Automation in the long-haul Challenges and opportunities of autonomous heavy-duty trucking in the U.S.

Similar documents
From Advanced Active Safety Systems to Automated Systems: From to and beyond. Dr. Angelos Amditis Research Director I-Sense, ICCS

ASAM Telematics Standards

Truck Study New Business Models. PwC Strategy& Confidential information for the sole benefit and use of PwC s client.

European Truck Platooning Challenge (pilot) 2016

Preparing our Roadways for Connected and Automated Vehicles. 70th Annual Ohio Transportation Engineering Conference Bob Edelstein

USDOT Connected Vehicle Research Program Vehicle-to-Vehicle Safety Application Research Plan

ITS Action Plan- Internet Consultation

Florida s Automated Vehicle Initiative

What is ADAS? Agneta Sjögren Volvo Technology

Cooperative maneuvering in road traffic

I know that you all understand the critical importance of the freight transportation system

AutomotiveConnect: Commercial Vehicles

QUAD CITIES MANUFACTURING INNOVATION HUB DIGITAL B2B USERS GROUP

elektrobit.com Driver assistance software EB Assist solutions

Request for Information from the Florida Dept. of Transportation

Heavy-Duty Innovation: Energy, Automation, and Technology in the Trucking Sector

Critical. Reporting. Cargo Transporters Reduces Crashes and Successfully Defends Against Accident Claims with Critical Event Recording Data

Connected/Autonomous Vehicles in a

Oulook beyond 2025 Freight Transport and Logistics Achievements and future plans

Building a Safety Case for Automated Mobility: Smart Cities and Autonomous Mobility Getting There Safely

The impact of intelligent routing on traffic congestion. Nick Cohn

Spanish Initiative for the Automation in Urban Transport: AutoMOST

Road Vehicle Automation: Let s Get Real

Mastering Unexpected Situations Safely. Chassis & Safety Vehicle Dynamics

Disciplina: Gestão da Mobilidade Urbana. Aulas Teóricas. Sistemas Inteligentes de Transportes. Docente: Vasco Reis Prof. Responsável: Rosário Macário

De How Rij-Assistent to organize a FOT fleet. Experiences from The Netherlands. Tom Alkim

Automation and the U.S. Department of Transportation. Ken Leonard ITS Joint Program Office NASTO 2017

Introduction to Transportation Systems

Driving Compliance with Functional Safety Standards for Software-Based Automotive Components

Heavy-Duty Automotive Trends and Outlook

Globalization Powertrains IT

Introduction to Highway Engineering and Traffic Analysis อ. ธ รพจน ศ ร ไพโรจน. 28 August 2014

Cat Command. for Hauling

ITS Technologies in Military Wheeled Tactical Vehicles: Status Quo and the Future

INTELLIGENT TRANSPORTATION SYSTEMS SUMMARY

Software Framework for Highly Automated Driving EB robinos. Jared Combs July 27, 2017

FLEET MANAGEMENT SOLUTIONS

Brendon Hemily, PhD

Autonomous driving are OEMs losing the driver seat?

Improvement of accident prevention in road tunnels through Intelligent Infrastructures and Intelligent Vehicles cooperation

An Ontology-based Model to Determine the Automation Level of an Automated Vehicle for Co-Driving

DNA for Automated Driving. Jeremy Dahan May 8 th, 2017

Are We Ready for Autonomous and Connected Vehicles?

Florida s Automated Vehicle Initiative

8 Distribution Technologies to Watch. Fortna 1

Sichere Intelligente Mobilität - Testfeld Deutschland. Safe Intelligent Mobility Field Test Germany

Software Tools. Mechatronics, Embedded Control System Design, CAD, Finite Element Analysis, Information Technology and Big Data Areas.

AGENCY: Federal Railroad Administration (FRA), Department of Transportation

Telematics Options and Capabilities

Framework for Utilization of Mobile Data Collection. Parth Bhavsar (Rowan University) Nidhal Bouaynaya (Rowan University) Jeevanjot Singh (NJDOT)

Roadmaps to 2050 FFE (Madrid, Spain) 21 September 2017

Cargo Tracks Fleet Management

Yale Lift Trucks Driven by Balyo

The evolution of public transport policy in Hong Kong since 1981

TTI s Capabilities in Connected Transportation

Overview of Calls in the H2020 Workprogram Transport

The Policies section will also provide guidance and short range policies in order to accomplish the goals and objectives.

A Global System for Telematics enabling on-line safety services. Erwin Vermassen Project Manager, ERTICO Brussels, Belgium EuroCargo 2004

mycopter Enabling Technologies for Personal Aerial Transportation Systems

Logistics Innovation for the Urban Domain

ebook 7 Benefits of Bundling ELD & Fleet Tracking Solutions

Hellenic Institute of Transport: Presentation of the Institute and its role in ITS deployment

EUROPEAN ROAD FREIGHT MARKET SURVEY 2017

The Internet of Things. A fleet manager s guide to the Internet of Things

NETS. Resources to Build a Fleet Safety Program. STRENGTH IN NUMBERS

Urban Mobility: Car2x Communication - Qualitative Analysis of Chances and Challenges. Masterarbeit

Connectivity optimizing the automotive industry

Timo Thornton, Account Manager. Reduction in CO2 Emissions with SPECS Average Speed Enforcement. Networked average speed enforcement solutions

Telematics System dedicated for Provisioning of On-Line Information about Predicted Occupancy of Highway Parking Areas

Development Tools for Active Safety Systems: PreScan and VeHIL

Heavy Duty Vehicles CO 2 Policy Issues in Europe and VECTO tool

FACILITATING AGRICULTURE AUTOMATION USING STANDARDS

Enhancements of V2X Communication in Support of Cooperative Autonomous Driving

Policy Brief. Three Transportation Revolutions: Synergies with Transit. Summary. Introduction

FleetBoard Vehicle Management Reduce consumption. Increase efficiency. For all brands.

Sketch Planning Methodology to Quantify Emissions Impacts at Border Crossings

3 Myths about IoT in Logistics

Heavy Commercial Vehicles

CHAPTER 14: COST IMPLICATIONS OF PAVEMENT TEMPERATURE SENSORS

Dipl.-Ing. Felix Lotz. System Architecture & Behavior Planning

Implementing Oregon s Energy Plan: Opportunities for Intelligent Transportation Systems 1. Jon Makler, AICP 2 and Brooke Jordan 3

The Rise of Engineering-Driven Analytics

Smart communication for Intelligent Transport

Moving Together with UN Fleet Sharing

July 12, Statement on Tax Reform

EU programmes and funding opportunities

Multi-modality assessments in promoting sustainable urban traffic

Mid-term Business Plan 2019

Kfz Elektronik Entwicklung: Trends und Herausforderungen im IoT-Zeitalter

Choosing a Location-based Application for your Business

BioCycle Conference Renewable Natural Gas. Presented by Nick Lumpkin

A-List in IoT Awards. Award Description. Connected Car Platform of the Year - Best connected car software platform.

Transportation invests for a new future Automation is rapidly accelerating and disrupting the industry

E-Commerce as a Driver for City Logistics in China

The Policy-Related Road Transport Research in MOT

Fleet Optimization with IBM Maximo for Transportation

Trilateral Impact Assessment Framework for Automation in Road Transportation

Countermeasures of Shipping and Ports in the Era of the 4 th Industrial Revolution(4IR)

Transcription:

Automation in the long-haul Challenges and opportunities of autonomous heavy-duty trucking in the U.S. Ben Sharpe, PhD 3 Revolutions Policy Conference Univ. of California, Davis February 26, 2018

Outline 1. Autonomous trucking: full speed ahead vs. pumping the brakes 2. Levels of automation and commercial status in trucking 3. Automation: enabling technologies and applications 4. Industry survey: methods and results 5. Summary and future work

ICCT s mission To improve the environmental performance and energy efficiency of all modes of motorized transportation passenger cars, heavy-duty trucks and buses, oceangoing ships, and commercial aviation and the fuels they burn to address air pollution and climate change.

Autonomous trucking Perception is preconception Fleets and industry Truck drivers Higher levels of automation can ease the burden of driving Long-term: potential for massive disruptions to labor markets Long-term: potential labor cost savings Operational cost savings Society Safety benefits Acceptance of fully driverless trucks? 4

Levels of automation and commercial status in trucking LEVEL NAME DESCRIPTION EXAMPLES 0 No automation Human performs all driving tasks, even if enhanced by active safety systems. Navistar LT, Peterbilt 579 TECHNOLOGY STATUS Commercially available 1 Driver assistance Vehicle can perform sustained control of either steering or acceleration/deceleration. Peloton Platooning System, Volvo VNL Commercially available 2 Partial automation Vehicle can perform sustained control of both steering and acceleration/deceleration. Embark, Starsky Robotics Pre-commercial 3 Conditional automation All tasks can be controlled by the system in some situations. Human intervention may be required. Freightliner Inspiration, Uber ATG / Otto Prototype retrofit 4 High automation All tasks can be handled by the system without human intervention, but in limited environments (e.g., dedicated lanes or zones). Not currently available Research and development 5 Full automation Automated system can handle all roadway conditions and environments. Not currently available Research and development 5

Enabling technologies, applications, and examples TECHNOLOGY APPLICATIONS TECHNOLOGIES USED COMMERCIALLY AVAILABLE? EXAMPLE COMPANIES Lane departure warning Sensors such as cameras, processing software Mobileye, Meritor WABCO Blind spot detection Sensors such as cameras and radar, processing software Mobileye, Meritor WABCO, Volvo Automatic braking Sensors such as cameras and radar, processing software Scania, DAF, Daimler, Meritor WABCO, Volvo, Bendix Automated manual transmissions Electronic control unit, hydraulics, software Eaton, Volvo, Daimler Eco-driving systems On-board diagnostics, monitoring and processing software, telematics TomTom, Ruptela, SmartDrive 6

Enabling technologies, applications, and examples (2 of 2) TECHNOLOGY APPLICATIONS TECHNOLOGIES USED COMMERCIALLY AVAILABLE? EXAMPLE COMPANIES Automated lane keeping Sensors such as cameras or radar, processing software Scania, Meritor WABCO Adaptive cruise control (ACC) Sensors such as radar, processing software Meritor WABCO, DAF, Volvo, Bendix Predictive cruise control (PCC) GPS, topographical mapping data, processing software Kenworth, DAF Platooning Sensors such as radar, processing software, could also include vehicle communications using DSRC (Level 1), Level 2 systems are pre-commercial Peloton, Volvo, Uber ATG, Daimler Highly automated trucking Will likely include cameras, radar, LiDAR, DSRC, processing software. No Daimler, Uber ATG Telematics GPS, DSRC or other wireless communications technology, asset management software Zonar, Geotab, Openmatics 7

Industry survey STAKEHOLDER GROUP NUMBER OF INTERVIEWS Telematics providers 3 Trucking industry research or consultants 5 Communications, radar or LiDAR suppliers 2 Truck drivers and fleet representatives 5 (informal interviews during Run on Less event on September 24, 2017) 8

Rank the motivations for developing or researching autonomous trucking technology 1 - most important 5 - least important Fuel savings Safety Ease of driving Operations efficiency Reduced labor costs 9

Rank the following sources in terms of information regarding new technologies 1 - most trusted 5 - least trusted Manufacturer or supplier marketing Government 3 rd party testing Trucking assoc. or other fleets Fleet s own testing 10

Expectations for commercial availability of Level 3, 4, and 5 freight trucks Level 3: Conditional automation Level 4: High automation Level 5: Full automation 5 years 10 15 20 11

Summary and future work Enabling technologies and autonomous trucking applications are quickly emerging Perceived benefits and drawbacks of autonomous trucking vary by stakeholder group (i.e., fleets vs. truck drivers vs. general public) Industry survey of different stakeholders revealed this perception is preconception phenomenon Future work: how can policy at the federal, state, and local level guide the development and deployment of autonomous trucking? 12