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Events for June 15, 2012

  • Repeating EventSAP TERP 10 Student Certification Academy

    Fri, Jun 15, 2012 @ 08:30 AM - 05:00 PM

    Executive Education

    Conferences, Lectures, & Seminars


    Speaker: Richard Vawter, USC Viterbi School of Engineering

    Talk Title: SAP TERP 10 Student Certification Academy

    Abstract: The University of Southern California, being an active member of SAP’s Global University Alliances program since its inception in 1996, has been chosen to offer the TERP10 Academy to its students in early Summer 2012. The TERP10 Academy, and its certification, is a direct response to the global forecast of needed SAP skills in the market, estimated at between 30,000 and 40,000, in the next several years.

    Students completing the TERP10 Academy and passing SAP’s certification exam will have the advantage of being equipped with a good understanding of business processes adopted by companies around the world. They will also get insights into best business practices and how SAP can be used to optimize business processes. Students will find that the TERP10 Certification will open internship opportunities as well as full time jobs with consulting firms such as Deloitte, Ernst and Young, KPMG, Hitachi, and other SAP partner companies.

    There will be two offerings of the SAP TERP10 Student Certification Academy in 2012. Both offerings will run for 9 full days, with the the certification examination to be given on the morning of the 10th day.

    Biography: Although Prof. Richard Vawter hasn't flown for over a decade, he's had plenty of experience in the cockpit—especially as a college student! His undergraduate degrees at both Embry-Riddle Aeronautical University in Arizona and UCLA were accomplished by literally flying between classes.

    Upon completing his Engineering degree at UCLA, Richard Vawter started work at Rockwell International analyzing the dynamic loads placed upon the Space Shuttle during the launch and entry phases of a mission. After the Challenger incident, Richard Vawter was chosen to be part of NASA’s Crew Egress Team and assigned the task to design a system and method for the crew to escape the shuttle during a controlled emergency descent.

    Following the resumption of the Space Shuttle flights, Prof. Vawter began taking graduate classes at the School of Engineering. After only one graduate class, Prof. Vawter became hooked on USC, completing Masters degrees in both Aerospace Engineering and Business Administration. After two years as a computer consultant, Prof. Vawter returned to USC and worked for the Marshall School of Business as a Computer Systems and Applications Specialist. During that time, he had the opportunity to fill in for a week teaching an ITP class and discovered his teaching talents when the students started clamoring for him to come back. Prof. Vawter began teaching officially at ITP in 1996 and currently focuses on SAP.

    Host: Corporate and Professional Programs

    More Info: http://mapp.usc.edu/professionalprograms/ShortCourses/TERP10.htm

    Audiences: Registered Attendees

    View All Dates

    Contact: Viterbi Professional Programs

    Event Link: http://mapp.usc.edu/professionalprograms/ShortCourses/TERP10.htm

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  • Oral Dissertation Defense

    Fri, Jun 15, 2012 @ 02:00 PM - 04:00 PM

    Sonny Astani Department of Civil and Environmental Engineering

    Conferences, Lectures, & Seminars


    Speaker: Mehrdad Bozorgnia, CE Ph.D, Candidate

    Talk Title: Computational Fluid Dynamics Analysis of Highway Bridges Exposed to Violent Waves

    Abstract:
    The vulnerability of coastal bridges to damage during Hurricane induced storm surge has been illustrated along the U.S. Gulf Coast in several hurricane events. The total losses during Hurricane Katrina, considering all direct and indirect losses (e.g., job losses), are estimated to exceed 100 billion dollar. Bridges revealed to be the most vulnerable critical components of the transportation system, suffering damage during hurricane induced storm surges and wave loads, and costing over 1 billion dollar to repair or replace TCLEE (2006).

    The objective of this study was to calculate the hydrodynamic forces on bridge superstructure via Computational Fluid Dynamic (CFD). Three dimensional numerical wave-load model based on two-phase Navier-Stokes equations is used to evaluate dynamic wave forces exerted on the bridge deck. In order to accurately capture the complex interaction of waves with bridge deck, several millions of mesh cells are used in the simulation domain and simulations are ran on High Performance Computing and Communication (HPCC) cluster at University of Southern California.

    First, CFD software was validated by simulating interaction of a solitary wave with a flat plate. The simulation results for pressure under the plate and velocities inside water were in good agreement with experimental data available from French (1970).

    Second, Validated numerical model was applied to a 1:5 scale Escambia Bay bridge which was heavily damaged during Hurricane Ivan. Compared to simple flat plate problem, Highway bridge superstructures pose a unique challenge due to their complex geometries, bluff profile, and their relatively large width-to-wavelength ratio. When the added complexities of trapped air, turbulence, and structural response are incorporated, analytical solutions become impractical and the available empirical solutions based on small-scale experiments may be biased by scale effects. Simulation results were compared to experimental data available from the O.H. Hinsdale Wave Research Laboratory at Oregon State University. Influence of modeling (2D vs 3D), time step and grid refinement have been investigated. It has been determined that the two phase Navier Stokes equations are very sensitive to the choice of mesh size and time step. Some guidelines based on simulation results are developed for optimum choice of mesh size and time step for similar wave structure interaction problems.

    Third, In order to evaluate scale effects in the wave bridge interaction problem, a bridge prototype with exact Escambia Bay Bridge dimensions is setup. Equivalent wave heights and period are calculated using Froude similitude laws from the wave heights and periods used in model simulations. The forces obtained from CFD simulations for prototype bridge are compared to forces calculated using Froude similitude law from model bridge simulations.

    Forth, CFD simulation results for model and prototype bridge was compared with recently published AASHTO guidelines. Recently published AASHTO guidelines for coastal bridges vulnerable to storms provide a series of equations to estimate maximum quasi-steady and slamming forces due to wave impact. These guidelines are developed based on experiments conducted at University of Florida on 1:8 scale Escambia Bay bridge.

    Fifth, since air entrapped between bridge girders and diaphragm was determined to be the main reason behind highway bridge failures during recent Hurricanes and
    Tsunamis, two retrofitting options are evaluated in terms of their efficacy in reducing hydrodynamics forces applied to bridge superstructure. These two options were using airvents in bridge deck and using airvents in bridge diaphragms.

    The ability of CFD to model a complex flow such as described in this dissertation would provide a powerful tool to predict the hydrodynamic forces under various conditions and furthermore to devise effective disaster prevention plan against bridge failure.

    Advisor: Prof. J.J. Lee


    Location: Kaprielian Hall (KAP) - 460

    Audiences: Everyone Is Invited

    Contact: Evangeline Reyes

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