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1
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2
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- Feedback materials provided in the breakout rooms
- Application scorecards
- 3 poker chips (for voting)
- Facilitators will brief assumptions about the data environment that
applications can draw upon
- Facilitators will clarify application evaluation criteria
- Consider a set of (up to 12) IntelliDrive application concepts
- Facilitators provide one slide that describes the application
- Field questions and clarifying discussion
- Individually, you rate the application (HIGH, MEDIUM, LOW) against the
criteria on your scorecard
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3
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- Once you have scored each application, each participant votes for the
three most promising applications
- “Most promising”: strong potential for transformative impact, low
deployment risk, and clear alignment with IntelliDrive program
objectives
- BLUE = 3 points (top priority)
- RED = 2 points (second-highest priority)
- WHITE = 1 point (third-highest priority)
- Deposit your chips in the voting bins identified for each
application
(also turn in your scorecards)
- Quick break (5 minutes) to tabulate the results
- Reconvene to consider results within each breakout
- Discuss the implications of your group process
- Identify a presenter from your group for the breakout report at 3 PM
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4
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- For today’s exercise, these items can’t be changed
- Evaluation criteria
- Data Environment assumptions
- Application concepts (no altering or adding new ones)
- Policy-related issues are NOT in play for discussion
- Intellectual Property, Privacy, Access/Security, Meta-data, Quality,
Aggregation, Standards, Financial/Business Models….
- If these topics come up, we will park the discussion until tomorrow,
when we have special session to deal with these in turn
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5
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6
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7
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8
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9
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10
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11
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- Next, we’re going to go through application concepts that utilize data
from the arterial data environment
- We will present each concept on a single slide
- You can ask clarifying questions, or offer suggestions about how data
might be leveraged
- But the concept itself cannot be altered, modified or enhanced in
discussion
- Please record notes or comments on each concept on your scorecard
- You rate each application on three criteria (High, Medium, Low)
- Potential Impact: will this application have transformative impact?
- Deployment Readiness: if we assume the data is available, can this
application be developed, tested and widely deployed by 2025?
- Program Alignment: does the application align with program objectives
and is there a clear federal role in its development and deployment?
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12
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- Cooperative adaptive cruise control
- Problem Addressed:
- Significantly improve throughput by increasing capacity and efficiency,
and increase safety by minimizing the number of interactions between
vehicles
- Description
- A traffic manager sets a gap policy to form or break-up platoons of
vehicles
- Speeds are automatically adjusted by the vehicle based on
communications from the traffic management center
- Ad hoc or managed platoons of vehicles moving on the arterial
- Management of gaps, flows and arrival rates
- Systematically accounts for differing vehicle weight and performance
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13
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- Connected Eco Driving
- Problem Addressed:
- Improve fuel economy and reduce emissions by improving driver awareness
of local road topography, signal status, and weather condition.
- Description
- Modify vehicle operation to improve fuel economy and reduce emissions
considering grade, predicted speed changes or braking, and real-time
traffic
- Adapts based on driver aggressiveness, energy/fuel consumption, brake
regeneration, engine/drive torque-speed characteristics, other factors
- Provide feedback to the driver (or electronic control signals to
semi-autonomous systems) to keep the vehicle operating in target range
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14
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- Freight Signal Priority
- Problem Addressed:
- Reduce delays and improve travel time reliability for commercial
vehicles traversing signalized corridors with significant truck traffic
- Description
- Give priority to freight vehicles at intersections near key facilities
(ports, rail terminals, warehouses, distribution centers)
- Signal timings may be adapted to dynamically changing commercial
vehicle demand at intersections, or along the entire facility
- Enhances safety and reduces environmental impacts on these facilities
by reducing congestion and excessive idling
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15
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- Mobile Accessible Pedestrian Signal System
- Problem Addressed:
- Many legacy pedestrian signals at traffic signals are not accessible to
pedestrians with visual impairments, auditory systems have drawbacks
- Description
- Mobile devices carried by visually impaired pedestrians receive SPaT
data broadcast in signalized intersections
- Orients intersection and crosswalk geometry, as well as intersection
status
- Mobile devices also broadcast messages to make enabled vehicles aware
that a pedestrian is present in the case of blocked line-of-sight
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16
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- Curbside Parking Availability System
- Problem Addressed:
- Inform drivers about the availability of curbside parking, reducing
congestion, emissions, and driver frustration
- Description
- Monitor curbside parking availability either by using fixed sensors
installed in parking meters or the road surface, or by a network of
connected vehicles
- Parking data relayed to a central manager for processing and broadcast
- Inform travelers in real time the availability of parking spaces, the
rate, type, and hours via the internet as well as mobile and in-vehicle
devices
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17
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- Emergency Vehicle Preemption with Proximity Warning
- Problem Addressed:
- Reduce congestion and risk of accidents for motorists and pedestrians
resulting from emergency vehicles traversing multiple arterial
intersections
- Description
- Adjust preemption and signal recovery cycles to account for non-linear
effects of multiple emergency responses
- Broadcast proximity warnings as the vehicle traverses the facility
- Support location-specific signage, alerts, and warnings to motorists
and pedestrians of immediate emergency vehicle operations
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18
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- IntelliDrive-Driven Traffic Signal System
- Problem Addressed:
- Improve the accuracy and timeliness of data used to control signal
systems, reducing delays, costs and emissions while improving travel
reliability
- Description
- Utilize data from vehicles to accurately predict lane-specific platoon
flow, platoon size, and other traffic characteristics
- Reduce time and cost barriers to updating traffic signal timings, both
periodic and real-time updates
- Consider (freight/transit/light) vehicle mix in signal timing plans
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19
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- Adaptive Speed Control for Efficient Traversal of Intersections
- Problem Addressed:
- Address under-utilization of the space-time resource within an
intersection, reducing delays and improving emissions
- Description
- Vehicles with adaptive cruise control coordinate with intersections
- Each vehicle is assigned just the amount of space-time needed within
the intersection to enable safe passage by an intersection manager
agent
- Target vehicle speeds through the intersection managed by an in-vehicle
driver agent, although the driver may over-ride
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20
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- General Road User Traffic Signal Priority
- Problem Addressed:
- Give priority to general road users at urban intersections for a fee,
resulting in reduced delays and increased travel time reliability
- Description
- Subscribers can receive signal priority (like transit signal priority)
- Application will facilitate vehicle progression along the facility
- Service subscriptions would be based on specific routes/corridors
and/or times of day
- Generate revenue on traditionally non-revenue generating roadways
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21
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- Transit Signal Priority
- Problem Addressed:
- Due to a limited ability to make accurate predictions, traditional
methods have resulted in poorly performing TSP schemes
- Description
- Enable earlier detection of buses, and more accurate and continuous
monitoring of the bus as it traverses the corridor
- Establish low latency and ongoing communications with Priority Request
Servers (PRS) at individual, or multiple, intersections
- Consider new inputs (e.g. passenger loads) and criteria (e.g. type of
service, peak direction, etc.) for generating priority requests
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22
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- Real-Time Route Specific Weather Information for Motorized and
Non-Motorized Modes
- Problem Addressed:
- improve mobility and safety of users of motorized and non-motorized
modes of transportation (e.g., automobiles, transit, freight,
bicyclists, and pedestrians) by providing real-time, highly localized
weather information
- Description
- Fuse weather-related probe data generated by probe vehicles with
weather data from traditional weather information sources
- Develop highly localized weather and pavement conditions for specific
roadways, pathways, and bikeways
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23
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24
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- Now that we’ve worked through all the applications,
vote for the three most promising applications
- “Most promising”: strong potential for transformative impact, low
deployment risk, and clear alignment with IntelliDrive program goals
- BLUE = 3 points (top priority)
- RED = 2 points (second-highest priority)
- WHITE = 1 point (third-highest priority)
- Deposit your chips in the voting bins identified for each
application
(also turn in your scorecards)
- We’ll take a quick break (5 minutes) to tabulate the results
- One Bin, One Participant, One Chip rule
- Do NOT dump all of your chips in a single bin
- We want your individual priority of the top THREE applications
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25
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26
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27
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- Were similar or dissimilar applications selected during voting?
- Did the highest ranking applications align in the same quadrants of the
impact/deployment readiness chart?
- Regarding the top 6 applications:
- Are they highly overlapping? Or
independent?
- Do they require coordinated research?
- Will they require coordinated deployment?
- Who would like to volunteer to report out the breakout group findings?
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28
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