GtL - Gas to liquid pilot plant

Description

The GtL lab-scale pilot plant is a fully integrated, skid-mounted unit designed for Fischer–Tropsch synthesis and process development. It converts synthesis gas (H₂, CO, CO₂) into liquid hydrocarbons and chemicals under controlled conditions. At its core is a Vinci-Technologies proprietary tubular fixed-bed reactor with a total volume of approximately 2 liters, designed to generate industrially representative data. Its tubular geometry and high height-to-diameter ratio ensure efficient heat transfer and precise temperature control. The reactor operates in downflow, isothermal mode at pressures up to 45 barg and temperatures up to 350 °C, using industrial-shaped catalyst extrudates. An internal thermowell with multiple thermocouples provides axial temperature profiling. The reactor is integrated with a multi-zone isothermal split-tube furnace to ensure a  uniform temperature profile. An upstream gas mixing and preheating system ensures homogeneous feed composition, while the gas feed section includes high-pressure H₂, CO, CO₂, N₂, and effluent recirculation lines with mass flow control. Downstream separation systems allow efficient recovery of waxes, liquids, water, and gas products, with weighed recovery vessels enabling accurate mass balance. The pilot plant is fully automated via a SCADA-based control and supervision system, providing a robust and flexible platform for catalyst testing and GTL process optimization.

Features

Tubular fixed-bed reactor, ~2 L volume
SS316 reactor, downflow, isothermal operation
Operating conditions: up to 45 barg and 350 °C
Multi-zone isothermal furnace with axial temperature profiling
Industrial catalyst extrudates with inert packing
High-pressure gas feeds (H₂, CO, CO₂, N₂) with thermal MFCs
Gas mixing, electric preheating, and pressure regulation
High- and low-pressure separation for waxes, liquids, and water
Continuous product weighing and gas metering



Benefits

Reliable catalyst selection through testing of catalysts under realistic conditions.
Accurate performance assessment enabled by isothermal operation and temperature profiling.
Faster catalyst screening thanks to automated operation and full mass balance.