WITH A PACKED COOKING BROILER, THE EFFECTS OF VESSEL PRESSURE ON FIRE TEMPERATURE AND LEVEL IN CONTAMINATED LIGHT OIL FUEL TESTS
Abstract
The study investigates the influence of vessel pressure on the flame characteristics, specifically flame temperature and height, of adulterated kerosene fuel samples in a pressurized cooking stove. Adulteration of kerosene, often with cheaper and readily available substances, poses significant safety risks and efficiency challenges in domestic cooking appliances. By systematically varying the pressure within the fuel vessel, this research aims to determine how different pressures affect the combustion properties of kerosene mixed with common adulterants. The experimental results indicate that increased vessel pressure generally enhances flame temperature and stability but can lead to increased flame height, posing potential hazards. Understanding these dynamics is crucial for developing safer and more efficient cooking practices, especially in regions where kerosene adulteration is prevalent.
Keywords
Vessel Pressure, Flame Temperature, Flame Height
References
Bacon R. and Kojima M. (2006). Phasing out Subsidies:Recent Experiences with Fuel in Developing Countries. The World Bank Group Financial and Private Sector Development Vice Presidency, Retrieved from http:// rru.worldbank. org/PublicPolicyJournal on 23rdOctober, 2015.
Ogali R. E.,Osuji I. C., OkoyeI. P. and Chikwe T. N. (2012). Effect of Adilterating Household Kereosene with Condensate Fuel. Research Journal of Engineering Sciences. 1 (5), 37-43.
Our Economy Bureau, New Delhi (2005). 38% of PDS Kerosene ends in black market. BusinessStandard.Retrievedfrom http://www.business-standard.com/india/storypage.phpon14thSeptember, 2009
4. Cajetan, A. (2015). The Impact of Kerosene Price Subsidy Removal on Households’ Cooking Energy Consumption in Nigeria: Implications for National Development. International Journal of Management Studies and Research.3(5), 50-54.
Bland , F.W. and Davidson, R. L. (1983). Petroleum Processing Handbook, 4thedition. William Clovers and Sons Limited. New York, Pp 30-70.
6. Odebunmi, E. O., Ogunsakin, E. A. and Ilukhor, P. E. P. (2002). Characterization of crude oils and petroleum products; (I) Elution liquid chromatographic separation and gas chromatographic analysis of crude oil and petroleum products. Bull. Chem. Soc. of Ethiopia. 16 (2), 115-132.
7. Agbon,I.(2011).TherealcostofNigerianpetrol.Onlinenewspaperarticle, Retrieved from http:/www.saharareporters.com/article/real-cost-nigeria-petrol-dr-izielen-agbonon26th,October 2015.
8. Smith, K. R and Uma,R. (2000). Greenhouse Gases From Small Combustion Devices in Developing Countries, EPA Research and Development Report USA,June 2000.
9. Encarta (2005). Kerosene.In: Encarta Library. Retrieved from http:/ www.microsoftencarta.comon 7thMay, 2013.
Moh, K. D. (2010).The design and construction of a portable kerosene pressure cooker. African Research Review. Vol.4 (2), 5-6.
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