Concrete Test Section RPF 8 May 2002. Objectives Design details Material properties Instrumentation Traffic Construction Conclusion Outline.

Slides:



Advertisements
Similar presentations
FLOOR FINISHES Screeds Terrazzo (in-situ type) Ceramic Tiling
Advertisements

ARC313 Building Code II. Review What is the minimum bearing pressure allowed for soils to support foundations? 75 kPa How can you tell by looking at the.
Construction and Testing of Construction Cycle 2 (CC2) Overlay Murphy Flynn FAA Airport Technology R&D Branch, AAR-410 William J. Hughes Technical Center,
Dr. Wa'el M. Albawwab ECGD4228 Transportation Engineering II Summer 2008 Sat. 15:30-18:30 PM K115.
Rigid Pavement Concrete. Transverse Cracking Rigid Pavement Transverse Cracking Causes:  Slab longer than 15’ Slab Curl Curing.
Design and Construction Guidelines for Thermally Insulated Concrete Pavements Lev Khazanovich, UM John Harvey, UCD Joe Mahoney, UW September 12, 2007.
HMA permanent deformation study: Progress report to the RPF 7 May 2008 Erik Denneman.
USE OF POLYURETHANE GROUT FOR CONCRETE PAVEMENT SLAB STABILIZATION Indiana County District 10-0 Lessons Learned 1.
Pavement Design Session Matakuliah: S0753 – Teknik Jalan Raya Tahun: 2009.
Highway Engineering Pavement Types
CEE 320 Spring 2007 Pavement Design CEE 320 Anne Goodchild.
HIGHWAY ENGINEERING AND TRAFFIC ENGINEERING CENG 95.
Updated mechanistic design method for rigid pavements cncPave.
Pavement Design Terms and Concepts
SESSION 3 Subgrade This module presents the concepts and methods of characterizing the subgrade for the purpose of concrete pavement design. It also highlights.
Considering multiple-axle group loads in mechanistic design of bound pavements Michael Moffatt.
Joint Types and Behavior. Rigid Pavement Design Course Jointing Patterns.
Lec 28, Ch.20, pp : Flexible pavement design, ESAL (Objectives)
Slag valorisation in construction materials: mechanical properties and rheology of alkali activated concrete containing ggbs Dr. Raffaele VINAI Mr. Ali.
PCC Overlays of HMA Pavements
Bituminous Stabilized Materials Guideline RPF Feedback : K Jenkins May 2006.
Bituminous Stabilized Materials Guideline Project Initiated By: Gautrans Sabita.
Interim Guidelines: The Design and Use of Foamed Bitumen Treated Bases Fenella Long Road Pavements Forum November 2001.
Conventional Pavement Structure inches Graded Aggregate Base inches Asphaltic Concrete Paving Prepared Subgrade stress.
Street and Local Roads Inspection and Acceptance of Alternative Pavements.
Ultra Thin Continuously Reinforced Concrete - Modelling &Testing under APT Louw Kannemeyer (SANRAL) Bryan Perrie (C&CI) Pieter Strauss (Consultant) Louw.
SESSION 7 Joint Design This session discusses joint design for jointed plain concrete pavements. Historically this is an item that is often ignored or.
CEMENT STABILIZATION OF ROADS CSIR Transportek Frank Netterberg Soillab (C&CI Steering Committee)
“Properties of Concrete” Introduction
In Situ Stabilization of Pavement Base Courses Roads Pavement Forum Thursday, May 17, 2001.
Presented to: By: Date: Federal Aviation Administration National Airport Pavement Test Facility Update Airport Pavement Working Group Don Barbagallo April.
Interim Guidelines: The Design and Use of Foamed Bitumen Treated Materials Kim Jenkins, Dave Collings Hechter Theyse, Fenella Long Road Pavements Forum.
AAPA 2011 Pre-CAPSA’11 Study Tour - Topic Brief Introduction of Australian Pavement Design.
Early Performance of Concrete Pavement Overlays in Minnesota Tom Burnham, P.E. Minnesota Department of Transportation 15 th Annual TERRA Pavement Conference.
Status of the first experiment at the PaveLab Fabricio Leiva-Villacorta, PhD Jose Aguiar-Moya, PhD Luis Loria-Salazar, PhD August 31 st, 2015.
LTPP Lessons Learned: Delaware SPS-2 Wednesday April 9, 2014 SPS-2 Tech Day, Dover, DE Gabe Cimini Project Manager, LTPP North Atlantic Regional Support.
Pavement Types Dr. TALEB M. Al-ROUSAN.
SESSION 6 Thickness Design
MODULE 1-2 Introduction to HMA Pavements. Learning Objectives Describe the types of (HMA) pavements Identify the role of each pavement layer Discuss key.
University of Sydney – Structures CONCRETE Peter Smith 1998 Concrete Making and Testing l Unique material çMade specially for each job çHandling on job.
CE2255 HIGHWAY ENGINEERING HANDLE BY L.MANON MANI
DESIGN FLEXIBLE AND RIGID PAVEMENTS Ms Ikmalzatul Abdullah.
R52 Rustenburg-Koster Road
AAR-410 January 14, FAA Airport Pavement Technology Program u National Airport Pavement Test Facility, FAA William J. Hughes Technical Center, Atlantic.
CSIR RPRAC WORKING GROUP: THIN-LAYER CONCRETE RPF, 23 November 2005.
Using Reflective Crack Interlayer-
Rigid Pavement Design Course
Hot Weather Concreting
Presented to: FAA Airport Pavement Working Group Meeting By: David R. Brill, P.E., Ph.D. Date: April 24, 2012 Federal Aviation Administration Update on.
ER. HIRALAL AGRAWAL EXECUTIVE ENGINEER.  Used for determining the Abrasion/LA value of aggregates.  This machine is for determining the resistance to.
Jerry L. Larson IRMCA Indiana LTAP Basics of a Good Road
Presented to: By: Date: Federal Aviation Administration Full-Scale Testing Overload Update REDAC Subcommittee on Airports David R. Brill, P.E., Ph.D. March.
Design Methods Flexible, Rigid & Composite CBR Method Asphalt Institute method National Crushed Stone Association Design Method California Method AASHTO.
Construction and Performance Evaluation of Roller Compacted Concrete under Accelerated Pavement Testing TRB Paper No: Moinul Mahdi Zhong Wu, PhD.,
University of Illinois at Urbana-Champaign
Durable Stabilized Bases
Rongzong Wu, David Jones and John T. Harvey
Design and Control of Concrete Mixtures CHAPTER 2
Phase I Experiment 4 Different pavement structures, 8 sections Compare
Chapter 5: Pavement Structure and Base
Supervised by Dr. Sami Hijjawi Prepared by Hamza Saifan
Authors: Trent McDONALD, Ernesto URBAEZ and Scott MCINTYRE
CONCRETE PAVEMENTS.
SHERINE RAJ AP/CIVIL ENGINEERING DEPARTMENT OF SCD
Structural Design of Highway
Pavement Design  A pavement consists of a number of layers of different materials 4 Pavement Design Methods –AASHTO Method –The Asphalt Institute Method.
PAVEMENTS CEE 320 Steve Muench.
Introduction to Pavement Design
Pavement Structural Analysis
OLD CONCRETE MAKES WAY FOR NEW ASPHALT A Laatz, N Cocks, N Burger
Presentation transcript:

Concrete Test Section RPF 8 May 2002

Objectives Design details Material properties Instrumentation Traffic Construction Conclusion Outline

To calibrate cncRisk at the lower end of the traffic spectrum To quantify failure of low-volume concrete pavements Objectives

Cement and Concrete Institute CSIR Transportek University of Pretoria Alpha Stone and Readymix BKS Raubex Parties

University of Pretoria Section 1 75 mm SFRC (30 kg/m3) Joint spacing 3 m 140 mm Foam concrete subbase In situ Section 2 75 mm SFRC (30 kg/m3) Joint spacing 6 & 4 m 125 mm CTS In situ Design details

University of Pretoria (cont) Section 3 75 mm SFRC (30 kg/m3) No joints 25 mm ETB 125 mm CTS In situ Design details

CSIR Transportek Section 4 50 mm “CRCP” 50 mm ETB 125 mm CTS In situ Section 5 75 mm “CRCP” 25 mm ETB 125 mm CTS In situ Design details

CSIR Transportek Section mm “CRCP” 125 mm CTS In situ Design details

C&CI Section mm butt jointed Joint spacing 2 and 3 m 125 mm CTS In situ Section mm butt jointed Joint spacing 2 and 3 m 40 mm continuously graded asphalt 100 mm CTS In situ Design details

C&CI Section mm jointed Joint spacing 2, 3 and 4 m 125 mm gravel In situ Section mm butt jointed Joint spacing 2, 3 and 4 m 125 gravel In situ Design details

C&CI Section mm dowel jointed Joint spacing 2, 3 and 4 m Dowels c/c 125 mm gravel In situ Design details

In situ CBR80 Quartzitic gravel A-1-a G5/G6 Compaction 97% Mod. AASHTO FWD deflections  1,0 mm Material Properties

Subbase As in situ Compaction 97% Mod. AASHTO Stabilized with 2% CEM I 42.5 (C3) (Recycler) UCS  2000 kPa FWD deflection 0,9 mm and Stab 0,5 mm Material Properties

ETB Subbase material Stabilized with 1,5% anionic stable grade 60%, 1% cement Asphalt Continuously graded hot mix with 60/70 pen 12 mm aggregate size Material Properties

Concrete Strength f c MPa f f 3,7 - 5,6 MPa Mod E GPa Shrinkage0,05 - 0,06 % CementCEM I 42,5/GGBS 80/20 Material Properties

LVDT’s Centre Side Thermocouples Conventional Programmable MDD’s Weather station Instrumentation

Readymix concrete Compaction by poker and beam Curing compound Plastic sheeting Construction

Trucks leaving quarry Weighbridge data No of axles Approximately 300 E80’s per day To date E 80’s Traffic

Very little distress to date Vertical movement at joints under traffic but no relative movement Rocking of slabs on foam concrete Some corner breaks Plastic shrinkage cracks not affecting performance Observations

Ongoing observations Continual recording of instruments to end May Panel to define failure Analysis of results Availability of data Future

Thank you