1. | EXECUTIVE SUMMARY |
1.1. | Report introduction |
1.2. | What are fuel cells? |
1.3. | Types of fuel cells |
1.4. | Proton exchange membrane fuel cell (PEMFC) technology overview |
1.5. | Solid oxide fuel cell (SOFC) technology overview |
1.6. | Phosphoric acid fuel cell (PAFC) technology overview |
1.7. | Alkaline fuel cell (AFC) technology overview |
1.8. | Molten carbonate fuel cell (MCFC) technology overview |
1.9. | Direct methanol fuel cell (DMFC) technology overview |
1.10. | Benchmarking of stationary fuel cell technologies |
1.11. | Stationary fuel cell market overview |
1.12. | Global hydrogen policies driving decarbonization and the fuel cell market |
1.13. | The hydrogen economy and its impact on the fuel cell market |
1.14. | Alternative low carbon fuels for fuel cells |
1.15. | Types of stationary power generation - Operating modes |
1.16. | Stationary fuel cell applications |
1.17. | Overview of fuel cells used by application and key specification considerations |
1.18. | Fuel cells for utility power |
1.19. | Fuel cells for industrial applications |
1.20. | Fuel cells for commercial applications |
1.21. | Fuel cells for data centres and telecommunications |
1.22. | Residential fuel cells |
1.23. | Alternative power generation technologies |
1.24. | Fuel cell demand by technology type |
1.25. | Fuel cell market value by technology type |
1.26. | Outlook of the stationary fuel cell market |
1.27. | Access More With an IDTechEx Subscription |
2. | MARKET FORECASTS |
2.1. | Global stationary fuel cell demand (MW) - segmented by fuel cell type |
2.2. | Global stationary fuel cell market value (US$) - segmented by fuel cell type |
2.3. | Global stationary fuel cell demand (MW) - split by operating mode |
2.4. | Global PEMFC demand (MW) - segmented by application |
2.5. | Global SOFC demand (MW) - segmented by application |
2.6. | Global PAFC demand (MW) - segmented by application |
2.7. | Global AFC demand (MW) - segmented by application |
2.8. | Global MCFC demand (MW) - segmented by application |
2.9. | Global DMFC demand (MW) - segmented by application |
3. | INTRODUCTION |
3.1. | Report introduction |
3.2. | What are fuel cells? |
3.3. | NASA space shuttle missions and fuel cell development |
3.4. | Types of fuel cells |
3.5. | Stationary fuel cell applications |
3.6. | Overview of fuel cells used by application and key specification considerations |
3.7. | Combined heat and power |
3.8. | Global energy and renewable energy demand |
3.9. | Global hydrogen policies |
3.10. | The Korean Hydrogen Bidding Market |
3.11. | Carbon capture and fuel cells |
4. | FUELS FOR STATIONARY FUEL CELLS |
4.1. | Fuels for fuel cells |
4.2. | Desire for emission-free power |
4.3. | Low carbon fuels for fuel cells |
4.4. | Benchmarking volumetric energy densities of fuel cell fuels |
4.5. | Benchmarking carbon emissions of fuel cell fuels |
4.6. | Normalized benchmarking of fuel cell fuels |
4.7. | Cost of fuel versus energy density |
4.8. | The colours of hydrogen |
4.9. | Hydrogen electrolyzer systems for green hydrogen production |
4.10. | Ammonia fuel and the Haber Bosch process |
4.11. | Ammonia cracking technology |
4.12. | Methanol fuel and production |
4.13. | Overview of e-fuels |
4.14. | Liquefied natural gas fuel |
5. | FUEL CELL TECHNOLOGIES AND PLAYERS |
5.1.1. | What are fuel cells? |
5.1.2. | Comparison of fuel cell technologies |
5.1.3. | Comparison of fuel cell specifications continued |
5.1.4. | Benchmarking of fuel cells |
5.2. | Proton exchange membrane fuel cells |
5.2.1. | Overview of PEMFCs |
5.2.2. | PEMFCs operating principle |
5.2.3. | Major components for PEMFCs |
5.2.4. | Proton exchange membrane electrolyte - Nafion |
5.2.5. | Bipolar plates structure and assembly |
5.2.6. | Metallic vs carbon based BPPs |
5.2.7. | Gas diffusion layer purpose and structure |
5.2.8. | Cell catalysts |
5.2.9. | Catalytic poisoning |
5.2.10. | Water management in PEMFCs |
5.2.11. | PEMFC advantages and disadvantages |
5.2.12. | PEMFC technology conclusions |
5.2.13. | Latest research and development for PEMFCs |
5.2.14. | High temperature PEMFCs (HT-PEMFCs) |
5.2.15. | PFSA membrane developments |
5.2.16. | Bipolar plates developments |
5.2.17. | Electrocatalyst developments |
5.2.18. | Concerns with PFAS (including PFSA) |
5.2.19. | Introduction to PFAS |
5.2.20. | PFAS material concerns |
5.2.21. | PEMFC market players |
5.2.22. | Overview of the stationary PEMFC market |
5.2.23. | Acquisitions by major players |
5.2.24. | Overview of stationary PEMFC players in North American market |
5.2.25. | Overview of stationary PEMFC players in European market |
5.2.26. | Overview of stationary PEMFC players in Asia-Pacific market |
5.2.27. | Overview of PEMFC players within the mobility & transportation sector |
5.2.28. | Ballard Power Systems Overview |
5.2.29. | Ballard technologies |
5.2.30. | Ballard Power stationary fuel cell technology |
5.2.31. | Ballard Power global manufacturing capabilities and key partners |
5.2.32. | Ballard Power financials |
5.2.33. | Plug Power overview |
5.2.34. | Plug Power technology overview |
5.2.35. | Plug Power stationary power technology and fuelling |
5.2.36. | Plug Power customers |
5.2.37. | Plug Power financials |
5.2.38. | Plug Power revenue splits |
5.2.39. | PowerCell Group overview |
5.2.40. | PowerCell Group technologies |
5.2.41. | PowerCell Group partnerships and agreements |
5.2.42. | PowerCell Group financials |
5.2.43. | PowerCell Group financial analysis |
5.2.44. | Intelligent Energy overview |
5.2.45. | Intelligent Energy stationary power technology |
5.2.46. | Intelligent Energy partnerships |
5.2.47. | Toshiba overview |
5.2.48. | Toshiba fuel cell technology |
5.2.49. | Cummins overview |
5.2.50. | Accelera by Cummins fuel cell technology |
5.2.51. | SFC Energy overview |
5.2.52. | SFC Energy PEMFC technology |
5.3. | Solid oxide fuel cells |
5.3.1. | Overview of solid oxide fuel cells |
5.3.2. | SOFCs working principle |
5.3.3. | SOFC assembly and materials |
5.3.4. | SOFC electrolyte |
5.3.5. | Anode properties |
5.3.6. | Cathode properties |
5.3.7. | Interconnect for planar SOFCs |
5.3.8. | Tubular SOFCs |
5.3.9. | Polarization losses |
5.3.10. | SOFC technology variations |
5.3.11. | SOFC advantages and disadvantages |
5.3.12. | SOFC technology conclusions |
5.3.13. | Recent SOFC research and development |
5.3.14. | Low temperature SOFCs |
5.3.15. | Kyocera's cylinder-plate fuel electrode supports |
5.3.16. | Power generation from unused biomass resources |
5.3.17. | AMON Project |
5.3.18. | Integrated gasification fuel cells and carbon capture |
5.3.19. | SOFC market players |
5.3.20. | Overview of key SOFC players |
5.3.21. | Overview of players in the SOFC market - USA |
5.3.22. | Overview of players in the SOFC market - Europe |
5.3.23. | Overview of players in the SOFC market - APAC |
5.3.24. | Bloom Energy overview |
5.3.25. | Bloom Energy technology |
5.3.26. | Bloom Energy example customers |
5.3.27. | Bloom Energy example customers (2) |
5.3.28. | Bloom Energy installation base |
5.3.29. | Bloom Energy financials |
5.3.30. | Bloom Energy financial analysis |
5.3.31. | Bloom-SK Fuel Cell |
5.3.32. | Ceres Power overview |
5.3.33. | Ceres Power technology |
5.3.34. | Ceres Power financials |
5.3.35. | Ceres Power revenue splits |
5.3.36. | Ceres Power & Partners |
5.3.37. | Ceres Power & Bosch/Weichai |
5.3.38. | Ceres Power & Doosan |
5.3.39. | Ceres Power & Delta Electronics |
5.3.40. | Ceres Power & Miura |
5.3.41. | FuelCell Energy overview |
5.3.42. | FuelCell Energy SOFC technology |
5.3.43. | Mitsubishi Power overview |
5.3.44. | Mitsubishi Power technology |
5.3.45. | Players offering residential and off-grid SOFCs |
5.3.46. | Redox Power |
5.3.47. | OxEon Energy |
5.3.48. | OxEon Energy continued |
5.3.49. | Upstart Power |
5.3.50. | Aris Renewable Energy |
5.3.51. | Osaka Gas |
5.3.52. | Osaka Gas Ene-Farm |
5.4. | Phosphoric acid fuel cells |
5.4.1. | Overview of phosphoric acid fuel cells (PAFCs) |
5.4.2. | PAFCs working principle |
5.4.3. | PAFC assembly and materials |
5.4.4. | Electrolyte and matrix |
5.4.5. | Cathode materials and reaction |
5.4.6. | Anode materials and reaction |
5.4.7. | Cell catalyst development - electrode alloying |
5.4.8. | Bipolar plates developments |
5.4.9. | Cell performance and lifetime |
5.4.10. | Alternative FC developments using phosphoric acid - HT-PEMFCs |
5.4.11. | PAFC advantages and disadvantages |
5.4.12. | PAFC technology conclusions |
5.4.13. | PAFC market players |
5.4.14. | Overview of PAFC market technologies and players |
5.4.15. | PAFC technology benchmarking |
5.4.16. | Combined heat and power |
5.4.17. | Doosan Fuel Cell overview |
5.4.18. | HyAxiom overview |
5.4.19. | Doosan Fuel Cell and HyAxiom technology |
5.4.20. | Doosan and HyAxiom off-grid EV charging |
5.4.21. | Doosan Fuel Cell installation base |
5.4.22. | Doosan Fuel Cell financials |
5.4.23. | Doosan Fuel Cell and the Korean Hydrogen Bidding Market |
5.4.24. | Doosan Fuel Cell and HyAxiom global investments |
5.4.25. | Fuji Electric overview |
5.4.26. | Fuji Electric technology |
5.4.27. | Fuji Electric installation base |
5.4.28. | Fuji Electric historical case studies |
5.5. | Alkaline fuel cells |
5.5.1. | Alkaline fuel cell technology overview |
5.5.2. | AFCs working principle |
5.5.3. | Materials and structure |
5.5.4. | Stack assembly |
5.5.5. | Electrolyte type and configurations |
5.5.6. | Cathode catalysts |
5.5.7. | Anode catalysts |
5.5.8. | Gas diffusion electrodes |
5.5.9. | Cell degradation |
5.5.10. | AFC advantages and disadvantages |
5.5.11. | AFC technology conclusions |
5.5.12. | Anion exchange membrane fuel cells |
5.5.13. | Anion exchange membrane fuel cells (AEMFCs) - emerging alternative to AFCs |
5.5.14. | Working principle |
5.5.15. | Anion exchange membranes |
5.5.16. | Catalysts |
5.5.17. | AEMFC development summary |
5.5.18. | AFCs vs AEMFCs |
5.5.19. | AFC market players |
5.5.20. | Overview of AFC key players |
5.5.21. | GenCell overview |
5.5.22. | GenCell technologies |
5.5.23. | GenCell technology specifications |
5.5.24. | GenCell partners and customers |
5.5.25. | GenCell global installation and partnerships |
5.5.26. | GenCell's United States market focus |
5.5.27. | GenCell financials |
5.5.28. | AFC Energy overview |
5.5.29. | AFC Energy technology specifications |
5.5.30. | AFC Energy partnerships and customers |
5.5.31. | AFC Energy financials |
5.5.32. | AFC Energy operating activity |
5.5.33. | Historic players - Alkaline Fuel Cell Power |
5.5.34. | Alternative fuels for AFCs |
5.5.35. | Ammonia cracking and green ammonia synthesis |
5.5.36. | AFC fuel conversion technologies |
5.6. | Molten carbonate fuel cells |
5.6.1. | Molten carbonate fuel cell (MCFC) technology overview |
5.6.2. | Operating principles |
5.6.3. | Electrolyte |
5.6.4. | Cathode materials |
5.6.5. | Anode materials |
5.6.6. | Matrix materials |
5.6.7. | Material component summary |
5.6.8. | MCFC advantages and disadvantages |
5.6.9. | MCFC technology conclusions |
5.6.10. | MCFCs for carbon capture, utilization and storage (CCUS) |
5.6.11. | MCFC market players |
5.6.12. | FuelCell Energy Overview |
5.6.13. | FuelCell Energy technology specifications |
5.6.14. | FuelCell Energy - Tri-generation system |
5.6.15. | Carbon capture technology & FuelCell Energy |
5.6.16. | FuelCell Energy financials |
5.6.17. | FuelCell Energy revenue splits |
5.6.18. | FuelCell Energy and ExxonMobil (EMTEC) partnership |
5.6.19. | FuelCell Energy and Drax Group |
5.6.20. | FuelCell Energy in the South Korean market |
5.6.21. | Emerging player - EcoSpray |
5.7. | Direct methanol fuel cells |
5.7.1. | Direct methanol fuel cells overview |
5.7.2. | DMFCs working principle |
5.7.3. | Materials and structure |
5.7.4. | Electrolyte |
5.7.5. | Anode catalysts and reaction |
5.7.6. | Cathode catalysts |
5.7.7. | Operating conditions |
5.7.8. | Cell degradation |
5.7.9. | DMFC advantages and disadvantages |
5.7.10. | DMFC technology conclusions |
5.7.11. | DMFC market players |
5.7.12. | DMFC market landscape |
5.7.13. | SFC Energy overview |
5.7.14. | SFC Energy technology overview |
5.7.15. | SFC Energy - DMFC technology specifications |
5.7.16. | SFC Energy financials |
5.7.17. | SFC Energy revenue split by region |
5.7.18. | Ensol Systems and SFC Energy partnership |
5.7.19. | DMFC Corp overview |
5.7.20. | DMFC Corp products |
5.7.21. | Antig- Fuel Cell Innovation overview |
5.7.22. | Antig technology overview |
5.7.23. | Fujikura overview |
6. | ALTERNATIVE POWER GENERATION TECHNOLOGIES |
6.1. | Alternative technologies to stationary fuel cells |
6.2. | What is long duration energy storage? |
6.3. | Energy storage technology classification |
6.4. | Key energy storage technologies benchmarking with advantages and disadvantages |
6.5. | Longer duration Li-ion BESS projects on the rise |
6.6. | Hydrogen combustion engines overview |
6.7. | Hydrogen combustion engines for stationary power generation |
6.8. | Diesel generators overview |
6.9. | Global initiatives for the removal of diesel fuel and generators |
6.10. | Diesel generator market players |
7. | APPLICATIONS |
7.1.1. | Worldwide energy demand growth |
7.1.2. | Stationary fuel cell applications |
7.1.3. | Overview of the stationary fuel cell application market |
7.1.4. | Continuous power generation applications and requirements |
7.1.5. | Backup power generation applications and requirements |
7.1.6. | Peak shaving applications and requirements |
7.2. | Industrial |
7.2.1. | Overview of industrial applications |
7.2.2. | Industrial application considerations |
7.2.3. | Technology benchmarking for industrial applications |
7.2.4. | PEMFC industrial case studies |
7.2.5. | SOFC industrial case studies |
7.2.6. | PAFC industrial case studies |
7.2.7. | MCFC industrial case studies |
7.2.8. | Conclusions: Fuel cells for industrial power generation |
7.3. | Commercial |
7.3.1. | Overview of commercial applications |
7.3.2. | Commercial application technology considerations |
7.3.3. | Technology benchmarking for commercial applications |
7.3.4. | PEMFC commercial case studies |
7.3.5. | SOFC commercial case studies |
7.3.6. | PAFC commercial case studies |
7.3.7. | AFC small scale commercial case studies |
7.3.8. | Conclusions: Fuel cells for commercial power generation |
7.4. | Utilities |
7.4.1. | Overview of utilities applications |
7.4.2. | Utilities application considerations |
7.4.3. | Technology benchmarking for utilities |
7.4.4. | PEMFC utilities generation case studies |
7.4.5. | SOFC utilities case studies |
7.4.6. | PAFC utilities case studies |
7.4.7. | MCFC utilities case studies |
7.4.8. | AFC utilities case studies |
7.4.9. | Conclusions: Fuel cells for utilities power generation |
7.5. | Data centres & Telecommunications |
7.5.1. | Overview of data centres and telecommunication applications |
7.5.2. | Data centres power demand growth |
7.5.3. | Data centres and telecom application technology considerations |
7.5.4. | Technology benchmarking for data centres and telecommunications applications |
7.5.5. | PEMFC telecommunications case studies |
7.5.6. | PEMFC data centre case studies |
7.5.7. | SOFC data centre case studies |
7.5.8. | AFC telecommunications case studies |
7.5.9. | DMFC telecommunications case studies |
7.5.10. | DMFC telecommunications and remote monitoring case studies |
7.5.11. | Conclusions: Fuel cells for telecommunications and data centres |
7.6. | Residential |
7.6.1. | Overview of residential applications |
7.6.2. | Residential application technology considerations |
7.6.3. | Technology benchmarking for residential applications |
7.6.4. | Feed-in tariffs (FiT) and solar power incorporation |
7.6.5. | Comparison with residential batteries |
7.6.6. | Outlook for solid oxide fuel cells |
7.6.7. | Conclusions: Residential fuel cells |
8. | COMPANY PROFILES |
8.1. | AFC Energy |
8.2. | Alma Clean Power: Solid-Oxide Fuel Cells for Transport |
8.3. | Aris Renewable Energy |
8.4. | AVL: Solid Oxide Fuel Cells |
8.5. | Ballard Power Systems |
8.6. | Bloom Energy |
8.7. | Ceres (2024) |
8.8. | Ceres Power (2023) |
8.9. | Cummins: Solid Oxide Fuel Cells |
8.10. | Doosan Fuel Cell |
8.11. | Edge Autonomy |
8.12. | Elcogen |
8.13. | FuelCell Energy |
8.14. | Fuji Electric (PAFC) |
8.15. | GenCell Energy |
8.16. | Intelligent Energy |
8.17. | Nedstack |
8.18. | Osaka Gas: Solid Oxide Fuel Cell |
8.19. | OxEon Energy |
8.20. | Plug Power |
8.21. | PowerCell |
8.22. | Redox Power Systems |
8.23. | SFC Energy |
8.24. | SOLIDpower |
8.25. | Sunfire |
8.26. | Toshiba (Fuel Cell Business) |
8.27. | Upstart Power |