Quantification of GHGs Emissions from Industrial Sector in Mauritius

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1 International Conference on Environmental Science and Technology IPCBEE vol.3 (1) (1) IACSIT Press, Singapore Quantification of GHGs Emissions from Industrial Sector in Mauritius Dinesh Surroop* and Rama Potayah Chemical and Environmental Engineering, University of Mauritius, Reduit, Mauritius *Corresponding Author: d.surroop@uom.ac.mu Abstract. Many generate large amounts of carbon dioxide and other greenhouse gases when they burn fossil fuels in their production processes. In addition, production of raw materials and other inputs the firms procure for their operations also generates greenhouse gases indirectly. These direct and indirect greenhouse gas emissions occur in many sectors of our economies. Industry is therefore a major source of global greenhouse gas emissions. This study was initiated to quantify the amount of CO emitted from the use of fossil fuels, namely; coal, liquefied petroleum gas (LPG), diesel oil and fuel oil in the industrial sector in Mauritius. It also assessed the climate mitigation potentials of the resources through heat recovery system like an economizer to enhance the steam generating system in the textile industry and to estimate the amount of energy recovery and CO emissions avoided.the results showed that out of 47,9.1 tonnes of CO emitted in 6, the emissions of CO from fuel oil represented 46.3% and among the different sub, the Economic Production Zone (EPZ) industry remains the largest CO emitter with 7.98% of CO. The use of heat recovery system is estimated to displace around 69 tonnes of CO in 6. This feature can enable such a project to be eligible for Certified Emission Reduction (CER) and can benefit largely from the carbon trading system. Keywords: GHGs emissions, Climate change, Industrial sector 1. Introduction Mauritius is a small developing island situated in the Indian Ocean with a population of 1. million inhabitants. It has a diversified economy supported by manufacturing, tourism, agriculture and other services. It is highly dependent on imported fossil fuels resources like petroleum, natural gas and coal which share about 8% of the total energy consumption and the remaining 18% is derived from renewable energy [1]. Mauritius is classified among the upper middle income countries with a per capita income of US$ 7 in 9 []. The manufacturing sector accounted for 19.4% of GDP while the share of agriculture and tourism sectors stood at 4.% and 8.7% respectively [].. Energy Consumption in Mauritius Mauritius has no oil, natural gas or coal reserves and therefore depends exclusively on imported petroleum product to meet most of its energy requirement. In Mauritius, the major energy demand sectors are transport, commercial and distributive trade, manufacturing and households. With the rapid economic development of Mauritius, the number of manufacturing has increased significantly over the past decade. As shown in Figure 1, the manufacturing sector is presently the second largest energy consuming after the transport sector. In 9 the manufacturing sector consumed about 7.7% of the total energy consumption with diesel oil representing 46ktoe, fuel oil 4ktoe and bagasse 36 ktoe (CSO, 9) [1] respectively. 13

Ktoe 4 3 1 Final energy consumption by sector 1999-9 Transport Manufucturing Commercial and Distributive Trade Household 1999 1 3 4 6 7 8 9 Fig. 1: Final energy consumption for year 1999 to 9 (source: CSO, 9) [1] 3. Energy Consumption in Sub-Industries The manufacturing sector is further sub-divided into 4-sub namely tea industry, EPZ, construction, bakery, food and other miscellaneous, which use energy mostly for the processing of steam and for heating. Table 1: Energy consumption in sub- (Source: CSO, 9)[1] 1 3 4 6 Diesel oil/tonnes Tea industry 1379 49 33 3 1 - - EPZ 14197 169 14 166 119 169 4 4 4 19 construction 86 31 3 33 3 339 36 4. 7 1.6 39.6 13. 19 8. 469.9 348. 1 Fuel oil/tonnes Tea industry 9 94 496 17 4 4 4 EPZ 469 8 1 4 41 46366 6 4 4 771 873 83 8168 884 6418 14747 LPG/Tonnes Tea industry 373 378 8 164 - - - EPZ 374 67 118 177 1696 3493 766 94 99 197 146 16 411 3199 Coal Tea industry - - - - - - - 1714. 184 181 169 161 EPZ 3 8 6.7 1.6 4 3.4 7734. 7766. 6948. 7339. 87 766 3 4 6 1166. 6499.8 14

The textile industry is the most energy intensive industry. It relies heavily on heavy oil and diesel oil as fuel in boilers to generate steam to produce thermal energy for use in the subsequent processes. Similarly, the tea industry uses fossil fuel namely LPG, diesel oil and fuel oil (CSO, 9) [1] to dry tea leaves in very hot oven. These also emits large amount of GHGs emissions in the atmosphere. 4. Methodology The methodology used for quantifying CO emission and the carbon dioxide emissions avoided using a heat recovery system like an economizer was estimated using the general Tier 1 method from the Intergovernmental Panel on Climate Change (IPCC) emission model of the Revised 1996 IPCCC Guidelines for National Greenhouse Gas Inventories [3] based on the fuel consumption and emission factor of the fuel. The equation is given as follows: where: CO = Annual CO emissions for a specific fuel type, tonnes/year. n = Number of required heat content measurements for the year as specified Fuel p = Mass or Volume of the fuel combusted during measurement period p NCV p = Net Calorific value of the fuel for the measurement period provided by supplier EF = Fuel specified default CO emission factor, kg CO /GJ The fuel data for manufacturing sector was obtained from the Central Statistic Office. The steam generating system of the industry was assessed to determine the energy recovered and fuel saved using an economizer. Ultimately, the data generated from the heat recovery system namely economizer was then used to quantify the CO emissions avoided. The economizer will reduce amount of fuel and subsequently willl reduce CO emissions.. Findings an CO = Fuel NCV EF p p p=1 The EPZ sector remains the primary energy consuming industry with a share of 9.1% of fossil fuel consumption in 6. As shown in Figure, the CO emission in the EPZ industry was increased from 16,7 to 48, tonnes from the year to year. Ton CO emitted 1 4 3 1 1 Carbon dioxide emitted from Manufacturing sectors EPZ Construction 4 6 Fig. : Carbon dioxide emission by sub- 1

The Bakery, food and other miscellaneous is the second major polluting industry. The CO emission as from to was more or less the same. This is a result of the high inflation rate for the years to 4. Moreover, as from the activities in bakery and food have improved and this yielded a net of 33. tonnes of CO emission between the years to 6. CO emission in the construction industry throughout the past 6 years was almost negligible. The construction rely mainly on fuel engine for its activities. Hence, with the low consumption of fossil fuels, the amount of CO emission was only 11417.7 tonnes of CO in 6. CO emission/ton x 1 4 Carbon dioxide emitted by each fuel 4 4 3 3 1 1 4 6 8 1 DIESEL-CO FUEL OIL-CO LPG-CO Fig. 3: Carbon dioxide emissions by fossil fuel The manufacturing sector relied heavily on fuel oil. As shown in Figure 3 above, fuel oil remains the major polluting resource. In 9, the CO emission from fuel oil was 1477.8 tonnes followed by diesel oil which was 147.9 tonnes. The two main factors was the growth in energy demand and productivity. LPG is the least polluting fossil fuels with negligible CO emissions between years and 9. In Mauritius coal consumption in the manufacturing sector is relatively low hence the quantify CO emission from coal was 67.% less than the CO emitted from fuel oil. A heat recovery system namely an economizer was studied to estimate the energy recovery and reduction in carbon dioxide emissions. As can be seen from Figure, the quantity of CO emissions avoided from fuel oil was relatively higher than diesel oil and coal. From to 6, the maximum CO given off from fuel oil was recorded in with 43 tonnes while the CO avoided from diesel oil and coal was almost negligible. From year 4 to year, the amount of CO emissions avoided from fuel oil was decreased from 43 to 3 tonnes, as energy production using fuel oil was lower. This was because more diesel oil was used during that year to meet the energy demand. For coal, the amount of carbon dioxide emissions avoided throughout the past 6 years was more or less the same with not more than 67.7 tonnes of CO. 6. Conclusion Mauritians in their quest for better standard of living have led to a rapid increase in manufacturing services over the recent years. Likewise, the use of fossil fuels namely coal, diesel oil, fuel oil and LPG in the EPZ industry is increasing and results showed that the amount of diesel oil has increased from 1194 ton in to 19 ton in 6. One of the major findings of this study was that, the amounts of carbon dioxide emissions increase proportionally to the amount of fossil fuel being consumed as it is the case in other sector like transportation [4] and power generation []. In this context, the EPZ industry and fuel oil were the two main anthropogenic sources of CO emissions in terms of sub-industry and fossil fuels use. Out of 41, tco e emitted in 6, about 7.98% and 46.3% of CO was emitted by the textile industry and 16

fuel oil respectively. Despite the limited availability of fossil fuels, manufacturing will continue to consume it for many years to come. Hence, efficient use of energy in manufacturing is the best alternative to reduce fossil fuels consumption and CO emission. Going towards energy efficient projects is our priority even if the percentage reduction of CO was. which look very low but it does make saving in energy reduction and CO emissions. Ton CO avoided 1 Tonne CO emisison avoided by fuel input 4. 4 3. 3. Fuel oil Diesel 1. 1 Coal. 4 6 8 7. References Fig. : CO emission avoided by fossil fuel input in EPZ industry [1] CSO (9). Digest of environment statistics 9. Central Statistic Office. Government of Mauritius [] US (11). Background Notes on Mauritius. US Department. (Available at http://www.state.gov/r/pa/ei/bgn/833.htm) [3] IPCC (1996). Revised IPCC Guidelines for National Greenhouse Gas Inventories. United Nation Environment Programme [4] Surroop D and Soheea Z. (1). Potential use of biofuels in Mauritius transport sector for cars and dual cars to reduce carbon dioxide emission. University of Mauritius Research Journal, Volume 16 [] Bagha S. (9). Quantifying greenhouse gases from the production of energy in Mauritius. Bachelor Thesis. University of Mauritius. 17