Gas & Fluid Network Hydraulics Overview
This specialized course offers practical, hands-on training in steady-state flow calculations, pressure drop analysis, and complex pipeline network modeling using industry-standard tools like GASWorkS and Pipemill software. Engineers will gain essential capabilities in sizing pipelines, predicting fluid dynamic behavior, and optimizing gas and liquid distribution systems for industrial, municipal, and energy transport networks.
Steady-State Flow Modeling
Perform detailed flow capacity and velocity profile calculations for fluid transmission systems.
Pressure Drop Analysis
Evaluate frictional losses, elevation changes, and line sizing using standard equations.
GASWorkS Simulation
Build, calibrate, and analyze complex natural gas and utility distribution networks.
Pipemill Engineering Calculations
Automate mechanical and hydraulic design checks including pipe wall thickness and flow capacities.
Course Logistics & Key Info
Tools & Software Covered
Hands-on training leveraging GASWorkS for gas distribution network analysis and Pipemill for pipeline design, wall thickness calculations, and fluid flow sizing.
Target Prerequisites
Designed for Mechanical, Chemical, Petroleum, and Process Engineers, as well as pipeline simulation specialists seeking expertise in fluid hydraulics.
Capstone Project Highlight
City Gas Distribution Topology
Video Demo: Network Optimization
15–30 sec WalkthroughKey Learning Capabilities
Steady-State Flow Analysis
Master fundamental equations (Darcy–Weisbach, Hazen–Williams, Weymouth, Panhandle) to model continuous liquid and gas flow through complex networks.
Pressure Drop & Head Loss
Calculate friction factors, minor fitting losses, dynamic velocity heads, and static pressure differentials along long-distance pipeline routes.
GASWorkS Network Modeling
Learn layout creation, customer load assignment, regulator station modeling, and scenario analysis for gas distribution networks in GASWorkS.
Pipemill Utility Automation
Utilize Pipemill for rapid component sizing, thermal flexibility validation, hydrostatic test pressure verification, and pipe thickness evaluation.
Compressor & Pump Station Sizing
Determine required booster horsepower, pump dynamic head requirements, valve selection, and pressure regulation boundaries across networks.
Standard Compliance & Safety
Ensure network designs adhere to ASME B31.8 (Gas Transmission), ASME B31.4 (Liquid Transportation), and international fluid safety codes.