The relationship between energy production and consumption with greenhouse gas emissions, a case study: Arab countries of OPEC in the Persian Gulf region (the UAE, Iraq, Arabia, Kuwait, and Qatar)
Subject Areas : Agriculture Marketing and Commercialization
Allahbakhsh
Kavoosi
1
(Associate professor, Faculty of Engineering, Razi University, Kermanshsh, Iran)
Arian
Kavoosi
2
(Master's Student in Architecture and Energy Engineering, Razi University, Kermanshah, Iran)
Keywords: Arab countries, Energy, Greenhouse gases, OPEC, Persian Gulf.,
Abstract :
The Middle East region accounts for the largest quota of the world's energy reserves, which is the reason for the interdependence between the world's largest industrial countries and the governments of this region. Given the known oil reserves of the Arab countries in the Persian Gulf region, the effect of energy consumption with a sample of five Arab countries as members of OPEC and oil producers of the Persian Gulf region on greenhouse gas emissions during 40 years (1980-2020) was investigated in this research. The energy production and consumption and greenhouse gas emissions of the target countries were studied to identify their contribution to energy production and consumption in the world. It was determined that these countries account for a significant share of climate change and global greenhouse gas emissions. The results show that approximately 34% of the global oil reserves and 22% of carbon dioxide (CO2) production belong to the five Arab countries in the Persian Gulf region. The largest and the lowest shares in CO2 production belong to Saudi Arabia and Kuwait among the five countries of the Persian Gulf region.
_ Alamdari P. & Nematollahi O. & Alemrajabi AA. (2013). Solar Energy Potentials in Iran: A review. Renew. Sustain. Energy Rev, 21(1):778-788.
_ Dong C. & Dong X. & Jiang Q. & Dong K. & Liu G. (2018). What is the probability of achieving the carbon dioxide emission targets of the Paris Agreement? Evidence from the top ten emitters. Sci Total Environ, 622(1):1294-1303.
_ Kais S. & Sami H. (2016). An Econometric study of the Impact of Economic Growth and Energy. Use on Carbon Emissions. PaneI Data Evidence from Fifty Eight Countries. RenewabIe and SustainabIe Energy Reviews, 59(1):1101-1110.
_ Kavoosi A. (2021). Consequences of Global Demand and Supply of Fossil Energy and the Need to use Wind Energy as a Potential in Iran. Anthropogenic Pollution, 5(1): 98-104.
_ Kavoosi A. (2019), Urban Commercial Green Walls and Their Role in Reducing Environmental Impacts and Energy Consumption of Cities. Agricultural Marketing and Commercialization Journal, 3(2), 25-33.
_ Khorasanizadeh H. & Mohammadi K. & Mostafaeipour A. (2014). Establishing a diffuse solar radiation model for determining the optimum tilt angle of solar surfaces in Tabas, Iran. Energy Convers Manage, 78(1):805-814.
_ Martin M. & Meyer Steinberg H. (2019). Greenhouse Gas Carbon Dioxide Mitigation. Science and Technology.
_ Matzenberger J. (2015). Future perspectives of international bioenergy trade. Renewable and Sustainable Energy Reviews, 43(1):926-941.
_ Measham TG. & FIeming DA. (2014). Impacts of Uncon ventionaI Gas DeveIopment on RuraI Community DecIine. JonrnaI of RuraI studies, 36(1):376-385.
_ Mohsen M. & Bagher AM. & Reza BM. & Vahid MM. & Mahdi T. (2015). Comparing the generation of electricity from renewable and non-renewable energy sources in Iran and the world: now and future. World Journal of Engineering, 12(6):627-638Steamers K. (2017). Energy and the city: Density, Buildings and Transport. Energy and Buildings, 35(6): 3-14.
_ Shahsavari A. & Akbari M. (2018). Potential of solar energy in developing countries for reducing energy- related emissions Renew. Sustain Energy Rev, 90(1): 275-291.
_ Vijayalakshmi M. (2018). BP Statistical Review of World Energy; London, Beyond Petroleum, 6(3): 33-42.
_ Solaymani S. (2021). A Review on Energy and Renewable Energy Policies in Iran. Sustainability, 13(13):7328-7349.