Page 161 - Biofuels Refining and Performance

144 Chapter Four

103. A. K. Agarwal. Experimental investigations of the effect of biodiesel utilization on
lubricating oil tribology in diesel engines, Proceedings of the Institution of Mechanical
Engineers 219(D5), 703–713, 2005.
104. E. Sendzikiene, V. Makarevicience, and P. Janulis. Oxidation stability of biodiesel
fuel produced from fatty wastes, Polish Journal of Environmental Studies 14(3),
335–339, 2005.
105. S. Lebedevas, et al. Use of waste fats of animal and vegetable origin for the production
of biodiesel fuel: Quality, motor properties, and emissions of harmful components,
Energy & Fuels 20(5), 2274–2280, 2006.
106. NOVODBOARD. Mahua [cited 2006; available from: www.novodboard.com/
Madhua.pdf].
107. S. V. Ghadge and H. Raheman. Biodiesel production from mahua (Madhuca indica)
oil having high free fatty acids, Biomass and Bioenergy 28, 601–605, 2005.
108. S. Puhan, et al. Performance and emission study of Mahua oil (Madhuca indica oil)
ethyl ester in a 4-stroke natural aspirated direct injection diesel engine, Renewable
Energy 30, 1269–1278, 2005.
109. S. Puhan, et al. Mahua oil (Madhuca indica seed oil) methyl ester as biodiesel-
preparation and emission characteristics, Biomass and Bioenergy 28, 87–93, 2005.
110. S. V. Ghadge and H. Raheman. Process optimization for biodiesel production from
mahua (Madhuca indica) oil using response surface methodology, Bioresource
Technology 97, 379–384, 2006.
111. S. Puhan, et al. Mahua (Madhuca indica) seed oil: A source of renewable energy in
India, Journal of Scientific & Industrial Research 64(11), 890–896, 2005.
112. C. Morel, et al. New xanthones from Calophyllum caledonicum, Journal of Natural
Products 63, 1471–1474, 2000.
113. J. Fournet. Flore illustrée des Phanérogames de Guadeloupe et de Martinique,
Gondwana Editions, Vol. 1, Paris: INRA, 2002.
114. J. Hemavathy and J. V. Prabhakar. Lipid composition of Calophyllum inophyllum
kernel, JAOCS 67, 955–957, 1990.
115. S. Crane, et al. Composition of fatty acids triacylglycerols and unsaponifiable matter
in Calophyllum calaba L. oil from Guadeloupe, Phytochemistry 66, 1825–1831, 2005.
116. F. Cottiglia, et al. New chromanone acids with antibacterial activity from
Calophyllum brasiliense, Journal of Natural Products 67, 537–541, 2004.
117. N. Nabi, S. Akhter, and M. Z. Shahadat. Improvement of engine emissions with con-
ventional diesel fuel and diesel–biodiesel blends, Bioresource Technology 97, 372–378,
2006.
118. T. P. Hilditch. Variations in composition of some linolenic-rich seed oil, Journal of
the Science of Food and Agriculture 2, 543–547, 1951.
119. C. F. Reed. Information Summaries on 1000 Economic Plants, 1976, USDA.
120. O. E. Ikwuagwu, I. C. Ononogbu, and O. U. Njoku. Production of biodiesel using
rubber [Hevea brasiliensis (Kunth. Muell.)] seed oil, Industrial Crops and Products
12, 57–62, 2000.
121. A. S. Ramadhas, C. Muraleedharan, and S. Jayaraj. Performance and emission eval-
uation of a diesel engine fueled with methyl esters of rubber seed oil, Renewable
Energy 30, 1789–1800, 2005.
122. F. R. Abreu, et al. Utilization of metal complexes as catalysts in the transesterification
of Brazilian vegetable oils with different alcohols. Journal of Molecular Catalysis A:
Chemical 209, 29–33, 2004.
123. A. L. Graciani, et al. Brassica carinata, Cynara cardunculus and Sinapis alba as
three energetic crops, In: 1st World Conference and Exhibition on Biomass for Energy
and Industry, London: James & James (Science Publishers) Ltd., pp. 1560–1561,
2001.
124. J. M. Encinar, et al. Preparation and properties of biodiesel form Cynara cardun-
culus L. oil, Industrial & Engineering Chemistry Research 38(8), 2927–2931, 1999.
125. J. M. Encinar, et al. Biodiesel fuel from vegetable oils: Transesterification of Cynara
cardunculus L. oils with ethanol, Energy & Fuels 16(2), 443–450, 2002.
126. M. Lapuerta, et al. Diesel emissions from biofuels derived from Spanish potential
vegetable oils, Fuel 84, 773–780, 2005.