市場調查報告書 - 170728

全球的固定式燃料電池市場：市佔率・市場策略・市場預測（2011-2017年）

Stationary Fuel Cell Market Shares, Strategies, and Forecasts, Worldwide, 2011 to 2017
出版商 WinterGreen Research, Inc.
出版日期 2011年02月25日 內容資訊 英文 469 PAGES 175 TABLES AND FIGURES
價格
全球的固定式燃料電池市場：市佔率・市場策略・市場預測（2011-2017年） Stationary Fuel Cell Market Shares, Strategies, and Forecasts, Worldwide, 2011 to 2017
出版日期: 2011年02月25日 內容資訊: 英文 469 PAGES 175 TABLES AND FIGURES
簡介

固定式燃料電池的全球需求預期將從2010年的1億2,290萬美元，在2017年擴大到26億美元。固定式燃料電池的成長，有強化可再生能源以及風力、太陽能等所造成的能源間歇性的作用。在解決此間歇性相關課題上利用固定式燃料電池，將能實現端對端能源系統。

本報告，調查分析全球固定式燃料電池的現狀與展望，並彙整燃料電池的市場背景與各種影響因子、燃料電池的種類・導入對象・地區別的出貨數以及出貨實績・預測（∼2017年）、能源成本分析、主要產品以及技術的概要、主要企業的市佔率、主要企業的檔案資料等，由下列摘要形式闡述。

報告摘要

第1章 固定式燃料電池：市場動態・市場概要

  • 分散型發電
  • 被要求永續性以及高能源效率的產業化
  • 出口市場的電力
  • 燃料電池的動作
  • 燃料的環境上課題
  • 電池的概要
  • 燃料電池的功能特徵
  • 燃料電池系統上的水
  • 燃料電池的電力
  • 燃料電池：將化學能源轉換成直接電氣與熱能
  • 氫燃料電池技術
  • 固定式電力使用
  • 反饋式電力系統・獨立蓄電系統的課題
  • 寬鬆政策的影響
  • 燃料電池的課題
  • 鍋爐
  • 燃料電池的信賴性
  • 燃料電池的供給基礎建設
  • 法律規範

第2章 固定式燃料電池：市佔率・市場預測

  • 市場成長牽引因子
  • 市佔率
  • 固定式燃料電池：市場預測
  • SOFC燃料電池：預測
  • PAFC燃料電池技術：預測
  • PEM燃料電池技術：預測
  • MCFC固定式燃料電池：市場分析
  • SOFC固定式燃料電池：市場
  • UTC PAFC
  • PEM膜/電極
  • 能源成本
  • SOFC燃料電池市場
  • PEM・SOFC・MCFC・PAFC固定式燃料電池的應用・使用
  • MCFC・SOFC・PEMFC的長期成本預測
  • 固定式燃料電池：強項・弱項
  • 燃料電池的ROI分析
  • 可尋址市場
  • 地區分析

第3章 固定式燃料電池：產品概要

  • 固定式燃料電池
  • PEM
  • Ballard
  • IdaTech
  • PAFC
  • UTC PAFC
  • Samsung Everland / UTC
  • MCFC發電廠
  • FuelCell Energy
  • SOFC
  • Siemens
  • General ElectricのSOFC
  • Delphi的SOFC
  • Rolls Royce的SOFC
  • Bloom Energy的SOFC
  • Acumentrics的SOFC

第4章 固定式燃料電池：技術

  • 燃料電池：維持具經濟說服力的屬性平衡
  • 使用電解液的燃料電池類型
  • IdaTech的燃料處理技術
  • PAFC
  • MCFC
  • SOFC
  • 燃料轉化器
  • 燃料電池的概要
  • AFC
  • 奈米科技：克服固定式燃料電池成本上的阻礙
  • 太陽能源：補足燃料電池技術
  • DMFC燃料電池：已可成立的市場
  • 白金觸媒
  • 燃料電池的硼酸鎳觸媒
  • PAFC與固定式燃料電池
  • MCFC:
  • PAFC
  • 燃料電池元件
  • 燃料電池堆疊
  • 電力調節器
  • 奈米複合膜
  • Pall：氫過濾
  • IdaTech

第5章 企業檔案資料

圖表

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目錄

Abstract

LEXINGTON, Massachusetts (February 24, 2011) - WinterGreen Research announces that it has a new study on Stationary Fuel Cells. Stationary Fuel Cell markets grow as the technology supports smaller more diverse units. The new study has 469 pages and 175 tables and figures.

These markets are poised to grow based on the creation of new efficiencies available directly to campus environments needing distributed energy that is separate from the grid. New composite materials based on nanotechnology are providing specialized high temperature ceramics catalyst materials to make systems more cost effective are achieving consistent price declines throughout the forecast period.

Distributed generation (DG) refers to power generation at the point of consumption. Generating power on-site, rather than centrally, eliminates the cost, complexity, interdependencies, and inefficiencies associated with transmission and distribution. Like distributed computing (i.e. the PC) and distributed telephony (i.e. the mobile phone), distributed generation shifts control to the consumer.

Distributed energy generation is the core of renewable energy from wind and solar. These intermittent sources of renewable energy are only feasible if there is a reliable way to store the energy for use when the wind is not blowing and when it is dark out. Stationary fuel cells provide that.

The electricity from the renewable energy can be used to manufacture hydrogen in a campus environment. Future generations of stationary fuel cells including Bloom Energy' s energy servers offer the unique capacity to operate as an energy storage device, thus creating a bridge to a 100% renewable energy future.

Bloom Energy is a distributed generation solution that is clean and reliable and affordable all at the same time. Bloom' s energy servers can produce clean energy 24 hours per day, 365 days per year, generating more electrons than intermittent solutions, and delivering faster payback and greater environmental benefits for the customer. DG systems require modest installations, sunny and provide consistent 24/7/365 load.

As distributed generation moves to the forefront of corporate consciousness, stationary fuel cells including Bloom Energy Servers are designed to meet the needs of economically and environmentally minded companies.

Renewable energy is intermittent and needs stationary fuel cells to achieve mainstream adoption as a stable power source. Wind and solar power cannot be stored except by using the energy derived from these sources to make hydrogen that can be stored. Most likely the wind and tide energy will be transported as electricity to a location where the hydrogen can be manufactured. It is far easier to transport electricity than to transport hydrogen.

Stationary fuel cell markets need government sponsorship. As government funding shifts from huge military obligations, a sustainable energy becomes to most compelling investment model for government sponsored development. Stationary Fuel Cells are a good technology in need of further investment to make the entire renewable energy spectrum competitive.

FuelCell Energy is positioned to offer ultra-clean and reliable power generation. A fuel cell power plant helps meet the needs of customers efficiently. Systems improve the air quality in a service territory. Fuel cell is an electrochemical device that combines hydrogen fuel and oxygen from the air to produce electricity, heat, and water.

Direct FuelCell (DFC) power plants are designed to efficiently use fuels and provide renewable and ultra-clean baseload power. FuelCell Energy implements molten carbonate fuel cell (MCFC) power plants that depend on electrolyte for large, high-temperature fuel cells. The electrolyte uses a liquid solution of lithium, sodium and/or potassium carbonates, soaked in a matrix material. They operate at 650 degrees C. They are generally large systems with power ranges that extend to 2 mW. Their large size and mass limits the technology to large stationary applications. Fuel Cell Energy uses a nickel catalyst.

FuelCell Energy stationary fuel cells are used in data centers, universities, commercial and institutional facilities. As an environmentally friendly power source, fuel cells are reliable, provide a consistent voltage output, run on various fuels, and produce both electricity and heat. Those advantages have led to stationary fuel cell installations in retail stores, telecommunication facilities, hospitals, and schools.

According to Susan Eustis, primary author of the study, "growth is spurred by the need to store the intermittent energy generated from renewable sources. Electricity generated from wind and solar can be stored as hydrogen and used in stationary fuel systems. Trends toward technology breakthroughs depend on investment in nanotechnology."

Global demand for stationary fuel cells is projected to increase from $122.9 million in 2010 to $2.6 billion in 2017. Growth of stationary fuel cells is a function of the need to harness intermittent energy generated from renewable wind and solar energy sources. By using stationary fuel cells to address issues relating to intermittency an end to end energy system is achieved.

Table of Contents

Stationary Fuel Cell Executive Summary

STATIONARY FUEL CELL MARKET SHARES AND MARKET FORECASTS

  • Stationary Fuel Cell Market Driving Forces
  • Stationary Fuel Cell Market Shares
  • Stationary Fuel Cell Market Forecasts
  • Vision For The New Electrical Grid
  • Hydrogen from Renewable Energy Fuels Stationary Fuel Cell

Stationary Fuel Cell Market Description and Market Dynamics

1. STATIONARY FUEL CELL MARKET DYNAMICS AND MARKET DESCRIPTION

  • 1.1 Distributed Power Generation
    • 1.1.1 Distributed Clean and Continuous Power Generation
    • 1.1.2 Benefits of Bloom Energy
    • 1.1.3 Stationary Fuel Cell Technology
  • 1.2 Industrialization Requires Sustainable, Highly Efficient Energy
    • 1.2.1 Fuel Cell Cogeneration
    • 1.2.2 Stationary Fuel Cells Address Global Energy Challenge
    • 1.2.3 Petroleum
  • 1.3 Value Of Export Market Electricity
  • 1.4 Fuel Cell Operation
    • 1.4.1 Fuel Cells Definition
    • 1.4.2 Fuel Cell Insulating Nature Of The Electrolyte
    • 1.4.3 Inconsistency Of Cell Performance
    • 1.4.4 Fuel Cell Performance Improvements
    • 1.4.5 Transition To Hydrogen
  • 1.5 Fuel Environmental Issues
    • 1.5.1 Environmental Benefits Of Using Fuel Cell Technology
    • 1.5.2 Greenhouse Gas Emissions
  • 1.6 Battery Description
  • 1.7 Fuel Cell Functional Characteristics
  • 1.8 Water In A Fuel Cell System
  • 1.9 Power Of A Fuel Cell
    • 1.9.1 Gas Control
    • 1.9.2 Temperature Control
  • 1.10 Fuel Cell Converts Chemical Energy Directly Into Electricity And Heat
    • 1.10.1 Types Of Fuel Cells
  • 1.11 Hydrogen Fuel Cell Technology
    • 1.11.1 Types Of Fuel Cells
    • 1.11.2 Alkaline Fuel Cells
    • 1.11.3 Phosphoric Acid Fuel Cells
    • 1.11.4 Molten Carbonate Fuel Cells
    • 1.11.5 Solid Oxide Fuel Cells
    • 1.11.6 PEM Technology
    • 1.11.7 Proton Exchange Membrane (PEM) Fuel Cells
    • 1.11.8 PEM Fuel Cells
    • 1.11.9 Proton Exchange Membrane (PEM) Fuel Cell
    • 1.11.10 Proton Exchange Membrane (PEM) Membranes And Catalysts
    • 1.11.11 Common Types Of Fuel Cells
  • 1.12 Stationary Power Applications
    • 1.12.1 Traditional Utility Electricity Generation
  • 1.13 On Grid And Off Grid Issues
    • 1.13.1 Stationary Public Or Commercial Buildings Fuel Cell Market
    • 1.13.2 Distributed Power Generation
  • 1.14 Impact Of Deregulation
    • 1.14.1 Excess Domestic Capacity
    • 1.14.2 Power Failures
  • 1.15 Fuel Cell Issues
    • 1.15.1 Solid Oxide Fuel Cells
    • 1.15.2 Fuel Cell Workings
    • 1.15.3 Environmental Benefits Of Fuel Cells
    • 1.15.4 Fuel-To-Electricity Efficiency
  • 1.16 Boilers
    • 1.16.1 Domestic Hot Water
    • 1.16.2 Space Heating Loops
    • 1.16.3 Absorption Cooling Thermal Loads
  • 1.17 Fuel Cell Reliability
    • 1.17.1 Power Quality
    • 1.17.2 Licensing Schedules
    • 1.17.3 Modularity
  • 1.18 Fuel Cell Supply Infrastructure
  • 1.19 Laws And Regulations
    • 1.19.1 National Hydrogen Association
    • 1.19.2 Military Solutions

2. STATIONARY FUEL CELL MARKET SHARES AND MARKET FORECASTS

  • 2.1 Stationary Fuel Cell Market Driving Forces
    • 2.1.1 Platinum Catalysts
  • 2.2 Stationary Fuel Cell Market Shares
    • 2.2.1 FuelCell Energy (MCFC)
    • 2.2.2 UTC Phosphoric Acid Fuel Cells (PAFCs)
    • 2.2.3 Ballard and IdaTech PEM
    • 2.2.4 Bloom Energy (SOFC) Fuel Cell Comprised Of Many Flat Solid Ceramic Squares
    • 2.2.5 Acumentrics
    • 2.2.6 Rolls Royce SOFC Stationary Fuel Cell System
    • 2.2.7 Delphi Corp Inexpensive 5-kW SOFC
  • 2.3 Stationary Fuel Cell Market Forecasts
    • 2.3.1 Vision For The New Electrical Grid
    • 2.3.2 Fuel Cell Clean Air Permitting
    • 2.3.3 MCFC Fuel Cell Market Forecasts
    • 2.3.4 Molten Carbonate Fuel Cell (MCFC)
    • 2.3.5 Molten Carbonate Uses Nickel and Stainless Steel as Core Technology
  • 2.4 SOFC Fuel Cell Forecasts
  • 2.5 PAFC Fuel Cell Technology Forecasts
  • 2.6 PEM Fuel Cell Technology Forecasts
    • 2.6.1 PEM Telecom Fuel Cell Back Up Power Systems
    • 2.6.2 Government Support for Fuel Cell Technology
    • 2.6.3 PEMFC Efficiency
    • 2.6.4 Challenges for PEMFC Systems
    • 2.6.5 Operating Pressure
    • 2.6.6 Long Term Operation
    • 2.6.7 Proton Exchange Membrane Fuel Cell (PEM) Residential Market 2-42
  • 2.7 MCFC Stationary Fuel Cell Market Analysis
    • 2.7.1 Fuel Cell Technology 95% Combustion Efficiency Molten Carbonate Fuel Cell (MCFC)
    • 2.7.2 Energy Market Forecasts
    • 2.7.3 Competition For Distributed Generation Of Electricity
    • 2.7.4 Stationary Fuel Cell Applications
    • 2.7.5 FuelCell Energy Fuel Cell Stack Module MCFC
    • 2.7.6 Molten Carbonate Fuel Cell Production Analysis Results
    • 2.7.7 FuelCell Energy Cost Breakdown
    • 2.7.8 FuelCell Energy Fuel Cell Stack Module
    • 2.7.9 FuelCell Energy Materials Cost Reduction via Increased Power Density
    • 2.7.10 Fuel Cell Energy Achieving Higher MCFC Power Density
  • 2.8 SOFC Stationary Fuel Cell Markets
    • 2.8.1 Bloom Energy SOFC
    • 2.8.2 SOFC Methanol Fuel Cells, On The Anode Side, A Catalyst Breaks Methanol
    • 2.8.3 Siemens SOFC Unfavorable Fuel Cell Market Characteristics 2-66
  • 2.9 UTC PAFC
    • 2.9.1 PAFC 2-71
    • 2.9.2 Phosphoric Acid Fuel Cell (PAFC) Technology
    • 2.9.3 Phosphoric Acid Fuel Cells (PAFCs)
  • 2.10 PEM Membrane, Or Electrolyte
    • 2.10.1 PEM Proton-Conducting Polymer Membrane, (The Electrolyte) 2-77
  • 2.11 Delivered Energy Costs
    • 2.11.1 Nanotechnology Platinum Surface Layer on Tungsten Substrate For Fuel Cell Catalyst
  • 2.12 SOFC Fuel Cell Markets
    • 2.12.1 Specialized Ceramics
  • 2.13 PEM, SOFC, MCFC, and PAFC Stationary Fuel Cell Applications and Uses:
  • 2.14 MCFC, SOFC, PEMFC Projected Cost Long Term
  • 2.15 Stationary Fuel Cells Strengths and Weaknesses
  • 2.16 Fuel Cell Return On Investment Analysis
  • 2.17 Addressable Market
  • 2.18 Stationary Fuel Cell Market Regional Analysis
    • 2.18.1 Stationary Fuel Cells U.S.
    • 2.18.2 Fuel Cells California
    • 2.18.3 Regional Stationary Fuel Cell Competition
    • 2.18.4 CPUC Recently Approved 6 Utility Owned Fuel Cell Projects
    • 2.18.5 Stationary Fuel Cell Installations in California
    • 2.18.6 California Fuel Cell Installations
    • 2.18.7 Campus Fuel Cell Food Processing Agricultural Applications / Gills Onions Stationary Fuel Cells
    • 2.18.8 Europe and Japan
    • 2.18.9 Korea 2-112
    • 2.18.10 European Photovoltaic Industry Association and Greenpeace Global Investments In Solar Photovoltaic Projects
    • 2.18.11 German Stationary Fuel Cells
    • 2.18.12 Japanese Sales Prospects
    • 2.18.13 New Sunshine Project (Japan)
    • 2.18.14 Fuel Cell Development in Japan
    • 2.18.15 Fuel Cell Cogeneration in Japan
    • 2.18.16 Tokyo-Based JGA Millennium Program,
    • 2.18.17 Japanese Government Subsidies
    • 2.18.18 Fuel Cell Cogeneration In Japan
    • 2.18.19 Establishing Codes And Standards Are Very Important For Advancing Fuel Cell Systems In Japan
  • 2.18.20 Solid-Oxide Fuel Cell Stack Prices

3. STATIONARY FUEL CELL PRODUCT DESCRIPTION

  • 3.1 Stationary Fuel Cells
  • 3.2 PEM 3-1
  • 3.3 Ballard
  • 3.4 IdaTech
    • 3.4.1 Phosphoric Acid Fuel Cells (PAFCs)
  • 3.5 UTC PAFC
    • 3.5.1 UTC Phosphoric Acid
    • 3.5.2 UTC PureCellR System
    • 3.5.3 UTC Product : The PureCell™ Model 400 Power Solution Features : 3-16
    • 3.5.4 UTC PureComfortR Solutions
    • 3.5.5 UTC PureComfortR Power Solutions Save Energy
    • 3.5.6 UTC CO2 Emissions Reduction
    • 3.5.7 UTC PureComfortR Power Solutions
  • 3.6 Samsung Everland / UTC
  • 3.7 Molten Carbonate Fuel Cell (MCFC) Power Plants
  • 3.8 FuelCell Energy
    • 3.8.1 FuelCell Energy Cost Breakdown
    • 3.8.2 FuelCell Energy Fuel Cell Stack Module
    • 3.8.3 FuelCell Energy Materials Cost Reduction via Increased Power Density
    • 3.8.4 FuelCell Energy Balance-of-Plant Cost Reduction With Volume Production
    • 3.8.5 FuelCell Energy Conditioning, Installation, and Commissioning 3-34
    • 3.8.6 FuelCell Energy to Supply 1.4 MW Power Plant to a California Utility 3-36
    • 3.8.7 FuelCell Energy Adding Power Generating Capacity At The Point Of Use Avoids Or Reduces Investment In The Transmission And Distribution System
    • 3.8.8 FuelCell Energy DFC1500
    • 3.8.9 FuelCell Energy Fuel Cells Within South Korean Renewable Portfolio 3-38
    • 3.8.10 Enbridge and FuelCell Energy Partner
    • 3.8.11 FuelCell Energy Power Plants
  • 3.9 Solid Oxide Fuel Cells (SOFC)
    • 3.9.1 Next Generation SOFC
  • 3.10 Siemens
    • 3.10.1 Siemens Energy Technical Team Of Key Technology Development Partners That Includes Fuel Cell Technologies Ltd. (FCT)
    • 3.10.2 Siemens Westinghouse Electric Company Solid Oxide Fuel Cells
  • 3.11 General Electric Solid Oxide Fuel Cells
  • 3.12 Delphi Solid Oxide Fuel Cells
    • 3.12.1 Delphi Solid Oxide Fuel Cell Auxiliary Power Unit
  • 3.13 Rolls Royce Solid Oxide Fuel Cells
  • 3.14 Bloom Energy Solid Oxide Fuel Cells
    • 3.14.1 Bloom Energy Server Architecture
  • 3.15 Acumentrics Solid Oxide Fuel Cells
    • 3.15.1 Acumentrics Tubular Solid Oxide Fuel Cells

4. STATIONARY FUEL CELL TECHNOLOGY

  • 4.1 Fuel Cells Offer An Economically Compelling Balance Of Attributes
  • 4.2 Fuel Cell Type Of Electrolyte Used
    • 4.2.1 PEM Fuel Cells
  • 4.3 IdaTech Fuel Processing Technology
  • 4.4 Phosphoric Acid Fuel Cells (PAFC)
    • 4.4.1 PAFC Platinum-Based Catalyst
  • 4.5 Molten Carbonate Fuel Cells (MCFC)
    • 4.5.1 FuelCell Energy Degradation of the Electrolyte Support
    • 4.5.2 MCFC Stack Cost Analysis
    • 4.5.3 Molten Carbonate Fuel Cell Results
  • 4.6 Solid Oxide Fuel Cells (SOFC)
    • 4.6.1 SOFC Fuel Cell/Turbine Hybrids
    • 4.6.2 Acumetrics Tubular SOFC, Solid Oxide Fuel Cell Technology
  • 4.7 Fuel Reformer
    • 4.7.1 Specialized Ceramics
    • 4.7.2 Ceramic Fuel Cells
  • 4.8 Fuel Cell Description
  • 4.9 Alkaline Fuel Cells (AFC)
  • 4.10 Nanotechnology Enables Overcoming Stationary Fuel Cell Cost Barriers
    • 4.10.1 DMFC Micro And Portable Fuel Cells Components and Labor Costs
    • 4.10.2 SOFC Fuel Cells Components and Labor Costs:
    • 4.10.3 MCFC Fuel Cells Components and Labor Costs:
    • 4.10.4 PAFC Fuel Cells Components and Labor Costs:
  • 4.11 Solar Energy Complements Fuel Cell Technology
  • 4.12 DMFC Fuel Cell Already Viable Market
    • 4.12.1 DMFC Micro And Portable Fuel Cells Components and Labor Costs
    • 4.12.2 Polymer-Electrolyte Membrane PEM
    • 4.12.3 PEM Nano Metals And Alloys
    • 4.12.4 PEM 4-39
  • 4.13 Platinum Catalyst
    • 4.13.1 Nanotechnology Platinum Surface Layer on Tungsten Substrate For Fuel Cell Catalyst
    • 4.13.2 Nanotechnology Platinum Catalyst Mid Size Stationary Fuel Cells 4-41
    • 4.13.3 Water Electrolysis Technology
  • 4.14 Fuel Cell Nickel Borate Catalyst
    • 4.14.1 Fuel Cell High Cost Products
    • 4.14.2 Development of Hydrogen Technologies Critical For The Growth Of The Fuel Cell Industry
    • 4.14.3 PEM and SOFC For Home Units
  • 4.15 PAFC and Stationary fuel cells
  • 4.16 For MCFC:
  • 4.17 For PAFC:
  • 4.18 Fuel Cell Components
    • 4.18.1 1 Fuel Processor (Reformer)
  • 4.19 Fuel Cell Stack
  • 4.20 Power Conditioner
  • 4.21 Nano Composite Membranes
  • 4.22 Pall Filtering of Hydrogen
  • 4.23 IdaTech

5. STATIONARY FUEL CELL COMPANY PROFILES

  • 5.1 Acumentrics
    • 5.1.1 Acumentrics Fuel Cell Technologies Ltd Trusted Power Innovations
  • 5.2 Ansaldo Fuel Cells
  • 5.3 Ballard Power Systems
    • 5.3.1 Ballard Power Systems / IdaTech LLC / ACME Group (Gurgaon, Haryana)
    • 5.3.2 Ballard 2011 Business Outlook
    • 5.3.3 Ballard 2010 Achievements
    • 5.3.4 Growth Milestones
    • 5.3.5 Ballard Path to Profitability
    • 5.3.6 Ballard Key 2009 Achievements
    • 5.3.7 Ballard Annual Highlights Quarterly Highlights
    • 5.3.8 How Ballard Fuel Cells Work
    • 5.3.9 Ballard Expanded Single Fuel Cell
    • 5.3.10 Ballard Hydrogen
  • 5.4 Blasch Precision Ceramics
  • 5.5 Bloom Energy
    • 5.5.1 Adobe Powers San Jose Headquarters with Bloom Energy Fuel Cells 5-18
    • 5.5.2 Bloom Energy / University Of Arizona NASA Mars Space Program 5-19
  • 5.6 Delphi
    • 5.6.1 Delphi Automotive LLP Revenue
    • 5.6.2 Delphi Solid Oxide Fuel Cell Auxiliary Power Unit
  • 5.7 Doosan Corporation
  • 5.8 Enbridge
  • 5.9 FuelCell Energy
    • 5.9.1 FuelCell Energy Revenue 2010
    • 5.9.2 FuelCell Energy Market Activity
    • 5.9.3 FuelCell Energy Government Research and Development Contracts
    • 5.9.4 FuelCell Energy Hydrogen Compression:
    • 5.9.5 FuelCell Energy Versa Power Systems Solid Oxide Fuel Cell Development:
    • 5.9.6 FuelCell Energy
    • 5.9.7 Fuelcell Energy Revenue
    • 5.9.8 FuelCell Energy DFC 3000 Cost Savings
    • 5.9.9 FuelCell Energy Production and Delivery Capabilities
    • 5.9.10 FuelCell Energy Food & Beverage Processing
    • 5.9.11 FuelCell Energy Strategic Alliances and Market Development Agreements
  • 5.10 Fuel Cell Technologies
  • 5.11 Fuji
  • 5.12 GE
    • 5.12.1 GE Unmanned Aircraft
    • 5.12.2 GE HPGS
  • 5.13 HydroGen LLC
  • 5.14 IdaTech
    • 5.14.1 IdaTech acquires Plug Power' s LPG Off-Grid, Backup Power Stationary Product Lines
    • 5.14.2 IdaTech Product Shipments
    • 5.14.3 IdaTech Revenue 2010 IdaTech Financials 2007
    • 5.14.4 IdaTech Wireless Communications Network Support
    • 5.14.5 IdaTech Applications
    • 5.14.6 IdaTech Wireline Communications Networks
    • 5.14.7 IdaTech Highway
    • 5.14.8 IdaTech Oil & Gas
    • 5.14.9 IdaTech Military
    • 5.14.10 IdaTech Telecom Wireless
    • 5.14.11 IdaTech Telecom Wireline
    • 5.14.12 IdaTech Railway & Highway
    • 5.14.13 IdaTech UPS Application
  • 5.15 Nuvera
  • 5.16 POSCO Power
  • 5.17 Samsung Everland
    • 5.17.1 Samsung
    • 5.17.2 Samsung Revenue 2010
  • 5.18 Southern California Edison
  • 5.19 United Technologies
    • 5.19.1 UTC Power Fuel Cells And Power Systems
    • 5.19.2 UTC 5-75
  • 5.20 Versa Power Systems
    • 5.20.1 Versa Systems Vision
    • 5.20.2 Versa Systems Core Values
    • 5.20.3 Versa Systems Solid Oxide Fuel Cells

List of Tables and Figures

Stationary Fuel Cell Executive Summary

  • Table ES-1 Stationary Fuel Cell Market Driving Forces
  • Table ES-2 Stationary Fuel Cell Market Growth Drivers Worldwide
  • Figure ES-3 Stationary Fuel Cell Market Shares, Dollars, 2010
  • Figure ES-4 Stationary Fuel Cell Shipment Market Forecasts, Dollars, Worldwide, 2011-2017

Stationary Fuel Cell Market Description and Market Dynamics

  • Table 1-1 Methods Of Producing Energy
  • Table 1-2 Key Aspects Of Fuel Cell Stack Costs
  • Table 1-3 Fuel Cell Operation
  • Table 1-4 Fuel Cell Characteristics
  • Table 1-5 Fuel Cell Description
  • Table 1-6 Fuel Cell Categories
  • Table 1-7 Fuel Cell Performance Improvements
  • Table 1-8 Environmental Concerns Relating To Energy
  • Table 1-9 Environmental Benefits Of Using Fuel Cell Technology
  • Table 1-10 Fuel Cell Advantages Compared To Internal Combustion Engine
  • Table 1-10 (Continued) Fuel Cell Advantages Compared To Internal Combustion Engine
  • Table 1-11 Low-carbon production systems
  • Table 1-12 Fuel Cell Functional Characteristics
  • Table 1-12 (Continued) Fuel Cell Functional Characteristics
  • Table 1-13 Characteristics Of Water In Fuel Cells
  • Table 1-14 Types Of Fuel Cells
  • Table 1-15 Classes Of Fuel Cells
  • Table 1-16 Fuel Cell Applications
  • Table 1-17 Types Of Fuel Cells
  • Table 1-18 Classes Of Fuel Cells
  • Table 1-19 Fuel Cell Applications
  • Table 1-20 Alkaline Fuel Cell Features
  • Table 1-21 Phosphoric acid fuel cells applications
  • Table 1-22 Phosphoric Acid Fuel Cell Features
  • Table 1-23 Molten Carbonate Fuel Cells
  • Table 1-24 Solid Oxide Fuel Cell Features
  • Table 1-25 Proton Exchange Membrane (PEM) Fuel Cell Functions
  • Table 1-25 (Continued) Proton Exchange Membrane (PEM) Fuel Cell Functions
  • Table 1-26 Fuel Cell Issues
  • Table 1-27 Fuel Cell System
  • Table 1-28 Conceptual Operation of a Fuel Cell.
  • Table 1-29 Fuel Cell System Relative Efficiencies
  • Table 1-30 Fuel Cell Reliability Research And Development Issues

Stationary Fuel Cell Market Shares and Market Forecasts

  • Table 2-1 Stationary Fuel Cell Market Driving Forces
  • Table 2-2 Stationary Fuel Cell Market Growth Drivers Worldwide
  • Table 2-3 Worldwide Stationary Fuel Cell Market Segments
  • Figure 2-4 Stationary Fuel Cell Market Shares, Dollars, 2010
  • Table 2-5 Stationary Fuel Cell Market Shares, Dollars, 2010
  • Figure 2-6 FuelCell Energy electrochemical device
  • Figure 2-7 Bloom Energy Server
  • Figure 2-8 Stationary Fuel Cell Shipment Market Forecasts, Dollars, Worldwide, 2011-2017
  • Table 2-9 Stationary Fuel Cell Shipment Market Forecasts, Dollars, Worldwide, 2011-2017
  • Table 2-10 Stationary Fuel Cell Market Forces
  • Figure 2-11 Distributed Campus Environments For Stationary Fuel Cells, Market Forecasts, Number, Worldwide, 2011-2017
  • Table 2-12 Stationary Fuel Cell Distributed Campus Environments Market Forecasts Worldwide, 2011-2017
  • Table 2-13 Stationary Fuel Cell, SOFC, MCFC, PAFC, and PEM Shipment Market Forecasts, Units and Dollars, Worldwide, 2011-2017
  • Figure 2-14 Stationary Fuel Cell Market Forecasts, Units, Worldwide, 2011-2017
  • Figure 2-15 Stationary MCFC Fuel Cell Market Forecasts, Worldwide, Dollars, 2011-2017
  • Figure 2-16 Stationary MCFC Fuel Cell Market Forecasts, Worldwide, Units, 2011-2017
  • Table 2-17 MCFC Technology Development Functions
  • Figure 2-18 Stationary SOFC Fuel Cell Market Forecasts, Dollars, Worldwide, 2011-2017
  • Figure 2-19 Stationary Fuel Cell SOFC Market Forecasts, Number Shipped, Worldwide, 2011-2017
  • Figure 2-20 Stationary PAFC Fuel Cell Market Forecasts, Dollars, Worldwide, 2011-2017
  • Figure 2-21 Stationary PAFC Fuel Cell Market Shipments Forecasts, Units, Worldwide, 2011-2017
  • Figure 2-22 Stationary Fuel Cell Proton Exchange Membrane Fuel Cell (PEM) Market Forecasts, Dollars, 2011-2017
  • Figure 2-23 Stationary Fuel Cell Proton Exchange Membrane (PEM) Market Forecasts, Units, Worldwide, 2011-2017
  • Figure 2-24 FuelCell Energy 2.4 MW Fuel Cell Power Plant Inchon, South Korea
  • Figure 2-25 Global demand for electric Power
  • Figure 2-26 Cost of Electricity Grid and Stationary Fuel Cell
  • Table 2-27 MCFC Stack Costs
  • Figure 2-28 Stationary Fuel Cell Applications
  • Table 2-29 Molten Carbonate Fuel Cell R&D areas to be addressed
  • Table 2-30 Complete Fuel Cell Power Plant
  • Table 2-31 Opportunity for PAFC Cost Reductions Opportunity Area
  • Table 2-32 PAFC Stack Costs
  • Figure 2-33 Fuel Cell Image
  • Table 2-34 PEM Stack Costs
  • Figure 2-35 Delivered Energy Costs
  • Figure 2-36 Reducing Hydrogen Crossover Using Nanotechnology
  • Table 2-37 Ceramic Fuel Cells Advantages
  • Table 2-38 Stationary Fuel Cell Markets
  • Table 2-39 Projected Long-Term, Uninstalled Costs
  • Table 2-40 Stationary Fuel Cells Strengths and Weaknesses
  • Table 2-41 Cost Comparison of Available Technologies for a 5kW Plant
  • Table 2-41 (Continued) Cost Comparison of Available Technologies for a 5kW Plant
  • Table 2-42 Stationary Fuel Cell Regional Market Segments, Dollars, 2010
  • Table 2-43 Stationary Fuel Cell Regional Market Segments, 2010
  • Figure 2-44 Stationary Fuel Cell Installations in California
  • Figure 2-44 (Continued) Stationary Fuel Cell Installations in California
  • Figure 2-45 Efficient Pipeline Pressure Reduction
  • Table 2-46 Types Of Campus Fuel Cell Power Plants
  • Figure 2-47 FuelCell Energy 600 KW DFC, Gills Onions Oxnard, CA
  • Figure 2-48 Korean NRE New and Renewable Energy
  • Figure 2-49 Research & Development in NRE
  • Figure 2-50 Korean Local Plan for Promoting NRE
  • Figure 2-51 FuelCell Energy Environmental Tangible Benefits
  • Figure 2-52 Hybrid Electric Vehicles Costs
  • Figure 2-53 US Energy Costs
  • Figure 2-54 Hydrogen Cost From On Site Steam
  • Figure 2-55 German Bonus for Electricity Produced Through CHP Units
  • Table 2-56 Japanese Sales Prospects

Stationary Fuel Cell Product Description

  • Figure 3-1 Ballard Power Systems Cleargen Mulit-Megawatt Fuel Cell System
  • Figure 3-2 IdaTech Fuel Cell System
  • Table 3-3 IdaTech ElectraGen ME System Functions
  • Table 3-3 (Continued) IdaTech ElectraGen ME System Functions
  • Table 3-4 UTC PureCellR Model 400 System Positioning
  • Table 3-5 UTC PureCellR Model 400 System Functions
  • Table 3-6 UTCPureCellR Model 400 Fuel Cell System Target Market
  • Figure 3-7 UTC Power fuel cells also qualify for LEEDR (Leadership in Energy and Environmental Design) points.
  • Table 3-8 UTC PureCell system Features
  • Figure 3-9 UTC Fuel cell Supplier To NASA For Space Missions For Over 40 Years
  • Table 3-10 UTC Performance Characteristics POWER
  • Figure 3-11 UTC PureCell Solution Emissions
  • Table 3-12 UTC Stationary Fuel Cell Energy Efficiency Positioning
  • Table 3-13 UTC Microturbine Chiller/Heater and System Level Functions
  • Table 3-14 UTC stationary Fuel cell Benefits :
  • Table 3-15 UTC Stationary Fuel Cell Emissions Benefits
  • Table 3-16 UTC Stationary Fuel Cell Emissions CO2 Emissions Reduction Calculations
  • Figure 3-17 UTC Pollutant Emissions Comparisons
  • Table 3-18 UTC PureComfortR Power Solutions
  • Figure 3-19 Fuel cell electrochemical device
  • Figure 3-20 Direct Fuel Cell (DFC) Power Plants Offer The Highest Efficiency Which Is Key To Customer Value
  • Figure 3-21 FuelCell Energy 1 MW DFC California State University - Northridge
  • Table 3-22 FuelCell Energy Cost Reduction Opportunities for the DFC 1500 Power Plant Operating On Pipeline-Quality Natural Gas
  • Figure 3-23 Enbridge and FuelCell Energy
  • Figure 3-24 Direct Fuel Cell Power Plant
  • Figure 3-25 Siemens: SOFC ( Tubular Solid Oxide Fuel cell ) SFC - 200
  • Figure 3-26 Siemens SOFC Rods
  • Figure 3-27 General Electric Solid Oxide Fuel Cells
  • Figure 3-28 Delphi Solid Oxide Fuel Cells
  • Table 3-29 Delphi Solid Oxide Fuel Cells Benefits
  • Table 3-30 Delphi Solid Oxide Fuel Cells Typical Applications
  • Figure 3-31 Delphi Solid Oxide Fuel Cells Transportation Application
  • Figure 3-32 Rolls Royce Fuel Cell Process
  • Table 3-33 Rolls Royce Solid Oxide Fuel Cells Features
  • Table 3-33 (Continued) Rolls Royce Solid Oxide Fuel Cells Features
  • Table 3-34 Bloom Energy SOCF Fuel Cell Specifications
  • Table 3-34 (Continued) Bloom Energy SOCF Fuel Cell Specifications
  • Figure 3-35 Bloom Energy Server
  • Table 3-36 Bloom Performance Is Enhanced By Modular Architecture
  • Table 3-37 Acumentrics Solid Oxide Fuel Cells Development Path
  • Table 3-38 Acumentrics Tubular Solid Oxide Fuel Cells Functions
  • Figure 3-39 Acumentrics Tubular Solid Oxide Fuel Cells

Stationary Fuel Cell Technology

  • Figure 4-1 Fuel Cells Offer An Economically Compelling Balance Of Attributes
  • Figure 4-2 Efficiency Differences Among Fuel Cell Technologies
  • Table 4-3 Fuel cell Types By T Electrolyte
  • Table 4-4 Opportunity for PAFC Cost Reductions Opportunity Area
  • Table 4-5 Molten Carbonate Fuel Cell R&D areas to be addressed
  • Figure 4-6 MCFC Cost Components of Electricity vs. Fuel Cell Capital Cost
  • Figure 4-7 Siemens Westinghouse' s 250-Kilowatt Atmospheric Pressure Combined Heat And Power Fuel Cell System
  • Table 4-8 Ceramic Fuel Cells Advantages
  • Figure 4-9 Bloom Energy Fuel Cell Description (1)
  • Figure 4-10 Bloom Energy Fuel Cell Description (2)
  • Figure 4-11 Bloom Energy Fuel Cell Description (3)
  • Figure 4-12 Bloom Energy Fuel Cell Description (4)
  • Figure 4-13 Bloom Energy Fuel Cell Description (5)
  • Figure 4-14 Fuel Cell Flow Plates
  • Figure -4-15 Home Hydrogen Refueler
  • Figure 4-16 Fuel Cell Components
  • Figure4-17 How A Fuel Cell Works
  • Figure4-18 Stationary Fuel Cell Steam Reformer
  • Figure 4-19 Hydrogen Reformer Components
  • Figure 4-20 Fuel Processor (Reformer)
  • Figure 4-21 Reducing Hydrogen Crossover Using Nanotechnology
  • Figure 4-22 Comparison of the Performance of Nanocomposite Membranes
  • Figure 4-23 Catalytic Reformer and Refinery Hydrogen System

Stationary Fuel Cell Company Profiles

  • Table 5-1 Acumentrics Fuel Cell Technologies Ltd Rugged UPS™
  • Table 5-2 Acumentrics Tubular Solid Oxide Fuel Cells
  • Figure 5-3 BallardR Fuel Cell
  • Table 5-4 Ballard Hydrogen Systems
  • Table 5-5 Bloom Energy Customers
  • Figure 5-6 Enbridge Overview
  • Table 5-7 Enbridge Statistics
  • Figure 5-8 Enbridge Hybrid Fuel Cell
  • Table 5-9 FuelCell Energy Positioning
  • Figure 5-10 FuelCell Energy DFC 3000 Cost Savings
  • Table 5-11 FuelCell Energy Production and Delivery Capabilities
  • Figure 5-12 FuelCell Energy Production Capabilities
  • Table 5-13 FuelCell Energy Active Project Pipelines
  • Figure 5-14 FuelCell Energy Tangible Environmental Benefits
  • Figure 5-15 FuelCell Energy Efficiency Differences Between Technologies
  • Table 5-16 FuelCell Energy Markets
  • Figure 5-17 Fuel Cell Technologies (FCT) Fuel Cell Test Station QA Testing Area
  • Figure 5-18 United Technologies Business Unit Revenues
  • Figure 5-19 Versa Systems Solid Oxide Fuel Cells
  • Figure 5-20 Versa Systems Solid Oxide Fuel Cell Technology

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全球的固定式燃料電池市場：市佔率・市場策略・市場預測（2011-2017年）是由出版商WinterGreen Research, Inc.在2011年02月25日所出版的。這份市場調查報告書包含469 PAGES 175 TABLES AND FIGURES 價格從美金3600起跳。
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