Investigation of the Safe Location for Private Electric Power Generators Servicing Residential Buildings in Nigeria

Authors

  • Olumuyiwa O. Akintola National Open University of Nigeria, Jabi, Abuja, Nigeria

Keywords:

Air emission, electric power, generators, air quality impact, buildings

Abstract

Communication in Physical Sciences, 2023, 9(4): 521-532

Olumuyiwa O. Akintola

Received: 11 April 2023/Accepted 29 August 2023

This study focused on the safe location for electric power generators servicing detached bungalows in the Nigerian environment via the determination of the air quality impact of primary air pollutants including carbon monoxide (CO), oxides of nitrogen (NOx), sulphur dioxide (SOx ), particulate matter (PM) and volatile organic compounds (VOCs). The AERMOD view air emission dispersion modelling commercial software was used to predict the ground-level concentration of air pollutants entering buildings. These were compared with Nigeria’s National Ambient Air Quality Standards (NAAQs) and WHO air quality standards to determine the indoor air quality impacts and predict the safe location for electric power operations. The results showed that predicted ground-level concentrations of CO, NOx, SOx, PM and VOCs from electric power generators located at both 1 m and 4m  from the residential building of interest at the various hours considered were within limits. However, it was observed that the location of generators at 1m or beyond from the house is relatively good and safe to limit hazards from air emissions. The findings will assist relevant authorities and individuals in developing and implementing a strategic air quality management plan for the safety of residential building occupants.

Downloads

Download data is not yet available.

Author Biography

Olumuyiwa O. Akintola , National Open University of Nigeria, Jabi, Abuja, Nigeria

Department of Chemistry

References

Adefeso, I. B., (2010). A study of outdoor-indoor exchange of carbon monoxide from a standby electricity generator, pp. 1-150.

Aung, W. Y., Noguchi, M., Pan-Nu-Yi, E., Thant. Z., Uchiyama,S., Win-Shwe, T., Kunugita, N., Mar, O.,(2019). Preliminary assessment of outdoor and indoor air quality in Yangon city; Atmospheric Pollution Research; 10: 722-730.

Awofeso, N., (2011). “Generator Diesel Exhaust: A Major Hazard to Health and the Environment in Nigeria”. American Journal of Respiratory and Critical Care Medicine;183:1437.

Awosipe, C. A., (2014). Nigeria electricity Issues, Challenges and Solution. ISSN 2006.0327, Publisher Series. Vol.3, No.2;1-36.

Baklanov, A., Molina L. T., Gauss M., (2016). Megacities: Air Quality and Climate. Atmoshperic Environment; 126: 235–249.

Baruch, J. J., (2008). “Combating global warming while enhancing the future”. Technology in Society. Vol. 30, pp. 111-121.

Brajmohan, A. M., and Ahmed, K., (2018). “Air Pollution Dispersion Modeling for Diesel Generators at Jamia University Campus, New Delhi, India”. International Journal, vol. 6, pp. 118-121.

Duh, J., Shandas, V., Chang, H. and George, L.A., (2008). Rates of Urbanisation and the Resiliency of Air and Water Quality. Science of the Total Environment, ELSEVIER; ISSN 0048-9697.Vol 400, Number 1-3:pg 243.

Energy Commission of Nigeria, (2003) National Energy Policy. Federal Republic of Nigeria, pg 1-83.

EPA, (2005). Compilation of Air Pollutant Emission Factors. AP-42, Updated Fifth Edition, Available Through NTIS, Springfield, VA.

EPA, (2015). Emissions Factors & AP 42, Compilation of Air Pollutant Emission Factors.

FEPA, (1991). Guidelines and Standards for Environmental Pollution Control in Nigeria.

Federal Environment Protection Agency (FEPA), Lagos.

Gilmore, E. A., Adams, P. J., & Lave, L. B., (2010). “Using backup generators for meeting peak electricity demand: a sensitivity analysis on emission controls, location, and health endpoints”. Journal of the Air and Waste Management Association. Vol. 60, pp. 523-531.

Hamdy, M., Carlucci S., Hoes P-J., Hensen J.L.M., (2017). The impact of climate change on the overheating risk in dwellings—a Dutch case study. Building Environment ;122:307–23.

Hnatov, M. V., (2008). Incidents, Deaths, and In-Depth Investigations Associated with Non-Fire Carbon Monoxide from Engine-Driven Generators and Other Engine-Driven Tools, 1999–2007; U.S. Consumer Product Safety Commission: Bethesda, MD;16.

Iwayemi, A., (2007). Nigeria’s Dual Energy Problems: Policy Issues and Challenges.

International Association for Energy Economics, 2007, pp 17-20.

Jacobson, M. Z., (2015). Air pollution and global warming. New York: Cambridge University

Press.

Lawal, O. Akinpade K. and Adebisi H. (2017). A study of outdoor-indoor exchange of carbon monoxide from a standby electricity generator. An M.Sc Thesis Submitted to Department of Chemical Engineering, Obafemi Awoolwo University, Ile-Ife,Nigeria.Unpublis hed Paper. pp. 1-150.

Margulis, Paunio S.M., Acharya, (2016). A.‘‘Addressing Indoor Air Pollution in Africa: Key to Improving Household Health. Journal of Environmental Science.

Oguntoke, O. and Adeyemi, A., (2016). Degradation of urban environment and human health by emissions from fossil-fuel combusting electricity generators in Abeokuta metropolis, Nigeria; Indoor and Built Environment; 25(0): 1-15.

Papanastasiou, D. K., Melas D., Kambezidis H.D., (2015) Air quality and thermal comfort levels under extreme hot weather. Atmospheric Research; 152:4–13.

Afam Power Station, (2011). Project and Maintenance Department Manual on Gas Turbine Plant.

Stanley, A. M., Ikemefuna, M., Afolabi, A. D., (2011). Effect of Fossil-Fuel Electricity Generators in Indoor Air Quality in Kaduna, Nigeria Department of Building, Ahmadu Bello University, Zaria-Nigeria. Pg.

Tong, Z. and Zhang, K. M., (2015). The near-source impacts of diesel backup generators in urban environments”. Atmospheric Environment. Vol.109, pp.262-271.

Wang, L. and Emmerich S. J., (2010). Modeling the effects of outdoor gasoline power generator use on indoor carbon monoxide exposures; Building simulation DOI: 10.1007/s12273-010-0308-5.

Downloads

Published

2023-09-02