RENEWABLE ENERGY & ITS IMPLEMENTATION WITH MICROGRID

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RENEWABLE ENERGY & ITS IMPLEMENTATION WITH MICROGRID Presented By Prof. Dr. S.M Ali Director(Membership) Institute of Engineers, India(IEI) Kolkata & Ritesh Dash PG Scholar School of Electrical Engineering KIIT University Bhubaneswar

Contents Introduction Indian energy scenario Environmental impacts Renewable sources in India Microgrid Reintegration Challenges IEEE standard Mitigation Solar Policy 2/23/2015 Presented By Ritesh Dash 2

ENERGY Expanding access to energy means including 2.4 billion people: 1.4 billion that still has no access to electricity (87% of whom live in the rural areas) and 1 billion that only has access to unreliable electricity networks. We need smart and practical approaches because energy, as a driver of development, plays a central role in both fighting poverty and addressing climate change. Rebeca Grynspan, UNDP Associate Administrator and Under Secretary General, Bloomberg New Energy Summit, 7 April 2011 2/23/2015 Presented By Ritesh Dash 3

REASON FOR GOING GREEN In India, since a decade ago depletion of the conventional energy sources had begun. Load demand was on increasing trend due to rapid increase in industrialization and population. This has forced researchers to look forward for other sources of energy. Sustainable Renewable Energy has been found as the future green energy solution. A worldwide research on deployment of microgrid with the utilization of distributed energy resources is going on. In context to India microgrid seems to be future energy solution for economic development. 80% villages are are powering for only 8 to 10 hours per day without quality due to forced load shedding. Yet 20% villages are surviving without electricity, being having tremendous potential for renewable energy. 2/23/2015 Presented By Ritesh Dash 4

ENERGY CONSUMPTION 2/23/2015 Presented By Ritesh Dash 5

WHY MICROGRID 2/23/2015 Presented By Ritesh Dash 6

MICROGRID Microgrid is a contained network of energy generation sources and energy storage that are connected to the loads that consume the electricity. The generation can be from renewable sources, thus reducing the need to produce energy from fossil fuels. Microgrid simply an integration of distributed energy sources generation into distribution operation and planning. Microgrid comprise a network of small scale distributed energy resources (DERs) like fuel cells, micro turbines, PV arrays and wind turbine etc. and energy storage devices. 2/23/2015 Presented By Ritesh Dash 7

Cont.. In Indian context a microgrid can have several possible applications as to transform the current unreliable power supply to a reliable one needing suitable technologies in each case. A village or a cluster of villages University campuses/institutions, R and D centers Hospitals Island communities Large Industrial complexes Small townships 2/23/2015 Presented By Ritesh Dash 8

UTILITY CHALLENGE-INTEGRATION 2/23/2015 Presented By Ritesh Dash 9

RE INTEGRATION Renewable Energy Integration focuses on incorporating renewable energy, distributed generation, energy storage, thermally activated technologies, and demand response into the electric distribution and transmission system. The goal of Renewable energy integration is to advance system design, planning, and operation of the electric grid to: Reduce carbon emissions and emissions of other air pollutants through increased use of renewable energy and other clean distributed generation. Increase asset use through integration of distributed systems and customer loads to reduce peak load and thus lower the costs of electricity. Support achievement of renewable portfolio standards for renewable energy and energy efficiency. Enhance reliability, security, and resiliency from microgrid applications in critical infrastructure protection and highly constrained areas of the electric grid. Support reductions in oil use by enabling plug-in electric vehicle (PHEV) operations with the grid. 2/23/2015 Presented By Ritesh Dash 10

MICROGRID... ELEMENTS TO CONSIDER

2/23/2015 Presented By Ritesh Dash 12

ISSUES IN RE INTEGRATION Following are the various typical issues in RE integration: Data and forecasting Scheduling flexibility and incentives Day-ahead market participation and reliability commitments Balancing authority coordination Reserve products and ancillary services Capacity markets Real-time adjustments 2/23/2015 Presented By Ritesh Dash 13

CHALLENGES WITH INTEGRATING RE SOURCES INTO ELECTRICAL POWER SYSTEMS Most RE resources is location specific. Therefore, renewable-generated electricity may need to be transported over considerable distances. Certain RE sources lack the flexibility needed to deal with certain aspects of power system operation, in particular balancing supply and demand. Overall balancing will become more difficult to achieve as partially dispatch able RE penetrations increase. Depending on local system penetration, network faults can trigger the loss of significant amounts of generation if the renewable generation resources are concentrated in a particular section of the power system and connection requirements have not properly accounted for this risk. 2/23/2015 Presented By Ritesh Dash 14

Cont.. At high penetration levels the need for frequency response will increase unless supplementary controls are added. Many of the renewable technologies do not lend themselves easily to such service provision. In addition, RE interfaced through power electronics may displace synchronous generators, thereby reducing the overall system inertia and making frequency control more difficult. there is the additional challenge of managing the transition from the predominant generation mixes of today to sustainable sources required for the low carbon power systems of the future. Major changes will be required to the generation plant mix, the electrical power systems infrastructure and operational procedures if such a transition is to be made. Specifically, major investments will be needed and will need to be undertaken in such a way, and far enough in advance, so as to not jeopardize the reliability and security of electricity supply. 2/23/2015 Presented By Ritesh Dash 15

MITIGATING MEASURES IN RE INTEGRATION Flexible generation, Ancillary Services, Reserves etc. For supply-balancing. Demand Side management, Demand Response and Storage for load balancing. Strong Grid interconnections. Forecasting of Renewable generation & Forecasting of Demand. Establishment of Renewable Energy Management Centres (REMC) equipped with advanced forecasting tools along with reliable communication infrastructure. Deployment of Synchrophasor technology i.e. Phasor Measurement Unit(PMUs)/Wide Area Monitoring System (WAMS) on pooling stations and interconnection with centralized control centre through Fiber Optic Communication for real time information, monitoring and control. Institutional arrangements with defined roles & responsibilities of various agencies/generation developers. Technical Standard Requirements (Grid code, Connectivity standards, Real time monitoring etc.) Policy advocacy for development of power-balance market and pricing mechanism. 2/23/2015 Presented By Ritesh Dash 16

SOLAR POLICY LANDSCAPE J N N S M S C H E M E 2/23/2015 Presented By Ritesh Dash 17

NON-SOLAR REC VOLUME 2/23/2015 Presented By Ritesh Dash 18

IEEE STANDARDS FOR GRID INTEGRATION There are several standards specifying various aspects grid interconnection of a local power generation source. Arguably the most important one is IEEE 1547. IEEE 1547 has several parts: Main body IEEE Standard 1547.1 IEEE Standard Conformance Test Procedures for Equipment Interconnecting Distributed Resources with Electric Power Systems. EEE Standard 1547.2 IEEE Application Guide for IEEE Std 1547, IEEE Standard for Interconnecting Distributed Resources with Electric Power Systems. IEEE Standard 1547.3 IEEE Guide for Monitoring, Information Exchange, and Control of Distributed Resources Interconnected with Electric Power Systems. IEEE Standard 1547.4 IEEE Guide for Design, Operation, and Integration of Distributed Resource Island Systems with Electric Power Systems. IEEE Standard 1547.5 has not been issued, yet. Its intended scope is to address issues when interconnecting electric power sources of more than 10 MVA to the power grid. IEEE Standard 1547.6 IEEE Recommended Practice for Interconnecting Distributed Resources with Electric Power Systems Distribution Secondary Networks. IEEE Standard 1547.8 has not been issued, yet. Its intended scope is to provide supplemental support for implementation methods for expanded use of the previous standards, for example when addressing issues with high penetration of residential PV systems. 2/23/2015 Presented By Ritesh Dash 19

MICROGRIDS are... 2/23/2015 Presented By Ritesh Dash 20

MICROGRIDS CAN HELP OR HURT TODAYS UTILITY 2/23/2015 Presented By Ritesh Dash 21

GOALS OF THE DISTRIBUTED RESOURCES BUSINESS MODEL 2/23/2015 Presented By Ritesh Dash 22

MICROGRID FIELD TEST 2/23/2015 Presented By Ritesh Dash 23

ENERGY CONSUMER HAVE MANY CHOICES 2/23/2015 Presented By Ritesh Dash 24

PUBLIC POLICY 2/23/2015 Presented By Ritesh Dash 25

OPTIONS FOR UTILITY AND GRID 2/23/2015 Presented By Ritesh Dash 26

OPPORTUNITIES FOR UTILITY 2/23/2015 Presented By Ritesh Dash 27

HOW SHOULD BE THE ROLE OF PUBLIC UTILITIES INVOLVED TO PROMOTE NEW INNOVATION 2/23/2015 Presented By Ritesh Dash 28

THE UTILITY OF THE FUTURE 2/23/2015 Presented By Ritesh Dash 29

MICROGRIDS KEY BUSINESS QUESTIONS 2/23/2015 Presented By Ritesh Dash 30

MICROGRIDS KEY TECHNICAL QUESTIONS 2/23/2015 Presented By Ritesh Dash 31

FUTURE DIRECTIONS ON RE INTEGRATION RESEARCH Need more analysis of system stability and integrity. Grid protection studies to be analysed. Grid technical standards should be cover technical feasibility as well as specific location of RE. Formation of number of small grids & making them strongly interconnected. Formation of Renewable Energy management Centres for proper R&D. Need of Fiber Optic Communication for real time information, monitoring and control. Analysis of the issue of supply unbalancing. Transformation of microgrid system today into the intelligent, robust energy delivery system in the future by providing significant reliability and security benefits. To investigate full scale development, field demonstration, experimental performance evaluation of frequency and voltage control method under various operation modes. 2/23/2015 Presented By Ritesh Dash 32

CONCLUSION The electricity sector in India had an installed capacity of 254.049 GW as of end September 2014. India became the world s third largest producer of electricity in the year 2013 with 4.8% global share in electricity generation surpassing Japan and Russia. Still we require another 19% of global share to meet our daily need. So more focus must be given to the renewable sector to achieve this demand. 2/23/2015 Presented By Ritesh Dash 33

Together Shaping the Future of Electricity 2/23/2015 Presented By Ritesh Dash 34