Global Solar Energy availability model and use in relationship to Ecological Human imprint: Economic Sustainability Impact and Assessment


Safwat H. Shakir Hanna, Pamela Obiomon, Irvine W. Osborne-Lee, Gian Paolo Cesaretti, Rosa Misso

2019/07/15

Abstract

The present study is to assess the solar-energy extraction from the global Earth land, the continuation demands and the availability use in relation to human population growth in the world through the modeling of different scenarios. For the last few years, global energy becomes the most important commodity for the continuation the life on this Earth. This is due to the decreasing the non-renewable resources such as oil. According to our model, the human population growth in the
world will be between 9.5 to 11.00 billion people living on this earth by year 2050 at the current trend of human population growth rate, and we may be facing with shortening of availability of energy. It is important to stress that the energy should be replenished through non-tradition energy supply, but
we have to concentrate on the renewable energy, which we can develop to the extent of harvesting this energy in efficient ways. An example for the needs of energy from the land is to calculate how much the Earth can be supporting the human beings. For this regard, if each human being is required to live daily is in need for 2000 calories/per day on an average from the food. This means that the global Earth size has to produce about 15000 billion calories/day and 5475000 billion calories per year as the current estimate of human population of the earth (i.e. 7.5 billion people in year 2017). The question is the Earth can produce these calories to support 7.5 billion people, and we need more calories when the human population grows to be more than 9.5 billion people in the year 2050 in this Earth. This is only for the food that we are consuming and what about another required energy necessity for our continuation of life for production of other commodities that we are in need such as energy for fulling our cars, trucks and other factories. Therefore, solar engineering harvesting from the Earth should be important, and we have to think how we accomplish it. Additionally, we need to sustain our environment by conserving our water resources, and keeping our global climate environmentally in best condition to sustain the land economic and social standards. Further, in this paper, we are discussing the impacts of changing different parameters that affect global energy in this Earth, and what are the useful lessons that we can learn from it. Furthermore, we assess the availability of solarenergy and how to harvest and economic aspects of it. This will lead to sustainability of non-renewable resources such as oil.

Published in: Renewable Energy & Power Quality Journal (RE&PQJ, Nº. 17)
Pages: 522-529 Date of Publication: 2019/07/15
ISSN: 2172-038X Date of Current Version:2019/04/10
REF: 363-19 Issue Date: July 2019
DOI:10.24084/repqj17.363 Publisher: EA4EPQ

 

Authors and affiliations

Safwat H. Shakir Hanna1, Pamela Obiomon1, Irvine W. Osborne-Lee1, Gian Paolo Cesaretti2,
Rosa Misso3
1. Texas Gulf Coast Environmental Data (TEXGED) Center, Roy G. Perry, College of Engineering Prairie View
A&M University, Texas. USA.
2. Simone Cesaretti Foundation, Casaraia street, 12, 80049, Somma Vesuviana (Na), Italy.
3. University of Naples Parthenope – Department of Economic and Legal Studies, Italy.

Key words

Power quality (PQ); harmonic emission, appliance identification; higher-order statistics (HOS); electronic appliances, smart metering

References

[1] http://www.worldometers.info/world-population/ Accessed on December 30, 2018).
[2] https://www. motherjones.com/ environment/ 2018/04/solar-energy-set-a-global-record-last-year-mostlythanks-
to-china/
Accessed on December 30, 2018.
[3] https://www.nationalgeographic.com/environment/ global-warming/ solar-power/ accessed on January 1, 2019).
[4] http://www.solargcc.com/ egypt-solar/ Accessed on January 1, 2019).
[5] Solar-energy science workshop -workshop 2005.
[6] https://www.aps.org/policy/reports/popa-reports/ energy/units.cfm.
[7] World Bank (2011) Global Strategy To Improve Agricultural and Rural Statistics. Report No. 56719-GLB. 1818 H Street, NW Washington, DC 20433. 55 Pages.
[8] Enerdata Energy Statistical Yearbook 2018.
[9a] FAO, "The state of food insecurity in the world. Economic crises - impacts and lessons learnt," United Nations Food and Agriculture Organization, Rome., 2009 a.
[9b] FAO.). How to feed the world in 2050, (2009b, accessed January 18, 2019.
[10] https://www.ucsusa.org/clean-energy/renewable-energy/how-solar-panels-work#. W7F QsmhKhPZ
[11] WRI, 1960-2005 Series. EarthTrends Environmental Information, World Resource Institute(WRI). World Resource Institute:WRI http://Earthtrends.wri.org/.
[12] UNEP (2009). A Planet in Ecological Debt, Arendal Maps and Graphics Library: UNEP http://maps.grida.no/go/graphic/a-planet-in-ecological-debt.
[13] UNDP Human Development Data (1990-2017). http://hdr.undp.org/en/data.
[14] WWF (2012) Living Planet Report 2012. Biodiversity, biocapacity and better choices. Editor in chief: Monique
Grooten., Lead editors: Rosamunde Almond and Richard McLellan. Editorial team: Nigel Dudley, Emma Duncan,
Natasja Oerlemans and Sue Stolton.
[15] Global Footprint Network (2008). Calculation methodology for the national footprint accounts. Edited by Ewing, B., A. Reed, Rizk, M.S., Galli, A., Wackernagel, M. and Kitzes, J., Global Footprint Network. , Oakland, CA 94607-3510, USA.
[16] SPSSSCIENC,"SigmaplotVersion8.” www. spssscience.com/sigmaplot , 2002.
[17] B. Richmond., "STELLA An Introduction to System Thinking " High Performance Systems, Inc. The System
Thinking Company. ISBN 0-9704921-1-1, 165 p., 2001.
[18] J. H. Krenz., "Energy conversion and utilization.," p. 359 pp., 1976.
[19] D. G. Rancourt, "Radiation physics constraints on global warming," p. 15, 2011.
[20] D. G. Rancourt, "Radiation physics constraints on global warming," p. 22, 2008.
[21] US Energy Information Administration
[22] https://www.iea.org/ 2010.
[23] University of Oregon (2019) zebu. uoregon. edu/disted/ph162/l4.html.
[24] Kamat, P. V. 2007. Meeting the Clean Energy Demand: Nanostructure Architectures for Solar Energy Conversion. J. Phys. Chem. C. 111, 2834-2860.
[25] Kalogirou, S.A. 2014. Solar Energy Engineering Processes and Systems. Second Edition Academic Press is an
Imprint of Elsevier 819pp.
[26] Kalogirou, S.A. 2014. Solar Energy Engineering Processes and Systems. Second Edition Academic Press is an
Imprint of Elsevier 819pp.
[27] Mohandes, M., Rehman, S. and .Halawani, T.O. 1998. Estimation of global solar radiation using artificial neural networks. Renewable Energy, Vol 17: 179-184.
[28] Steffen, W., Grinevvald, J., Crutzen, P, and MeNeil, P. 2013. The Anthropocene: conceptual and historical perspectives. Phil. Trans.