Integrated Modeling Approach for Energy Planning and Climate Change Mitigation Assessment in the State of Florida
Commenced in January 2007
Frequency: Monthly
Edition: International
Paper Count: 33104
Integrated Modeling Approach for Energy Planning and Climate Change Mitigation Assessment in the State of Florida

Authors: Kuntal Thakkar, Chaouki Ghenai, Ahmed Hachicha

Abstract:

An integrated modeling approach was used in this study for energy planning and climate change mitigation assessment. The main objective of this study was to develop various green-house gas (GHG) mitigations scenarios in the energy demand and supply sectors for the state of Florida. The Long range energy alternative planning (LEAP) model was used in this study to examine the energy alternative and GHG emissions reduction scenarios for short and long term (2010-2050). One of the energy analysis and GHG mitigation scenarios was developed by taking into account the available renewable energy resources potential for power generation in the state of Florida. This will help to compare and analyze the GHG reduction measure against “Business As Usual” and ‘State of Florida Policy” scenarios. Two master scenarios: “Electrification” and “Energy efficiency and Lifestyle” were developed through combination of various mitigation scenarios: technological changes and energy efficiency and conservation. The results show a net reduction of the energy demand and GHG emissions by adopting these two energy scenarios compared to the business as usual.

Keywords: Integrated modeling, energy planning, climate change mitigation assessment, greenhouse gas emissions, renewable energy, energy efficiency.

Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1109463

Procedia APA BibTeX Chicago EndNote Harvard JSON MLA RIS XML ISO 690 PDF Downloads 1784

References:


[1] Heaps, C., Erickson, P., Kartha, S., Kemp-Benedict, E. November, “Europe’s Share of the Climate Challenge Domestic Actions and International Obligations to Protect the Planet”, Stockholm Environment Institute, 2009.
[2] Taviv, R., Trikam, A., Lane, T., O’Kennedy, K., Mapako, M., Brent, AC. May 2008, “Population of the LEAP system to model energy futures in South Africa” Council for Scientific and Industrial Research, Energy Research Centre, University of Cape Town.
[3] Bujac, F. January 2011, “Evaluating the potential of renewable energy sources in Romania”, Program of Sustainable Energy Planning and Management, Aalborg University.
[4] Mahumanea. G., Mulderb. P., Nadaudc, D. 2012, “Energy outlook for Mozambique 2012-2030 LEAP-based scenarios for energy demand and power generation”, Vrije University.
[5] Ghenai, C., Janajreh, I., 2013, Comparison of resource intensities and operational parameters of renewable. Fossil fuel, and nuclear powers systems, Int. Journal of Thermal and Environmental Engineering, Vol. 5, No2, pp. 95-104.
[6] Engdayahu, A. June 2007, “National Energy Sector Greenhouse Gas Emissions of Ethiopia and Its Mitigation Analysis”, Addis Ababa University.
[7] Ghanadan, R., Koomey, J. 2005, “Using energy scenarios to explore alternative energy pathways in California”, Energy Policy, Elsevier, Vol. 33, pp. 1117-142.
[8] Subramanyam, V. “Development of Greenhouse Gas Mitigation Options for Alberta‘s Energy Sector”, University of Alberta, 2010.
[9] Park, N.B., Yun, S.J., Jeon, E.C., An analysis of long-term scenarios for the transition to renewable energy in the Korean electricity sector, Energy Policy, Volume 52, January 2013, Pages 288–296.