This report is no longer available. Click here to view our current reports or contact us to discuss a custom report.
If you have previously purchased this report then please use the download links on the right to download the files.
1. | EXECUTIVE SUMMARY AND CONCLUSIONS |
1.1. | Purpose of this report |
1.2. | Primary conclusions: where we are headed |
1.3. | Why we need electric agricultural vehicles |
1.4. | Farm of the future arriving now |
1.5. | Trends in types of farming |
1.6. | Primary conclusions: impediments to change |
1.7. | Primary conclusions: industrial trends EV and robotic |
1.8. | Primary conclusions: regional |
1.9. | Primary conclusions: technical |
1.10. | Primary conclusions: agricultural EV adoption |
1.11. | Patent analysis |
1.12. | Market forecasts agriculture electric vehicles 2020-2030 - number thousand |
1.13. | Market forecasts agriculture electric vehicles 2020-2030 - unit price $ thousand |
1.14. | Market forecasts agriculture electric vehicles 2020-2030 - market value $ billion |
2. | INTRODUCTION |
2.1. | The problem with agriculture |
2.2. | Needs and emissions |
2.3. | Emission push for pure electric equipment |
2.4. | Greenhouse and local emissions in agriculture |
2.5. | Extreme water shortage |
2.6. | Growing population and growing demand for food |
2.7. | Agriculture by region |
2.8. | Major crop yields are plateauing |
2.9. | Aging farmer population and urban migration |
2.10. | The case for indoor farming including vertical farming |
2.10.1. | Challenges in vertical farming |
2.10.2. | Indoor farming robotics experiments and concepts |
2.11. | Powertrain trends for electric vehicles in agriculture |
2.12. | LPWAN and IOT to EVs and assets |
3. | OPPORTUNITIES |
3.1. | View from the UK |
3.2. | View from Japan |
3.3. | Economics of agricultural machines |
3.4. | Transition towards to swarms of small, slow, cheap robots |
3.5. | Agricultural robotics and ultra precision = value chain upheaval |
3.6. | Business models between RaaS and equipment sales |
4. | AGRICULTURE, FORESTRY, TURF ELECTRIC VEHICLES IN ACTION |
4.1. | Overview: drones, land EVs and swarming |
4.2. | Transition to swarms of small, slow, cheap robots |
4.3. | Swarming robots: land and air |
4.3.1. | SAGA and SwarmFarm |
4.4. | Low cost standard software: DroneAG |
4.5. | Hopping drones: Crop Hopper |
4.6. | Land based EVs for agriculture: Overview |
4.7. | Turf care robots |
4.8. | Electric robot weeders: FarmWise, Naio etc |
4.9. | Tractors |
4.9.1. | Overview |
4.9.2. | Autonxt |
4.9.3. | Belarus Tractors |
4.9.4. | CNH Industrial |
4.9.5. | Farmtrac |
4.9.6. | Fendt (AGCO) |
4.9.7. | John Deere |
4.9.8. | Sonalika |
4.9.9. | STW |
4.9.10. | Ztractors Battery-electric |
4.10. | Planters |
4.10.1. | AGCO (Fendt) Xaver |
4.11. | Transporters |
4.11.1. | Alke |
4.11.2. | Nelson Mandela University |
4.12. | Forestry and turf |
4.12.1. | Overview |
4.12.2. | Forestry: Logset, Sennebogen |
5. | ENABLING TECHNOLOGIES |
5.1. | Seven key EV enabling technologies for agricultural EVs |
5.2. | Traction motors |
5.2.1. | Overview |
5.2.2. | Choices of motor position |
5.3. | Batteries and supercapacitors |
5.3.1. | Overview |
5.3.2. | Future W/kg vs Wh/kg 2020-2030 |
5.3.3. | Energy density 2020-2030 |
5.3.4. | Li-ion battery cost (industrial) $/kWh) 2005-2030 |
6. | ZERO EMISSION MICROGRIDS FOR AGRICULTURE |
6.1. | How to charge the vehicles: start with solar for zero emission |
6.2. | Solar vs diesel cost analysis |
6.3. | Solar bodywork: agricultural vehicles University of Sydney, Tesla |
6.4. | Mobile solar gensets |
6.5. | Photovoltaics does not have to kill farming |
6.6. | Zero-emission smart cities: power and food independent |
6.7. | Envision Solar transportable solar charger tracks the sun |
6.8. | Anatomy of a typical solar + battery microgrid |
6.9. | Zero emission microgrids: solar, water, wind reinvented |
6.9.1. | Overview |
6.9.2. | New options beyond solar: relocatable, much less intermittent |
6.9.3. | Open tide "tide stream" power options mimic wind power options |
6.9.4. | Comparison of off-grid technology options |
6.9.5. | New power generating technology kVA comparison |
6.9.6. | Airborne Wind Energy developers |
6.9.7. | Why AWE may be better than a conventional wind turbine |
6.9.8. | eWind specifically targets AWE for farms |
6.9.9. | Open sea wave power technologies for aquaculture |
7. | AUTONOMOUS VEHICLES IN AGRICULTURE |
7.1. | Agriculture autonomy by application |
7.2. | Market and technology readiness by agricultural activity |
7.3. | Driverless tractors: AGCO, ATC, Kubota, Yanmar, Kinze, CNH |
7.4. | Robotic fresh fruit harvesting |
7.5. | Robotic ultra precision weeding |
8. | AUTONOMY TECHNOLOGY: LIDAR, RADAR ETC. |
8.1. | Autonomy components and integration |
8.2. | Lidars |
8.3. | Radars |
8.4. | AI software and computing platform |
Slides | 231 |
---|---|
Forecasts to | 2030 |