Hydrotreatment of palmolein oil as fuel for diesel engines – An experimental study

  • JANARTHANAM HEMANANDH SATHYABAMA UNIVERSITY
  • K.V. NARAYANAN SATHYABAMA UNIVERSITY
Keywords: 4S- diesel engine, Combustion, Emission and performance, Hydrotreated refined palmolein oil, RPM

Abstract

The present study investigates the use of  hydro treated vegetable  oil  as  fuel  and   analyzes the  emission and performance characteristics of the Direct Injection 4 – stroke Diesel engine, air-cooled single cylinder, 4.4 kW, constant speed of 1500 rpm, and compression ratio 17.5:1.  The Refined Palmolein oil was hydrotreated using Ni-Mo as catalyst at 60 bar and 360°C. The hydrotreated refined palmolein oil was used as a fuel and compared with the transesterified fatty acid methyl esters. The properties of petro diesel, FAME, and hydro treated refined palmolein oil were compared with Euro IV Indian standards. The experiments were conducted systematically by blending the hydro treated refined palmolein oil by 25% (B25) and 100% (B100) by volume and at different loads such as 0%, 25%, 50%, 75%, and 100%.  The emission (CO, HC, NOx, and FSN), performance (BSFC and Brake thermal efficiency) combustion analysis were   measured.  The experimental results showed that there was   abatement in CO, HC, NOx, and BSFC while there was increase in brake thermal efficiency when compared with petro diesel fuel. The combustion pressure and heat release rate for B100 were almost equal to the diesel. No modification was required in the diesel engine.

Author Biographies

JANARTHANAM HEMANANDH, SATHYABAMA UNIVERSITY

Assistant Professor ,

Department of Mechanical Engineering,

SATHYABAMA UNIVERSITY, CHENNAI, INDIA

K.V. NARAYANAN, SATHYABAMA UNIVERSITY

PROFESSOR,

DEPARTMENT OF MECHANICAL ENGINEERING

SATHYABAMA UNIVERSITY, CHENNAI, INDIA

References

Alexander Guzman, Juan E. Torres, Laura P. Prada, Manuel L. Nunez, 2010. Hydro processing of crude palm oil at pilot plant scale. Catalysis Today. 156: 38 – 43.

Da-Yong Jiang, Yun Bai, and He-jun Guo., 2011. Exhaust emissions and combustion performances of ethylene glycol mono methyl ether palm oil monoester as a novel biodiesel. African Journal of Biotechnology. 10: 16300 – 16313.

Enweremadu C.C, Rutto b H.L. 2010. Combustion, emission and engine performance characteristics of used cooking oil biodiesel — A review. Renewable and sustainable energy reviews. 14: 2863 -2873.

Fernando Neto da Silva .A, Antonio Salgado Pratab, Jorge Rocha Teixeirac. 2003. Technical feasibility assessment of oleic sunflower methyl ester utilization in Diesel bus engines. Energy conversation management. 44:2857 – 2878.

Hannu Aatola, Martti Larmi, Teemu Sarjovaara, 2008. Hydrotreated Vegetable Oil (HVO) as a Renewable Diesel Fuel: Trade-off between NOx, Particulate Emission, and Fuel Consumption of a Heavy Duty Engine. SAE International, 2008 – 01 – 2500.

Jha.K, Anil K Sinha, Paritosh Agnihotri, 2008. Hydroprocessing Of Jatropha Oil to Produce Green Fuels. International Journal of ChemTech Research. 5: 765-770.

Pascal Ndayishimiye, Mohand Tazerout, 2011. Use of palm oil based biofuel in the internal combustion engines: Performance and emissions characteristics. Energy. 36:1790-1796.

Premkartikkumar S.R., Annamalai .K and Pradeepkumar A.R. 2014. Significance of inlet air temperature on reducing Engine - out Emissions of DI diesel engine operating under the Influence of oxygen enriched hydrogen gas. Indian journal of science technology management. 38: 57-68.

Rizwanul Fattah I.M., Masjuki H.H., Liaquat A.M., Rahizar Ramli M.A., Kalam V.N., Riazuddin. 2013. Impact of Various Biodiesel Fuels obtained From Edible and Non-Edible oils on Engine Exhaust Gas and Noise Emissions. Renewable sustainable energy reviews. 18:552 – 567.

Vedaraman N., Sukumar Puhan, Nagarajan .G Velappan. K.C. 2011. Preparation of Palm Oil Biodiesel and Effect of Various Additives on Nox Emission Reduction In B20: An Experimental Study. International Journal Green Energy. 8:383–397.

Rao, G.L.N. Sampath S., Rajagopal K., 2008. Experimental studies on the combustion and emission characteristics of a diesel engine fueled with used cooking oil methyl ester and its diesel blends. International Journal Engineering Applied Science. 4:64–70.

Published
2017-11-02
Section
Mechanical Engineering