HPHT Test Bench for Carbonation Studies in Corrosive Media
For a major energy group, we designed an HPHT test bench (140 bar, 130°C) for carbonation studies. The Hastelloy C-276 solution resists corrosive fluids (salt water, CO2).
Our expertise lies in designing custom test benches that simulate deep geological conditions (High Pressure High Temperature). We develop complex systems for geoscience and subsurface studies, serving all energy sectors.
This includes geomechanics (uniaxial/triaxial presses for rock characterization), pressurized fluid characterization (PVT laboratories), and fluid-rock interaction analysis (core flood systems, osmosis benches).
Our know-how also extends to geological storage applications (CO₂ and hydrogen storage) and material integrity for geothermal energy. The projects below are examples of our capacity to meet the challenges of the energy transition.
For a major energy group, we designed an HPHT test bench (140 bar, 130°C) for carbonation studies. The Hastelloy C-276 solution resists corrosive fluids (salt water, CO2).
For the BRGM, we designed an osmosis test bench. It measures tiny liquid flows (20 µL/day) through argillite samples under 50 bar confinement.
For an energy leader, this multi-cell bench (400 bar, 250°C) simulates formation damage from drilling fluids, including corrosive acids (HCl).
For geoscience research, we designed this bench of 6 HPHT reactors. The use of Hastelloy C276 ensures maximum resistance to corrosive fluids.
This high-precision core plugging machine is designed for analysis and research. It ensures automated and reliable core sampling (up to 1000 mm long).
For ENSP (Sonatrach), we designed and delivered a turnkey PVT laboratory, including our full visualization PVT cell and custom high-pressure equipment.
Design of a 3-in-1 press (20kN) for SONATRACH, combining uniaxial compression (UCS), tensile, and 3-point bending tests on one indexed mobile table.
This accelerated aging test bench is designed to assess material durability under user-defined temperature and pressure constraints in a controlled environment.
This triaxial testing equipment enables in-situ analysis of rocks and cements under confining pressure, pore pressure, and axial stress, simulating geological conditions.