Assessment of Sustainable Biodiesel Feedstock in Rajasthan

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Assessment of Sustainable Feedstock in Rajasthan Neeraj Vyas $ and Dr. Y. B. Mathur #.$ Lecturer, Department of Mechanical Engineering, Govt. Polytechnic College, Jodhpur # Lecturer, Department of Mechanical Engineering, Govt. Polytechnic College, Bikaner. Abstract:- is being explored as prospective alternate for conventional high pollutant fuels obtained crude s. The use of biodiesel will not only reduce the burden on the foreign exchange by reducing the imports of, but will also be a less polluting renewable sources of energy for the protection of the environment and fulfilling the future energy needs. The use of biodiesel has grown considerably during last few years. Rajasthan is a largest state of India and huge wasteland area is available for plantation of biodiesel feedstock. In the present paper attempted has been made to assess the potential of sustainable biodiesel feedstock and production of biodiesel in Rajasthan. Keywords :, Vegetable Oil, Waste Land, Plantation. ***** I. Introduction Petroleum fuels which are extracted crude s are the primary source of energy for sustainable development of any country and the demand for petroleum-based fuel is increasing with alarming rate. The increase in energy demand is expected to continue due to increasing industrialization, increasing number of automobiles, increasing standard of living and expanding population. In India the consumption of diesel fuel is projected to grow 66.9 Mt in 2011-12 to 79.8 Mt in 2015-16 and the demand for diesel fuel has been estimated to be 83 Mt in 2016-17. Table 1 shows the Demand of diesel in India. Rapid increase of fuel prices, shortage of conventional fuels and depleting petroleum fuel reserves have forced us to look for alternative fuels which can meet the ever increasing demand of energy. Development of biodiesel as an renewable alternative source of energy for mechanized, industrial, agricultural and transport sector has become critical in the national effort towards maximum selfreliance. has been a possible substitute or extender for conventional diesel and the prospects for biodiesel is very promising in the short term because of their availability and sustainability. is defined as the Monoalkyl esters of long chain fatty acids for use in Compression Ignition engines. It can be derived vegetable s (both edible and non edible) like sunflower, used frying, jatropha, karanja (pongamia), jojoba, castor, soybean, kusum, mahua, neem, thumba etc. has physical properties vary similar to conventional diesel. Comparison of properties of diesel with biodiesel derived Jatropha and karanja is shown in table 2. Year Diesel Demand in India (Mt) 2011-2012 66.9 2012-2013 69.4 2013-2014 73.2 2014-2015 76.1 2015-2016 79.8 Table 1 Demand of Diesel in India S.N Properties Diesel Jatropha 1 2 3 4 5 6 Density (gm/ml at 25 C ) Calorific value (MJ/Kg) Cetane index Viscosity (cst at 25 C) Flash point ( C) Fire point ( C) 0.80-0.84 Karanja Thumba 0.88 0.899 0.889 42.63 38.45 36.72 39.37 45-55 51 50 52 4.5 5.65 5.58 5.86 61 C 170 C 167 C 174 C 69 C 179 C 173 C 184 C Table 2 Comparison of Properties of and Diesel 97

is a clean burning, efficient, natural energy being consumed as food and there is a big gap in demand alternative to diesel fuel. Among the many advantages of biodiesel fuel includes, safe for use in all conventional diesel engines, non-flammable and non-toxic, offers almost the same performance and engine durability as petroleum diesel fuel, reduces tailpipe emissions, visible smoke and noxious fumes and odors. The use of biodiesel results in substantial reduction of unburnt hydrocarbons, carbon monoxide and particulate matters. It is considered to have almost no sulphur, no aromatics and its higher cetane number improves the combustion quality. As a renewable source of energy biodiesel has a favorable impact on the environment, they can replace fossil fuels for use in engines. Extensive utilization of biodiesel can reduce the dependence on petroleum, which is currently the main source of energy for the world. For countries without or limited petroleum reserves, the use of biodiesel can lead to reduce imports of petroleum-based fuels, thus resulting in significant foreign exchange savings. Use of edible s like soybean, sunflower, coconut to produce biodiesel in India is not feasible as these s are and supply in the country. So in Indian conditions only nonedible seed plants such as jatropha, karanja, castor, jojoba, kusum, thumba etc. can be considered for biodiesel production. II. Production Transesterification of Vegetable Oils is produced vegetable s by converting the tryglyceride s to methyl ester with a process known as transterification. The process of transterification converts the large tryglyceride to smaller esters, which have molecule size comparable to that of petrodiesel. Tryglyceride are readily transterified batch wise in the presence of alkaline catalyst at a atmospheric pressure and at 60-70 C with an excess of methanol. The mixture at the end of reaction is allowed to settle. The lower glycerin layer is drawn off while, the upper methyl ester layer is washed to removeentrained glycerin. The excess methanol is recovered in the condenser, sent to a rectifying column for purification. Transterification process for biodiesel production is illustrated in fig 1. Water in Condenser Water out Methanol NaOH Vegetable Oil Mixture Reactor Separator Crude Glycerol Pure Water removing Water washing Fig.1 Transterification process for biodiesel production 98

The mechanism of transterification is described as follows. Triglyceride + R OH Diglyceride + RCOOR Diglyceride + R OH Monoglyceride + RCOOR Monoglyceride + R OH Glycerol + RCOOR Vegetable Alcohol Glycerin III. Climatic Conditions and Land Availability for Cultivation of Feedstock in Rajasthan Rajasthan lies on the western part of India mostly in the tropical zone. The state has between 23 3 N to 30 12 N latitudes and 69 30 E to 78 17 E longitudes. Rajasthan has a hot, dry and desert climate. The average yearly rainfall of the state is 52 cm, most of which fall in the rainy months July to September. The most of the year the temperature is high and the air has low humidity. On average winter temperature range 5 to 28 C and summer temperature range 25 to 48 C. Due to less rainfall and dry climate, Rajasthan has lack of forests and natural vegetation. Rajasthan is the biggest state of India and having the geographical area 342.229 lakh hectares and out of which total wasteland is 101.454 lakh hectares which is around 29.64% of total geographical area. Rajasthan covers more then 10% of India s total land mass. Map 1 shows the wasteland availability in Rajasthan, which can be utilized for cultivation of biodiesel feedstock. Total geographical Area 342.229 lakh hectares Total wasteland area 101.454 lakh hectares Wasteland area 29.64% Map 1 wasteland availability in Rajasthan 99

IV. Potential Feedstock for Production of flat to elliptic, 5-7 cm long and contain 1 or 2 kidney shaped in Rajasthan brownish red kernels. The yield of kernels per tree is There are many tree species, which have been found most reported between 8 and 24 kg. The kernels are white and promising and very suitable for biodiesel production in covered by a thin reddish skin. The composition of typical adverse climatic conditions of Rajasthan. Among the many air-dried kernels is; Moisture 19%, Oil 27.5% and Protein species which can yield s as a sources of energy in the 17.4%. The content varies 27 to 39%. The of biodiesel, jatropha and karanja have been found to contains toxic flavonoids including 1.25% karanjin and be the most suitable species for biodiesel production in 0.85% pongamol. After refining, and removal of these Rajasthan due to their various favorable attributing life, their flavonoids, the still produced retarded growth in rat hardy nature, high recovery and quality of etc. These feeding studies. The karanja is used as alternative fuel for plants can be planted on degraded lands, farmer s fields diesel engines, as lighting and for making shop etc. Soap boundaries, fellow lands, wastelands and other lands such as made crude tends to darken due to a component, along with railway tracks, roads and irrigation canals etc. Isolonchocarpin, which gives a wine red colour in the The jatropha and karanja plants can grow under unfavorable presence of alkali. In rural areas the leaves are used to climatic conditions of Rajasthan because of their low prevent infestation of grains. The cake after extraction moisture demand and tolerance to high temperature. They may be used as manure. are well adopted in arid and semi-arid conditions and can be grown on wastelands. production large-scale cultivation of these selected plants on wastelands can replace diesel fuel even up to 100% level. Cultivation and climatic condition required for the plantation, properties and uses of jatropha and karanja plants are discussed below. Jatropha plant Jatropha is versatile plant with several uses. The the seeds can replace or substitute diesel fuel. Jatropha belongs to the family Euphorbiaceae. It is a large shrub or tree with thick branches and number of large leaves attains height of 3-4 meters in 3 years. The content of the seed range between 33-40%. Each seed is about 2 cm (3/4 inch) long. The plant starts giving seed in a period of one to two years after planting but reaches to the maximum productivity level after 4-5 years. At yellow stage, the fruits are harvested. The fruits are allowed to ripe and fall to ground or being harvested by plucking. The cleaned seeds are decorticated prior to pressing or expelling. The extraction can be done with engine driven expellers. These are simple machines, which can be operated at village level and built within the country. Jatropha plants can be grown on waste and other lands such as along the canals, roads, railways tracks, on borders of farmer s field as boundary fence or live hedge in the arid/semi-arid areas and even on alkaline ss. The plant density is supposed to be of 2500 per hectare (spacing of 2 x 2 meters) and the best planting time is 1 to 2 months before the beginning of the rainy season. Jatropha seed germinates with in 30-120 days. Karanja Plant The Karanja is a medium size tree, may be planted at density of 1111 plants per hectare with the spacing of 3 x 3 m. It can be regenerated through shoot cutting, trans planting and direct sowing. The tree bears green pods which after some 10 months change to a tan colour. The pods are Thumba Plant Thumba Plans (Citrullus colocynthis) is known as Indrayan in Hindi and Bitter Apple in English, is a native of Turkey and also found in many parts of Asia and Africa. In India it mainly grows in all parts of Rajasthan and Gujarat. The plant is in the form of a creeper and grows well in sandy s. It grows along with main crop of Bajra and hence does not require any special care. The of this plant is locally called as thumba. Citrullus colocynthis, that grows as a creeper in sandy s within a six month crop cycle has enormous potential for biodiesel production. Presently, the plant is mainly used as cattle feed by farmers and raw thumba is also consumed in large quantities by the local soap industries. It is also used as a laxative and antiinflammatory drug. Thumba seed s can be used as diesel engine fuel as well as a sustainable source of renewable energy for biodiesel production. 5. Government Policy for Cultivation of Feedstock in Rajasthan After enacting legislation on contract farming, Rajasthan government is providing facility of leasing out of degraded land and wasteland including ravines, ranging 500 hectares to 20,000 hectares to private parties for agro-based produce purposes. 6. Conclusions The specific research in the area of cultivation of biodiesel feedstock in less fertile area will provide satisfactory answer to double challenge of energy crises and forced deforestation in semi-arid and arid region of Rajasthan. Large-scale biodiesel production will make it possible to supply part of the increasing demand for primary energy. The significant points emerged the projections and discussions are ; 100

Rajasthan has a great potential for biodiesel production as there is large mass of wasteland is available for cultivation of biodiesel feedstock such as jatropha, karanja and thumba plants. Large quantity of biodiesel production is feasible in Rajasthan. Large scale biodiesel production would give multiple benefits like employment generation for rural people, reduction in the deforestation rate and more productive use of wasteland, reduction in pollution, improvement in environment through erosion control and reduction in the expenditure of imports of petroleum fuel etc. Considerable attention has to be paid to enhance cultivation of biodiesel feedstock and biodiesel production in Rajasthan to meet increasing energy demand. References [1] Giibitz G M, Mittelbach M, Trabi M : Exploitation of the Tropical Oil Seed Plant Jatropha Curcas L, Bioresource Technology Volume 67, Issue 1, January 1999, Pages 73-82. [2] Kandpal J B, Madan Mira : Jatropha Curcus : A Renewable Source of Energy for Meeting Future Energy Needs, Renewable Energy, Volume 6, Issue 2, March 1995, Pages 159-160. [3] Augustus G D P S, Jayabalan M, Seiler G J : Alternative Energy Sources Plants of Western Ghats (TamilNadu, India), Biomass and Bioenergy, Volume 24, Issue 6, June 2003, Pages 437-444. [4] Openshaw Keith : A Review of Jatropha Curcas : an Oil Plant of Unfulfilled Promise, Biomass and Bioenergy, Volume 19,Issue1, July 2000, Pages 1-15. 101