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1. | EXECUTIVE SUMMARY AND CONCLUSIONS |
1.1. | Focus of this report and primary trends |
1.1.1. | Important trends |
1.1.2. | Great improvements in traction motors with their controls are both needed and possible |
1.2. | Example of multiple REM per vehicle |
1.3. | Powertrain focus |
1.4. | Motor-generator REM duty cycle, type, function |
1.5. | Motor-generator REM improvements needed, number of manufacturers/ developers |
1.6. | REM technology |
1.6.1. | Choices |
1.6.2. | Technology preference by type of vehicle |
1.7. | Market forecasts |
1.7.1. | Type of powertrain for 46 types of electric vehicle |
1.7.2. | In wheel motors vs near wheel motors |
1.7.3. | In-wheel motor global market for vehicles with four or more wheels units million 2017-2027 |
1.8. | Powertrain forecasts by 46 types of electric vehicle |
1.9. | Rapidly increasing market for powertrain REMs for electric vehicles |
1.10. | Premium pure electric cars in 2017 |
2. | INTRODUCTION |
2.1. | Powertrains |
2.1.1. | Typical powertrain components |
2.1.2. | The show so far: adoption of electrified powertrains |
2.1.3. | Hype curve for car powertrains in 2016 |
2.2. | Rotating electrical machines in powertrain |
2.2.1. | Needs by type of powertrain |
2.2.2. | Heart of a first generation 48V mild hybrid: BSG |
2.2.3. | REM technologies performance in powertrains: the show so far |
2.3. | One business land, water, air - hybrid and pure electric |
2.4. | Trend to two or more REM per vehicle |
2.4.1. | Reasons |
2.4.2. | Innovative two motor formats: car, motorcycle |
2.5. | Trend to product integration |
2.5.1. | Strong hybrid cars |
2.5.2. | Volkswagen approach to device integration |
2.5.3. | Integration challenges of simulation of electric machines and inverters |
2.5.4. | 48V mild hybrid integrated starter generators |
2.5.5. | Two types of in-wheel motor |
2.5.6. | In-wheel motors by size of vehicle, with examples, benefits sought and challenges. |
2.6. | Trend to high voltage, high speed motors in strong hybrids, pure electric vehicles |
2.7. | Flywheel KERS |
2.8. | Trend to vertical integration in supply chain |
2.9. | Motor Controls |
2.9.1. | Overview |
2.9.2. | Cost and integration issues |
3. | 48V MILD HYBRID BSG, ISG |
3.1. | Why 48V? |
3.2. | Where 48V mild hybrids fit in |
3.3. | Motivation |
3.4. | 48V mild hybrid system technology |
3.5. | Evolution from stop-start to multifunctional rotating machines |
3.6. | How to make a 48V mild hybrid in latest form for a car |
3.7. | Toolkit for 48V mild hybrid powertrains |
3.8. | The key components of the system options are mostly different |
3.9. | Not just cars! |
3.10. | Reversible rotating machine technology choices for 48V mild hybrids |
3.11. | How Continental sees the asynchronous option |
3.12. | Example of test beds for 48V REMs ADEPT project |
3.13. | Best solutions for market needs 2016-2030: interviews |
3.14. | Modelling of 48V introduction: Volkswagen SUV data with IDTechEx comment |
3.15. | Modelling of 48V introduction using Volkswagen SUV data with IDTechEx comment Gen2&3 |
3.16. | Types of conventional and electric vehicle with those that have or will have many 48V systems shown in grey |
4. | ELECTRIC MOTORS, MOTOR-GENERATORS FOR STRONG HYBRIDS |
4.1. | Relative needs |
4.2. | Plug in option |
4.3. | Plug in hybrid potential in higher performance/ heavy vehicles |
4.4. | The Tesla approach to electric traction motors |
4.4.1. | Motor history to Tesla Model 3 |
4.4.2. | Comparisons |
4.4.3. | Interview |
4.5. | Different views on usefulness of parallel hybrids in future: Siemens, Ricardo |
4.6. | Siemens typical hybrid system components based on automotive standard TS 16949 |
4.7. | Ricardo view of long haul options |
4.8. | GKN advances in 2016 |
4.9. | Roundup |
5. | ELECTRIC MOTORS, MOTOR-GENERATORS FOR PURE ELECTRIC VEHICLES |
5.1. | The end game |
5.2. | Voltage trends for pure electric vehicles |
5.3. | Great variety |
5.4. | Pure electric cars and similar vehicles |
5.5. | UAVs and multicopters |
5.5.1. | REMs |
5.5.2. | Drive electronics |
5.6. | Dyson robot vacuum cleaner |
5.7. | Energy Independent Vehicles EIV |
5.7.1. | Why we want more than mechanical energy independence |
5.7.2. | Energy Independent Vehicles: definition and function |
5.7.3. | The EIV powertrain for land vehicles |
5.7.4. | EIV operational choices |
5.7.5. | Do not forget wind |
5.7.6. | Key EIV technologies |
5.7.7. | Stella Lux passenger car Netherlands |
5.7.8. | Solar racer derivative: Immortus passenger car EIV Australia |
5.7.9. | POLYMODEL micro EV Italy |
5.7.10. | Lizard EIV wakes with the sun: NFH-H microbus China |
6. | EXAMPLES OF INTERVIEWS 2015-2016 |
6.1. | Ongoing interviews by IDTechEx USA, East Asia, Europe |
6.2. | ALABC/ILA London 12 Jan 2016 |
6.3. | MAHLE March 2016 |
6.4. | Visit to Controlled Power Technologies CPT Ltd UK |
7. | ANALYSIS OF 170 TRACTION MOTOR MANUFACTURERS |
Pages | 257 |
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Forecasts to | 2026 |