mode l pre dic tive control for e ne rg y e ffic ie nt ma
play

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


  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 o 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

  2. As the prime contractor SwRI The University of Michigan TEMA will serve in an advisory will leverage its expertise in brings a broad range of and support role as a passive CAVs, powertrains, and vehicle experience on advanced collaborator, and will provide and component evaluation. engine and vehicle controls. vehicles and instrumentation. • • • Vehicle Benchmarking Vehicle Model OEM Vehicle Integration • • CAV Development Development Powertrain Model • • Traffic Simulation Traffic Flow Information Validation • • • CAV in the loop dyno Traffic Data Analysis Bypass Control Assistance • • testing Mcity Automated Vehicle Production Implementation Test Facility Perspective • Optimal Control Algorithm Development • Powertrain Optimization

  3. 20% Energy Consumption Reduction CAV Enabled Toyota Prius Prime PHEV Predictive VD & PT Control Structure Realistic Traffic Simulation Generate Road Networks Trip Energy Management Macroscopic: utilize V2C Develop Traffic Volume SOC SOC Planning Expand SOC Limit 7% Distance Validate Traffic Model 3% Driving Power Management Mesoscopic: utilize V2V and V2I Vehicle Simulation 3D Vehicle Simulation 35 25000 Pwr/Spd 20000 30 15000 25 10000 Optimization 20 5000 15 0 -5000 10 -10000 5 -15000 10% 0 -20000 1 101 201 301 401 501 601 701 801 901 1001 1101 1201 1301 1401 -5 -25000 Speed (MPH) Traction Motor Power (watts) Reaction Motor Power (Watts) Battery Power (Watts) Human Driver Advisory Automated Driver

  4. Precision CAV Chassis Dyno Testing Simulated Traffic Simulator DSRC RF Coverage/ Vehicle speed/ position, Speed Roadside and Signal Phase and Timing, Vehicle speed Vehicle Unit Road type/ grade Dyno Controller Powertrain DSRC States ECU Bypass Onboard Unit VD&PT Control Energy Management ECU Safety Position Constraints Engine on/off Engine torque DRCC Subsystem ECU Radar MG1 torque System MG2 torque Power friction brake Request

  5. Technology-to-Market approach o The Technology-to-Market (T2M) plan will be developed during the first quarter of this effort o SwRI will identify an internal T2M lead, and is evaluating options for external support o 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 o 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?

  6. Key Challenges o Will the algorithms be robust to any changes in parameters or uncertainties, penetration rate, any delay in the system? o Can the optimization problem be solved quickly for real-time implementation? o Are there any opportunities to improve engine efficiency in this highly optimized PHEV?

Download Presentation
Download Policy: The content available on the website is offered to you 'AS IS' for your personal information and use only. It cannot be commercialized, licensed, or distributed on other websites without prior consent from the author. To download a presentation, simply click this link. If you encounter any difficulties during the download process, it's possible that the publisher has removed the file from their server.

Recommend


More recommend