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ACI Seminar  
   

FRP Composites for Reinforced Concrete Construction

A One - Day Seminar
Register NowPractical application of products and systems for new and retrofit reinforced concrete construction. 

 


Overview   

Learn how fiber-reinforced polymer (FRP) materials are specified as reinforcement for concrete structures and why their use has grown rapidly in recent years. At this intensive seminar, you will:

  • Review the basics of FRP composites
  • design concrete beams using internal FRP reinforcements,
  • learn how to strengthen concrete structures using FRP systems,
  • and work through design examples and learn from case studies demonstrating how FRP composites provide solutions for concrete reinforcement.
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    Free Publications   

    As part of the seminar, you will receive FREE the following publication(s) a $191.00 value:


    ACI 440.2R-02Guide for Design and Construction of Concrete Reinforced with FRP Bars.

    ACI 440.1R-03Guide for the Design and Construction of Externally Bonded FRP Systems for Strengthening Concrete Structures

    Special handout with notes authored by the instructors

     


    Who should attend?   

    Engineers, designers, contractors, owners and building officials will receive information on how to design, specify, and construct concrete structures reinforced with FRP materials or rehabilitated with FRP strengthening systems.

     

     


    Seminar Topics   

    This intensive seminar will introduce fiber-reinforced polymer (FRP) materials and focus on the practical application of products and systems currently in use for new and retrofit reinforced concrete construction. Part I Introduction to FRP Composite Materials and Systems FRP Forms, Products, and Applications
  • FRP rebar
  • FRP strengthening systems
  • Other FRP forms
  • Physical and Mechanical Properties and Behavior of FRP Systems
  • Design tensile strength
  • Time dependent behavior
  • Fatigue
  • Durability
  • Part II Design of Concrete Members with Internal FRP Reinforcement Flexural Design
  • Failure modes
  • Flexural capacity
  • Minimum reinforcement
  • Serviceability
  • Shear Design
  • Failure modes
  • Shear capacity
  • Stirrup design
  • Temperature and Shrinkage Reinforcement Development and Splices of Reinforcement
  • Development of length of a straight bar
  • Development length of a bent bar
  • Tension lap splice
  • Slabs on Ground
  • Design of slabs with shrinkage and temperature reinforcement
  • Design examples and case studies of recently completed projects will provide the attendees with field application information and demonstrate why the use of FRP for concrete reinforcement has dramatically risen in recent years. Part III Design of FRP Strengthening Systems for Concrete Structures Strengthening Concrete Structures
  • Reasons for strengthening
  • Types of FRP strengthening systems
  • Materials and properties of FRP strengthening systems
  • Substrate Preparation/FRP Application
  • Substrate repair
  • Installation methods
  • Quality Control
  • Design Principles
  • Strengthening limits
  • Flexural strengthening
  • Shear strengthening
  • Axial strengthening
  • Reinforcement Details
  • Bond and delamination
  • Detailing of laps and splices
  • Design examples and case studies of recently completed projects will provide the attendees with field application information and demonstrate why FRP composites are used for strengthening concrete structures.

     
     


    Locations & Dates   

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    Register Now

    You will be sent a confirmation of your registration with the address of the Seminar. Please verify the date and location, since changes may occur.

    Registration begins at 7:45 a.m. The seminar will begin at 8:00 a.m. and end at 5:00 p.m. Lunch will be from 12:00 p.m. to 1:00 p.m. Breakfast breads/pastries, lunch, coffee breaks, and publications are included in your registration fee.

     


    Faculty   

    Two of the following will be your instructors:

    Gregg C. Blaszak, P.E., Founder, BG International, Riderwood, MD. A bridge engineer and former aerospace engineer, Mr. Blaszak founded the firm in 2000 to assist the FRP industry with developing cost effective applications and products for the civil/infrastructure market and the civil engineering community with designing and specifying FRPs for their projects. He has project experience with a wide range of FRP products including externally bonded strengthening systems, prestressing systems, rebar, reinforcing grids, bridge decks and superstructures, piling, sheet piling and formwork for construction. He has been involved in the design, construction, or inspection of hundreds of civil/infrastructure projects utilizing FRP materials and has consulted on many high profile projects including the recent restoration of Frank Lloyd Wright’s Fallingwater House. Mr. Blaszak has also participated in the design and construction of several award-winning bridge structures. Mr. Blaszak chairs ACI 440's subcommittee on FRP repair and was a co-editor of ACI 440.2R-02.

    William J. Gold, MBrace Product Manager, Watson Bowman Acme / Degussa Construction Chemicals, Amherst, NY. Mr. Gold has over six years of experience in the design and construction of composite FRP materials for repair and strengthening. Formerly an engineering consultant with Structural Preservation Systems, Mr. Gold has been involved in the design of over 200 commercial applications of composite materials for strengthening and repairing existing structures. He is a graduate of the Architectural Engineering Department at the University of Kansas, and has spent two years performing graduate level research on composites in construction at the Pennsylvania State University and the University of Missouri at Rolla. He is currently very active in the American Concrete Institute, the Masonry Society, and the American Society of Civil Engineers. Mr. Gold co-chairs ACI 440's subcommittee on the use of FRP to strengthen concrete structures.

    Sami H. Rizkalla, Ph.D., FACI, FASCE, FCSCE, FEIC, Distinguished Professor of Civil Engineering and Construction, Director of Constructed Facilities Laboratory, Department of Civil Engineering, North Carolina State University, Raleigh, NC. He was involved in the design and supervision of construction of the first "smart" bridge built in North America using carbon FRP reinforcement for prestressing the AASHTO girders of the Beddington Street Bridge in Calgary, Canada and the longest span concrete AASHTO girders ever built which were prestressed with carbon FRP and reinforced with carbon FRP strips in Winnipeg, Canada. Dr. Rizkalla has also been involved in the design of several strengthening and rehabilitation projects involving concrete and timber bridges. He is the immediate past president of the Network of Centres of Excellence on Intelligent Sensing for Innovative Structures, which was involved in over 36 field application projects of FRP for bridges and structures. He is the immediate past chair of ACI Committee 440, FRP Reinforcements, and serves other professional organizations in various capacities.

    David W. Scott, Ph.D, Assistant Professor, Georgia Institute of Technology, Savannah, GA. Prior to joining the Georgia Tech faculty, Dr. Scott served as a research civil engineer with the U.S. Army Engineer Research and Development Center. Dr. Scott's primary duties were to perform and direct basic and applied research in support of U.S. Army civilian and military missions in the United States and abroad. Dr. Scott’s major research focus is the analysis and design of Fiber-Reinforced Polymeric (FRP) materials in civil engineering applications. He received the 1994 Dow Chemical Award for Excellence in Composites Research, and a 1997 Army Commendation for Technical Excellence. Dr. Scott is an active member of ACI 440, Fiber Reinforced Polymer Reinforcement, and serves as co-chair for ACI 440's subcommittee on Professional Education.

    Robert E. Steffen, Ph.D, Production Manager, designs and manages FRP projects for Kreysler and Associates, American Canyon, CA. He received his doctorate degree at Georgia Tech and worked for four years as an Assistant Professor of Civil Engineering at the University of New Hampshire (UNH), teaching courses in Design of Fiber Reinforced Polymers (FRP), Concrete Design, Steel Design, and Timber Design. At UNH, Dr. Steffen conducted research related to practical applications of FRP materials, and was a co-leader in producing the first concrete bridge in the United States to be reinforced with carbon FRP grid materials. Dr. Steffen is a licensed professional engineer.


    NOTE: ACI is not responsible for the statements or opinions expressed by the Faculty. If necessary to substitute an instructor an individual with similar qualifications will be used.

     

     


    Registration Fees   

    $499 Non Member Registration Fee
    $399 ACI National Members Registration Fee
    $123 Full-Time Students (with proof of enrollment)

     

     


    Continuing Education Credit   

    Attendees receive 0.75 CEUs or 7.5 LUs, worth 7.5 PDHs.


    Request for In-House Seminar Quote   

    An in-depth, customized seminar on this topic or any other ACI seminar topic can be brought directly to your offices. Pricing is dependent upon seminar topic, length, and number of attendees. Prices subject to change without notice. Publications pertaining to the seminar subject may be purchased at a substantial discount when an in-house seminar is held. For more information, click here, or contact Kelly Dudley, ACI's Seminar Coordinator, at 248-848-3709, or Kelly.Dudley@concrete.org.