A Setback in the Move towards a Driverless World

Similar documents
How Planning for Self-Driving Technology Can Help All People Frank Douma and Adeel Lari, State and Local Policy Program

THE FUTURE OF AUTONOMOUS CARS

WHAT DOES OUR AUTONOMOUS FUTURE LOOK LIKE?

Active Safety Systems in Cars -Many semi-automated safety features are available today in new cars. -Building blocks for automated cars in the future.

Autonomous Vehicles: Status, Trends and the Large Impact on Commuting

No Longer Science Fiction: The Risks and Rewards of Autonomous Vehicles FOR010

Automated vehicles what are they and what will they mean for tourism?

AVs and Transit. Stephen Buckley, P.E., AICP NACV Summit June 12, 2018

Deep Learning Will Make Truly Self-Driving Cars a Reality

The Way Forward for Self Driving Cars

October 15, 2015 Traffic Engineering and Safety Conference Champaign, IL

Self-Driving Vehicles and Transportation Markets

California s Autonomous Vehicles Testing Progam

CSE 352: Self-Driving Cars. Team 14: Abderrahman Dandoune Billy Kiong Paul Chan Xiqian Chen Samuel Clark

Expansion of Automobile Safety and Mobility Services at TRC Inc. Joshua L. Every Taylor Manahan

Autonomous Vehicles in California. Brian G. Soublet Deputy Director Chief Counsel California Department of Motor Vehicles

The New Age of Automobility Metalforming Industry Implications

Public to U.S. Senate: Pump the Brakes on Driverless Car Bill. July 2018

3/16/2016. How Our Cities Can Plan for Driverless Cars April 2016

Robots on Our Roads: The Coming Revolution in Mobility. Ohio Planning Conference July 27, 2016 Richard Bishop

The Age of Vehicle Automation: Opportunities for Transportation Providers. BusCon 2017 Indianapolis, Indiana September 12, 2017

Activity-Travel Behavior Impacts of Driverless Cars

The Road to Automated Vehicles. Audi of America Government Affairs

ZF Advances Key Technologies for Automated Driving

Achieving Complete Vehicle Autonomy - Getting to Level 5?

Rex Hughes, Madrona Venture Group Bruce Agnew, Cascadia Center Scott O. Kuznicki, Transpo Group

EVOLUTION OF MOBILITY: AUTONOMOUS VEHICLES

Copyright 2016 by Innoviz All rights reserved. Innoviz

Establishing a Standard List of Hazards for Automatic Driving

Self-Driving Hype Doesn t Reflect

Who will become tomorrow's mobility providers?

HOW REAL PEOPLE VIEW THE FUTURE OF MOBILITY

Autonomous Vehicles: A look into the past - a look into the future

Intelligent Vehicle Systems

Citi's 2016 Car of the Future Symposium

Autonomous Vehicles. Kevin Lacy, PE, State Traffic Engineer

NHTSA Role in The Future of Automated Vehicles

AUTONOMOUS DRIVING: AN OUTLOOK. Azra Habibović Senior Researcher

Model Legislation for Autonomous Vehicles (2018)

The Future is Bright! So how do we get there? Council of State Governments West Annual Meeting August 18, 2017

Transforming Mobility: Business Models in the Age of Autonomous Vehicles

Autonomous Vehicle Implementation Predictions Implications for Transport Planning

WHITE PAPER Autonomous Driving A Bird s Eye View

Beijing Auto show highlights e-cars designed for China 25 April 2018, by Joe Mcdonald

TOWARDS A NEW SUSTAİNABLE MOBİLİTY

Planning for AUTONOMOUS VEHICLES. Presentation on the planning implications of self-driving vehicles. by Ryan Snyder Transportation Planning Expert

Focused acceleration: a strategic approach to climate action in cities FEBEG ENERGY EVENT, BRUSSELS, JUNE 27, 2018

THE AUTO INDUSTRY TODAY & TOMORROW

Opportunities to Leverage Advances in Driverless Car Technology to Evolve Conventional Bus Transit Systems

Written Testimony of Josh Fisher Manager, State Government Affairs, Association of Global Automakers, before the Ohio House Transportation and Public

Planning for Future Mobility In a Performance-Based World Steven Gayle, PTP

Application of Autonomous Vehicle Technology to Public Transit

What s Next in Technology

Uber autonomous vehicle death raises questions for UK law review

Resilient South Florida: How to Thrive (and Survive) in a Growing Region

Autonomous Vehicles: The Next Disruptive Technology

Contents. 1. Connected Car Industry Overview. 2. Importance of the Connected Car -Entertainment -Safety

Financial Planning Association of Michigan 2018 Fall Symposium Autonomous Vehicles Presentation

Application of Autonomous Driving Technology to Transit - Functional Capabilities for Safety and Capacity

Self-Driving Cars: The Next Revolution. Los Angeles Auto Show. November 28, Gary Silberg National Automotive Sector Leader KPMG LLP

Vehicle Safety Technologies 22 January Mr Bernard Tay President, AA Singapore & Chairman, Singapore Road Safety Council

Autonomous Driving: The Short Term Impact

Disruptive Technology and Mobility Change

Outline WHY ARE SELF DRIVING VEHICLES GETTING INVOLVED IN CRASHES?

Our Topics. Urban mobility = automobiles! Urban mobility Future of Mobility 3.0 Models for change

Florida s Transportation Future: Autonomous and Connected Vehicles

Will robots drive our cars soon? Smart sensors smart data

Joe Averkamp ITS Georgia October, 2017 Savannah, GA

I think the self-driving car can really dramatically improve the quality of life for everyone, Google co-founder Sergei Brin said.

The Importance of Innovative and Disruptive Technology Businesses. Robert Evans CEO, Cenex

APCO International. Emerging Technology Forum

Target Zero: Underutilized Strategies in Traffic Safety That Work

Our Topics. Urban mobility The current challenge Urban Mobility Index 2.0 US Cities rankings Models for change

The connected vehicle is the better vehicle!

We re Going to Miami: The First Proving Ground for Our Self-Driving Service

Way north of 60: How autonomous car testing

AUTONOMY AND SMART URBAN MOBILITY

Lives Saved through Vehicle Design: Regulation, Consumer Information and the Future

The Evolution of Transportation Technology in an Increasingly Smart Society. Presented by: Matthew J. Schiemer, PE September 12, 2017

The Status of Transportation Funding, Road Charge and Vehicle Miles Traveled in California

AUTONOMOUS VEHICLES & HD MAP CREATION TEACHING A MACHINE HOW TO DRIVE ITSELF

University of Michigan s Work Toward Autonomous Cars

An Introduction to Automated Vehicles

Women In Transportation Seminar The Future of Transportation How Do We Get There. US Department of Transportation NHTSA Julie J Kang

Road Map For Safer Vehicles & Fleet Safety

Autonomous Mini-Shuttles Why Autonomy? CALSTART Webinar April 18, 2017 Michael Ippoliti, CALSTART

Impact of Autonomous Vehicles on a Typical Canadian City

Brain on Board: From safety features to driverless cars

MEETING 21 ST CENTURY TRANSPORTATION CHALLENGES: Entering New Era of Redefining Mobility. SUSAN MARLOW, GISP Principal at Stantec MAPPS President

When Grids Get Smart - ABB s Vision for the Power System of the Future

July 23, S-230 U.S. Capitol S-221 U.S. Capitol Washington, D.C Washington, D.C

ROADMAP TO VEHICLE CONNECTIVITY

AUTONOMOUS VEHICLES Nevada Dept. of Motor Vehicles

Volvo cars swedish innovation

RIETI BBL Seminar Handout

Discover the future of mobility Mobility as a Service

Autonomous Driving. AT VOLVO CARS Jonas Ekmark Manager Innovations, Volvo Car Group

Planning for Autonomous Vehicles

LiDAR Teach-In OSRAM Licht AG June 20, 2018 Munich Light is OSRAM

FUTURE OF MOBILITY. ACEC-PEPP Capital Improvements Design & Construction Seminar. Art Reinhardt, PE, CFM JANUARY 25, 2019

Transcription:

A Setback in the Move towards a Driverless World A Tragic Accident Focuses Attention on Safety Recently, autonomous driving has made headlines due in part to a tragic accident in Tempe, Arizona, where a pedestrian in Arizona was struck and killed by an Uber sport utility vehicle operating in autonomous mode. The crash in Tempe, Arizona is tragic. It is a high profile case as it was the first reported death caused by a vehicle intended to be fully self-driving. As such, this has the potential to set the autonomous vehicle initiative back with respect to its time horizon for approval. Already a coalition of public interest groups has urged the US Secretary of Transportation, Elaine Chao to toughen voluntary guidelines for autonomous vehicle developers. Also in response to the accident, Uber temporarily suspended autonomous vehicle testing in Arizona, as did Nvidia, whose selfdriving platform the vehicle was using. Without diminishing the tragic loss of life in this case, it is also important to put this tragedy in context, as there are an average of 35,000 automotive fatalities a year in the US (12.5 deaths per 100.000 people). While the accident in Arizona has drawn fresh attention to the safety of autonomous systems, as Nvidia noted in its comments as it announced the temporary suspension of its autonomous driving tests, ultimately autonomous vehicles will be far safer than human drivers, so this important work needs to continue. Indeed, a report from McKinsey & Co. in 2015 estimated that with widespread adoption of autonomous vehicles and by taking human emotions and errors out of the road, deaths could be reduced by up to 90%, which is the equivalent of 300,000 lives saved each decade in the U.S., and savings of $190 billion each year in healthcare costs associated with accidents. With renewed attention on safety, it is likely to be even more of a focus now than ever before. Nvidia s CEO Jensen Huang explained at the company s analyst day that as a result of the accident, he actually believes that investment will rise in self-driving system design, specifically because companies will realize that safety is the one area where they cannot compromise in favour of attempting to lower costs. As with all innovations, successes and breakthroughs are likely to be accompanied by mistakes, false starts, setbacks, and accidents. But autonomous vehicles, refined over time, have the promise to help more than hurt and could potentially spawn significant benefits to society. This is why governments and regulators are likely to remain supportive of the ongoing innovation, and why progress will ultimately continue. Potential benefits to society in addition to increasing safety - include: Decreasing traffic congestion as driverless vehicles communicate with each other and identify optimal routes, they will be able to better spread demand for scarce road space. Increasing productivity The average American spends 101 minutes per day driving, which means that over a lifetime an average of 37,935 hours are spend driving a car. Those hours could be spent sleeping, reading, working, or consuming media, increasing overall productivity. Better capital utilization It has been estimated cars are in use less than 10% of the time. As we move to driverless vehicles, there may be a reduced desire to own a vehicle, resulting in more ridesharing, more optimal use of space (less need for parking spots), and other avenues for auto expenditures.

An Industry in Formation Ever since we swapped in a gas engine powered vehicle in place of a horse, we have had gradual technological evolution in the automotive sector. From 1950-2000, the automotive industry focused on safety with the introduction of seatbelts, antilock brakes and cruise control. The period 2000 to 2010 brought in more advanced safety features such as blind spot detection, forward collision and lane departure warning. 2010-2017 introduced further safety initiatives such as automatic emergency braking (AEB), rear view cameras and lane centering assist. Today, we are in the era of self-parking, adaptive cruise control and next generation of cars expected to put all these advances together to bring us self-driving or autonomous vehicles. Figure 1 A History of Autonomous Vehicles Source: Bloomberg, as of February 2018 In July 2017, the US Congress approved a measure called SELF DRIVE ACT (Safely Ensuring Lives Future Deployment and Research In Vehicle Evolution) that jump started testing of thousands of automated vehicles on public roads and real life conditions all while federal regulators developed safety standards. Prior to that legislation, self-driving vehicles had been tested on side streets and fenced in tracks. This led to a flurry of activity in the self-driving arena. In February 2018, the state of California approved broad new rules allowing the testing of driverless cars that do not require a human operator to sit behind the wheel. Until then, a human had always been present to take over in the event of emergency, a requirement that had pushed companies like Waymo (Google), Uber, Apple, Cruise 2

(General Motors), to test outside their home state in Arizona, Nevada and Michigan which allowed fully driverless vehicles on public roads. Figure 2 Notable Self-Driving Car Tests in the U.S. (LHS), Autonomous Vehicle Miles Driven in California (RHS) Company Test Locations Type of Vehicle Waymo (Google) GM Cruise Automation California, Michigan, Arizona California, Michigan, Arizona Specifically modified Chrysler minivans Chevy Bolt hatchbacks Ford California Ford Fusion sedans Lyft California N/A Uber California, Pennsylvania, Arizona Specifically modified Volvo XC90 SUVs Company Waymo (Google) Miles Driven in California (January 1 November 30, 2017) 352,545 GM Cruise 131,676 Drive.ai 6,127 Nissan 5,007 Zoox 2,244 Bosch 2,052 Aptiv 1,810 Source: Bloomberg, California Division of Motor Vehicles, as of January 2018 Of course, with recent developments, attention on safety will continue to rise, yet autonomous tests are likely to continue. Ford is running a pilot working with food delivery services Domino s and Postmates in Miami, Florida to investigate how ordinary people respond to receiving their pizza or groceries from a self-driving car. Cruise (GM) recently expanded test locations and settled with Uber on a high-profile lawsuit about theft of self-driving trade secrets. Former Google self-driving chief Chris Urmson founded Aurora and is now working with Volkswagen, Hyundai, and Chinese automaker Byton. Audi and Tesla are expected to release Level 4 cars late this year. Understanding Levels of Autonomy What is autonomous driving? In most cars today, the driver has to legally have has his or her hands on the steering wheel at all times. In contrast, for semi-autonomous driving, the driver can legally be allowed to have his hands off the steering wheel for a certain amount of time (10-15 seconds) but is required to take control again if prompted by the vehicle s system. The automotive system therefore needs to know everything about the car s surroundings at the point when the human driver is transitioning back to full control e.g., where pedestrians are positioned, structure of the road, and the positions of other cars. This is well beyond the sensing capabilities found in cars today and the move to fully autonomous driving will happen when auto systems are able to demonstrate far fewer mistakes than a human driver. This is when the human driver gives up full control to the vehicle, requiring no one at the driver s seat. 3

Figure 3 Levels of Autonomy according to NHTSA Autonomy Level Driver Attentiveness / Road Monitoring Example Level 0 No automation Driver in complete and sole control Blind spot warning, manual control of all functions Level 1 Function-specific automation Driver maintains overall control, but can cede limited authority Adoptive cruise control, precharged automatic braking Level 2 Combined function automation Driver responsible for monitoring the roadway and available for control at all times on short notice Adoptive cruise control with lane centering, intuitive parking assistance Level 3 Limited self-driving automation Driver enabled to cede full control under certain traffic conditions, but is available for occasional control with a comfortable transition time Pilot driving system feature with human present Level 4 Fully self-driving automation Driver to provide navigation input, but is not expected to be available for control at any time during the trip KITT vehicle can drive everywhere without human at wheel Source: NHTSA, Goldman Sachs Research, AGF Investment Management, as of February 2018 Implications for Investors As investors, what interests us are the technologies (and suppliers) that make self-driving cars possible as well as the potential impact to the world around us. Technologies that make autonomous driving possible include vision technologies, LIDAR, mapping, and connectivity. Vision technologies includes driver assistance systems that help prevent imminent accidents by processing visual information. Companies with exposure to growing demand for vision technologies include Autoliv, Mobileye (Intel), and Sony. A related area is LIDAR Light Detection and Ranging. LIDAR is a surveying method that measures distance to a target by illuminating the target with pulsed laser light and measuring the reflected pulses with a sensor. Beneficiaries from growth in LIDAR technologies include Quanergy and Xilinx (XLNX). Mapping is another critical piece of the autonomous driving puzzle. Detailed high-definition maps are required for autonomous vehicles to get around safely. Companies exposed to this theme include TomTom (TOM2) and Alphabet (GOOGL). And, autonomous cars need to stay connected, so companies like Qualcomm (QCOM) and Skyworks (SWKS) play an important part in the infrastructure of a driverless automobile. Inside the vehicle, Nvidia (NVDA) offers a powerful computing platform (Drive Px) that makes sense of all of the sensor data and figures out the safest path in real time. Each autonomous car will need a data recorder, similar to a plane s black box, that will records information about its sensors and systems for at least 30 seconds before a collision, which will necessitate a range of high speed memory and storage from the likes of Micron (MU) and Western Digital (WDC). 4

Figure 4 Requirements for an Autonomous Vehicle Source: Texas Instruments, as of February 2018 The other advancement in automotive technology is the electric vehicle (EV). While it makes intuitive sense that autonomous and electric are linked due to reliability (less moving parts), and lower costs (less weight, fuel costs and maintenance), autonomous technology does not have to be electric. In fact, Waymo uses Chrysler Pacifica minivans that are plug-in hybrid electric. Uber tests on hybrid Volvo XC90 SUVs which they want to convert into self-driving taxis. Only Tesla and Cruise (GM) uses their own all-electric P5 and Bolt models as their primary autonomous vehicles. Broader Impacts The potential impact of autonomous cars will likely be far beyond that of immediate suppliers. After all the automobile didn t just replace the carriage, it made possible motels, suburban shopping malls and for a while, drive-in theaters. The autonomous vehicle age may herald more radical changes as radical as even the Internet age. In a self-driving world, there will likely be less drunk driving fatalities and less speeding tickets which will make municipalities have to consider new sources of revenue. The layout of a car could change - why not have the seats face each other like in a limousine? Suburban sprawl would likely spread (we can happily live further away since we will not be actually driving in rush hour); in-car entertainment will be a premium distinguishing feature as 5

we cue up Netflix or Call of Duty and productivity could spike as we fire up Skype for conference calls and finish that DCF model on Excel365. Security (car-hacking over car-jacking) and connectivity (5G wireless) on autos will be differentiating features. Ride hailing companies like Uber and Lyft will likely provide tiers of service (limo s on a night out versus SUV on a skiing trip). Auto insurance premiums would likely shrink as driving becomes safer. Over time, shared mobility services would take away from car ownership and maybe even detract from transit services. Consumer data will likely be a battleground the driver s location and behavior has monetary value for marketing firms not much unlike individual s search activity. As such, is it any surprise that Waymo (Google) has invested the most and is the leader in autonomous driving today? In conclusion, driverless cars have the potential to drastically change the world around us. Though it will take years potentially several decades before driverless vehicles become ubiquitous, the technologies that will enable that future are being fully developed today. We believe investors would be well served to position themselves to benefit from this long-term secular trend. Commentaries contained herein are provided as a general source of information based on information available as of March 28, 2018 and should not be considered as personal investment advice or an offer or solicitation to buy and/or sell securities. Every effort has been made to ensure accuracy in these commentaries at the time of publication; however, accuracy cannot be guaranteed. Market conditions may change and the manager accepts no responsibility for individual investment decisions arising from the use of or reliance on the information contained herein. Investors are expected to obtain professional investment advice. References to specific securities are presented for illustrative purposes only and should not be considered as investment advice or recommendations. The specific securities identified and described herein should not be considered as an indication of how the portfolio of any investment vehicle is or will be invested, and it should not be assumed that investments in the securities identified were or will be profitable. AGF Investments is a group of wholly owned subsidiaries of AGF Management Limited, a Canadian reporting issuer. The subsidiaries included in AGF Investments are AGF Investments Inc. (AGFI), AGF Investments America Inc. (AGFA), AGF Asset Management (Asia) Limited (AGF AM Asia) and AGF International Advisors Company Limited (AGFIA). AGFA is a registered advisor in the U.S. AGFI is registered as a portfolio manager across Canadian securities commissions. AGFIA is regulated by the Central Bank of Ireland and registered with the Australian Securities & Investments Commission. AGF AM Asia is registered as a portfolio manager in Singapore. The subsidiaries that form AGF Investments manage a variety of mandates comprised of equity, fixed income and balanced assets. Published date: April 6, 2018 6