Solar City Master Plan - Executive Summary



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Solar City Master Plan - Executive Summary Meeting the growing energy demand is one of the biggest challenges that the world is facing today. Rising population and depleting fossil fuel resources are compelling the world to develop renewable sources of energy. Global warming too has assumed enormous significance today. Under the scenario, the role of alternate and renewable energy resources has become very crucial. Urbanization has been a critical phenomenon in the Indian context especially in the last two decades. After the independence, the urban population of India has grown almost five times while the total population has grown by about three times. According to the census data of 001 census, 85.35 million i.e. about 30% of the Indian population resides in urban area which is expected to increase in a very rapid manner. To address the rising issue of combating climate change challenges, MNRE has come up with the proposal of developing solar cities in the country. The objective of the programme is to assist the Urban Local Bodies in assessing their present energy consumption and future demand and preparation of a master plan for increasing energy efficiency and renewable energy supply in the city. The programme aims at minimum 10% reduction in projected demand of conventional energy at the end of five years, which can be achieved through a combination of energy efficiency measures and enhancing supply from renewable energy sources. Vijayawada Municipal Corporation (VMC) has taken the responsibility of bringing out Vijayawada as Solar City, in terms of MNRE guidelines and SR Corporate Consultant (P) Ltd. has been assigned the task of preparing the master plan thereof. The present report is divided into 10 main chapters. First chapter deals with the background of the project; objectives and scope of the plan. Second chapter describes the profile of Vijayawada city and VMC. In this chapter, population pattern of the city has been given since 1961. It indicates that the population of VMC has grown from.30 lacs in the year 1961 to 10.33 Lacs in 001 with an average annual growth rate of 3.30%. Besides population, the land use pattern also plays an important role in the growth of a city. The City Development Plan for the year 01 envisages that the Residential sector is expected to grow at much faster rate. As against 8.09% in 1996 it is estimated that area under residential sector will be 53.8% by 01. Since it is proposed to develop Industrial areas outside the Municipal area hence only.44% area has been proposed for industrial sector. Besides this, the economic base of Vijayawada has also been covered in this chapter.

Chapter three details the methodology adopted for preparation of the master plan. In the light of the objectives set up by the MNRE for development of Solar Cities, the proposed Master Plan drafts a road map through an in-depth analysis of allied indicators of energy consumption, supply, emission and conservation in the city. This is in harmony with a pre-set goal of minimum 10% reduction in projected total demand of conventional energy at the end of five years. SR adopted the methodology in line with the Guidelines issued by the MNRE in this regard. Next chapter deals with the energy baseline of Vijayawada city based on the consumption data of previous five years prior to the base year 010. For determining the energy baseline, we have considered secondary data collected from various sources and primary data on the basis of research carried out by our survey teams. Relevant data of the primary research has been used at appropriate place in the report. Electricity and petroleum products are two major forms of energy consumed in VMC area. Electricity has emerged as the prime source of energy in Residential; Commercial & institutional; Industrial and Municipal Sectors. Other sources of energy had been identified as Petroleum products viz. petrol, diesel, kerosene, LPG, PNG and CNG whose consumption had been observed in Residential, Commercial and Municipal sectors. Based on our research the Baseline sectoral energy consumption scenario in VMC area as identified is reflected in the following table: Table-1: Baseline Energy Consumption Scenario in VMC Area Description of Energy Resources/Sector Unit Residential C&I Industrial Municipal Total Electricity MWh 499738 15818 44831 6385 79136 Petrol KL 56701 135 - - 56836 Diesel/FO KL - 5409-4 5414 Kerosene KL 3618 - - - 3618 LPG MT 40965 1750 - - 4715 PNG MT - - - - - CNG MT - 6614 - - 6614 Energy in terms of TJ TJ 6369 4301 161 95 15814 % share 58.9% 39.36% 1.48% 0.87% 100.00% The analysis reveals that the Residential Sector contributes about 58.9% of the overall energy consumption followed by Commercial & Institutional Sector with 39.36%.

We have calculated the quantum of energy consumption in respective units of the energy form. For the purpose of arriving at the baseline GHG emission Scenario, all energy resources consumption have then been converted into a uniform unit i.e. TJ. Based on this, the quantum of GHG emissions have been calculated sector wise. This has been estimated using the default Carbon Emission Factor data in accordance with 006 IPCC Guidelines for National Greenhouse Gas Inventories except for Electricity. Carbon Emission Factor for Electricity is considered as the CM for Sothern Grid for the year 009-10 according to the CO Baseline Database for Indian Power Sector Version 6 prepared by CEA, New Delhi. The baseline GHG Emissions during the year 010 are estimated at 118054 tco e. The major contributor to the GHG emission is electricity followed by petroleum products. On Sectoral basis, residential sector contribute to 61.99% of the overall GHG emissions whereas C&I sector contributed 3.88% and a small share of 3.3% from industry and 1.90% from Municipal Sector. Based on the energy pattern of Vijayawada city for last five years ending March 010 and baseline data for the year 009-10, future energy demand under Business As Usual (BAU) scenario have been forecasted for next ten years in chapter 5. The forecasting has been carried out on the basis of growth pattern, future plans and analysis of past time series data. While projecting the demand for energy in Vijayawada city we have gone through different growth plans of various Government Departments, if any, viz. City Development Plan, JNNURM Master Plan, electricity infrastructure/ utility plans, industry and business forecasts by local chamber of commerce and industry and other planning documents. In chapter six, renewable energy resource assessment of Hubli Dharwad city has been done. Our analysis of secondary data obtained from various sources and the information collected by our research team during primary survey reveals that following renewable energy resources are available in Vijayawada city. i. Solar power for electricity generation; ii. Municipal Solid waste iii. Bio-methanization There is no scope for Small Hydro power or wind power that can be used as energy source in the municipal area. Techno-economic feasibility of various RE systems reflects in chapter seven. TE feasibility of a 1 MW SPV power system, a 4kWp rooftop system (off-grid application); a biomass based gasifier and a solar water heating system, Replacing GLS by CFLs, Replacing Tube lights by T-5, Street Lighting Segment, Solar Lanterns and Solar Cookers, Centralized Solar Cooking System, Solar Generators for telecom towers replacing DG sets, Energy Saving in transport Sector have been provided in this chapter.

Master plan for implementation of the projected GHG emissions during next five years (year wise) is given in chapter eight. We have earlier projected the GHG emission scenario of VMC in terms of tco e under Business As Usual (BAU) situation. According to our calculations, estimated GHG emissions under all the four sectors, during the year 015 will be 19331 tco e. It is targeted to reduce 10% GHG emissions by the year 015. Accordingly, we have to reduce 19331 tco e by the year 015.Out of this, 50% target (i.e. 96656 units) is to be achieved through generation of renewable energy and an equivalent amount of remaining 50% through energy efficiency measures. wise break-up of GHG emission reduction is shown in following table. Table: Projected GHZ Emission Scenario of VMC in terms of tco e under BAU Situation S Description Base 1st nd 3rd 4th 5th No 1 Residential Sector 731606 847074 939386 1039611 114569 158117 Commercial Sector 388104 43380 450860 4786 505585 53831 3 Industrial Sector 38113 57198 65514 74193 8349 9694 4 Municipal Sector 43 3077 35189 39776 44538 49481 Estimated GHG Emission under BAU Situation 118054 135843 1490949 1631843 177900 19331 Target to reduce from BAU Situation 1% 3% 5% 8% 10% Estimated GHG Emission under Solar City Situation 1344839 14461 155050 1645577 1739810 Target Emission Reductions in tco e 13584 4478 8159 13345 19331 Targeted Emission Reduction through RE generation 679 364 40796 66713 96656 Targeted Emission Reduction through EE Measures 679 364 40796 66713 96656 To achieve the desired GHG emissions, we have proposed following actions in the master plan: Table: 3 - wise Physical Plan for achieving the projected targets A. Renewable Energy Generation S. No. 1 3 Description 1st nd 3rd 4th 5th Solar Energy -On grid MW 1.000.500 5.000 7.500 10.000 Soar SPV MW 0.500 1.000 1.500 5.000 5.000 Waste to Energy MW 1.000 3.000 6.000 10.000 10.000 Recycling of Biodegradable Waste MW 0.50 1.000 1.500 1.500.000 Energy Generation/Saving Potential Solar Energy MWh 1576.8 394 7884 1186 15768

Solar SPV MWh 788.4 1576.8 365. 7884 7884 Waste to Energy MWh 6336 19008 38016 63360 63360 Methane capturing MWh 841.5 3366 5049 5049 673 CO Saving Potential Solar Energy tcoe 1340 3351 6701 1005 13403 Solar SPV tcoe 670 1340 010 6701 6701 Waste to Energy tcoe 5386 16157 3314 53856 53856 Methane capturing tcoe 715 861 49 49 57 Gross CO Saving Potential from Energy tcoe generation 8111 3709 45317 74901 7968 B. Energy Efficiency Measures 1 Lacs Solar Water Heating System LPD.000 3.000 6.000 7.000 8.500 Reduction in Connected Load in Municipal Area MW 0.50 1.000 1.300 1.600.500 3 Awareness Generation, Capacity Building & Knowledge Sharing MW 1.000.500 4.000 7.500 15.000 Energy Generation/Saving Potential Solar Water Heating System MWh 3000 4500 9000 10500 1750 10137. Energy Saving in Municipal Area MWh 1584 6336 836.8 6 15840 Awareness Generation, Capacity Building & Knowledge Sharing MWh 7008 1750 803 5560 10510 CO Saving Potential Solar Energy tcoe 550 385 7650 895 10838 Waste to Energy tcoe 1346 5386 7001 8617 13464 Awareness Generation, Capacity Building & Knowledge Sharing tcoe 5957 1489 387 44676 8935 Gross CO Saving Potential from EE Measures tcoe 9853 4103 38478 618 113654 Gross CO Saving Potential from EE Measures tcoe 17964 47811 83796 137119 193336 While renewable energy technologies would provide clean energy, energy efficiency and demand side management measures would help in reducing the energy demand. An indicative list of these measures for different sectors is given in chapter nine of the report. By applying these measures, we shall be able to save or generate the requisite quantity of energy as well as GHG emission savings. In chapter 10, we have shown other activities. This includes, establishment of solar city cell, formation of a solar city stakeholders committee, year wise details of training programmes awareness generation and capacity building initiatives, and some regulatory measures to be formed by the VMC. To implement the master plan, an action plan and its financial implications

and the funding pattern have been prepared for next five years. These are reflected in separate booklets. The action plan and financial plan are integral parts of the master plan. Table: 4 - wise financial plan for achieving the projected targets S. No. Description 1st A. Renewable Energy Generation 1 Solar Energy -On grid 8.00 0.00 40.00 60.00 80.00 Solar SPV 4.00 8.00 1.00 40.00 40.00 Waste to Energy 10.00 30.00 60.00 100.00 100.00 3 Bio-methanization 1.88 7.50 11.5 11.5 15.00 B. Energy Efficiency Measures nd 3rd 4th 5th 1 Solar Water Heating System Reduction in Connected Load in Municipal Area 3 Awareness Generation, Capacity Building & Knowledge Sharing & Incentives Total Financial Outlay 4.00 6.00 1.00 14.00 17.00 0.5 1.00 1.30 1.60.50 0.10 0.50 1.00 1.50.00 8.3 73.00 137.55 8.35 56.50 Table: 5 - wise Projected Means of Finance for achieving the projected targets S. No. Description 1st nd 3rd 4th 5th i CFA 8.98 4.10 45.15 75.10 78.90 ii SFA 0.93.30 3.85 7.80 9.50 iii Beneficiary Share/ Private Sector Investment 18.33 46.60 88.55 145.45 168.35 Total Finance 8.3 73.00 137.55 8.35 56.75 The formats of primary survey and glossary of terms have been given as annexure to the report.