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エネルギー貯蔵技術(EST) 年鑑 2016年

Energy Storage Technologies (EST) Yearbook 2016

 

出版社 出版年月価格 ページ数図表数
Visiongain
ヴィジョンゲイン社
2016年9月お問い合わせください 500 403

サマリー

このレポートは世界のエネルギー貯蔵技術(EST)市場を調査し、世界の12技術別、10ヶ国の国別、6技術のサブマーケット別CAPEX予測などを掲載しています。

主な掲載内容

世界の12技術別CAPEX予測

  • 閉ループ/開ループ/革新的揚水発電(PHS)
  • リチウムイオン/ナトリウム/フロー電池/先進鉛蓄電池/その他電池
  • 蓄熱
  • 圧縮空気エネルギー貯蔵(CAES)
  • フライホイール
  • スーパーキャパシタ

6ヶ国(米国、中国、日本、韓国、インド、英国、フランス、ドイツ、スペイン、イタリア)とその他の地域市場の2016-2026年を6技術別サブマーケットに分けCAPEX予測

  • 揚水発電(PHS)
  • グリッドスケール電池
  • 蓄熱
  • 圧縮空気エネルギー貯蓄(CAES)
  • フライホイール
  • スーパーキャパシタ

2016-2026年の世界の稼働中、建設中、計画中の揚水発電(PHS)プロジェクトの詳細(プロジェクト名、場所、MW容量、タイプ、ステータス、コミッショニング)

市場のPEST分析

主要企業分析

 

Report Details

This brand new yearbook from business intelligence provider visiongain offers the ultimate analysis of the energy storage market. Visiongain estimates that global spending on the six established energy storage technologies (EST), namely pumped hydro storage (PHS), grid-scale batteries, thermal storage, compressed air energy storage (CAES), ultracapacitors and flywheels will amount to $7,235m in 2016.

The grid-scale batteries market is set to increase substantially over the next ten years, overcoming PHS as the largest global energy storage submarkets from the early 2020s onwards. This is an example of the business-critical news that you need to know about. You need to read visiongain’s objective analysis of how this will impact your company and the industry more broadly. How are you and your company reacting to this news? Are you sufficiently informed?

How this report will benefit you
In this brand-new 500 page yearbook you will find 403 in-depth tables, charts and graphs PLUS seven EXCLUSIVE interviews – all unavailable elsewhere.

This 500 page yearbook provides detailed CAPEX forecasts for the six established ESTs (PHS, grid-scale batteries, thermal storage, CAES, ultracapacitors and flywheels) over the period 2016-2026 and in-depth performance assessments for eight emerging and next-generation ESTs (adiabatic and isothermal CAES, liquid air energy storage, large-scale hydrogen storage and hydrogen fuel cells, superconducting magnetic energy storage and four innovative battery chemistries: lithium sulphur, lithium air, magnesium ion and zinc air).

By ordering and reading our brand new report today you will stay better informed and ready to act.

Report Scope

Expert opinion from seven leaders within the market:
• Mr Petr Maralik from CEZ Group, one of Europe’s biggest operators of PHS projects
• Alexander Goldin from RusHydro, a Russian utility company active in the PHS sector
• Mr. Paul DiRenzo, from Peak Hour Power, a US-based company developing innovative PHS facilities
• Mr. Giw Zanganeh from Airlight Energy, a leader in thermal and air compressed energy storage
• Mr. Gareth Brett from Highview Power, a former spin-off from the University of Leeds (UK) which is working on liquid air energy storage (LAES) technologies
• Mr. Philippe Bouchard from EoS Energy Storage, a provider of batteries for the electric utility and transportation sectors
• Mr. Bill Radvak and Brian Beck from American Vanadium, a leading producer of flow batteries

Forecasts for the CAPEX ($m) in the global EST market from 2016 to 2026, broken down into 12 leading technology submarkets:
• Closed-loop / Open-loop / Innovative pumped hydro storage (PHS)
• Lithium-ion / Sodium-based / Flow / Advanced lead acid / other batteries
• Thermal storage
• Compressed air energy storage (CAES)
• Flywheels
• Supercapacitors

CAPEX ($m) forecasts for the ten leading national markets (US, China, Japan, South Korea, India, UK, France, Germany, Spain and Italy) and the rest of the world market from 2016 to 2026, broken down into the six leading technology submarkets:
• PHS
• Grid-scale batteries
• Thermal storage
• CAES
• Flywheels
• Supercapacitors

Forecasts of the installed PHS capacity (MW) in the ten leading national markets and the rest of the world market from 2016 to 2026.

Details (project name, location, MW capacity, type, status and date of commissioning) of every operational, under construction and planned PHS project around the world from 2016 to 2026.

An overview and analysis of the range of applications of ESTs in the electricity sector, and their requirements.

Detailed analysis of each technology submarket with an overview of current performance characteristics, capital cost, existing capacity and subcategories of the technology, the technology’s market share, outlook and applications in the electricity sector.

A barriers to entry analysis by:
• Geographical market space in which ESTs will be utilised
• Application
• EST type

An analysis of the two emerging ESTs most likely to reach commercialisation over the forecast period:
• Adiabatic and isothermal CAES
• Liquid air energy storage (LAES)

A detailed analysis of the following next-generation ESTs:
• Large-scale hydrogen storage and hydrogen fuel cells
• Superconducting magnetic energy storage
• Innovative battery chemistries: lithium-sulphur, lithium-air, magnesium-ion, zinc-air

PEST analysis of the EST market.

Analysis of leading companies operating in each technology submarket.
Leading Companies in the PHS Market
• Voith Hydro
• Toshiba
• Dongfang Electric
• Alstom Energy
• Other Companies in the PHS Market

Leading Companies in the Grid Storage Battery Market
• NGK Insulators Ltd
• BYD Co. Ltd
• Sumitomo Electric Industries Ltd.
• Samsung SDI Co. Ltd
• GE Energy Storage
• Tesla Motors Inc.
• Other Leading Companies in the Grid-Scale Battery Storage Market

Leading Companies in the Air Energy Storage Market
• SustainX
• General Compression
• Airlight Energy
• LightSail Energy
• Dresser-Rand Group Inc.

Leading Companies in the Flywheel Market
• Amber Kinetics Inc.
• Beacon Power

Leading Companies in the Thermal Energy Storage Market
• Highview Power Storage
• Isentropic Ltd

Leading Companies in the SuperCapacitor Market
• Maxwell technologies Inc.
• Other Companies in the EST Market

Who should read this report?
• Energy storage companies involved in the pumped hydro storage, compressed air energy storage (CAES), thermal storage, flywheels, batteries (Lithium-ion, sodium sulphur, flow batteries, etc.) and ultracapacitors submarkets
• Utility companies and companies owning, operating or developing power transmission and distribution grids
• Smart grid technology manufacturers and suppliers
• Grid-scale energy efficiency analyst and engineering companies
• Technology developers
• Heads of strategic development
• Marketing  
• Markets analysts
• Procurement staff & suppliers
• Investors & financial institutions
• Banks
• Governmental departments & agencies

Visiongain’s study is intended for anyone requiring commercial analyses for the established, emerging and next-generation energy storage technologies market segments. You will find data, trends and predictions.



目次

Table of Contents

1. Report Overview
1.1 Energy Storage Technology (EST) Market Overview
1.2 Market Structure Overview and Market Definition
1.3 Methodology
1.3.1 Pumped Hydro Storage (PHS) Methodology
1.3.2 Grid-Scale Battery, Thermal Storage, CAES, Ultracapacitors and Flywheels Methodology
1.3.3 Next-Generation Energy Storage Technologies Methodology
1.4 How This Report Delivers
1.5 Key Questions Answered by this Analytical Report
1.6 Why You Should Read This Report
1.7 Frequently Asked Questions
1.8 Associated Visiongain Reports
1.9 About Visiongain

2. An Introduction to Established and Emerging Energy Storage Technologies
2.1 Categorisation of Energy Storage Technologies
2.2 Installed Energy Storage Capacity
2.3 The Rise of Emerging Energy Storage Technologies
2.4 The Key Applications of Established and Emerging Energy Storage Technologies
2.5 An Introduction to the Technologies Considered In This Report
2.5.1 Pumped Hydro Storage
2.5.1.1 The History and Characteristics of Pumped Hydro Storage
2.5.1.2 The Technology Variants in the PHS Sector
2.5.2 Grid-Scale Batteries
2.5.2.1 Brief Aside on Batteries
2.5.2.2 Overview of the Leading Grid-Scale Battery Technologies
2.5.2.3 Lithium-Ion Batteries
2.5.2.4 Sodium-Based Batteries
2.5.2.5 Flow Batteries
2.5.2.6 Advanced Lead Acid Batteries
2.5.2.7 Other Battery Designs
2.5.3 Compressed Air Energy Storage (CAES)
2.5.4 Advanced Compressed Air Energy Storage
2.5.5 Ultracapacitors / Supercapacitors
2.5.6 Flywheels
2.5.7 Thermal Storage
2.5.8 Liquid Air Energy Storage
2.5.9 Large-Scale Hydrogen Energy Storage Systems and Hydrogen Fuel Cells
2.5.10 Superconducting Magnetic Energy Storage (SMES)

3. The Global Energy Storage Market 2016-2026
3.1 National Markets Overview  
3.2 Technology Submarkets Overview  
3.3 EST Market Drivers & Restraints
3.4 The Factors that Will Drive the EST Market
3.4.1 How Rising Energy Prices Indirectly Incentivise EST
3.4.2 Investments in EST Research, Development and Demonstration
3.4.3 The Importance of Renewable Energy Integration
3.4.4 Smart Grids and Distributed Power Generation Systems
3.4.5 How Expanding Electricity Demand Can Drive Demand for EST
3.4.6 The Developing Electric and Alternative Vehicle Market as a Growth Factor
3.4.7 The Potential of Deregulating the Electric Utility Markets
3.4.8 Opportunities for Home Energy Storage and Arbitrage
3.4.9 The Limitations of Established Energy Storage Technologies
3.5 The Factors that Will Restrain the EST Market
3.5.1 The High Capital Costs of Emerging Energy Storage Technologies
3.5.2 Limited Cost Recovery Opportunities
3.5.3 The Policy and Regulatory Challenges Ahead
3.5.4 The Impact of a Weak Market Demand for EST
3.5.5 Geographical and Spatial Constraints of Mature Energy Storage Technologies
3.5.6 Conservatism in the Utility Industry
3.5.7 The Need for Large-Scale Demonstration Projects
3.5.8 Raw Material Availability
3.5.9 Long Investment Cycles
3.6 Technology Development and Deployment Patterns

4. Pumped Hydro Storage (PHS) Technologies
4.1 PHS Global Outlook
4.2 PHS Market Segmentation
4.3 Analysis of Existing Capacity
4.4 Which PHS Submarket Will Provide the Strongest Growth?
4.4.1 Open-Loop PHS Submarket
4.4.1.1 Background
4.4.1. 2 CAPEX and Capacity Forecasts
4.4.1.3 Drivers and Restraints
4.4.2 Closed Loop PHS Submarket
4.4.2.1 Background
4.4.2.2 CAPEX and Capacity Forecast
4.4.2.3 Drivers and Restraints
4.4.3 Innovative PHS Submarket
4.4.3.1 Background
4.4.3.2 CAPEX and Capacity Forecast
4.4.3.3 Drivers and Restraints
4.5 Patterns of Innovation in the Pumped Hydro Storage Sector
4.5.1 Seawater Pumped Hydro Storage
4.5.1.1 History and Outlook
4.5.1.2 Drivers and Restraints
4.5.2 Underground PHS and Installations Using Abandoned Mines or Quarries
4.5.2.1 History and Outlook
4.5.2.2 Drivers and Restraints
4.5.3 Small-Scale PHS and RES-PHS Hybrid Projects
4.5.3.1 History and Outlook
4.5.3.2 Drivers and Restraints
4.6 The Global Landscape of the PHS Sector
4.6.1 Market Maturity
4.6.1.1 The Maturity of Different National Markets
4.6.1.2 The Maturity of the Three PHS Submarkets
4.6.2 Variations in Construction Characteristics between National Markets and Submarkets (Construction Times, Costs and Duration)
4.6.2.1 The Variation in Construction Patterns in National Markets
4.6.2.2 The Variation in Construction Costs, Times and Sizes Between PHS Submarkets
4.6.3 The Top 20 Largest Installations Globally

5. Grid-Scale Battery Technologies
5.1 Grid-Scale Battery Global Outlook
5.2 Grid-Scale Battery Submarket Breakdown
5.2.1 Lithium-Ion Battery Submarket
5.2.1.1 Lithium-Ion Battery Submarket Forecast 2016-2026
5.2.1.2 Lithium-Ion Battery Storage Market Analysis
Drivers & Restraints
5.2.2 Sodium-Based Battery Submarket
5.2.2.1 Sodium-Based Battery Submarket Forecast 2016-2026
5.2.2.2 Sodium-Based Battery Storage Market Analysis Drivers & Restraints
5.2.3 Flow Battery Storage Submarket
5.2.3.1 Flow Battery Storage Submarket Forecast 2016-2026
5.2.3.2 Flow Battery Storage Market Analysis Drivers & Restraints
5.2.4 Advanced Lead Acid Battery Storage Submarket
5.2.4.1 Advanced Lead Acid Battery Storage Submarket Forecast 2016-2026
5.2.4.2 Advanced Lead Acid Battery Storage Market Analysis Drivers & Restraints
5.2.5 Other Battery Storage Technologies Submarket
5.2.5.1 Other Battery Storage Technologies Submarket Forecast 2016-2026
5.2.5.2 Other Battery Storage Technologies Market Analysis Drivers & Restraints

6. Other Established Energy Storage Technologies
6.1 Thermal Energy Storage
6.1.1 Thermal Energy Storage Global Forecast 2016-2026
6.1.2 Thermal Energy Storage Background
6.1.3 Main Characteristics and Applications
6.1.4 The Thermal Energy Storage Market Drivers & Restraints
6.2 Compressed Air Energy Storage
6.2.1 Compressed Air Energy Global forecast 2016-2026
6.2.2 Compressed Air Energy Background
6.2.3 Main Characteristics and Applications
6.2.4 The Compressed Air Energy Storage Market Drivers & Restraints
6.3 Supercapacitors
6.3.1 Supercapacitors Global Forecast 2016-2026
6.3.2 Supercapacitors Background
6.3.3 Main Characteristics and Applications
6.3.4 The Supercapacitor Energy Storage Market Drivers & Restraints
6.4 Flywheels
6.4.1 Flywheels Global Forecast 2016-2026
6.4.2 Flywheels Background
6.4.3 Characteristics and Main Applications
6.4.4 The Flywheels Energy Storage Market Drivers & Restraints

7. Emerging Energy Storage Technologies
7.1 Adiabatic and Isothermal Compressed Air Energy Storage
7.1.1 An Introduction to Adiabatic and Isothermal Compressed Air Energy Storage
7.1.2 The Nature of the Innovation
7.1.3 Performance and Main Characteristics
7.1.4 Applications and Key Competitors of Advanced CAES
7.1.5 Current Deployment of Compressed Air Energy Storage
7.1.6 Drivers and Restraints of Advanced Compressed Air Energy Storage
7.1.7 The Outlook for Advanced Compressed Air Energy Storage
7.1.8 Companies and Stakeholders Involved in the Advanced CAES Market
7.2 Liquid Air Energy Storage (LAES)
7.2.1 An Introduction to Liquid Air Energy Storage
7.2.2 The Nature of the Innovation
7.2.3 The Performance Characteristics of Liquid Air Energy Storage
7.2.4 Applications and Key Competitors of Liquid Air Energy Storage
7.2.5 Current Deployment of Liquid Air Energy Storage
7.2.6 Drivers and Restraints of the Liquid Air Energy Storage Market
7.2.7 The Outlook for Liquid Air Energy Storage
7.2.8 Companies and Stakeholders Involved in the Liquid Air Energy Storage Market

8. Next-Generation Chemical Energy Storage Technologies
8.1 Large-Scale Hydrogen Energy Storage Systems and Hydrogen Fuel Cells
8.1.1 An Introduction to Large-Scale Hydrogen Energy Storage Systems and Hydrogen Fuel Cells
8.1.2 The Nature of the Innovation
8.1.3 The Performance Characteristics of Large-Scale Hydrogen Energy Storage Systems and Hydrogen Fuel Cells
8.1.4 Applications and Key Competitors of Large-Scale Hydrogen Storage Systems and Hydrogen Fuel Cells
8.1.5 Current Deployment of Large-Scale Hydrogen Energy Storage Systems and Hydrogen Fuel Cells
8.1.6 Drivers and Restraints of Large-Scale Hydrogen Storage Systems and Hydrogen Fuel Cells
8.1.7 The Outlook of Large Scale Hydrogen Energy Storage Systems and Hydrogen Fuel Cells
8.1.8 Companies and Stakeholders Involved in the Hydrogen and Fuel Cells Energy Storage Market
8.2 Superconducting Magnetic Energy Storage (SMES)
8.2.1 An Introduction to Superconducting Magnetic Energy Storage (SMES)
8.2.2 The Nature of the Innovation
8.2.3 The Performance Characteristics of Superconducting Magnetic Energy Storage
8.2.4 Applications and Key Competitors of Superconducting Magnetic Energy Storage
8.2.5 Current Deployment of Superconducting Magnetic Energy Storage
8.2.6 Drivers and Restraints of Superconducting Magnetic Energy Storage
8.2.7 The Outlook for Superconducting Magnetic Energy Storage
8.2.8 Companies and Stakeholders Involved in the Superconducting Magnetic Energy Storage Market
8.3 Next-Generation Battery Technologies
8.3.1 The Key Drivers of Innovation in the Market
8.3.2 Key Patterns of Innovation in the Market
8.3.3 Lithium-air (Li-Air)
8.3.3.1 Nature of the Innovation
8.3.3.2 The Performance Characteristics of Lithium Air Batteries
8.3.3.3 The Applications and Key Competitors of Lithium Air Batteries
8.3.3.4 Current Deployment of Lithium Air Batteries
8.3.3.5 Drivers and Restraints of the Lithium Air Batteries Market
8.3.3.6 The Outlook for Lithium Air Batteries
8.3.3.7 Key Companies and Stakeholders Involved in the Lithium Air Battery Market
8.3.4 Lithium-Sulphur (Li-S)
8.3.4.1 Nature of The Innovation
8.3.4.2 The Performance Characteristics of Lithium Sulphur Batteries
8.3.4.3 Applications and Key Competitors of Lithium Sulphur Batteries
8.3.4.4 Current Deployment of Lithium Sulphur Batteries
8.3.4.5 Drivers and Restraints of the Lithium Sulphur Battery Market
8.3.4.6 The Outlook of Lithium Sulphur Batteries
8.3.4.7 Key Companies and Stakeholders Involved in the Lithium Sulphur Battery Market
8.3.5 Magnesium-Ion (Mg-Ion)
8.3.5.1 Nature of the Innovation
8.3.5.2 Performance Characteristics of Magnesium-Ion Batteries
8.3.5.3 The Applications and Key Competitors of Magnesium-Ion Batteries
8.3.5.4 Current Deployment of Magnesium-Ion Batteries
8.3.5.5 Drivers and Restraints of Magnesium-Ion Batteries
8.3.5.6 The Outlook for Magnesium-Ion Batteries
8.3.5.7 Key Companies and Stakeholders Involved in the Magnesium-Ion Battery Market
8.3.6 Zinc-Air (Zn-air)
8.3.6.1 Nature of the Innovation
8.3.6.2 The Performance Characteristics of Zinc-Air Batteries
8.3.6.3 Main Applications and Key Competitors of Zinc-Air Batteries
8.3.6.4 Current Deployment of Zinc-Air Batteries
8.3.6.5 The Drivers and Restraints of the Zinc Air Battery Market
8.3.6.6 The Outlook for Zinc-Air Batteries
8.3.6.7 Key Companies and Stakeholders in the Zinc-Air Battery Market
8.3.7 General Remarks on Emerging Battery Storage Technologies
8.3.8 Established and Emerging Energy Storage Technologies, a Comparative Analysis
8.4 The Global Landscape of the Emerging and Next-Generation Energy Storage Technologies Market
8.4.1 Next-Generation Energy Storage Technologies in North America
8.4.1.1 North America General Outlook
8.4.1.2 Drivers and Restraints of Next-Generation EST development and Deployment in North America
8.4.2 Next-Generation Energy Storage Technologies in Europe
8.4.2.1 Europe General Outlook
8.4.2.2 Drivers and Restraints of Next-Generation EST Development and Deployment in Europe
8.4.3 Next-Generation Energy Storage Technologies in Asia
8.4.3.1 Asia General Outlook
8.4.3.2 Drivers and Restraints of Next-Generation ESTs development and Deployment in Asia

9. National Markets
9.1 China
9.1.1 Chinese Energy Storage Market Forecast 2016-2026
9.1.2 Focus on the Chinese PHS Market
9.1.2.1 The Drivers and Restraints of the Chinese PHS Market
9.1.2.2 Background and Evolution of Installed Capacity in the Chinese PHS Market
9.1.2.3 How can the Chinese PHS Market be Expected to Evolve in the Period 2016-2026?
9.1.3 Focus on the Chinese Grid-Scale Battery Market
9.1.4 Focus on the Chinese Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.2 USA
9.2.1 US Energy Storage Market Forecast 2016-2026
9.2.2 Focus on the US PHS Market
9.2.2.1 The Drivers and Restraints of the US PHS Market
9.2.2.2 Background and Evolution of Installed Capacity in the US PHS Market
9.2.2.3 How can the US PHS Market be Expected to Evolve in the Period 2016-2026?
9.2.3 Focus on the US Grid-Scale Battery Market
9.2.3.1 California: The Impact of the 1.3 GW Mandate
9.2.3.2 New York
9.2.3.3 Texas (ERCOT)
9.2.3.4 Hawaii
9.2.3.5 PJM
9.2.3.6 Other Grids
9.2.4 Focus on the US Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.3 Japan
9.3.1 Japanese Energy Storage Market Forecast 2016-2026
9.3.2 Focus on the Japanese PHS Market
9.3.2.1 The Drivers and Restraints of the Japanese PHS Market
9.3.2.2 Background and Evolution of Installed Capacity in the Japanese PHS Market
9.3.2.3 How can the Japanese PHS Market be Expected to Evolve in the Period 2016-2026?
9.3.3 Focus on the Japanese Grid-Scale Battery Market
9.3.4 Focus on the Japanese Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.4 Italy
9.4.1 Italian Energy Storage Market Forecast 2016-2026
9.4.2 Focus on the Italian PHS Market
9.4.2.1 The Drivers and Restraints of the Italian PHS Market
9.4.2.2 Background and Evolution of Installed Capacity in the Italian PHS Market
9.4.2.3 How can the Italian PHS Market be Expected to Evolve in the Period 2016-2026?
9.4.3 Focus on the Italian Grid-Scale Battery Market
9.4.4 Focus on the Italian Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.5 Germany
9.5.1 German Energy Storage Market Forecast 2016-2026
9.5.2 Focus on the German PHS Market
9.5.2.1 The Drivers and Restraints of the German PHS Market
9.5.2.2 Background and Evolution of Installed Capacity in the German PHS Market
9.5.2.3 How can the German PHS Market be Expected to Evolve in the Period 2016-2026?
9.5.3 Focus on the German Grid-Scale Battery Market
9.5.4 Focus on the German Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.6 South Korea
9.6.1 South Korean Energy Storage Market Forecast 2016-2026
9.6.2 Focus on the South Korean PHS Market
9.6.2.1 The Drivers and Restraints of the South Korean PHS Market
9.6.2.2 Background and Evolution of Installed Capacity in the South Korean PHS Market
9.6.2.3 How can the South Korean PHS Market be Expected to Evolve in the Period 2016-2026?
9.6.3 Focus on the South Korean Grid-Scale Battery Market
9.6.4 Focus on the South Korean Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.7 UK
9.7.1 The UK Energy Storage Market Forecast 2016-2026
9.7.2 Focus on the UK PHS Market
9.7.2.1 The Drivers and Restraints of the UK PHS Market
9.7.2.2 Background and Evolution of Installed Capacity in the UK PHS Market
9.7.2.3 How can the UK PHS Market be Expected to Evolve in the Period 2016-2026?
9.7.3 Focus on the UK Grid-Scale Battery Market
9.7.4 Focus on the UK Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.8 France
9.8.1 French Energy Storage Market Forecast 2016-2026
9.8.2 Focus on the French PHS Market
9.8.2.1 The Drivers and Restraints of the French PHS Market
9.8.2.2 Background and Evolution of Installed Capacity in the French PHS Market
9.8.2.3 How can the French PHS Market be Expected to Evolve in the Period 2016-2026?
9.8.3 Focus on the French Grid-Scale Battery Market
9.8.4 Focus on the French Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.9 Spain
9.9.1 Spanish Energy Storage Market Forecast 2016-2026
9.9.2 Focus on the Spanish PHS Market
9.9.2.1 The Drivers and Restraints of the Spanish PHS Market
9.9.2.2 Background and Evolution of Installed Capacity in the Spanish PHS Market
9.9.2.3 How can the Spanish PHS Market be Expected to Evolve in the Period 2016-2026?
9.9.3 Focus on the Spanish Grid-Scale Battery Market
9.9.4 Focus on the Spanish Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.10 India
9.10.1 Indian Energy Storage Market Forecast 2016-2026
9.10.2 Focus on the Indian PHS Market
9.10.2.1 The Drivers and Restraints of the Indian PHS Market
9.10.2.2 Background and Evolution of Installed Capacity in the Indian PHS Market
9.10.2.3 How can the Indian PHS Market be Expected to Evolve in the Period 2016-2026?
9.10.3 Focus on the Indian Grid-Scale Battery, Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.11 RoW
9.11.1 The RoW Energy Storage Market Forecast 2016-2026
9.11.2 Focus on the Rest of the World PHS Market
9.11.2.1 The Drivers and Restraints of the Rest of the World PHS Market
9.11.2.2 Background and Evolution of Installed Capacity in the Rest of the World PHS Market
9.11.2.3 How can the Rest of the World PHS Market be Expected to Evolve in the Period 2016-2026?
9.11.3 Focus on the Rest of the World Grid-Scale Battery, Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.11.3.1 Drivers and Restraints in the Rest of the World Grid-Scale Battery, Thermal EST, CAES, Ultracapacitors and Flywheels Markets
9.11.3.2 Key National Segments in the Rest of the World Grid-Scale Battery markets

10. PEST Analysis of the Energy Storage Market
10.1 Political
10.2 Economic
10.3 Social
10.4 Technological

11. Expert Opinion
11.1 Expert Interview with Petr Maralík, CEZ Group
11.1.1 Latest Developments at CEZ
11.1.2 The Main Applications of PHS
11.1.3 Pumped Hydro Storage in a Regulatory Context
11.1.4 The Outlook of the Sector in Europe
11.1.5 Pumped Hydro Storage in the Context of Other Energy Storage Technologies
11.1.6 Innovations in the PHS Sector
11.2 Expert Interview with Alexander Goldin, RusHydro
11.2.1 RusHydro’s Involvement in the PHS Market
11.2.2 PHS Applications
11.2.3 The Current Regulatory Environment
11.2.4 Regional Outlook
11.2.5 Topographical Restraints on the Development of New PHS Installations
11.2.6 The Key Innovations and Developments in the Sector
11.2.7 The Outlook for the PHS Sector
11.3 Expert Interview with Paul DiRenzo, Jr from Peak Hour Power
11.3.1 Peak Hour Power and its Involvement in the PHS Market  
11.3.2 The Growing Interest in Innovative Pumped Hydro Storage Installations
11.3.3 The Opportunities and Challenges of Seawater PHS
11.3.4 Competition from Other Next-Generation Bulk Storage Technologies
11.4 Expert Interview with Giw Zanganeh, Airlight Energy
11.4.1 Latest Developments at Airlight Energy
11.4.2 CAES and Thermal Energy Storage in the Context of Other ESTs
11.4.3 The Market Space and Applications of Thermal Energy Storage
11.4.4 The Maturity and Key Markets of the AA-CAES Technology
11.5 Expert Interview with Gareth Brett, Highview Power
11.5.1 Latest Developments at Highview Power
11.5.2 Liquid Air Energy Storage Technology
11.5.3 The Maturity and Commercial Viability of the Technology
11.5.4 The Key Challenges and Competitors
11.5.5 Media Attention and the Hype Surrounding Emerging Technologies
11.5.6 The Technical Specifications and Performance of the Technology
11.5.7 Key Markets and Main Regulatory Drivers / Restraints
11.5.8 The Status of Energy Storage Assets
11.5.9 The Outlook for Next-Generation ESTs
11.6 Expert Interview with Philippe Bouchard, EoS Energy Storage
11.6.1 Latest Developments at EoS Energy Storage
11.6.2 EoS Energy Storage and Next-Generation Battery Chemistries
11.6.3 The Performance Characteristics of Eos Battery Chemistries
11.6.4 The Key Competitors in the Market
11.6.5 The Maturity of the Hybrid Cathode Battery Technology
11.6.6 The Main Patterns of Innovation in the Energy Storage Sector
11.6.7 Key National Markets
11.7 Expert Interview with Bill Radvak & Brian Beck, American Vanadium
11.7.1 Latest Developments at American Vanadium
11.7.2 Key Markets and Recent Developments in the Grid-Scale Battery Industry
11.7.3 Commercial Viability of Different Grid-Scale Battery Technologies
11.7.4 Areas of Greatest Cost Reduction
11.7.5 Impact of Electric Vehicle Development on the Grid-Scale Battery Industry
11.7.6 Future of Government Support for Grid-Scale Batteries
11.7.7 Drivers, Restraints, and Regulatory Issues Facing the Grid-Scale Battery Industry
11.7.8 Perception of Grid-Scale Batteries by Utility Companies
11.7.9 Key National Markets and Technological Developments
11.7.10 Issues and Opportunities of Flow Batteries

12. Leading Companies in the EST Market
12.1 Leading Companies in the PHS Market
12.1.1 Voith Hydro
12.1.2 Toshiba
12.1.3 Dongfang Electric
12.1.4 Alstom Energy
12.1.5 Other Companies in the PHS Market
12.2 Leading Companies in the Grid Storage Battery Market
12.2.1 NGK Insulators Ltd
12.2.2 BYD Co. Ltd
12.2.3 Sumitomo Electric Industries Ltd.
12.2.4 Samsung SDI Co. Ltd
12.2.5 GE Energy Storage
12.2.6 Tesla Motors Inc.
12.2.7 Other Leading Companies in the Grid-Scale Battery Storage Market
12.3 Leading Companies in the Air Energy Storage Market
12.3.1 SustainX
12.3.2 General Compression
12.3.3 Airlight Energy
12.3.4 LightSail Energy
12.3.5 Dresser-Rand Group Inc.
12.4 Leading Companies in the Flywheel Market
12.4.1 Amber Kinetics Inc.
12.4.2 Beacon Power
12.5 Leading Companies in the Thermal Energy Storage Market
12.5.1 Highview Power Storage
12.5.2 Isentropic Ltd
12.6 Leading Companies in the SuperCapacitor Market
12.6.1 Maxwell technologies Inc.
12.7 Other Companies in the EST Market

13. Conclusions
13.1 Global EST Market
13.2 Drivers and Restraints of the Global EST Market
13.3 Leading National EST Markets
13.4 Technology Submarkets

14. Glossary

List of Tables
Table 1.1 Example of Standardised Metric Used for the Comparison of Energy Storage Technologies in Radial Graphs Presented Throughout This Report
Table 1.2 EXAMPLE Leading National EST Markets Forecast 2016-2026 ($m, AGR %, Cumulative)
Table 2.1 List and Description of Main EST Applications
Table 2.2 PHS Main Characteristics (Lifetime, Capacity MW, Energy Rating, Cost/kW & kWh, Efficiency %, Response Time)
Table 2.3 Comparison of Grid-Scale Battery Storage Technologies (Maturity, Capacity MW, Output MWh, Discharge, Efficiency %, Cycles)
Table 3.1 Leading National EST Markets Forecast 2016-2026 ($m, AGR %, Cumulative)
Table 3.2 Technology Submarkets Forecast 2016-2026 ($m, AGR %, Cumulative)
Table 3.3 Global EST Market Drivers & Restraints
Table 3.4 Recent Demonstration Project Funded by ARRA ($m)
Table 4.1 Global PHS Market Forecast 2016-2026 ($m, AGR %, CAGR %, Cumulative)
Table 4.2 Global PHS Installed Capacity Forecast 2016-2026 (GW, Cumulative)
Table 4.3 PHS Submarket Forecasts 2016-2026 ($m, AGR %)
Table 4.4 Open-Loop PHS Submarket Forecast 2016-2026 ($m, AGR%, CAGR%, Cumulative)
Table 4.5 Open-Loop PHS Installed Capacity Forecast 2016-2026 (GW, Cumulative)
Table 4.6 List of all Planned Open-loop Pumped Hydro Installations (Name, Location, MW Capacity, Commissioning)
Table 4.7 Drivers and Restraints in the Open Loop PHS Submarket
Table 4.8 List of all Operating Closed-Loop Pumped Hydro Installations (Name, Location, MW Capacity, Commissioning)
Table 4.9 Closed-Loop PHS Submarket Forecast 2016-2026 ($mil, AGR%, CAGR%, Cumulative)
Table 4.10 Closed-Loop PHS Installed Capacity Forecast 2016-2026 (MW, Cumulative)
Table 4.11 List of all Planned Closed-Loop Pumped Hydro Installations (Name, Location, Capacity MW, Type, Commissioning)
Table 4.12 Drivers and Restraints in the Closed-Loop PHS Submarket
Table 4.13 List of all Operating Innovative Pumped Hydro Installations (Name, Location, Capacity MW, Type, Commissioning)
Table 4.14 Innovative PHS Submarket Forecast 2016-2026 ($mil, AGR %, CAGR %, Cumulative)
Table 4.15 Innovative PHS Installed Capacity Forecast 2016-2026 (MW, Cumulative)
Table 4.16 List of all Planned Innovative Pumped Hydro Installations (Name, Location, MW Capacity, Type, Commissioning)
Table 4.17 Drivers and Restraints in the Innovative PHS Submarket
Table 4.18 Existing Seawater PHS projects (Name, Location, MW Capacity, Status and Commissioning Date)
Table 4.19 Drivers & Restraints of Seawater PHS
Table 4.20 Existing Underground PHS Projects (Project Name, Location, MW Capacity, Type, Status and Commissioning Date)
Table 4.21 Planned Underground PHS Projects (Project Name, Location, MW Capacity, Type, Status and Commissioning Date)
Table 4.22 Drivers & Restraints of Underground PHS and Installations Using Mines and Quarries
Table 4.23 Drivers & Restraints of Small-Scale PHS and Renewable-PHS Hybrid Projects
Table 4.24 The 20 Oldest Still-Operational PHS Installations in the World (Project Name, Location, MW Capacity, Type, Status, Commissioning Date)
Table 4.25 The Oldest Still-Operational Installations in Each PHS Submarket (Project Name, Location, MW Capacity, Type, Commissioning Date)
Table 4.26 Overview of the 20 Largest PHS Installations in the World (Project Name, Location, MW Capacity, Type, Commissioning Date)
Table 5.1 Global Grid-Scale Battery Storage Market Forecast 2016-2026 ($m, AGR %, CAGR%, Cumulative)
Table 5.2 Grid-Scale Battery Storage Submarket Forecasts 2016-2026 ($m, AGR %)
Table 5.3 Lithium-Ion Battery Storage Submarket Forecast 2016-2026 ($m, AGR %, CAGR %, Cumulative)
Table 5.4 Lithium-Ion Battery Storage Submarket Drivers & Restraints
Table 5.5 Sodium-Based Battery Storage Submarket Forecast 2016-2026 ($m, AGR %, CAGR %, Cumulative)
Table 5.6 Sodium-Based Battery Storage Submarket Drivers & Restraints
Table 5.7 Flow Battery Storage Submarket Forecast 2016-2026 ($m, AGR %, CAGR %, Cumulative)
Table 5.8 Flow Battery Storage Submarket Drivers & Restraints
Table 5.9 Advanced Lead Acid Battery Storage Submarket Forecast 2016-2026 ($m, AGR %, CAGR %, Cumulative)
Table 5.10 Advanced Lead Acid Battery Storage Submarket Drivers & Restraints
Table 5.11 Other Battery Storage Submarket Forecast 2016-2026 ($m, AGR %, CAGR %, Cumulative)
Table 5.12 Other Battery Storage Submarket Drivers & Restraints
Table 6.1 Global Thermal Energy Storage Market Forecast 2016-2026 ($m, AGR %, CAGR%, Cumulative)
Table 6.2 Thermal Performance Characteristics (Maturity, MW Capacity, MWh Output, Discharge Duration, Efficiency %, Cycles, Cost per kW & kWh)
Table 6.3 Thermal Energy Storage Market Drivers & Restraints
Table 6.4 Global CAES Market Forecast 2016-2026 ($m, AGR %, CAGR %, Cumulative)
Table 6.5 Installed CAES Capacity by National Market (MW)
Table 6.6 CAES Performance Characteristics (Lifetime, MW Capacity, Energy Rating, Cost per kW & kWh, Efficiency %, Response Time)
Table 6.7 CAES Market Drivers & Restraints
Table 6.8 Global Supercapacitors Market Forecast 2016-2026 ($m, AGR %, CAGR%, Cumulative)
Table 6.9 Supercapacitors Performance Characteristics (Lifetime, MW Capacity, Energy Rating, Cost per kW & kWh, Efficiency %, Response Time)
Table 6.10 Ultracapacitor Storage Market Drivers & Restraints
Table 6.11 Global Flywheels Market Forecast 2016-2026 ($m, AGR %, CAGR%, Cumulative)
Table 6.12 Performance Characteristics Flywheels ((Lifetime, MW Capacity, Energy Rating, Cost per kW & kWh, Efficiency %, Response Time)
Table 6.13 Flywheels Market Drivers & Restraints
Table 7.1 Performance Characteristics of Conventional and Advanced CAES (Lifetime, MW Capacity, Efficiency %, Maturity)
Table 7.2 Key Diabatic and Adiabatic Compressed Air Energy Projects (Name, Location, MW Capacity, Type, Commissioning)
Table 7.3 Advanced CAES Market Drivers & Restraints
Table 7.4 Project Details for the Poleggio-Loderio Pilot AA-CAES Plant (Name, Location, Companies and Organisations Involved, Capacity kW, Type, Commissioning Date)
Table 7.5 The Main Characteristics of Liquid Air Energy Storage (Lifetime, Capacity MW, Efficiency %, Maturity)
Table 7.6 Drivers and Restraints of Liquid Air Energy Storage
Table 8.1 Hydrogen Main Characteristics (Lifetime, Capacity, Efficiency, Maturity)
Table 8.2 Large Scale Hydrogen Energy Storage and Hydrogen Fuel Cell Drivers & Restraints
Table 8.3 SMES Performance characteristics (Lifetime, Capacity MW, Efficiency %, Maturity)
Table 8.4 Drivers & Restraints of the SMES Market
Table 8.5 Main Performance Characteristics of Lithium-Air Batteries (Energy density, Cycle life, Efficiency, Maturity)
Table 8.6 Lithium Air Batteries Market Drivers & Restraints
Table 8.7 Main Performance Characteristics of Lithium Sulphur Batteries (Energy Density, Cycle life, Efficiency, Maturity)
Table 8.8 Lithium Sulphur Batteries Market Drivers and Restraints
Table 8.9 Main Performance Characteristics for Magnesium Ion Batteries (Energy Density, Cycle Life, Efficiency, Maturity)
Table 8.10 Magnesium Ion Batteries Market Drivers & Restraints
Table 8.11 Main Performance Characteristics of Zinc Air Batteries (Energy Density, Cycle Life, Efficiency and Maturity)
Table 8.12 Zinc Air Battery Market Drivers & Restraints
Table 8.13 Comparison of Key Established and Emerging Energy Storage Technologies (Maturity, Capacity / Density, Efficiency, Lifecycle)
Table 8.14 Overview of the Next-Generation ESTs Being Developed in Different Regional and National Markets

 

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