Problem-solving methodologies are the main focus of this comprehensive course on practical applications of flow and vibration theory. The latest design and analysis tools for the prediction and prevention of vibration in structures exposed to high energy fluid flow are covered in practical detail.
This comprehensive course reviews fundamentals of flow and vibration theory. Attendees benefit from the problem-solving activities at the conclusion of each section. Topics such as vortex and turbulence induced vibration, galloping, flutter, sonic fatigue and fluid-elastic instability will be covered in-depth. Attendees are introduced to state-of-the-art analysis tools for the prediction and prevention of vibration in structures exposed to high-energy fluid flow. Case studies and a workshop create an interactive course that aid engineers at various levels.
You Will Learn to:
Explain the vortex-induced vibration, galloping, flutter, sonic fatigue, and fluid elastic instability
Describe the latest Vibration theory and ASME B&PV Code, Section III: N-1300 on Flow-Induced Vibration
Describe the analysis and test techniques in conjunction with strategies for successful design
Evaluate examples of heat exchanger vibration, strumming of cables, and vibration and fatigue of pipes and panels
Analyze the root cause of the Tacoma Narrows Bridge Collapse
Determine how the flow-induced tube vibrations caused the shutdown at the San Onofre Nuclear Generating station.
Who Should Attend
Engineers in the following fields are strongly encouraged to attend: design, mechanical, product development, system, R&D, noise, maintenance, and diagnostics. Supervisors and managers responsible for the economic impact of flow-induced component damage will also greatly benefit from the course content.
Course Materials (included in the purchase of the course)
Participants receive a downloadable version of the course presentation via the Learning Management System.
This ASME Virtual Classroom course is held live with an instructor on our online learning platform. Certificate of completion will be issued to registrants who successfully attend and complete the course.
Problem-solving methodologies are the main focus of this comprehensive course on practical applications of flow and vibration theory. The latest design and analysis tools for the prediction and prevention of vibration in structures exposed to high energy fluid flow are covered in practical detail.
This comprehensive course reviews fundamentals of flow and vibration theory. Attendees benefit from the problem-solving activities at the conclusion of each section. Topics such as vortex and turbulence induced vibration, galloping, flutter, sonic fatigue and fluid-elastic instability will be covered in-depth. Attendees are introduced to state-of-the-art analysis tools for the prediction and prevention of vibration in structures exposed to high-energy fluid flow. Case studies and a workshop create an interactive course that aid engineers at various levels.
You Will Learn to:
- Explain the vortex-induced vibration, galloping, flutter, sonic fatigue, and fluid elastic instability
- Describe the latest Vibration theory and ASME B&PV Code, Section III: N-1300 on Flow-Induced Vibration
- Describe the analysis and test techniques in conjunction with strategies for successful design
- Evaluate examples of heat exchanger vibration, strumming of cables, and vibration and fatigue of pipes and panels
- Analyze the root cause of the Tacoma Narrows Bridge Collapse
- Determine how the flow-induced tube vibrations caused the shutdown at the San Onofre Nuclear Generating station.
Who Should Attend
Engineers in the following fields are strongly encouraged to attend: design, mechanical, product development, system, R&D, noise, maintenance, and diagnostics. Supervisors and managers responsible for the economic impact of flow-induced component damage will also greatly benefit from the course content.
Course Materials (included in the purchase of the course)
Participants receive a downloadable version of the course presentation via the Learning Management System.
This ASME Virtual Classroom course is held live with an instructor on our online learning platform. Certificate of completion will be issued to registrants who successfully attend and complete the course.
