FHWA Office of Operations Research and Development Executing the Vehicle-to-Infrastructure Research Program: Enabling Technology Deborah Curtis <Greeting>

Slides:



Advertisements
Similar presentations
IBM Corporate Environmental Affairs and Product Safety
Advertisements

Overview What is the National ITS Architecture? User Services
Vehicle-infrastructure integration: creating co-operative mobility systems and services Hearing EU Parliament, 22 January 2009 Hermann Meyer, CEO.
How Technologies can be used to provide flexibility in asset monitoring By Daniel Stephens.
Enterprise Architecture
USDOT Intelligent Transportation Systems – Joint Program Office Mac Lister Program Manager Knowledge and Technology Transfer ITS Joint Program Office U.S.
GTRInewFormat.ppt-1 Electronic Systems Laboratory TMC Operator Requirements and Position Descriptions, Phase 2, Kickoff Meeting Presented by Dennis J.
National VII Architecture – Data Perspective Michael Schagrin ITS Joint Program Office US Department of Transportation TRB 2008 Annual Meeting Session.
Roadway Safety Panel How can ITS assist in bridging vehicle technology with roadway design and function?
ITS Program Update Moving Towards Implementation of Wireless Connectivity in Surface Transportation Talking Freight Webinar January 19, 2011.
IntelliDrive Research Signal Phase & Timing (SPaT) and Related Messages Edward Fok Office of Technical Service San Francisco.
What is a Business Analyst? A Business Analyst is someone who works as a liaison among stakeholders in order to elicit, analyze, communicate and validate.
Mike Schagrin US Department of Transportation ITS Joint Program Office IntelliDrive Safety Program Overview.
Connected Vehicle Program – Dynamic Mobility Applications Highlights for Tech Scan Scrum.
Traffic Monitoring Guide 2012 Update May 9, 2013 DBP Roadway Transportation Data Business Plan presented to Data Palooza U.S. Department of Transportation.
IntelliDrive SM Vehicle Safety Communications Working Toward V2V Deployment John Harding July 20, 2010.
FHWA Office of Operations Research and Development Executing the Vehicle-to-Infrastructure Research Program: Enabling Technology September 25, 2013 Deborah.
September 25, 2013 Greg Davis FHWA Office of Safety Research, Development and Test Overview of V2I Safety Applications.
IntelliDriveSM Vehicle to Infrastructure Connectivity for Safety Applications Monique Evans Director, FHWA Office of Safety RD&T U.S. Department of Transportation.
IntelliDrive SM Vehicle to Infrastructure Connectivity for Safety Applications Monique Evans Director, FHWA Office of Safety RD&T U.S. Department of Transportation.
Standards and Interoperability Framework Primer of S&I Phases, Procedures, and Functions.
Connected Vehicles Workforce FHWA Vehicle-to-Infrastructure
Business Analysis. Business Analysis Concepts Enterprise Analysis ► Identify business opportunities ► Understand the business strategy ► Identify Business.
A Vehicle Manufacturer’s Perspective on VII Christopher Wilson ITS Oregon- Feb 1, 2005 Christopher Wilson.
Incorporating Connected/Automated Vehicles into the Transportation Planning Process November, 2015 Max Azizi US DOT.
1 IntelliDrive SM Vehicle to Infrastructure Connectivity for Safety Applications Greg Davis FHWA Office of Safety RD&T U.S. Department of Transportation.
DSRC and SPaT, SSM, SRM & MAP
Melissa Lance Operations Systems Manager July 16, 2015 Connected Vehicle Update National and Virginia Perspective.
LECTURE 5 Nangwonvuma M/ Byansi D. Components, interfaces and integration Infrastructure, Middleware and Platforms Techniques – Data warehouses, extending.
© 2003, Cisco Systems, Inc. All rights reserved. 2-1 Campus Network Design.
Advancing National Wireless Capability Date: March 22, 2016 Wireless Test Bed & Wireless National User Facility Paul Titus Department Manager, Communications.
1 Autonomous Vehicles. 2 One of our top priorities is preparing our members for the impact of automation in vehicles.
Eric Peirano, Ph.D., TECHNOFI, COO
SPaT Challenge Overview and Execution
Principal Investigator ESTCP Selection Meeting
Camera PDR/CD1 Planning 19 September 2008
eHealth Standards and Profiles in Action for Europe and Beyond
First International Roadside Safety Conference June 12, 2017
Eric Peirano, Ph.D., TECHNOFI, COO
Next Generation Distribution System Platform (DSPx)
of our Partners and Customers
Smart Columbus Overview
Principal Investigator ESTCP Selection Meeting
TechStambha PMP Certification Training
RECOGNIZING educator EXCELLENCE
Vehicle to Infrastructure Deployment Coalition (V2I DC) & SPaT Challenge Overview January 8, 2017.
ITS-Related Work Items in ITU-R Study Group 5, Working Party 5A
FORMAL SYSTEM DEVELOPMENT METHODOLOGIES
SAM Server Optimization Engagement
The Open Group Architecture Framework (TOGAF)
Software Project Planning &
FHWA Bicycle and Pedestrian Program
SAE DSRC Technical Committee work and outlook
Ottawa AV Innovation ‘201’
Karen Bartleson, President, IEEE Standards Association
Connected & Automated Vehicle Executive Leadership Team (CAV ELT)
IntelliDriveSM Connectivity and the Future of Surface Transportation
Web Services Interoperability Organization
Continuity Guidance Circular Webinar
Analysis models and design models
Connected Vehicle Reference Implementation Architecture (CVRIA)
Group Meeting Ming Hong Tsai Date :
Principal Investigator ESTCP Selection Meeting
Agenda Purpose for Project Goals & Objectives Project Process & Status Common Themes Outcomes & Deliverables Next steps.
MSDI training courses feedback MSDIWG10 March 2019 Busan
Welcome to the New Smart City by TrafficCast…
MODULE 11: Creating a TSMO Program Plan
Principal Investigator ESTCP Selection Meeting
ONAP Architecture Principle Review
Connected Vehicle/Infrastructure UTC Tier 1 Center
Presentation transcript:

FHWA Office of Operations Research and Development Executing the Vehicle-to-Infrastructure Research Program: Enabling Technology Deborah Curtis <Greeting> The concept for Vehicle to Infrastructure (V2I) applications supporting safety, mobility and the environment has as its foundation underlying enabling technology, standards, and policies. This morning I will be talking with you about the underlying enabling technologies, which corresponds to V2I track 1 activities. There are three tracks in the V2I program….

V2I Communications – Major Activities This diagram illustrates how the three V2I tracks fit together. I will focus on track 1 enabling technologies, which is the top oval. The enabling technology interacts with work to develop all V2I applications, including Safety, Mobility, and the Environment. The speakers following me will talk with you about the applications in these areas. Track 1, Enabling Technologies will culminate in the V2I Reference Implementation, which will include the standards, specifications and interfaces for hardware and firmware that can be used in the connected vehicle environment. The V2I Reference Implementation will also include a physical manifestation, a complete system of the hardware and firmware that can be used to evaluate potential applications and be used to insure new systems are compatible and interoperable with other components. Source: USDOT 2013

V2I – Enabling Technologies Goal – Develop and integrate the infrastructure components necessary to provide the foundation for V2I deployment Signal Phase and Timing (SPaT) Mapping Positioning Communications Roadside Equipment (RSE) Device Integrated V2I Prototype The Integrated Prototype is a step along the way to the Reference Implementation. The V2I enabling technologies are the critical technology underpinnings that are essential to the full suite of safety, mobility, and environmental applications. Enabling technologies that are addressed by the V2I program include: SPaT, mapping, positioning, communications, roadside equipment (RSE) device, and integrated prototype. Some of the components of the V2I Reference Implementation include an updated Signal Phase and Timing (SPaT) message set with map and GPS correction signal. Other potential firmware changes in a connected vehicle controller are signal logic revisions that allow for a more interactive, adaptive signal control that provides mobility and environmental benefits along with information for vehicle-based safety applications. Given our limited time today and that many of you may be familiar with this track, I will just give a brief description of these technologies and focus on where the projects stand on the research - current activities and planned near-term steps.

Signal Phase and Timing (SPaT) & Related Messages Goal – Develop an interface between signal controllers and RSE device to enable 2-way data exchange between vehicles and controllers SPaT data Geometric intersection description (GID) Signal request messages Position correction message Standards to promote interoperability Goal of the SPaT Project… SPaT Data Signal state by movement Min/max time remaining by movement Exact time remaining in yellow Geometric intersection description (GID) Signal request messages (Emergency vehicle preemption, transit signal priority, etc.) Position correction message Need for standards to promote interoperability! NTCIP 1202 and 1211 SAE J2735

Signal Phase and Timing (SPaT) Past and current activities Interface testing at Safety Pilot 12 intersections equipped with Siemens and Econolite controllers Transit application using SPaT data SPaT data logged to facilitate future application development Lessons learned from Safety Pilot and other studies, and industry comment, will be used to refine the SPaT message Planned near-term steps Analyze SPaT Prototype in Affiliated Test Beds to support field testing of Multi-Modal Intelligent traffic Signal System (MMITSS) Refine SPaT and MAP messages and software to conform to final balloted version of J2735. Here are the past and current activities within the SPaT program…. …Also, I want to point out that safety, mobility and environmental V2I applications will need SPaT data. Program planned near-term steps include…

Mapping Goal – Collect relevant roadway geometry and attributes data and broadcast It for use in V2I applications Supporting activities Initial research proved concept of generating and broadcasting maps for V2I applications LIDAR and 360 optical are promising technologies for developing the initial map; other technologies promising for map updates Planned near-term steps Work with ITS Standards Program to identify gaps in standards and actions going forward, and harmonize with international standards effort Assess role in overall Digital Infrastructure initiatives. Vehicle mounted technologies solution (LIDAR) provides the most detailed data for use as a core mapping solution LIDAR is relatively costly, requires skilled personnel and equipment Converting raw data into usable layers is labor intensive process -needs to be automated for large scale deployment, need standard Opportunities to leverage other users (e.g. asset management) The other mapping solutions are useful for change detection and mapping under certain conditions Collection, preparation, and use of mapping data completed at the TFHRC Testbed May 2012. Three lane-level applications were demonstrated using decimeter-level positioning techniques Lane departure warning Curve speed warning Signal Phase and Timing, at lane-level Possible additional notes The solution is able to capture the most variety of features accurately and reliably Many key aspects of the solution can ultimately be automated, a key requirement for large scale deployment The solution provides data collection opportunity to meet several needs beyond connected vehicle thus has the potential for synergistic effort development The solution Can be more easily integrated into current mapping stakeholder activities including pavement monitoring programs as well as roadway asset mapping and inventory

Positioning and mapping are closely related Goal – Ascertain which current or near-term positioning technologies can meet requirements of V2I applications Current activities Wrapping up unit testing of technologies ongoing at Connected Vehicle Highway Testbed (CVHT) located at TFHRC GPS combined with IMU provide the best of all positioning solutions Planned near-term steps Complete development of positioning correction messages Additional research at CVHT to integrated positioning technologies within the connected vehicle environment The goal of the Positioning program is… Current activities include… Our planned near-term steps are… Possible additional information to share on positioning includes: Accurate vehicle position at intersection is critical SPaT information is based on a phase to lane assignment Requires lane-level accuracy Testing of technologies at the CVHT is ongoing Baseline OEM grade GPS Inertial Measurement Units GPS Code and carrier phase solutions (correction messages) Positioning and mapping are closely related. Positioning and mapping are closely related

Communications Goal – To test multiple communication technologies for potential use in V2I applications Current activities Develop test plans to assess the most promising technologies 5.9 GHz DSRC Cellular 4G/LTE Monitoring ongoing NTIA study Planned near-term steps Continue to investigate DSRC bandwidth issues (e.g. data transfer frequency, packet drops) using lessons learned from Safety Pilot Document the technologies that were tested in the laboratory field test at CVHT in fall 2013 and early 2014. The goal of the Communications program is to test multiple communication technologies for potential use in V2I applications. This includes Quantifying capabilities of the technologies against requirements of key V2I applications, Developing test plans to asses the most promising technologies, which we are currently doing DSRC has limited bandwidth and footprint . DSRC spectrum may be impacted by other uses. We are monitoring ongoing NTIA study. Our planned near-term steps include…

Roadside Unit (RSU) Device Goal – Foster the development of RSU device that meets the requirements of the connected vehicle program Past and current activities Hosted stakeholder workshop on August 8, 2013 Conducting weekly teleconferences Final Stakeholder conference call held in early March 2014 Version 4.0 of the specification was published on April 15, 2014 Planned near-term steps Revision to latest RSU device specification test plans Assist in setting up independent test labs for certification testing of devices Conduct functional testing of units conforming to new 4.0 specification at the CVHT at TFHRC in fall 2014. Goal: Foster the development of RSE that meets the requirements of the connected vehicle program 5 vendors participated in prototype efforts. We are continuing to refine of the RSE device based on Safety Pilot results. A major planned next step is to revise the latest RSE device specification. This effort will involve workshops and direct communication and interactions with a variety of stakeholders in the connected vehicle community. We want to identify the full range of requirements for a deployed RSE device.

Integrated V2I Prototype Goal – Develop a comprehensive prototype solution to connected vehicle infrastructure needs Incorporate all parts of track 1 to work seamlessly to enable V2I applications Integration and testing of a complete infrastructure system Data flows Information exchange Standards Current activities Architecture completed and vetted with both internal and external stakeholders. Requirements also completed and reviewed by USDOT program Managers. I mentioned at the beginning of my presentation the Reference Implementation, so I will end my talk with more details about this activity and current planned next steps. Track 1, Enabling Technologies will culminate in the V2I Reference Implementation, which will include the standards, specifications and interfaces for hardware and firmware that can be used in the connected vehicle environment. The step towards the RI is an Integrated V2I Prototype. The Integrated Prototype is just that … it is a roll-up of each technology from track 1 one layer at a time into an Integrated V2I Prototype. To have a complete infrastructure system – with data flows, information exchange, and standards. For our planned next steps, we have awarded Battelle a contract to develop the prototype. Contract was awarded 9/9/2013 and PoP is 12 months.

V2I Deployment Guidance June 2014 – Draft guidance undergoing internal review www.its.dot.gov/arch/index.htm Fall 2014 - Outreach workshop to stakeholders AASHTO World Congress Mid 2015 - Deployment Guidance tools End of calendar year 2015 - Entire deployment guidance package

Deployment Guidance Documentation Policy Statement Planning Federal-Aid Eligibility of V2I Equipment and Operations V2I Deployments and NEPA Interoperability Evaluation ITS Equipment Capability and Compatibility Reliability Use of Right-of-Way Private Sector Use Design Considerations Use of Existing Structures and Infrastructure Equipping Public Sector Fleets Procurement Process Tecnologies Privacy Data access P3

Tools Systems Engineering Processes Benefit Cost Analyses Planning Guide Cyber-Security guide Licensing Equipment selection Message format and lexicon Lessons learned from initial deployments Deployment warrants

For More Information Contact: Deborah Curtis, Project Manager Office of Operations Research and Development Deborah.Curtis@dot.gov