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A Technical Review of the Constraints on and Solutions for Low-Carbon Energy Sources

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  • Henry Pinner San Francisco University High School

Keywords:

Low-Carbon Energy Sources, Environmental Engineering, Renewable Energy

Abstract

Renewable energy sources have received increasing attention in recent years, as the urgent need to decarbonize the global economy has become ever-clear with rising extreme weather conditions alongside dramatically changing lives and livelihoods. The most promising forms of renewable energy are identified, and the economic and social constraints that need to be overcome to replace carbon-based energy systems are examined. I then identify some of the most prominent forms of renewable energy by analyzing the physical science, scalability, and advantages/disadvantages of these technologies. My analysis shows that solar energy can be one of the most promising technologies because of its ability to be rapidly scaled in many dierent places, require limited maintenance, and provide jobs/return on investment. Within solar, I examine several specific technologies and conclude that crystalline PV has the most potential for rapid deployment to the TerraWatt scale. I continue by examining the current state of business models to identify what constraints need to be addressed to scale and deploy solar and renewable energy more eciently. Here, my analysis finds that the far-reaching embedding of carbon in companies' supply chains, lack of regulated carbon pricing, and poor societal habits are some of the main obstacles that must be addressed if renewable energy is to be eectively incorporated into business and social systems. This research suggests actions for stakeholders who must play a role in scaling and innovating the technology effectively, and civilians who must change their lifestyles to create and adapt to a more sustainable system.

References or Bibliography

[Ada14] M. S. Adaramola. Viability of grid-connected solar pv energy system in Jos, Nigeria. International Journal of Electrical Power Energy Systems, 61, 2014.

[Adma] U.S. Energy Information Administration. Geothermal power plants. U.S. Energy Information Administration.

[Admb] U.S. Energy Information Administration. Photovoltaics and electricity. U.S. Energy Information Administration.

[Admc] U.S. Energy Information Administration. Solar thermal power plants. U.S. Energy Information Administration.

[Adm20] U.S. Energy Information Administration. Consumption and production. 2020.

[Age] Environmental Protection Agency. Sources of greenhouse gas emissions. Environmental Protection Agency.

[Ahm18] Ghazvini M. Sadeghzadeh M. Alhuyi Nazari M. Kumar R.-Naeimi A. Ming T. Ahmadi, M. H. Solar power technology for electricity generation: A critical review.

Energy Science Engineering, 2018.

[Att20] David Attenborough. A life on our planet. Netix, 2020.

[Bla13] Zin N. McIntosh K. R. Fong K. Blakers, A. High effciency silicon solar cells. Energy Procedia, 2013.

[Cho04] Paulson P. D. Dutta V. Chopra, K. L. Thin- lm solar cells: An overview. Progress in Photovoltaics: Research and Application, 2004.

[DF04] M.H. Dickson and M Fanelli. What is geothermal energy? International Geothermal Association, 2004.

[Duf20] Beckman W. A. Blair N. Duffie, J. A. Solar engineering of thermal processes, photovoltaics and wind. 2020.

[Est12] Leary D. Esteban, M. Current developments and future prospects of offshore wind and ocean energy. Applied Energy, 2012.

[Far15] T. G. Farmer. Earth's energy imbalance. Climate Change Science: A Modern Synthesis, 2015.

[Far17] R. Fares. Wind energy is one of the cheapest sources of electricity, and it's getting cheaper. Scienti c American Blog Network., 2017.

[fCS19] Center for Climate and Energy Solutions. How companies take action to reduce carbon emissions. Center for Climate and Energy Solutions, 2019. 25

[fCS20] Center for Climate and Energy Solutions. How companies take action to reduce carbon emissions. Center for Climate and Energy Solutions, 2020.

[HA0] Models for a stand-alone pv system, author=Hansen, A. D., year=2000, journal=Risø National Laboratory,.

[Hee19] Richard Heede. Revealed: The 20 rms behind a third of all carbon emissions. The Guardian, 2019.

[IPC21] IPCC. Ar6 climate change 2021:the physical science basis. IPCC, 2021.

[IUC18] IUCN. Marine plastics. IUCN, 2018.

[Kab19] Kumar P. Kumar S. Adelodun A. A. Kim K.-H. Kabir, E. Solar energy: Potential and future prospects. Renewable and Sustainable Energy Reviews, 2019.

[Kra01] Eckart EhlersThomas Kra t. Understanding the earth system. Springer, 2001.

[Lun07] Henrick Lund. Renewable energy strategies for sustainable development. 2007.

[Mek11] Saidur R. Safari A. Mekhilef, S. A review on solar energy use in industries. Renewable and Sustainable Energy Reviews, 2011.

[Off] Wind Technology Oce. 2017 wind technologies market report.

[Owu16] Asumadu-Sarkodie S. Owusu, P. A. A review of renewable energy sources, sustainability issues and climate change mitigation. Cogent Engineering, 2016.

[Pan11] Kaushik S. C. Kothari S. Panwar, N. L. Role of renewable energy sources in environmental protection: A review. Renewable and Sustainable Energy Reviews, 2011.

[Pau81] Anderson D. A. Paul, W. Properties of amorphous hydrogenated silicon, with special emphasis on preparation by sputtering. Solar Energy Materials, 1981.

[Pen13] Lu L. Yang H. Peng, J. Review on life cycle assessment of energy payback and greenhouse gas emission of solar photovoltaic systems. Renewable and Sustainable Energy Reviews, 2013.

[Rit20] Roser M Ritchie, H. Fossil fuels. Our World in Data, 2020.

[Ros16] J. F. P. Rose. The well-tempered city what modern science, ancient civilizations, and human nature teach us about the future of urban life. Harper Wave, 2016. 26

[Ros20] M. Roser. The argument for a carbon price. Our World in Data, 2020.

[Ra19] Badea G. Enache A. Filote C. Rasoi G. Rata-M. Lavric A. Felseghi R.A. Raboaca, M. S. Concentrating solar power technologies. Energies, 2019.

[Smi07] Martino D. Cai Z. Gwary D. Janzen H. Kumar P.-McCarl B. Ogle S. O'Mara F.- Rice C Smith, P. Policy and technological constraints to implementation of greenhouse gas mitigation options in agriculture. Agriculture, Ecosystems Environment, 2007.

[Sta] Penn State. Overview of solar thermal power systems. 10.1. overview of solar thermal power systems | eme 811: Solar thermal energy for utilities and industry. Penn State.

[Tri02] Nousia T. Souliotis M. Yianoulis P Tripanagnostopoulos, Y. Hybrid photovoltaic/thermal solar systems. Solar Energy, 2002.

[Tuk08] Emmert S. Charter M. Vezzoli C. Sto E. Munch Andersen-M. Geerken T. Tischner U. Lahlou S Tukker, A. Fostering change to sustainable consumption and production: An evidence based view. Journal of Cleaner Production, 2008.

[Wan19] Z. Wang. Design of solar thermal power plants. Elsevier Inc, 2019.

[Woo16] Jones-Albertus R. Feldman D. Fu R. Horowitz K. Chung-D. Jordan D. Kurtz S. Woodhouse, M. The role of advancements in solar photovoltaic efficiency, reliability, and costs. 2016.

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Posted

10-27-2021