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Assessing the feasibility of carbon dioxide mitigation options in terms of energy usage

handle: 10044/1/82471
Assessing the feasibility of carbon dioxide mitigation options in terms of energy usage
Measures to mitigate the emissions of carbon dioxide (CO2) can vary substantially in terms of the energy required. Some proposed CO2 mitigation options involve energy-intensive processes that compromise their viability as routes to mitigation, especially if deployed at a global scale. Here we provide an assessment of different mitigation options in terms of their energy usage. We assess the relative effectiveness of several CO2 mitigation routes by calculating the energy cost of carbon abatement (kilowatt-hour spent per kilogram CO2-equivalent, or kWh kgCO2e–1) mitigated. We consider energy efficiency measures, decarbonizing electricity, heat, chemicals and fuels, and also capturing CO2 from air. Among the routes considered, switching to renewable energy technologies (0.05–0.53 kWh kgCO2e–1 mitigated) offer more energy-effective mitigation than carbon embedding or carbon removal approaches, which are more energy intensive (0.99–10.03 kWh kgCO2e–1 and 0.78–2.93 kWh kgCO2e–1 mitigated, respectively), whereas energy efficiency measures, such as improving building lighting, can offer the most energy-effective mitigation. Carbon emission reduction measures have widely differing energy consumptions that have not been systematically compared. Babacan et al. estimate comparable energy use per unit emission reduction of various emission reduction measures, from efficiency improvements to renewable electricity generation to carbon removal.
- Imperial College London United Kingdom
- IMPERIAL COLLEGE OF SCIENCE TECHNOLOGY AND MEDICINE United Kingdom
Technology, EFFICIENCY, 330, Energy & Fuels, FUELS, Materials Science, Materials Science, Multidisciplinary, CO2 UTILIZATION, FUTURE, SYSTEMS, carbon removal, EMISSIONS, Multidisciplinary, Science & Technology, carbon dioxide, negative emissions technologies, 600, PERFORMANCE, CAPTURE, LIFE-CYCLE ASSESSMENT, 0906 Electrical and Electronic Engineering, 0907 Environmental Engineering, energy costs, STORAGE
Technology, EFFICIENCY, 330, Energy & Fuels, FUELS, Materials Science, Materials Science, Multidisciplinary, CO2 UTILIZATION, FUTURE, SYSTEMS, carbon removal, EMISSIONS, Multidisciplinary, Science & Technology, carbon dioxide, negative emissions technologies, 600, PERFORMANCE, CAPTURE, LIFE-CYCLE ASSESSMENT, 0906 Electrical and Electronic Engineering, 0907 Environmental Engineering, energy costs, STORAGE
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