1. | EXECUTIVE SUMMARY |
1.1. | Key takeaways (1) |
1.2. | Key takeaways (2) |
1.3. | Major EV categories |
1.4. | Major EV categories |
1.5. | Future role for battery pack manufacturers |
1.6. | Remarks on battery manufacturers |
1.7. | Battery pack comparison |
1.8. | Turnkey battery pack performance comparison |
1.9. | Chemistry choices in turnkey EV packs |
1.10. | Turnkey battery design choices -cell form factor and cooling |
1.11. | Pack manufacturers |
1.12. | Trends in battery management systems |
1.13. | BMS patent landscape |
1.14. | BMS players |
1.15. | Innovations in BMS |
1.16. | Advanced BMS activity |
1.17. | BMS solutions for fast charging |
1.18. | Improvements to battery performance from BMS development |
1.19. | Regional BEV chemistry trends |
1.20. | EV cell supplier share |
1.21. | BEV cell form factors |
1.22. | BEV cell energy density trends |
1.23. | Development trends to LIB technology |
1.24. | Technology roadmap |
1.25. | Li-ion market demand shifts |
1.26. | BEV car pack price |
1.27. | EV Li-ion demand (GWh) |
1.28. | EV Li-ion battery market (US$B) |
2. | INTRODUCTION |
2.1. | Electric Vehicles: Basic Principle |
2.2. | Electric Vehicle Terms |
2.3. | Drivetrain Specifications |
2.4. | Parallel and Series Hybrids: Explained |
2.5. | What are the Barriers for Electric Vehicles? |
2.6. | What are the Barriers for Electric Vehicles? |
2.7. | Carbon emissions from electric vehicles |
2.8. | Policy and the Li-ion battery market |
2.9. | Electric vehicle policy |
2.10. | Impact of EV policy |
2.11. | Automaker EV Targets |
3. | LI-ION CELL TECHNOLOGY |
3.1. | Li-ion cells (cathodes, anodes, form factor, performance trends) |
3.1.1. | Importance of Li-ion |
3.1.2. | What is a Li-ion battery? |
3.1.3. | Lithium battery chemistries |
3.1.4. | Why lithium-ion? |
3.1.5. | Types of lithium battery |
3.1.6. | The Li-ion Supply Chain |
3.1.7. | Cell production capacity outlook |
3.1.8. | The Battery Trilemma |
3.1.9. | Battery wish list |
3.1.10. | Cathode comparisons - overview |
3.1.11. | Cathode performance comparison |
3.1.12. | Chemistry energy density comparison |
3.1.13. | Suitability of LFP for EVs |
3.1.14. | Impact of material price increases |
3.1.15. | Cathode prices |
3.1.16. | LFP in EVs |
3.1.17. | Anode comparisons - overview |
3.1.18. | Anode performance comparison |
3.1.19. | Anode share |
3.1.20. | Historic average cell price |
3.1.21. | How low can cell costs go? |
3.1.22. | How low can cell costs go? |
3.1.23. | Cell Types |
3.1.24. | Automotive format choices |
3.1.25. | Cell Format Market Share |
3.1.26. | Cell Format Comparison |
3.1.27. | Cell sizes |
3.1.28. | 4680 cylindrical cells |
3.1.29. | Comparing commercial cell chemistries |
3.1.30. | Commercial cell specifications |
3.1.31. | Commercial Li-ion cell performance |
3.1.32. | EV cell specifications |
3.1.33. | Increasing BEV battery cell specific energy |
3.1.34. | Increasing BEV battery cell energy density |
3.1.35. | Improvements to energy density |
3.1.36. | Timeline and outlook for Li-ion energy densities |
3.1.37. | Cycle life requirements for electric vehicles |
3.2. | Next-generation cell technology |
3.2.1. | How much can silicon improve energy density? |
3.2.2. | Current silicon use |
3.2.3. | Silicon use in EVs |
3.2.4. | Silicon and LFP |
3.2.5. | Partnerships and investors - solid-state and silicon |
3.2.6. | Automotive solid-state and silicon comparison |
3.2.7. | Notable players for solid-state EV battery technology |
3.2.8. | Notable players for silicon EV battery technology |
3.2.9. | Solid-state - Blue Solutions |
3.2.10. | Solid-state - Prologium |
3.2.11. | Pack considerations for SSBs |
3.2.12. | Silicon anodes - Enevate |
3.2.13. | Potential disruptors to conventional Li-ion |
3.2.14. | Cell chemistry comparison - quantitative |
3.2.15. | Concluding remarks |
3.2.16. | Value proposition of Na-ion batteries |
3.2.17. | Na-ion can offer cost competitive alternative to Li-ion |
3.2.18. | Na-ion to compliment Li-ion not replace |
4. | LI-ION BATTERY PACKS |
4.1. | Li-ion battery packs (cell-to-pack, 800V, bipolar) |
4.1.1. | Li-ion Batteries: from Cell to Pack |
4.1.2. | Shifts in Cell and Pack Design |
4.1.3. | Battery KPIs for EVs |
4.1.4. | Modular pack designs |
4.1.5. | Ultium BMS |
4.1.6. | What is Cell-to-pack? |
4.1.7. | Drivers and Challenges for Cell-to-pack |
4.1.8. | What is Cell-to-chassis/body? |
4.1.9. | BYD Blade battery |
4.1.10. | CATL Cell to Pack |
4.1.11. | CATL's CTP battery evolution |
4.1.12. | Cell-to-pack and Cell-to-body Designs Summary |
4.1.13. | Gravimetric Energy Density and Cell-to-pack Ratio |
4.1.14. | Volumetric Energy Density and Cell-to-pack Ratio |
4.1.15. | Cell-to-pack or modular? |
4.1.16. | Outlook for Cell-to-pack & Cell-to-body Designs |
4.1.17. | Bipolar batteries |
4.1.18. | Bipolar-enabled CTP |
4.1.19. | ProLogium: "MAB" EV battery pack assembly |
4.1.20. | EV battery pack assembly |
4.1.21. | Increasing BEV voltage |
4.1.22. | Drivers for 800V Platforms |
4.1.23. | Emerging 800V Platforms & SiC Inverters |
4.2. | Hybrid and dual-chemistry battery packs |
4.2.1. | Introduction to hybrid energy storage systems |
4.2.2. | Hybrid energy storage topologies |
4.2.3. | Electric vehicle hybrid battery packs |
4.2.4. | CATL hybrid Li-ion and Na-ion pack concept |
4.2.5. | CATL hybrid pack designs |
4.2.6. | Our Next Energy |
4.2.7. | High energy plus high cycle life |
4.2.8. | Nio's dual-chemistry battery |
4.2.9. | Dual chemistry battery for thermal performance |
4.2.10. | Nio hybrid battery operation |
4.2.11. | Fuel cell electric vehicles |
4.2.12. | Hybrid battery + supercapacitor |
4.2.13. | SWOT of dual-chemistry battery pack |
4.2.14. | Concluding remarks on dual-chemistry batteries |
4.3. | Pack materials |
4.3.1. | Battery Pack Materials |
4.3.2. | Battery Enclosure Materials and Competition |
4.3.3. | From Steel to Aluminium |
4.3.4. | Towards Composite Enclosures? |
4.3.5. | Composite Enclosure EV Examples (1) |
4.3.6. | Composite Enclosure EV Examples (2) |
4.3.7. | Projects for Composite Enclosure Development (1) |
4.3.8. | Projects for Composite Enclosure Development (2) |
4.3.9. | Battery Enclosure Materials Summary |
4.3.10. | Energy Density Improvements with Composites |
4.3.11. | Compression Pads/foams |
4.3.12. | Polyurethane Compression Pads |
4.3.13. | Players in Compression Pads/foams |
4.3.14. | Example use in EVs: Ford Mustang Mach-E |
4.4. | Thermal management |
4.4.1. | Stages of thermal runaway |
4.4.2. | Introduction to Thermal Interface Materials for EVs |
4.4.3. | TIM Pack and Module Overview |
4.4.4. | TIM Application - Pack and Modules |
4.4.5. | TIM Application by Cell Format |
4.4.6. | Key Properties for TIMs in EVs |
4.4.7. | Switching to Gap Fillers from Pads |
4.4.8. | Thermally Conductive Adhesives in EV Batteries |
4.4.9. | Material Options and Market Comparison |
4.4.10. | TIM Chemistry Comparison |
4.4.11. | Thermal Interface Material Trends |
4.4.12. | Gap Filler to Thermally Conductive Adhesives |
4.4.13. | Thermal System Architecture |
4.4.14. | Coolant Fluids in EVs |
4.4.15. | Introduction to EV Battery Thermal Management |
4.4.16. | Battery Thermal Management Strategy by OEM |
4.4.17. | Thermal Management in Cell-to-pack Designs |
4.4.18. | Inter-cell Heat Spreaders or Cooling Plates |
4.4.19. | Thermal Runaway and Fires in EVs |
4.4.20. | EV Fires: When Do They Happen? |
4.4.21. | Regulations |
4.4.22. | What are Fire Protection Materials? |
4.4.23. | Thermally Conductive or Thermally Insulating? |
4.4.24. | Fire Protection Materials: Main Categories |
4.4.25. | Material comparison |
5. | BATTERY MANAGEMENT SYSTEMS |
5.1. | Battery management systems |
5.1.1. | Battery performance definitions |
5.1.2. | Trends in battery management systems |
5.1.3. | BMS introduction |
5.1.4. | Introduction to battery management systems |
5.1.5. | BMS core functionality |
5.1.6. | Functions of a BMS |
5.1.7. | Cell control |
5.1.8. | BMS core hardware |
5.1.9. | BMS structure |
5.1.10. | Block diagram of BMS - generic |
5.1.11. | BMS topologies |
5.1.12. | BMS topologies |
5.1.13. | BMS topology evaluation |
5.1.14. | State estimation |
5.1.15. | SoC estimation |
5.1.16. | SoC estimation |
5.1.17. | SoC and SoH estimation methods |
5.1.18. | State of Health (SoH) |
5.1.19. | Improving state estimation |
5.1.20. | Remaining Useful Life (RUL) |
5.1.21. | Remaining Useful Life (RUL) |
5.1.22. | Remaining Useful Life (RUL) estimation |
5.1.23. | Data-driven approaches to RUL estimation |
5.1.24. | Flowcharts for determining RUL |
5.1.25. | Flowcharts for determining RUL via machine-learning (ML) |
5.1.26. | Consequences of cell imbalance |
5.1.27. | Cell balancing |
5.1.28. | Fast charging limitations |
5.1.29. | Impact of fast-charging |
5.1.30. | Fast charging protocols |
5.1.31. | Electric car charging profiles |
5.1.32. | BMS solutions for fast charging |
5.1.33. | Cloud analytics and SaaS |
5.1.34. | Key patent classifications |
5.1.35. | BMS patent landscape topics |
5.1.36. | BMS patent landscape |
5.1.37. | BMS patent assignees |
5.1.38. | BMS patent landscape regional activity |
5.1.39. | Innovations in BMS |
5.1.40. | Improvements from BMS development |
5.2. | BMS players |
5.2.1. | BMS activity |
5.2.2. | BMS companies |
5.2.3. | BMS companies |
5.2.4. | BMS players |
5.2.5. | Advanced BMS activity |
5.2.6. | Advanced BMS players |
5.2.7. | Lithium Balance |
5.2.8. | Qnovo |
5.2.9. | Qnovo |
5.2.10. | Breathe Battery Technologies |
5.2.11. | GBatteries |
5.2.12. | Iontra |
5.2.13. | Iontra technology |
5.2.14. | Eatron Technologies |
5.2.15. | Eatron RUL estimation |
5.2.16. | Titan AES |
5.2.17. | Brill Power |
5.2.18. | Relectrify |
5.2.19. | Nerve Smart Systems |
5.3. | Wireless BMS |
5.3.1. | Introduction to wireless BMS |
5.3.2. | Development of wireless BMS |
5.3.3. | Analog Devices wBMS |
5.3.4. | Texas Instruments wBMS |
5.3.5. | Wireless BMS hardware |
5.3.6. | Dukosi |
5.3.7. | Wireless BMS patent example |
5.3.8. | Wireless BMS players |
5.3.9. | Wireless BMS pros and cons |
5.4. | Battery management system semiconductors and ICs |
5.4.1. | BMS semiconductor introduction |
5.4.2. | Block diagram of BMS - NXP |
5.4.3. | Block diagram of BMS - ST Micro |
5.4.4. | Block diagram of BMS - Infineon |
5.4.5. | Example monitoring and balancing IC |
5.4.6. | Example microcontroller |
5.4.7. | Microcontroller technology |
5.4.8. | MCU - product table |
5.4.9. | Monitoring and balancing IC |
5.4.10. | BMS innovation |
6. | PACK MANUFACTURERS - COMMERCIAL VEHICLES |
6.1. | Developments in pack manufacturers |
6.2. | Acquisitions of pack manufacturers |
6.3. | Module and pack manufacturing process |
6.4. | Module and pack manufacturing |
6.5. | Non-car battery pack manufacturing |
6.6. | Differences in design |
6.7. | Differences in pack design |
6.8. | Role of battery pack manufacturers |
6.9. | Metrics to compare pack manufacturers |
6.10. | Battery pack manufacturers - Europe |
6.11. | Battery pack manufacturers |
6.12. | Battery pack manufacturers - North America |
6.13. | Battery pack manufacturers |
6.14. | Asian module and pack manufacturers |
6.15. | Battery pack comparison |
6.16. | Battery module/pack comparison |
6.17. | Battery pack performance comparison |
6.18. | Battery pack/module comparison |
6.19. | Battery pack/module comparison |
6.20. | Turnkey battery design choices -cell form factor and cooling |
6.21. | Energy density comparison by form factor |
6.22. | Energy density comparison by cooling method |
6.23. | Chemistry choices in turnkey EV packs |
6.24. | Truck battery chemistry examples |
6.25. | Cycle life requirements |
6.26. | Chemistry and form factors of turnkey solutions |
6.27. | Pack manufacturer revenue estimates |
6.28. | Microvast |
6.29. | Microvast |
6.30. | Forsee Power |
6.31. | Forsee Power batteries |
6.32. | Xerotech |
6.33. | Borg Warner battery packs |
6.34. | Webasto |
6.35. | BMZ |
6.36. | Kore Power |
6.37. | Proterra |
6.38. | Electrovaya |
6.39. | American Battery Solutions |
6.40. | Leclanche |
6.41. | WAE Technologies |
6.42. | Future role for battery pack manufacturers |
6.43. | Concluding remarks on battery manufacturers |
7. | SECTORS AND EV SEGMENTS |
7.1. | Introduction |
7.1.1. | Major EV categories |
7.1.2. | Major EV categories |
7.1.3. | Application battery priorities |
7.2. | BEVs |
7.2.1. | Electric cars |
7.2.2. | Global BEV chemistry trends |
7.2.3. | Regional BEV chemistry trends |
7.2.4. | EV cell supplier share |
7.2.5. | EV cell supplier share |
7.2.6. | BEV cell form factors |
7.2.7. | Cell form factor trends by region |
7.2.8. | BEV cell energy density trends |
7.2.9. | BEV pack energy density trends |
7.2.10. | BEV energy density trends by region |
7.2.11. | Electric car battery size trend |
7.2.12. | Hybrid electric vehicles |
7.3. | Electric buses, vans and trucks |
7.3.1. | Other Vehicle Categories |
7.3.2. | Cycle life requirements for commercial electric vehicles |
7.3.3. | Electric medium and heavy duty trucks |
7.3.4. | Electric light commercial vehicles |
7.3.5. | Drivers and timing of bus electrification |
7.3.6. | Electric Buses: Market History |
7.3.7. | Chemistries used in electric buses |
7.3.8. | China eBus Battery Market |
7.3.9. | Chinese Battery Manufacturers for eBuses |
7.3.10. | The Rise of Zero Emission Trucks |
7.3.11. | CO2 Emission: Medium & Heavy-Duty Trucks |
7.3.12. | Fuel / CO2 Regulation for New Trucks |
7.3.13. | Fuel Saving Technology Areas |
7.3.14. | Zero Emission Trucks: Drivers and Barriers |
7.3.15. | Installed Battery Capacity by Truck Weight |
7.3.16. | E-Truck OEM Battery Chemistry Choice |
7.3.17. | Heavy-Duty Battery Choice: Range & Payload |
7.3.18. | Battery Chemistry Tailored to Duty Requirement |
7.3.19. | The EV revolution is happening on two wheels |
7.3.20. | China and India are major three-wheeler markets |
7.3.21. | Policies supporting two and three-wheelers |
7.3.22. | Electrification is occurring faster in the three-wheeler markets |
7.3.23. | Micro EV types |
7.3.24. | European two-wheeler classification |
7.3.25. | Micro EV characteristics |
7.3.26. | Battery chemistry choices |
7.3.27. | Lead-acid vs lithium-ion |
7.3.28. | Battery cost of two-wheelers in China |
7.3.29. | Lithium-ion two-wheelers on the rise |
7.4. | Electric off-road (construction, material handling, marine) |
7.4.1. | Drivers for Construction Vehicle Electrification |
7.4.2. | Advantages of / Barriers to Machine Electrification |
7.4.3. | Performance Advantages of an Electric Excavator |
7.4.4. | Battery Sizes for Different Vehicle Types |
7.4.5. | Options for Meeting Power Duty Cycle Power Demand |
7.4.6. | Chinese OEMs Large Battery Excavators |
7.4.7. | Battery Requirements in Construction: Performance |
7.4.8. | Construction Equipment Electrification Opportunities (1) |
7.4.9. | Construction Equipment Electrification Opportunities (2) |
7.4.10. | Known construction & battery supplier relationships (1) |
7.4.11. | Known construction & battery supplier relationships (2) |
7.4.12. | Key performance indicators for train battery systems |
7.4.13. | Battery Chemistry Benchmarking for Trains |
7.4.14. | Operational Energy Demand for Battery Sizing |
7.4.15. | Battery System Suppliers to Rail OEMs |
7.4.16. | Toshiba LTO Battery Rail Projects & Market |
7.4.17. | Forsee Power Target Light Rail Applications |
7.4.18. | Rail Battery System Prices by Chemistry US$/kWh |
7.4.19. | Intralogistics shifting to Li-ion |
7.4.20. | Intralogistics Li-ion partnerships |
7.4.21. | Li-ion intralogistics chemistries |
7.4.22. | Summary of market drivers for electric & hybrid marine |
7.4.23. | Overview of policy for maritime batteries |
7.4.24. | Shifting Emission Policy Focus |
7.4.25. | The importance of batteries in hybrid systems |
7.4.26. | Why marine batteries are unique |
7.4.27. | Marine systems: stacks & strings scaling to MWh |
7.4.28. | Marine battery system specs |
7.4.29. | Battery chemistries for marine applications |
8. | FORECASTS |
8.1. | Electric car Li-ion demand forecast (GWh) |
8.2. | Electric bus, truck and van battery forecast (GWh) |
8.3. | Micro EV Li-ion demand forecast (GWh) |
8.4. | Global electric vehicle Li-ion demand (GWh) |
8.5. | Li-ion forecast by cathode (GWh) |
8.6. | Cell price forecast |
8.7. | BEV car pack price |
8.8. | Electric car Li-ion battery market forecast (US$B) |
8.9. | On-road EV Li-ion battery market (US$B) |
8.10. | EV Li-ion battery market (US$B) |
8.11. | EV Li-ion battery market (US$B) |