48V eco-hybrid Systems



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48V eco-hybrid Systems Jean-Luc MATE Vice President Continental Engineering Services France President Automotech cluster www.continental-corporation.com Division Naming European Conference on Nanoelectronics and Embedded Systems for Electric Mobility

Powertrain Clean Power The desire for Individual Mobility drives our business Main Drivers for our Business Legislation Emissions Sustainable Mobility Consumer Demand Driving Performance Value 4 Money Technology Diversity Combustion E-Mobility 2

Prioritization of CO 2 reduction measures Powertrain Systematic Proceeding Understand Energy Efficiency Energy Pyramid of the Vehicle Collection of External Energy (e.g. Solar power & cells) Energy recuperation Electrification, Battery Systems, Predictive Energy Management, Demand controlled Energy Supply (Energy Management) Thermal Management, Stop-Start, Predictive Energy Manangement, Demand controlled Actuation, Transport of Energy without losses (Focus: Efficiency) Combustion,Turbocharging, Hybridization, Electrification,.. Optimization of Overall Power Economy by reducing energy consumption & kinetic losses (Reduced Spending & Drag Elimination) Weight, Rolling resistance, Aerodynamics, DRAFT 3

CO2 Challenge Legislation is one of the Key Drivers for Clean Power 4

Powertrain 2025 Scenario Volume Scenario Global Passenger Vehicles / Light Vehicles Engine Production More than 30% of the vehicles world wide will have an electrified powertrain 140 Production Production Volumes Volume [million [Mio Vehicles] units] 120 100 80 60 40 20 Electric Vehicle Plug in Hybrid Full Hybrid Mild Hybrid 48V Start/Stop Pure ICE 0 2013 2014 2015 2016 2017 2018 2019 2020 2021 2022 2023 2024 2025 5

Powertrain 2025 Scenario - Shares with Electrified Powertrain Volume Scenario 40,0 Global Passenger Vehicles / Light Vehicles Engine Production More than 30% of the vehicles world wide will have an electrified powertrain 2,6 3,1 3,8 4,4 5,7 7,9 11,2 15,0 19,7 24,3 28,9 33,2 37,5 35,0 2,9 Production Volumes [million [Mio Vehicles] units] 30,0 25,0 20,0 15,0 10,0 5,0 0,0 3,6 2,6 3,2 2,3 2,9 2,0 15,9 2,5 14,1 1,7 12,2 2,2 1,5 10,4 2,2 1,8 1,9 8,6 1,3 1,6 1,6 6,8 1,4 1,2 1,3 1,2 12,9 1,1 5,3 11,4 0,9 9,8 0,9 3,9 8,0 0,7 6,0 0,1 0,2 0,5 0,7 0,4 0,7 0,8 1,0 3,9 1,9 2,0 2,2 2,5 3,0 0,5 0,2 1,1 2,2 0,2 0,2 0,2 0,3 0,4 2013 2014 2015 2016 2017 2018 2019 2020 2021 2022 2023 2024 2025 Electric Vehicle Plug in Hybrid Full Hybrid Mild Hybrid 48V 6

Electrification tailored to fit CO 2 Reduction Fuel saving with low voltage technology Fuel saving and electric driving 100% electric driving Electrification 7

Product Portfolio for 48V and High Voltage HEV - Electric drivetrain systems and components from one source 48V Eco Drive HEV and PHEV All Electric Vehicle Motor Power Electronics Energy Storage 8

48V Eco Drive System Overview 48V a valuable complement to the high voltage electrification Two voltage levels: 48V and 12V Additional 48 V consumers like high power application, e. g. A/C compressor Stop-Start, coasting, recuperation & boosting, electric driving Demo car with 48V System available Simulation results have been confirmed with test drives 9

48V DCDC Converter Passive air cooled 48V-12V DC/DC converter Passive air cooled High efficiency Scalable design for different output powers Pre-charge of DC link capacitor from 12V battery 210 A at 12 Volt power net Bi-directional operation 3 kw buck mode 6 V 16 V output buck mode 3 kw boost mode 24V 54 V output boost mode Options: 3kW, 8 phases, high efficiency 1.8kW, 4 phases, high efficiency 3kW, 4 phases 10

Battery for Twin 48V Rear Axle Drive 48V Li-Ion Battery 48V Li-ion battery system in A-sample status 13 pouch cells (10Ah) in VDA format Mechanical layout with H9/LN6 length and width Active air-cooling with integrated fan High performance and compact build with distinct weight advantage Performance: 14 / 11 kw (Charge / Discharge) Energy: 460 Wh Volume: 8 Liters Weight: < 9 kg Further serial development offers potential for reduction in height and weight, increased solidness etc. 11

48V Belt Starter Generator with integrated Inverter Technical benefits Inverter and Motor integrated in one housing No external cables and connectors between Inverter and Motor High performance: 60 Nm start torque 14 kw peak power mech. (2s) 4.2 kw cont power mech. (1h) Robust and reliable design Water cooled design Induction Machine Rotor Water cooled System Housing Watercooled System Pulley Hairpin Winding Integrated Inverter Bus Bars Bearing Shield 12

48V Eco Drive Cost efficient hybrid for high volumes Index B Around 13% less fuel consumption * Due to the functions start-stop, recuperation, coasting and sailing E-machine with integrated inverter * Measurement of NEDC drive cycle compared to VW Golf VI BlueMotion, 4 Cyl. Gasoline engine, 1,2 l TSI, 77 kw 48 V/ 12V DCDC converter Li-Ion battery 13

48V Eco Drive Significant savings in all driving cycles 14 Predictive driving strategy with ehorizon

Customer Benefits of 48V Systems D C D C 12 V consumer Battery 12V (lead acid) Battery 48V (lithium ione) 48 V Consumer ISG Inverter Combustion engine ECU 1 Start/Stop customer comfort CO2 emission reduction feasibility with 12V remarks 1.1 warm start (start/stop) x x 1.2 cold start (first start) x critical @ very low temperatures 1.3 noise reduction at start x 2 Regeneration / Recuperation 2.1 high efficient generator x (x) 2.2 recuperation during deceleration x (x) 2.3 engine operating point shift (load incr./decr.) x (x) 3 Boost / Electric Driving 3.1 boosting (beyond ICE limit) x 3.2 electric creeping / drive off x (x) dep. on battery energy content 3.3 electric hill hold support x 4 Board Net / 48V Consumer 4.1 additional board net supply via DC/DC 4.2 12V board net stabilisation (VSS) 4.3 48V components (steering, pumps, HVAC) x higher component efficiency 5 Combustion Engine Support 5.1 different functions x 15

Summary / Outlook 48V-BSG-Systems offer a high potential for the realization of the CO 2 - emission reduction targets and further mild-hybrid functions System solutions with an optimum cost-benefit ratio request the following development steps: - Discussion of requested mild-hybrid functionalities (and flexibilities), - Proper system definition/parameter, component harmonization, system optimization, reduction of single component costs Future work should focus on the development of standard technical solutions, which are capable for large series production and flexible for customer applications

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