Power System Test Bed for Ground Vehicles

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Power System Test Bed for Ground Vehicles Joint Services Power Expo May 2, 2017 Joshua Baer joshua.baer@lmco.com Thomas Byrd, Senior Fellow tom.e.byrd@lmco.com 1

Introduction DOD products require more power and are limited by alternators With more and more vehicles adapting parallel and electric hybrid approaches, as well as more electronic loads being added, there is a growing need for power generation and storage that is more than just the traditional alternator and lead acid battery How can these power needs be obtained? How will these new power devices integrate with existing equipment? How can companies be encouraged to strive to use Wide Band Gap electronics to advance State of the Art? 2

Introduction Continued The available option for WBG power electronics is currently very limited and their technology readiness level is currently 3 or lower. To encourage WBG power electronics development and acceptance, we propose a vehicle electronics power test bed which will start with the current state of the art silicon technology as the base, but will be used as a base to integrate, prove out, and increase the TRL to level 6 of the emerging WBG segment 3

Parallel and Series Hybrid Example of a Parallel Hybrid Vehicle Example of a Series Hybrid Vehicle Vehicle Test Bed Architecture needs to be flexible enough to test for both types of hybrids Cleared for DOCUMENT Public Release PROTECTION PIRA ORL201704017 GOES HERE 4

Vehicle Test Bed Architecture 5

Power Generation Engine Integrated Starter Generator (ISG) Takes the place of a traditional alternator Higher power available Directly in line with the drive train Bidirectional Inverter Takes the power from the ISG and makes it useful for the vehicle Provides ISG cranking pulse for start up Photos from TARDEC, GVPM Industry Day Presentation, 4/21/16 6

Loads and Energy Storage Loads Mechanical Dynamometer- Allows full testing of engine loading with varying RPM and Torque loads Electrical Electronics load- Can mimic hotel loads and dynamic loads for the entire spectrum of vehicles Electric Motor Series Hybrid mimic Parallel Hybrid: ability to test multiple motor options for integration with vehicle inverter/pcu 7

Loads and Energy Storage Cont. Energy Storage Various Chemistries can be inserted Vehicle inverter/pcu integration Easy to instrument for current testing Photos from TARDEC, GVPM Industry Day Presentation, 4/21/16 8

Real World use for the Test Bed Ground Vehicle Power System Diagram Electrical Power System Battery Engine ISG Inverter Voltage Converter HV to 28V Export Loads (DC) 3-phase Interface Hotel Loads Transmission Traction Drive Vehicle Electronics Controllers Belt Drive Fan Clutch HVAC Compressor Pump Hydraulic Pump Power Takeoffs 9

Fan Clutch Loading 10

1.5kW to 10kW load stepping 11

Bi-Directional Power Conversion Project Objectives: 30kW 5 ea. 6kW Modules Power Density (Goal: 5kW/L) Input Voltage: 800V Output Voltage 28V Switching Frequency: 100kHz Cooling: Forced Air or Liquid Efficiency: 95% SiC MOSFET on Primary Wolfspeed GaN MOSFET on Secondary GaN Systems or Transphorm Vehicle Test Bed would allow verification of ideas and designs without having it in full mechanically finished format 12

Conclusion Growing need for vehicle power generation and storage that is more than just the traditional alternator and lead acid battery Vehicle Test Bed eases integration of new technology It is possible to make a test bed architecture that model the various types of hybrids Fully controllable test conditions and instrumentation 13