Mode l Pre dic tive Control for E ne rg y- e ffic ie nt Ma ne uve - - PowerPoint PPT Presentation

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Mode l Pre dic tive Control for E ne rg y- e ffic ie nt Ma ne uve - - PowerPoint PPT Presentation

Mode l Pre dic tive Control for E ne rg y- e ffic ie nt Ma ne uve ring of Conne c te d Autonomous Ve hic le s So uthwe st Re se a rc h I nstitute Unive rsity o f Mic hig a n T o yo ta Mo to r E ng ine e ring & Ma nufa c turing , No


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SLIDE 1

Mode l Pre dic tive Control for E ne rg y- e ffic ie nt Ma ne uve ring of Conne c te d Autonomous Ve hic le s

So uthwe st Re se a rc h I nstitute Unive rsity o f Mic hig a n T

  • yo ta Mo to r E

ng ine e ring & Ma nufa c turing , No rth Ame ric a , I nc .

Sc o tt Ho tz, Assista nt Dire c to r

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SLIDE 2

As the prime contractor SwRI will leverage its expertise in CAVs, powertrains, and vehicle and component evaluation. The University of Michigan brings a broad range of experience on advanced engine and vehicle controls. TEMA will serve in an advisory and support role as a passive collaborator, and will provide vehicles and instrumentation.

  • Vehicle Benchmarking
  • CAV Development
  • Traffic Simulation
  • CAV in the loop dyno

testing

  • Vehicle Model

Development

  • Traffic Flow Information
  • Traffic Data Analysis
  • Mcity Automated Vehicle

Test Facility

  • OEM Vehicle Integration
  • Powertrain Model

Validation

  • Bypass Control Assistance
  • Production Implementation

Perspective

  • Optimal Control Algorithm Development
  • Powertrain Optimization
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SLIDE 3

20% Energy Consumption Reduction CAV Enabled Toyota Prius Prime PHEV

SOC Distance

Trip Energy Management Macroscopic: utilize V2C Driving Power Management Mesoscopic: utilize V2V and V2I

  • 25000
  • 20000
  • 15000
  • 10000
  • 5000
5000 10000 15000 20000 25000
  • 5
5 10 15 20 25 30 35 1 101 201 301 401 501 601 701 801 901 1001 1101 1201 1301 1401 Speed (MPH) Traction Motor Power (watts) Reaction Motor Power (Watts) Battery Power (Watts)

Predictive VD & PT Control Structure Realistic Traffic Simulation

Develop Traffic Volume Vehicle Simulation Generate Road Networks Validate Traffic Model

3D Vehicle Simulation

Human Driver Advisory Automated Driver

10%

Expand SOC Limit

7% 3%

Pwr/Spd Optimization SOC Planning

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SLIDE 4

Precision CAV Chassis Dyno Testing

Vehicle speed/ position, Signal Phase and Timing, Speed

DRCC System

Vehicle speed Road type/ grade Engine on/off Engine torque MG1 torque MG2 torque friction brake

Energy Management ECU

Powertrain States

Subsystem ECU

Power Request

Dyno Controller

Position Safety Constraints

Radar VD&PT Control ECU Bypass Traffic Simulator Simulated DSRC RF Coverage/ Roadside and Vehicle Unit DSRC Onboard Unit

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SLIDE 5

Technology-to-Market approach

  • The Technology-to-Market (T2M) plan will be developed during the first

quarter of this effort

  • SwRI will identify an internal T2M lead, and is evaluating options for

external support

  • This technology will be developed in a way that minimizes the barriers

to entry into the market  This technology will initially be applied to a human driven vehicle  Later integrated into an automated vehicle

  • Market Discovery and validation

 Do drivers want this?  Are there other markets to consider?  Are NEXTCAR assumptions valid?  What is the energy cost of CAV tech?

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SLIDE 6
  • Will the algorithms be robust to any changes in

parameters or uncertainties, penetration rate, any delay in the system?

  • Can the optimization problem be solved quickly for

real-time implementation?

  • Are there any opportunities to improve engine

efficiency in this highly optimized PHEV?

Key Challenges