CFD has become an essential tool to predict fluid motion complicated with phenomena such as turbulence, heat and mass transfer, phase change, movement of boundaries, etc. CFD is now routinely used and has become an invaluable tool for design and analysis of complicated engineering systems and complex flow problems in aerospace, automotive, chemical, electronics, environmental, biomedical, and host of other industries. CFD provides the ability to visualize and understand complicated flow phenomena and the dynamical behavior for systems that are too expensive or difficult to prototype.
CFD is highly interdisciplinary and is the fusion of three major and distinct disciplines of engineering (fluid dynamics), applied mathematics, and computer science. In the past decade, the proliferation of commercial CFD software has significantly reduced the need for a deep knowledge of mathematics and computer science for application of CFD. Conversely, this proliferation has resulted in significant interests by analysts and organization not traditionally involved or heavily experienced in the field of fluid dynamics. Furthermore, if past trend is any indication, CFD will continue to be considered for problems that are far more challenging and complex than before and its use will grow in industrial arenas not traditionally known for their fluid problems.
The reduced need for expert knowledge in mathematics and computer science to use CFD in addition to proliferation of CFD ensures that more organizations and newer analysts would embark on using CFD in their design and analysis processes. It is then imperative that these new organizations and analysts know and understand the physical principles of fluid dynamics in addition to acquiring working knowledge of CFD. A thorough understanding of principles, theories, and assumption in fluid dynamics is paramount for the effective, proper, and optimized use of the CFD tool.
This course offers the attendees the fundamental knowledge for using CFD in real life engineering applications. Through a simple and moderately technical approach mixed with real world problems, this course describes the steps in the CFD process and provides benefits and issues for using CFD analysis in understanding of complicated flow phenomena and its use in the design process. It also includes the governing principles and important concept of fluid dynamics to help understand the physical principles behind CFD for its correct and effective use. Turbulence modeling, computational heat transfer, and multiphase modeling will be introduced and choices will be discussed in this course. The course will also include best practices for reducing errors and uncertainties in CFD analysis
The course is completely software independent. Attendees are welcome to bring laptops to take notes, but they are not required. A full set of printed and bound notes will be issued to every attendee.
Who Should Attend?
The target audience for this course is engineers and managers who are interested or are considering to incorporate CFD in their design practices in the most effective manner. This course is ideally suited for practicing engineers with limited knowledge of CFD or in need of refresher who wish to learn more about how to choose and effectively apply methodologies, schemes, and techniques in their CFD analysis. The material that is presented is independent of any particular software package, making it ideally suited to current and potential users of all commercial and non-commercial CFD software systems. Active participation, interaction, and questions are encouraged throughout the course to create a unique experience for each attendee.
- Fluid dynamics definitions, properties, & challenges
- Governing principles of fluid dynamics
- CFD basics
- Important phenomena & concept in fluid dynamics
- Geometry and meshing
- Differencing alternatives
- Flow classifications
- Analysis, monitoring, and visualization
- CFD errors and best practices
- Understanding turbulence
- Turbulence simulation approaches
- RANS turbulence modeling
- Wall treatment in turbulence modeling
- Hybrid turbulence models
- Turbulence models comparison & choosing a modeling approach
- Modes of heat transfer
- Conduction heat transfer
- Convection heat transfer
- Thermal boundary layer and heat transfer coefficient
- Conjugate heat transfer
- Multiphase flow definitions and objectives
- Multiphase flow regimes
- Multiphase flow modeling approaches: DPM, VOF, Mixture, Eulerian
- Highlightsfrom CFD’s past and future trends
Location & Venue
800 E. Lancaster Avenue
Villanova, PA 19085
The training will be held at Villanova University in Center for Engineering Education and Research (CEER) Building. Villanova University is the oldest Catholic university in Pennsylvania with more than 10,000 students. Villanova University is located in beautiful suburb of Philadelphia and is easily accessible from Philadelphia International Airport and Center City Philadelphia,