Gas Lift Allocation Optimization
Decides how to split a limited supply of lift gas across the wells that want it, to maximise oil rather than gas injected.
Optimises the whole surface network together — chokes, routing and separator pressures — rather than one well at a time.
Wells interact through shared flowlines and separators. Optimising each well against a fixed assumed back-pressure gives a set of setpoints that are individually sensible and collectively wrong.
A steady-state network model couples every well’s inflow and tubing performance with the pipeline hydraulics and separator constraints, and a global optimiser searches chokes, routing and separator pressure against total oil subject to handling limits. Recommendations are reviewed by the production supervisor before implementation.
Network model calibration is a substantial field effort and the model drifts as conditions change, so without a maintenance commitment the recommendations degrade within months. This capability is also the one most often blocked not by technology but by operating discipline: setpoints that are recommended and then not implemented produce no value, and we scope it only where the operator commits to acting on the output.
Every capability page states a real limitation. If a vendor cannot tell you where their product stops, you are not being told the truth about where it starts.
Decides how to split a limited supply of lift gas across the wells that want it, to maximise oil rather than gas injected.
Estimates each well’s oil, water and gas rate continuously from pressure and temperature, between the physical tests.
Runs the inflow-outflow calculation for every well in the field on a schedule, instead of for a few wells when someone has time.
Brings the recommendations from every capability into one prioritised queue, so the team works the highest-value item rather than the loudest alarm.