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1. | EXECUTIVE SUMMARY |
1.1.1. | Battery energy storage be fit in every position in the electricity system |
1.1.2. | Battery storage benefits / values |
1.1.3. | Values provided by battery storage in customer side |
1.1.4. | Values provided by battery storage in ancillary services |
1.1.5. | Values provided by battery storage in utility side |
1.1.6. | Costs play an important role in the spread of battery storage in various applications |
1.1.7. | Value Chain |
1.1.8. | Cross-industry expand the battery-related business scope |
1.1.9. | Reality behind the hype |
1.1.10. | Market drivers of battery storage system |
1.1.11. | Winning technology |
1.1.12. | Global grid-connected battery storage capacity segmented by technology |
1.1.13. | All grid-connected battery projects |
1.1.14. | Announced projects for grid-connected battery |
1.1.15. | Contracted projects for grid-connected battery |
1.1.16. | Operational projects for grid-connected battery |
1.1.17. | Under-construction projects for grid-connected battery |
2. | PART I WHAT IS EMERGING AND WHAT IS HAPPENING? |
2.1. | Residential Battery: Past-Present-Future |
2.1.1. | The launch of Tesla Energy and corresponding sales |
2.1.2. | Powerwall's specifications |
2.1.3. | Powerwall - a breakthrough product? |
2.1.4. | Analysis of Tesla's strategy |
2.1.5. | Background of Tesla's Gigafactory |
2.1.6. | The impact of Tesla's Gigafactory |
2.1.7. | The story did not start with Tesla and will not end with Tesla |
2.1.8. | BYD |
2.1.9. | BYD's layout is similar to Tesla |
2.1.10. | Sharp Corporation |
2.1.11. | Sony |
2.1.12. | Toshiba |
2.1.13. | Ecosystem for the whole battery life |
2.1.14. | Mercedes-Benz Energy Storage and Daimler's 2nd-use stationary battery storage project |
2.2. | Utility-Scale Battery Storage Systems: A New Opportunity |
2.2.1. | Top 10 largest global battery storage projects |
2.2.2. | Nishi-Sendai substation lithium-ion battery system of Tohoku Electric Power |
2.2.3. | WEMAG Schwerin-Lankow Battery Power Plant |
2.2.4. | PJM frequency regulation |
2.2.5. | Enhanced frequency response by National Grid |
3. | PART II ANALYSIS ON ECONOMIC VALUES OF BATTERY STORAGE SYSTEMS |
3.1. | Photovoltaic Compensations |
3.1.1. | Introduction to PV compensations |
3.1.2. | Feed-in-Tariff |
3.1.3. | FiT reduction in various countries |
3.1.4. | Net metering |
3.1.5. | Power purchase agreement |
3.2. | Battery Storage Values and Benefits |
3.2.1. | What is ESS |
3.2.2. | ESS for every position in the value chain |
3.2.3. | Where can energy storage be fit in? |
3.2.4. | Residential, non-residential and utility battery storage systems |
3.2.5. | "Front of the meter" and "behind the meter" |
3.2.6. | Battery storage system |
3.2.7. | Battery storage designed for self-electricity consumption |
3.2.8. | Battery storage benefits / values |
3.2.9. | Increase renewable penetration and reduce the reliance on diesel & peak gas use |
3.2.10. | Energy storage for demand peak shift |
3.2.11. | Values provided by battery storage in ancillary services |
3.2.12. | Values provided by battery storage in utility side |
3.2.13. | Introduction of electricity commodity |
3.2.14. | Response time and duration characterize required ancillary service response |
3.2.15. | Properties of ancillary services |
3.2.16. | Frequency control |
3.2.17. | Primary vs secondary response |
3.2.18. | Regulation vs. load following |
3.2.19. | Contingence operations |
3.2.20. | Batteries react more accurately and quickly to frequency changes |
3.2.21. | Power requirement versus discharge duration for some applications in today's energy system |
3.3. | Cost Analysis |
3.3.1. | Cost discussions |
3.3.2. | Cost should be compared for the same use cases only |
3.3.3. | Battery storage costs: capital costs |
3.3.4. | Battery storage costs: LCOE |
3.3.5. | Drivers for battery cost reduction |
3.3.6. | Battery price reduction learning curves for consumer electronics, electric vehicles and ESS |
3.3.7. | Costs that influence the ESS |
3.3.8. | Cost analysis of battery system |
3.4. | Economic Analysis of Behind-The-Meter Battery System |
3.4.1. | Lowest price comparison of residential ESS sold by different manufacturers |
3.4.2. | Comparison of current and future residential battery products in the market |
3.4.3. | Cost comparison between Tesla and Sonnen's products |
3.4.4. | Cost breakdown of a typical 10 kWh residential battery system |
3.4.5. | Is grid independence achievable by large deployment of residential battery? |
3.4.6. | Residential battery applications |
3.4.7. | Time-of-use (TOU) arbitrage |
3.4.8. | Backup power |
3.4.9. | PV energy storage |
3.4.10. | Are residential batteries in PV-battery systems economically rational? |
3.4.11. | A summary of the economic analysis for residential batteries in different applications |
3.4.12. | An example of economic analysis |
3.4.13. | Economic calculation for residential PV-battery system |
3.4.14. | Potential buyers of residential battery systems |
3.4.15. | Conclusion |
3.4.16. | Demand charge reduction |
3.5. | Economic Analysis of Grid-Scale Battery System |
3.5.1. | Primary revenue stream currently available to battery storage |
3.5.2. | Potential sources of revenue for battery storage |
3.5.3. | How much value can batteries generate? |
3.5.4. | A trial case |
3.5.5. | Micro-grid |
3.5.6. | Off-grid and remote applications |
3.5.7. | Conclusions |
4. | PART III ANALYSIS OF THE GLOBAL MARKETS |
4.1.1. | Reality behind the hype |
4.1.2. | Market drivers of battery storage system |
4.1.3. | Lessens from PV growth |
4.1.4. | Market barriers & challenges |
4.1.5. | Legislative and regulatory framework |
4.1.6. | Challenges in remote-region and island applications |
4.1.7. | Market Status: BESS Will not Develop in Isolation |
4.1.8. | Moving beyond automotive & consumer electronics into ESS |
4.1.9. | Companies from other sectors jumping in |
4.1.10. | Joint ventures related to battery business |
4.1.11. | Cross-industry expand the battery-related business scope |
4.1.12. | Value Chain |
4.1.13. | Downstream Energy Storage component vendors |
4.1.14. | Global players in ESS |
4.1.15. | Convergence of solar and storage |
4.1.16. | Increasing number of companies entering assembly business |
4.1.17. | Value captured across the electricity value chain: trend |
4.1.18. | Preference of battery system sizes |
4.2. | Regional Analysis |
4.2.1. | Summary of international markets |
4.2.2. | Countries may consider electricity storage options |
4.2.3. | Summary of energy storage market activities in different countries |
4.2.4. | Global grid-connected battery installation capacity (MW) segmented by territory |
4.2.5. | Germany |
4.2.6. | Historical installed PV-capacity and number of installations in Germany |
4.2.7. | Programs in Germany for storage support |
4.2.8. | German behind-the-meter battery storage market: percentages of battery technology, system design and installation type |
4.2.9. | The U.S. |
4.2.10. | Average U.S. residential electricity price by census division and state |
4.2.11. | California |
4.2.12. | California's huge grid energy storage mandate |
4.2.13. | List of Southern California Edison's 261 MW energy storage procurement |
4.2.14. | Hawaii |
4.2.15. | New York |
4.2.16. | Texas |
4.2.17. | Japan |
4.2.18. | Storage battery strategy and target for installing in Japan |
4.2.19. | Technology roadmap for stationary battery in Japan |
4.2.20. | R&D challenges for batteries |
4.2.21. | A list of residential battery systems for PV applications in Japan |
4.2.22. | Australia |
4.2.23. | Barriers for energy storage in the Australian market |
4.2.24. | China |
4.2.25. | South Korea |
4.2.26. | United Kingdom |
4.2.27. | Italy |
4.2.28. | Other markets: Canada, European Union, Puerto Rico, India, New Zealand, France, Belgium, Spain, Singapore |
4.3. | Market Forecast |
4.3.1. | Price projection (2015-2026) |
4.3.2. | Residential battery market forecast 2015-2026 (units) |
4.3.3. | Assumption and explanation of the forecast |
4.3.4. | Residential battery market forecast 2015-2026 (capacity) |
4.3.5. | Assumption and explanation of the forecast |
4.3.6. | Residential battery market forecast 2015-2026 (value) |
4.3.7. | Cumulative rated power of deployed large-scale battery system forecast 2015-2026 (power) |
4.3.8. | Assumption and explanation of the forecast |
4.3.9. | Cumulative values of deployed grid-connected battery systems |
4.3.10. | Total global value of BESS forecast 2015-2026 by country |
4.3.11. | Market segment by country in 2015 and 2026 |
4.3.12. | Total global value of BESS forecast 2015-2026 by application |
4.3.13. | Market segment by application in 2015 and 2026 |
5. | PART IV GO-TO-MARKET STRATEGIES |
5.1.1. | Conclusions from previous analysis |
5.1.2. | Important considerations for battery selection |
5.1.3. | Sharing economy |
5.2. | Business Models |
5.2.1. | Introduction |
5.2.2. | Virtual power plant |
5.2.3. | Case study: SENEC.IES |
5.2.4. | Case study: Green Charge Networks |
5.2.5. | Case study: LichtBlick |
5.2.6. | Case study: MVV Strombank |
5.2.7. | Case study: Green Mountain Power |
5.2.8. | Green Mountain Power's Innovation Strategy |
5.2.9. | Case study: Ampard + Fenecon |
5.2.10. | Case study: Stem |
5.2.11. | Case study: Sonnen |
5.3. | Expansion of Battery Values |
5.3.1. | Vehicle-to-grid and vehicle-to-home |
5.3.2. | A brief history of V2G/V2H |
5.3.3. | Schematics of V2G and V2H |
6. | PART V ENERGY STORAGE TECHNOLOGIES |
6.1.1. | Classification of energy storage systems by energy form |
6.1.2. | Energy storage technology descriptions |
6.1.3. | Global energy storage capacity |
6.1.4. | Number of projects and rated power of different energy storage technologies used in grid-connected applications |
6.1.5. | Global energy storage capacity for total projects |
6.1.6. | Global energy storage capacity for announced projects |
6.1.7. | Global energy storage capacity for contracted projects |
6.1.8. | Global energy storage capacity for operational projects |
6.1.9. | Global energy storage capacity for under-construction projects |
6.1.10. | Numerical specifications of different energy storage technologies |
6.1.11. | Maturity of energy storage technologies |
6.1.12. | Power comparison of different energy storage technologies |
6.1.13. | Description of typical applications based on discharge time |
6.1.14. | Typical applications of energy storage based on storage duration |
6.1.15. | Power-energy plot of different energy storage technologies |
6.1.16. | Energy density vs. specific energy of different battery technologies |
7. | PART VI BATTERY TECHNOLOGIES |
7.1. | Introduction to Batteries |
7.1.1. | What is a battery? |
7.1.2. | Battery categories |
7.1.3. | Glossary of terms - specifications |
7.1.4. | Primary battery chemistries and common applications |
7.1.5. | Numerical specifications of popular battery chemistries |
7.1.6. | Solid electrolyte interface |
7.1.7. | Global grid-connected battery storage capacity segmented by technology |
7.1.8. | Grid-connected unsure battery projects on power split by status |
7.2. | Why is the battery development so slow? |
7.2.1. | Overview |
7.2.2. | A big obstacle — energy density |
7.2.3. | Battery technology is based on redox reactions |
7.2.4. | Electrochemical reaction is essentially based on electron transfer |
7.2.5. | Electrochemical inactive components reduce energy density |
7.2.6. | The importance of an electrolyte in a battery |
7.2.7. | Cathode & anode need to have structural order |
7.2.8. | Failure story about metallic lithium anode |
7.2.9. | Electrochemical inactive components in the battery |
7.2.10. | Many considerations for batteries |
7.2.11. | Conclusion |
7.3. | Lithium-ion Batteries |
7.3.1. | Lithium-ion battery chemistry |
7.3.2. | Nomenclature for lithium-based rechargeable batteries |
7.3.3. | Lithium-ion & lithium metal batteries |
7.3.4. | Comparison of lithium variant |
7.3.5. | Grid-connected Li-ion battery projects on power split by status |
7.3.6. | Operational grid-connected Li-ion battery projects on power split by technology |
7.4. | Lead-Acid Battery |
7.4.1. | Lead-acid battery |
7.4.2. | Grid-connected lead-acid battery projects on power split by status |
7.4.3. | Grid-connected operational lead-acid battery projects on power split by technology |
7.4.4. | Operational grid-connected lead-acid battery projects on power split by territory |
7.5. | Nickel-Based Battery |
7.5.1. | Nickel cadmium and nickel metal hydride battery |
7.5.2. | Grid-connected nickel-based battery projects on power split by status |
7.6. | Sodium-Based Battery |
7.6.1. | Sodium sulphur battery |
7.6.2. | Sodium nickel chloride battery |
7.7. | Liquid metal battery |
7.7.1. | Grid-connected sodium-based battery projects on power split by status |
7.7.2. | Grid-connected sodium-based battery projects on power split by technology |
7.8. | Flow Battery |
7.8.1. | Flow battery |
7.8.2. | Schematic of redox flow battery system |
7.8.3. | Companies working on flow batteries |
7.8.4. | Grid-connected flow battery projects on power split by status |
7.9. | Metal Air Battery |
7.9.1. | Grid-connected metal-air battery projects on power split by status |
8. | PART VII COMPANY PROFILES |
8.1.1. | Operational grid-connected Li-ion battery projects on power split by battery provider |
8.1.2. | Top 15 companies for battery used in utility-scale applications, by installed capacity (MW) |
8.2. | COMPANY PROFILES |
8.2.1. | 24m Technologies |
8.2.2. | A123 Systems |
8.2.3. | Advanced Microgrid Solutions |
8.2.4. | AES Energy Storage |
8.2.5. | Aquion Energy |
8.2.6. | BYD |
8.2.7. | Imergy Power Systems |
8.2.8. | Kokam Co., Ltd |
8.2.9. | Sonnenbatterie |
8.2.10. | Tesla Motors |
8.2.11. | TESLA |
8.2.12. | Younicos AG |
IDTECHEX RESEARCH REPORTS AND CONSULTANCY |
Slides | 338 |
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Companies | 12 |