1. | EXECUTIVE SUMMARY |
1.1. | Introduction and Overview of this Report |
1.2. | Key Report Takeaways |
1.3. | Scope of this Report |
1.4. | Copper in an ICE Car |
1.5. | Advantages of copper for wiring |
1.6. | Wiring Loom Forecast 2023-2034 |
1.7. | Copper and Powertrain Electrification |
1.8. | Electric Traction Motors and their Copper |
1.9. | Copper Within Li-ion Cells |
1.10. | Cathode Market Share and Battery Pack Copper Intensity (2015-2034) |
1.11. | Copper for High Voltage Connections in an EV |
1.12. | Al HV Cables Market Adoption |
1.13. | Copper Within Power Electronics |
1.14. | SAE Levels of Automation in Cars |
1.15. | Copper for Automating Vehicles |
1.16. | Number of Sensors For Each Autonomy Level |
1.17. | Copper Required for a BEV Robotaxi |
1.18. | Copper Content per Vehicle 2020-2034 |
1.19. | Automotive Market Forecast 2020-2034 |
1.20. | Total Copper Demand Forecast 2020-2034 |
1.21. | Forecast of Copper Demand by Main Applications 2020-2034 |
1.22. | Copper Demand Forecast within Electrification Components 2020-2034 |
1.23. | Copper Demand Forecast for Autonomous Technologies Forecast 2020-2034 |
2. | INTERNAL COMBUSTION ENGINE CARS AND NON-POWERTRAIN COPPER |
2.1.1. | Historic Copper Content |
2.1.2. | Copper in an ICE Car |
2.2. | Wiring Loom |
2.2.1. | The Wiring Loom |
2.2.2. | Wiring Loom: ICE Connections |
2.2.3. | Wiring Loom: Other Connections |
2.2.4. | Technical Advantages of Copper in the Wiring Loom |
2.2.5. | Other Advantages of Copper |
2.2.6. | Summary of Advantages of Copper for Wiring |
2.2.7. | Wiring Loom Cu Estimate: Method 1 |
2.2.8. | Wiring Loom Cu Estimate: Method 2 |
2.2.9. | Wiring Loom Cu Estimate: Method 3 |
2.2.10. | Wiring Loom Cu Estimate: Method 4 |
2.2.11. | Wiring Loom Reduction |
2.2.12. | Wiring Loom Reduction: Substitution and Gauge |
2.2.13. | Wiring Loom Reduction: Network Optimisation |
2.2.14. | Communication Protocols CAN vs Ethernet |
2.2.15. | Wiring Loom Growth |
2.2.16. | Wiring Loom Growth/Reduction Factor Forecast |
2.2.17. | Wiring Loom Forecast 2023-2034 |
2.2.18. | Wiring Loom Summary |
2.3. | Starter, Alternator, Small Motors and Other |
2.3.1. | Bigger Non-Traction Motors in the Vehicle |
2.3.2. | Starter Motor and Alternator Copper Content |
2.3.3. | Starter motor |
2.3.4. | Alternators |
2.3.5. | Small Motors |
2.3.6. | Power Steering and Anti-Lock Brakes |
2.3.7. | Fans and blowers |
2.3.8. | Small Motors in Luxury Features |
2.3.9. | Electric windows, wipers and mirrors |
2.3.10. | Electric Seats |
2.3.11. | Electric Tailgates and Electrically Adjusted Steering Column |
2.3.12. | Japanese Small Cars, Sliding Seats and Doors |
2.3.13. | Infotainment |
2.3.14. | Airconditioning and Thermal Management- Condenser and Evaporator Cores |
2.3.15. | A/C and Thermal Management Now Completely Aluminium |
2.3.16. | Other Components |
2.3.17. | Copper from ICE Cars |
2.3.18. | Non-Powertrain Copper |
2.3.19. | Summary and Conclusions |
3. | ELECTRIC MOTORS FOR ELECTRIC VEHICLES |
3.1.1. | Electric Motors |
3.1.2. | Summary of Traction Motor Types |
3.1.3. | Materials Used in Electric Motors |
3.2. | Rotor and Stator Windings |
3.2.1. | Aluminium vs Copper in Rotors |
3.2.2. | Round Wire vs Hairpins for Copper in Stators |
3.2.3. | Round vs Bar Windings: OEMs |
3.2.4. | Hairpin Winding Regional Market Shares |
3.2.5. | Aluminium vs Copper Windings |
3.2.6. | Compressed Aluminum Windings |
3.2.7. | Aluminum Windings: Players |
3.3. | Electric Motor Market Trends |
3.3.1. | Convergence on PM by Major Automakers |
3.3.2. | Motor Number, Type and Power Trends: Global 2015-2022 |
3.3.3. | Motor Trends That Could Impact Copper Utilisation |
3.3.4. | Magnet Price Increase Risk |
3.3.5. | Reducing Rare-Earths Can Increase Copper |
3.4. | Axial Flux Motors |
3.4.1. | Radial vs Axial Flux Motors |
3.4.2. | Axial Flux Motors Enter the EV Market |
3.4.3. | Copper for Axial Flux Motors |
3.5. | In-Wheel Motors |
3.5.1. | In-Wheel Motors: Benefits |
3.5.2. | In-Wheel Motors: Downsides |
3.5.3. | Examples of Vehicles with In-Wheel Motors |
3.5.4. | Copper for In-Wheel Motors |
3.5.5. | Future of In-Wheel Motors |
3.6. | Electric Motor Copper Intensity Examples |
3.6.1. | Audi e-tron Induction Motor |
3.6.2. | BMW i3 Permanent Magnet Motor |
3.6.3. | BMW Wound Rotor Motor |
3.6.4. | Renault Zoe Wound Rotor Design |
3.6.5. | Tesla Model S ACIM Cu Calculation |
3.6.6. | Tesla Induction Motor |
3.6.7. | Tesla Model 3 Permanent Magnet Motor |
3.6.8. | Copper Content in BEV Electric Traction Motors (Cars) |
3.6.9. | Copper Estimates in HEV Car Motors |
3.6.10. | Copper Estimates in BEV Car Motors |
3.6.11. | Copper Intensity in Different Drivetrains |
3.7. | Forecasts and Assumptions |
3.7.1. | Commentary on Electric Traction Motor Trends in Cars |
3.7.2. | Automotive Electric Motor Copper Forecast (Drivetrain) 2015-2034 |
3.7.3. | Automotive Electric Motor Copper Forecast (Motor Type) 2015-2034 |
3.7.4. | Automotive Electric Motor Copper Forecast (Region) 2015-2034 |
4. | COPPER INTENSITY AND DEMAND FROM BATTERY CELLS |
4.1.1. | What is a Li-ion Battery? |
4.1.2. | Lithium Battery Chemistries |
4.1.3. | Li-ion Batteries: From Cell to Pack |
4.1.4. | Materials Found in Cells and Battery Packs |
4.1.5. | Where is copper used in a Li-ion battery cell? |
4.1.6. | Why use copper as the anode current collector? |
4.1.7. | Are there alternatives to copper? |
4.1.8. | Technological impacts on copper use over the next 10 years |
4.1.9. | Copper in other batteries? |
4.1.10. | Introduction to copper material intensity and demand |
4.1.11. | Copper Intensity Changes with Chemistry |
4.1.12. | Copper Intensity by Cathode Chemistry |
4.1.13. | Anode Materials |
4.1.14. | Copper Intensity by Anode Chemistry |
4.1.15. | Copper Intensity by Cell Design Factors |
4.1.16. | Copper intensity by cell design factors |
4.1.17. | Examples of Thin Current collectors |
4.1.18. | Copper intensity for hybrids |
4.1.19. | Routes to better Li-ion and alternatives |
4.1.20. | Impact of next-gen BEV battery technology |
4.1.21. | IDTechEx Li-ion battery timeline |
4.1.22. | Is there potential for copper reduction? |
4.1.23. | Next generation technologies |
4.2. | BEV Batteries |
4.2.1. | Cathode Market Share for Li-ion in EVs (2015-2033) |
4.2.2. | Average Li-ion cell copper intensity outlook |
4.2.3. | Current copper use in BEV battery packs |
4.2.4. | Introduction to Battery Interconnects |
4.2.5. | Aluminum vs Copper for Interconnects |
4.2.6. | Copper use in BEV battery packs |
4.2.7. | Cell-to-Pack Trends |
4.2.8. | Shifts in cell and pack design |
4.2.9. | Copper per BEV battery pack |
4.2.10. | Copper Content of BEV, PHEV, HEV, and FCEV Batteries |
4.2.11. | Battery Pack Copper Forecast (Drivetrain) 2015-2034 |
5. | HIGH VOLTAGE CABLES |
5.1.1. | High Voltage Connections in an EV |
5.1.2. | Common Cable Specifications by Connection |
5.1.3. | Shielded vs Unshielded Cables |
5.1.4. | Tesla High Voltage Cables |
5.1.5. | BEV Examples |
5.1.6. | High Voltage Cable Length Trends |
5.2. | Core Conductor |
5.2.1. | Copper vs Aluminum Cables |
5.2.2. | Aluminium HV Cabling Disadvantages |
5.2.3. | Electrical Properties |
5.2.4. | Weight |
5.2.5. | Cost |
5.2.6. | Al HV Cable Manufacturers for EVs |
5.2.7. | Al HV Cable Manufacturers for EVs |
5.2.8. | Tesla Model 3 Al Cable |
5.2.9. | Al HV Cables Market Adoption |
5.2.10. | High Voltage Cable Copper Forecast (Drivetrain) 2015-2034 |
5.2.11. | High Voltage Cable Copper Forecast (Region) 2015-2034 |
6. | POWER ELECTRONICS |
6.1.1. | What is Power Electronics? |
6.1.2. | Power Electronics Use in Electric Vehicles |
6.1.3. | Benchmarking Silicon, Silicon Carbide & Gallium Nitride Semiconductors |
6.1.4. | Traditional EV Inverter |
6.1.5. | Discretes & Modules |
6.1.6. | Power Discretes and Power Modules |
6.1.7. | Module Packaging Material Dimensions |
6.1.8. | SiC Die Area Reduction |
6.1.9. | Advanced Wire Bonding Techniques |
6.1.10. | Tesla's SiC package |
6.1.11. | Multi-Layered Printed Circuit Boards |
6.1.12. | Tesla Model 3 Inverter PCB |
6.1.13. | Nissan Leaf Inverter PCB |
6.1.14. | Copper Intensity in Si IGBT EV Inverter |
6.1.15. | Copper Intensity in Silicon Carbide EV Inverter |
6.1.16. | Inverter Trends: Impact on Copper |
6.1.17. | Tesla Onboard Charger |
6.1.18. | OBC Copper Intensity |
6.1.19. | DC DC Converter Copper Intensity |
6.1.20. | Copper Intensity in Power Electronics |
6.1.21. | Power Electronics Copper Forecast (Drivetrain) 2020-2034 |
6.1.22. | Power Electronics Copper Forecast (Component) 2020-2034 |
6.1.23. | Power Electronics Copper Forecast (Region) 2020-2034 |
6.1.24. | Power Electronics Key Conclusions |
6.2. | Summary of Copper for Powertrains |
6.2.1. | Copper and Powertrain Electrification |
6.2.2. | Powertrain Copper Forecast 2015-2034 |
7. | COPPER CONTENT IN AUTONOMOUS SYSTEMS AND THEIR COMPONENTS |
7.1.1. | SAE Levels of Automation in Cars |
7.1.2. | Each Sensors Key Appeals in an Autonomous Vehicle |
7.1.3. | Copper in Autonomous Sensors |
7.1.4. | Copper in Autonomous Vehicles |
7.1.5. | Key Radar Trend: Size Reduction |
7.1.6. | Radar Copper Content |
7.1.7. | Radar Board Shrinkage and Impact on Copper |
7.1.8. | Diverging Radar Types |
7.1.9. | Camera Copper Content |
7.1.10. | Impact of Late Sensor Fusion |
7.1.11. | LiDAR Copper Content |
7.1.12. | Important Trends In LiDAR |
7.1.13. | ADCU - Autonomous Driving Control Unit |
7.2. | The Developing Autonomous Cars Market |
7.2.1. | Transition to Higher Levels of Autonomy in Private Cars |
7.2.2. | Case Study: Mercedes S-Class (2021), EQS (2022) |
7.2.3. | Mercedes S-class - Sensor Suite |
7.2.4. | Case study - Audi A8 (2017) |
7.2.5. | Tesla's Sensor Suite |
7.2.6. | Sensors in Private Autonomous Vehicles |
7.2.7. | Emergence of level 3 and Level 4 Technologies |
7.2.8. | Level 4 Robotaxis are Different From Privately Owned Level 4 |
7.2.9. | State of development |
7.2.10. | Waymo Sensor Suite |
7.2.11. | Cruise Sensor Suite |
7.2.12. | Robotaxi Testing and Deployment Locations |
7.2.13. | Total Sensors For Level 0 to Level 4 and Robotaxis |
7.2.14. | Number of Sensors For Each Autonomy Level |
7.2.15. | Total Copper to Automate Vehicles |
7.2.16. | Autonomous and ADAS Sensors Forecast 2020-2034 |
7.2.17. | Copper Demand for Autonomous Technologies Forecast 2020-2034 |
8. | FORECASTS |
8.1. | Methodology |
8.2. | Addressable Market Forecast (SAE Level) 2020-2034 |
8.3. | Addressable Market Forecast (Powertrain) 2015-2034 |
8.4. | Addressable Market Forecast (Region) 2015-2034 |
8.5. | Total Copper Demand (all components) 2020-2034 |
8.6. | Total Copper Demand (Main Applications) 2020-2034 |
8.7. | Total Copper Demand (Region) 2020-2034 |
8.8. | Copper for Electrification (Components) 2020-2034 |
8.9. | Copper for Electrification (Powertrain) 2020-2034 |
8.10. | Copper for Electrification (Regions) 2020-2034 |
8.11. | Copper Demand for Autonomous Technologies Forecast 2020-2034 |
8.12. | Copper For Automation (SAE Level) |
8.13. | Copper For Automation (Region) |