Process Piping - Hydraulics, Sizing and Pressure Rating
In Process Piping - Hydraulics, Sizing and Pressure Rating, you'll learn ...
- How to size pipe using the basic fluid flow equations
- Factors that contribute to pressure loss in piping systems
- The relationship between pressure and temperature in piping
- How to determine pipe wall thickness per ASME B31.3
A large portion of the total cost of a typical oil & gas or chemical process plant is in the piping systems. A significant amount of operating cost (energy) and maintenance cost is also associated with the flow of fluids through the piping and its components. Understanding how fluid flows from one point to another is the foundation of process design and piping layout. The principles are not complex, but neither are they simple due to the interdependence of velocity, pipe diameter, length, fluid characteristics, pressure drop and friction.
This 4-hour course provides an overview of piping pressure drop calculation procedures and line sizing in a simplified manner. The course also provides an introduction to pipe wall thickness calculations for internal pressure.
This course is Part 3 of a 9-part series that covers the entire gamut of piping engineering in an easy-to-learn format. Each course in the series is stand-alone. Feel free to jump back and forth through the courses depending on your own knowledge and experience and your current needs. However, it is suggested that you complete the series in sequential order if you have limited knowledge of piping systems.
This course is intended for mechanical engineers, chemical engineers, piping engineers, control systems engineers, as well as civil, structural and electrical engineers who have a need or a desire to know more about piping components and systems. No prerequisite knowledge of the subject is required.
Specific Knowledge or Skill Obtained
This course teaches the following specific knowledge and skills:
- Basic fluid flow equations for pipe sizing and recommended velocities for water and steam piping
- Fundamental fluid flow equation, Continuity equation and Bernoulli’s equation
- Flow characteristics in pipe - Laminar flow, Turbulent flow, Reynolds Number
- Pressure Drop due to Friction- Hazen Williams Equation, Darcy Weisbach Equation and Friction factor –Moody Diagram
- Minor Losses in Pipe Fittings- Equivalent Length Method, K Factor Method
- Factors affecting pressure loss
- Factors affecting pipe wall thickness
- Pressure, temperature relationships
- Types of pipe stresses – Hoop stress and axial stresses
- Maximum Principle stress theory and shear stress theory
Certificate of Completion
You will be able to immediately print a certificate of completion after passing a multiple-choice quiz consisting of 20 questions. PDH credits are not awarded until the course is completed and quiz is passed.
|This course is applicable to professional engineers in:|
|Alabama (P.E.)||Alaska (P.E.)||Arkansas (P.E.)|
|Delaware (P.E.)||Florida (P.E. Area of Practice)||Georgia (P.E.)|
|Idaho (P.E.)||Illinois (P.E.)||Illinois (S.E.)|
|Indiana (P.E.)||Iowa (P.E.)||Kansas (P.E.)|
|Kentucky (P.E.)||Louisiana (P.E.)||Maine (P.E.)|
|Maryland (P.E.)||Michigan (P.E.)||Minnesota (P.E.)|
|Mississippi (P.E.)||Missouri (P.E.)||Montana (P.E.)|
|Nebraska (P.E.)||Nevada (P.E.)||New Hampshire (P.E.)|
|New Jersey (P.E.)||New Mexico (P.E.)||New York (P.E.)|
|North Carolina (P.E.)||North Dakota (P.E.)||Ohio (P.E. Self-Paced)|
|Oklahoma (P.E.)||Oregon (P.E.)||Pennsylvania (P.E.)|
|South Carolina (P.E.)||South Dakota (P.E.)||Tennessee (P.E.)|
|Texas (P.E.)||Utah (P.E.)||Vermont (P.E.)|
|Virginia (P.E.)||West Virginia (P.E.)||Wisconsin (P.E.)|