MnDOT OFFICE OF MATERIALS RESEARCH PROJECT WORK PLAN

Similar documents
Page 1 of 7 IMPLEMENTATION PLAN AND PROJECT PROPOSAL

LRRB Local Operational Research Assistance Program (OPERA) for Local Transportation Groups Field Report

MnROAD Innovation in Pavement Technologies. Maureen Jensen, MnDOT RPUG September 25, 2012

Experience with RAP and RAS at the MnROAD Research Facility. Tim Clyne NCAUPG Technical Conference January 23, 2013

Pavement Materials, Design & Performance Overview

SHRP2 R21 Composite Pavement Systems Project Overview

Pavement Preservation and Thin Lift Asphalt NCAUPG and Illinois Bituminous Paving Conference February 3, 2015

NCHRP Asphalt Research. April 2015

Why MnROAD Asphalt Mixtures Performed Well in the TxDOT Overlay Tester. Joe W. Button, P.E. Senior Research Engineer Texas Transportation Institute

Surface Requirements for Bituminous-Aggregate Combinations

By Rebecca McDaniel, NCSC, Purdue Rocky Mountain Asphalt Conference February 21, 2008

Modeling Tire-Pavement Noise Using MnROAD Data

Committee Research Problem Statements

Chapter Eight. Minnesota Mix Specifications, Methods & Quality Control

MnROAD Safer, Smarter, Sustainable Pavements Through Innovative Research

Use of Taconite Aggregates in Pavement Applications

Asphalt Pavement Mix Types

LRRB INV #: SP&R #: ARTS Project #: TITLE OF PROJECT: Implementation of Recycled Unbound Base Material Properties for MnPAVE

Choosing the Right Preservation Treatment for Flexible Pavements

INVESTIGATION OF THE DESIGN OF ASPHALT PAVING MIXTURES USING MINNESOTA TACONITE ROCK

Project Title NCAT and MnROAD Partnership to Address National Needs for Research in Pavement Preservation and Asphalt Mixture Performance Testing

MnROAD Phase 3 Concrete Pavement Construction Update

Recommended Practices for Crack Sealing HMA Pavement

Thin Asphalt Overlays for Pavement Preservation

Sustainable Transportation Initiatives. Tim Clyne, MnDOT Sustainable Cities Network January 19, 2012

National Cooperative Highway Research Program

Stone Matrix Asphalt and Perpetual Pavements

THIN ASPHALT OVERLAYS FOR PAVEMENT PRESERVATION

NJDOT STATE REPORT NORTHEAST PAVEMENT PRESERVATION PARTNERSHIP ANNUAL MEETING APRIL 29 MAY 1, 2015 NEWARK, DELAWARE

THIN ASPHALT OVERLAYS FOR PAVEMENT PRESERVATION

LRRB 822 Project 822: Recommended Practices for Crack Sealing HMA Pavement

Asphalt Pavements The Best Value for Michigan Taxpayers

Asphalt Conference. Specification Changes

Asphalt Modifiers: Warm Mix, Polyphosphoric Acid, and Polymers

Flexible Slurry Microsurfacing System for Overlay Preparation

MPC-546 November 15, 2017

Thin Overlays for Pavement Preservation and Functional Rehabilitation

Serving the Nation. MnROAD Site th Street NE Monticello, Minnesota Site Phone # (651)

Thinlays What the research says

UPDATE ON RAP EXPERT TASK GROUP. Northeast Asphalt User Producer Group Meeting Atlantic City, New Jersey October 8, 2008

TACK COAT RESEARCH PROJECT STATEMENT

LOW TEMPERATURE CRACKING

FLEXIBLE PAVEMENT DESIGN WITH RAP MIXTURE

Evaluation of Friction Characteristics of Wearing Course Mixtures in Louisiana Zhong Wu, Ph.D., P.E.

12/9/14. HMA Mix Design. Asphalt Mix Design. Volumetrics. HMA Mix Characteristics

Moving Towards Balanced Mix Design for Asphalt Mixtures

Caltrans Maintenance Technical Advisory Guide (MTAG)

MICROSURFACING AN ECO-EFFICIENT TOOL FOR ROAD SAFETY AND PAVEMENT MAINTENANCE

Final Report SOUTHEASTERN SUPERPAVE CENTER POOLED-FUND ACTIVITIES. Pooled Funds SPR-3 (040) and TPF-5 (037) ALDOT Project Number: P

Polyphosphoric Acid Modified Asphalt in Conjunction with Lime as an Antistripping Agent

SUSTAINABLE AGGREGATES IN ASPHALT PAVEMENTS. Rebecca McDaniel Purdue Road School, March 6, 2012

Fading of Fluorescent Yellow Signs

MnROAD. National Research And Technology Center. Providing Research Insight for a Safe, Efficient, and Cost-Effective Transportation System

Proceedings of Meetings on Acoustics

Preventive Maintenance Project & Treatment Selection

Technical Advisory. Subject Surface Texture for Asphalt and Concrete Pavements

; Slide No. 1

Maintenance & Rehabilitation. Treatments. Crack Sealing. Sealant Types. Asphalt Pavement Preservation: Identification of Alternative Treatments

Asphalt Institute. to Univ. of KY A.S.C.E. Student Chapter 10/5/16. Mark Buncher, Ph.D., P.E. Director of Engineering

MnROAD PPA Workshop January 24 th 2013

Performance of Interstate 35 Owatonna, MN January 27, 2003

Innovative Pavement Construction Contracting Methods

BITUMINOUS OVERLAY STRATEGIES FOR PREVENTIVE MAINTENANCE ON PENNSYLVANIA INTERSTATE ROADWAYS. Shreya Gopal. B.E. Transportation Engineering,

Performance of Thin Bituminous Treatments for Low-Volume Roads. Greg Johnson Minnesota Department of Transportation June 25, 2003

Definition of HMA. In simple terms :

Annual Costs Any costs associated with the annual maintenance and repair of the facility.

David A. Van Deusen Tel: ; Fax: ; (Corresponding Author)

THINLAY ASPHALT FOR PAVEMENT PRESERVATION

Comparative Evaluation of Laboratory Moisture Susceptibility Tests for Asphalt Mixtures

Chapter 1: The Asphalt Advantage 1-1 Durability 1-1 Economical 1-1 Environmental Sustainability 1-2 Smoothness 1-2 Noise 1-3 Recyclable 1-4 Safety

WAPA Annual Conference December 1, Barry Paye, P.E. Wisconsin DOT

Timothy R. Murphy, P.E. Murphy Pavement Technology, Inc.

57 th Annual PAPA Conference Hershey, Pennsylvania. Dr. Randy West, P.E. Director / Research Professor

Bending Beam Rheometer Strength Test for Asphalt Binders at Low Temperature

MnROAD Cells (Phase II): Forensic Investigation into Recycled Unbound Base and Asphalt Surface Materials

Evaluation of Reclaimed Asphalt Pavement for Surface Mixtures

Current NCSC RAP Research

CHAPTER 2 ASPHALT CONCRETE MIXTURES

Minnesota Road Research Project Cell 26 Installation Report: Thermoplastic Inlay on an Asphalt Pavement Surface

INDIANA. So how do you make hot mix asphalt? Basics of HMA Pavement Performance. Basics of a Good Road Hot Mix Asphalt Pavement Materials Selection

Efforts to Improve Micro Surfacing Performance

New Composite Pavement Systems

Materials for Civil and Construction Engineers

Asphalt Pavement Research Trends

Asphalt Mixture & Binder Expert Task Groups Update. John Bukowski, Deputy Director Office of Pavement Technology

Renae Kuehl, PE, SRF Consulting Group Dan Wegman, PE, Braun Intertec Corporation November 2, 2017

FEATURE CORE INNOVATION AREA (CIA) TEAM PRESENTATION:

Asphalt Concrete Properties

Investigation of Low Temperature Cracking in Asphalt Pavements National Pooled Fund Study Phase II

LONG TERM PAVEMENT PERFORMANCE PROGRAM DIRECTIVE. Program Area: General Operations Directive Number: GO-09. Date: September 14, 1998 Supersedes: S-2

Current Status and Future of Asphalt Recycling in the USA. Randy C. West, Ph.D., P.E. Director & Research Professor

Hot Mix Asphalt Concrete (HMAC) Rehabilitation Design on Flexible Pavement PEIMAN AZARSA 1, DR.P.SRAVANA 2

OGFC Meets CRM : Where the Rubber meets the Rubber

Strategic Plan for Improved Concrete Pavement Surface Characteristics

Re: Optimization of Asphalt Cement Content to Improve Durability of Asphalt Mixes

2008 MnROAD Phase II Construction Report

Arizona AGC Pavement Preservation Series. Surface Seal Guide for Application and Construction

Asphalt Aging and its Impact on the Timing of Preventive Maintenance

12/11/ th Annual Illinois Bituminous Paving Conference December 11, 2013

Best Practices Guide for Manufacturing, Storing, Handling and Testing Rubber Modified Asphalt Mixtures

Transcription:

MnDOT OFFICE OF MATERIALS RESEARCH PROJECT WORK PLAN TITLE OF PROJECT: HMA Surface Characteristics related to Ride, Texture, Friction, Noise, Durability LRRB INV 868, SPR Project Number MPR-6(029) IS THIS A RESPONSE TO A PROBLEM STATEMENT? NO YES IF YES, STATE NAME OF CONTACT PERSON. PRINCIPAL INVESTIGATOR (LAST, FIRST, MIDDLE) Clyne, Timothy R. POSITION TITLE/DEGREES MnROAD Senior Research Engineer (Principal Engineer) Bachelor Of Science in Civil Engineering, University of Minnesota Master Of Science in Civil Engineering, University of Minnesota MAILING ADDRESS: Office of Materials & Road Research 1400 Gervais Avenue Maplewood, MN 55109 TOTAL BUDGET: $300,000 FUNDING SOURCE AMOUNT FHWA $ 176,632 MnDOT SPR $ 75,000 LRRB $ 75,000 KEY PERSONNEL OTHER THAN PRINCIPAL INVESTIGATOR. NAME: Mark Watson POSITION TITLE: Grad Engineer II ORGANIZATION: MnDOT DEGREE(S) BS and MS in Civil Engineering ROLE ON THE PROJECT: Field Data Collection & Analysis TELEPHONE AND FAX (AREA CODE, NUMBER, EXT.): TEL: 651-366-5473 FAX: 651-366-5461 E-MAIL: tim.clyne@state.mn.us TOTAL BUDGET PERIOD: START 12/1/2007 END 6/30/ (revised) PROJECT LENGTH (MONTHS):67 NAME: Mark Swanlund POSITION TITLE: Senior Pavement Design Engineer ORGANIZATION: Federal Highway Administration DEGREE(S) ROLE ON THE PROJECT: TAP Member, FHWA Rep PROJECT LIAISONS TECHNICAL LIAISON: NAME: Greg Johnson Greg.Johnson@state.mn.us 651-366-5464 ORGANIZATION: Mn/DOT TECHNICAL LIAISON: (Check one electronic approvals accepted) Work Plan Approved Work Plan Approved with Changes Noted Work Plan Not Approved ADMINISTRATIVE LIAISON: NAME: Bruce Holdhusen Bruce.Holdhusen@state.mn.us 651-366-3760 ORGANIZATION: Mn/DOT PRINT NAME: PRINCIPAL INVESTIGATOR: I agree to accept responsibility for the scientific conduct of this project and to provide the required progress reports. SIGNATURE OF PRINCIPAL INVESTIGATOR: MANAGER, ROAD RESEARCH SECTION : I hereby certify sufficient staff time will be scheduled for the Principal Investigator to complete the research as outlined in the attached work plan. SIGNATURE OF MANAGER ROAD RESEARCH SECTION: DIRECTOR OF RESEARCH SERVICES: SIGNATURE OF DIRECTOR OF RESEARCH SERVICES:

HMA Surface Characteristics Page 2 INTRODUCTION This study focuses on pavement surface characteristics of several types of HMA pavements. The degree of influence of pavement surface parameters can be understood and applied to project management planning in terms of optimizing pavement surface characteristics while retaining durability. Models and algorithms developed will enhance some desirable pavement characteristics such as reduced noise and improved skid resistance. OBJECTIVES The following pavement surface parameters can be included in a global tire-pavement interaction algorithm: ride quality observed in the frequency domain, tire-pavement noise, texture, pavement porosity, effective flow resistivity (EFR) or sound absorption, and friction. These factors influence the tire-pavement interaction mechanism. While porous pavements are more sound absorbent than normal pavements, the EFR ratios can be determined. There is an optimal porosity for durability and sound attenuation characteristics. Though it is acknowledged that, in general, pavements with smaller aggregates and more open surface textures provide more noise reduction than typical dense-graded HMA mixtures, the degree of attenuation can be determined through this research. Research Matrix & Methods Several hot mix asphalt cells with various mix designs/surface types will be constructed at the MnROAD facility in 2008. Some of these cells may be constructed for other research studies but will also be studied for their surface characteristics. HMA Surface Type Matrix Surface Type MnROAD Location Cell(s) 4.75-mm Taconite SMA (Composite Pavement surface) Mainline 6 Porous Asphalt Low Volume Road 86, 88 Fine Graded Superpave (various binder grades & RAP %) Mainline 4, 15, 16, 19, 20, 21, 22 Novachip Mainline 2, 3 Chip Seal (2 size aggregates) Low Volume Road 27 One of the goals of this project is to track the change in pavement surface characteristics over time. In order to do that, pavement sections will be monitored on a regular schedule (seasonally and annually) according to the following methods: Measure noise with on board sound intensity (OBSI) protocol Measure friction with ASTM E-274 and/or dynamic friction tester Use laser-equipped devices to monitor texture and ride quality (circular texture meter, Robotex, lightweight profiler) Measure Effective Flow Resistivity (EFR), or sound absorption Monitor pavement durability in terms of raveling and cracking by way of semi-annual LTPP distress surveys

HMA Surface Characteristics Page 3 Work plan Task 1: Literature Review A literature review will be performed detailing state-of-the-practice and state-of-the-art techniques for measuring, analyzing, and modeling pavement surface characteristics. The interrelationships between noise, texture, ride, friction, and durability will be reviewed. Deliverable for Task 1: PowerPoint presentation and summary report. Duration of Task 1: 2007 - March 2008 Task 2: Test Section Construction and Initial Monitoring Construction on several MnROAD test cells used for this study will take place during the Summer of 2008. Immediately after construction texture, friction, noise and ride measurements will be performed. This will serve as baseline measurements for comparison in future data collection efforts. Several pieces of equipment and software will be purchased to assist in data collection and analysis. Deliverable for Task 2: PowerPoint presentation and summary report. Duration of Task 2: 6 months from construction Task 3: Subcontracts for Additional Measurements and Analysis Outside researchers/consultants will be hired to perform additional surface characteristic measurements that Mn/DOT is not currently equipped to perform. These measurements may include statisical pass by (noise), effective flow resistivity (sound absorption), Robotex (3-D surface texture), rolling resistance (fuel efficiency), and others. In addition, consultants may be hired to perform advanced data analysis on certain surface characteristic measurements (e.g., the effect of texture on sound absorption). Finally, temporary techician staff may be hired at Mn/DOT to perform basic data collection and analysis activities. Deliverable for Task 3: A summary report and PowerPoint presentation submitted by the subcontractor for each subcontract or activity. Duration of Task 3: April 2009 - June 2012 Task 4: Surface Characteristics (2009) The surface characteristics measurements will be taken at least twice per year for four years in order to quantify the seasonal variation in the parameters and how those parameters change over time. Noise will be measured with On Board Sound Intensity (OBSI) protocol and the sound absorption tube. Texture will be measured with the sand volumetric technique or a laser device. Ride will be measured with the triple and single laser of the lightweight profiler. Friction will be measured with a skid trailer according to ASTM E 274 procedure, the dynamic friction tester, and other devices if they become available. Durability will be measured in terms of pavement raveling and cracking according to a Mn/DOTmodified LTPP distress survey. Deliverable for Task 4: PowerPoint presentation and summary report. Duration of Task 4: January - 2009 Task 5: Surface Characteristics (2010) Surface characteristics (noise, texture, friction, ride, durability) will be measured seasonally throughout the year. Comparisons will be made across both time and test section for each measure.

HMA Surface Characteristics Page 4 Deliverable for Task 5: PowerPoint presentation and summary report. Duration of Task 5: January - 2010 Task 6: Surface Characteristics (2011) Surface characteristics (noise, texture, friction, ride, durability) will be measured seasonally throughout the year. Comparisons will be made across both time and test section for each measure. Deliverable for Task 6: PowerPoint presentation and summary report. Duration of Task 6: January - 2011 Task 7: Surface Characteristics (2012) Surface characteristics (noise, texture, friction, ride, durability) will be measured seasonally throughout the year. Comparisons will be made across both time and test section for each measure. Deliverable for Task 7: PowerPoint presentation and summary report. Duration of Task 7: January - 2012 Task 8: Analysis of Experimental Data The field data collected during the project will be analyzed graphically and analytically. Relationships between the various pavement surface characteristics will be identified and characterized. Enhancements to the Traffic Noise Model (based on pavement texture, porosity, roughness, and noise characteristics) will be proposed to the Federal Highway Administration. Deliverable for Task 5: PowerPoint presentation and summary report. Duration of Task 8: September 2008-2012 Task 9: Deployment and Implementation A technical brief will be written and distributed to interested parties both locally and nationally. Revised protocols and/or specifications will be proposed for asphalt mixtures (Mn/DOT Bituminous Office) and noise mitigation techniques (Mn/DOT Office of Environmental Services). Deliverable for Task 9: PowerPoint presentation and summary report. Duration for Task 9: October 2012 - March Task 10: Draft Final Report A draft final report will be written that documents all of the results of the study. The report will be subject to technical and editorial review. Deliverable for Task 10: Draft Final Report Duration of Task 10: October 2012 - March Task 11: Final Report Completion As appropriate, the PI will incorporate the comments from the Technical Liaison and members of the Technical Advisory Panel into a Final Report for publication. Deliverable for Task 11: Draft Final Report Duration of Task 11: April - June

HMA Surface Characteristics Page 5 BUDGET BY TASK: Task Description Salaries Consultants Equipment Due Date 1 Literature Review $16,000 2 Test Section Construction and Initial Monitoring $18,000 $50,625* March 2008 June 2008 3 Subcontracts for Additional Measurements & Analysis $76,632 June 4 Surface Characteristics (2009) 2009 5 Surface Characteristics (2010) 2010 6 Surface Characteristics (2011) 2011 7 Surface Characteristics (2012) 2012 8 Analysis of Experimental Data $50,000 9 Deployment and Implementation $20,000 10 Draft Final Report $20,375 11 Final Report SUBTOTAL $199,375 $76,632 $50,625 TOTAL $326,632 2012 March March June * Includes LISA Upgrades ($10,000), OBSI Upgrades ($8000), OBSI Tires ($2000), Dynamic Friction Tester ($30,000), Traffic Noise Model Software ($625)

Page 6 RESEARCH PROJECT WORKPLAN HMA Surface Characteristics Project Timeline Task Description 1 Literature Review 2 Test Section Construction and Initial Monitoring 3 Subcontracts for Additional Measurements and Analysis 4 Surface Characteristics (2009) 5 Surface Characteristics (2010) 6 Surface Characteristics (2011) 7 Surface Characteristics (2012) 8 Analysis of Experimental Data 9 Deployment and Implementation 10 Draft Final Report 11 Final Report Completion 07 2008 2009 2010 2011 2012 1 4 7 10 13 16 19 22 25 28 31 34 37 40 43 46 49 52 55 58 60 63 66 D M J S D M J S D M J S D M J S D M J S N M J