01

Techno-economic & feasibility analysis

  • CAPEX/OPEX estimates to AACE Class 5/4 and economic evaluation: NPV, IRR, payback, levelised cost (LCOx)
  • Sensitivity, scenario and target-setting analysis to find the bottlenecks to competitiveness
  • Technology benchmarking and scale-up assessment against conventional routes
  • Life-cycle assessment (LCA) and carbon footprint alongside the economics
  • Market and commercial assessment, and independent technical due diligence
Experience from industry and TU DelftElectrochemical CO capture and separation from steel-industry off-gas, from a custom reactor model to full-scale economics; techno-economic and market feasibility of hydrogen co-produced with a high-value chemical via alkaline electrolysis; feasibility screening of a novel, lower-impact route to a specialty chemical.
02

Process design: concept, pre-FEED & basic engineering

  • Option screening, concept selection and pre-FEED studies
  • Process design basis, PFDs and heat & material balances (H&MB)
  • Equipment and line sizing, process datasheets and utility summaries
  • Process Design Package (PDP) and process input to P&IDs and FEED
  • HAZID / HAZOP participation and process-safety input
  • Stage-gate support from concept select to final investment decision (FID)
Experience from industry and TU DelftConceptual design of an electrochemical CO separation plant for steel off-gas; hydrogen and hydrogen-peroxide co-production via alkaline electrolysis; process design and heat integration of an acetone plant from isopropanol (150 kt/yr); a process-intensification and inherent-safety redesign of a hazardous chemical process.
03

Process modelling & simulation

  • Steady-state process simulation and flowsheeting
  • Dynamic simulation of process behaviour
  • First-principles custom unit-operation and reactor models, including kinetics
  • CFD and multiphase modelling (VOF and other formulations)
  • Thermodynamic model selection, heat and material balances, equipment sizing
  • Model validation and calibration against operating or experimental data
Experience from industry and TU DelftCrude atmospheric and vacuum distillation, olefins / ethylene, methanol and acetone production; gas sweetening, nitrogen PSA, gas transmission and distribution networks; reformer kinetics and furnace CFD, a turbulent two-phase separator; water electrolysis, carbon capture, custom electrochemical reactors, hydrogen fuel-cell systems and battery electrochemical-thermal models.
04

Digital twins & dynamic / control studies

  • Dynamic simulation and operability studies of plant and unit behaviour
  • Digital twins from plant data: first principles plus AI / surrogate models and soft sensors
  • Control-structure design and APC studies: PID, MPC, self-optimising control
  • Predictive and what-if scenario studies
  • Optimisation, debottlenecking and operator-training support
Experience from industry and TU DelftA data-calibrated neural-network surrogate of a gas-treating plant (Computers & Chemical Engineering, 2024); a dynamic model of a refinery FCC unit; steady-state, dynamic and control modelling of a refinery water and steam utility; control-structure design of a distillation system; high-fidelity dynamic models of a hydrogen fuel-cell system.
05

Optimisation, debottlenecking & decarbonisation

  • Energy audits, and energy and OPEX reduction through advanced control and process optimisation
  • Heat integration and pinch analysis
  • Debottlenecking, revamp and retrofit studies
  • Troubleshooting of underperforming units
  • Decarbonisation of existing processes: carbon-footprint baseline, CO₂ utilisation, electrification, fuel and feed changes
  • Mass-balance studies validated against operating data
Experience from industry and TU DelftEnergy reduction in a gas-sweetening plant through advanced control and surrogate-model optimisation; debottlenecking of a methanol complex using CO₂ and H₂ injection; full mass balance of a gas-treating unit validated against plant data.
06

Energy-transition technologies: hydrogen, CCUS & electrification

  • Green hydrogen and electrolysis: process design and techno-economics
  • Carbon capture, utilisation and storage (CCUS) and CO₂-to-chemicals studies
  • Electrification of industrial heat and processes
  • Techno-economic and LCA comparison with conventional routes
  • Energy-storage (battery) modelling
Experience from industry and TU DelftElectrolysis-based hydrogen and chemical co-production (Industrial & Engineering Chemistry Research, 2025); electrochemical CO capture from industrial off-gas; CO₂ utilisation in an existing methanol process; CO-to-chemical conversion; battery electrochemical-thermal modelling.
Sectors we serve
Oil & gasChemicals & petrochemicalsEnergy & hydrogenPowerWaterFood & beverage