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Fuel Gas and Hydrogen Network Optimization Project – Petro Rabigh 2025
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Case Studies
Fuel Gas and Hydrogen Network Optimization Project – Petro Rabigh 2025
Challenge
Complex fuel gas and hydrogen network with multiple sources, consumers, and varying compositions
High flaring and liquid fuel usage during imbalance and transient conditions
Difficulty maintaining stable fuel quality and calorific value across units
Limited visibility into pipeline bottlenecks, pressure drops, and control constraints
Manual or offline studies leading to delayed operational decisions
AIGC Solution
Built an integrated digital model of the fuel gas and H₂ network covering sources, headers, consumers, and pipelines
AI-assisted scenario analysis to evaluate blending ratios, routing strategies, and load changes in near real time
Dynamic simulation to study transient behavior, hydraulics, and network stability
Optimization engine to recommend optimal fuel mixing, routing, and dispatch while respecting safety and process constraints
What-if simulations for upset conditions, maintenance scenarios, and demand fluctuations
Realized Value
Reduced flaring by maximizing utilization of in-house off-gases and hydrogen
Lower liquid fuel consumption through optimized fuel gas blending
Improved fuel gas quality stability and molecular weight control
Early identification of network bottlenecks, improving reliability and control response
Faster, data-backed operational decisions with measurable energy cost savings