International Journal of Ambient Energy · 2014 · 20 citations · 21 references
EngineeringAutomotive EngineeringChemical EngineeringCombustionHeat TransferThermal AnalysisCombustion ProcessesEmissions TestingEngine EfficiencyEngine EmissionsEngine PerformanceEngine Performance CharacteristicsBrake Thermal EfficiencyDiesel CombustionDiesel EnginesEmission PerformanceEngine Emissions TestingFuel BlendingHydrocarbon EmissionsThermal Efficiency
In this experimental investigation, an attempt was made to increase the performance and reduce the emission by adding alkanes such as n-pentane and n-hexane separately at different proportions, such as 4%, 6% and 8% by volume, with diesel. The performance analysis reported that, at full load, the brake thermal efficiency was increased by 3.605%, 3.170%, 4.305%, 4.394%, 5.336% and 6.173% for the blending of 4% n-pentane, 6% n-pentane, 8% n-pentane, 4% n-hexane, 6% n-hexane and 8% n-hexane with diesel, respectively. The emission test concluded that the smoke density was increased by 9.915%, 9.905%, 6.325%, 9.573%, 6.154% and 5.983% for the blending of 4% n-pentane, 6% n-pentane, 8% n-pentane, 4% n-hexane, 6% n-hexane and 8% n-hexane with diesel, respectively. The NOx emission was decreased by 8.265%, 8.674%, 17.430%, 5.401%, 5.810% and 7.529% for the blending of 4% n-pentane, 6% n-pentane, 8% n-pentane, 4% n-hexane, 6% n-hexane and 8% n-hexane with diesel, respectively.
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Internal combustion engine fundamentals
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