Foundation
Openalex Percentile: Top 2%
Climate Change Policy and Economics
12.52
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