Page 9 - 2017_NAmer_Spring_TD_eCatalog

How to Predict Thermal-Hydraulic Loads
on Pressure Vessels and Piping
PD382
When a vessel, pipe or other component fails in a uid transport or
storage system, a thermal-hydraulic load probably exceeded design
limits. Excessive pressure change, uid acceleration, water hammer or
rapid energy transfer mechanisms are often the cause. Such problems
can be avoided if the engineer correctly anticipates the magnitude and
time response of the loads that could occur.
This course summarizes numerous thermal-hydraulic loads that can be
exerted on vessels, pipes, components and structures. It provides a
greater awareness of thermal-hydraulic loads, demonstrates how to use
a variety of handout tools for estimating load characteristics while at the instability will be covered in-depth. Attendees are introduced to state-
same time instilling confidence in making either reasonable bounding
estimates or rigorous predictions of loads.
Participants receive a comprehensive course notebook, which includes
a “tool-kit” complete with tables, graphs, rules-of-thumb, useful
formulations for estimating thermal-hyrdraulic loads for a range of
applications, example problems, exercises plus a reference textbook
useful for advanced self-study.
You Will Learn To
• Explain how to anticipate steady and unsteady thermal-hydraulic
loading phenomena in the design or modification of vessel, piping
and component systems
• Estimate dominant characteristics of thermal-hydraulic forces
• Describe how to avoid or mitigate unwanted forces by selecting
appropriate design parameters or restructuring a procedure
Who Should A end
Engineers, technical and project managers as well as engineering
instructors wishing to upgrade their understanding of thermal-hydraulic
phenomena and associated loads, including individuals whose
business or professional interests involve pressure vessels, piping and
thermo uid system components, as well as researchers and inventors
seeking new ideas to help improve components and processes
Special Requirement
A degree in engineering, engineering science, physics or other
scientific discipline is recommended.
Instructor Frederick J. Moody 0
2 Days, 1.5 CEUs, 15 PDHs
Member 1,4 0 List Price 1,
See pages 90–95 for dates and locations of ASME Public Courses
delivered in the USA during Spring 2017.
Visit go.asme.org/ENAcourses
Flow-Induced Vibration with Applica-
tions to Failure Analysis
PD146 BO I LE RS A N D PR E S SU R E V E S S E L S Public Courses
Problem-solving methodologies are the main focus of this
comprehensive course on practical applications of ow and vibration
theory. The latest design and analysis tools for the prediction and
prevention of vibration in structures exposed to high-energy uid ow
are covered in practical detail.
With a review of ow and vibration theory fundamentals, attendees will
discover additional benefits from practical problem-solving activities at
the conclusion of each section. Topics such as vortex- and turbulence-
induced vibration, galloping, utter, sonic fatigue and uid-elastic
of-the-art analysis tools for the prediction and prevention of vibration
in structures exposed to high-energy uid ow. Case studies and a
workshop create an interactive course that aid engineers at various
levels.
Each participant will receive a copy of the book, Flow-Induced
Vibration, 2nd Edition, by Robert Blevins, Ph.D.
You Will Learn To
• Describe vortex-induced vibration, galloping, utter, sonic fatigue
and uid elastic instability
• Explain the latest vibration theory
• Demonstrate analysis and test techniques in conjunction with
strategies for successful design
• Explain how to evaluate examples of heat exchanger vibration,
strumming of cables as well as vibration and fatigue of panels
Who Should A end
Engineers in the design, mechanical, product development, system,
R&D, noise, maintenance and diagnostics fields, as well as supervisors
and managers responsible for the economic impact of ow-induced
component damage
Instructor Robert Blevins
3 Days, 2.3 CEUs, 23 PDHs
Member 1,89 List Price 1,99
7