Multidisciplinary engineering

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.

Our services

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-X
Power-to-X ecosystemRenewable energy, water, air and circular carbon move through conversion and synthesis processes to supply industry, transport and food systems without fossil fuels or fossil carbon.
Scrollable diagram. Use the left and right arrow keys, swipe, or scroll to explore. Tab to move through process nodes.

Solar 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.

An isometric Power-to-X ecosystem links sun, wind, solar, hydro, geothermal, water, ambient air and biogenic residues to renewable electricity, hydrogen, nitrogen and renewable carbon. Integrated synthesis produces ammonia and synthetic hydrocarbons for heating and cooling, e-mobility, steel, fertiliser, farming and food, mining, chemicals, aviation and shipping, reducing fossil fuel and fossil carbon use.
Where our work lands

Built for the
hard sectors.

Our multidisciplinary approach lets us solve complex problems across very different industries and operating environments.

01Energy & Power02Industrial Plants03Marine & Offshore04Buildings & Infrastructure05Data Centres06Sustainable Solutions07Transportation08Research & Innovation