Project 5: Ramp Metering Control in Freeway System Team Members: Faculty Mentor: Emma Hand Dr. Heng Wei Sophmore GRA: Isaac Quaye Kartheek K. Allam Junior.

Slides:



Advertisements
Similar presentations
Proactive Traffic Merging Strategies for Sensor-Enabled Cars
Advertisements

Travel Time Estimation on Arterial Streets By Heng Wang, Transportation Analyst Houston-Galveston Area Council Dr. Antoine G Hobeika, Professor Virginia.
Project Prioritization - 1 Project Prioritization Using Paramics Microsimulation: A Case Study for the Alameda County Central Freeway Project Presented.
Byron Becnel LA DOTD June 16, Microscopic simulation models simulate the movement of individual vehicles on roads It is used to assess the traffic.
Overview  Improving highway safety is a priority for all state transportation departments.  Key roadway characteristics can be used to identify sections.
Miroslav Vujic University of Zagreb Faculty of Transport and Traffic Sciences Zagreb, 10 October 2013 CIVITAS-ELAN 8.2. Public Transport Priority and Traveler.
Transportation Data Palooza Washington, DC May 9, 2013 Steve Mortensen Federal Transit Administration Data for Integrated Corridor Management (ICM) Analysis,
Route 28 South of I-66 Corridor Safety and Operations Study Technical Committee Meeting #2 June 25,
1 Development of Capability-Enhanced PARAMICS Simulation Environment Lianyu Chu, Henry X. Liu, Will Recker California PATH ATMS Center University of California,
TRB Lianyu Chu *, K S Nesamani +, Hamed Benouar* Priority Based High Occupancy Vehicle Lanes Operation * California Center for Innovative Transportation.
MEASURING FIRST-IN-FIRST-OUT VIOLATION AMONG VEHICLES Wen-Long Jin, Yu Zhang Institute of Transportation Studies and Civil & Environmental Engineering.
11 Quantifying Benefits of Traffic Information Provision under Stochastic Demand and Capacity Conditions: A Multi-day Traffic Equilibrium Approach Mingxin.
1 Optimization of ALINEA Ramp-metering Control Using Genetic Algorithm with Micro-simulation Lianyu Chu and Xu Yang California PATH ATMS Center University.
TEMPLATE DESIGN © Issues and Challenges in Route Guidance: Mr. Tremaine Rawls, Mr. Timothy Hulitt, Dr. Fatma Mili Norfolk.
15 th TRB Planning Applications Conference Atlantic City, New Jersey Joyoung Lee, New Jersey Institute of Technology Byungkyu Brian Park, University.
Evaluation of Potential ITS Strategies under Non-recurrent Congestion Using Microscopic Simulation Lianyu Chu, University of California, Irvine Henry Liu,
Month XX, 2004 Dr. Robert Bertini Using Archived Data to Measure Operational Benefits of ITS Investments: Ramp Meters Oregon Department of Transportation.
Microsimulation for Rural and Exurban Regions: Lake County, California David Gerstle (presenting) & Zheng Wei Caliper Corporation.
Work Zone Safety & Mobility
Traffic Incident Management – a Strategic Focus Inspector Peter Baird National Adviser: Policy and Legislation: Road Policing.
Can Multi-Resolution Dynamic Traffic Assignment live up to the Expectation of Reliable Analysis of Incident Management Strategies Lili (Leo) Luo, P.E.,
A Calibration Procedure for Microscopic Traffic Simulation Lianyu Chu, University of California, Irvine Henry Liu, Utah State University Jun-Seok Oh, Western.
Tolling and Congestion Pricing Patrick DeCorla-Souza Office of Innovative Program Delivery Federal Highway Administration Presentation to Transportation.
Truths and Myths about Traffic Data Truths and Myths about Traffic Data ITSA Presentation June 2007 AirSage Proprietary & Confidential.
Evaluating Robustness of Signal Timings for Conditions of Varying Traffic Flows 2013 Mid-Continent Transportation Research Symposium – August 16, 2013.
2007 NHTSA ASSESSMENT WHAT IT CAN DO FOR YOU!. What is NHTSA? What is NHTSA? National Highway Transportation Safety Administration National Highway Transportation.
Project 5: Ramp Metering Control in Freeway System Team Members: Faculty Mentor: Isaac Quaye Dr. Heng Wei Junior GRA: Emma Hand Kartheek K. Allam Sophomore.
An Intelligent Transportation System Evaluation Tool in the FSUTMS Regional Demand Modeling Environment By Mohammed Hadi, Florida International University.
Transportation leadership you can trust. presented to Talking Freight Seminar presented by Richard Margiotta Cambridge Systematics, Inc. September 21,
Considerations when applying Paramics to Strategic Traffic Models Paramics User Group Meeting October 9 th, 2009 Presented Matthew.
Capability-Enhanced PARAMICS Simulation with Developed API Library Lianyu Chu, Henry X. Liu, Will Recker California Partners for Advanced Transit and Highways.
Center for Risk Management of Engineering Systems University of Virginia, Charlottesville 26 Schedule.
TSM&O FLORIDA’S STATEWIDE IMPLEMENTATION Elizabeth Birriel, PEElizabeth Birriel, PE Florida Department of TransportationFlorida Department of TransportationTranspo2012.
1 Modeling Active Traffic Management for the I-80 Integrated Corridor Mobility (ICM) Project Terry Klim, P.E. Kevin Fehon, P.E. DKS Associates D.
Incident Management in Central Arkansas: Current Settings and Proposed Extensions Weihua Xiao Yupo Chan University of Arkansas at Little Rock.
4-1 Model Input Dollar Value  Dollar value of time  Accident costs  Fuel costs  Emission costs.
The Mature Driver: Safety and Mobility Issues  Naomi G Rotter New Jersey Institute of Technology Claire McKnight City College of New York Presentation.
June 2006 ITE District 6 Annual Meeting June Evaluation of Single-Loop Detector Vehicle-Classification Algorithms using an Archived Data User.
V ehicle I nfrastructure I ntegration Jeffrey F. Paniati Associate Administrator for Operations and Acting Program Manager for ITS Joint Program Office.
Wyoming’s Approach to Safety Using the New SHRP2 Data Martin Kidner, State Planning Engineer Wyoming DOT July 22, 2015.
Vehicle Infrastructure Integration (VII) FDOT’s Annual ITS Working Group Meeting March 20, 2008 George Gilhooley.
Arterial Lane Selection Model Moshe Ben-Akiva, Charisma Choudhury, Varun Ramanujam, Tomer Toledo ITS Program January 21, 2007.
TRANSPORTATION ENGINEERING Planes, Trains, Automobiles and More Ardrey Kell High School February 23, 2012.
A Genetic Algorithm Based Microscopic Simulation To Develop The Evacuation Plan For Multi-institutional Centers Fengxiang Qiao, Ph.D., Assistant Professor,
Prediction of Traffic Density for Congestion Analysis under Indian Traffic Conditions Proceedings of the 12th International IEEE Conference on Intelligent.
November 15, 2005 Dr. Robert Bertini Dr. Sue Ahn Using Archived Data to Measure Operational Benefits of a System-wide Adaptive Ramp Metering (SWARM) System.
Traffic Safety and Operations Lab Dept. of Civil and Environmental Engineering University of Maryland, College Park Maryland State Highway Administration.
Role of SPFs in SafetyAnalyst Ray Krammes Federal Highway Administration.
Measuring Travel Time Reliability of Transportation Systems Abstract When traveling people want to be on time and avoid any traveling delays. We worked.
Robert L. Bertini Sirisha M. Kothuri Kristin A. Tufte Portland State University Soyoung Ahn Arizona State University 9th International IEEE Conference.
CMV Studies: Crash Causation and Safety Belt Use Tapan K. Datta, Ph.D., P.E. Professor Wayne State University Transportation Research Group March 13, 2007.
3000 Connecticut Avenue, N.W., Suite 208 Washington, DC
LARGE TRUCK CRASHES Michigan Traffic Safety Summit East Lansing, Michigan March 13, 2007 PRESENTED BY: Capt. Robert R. Powers Commanding Officer Motor.
Making Work Zones Work Better Chung Eng Work Zone Mobility & Safety Team Office of Transportation Operations Federal Highway Administration US Department.
Strategic Highway Research Program 2 Project L07 Identification and Evaluation of the Cost- Effectiveness of Highway Design Features to Reduce Nonrecurrent.
Project 5: Ramp Metering Control in Freeway System Team Members: Faculty Mentor: Isaac Quaye Dr. Heng Wei Junior GRA: Emma Hand Karteek K. Allam Sophomore.
Abstract Background Methodology Methods While the project is in the data-collection and background research phase, there are several studies that utilize.
5/8/02FHWA Office of Safety1 FHWA Safety Core Business Unit Office-Level Structure Develops and manages programs for the safe operation of roadways, bicycle.
Development of PARAMICS Plug-ins with Application Programming Interfaces Henry X. Liu, Lianyu Chu, Will Recker PATH / UC-Irvine.
Transportation Research Board Planning Applications Conference, May 2007 Given by: Ronald T. Milam, AICP Contributing Analysts: David Stanek, PE Chris.
Performance Evaluation of Adaptive Ramp Metering Algorithms in PARAMICS Simulation Lianyu Chu, Henry X. Liu, Will Recker California PATH, UC Irvine H.
Using Archived Data to Measure Operational Benefits of a System-wide Adaptive Ramp Metering (SWARM) System Data Collection Plan / Experimental Design May.
Transpo 2012 Yan Xiao, Mohammed Hadi, Maria Lucia Rojas Lehman Center for Transportation Research Department of Civil and Environmental Engineering Florida.
Driving Schools in Virginia - Market 200 Driver Training schools Driver Improvement clinics 2 –Average repeat offenders per clinic every year: 32.
Project Highway: Ramp Metering Isaac Quaye Junior Jared Sagaga Junior Emma Hand Sophomore.
1 THE HIGHWAY SAFETY MANUAL Michael S. Griffith Federal Highway Administration July 26 th, 2004.
Corridor Management Planning in California Jeff X. Ban CCIT, UC-Berkeley Rensselaer Polytechnic Institute (RPI)
Intelligent and Non-Intelligent Transportation Systems 32 Foundations of Technology Standard 18 Students will develop an understanding of and be able to.
Multi-objective Analysis For Passengers’ Routing Using Car/Bicycle
Problem 5: Network Simulation
Presentation transcript:

Project 5: Ramp Metering Control in Freeway System Team Members: Faculty Mentor: Emma Hand Dr. Heng Wei Sophmore GRA: Isaac Quaye Kartheek K. Allam Junior Jared Sagaga Junior 1

Sponsor 2

Outline 3 Introduction Scope of study, goals and tasks Training Data Collection Methodology Results Timeline

National Statistics Average time spent on highway (NHTSA 2009) –Student: 1.3 hours/day –Working: 1.5 hours/day –36 hours/year in traffic 4 Source: NHTSA

National Statistics (cont.) 32,885 people died in motor vehicle traffic crashes in 2010 (NHTSA) –5,419,000 total crashes on highway, 29% caused injury or were fatal 33% crashes occur on freeway stretch with bridges or interchanges (2011) $871 BILLION in economic loss and societal harm 5

RampMeters What can fix this? Source: Reference 10 6

What are Ramp Meters? 7 Traffic controls that regulate traffic flow entering a highway Source: Reference 6

Why Ramp Meters? Reduces congestion Improves throughput (up to 62%) –Decreases time spent staring at brake lights Reduces travel time (20-61%) Improves travel time reliability Ensures the safety of vehicles (5-43% decrease in accidents) 8

Types of Ramp Metering Fixed time –Pre-timed meter cycle based off of past data Responsive –Meter cycles vary depending on changes in traffic conditions 9

Metering Signal Arterial 10 Signal Controller Ramp Metering System

Meters Across the US Seattle: 232 Oregon: 150 California: 3471 Phoenix: 233 Salt Lake City: 23 Denver: 54 Texas: 115 Minn-St. Paul: 444 Wisconsin: 80 Chicago: 117 New York: 75 N. Virginia: 26 Implemented - Responsive In Progress - Responsive 11 In Progress - Fixed Ohio: 34 Atlanta: 170 Wisconsin: 38 Washington D.C.: 24 Florida: 22 St. Louis: 1

Scope of Study Conducted research on the study site (East-Bound I-275) by gathering data using traffic counter and GPS travel data logger Criteria –Elevated locations nearby for placing the camcorder to capture the traffic –Location should be busier in the peak hours than the normal flow of freeway Investigated both a one and two lane ramp implementation in VISSIM 12

Goals Gain background knowledge and training for research project Collect and process data from GPS data logger and traffic counter Investigate –Effectiveness of one and two lane ramp implementation Successfully run simulations in VISSIM Present completed deliverables 13

Tasks Equipment and software training Utilized GPS software (QTravel) Generated VISSIM network model using processed data Analysis of simulation results Assembled research findings 14

Training GPS and traffic counting QTravel –Extracted data collected from field trips VISSIM Software –Simulation set up –Data input and analysis –Calibration and validation 15

16 Data Collection I-275 Mosteller Road Reed Hartman Highway Study Site Legend East-Bound Sections

Data Collection (cont.) 17

Data Collection (cont.) 18 Sample Data 9/16/2013EB On-rampEmma EB On-rampJared EB FreewayIsaac EB FreewayJared /17/2013EB FreewayIsaac EB FreewayEmma WB FreewayJared /18/2013EB FreewayIsaac WB On-rampEmma EB FreewayIsaac DateVideo NameLocation Student CollectedCars TrucksTotal List of Videos Completed

Data Collection (cont.) 19 QTravel

Methodology 20 VISSIM Training Simulation Setup Run Simulation Results One Lane Ramp Two Lane Ramp Validation Calibration Study Site Data Collection

Simulation 21 Network Model

Calibration and Validation Calibration –Desired speeds –Routing decisions –Driving behavior Validation –Speed (+ 10%) –Travel Time (+ 15%) –Volume 22

Calibration and Validation (cont.) 23 Travel Time SimulationTravel Time (sec)ActualAccepted Result Time (sec)CarsTrucksTime (sec)PercentageRange (sec) % Mean SpeedActualAccepted Result CarsTrucks Speed (mph)PercentageRange % PASS Speed

Results 24 SimulationTravel Time (sec)Number of Vehicles Time (sec)CarsTrucksCarsTrucks SimulationTravel Time (sec)Number of Vehicles Time (sec)CarsTrucksCarsTrucks One Lane On-Ramp Without Ramp Meter One Lane On-Ramp With Ramp Meter

Results (cont.) 25 SimulationTravel Time (sec)Number of Vehicles Time (sec)CarsTrucksCarsTrucks SimulationTravel Time (sec)Number of Vehicles Time (sec)CarsTrucksCarsTrucks Two Lane On-Ramp Without Ramp Meter Two Lane On-Ramp With Ramp Meter

Results (cont.) 26

Results (cont.) 27 Decrease in standard deviation MZ = Merge Zone NMZ = Non-Merge Zone

Results (cont.) 28 Increase in Speed MZ = Merge Zone NMZ = Non-Merge Zone

Results (cont.) 29

Conclusion 30 No significant change in overall speed and travel time Significant change in sectional average speed and speed variation Ramp meters are more effective on two-lane on-ramps in increasing safety

Timeline Task Week Methods of evaluation and research Equipment and software training Data collection and analysis Use data to develop deliverables Create and run simulation models Complete deliverables 31LegendComplete

References Zongzhong, T., Nadeem, A. C., Messer, C. J., Chu, C. (2004). “Ramp Metering Algorithms and Approaches for Texas,” Transportation Technical Report No. FHWA/TX-05/ , Texas Transportation Institute, The Texas A&M University System, College Station, Texas. Yu, G., Recker, W., Chu, L. (2009). “Integrated Ramp Metering Design and Evaluation Platform with Paramics,” California PATH Research Report No. UCB-ITS-PRR , Institution of Transportation Studies, University of California, Berkley, California. Kang, S., Gillen, D. (1999). “Assessing the Benefits and Costs of Intelligent Transportation Systems: Ramp Meters,” California PATH Research Report No. UCB-ITS-PRR-99-19, Institution of Transportation Studies, University of California, Berkley, California. Arizona Department of Transportation. (2003). Ramp Meter Design, Operations, and Maintenance Guidelines. Papamichail I., and Papageorgiou, M. (2008). “Traffic-Responsive Linked Ramp-Metering Control,” IEEE Transactions on Intelligent Transportation Systems, Vol. 9, No. 1, n.p. 32

References (cont.) Federal Highway Administration, USDOT (2013). “FHWA Localized Bottleneck Program.” (Accessed 6/9/2014) Maps, Google (2014). (Accessed ,83m/data=!3m1!1e3?hl=en Maps, Google (2012). (Accessed ,3a,75y,243.6h,66.31t/data=!3m4!1e1!3m2!1si7sOFQJVai_eF3v7k8u_LQ!2e Freeways_and_Highwayshttp:// Freeways_and_Highways

Questions 34