Appendix D. This is an appendix of the report. Fuelling the Transition

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Appendix D This is an appendix of the report Fuelling the Transition from Prayas (Energy Group) and Prayas (Health Group) available at http://www.prayaspune.org/peg/publications/item/376 Amamo½, D$Om, {eju Am{U nmch$ëd m {df m Vrc {deof à ËZ

Contents Appendix D: Additional Analysis Findings 1 D.1 Fuel Demand 1 D. Costs 3 D.3 Disease specific analysis 5 References 7

Appendix D: Additional Analysis Findings D.1 Fuel Demand Focusing initially on the two most important fuels in the country, biomass and LPG, the quantity of biomass required reduces drastically across all scenarios and reaches zero in the scenario, while the quantity of LPG increases significantly across scenarios. As we can see from Figure 1, biomass usage reduces by 35% between 15 and 3 even in the Baseline scenario while it reduces by 6% and 77% respectively in the and Multi-fuel scenarios respectively. It is primarily this reduction that yields the health (and gender) benefits from the fuel transition. Interestingly, the amount of biomass that is purchased increases in the Baseline scenario from 15 to 3 because of increasingly scarce availability of biomass. In the and Multi-fuel scenarios, since overall usage of biomass itself reduces much more drastically, the amount purchased also reduces. Figure 1: Magnitude of Biomass and LPG LPG Biomass Magnitude (Million Tonnes) Magnitude (Million Tonnes) 3 1 3 1 16 17 Scenario Baseline 18 19 1 3 5 6 7 8 9 3 Not surprisingly, it is the scenario that sees the highest annual use of LPG in 3. However, as shown in Figure, it is interesting to note that aggregated over the 16 years of the analysis period, the most LPG is consumed in the scenario (91 MT as against 77 MT in the scenario). This is because, in the scenario, there is an aggressive shift to LPG in the initial years followed by a shift away to other modern fuels as they become available and affordable. Appendix - D Fuelling the Transition 1

Figure : Aggregate LPG demand (15-3) across scenarios Baseline 5 77. 59.8 91.3 LPG Magnitude (Million Tonnes) 3 38.1 1 Scenario Baseline Among the other modern fuels, the usage of and biogas for cooking increases in the Multi- Fuel and scenarios respectively, both of which prioritise the fuel. In the scenario, backed by strong policy support and investments in technological improvements to reduce costs and increase efficiency, biogas used increases sharply to 1.3 BCM in 3. According to (Bond and Templeton 11), producing 1.3 BCM of biogas in the country requires about 11 million to 13 million bovines, which is less than half the number of bovines in rural India as per the 1 livestock census (DAHD 1) 1. Therefore, production of this quantity of biogas seems eminently feasible. The large increase of in the scenario in particular is likely to necessitate import of, either in the form of LNG or through pipelines from neighbouring countries which are likely to have been completed by around the mid-s. This is not a major challenge given the overall imports of natural gas, particularly if a sizeable part of this can be sourced from pipelines. Figure 3 shows the magnitude of biogas, and electricity in all the scenarios. 1. There are no projections available for likely bovine population in 3, hence the comparison with 1 bovine population. Fuelling the Transition Appendix - D

Figure 3: Magnitude of Biogas, and in all scenarios 1 Magnitude (BCM) Biogas Magnitude (TWh) 5 8 6 8 6 16 17 18 19 1 3 5 6 7 8 9 3 Scenario Baseline Note: The curves for Baseline and overlap with each other as the magnitude of electricity, and biogas is almost the same in these scenarios D. Costs Figure shows the monthly running costs to an average household for different fuels based on the prices of these fuels in 15 and 3. Biomass here stands for purchased biomass. These costs are one of the drivers for switching to different modern fuels, as it is the running costs that constitute the majority of the total cooking related costs to the household. The price of non-lpg modern fuels changes relative to LPG across time and scenarios. Since additional demand for LPG is likely to be imported and given likely trends of oil prices as compared to gas and electricity prices, LPG becomes costlier compared to other fuels such as, electricity and biogas. While is cheaper than LPG in all years, biogas and electricity become cheaper in later years. Fuelled by economies of scale, bulk procurement of dung by families and communities using biogas, and technological improvements, biogas becomes especially affordable in the Multi-fuel and scenarios, and community sized plants become cheaper than even purchased biomass. Appendix - D Fuelling the Transition 3

Figure : Running cost to the average household of different fuels Monthy Running Cost to Household in Rs 13 1 11 1 9 8 7 6 All Scenarios 15 Baseline & 3 3 3 5 LPG Biomass Family Biogas Biomass Family Biogas LPG Biomass Family Biogas LPG Biomass Family Biogas LPG Fuel Biomass Family Biogas LPG Although the household expenditure on modern fuels for cooking in 3 seems substantial and more than traditional fuels, it is important to note that expenditure on purchased biomass is also significant. In urban areas particularly, traditional fuels are almost as expensive as modern fuels throughout the 19 3 period since many households purchase biomass which is not easily available and costs are more than rural areas. Thus affordability is not a major hurdle for these households, and the remaining urban households can transition to modern fuels if they are made easily accessible. But for the others, appropriate subsidies on modern fuels will be necessary to make them affordable. The cooking fuel expenditure of an average modern fuel using household formed % of the per capita GDP in 3 in the scenario. As a comparison, it was 8% in 15. Figure 5: Aggregate (19 3) fuel-wise incremental costs across scenarios 1 1 1.3. Fuel-Wise Incremental Costs in Rs Lakh Cr 8 6 - - -6 5.8-3.6 1.7. 1.5-5. 5.6.6-9. -8-1 Fuel Biogas Biomass Coal Kerosene LPG Fuelling the Transition Appendix - D

The bulk of the incremental cost of all intervention scenarios is due to LPG as it continues to be the most used modern fuel even in the scenario (see Figure 5). Close behind is electricity in the scenario, as it emerges as a cooking fuel for both rural and urban areas. Since the use of traditional fuels reduces from the Baseline to scenario, this results in cost savings to the tune of Rs. 9. lakh crore over 1 years (19 3) offsetting more than the increased cost due to LPG and. In the and Multi-fuel scenarios, reduced use of biomass offsets about 6% and 88% of increased LPG and costs respectively. D.3 Disease specific analysis Aggregated over 19 3, IHD, stroke, COPD, and ALRI contributed to 51 million background DALYs with the distribution of the diseases as shown in Figure 6 (WHO 8). Of the 1 million DALYs attributable to HAP in the Baseline scenario, the disease-wise attribution was as shown in Figure 6. Thus, cardiovascular diseases (IHD and stroke) contributed to more than half of the HAP related disease burden, while COPD contributed 7% and ALRI contributed 1% of the total HAP related disease burden attributable to these five diseases. Figure 6: DALYs from 19 3 due to various diseases considered Attributable DALYs in Million Background DALYs in Million IHD 8 9 ALRI 18 8 IHD 11 6 ALRI 38 1 COPD 38 COPD 135 Disease ALRI COPD IHD Examining the role of HAP in various diseases aggregated over the 19 3 period, out of the total burden of ALRI, 7% was attributable to HAP. This proportion was 35%, 8%, 8% and 3% for, stroke, COPD and IHD respectively. The reduction in DALYs for different diseases across scenarios is related to the pattern of change in the background disease burden. Except for ALRI, the background disease burden is estimated to increase from 15 to 3 for all diseases among both men and women as shown in Figure 7.. These numbers may not match those reported by (IHME 17) since the numbers used in the analysis are based on the global burden of disease projections by the World Health Organisation (WHO). Appendix - D Fuelling the Transition 5

Figure 7: Background DALYs of various diseases Children (-) Men Women Background DALY in Million 1 8 6 ALRI Children (-) IHD Men COPD Men Men Men IHD Women COPD Women Women Women 6 8 3 6 8 3 6 8 3 Disease ALRI COPD IHD The attributable DALYs for ALRI significantly reduce even in the Baseline scenario because of the rapid reduction in the background DALYs itself. However, there is no significant change in the attributable DALYs of the other diseases in the Baseline scenario as their background DALYs are estimated to increase while their HAP attributable fraction decreases over time. For all other scenarios, there is a reduction in DALYs over time as shown in Figure 8. Figure 8: Attributable DALYs for the diseases across scenarios Attributable DALYs in Million Attributable DALYs in Million 3 1 3 1 IHD COPD ALRI 6 8 3 18 6 8 3 6 8 3 6 8 3 18 6 8 3 Scenario Baseline 6 Fuelling the Transition Appendix - D

References Bond, Tom, and Michael R. Templeton. History and future of domestic biogas plants in the developing world. Energy for Sustainable Development, 11: 37-35. DAHD. 19th Livestock Census-1 All India Report. Department Of Animal Husbandry,Dairying AND Fisheries, Ministry of Agriculture. June 17, 1. http://dahd.nic.in/sites/default/files/livestock 5.pdf (accessed August, 17). IHME. Global Burden of Disease Results Tool. 17. http://ghdx.healthdata.org/gbd-results-tool (accessed January 3, 18). WHO. Global Disease Burden : Projections 15 to 3. World Health Organisation. 8. http://www.who. int/entity/healthinfo/global_burden_disease/projections15_3/en/index.html (accessed May 3, 17). Appendix - D Fuelling the Transition 7