Engineeringclarity for complex world.
We combine deep technical expertise, advanced simulation and practical judgement to solve the problems that sit between disciplines — and carry them through to delivery.
From renewable power
to usable molecules.
Power-to-X shows how we work at system scale: electricity, water, captured carbon and nitrogen connected into one chain, engineered as a whole rather than as parts.
Explore Power-to-XSolar energy supports renewable electricity generation. Inputs: external source. Outputs: Renewable electricity.
Wind generation supplies renewable electricity. Inputs: external source. Outputs: Renewable electricity.
Photovoltaic generation supplies renewable electricity. Inputs: external source. Outputs: Renewable electricity.
Hydropower supplies renewable electricity. Inputs: external source. Outputs: Renewable electricity.
Geothermal energy contributes dependable renewable power. Inputs: external source. Outputs: Renewable electricity.
A shared renewable power bus feeds conversion and synthesis processes. Inputs: Sun, Wind, Solar, Hydro, Geothermal. Outputs: Backup power, Electrolysis, Air separation, Direct air capture, E-mobility.
Flexible backup capacity stabilises the renewable power system. Inputs: Renewable electricity. Outputs: Heating and cooling.
Water is treated before it enters electrolysis. Inputs: external source. Outputs: Water processing.
Treatment brings water to the quality required by the electrolyser. Inputs: Water. Outputs: Processed water.
Purified H₂O is supplied to electrolysis. Inputs: Water processing. Outputs: Electrolysis.
Electrolysis uses renewable electricity to split water into hydrogen and oxygen. Inputs: Renewable electricity, Processed water. Outputs: Hydrogen.
Renewable hydrogen is both a product and a feedstock for downstream synthesis. Inputs: Electrolysis. Outputs: Ammonia synthesis, Power-to-X synthesis, Steel industry.
Ambient air supplies nitrogen and a route to captured carbon. Inputs: external source. Outputs: Air separation, Direct air capture.
Air separation recovers nitrogen for ammonia synthesis. Inputs: Ambient air, Renewable electricity. Outputs: Nitrogen.
Separated nitrogen combines with hydrogen to produce ammonia. Inputs: Air separation. Outputs: Ammonia synthesis.
Direct air capture recovers carbon dioxide from ambient air. Inputs: Ambient air, Renewable electricity. Outputs: Renewable carbon.
Biogenic residues provide a renewable source of carbon. Inputs: external source. Outputs: Carbon capture and use.
Captured industrial and biogenic carbon is returned to productive use. Inputs: Biogenic residues. Outputs: Renewable carbon.
Renewable carbon closes the feedstock loop for synthetic hydrocarbons. Inputs: Direct air capture, Carbon capture and use. Outputs: Power-to-X synthesis.
Hydrogen and nitrogen are combined into renewable ammonia. Inputs: Hydrogen, Nitrogen. Outputs: Ammonia.
Renewable ammonia supports fertiliser, farming and marine fuel applications. Inputs: Ammonia synthesis. Outputs: Fertiliser industry, Farming and food.
Integrated synthesis converts hydrogen and renewable carbon into usable molecules. Inputs: Hydrogen, Renewable carbon. Outputs: Synthetic hydrocarbons.
Synthetic hydrocarbons replace fossil molecules in transport and industry. Inputs: Power-to-X synthesis. Outputs: Mining, Chemical industry, cosmetics and pharma, Aviation and shipping.
Renewable electricity and molecules provide dependable heat and cooling. Inputs: Backup power. Outputs: final system outcome.
Renewable power and fuels support low-carbon mobility. Inputs: Renewable electricity. Outputs: final system outcome.
Hydrogen and renewable energy displace fossil inputs in steelmaking. Inputs: Hydrogen. Outputs: final system outcome.
Renewable ammonia enables lower-carbon fertiliser production. Inputs: Ammonia. Outputs: final system outcome.
Renewable fertiliser and fuels support lower-carbon food systems. Inputs: Ammonia. Outputs: final system outcome.
Renewable fuels and electricity decarbonise heavy mining operations. Inputs: Synthetic hydrocarbons. Outputs: final system outcome.
Renewable carbon and hydrogen replace fossil chemical feedstocks. Inputs: Synthetic hydrocarbons. Outputs: No fossil carbon.
Synthetic fuels and ammonia provide scalable routes for aviation and shipping. Inputs: Synthetic hydrocarbons. Outputs: No fossil fuels.
The system removes dependence on fossil fuels from final energy use. Inputs: Aviation and shipping. Outputs: final system outcome.
Circular and renewable carbon replaces fossil carbon feedstocks. Inputs: Chemical industry, cosmetics and pharma. Outputs: final system outcome.
Six disciplines.
One engineering mindset.
Complex projects rarely fit inside one box. Our disciplines work independently or together, shaped around the problem rather than around a fixed package.
View all services
PtX01Power to X (P2X)Supporting the transition to a sustainable energy future with technical advisory, feasibility studies and engineering services for Power-to-X projects.Explore →
CFD02CFD SimulationsHigh-fidelity computational fluid dynamics simulations to solve complex flow, heat transfer and multiphase challenges with accuracy and efficiency.Explore →
BP03Building PhysicsOptimising building performance through thermal, hygrothermal, daylight, airflow and energy modelling for better, greener buildings.Explore →
MAR04Marine EngineeringEngineering solutions for naval architecture, hydrodynamics, structural analysis and marine systems to support safe and efficient operations.Explore →
IPE05Plant EngineeringEnd-to-end engineering services for process plants, from concept and design to optimisation, safety and operational support.Explore →
GDC06Green Data Center AdvisoryHelping data centres become more efficient and sustainable through energy modelling, cooling optimisation and strategy advisory.Explore →Built for the
hard sectors.
Our multidisciplinary approach lets us solve complex problems across very different industries and operating environments.