Receive
Process-led industrial facilities
Integrated design and engineering for production environments where process, utilities, structures, safety, and maintainability must work together
Discuss the facilityProduction logic
The building begins with material movement
An industrial facility is not a neutral container. Each process stage creates requirements for space, structure, energy, environmental control, safety, and access.
Transform
Production defines the space
Equipment geometry, loads, heat, vibration, emissions, maintenance access, and safety zones shape the architecture and structures.Support
Utilities sustain output
Power, process water, cooling, compressed air, gases, drainage, ventilation, and controls must match the operating profile.Dispatch
Finished goods leave
Storage, quality control, packaging, loading, fire access, and transport routes complete the production flow.Infrastructure has to follow production
The process establishes demand. Design and engineering turn that demand into coordinated capacity, routes, spaces, structures, and control logic.
Process utilities
Compressed air, industrial gases, process cooling and heating, metering, drainage, and equipment connections
Capacity and routing aligned with the equipment schedule and operating demandMechanical systems
Heating, ventilation, air conditioning, dust extraction, smoke control, and environmental control
Working conditions matched to people, machinery, product, and hazardous zonesElectrical and controls
Medium- and low-voltage distribution, motor control centres, standby power, automation, monitoring, and data interfaces
Power quality, continuity, protection, and control logic coordinated as one systemBuildings and infrastructure
Architecture, structures, foundations, civil works, roads, drainage, external utilities, and fire strategy
A facility that carries equipment loads and supports safe operation, access, and future changeDifferent production environments change the brief
The same discipline list does not produce the same answer. Operating conditions determine which risks lead the design.
Chemical processingContainment and hazardous areas
Hazardous-area classification influences ventilation, electrical equipment, drainage containment, access, and maintenance from the start of design.
- Hazardous-area classification integrated into the design basis
- Secondary containment coordinated with civil drainage
- Equipment schedules aligned with explosion-protection requirements
Food and beverageHygiene and cleanability
Drainage, penetrations, material junctions, airflow, humidity, and equipment access must support cleaning without creating contamination risks.
- Hygienic zoning reflected in layouts and system routes
- Washdown drainage and floor gradients resolved together
- Condensation and humidity risks addressed in environmental control
Steel and metalsLoads and thermal conditions
Cranes, furnaces, heavy machinery, vibration, and extreme heat make structural and civil decisions part of the production strategy.
- Crane runway and gantry structures designed for operating loads
- Thermal shielding coordinated with extraction and ventilation
- Foundations resolved for static and dynamic equipment actions
AutomotiveCells, bays, and continuous flow
Press shops, paint systems, robot cells, conveyors, and utility corridors create dense interfaces across long production buildings.
- Volatile organic compound exhaust and abatement coordinated
- Vibration isolation resolved for presses and production equipment
- Robot-cell power and control infrastructure sized by production demand
Packaging and consumer goodsSpeed and repeatability
Wide production floors combine high compressed-air demand, conveyor power, dust risks, frequent changeovers, and tightly timed material movement.
- Dust-hazard assessment linked to ventilation and equipment selection
- Compressed-air networks sized for pressure and diversity
- Conveyor power and motor-control architecture coordinated by zone
Energy and utilitiesNetwork interfaces
Grid connections, substations, generation assets, and facility distribution meet at the boundary between building systems and energy infrastructure.
- High- and medium-voltage interfaces defined early
- Protection coordination developed with the grid connection
- Arc-flash risk considered in equipment layout and access
BIM-based delivery
One technical record from basis to issue
Operating basis
We translate process information, equipment data, capacity, operating modes, and future allowances into one coordinated design basis.
Interface model
Equipment zones, loads, connection points, maintenance envelopes, structures, and utility corridors are coordinated in the building information model.
Technical verification
Reviews test capacity, routing, access, safety, constructability, and discipline interfaces before information is issued.
Decision-ready package
Drawings, models, schedules, calculations, and open decisions are structured for approval, tender, construction, and handover.
What makes the package buildable
Model detail alone is not control. Responsibility, decisions, and operating requirements must remain connected to the information being issued.
Interfaces are assigned
Every process connection and discipline boundary has a clear owner, status, and technical requirement.
Risks remain visible
Constraints, assumptions, clashes, and unresolved decisions stay traceable through reviews and model coordination.
Operation stays in view
Design decisions account for access, replacement, cleaning, maintenance, commissioning, and future production change.
Project examples
Related project work
See how the same design and engineering capabilities appear in real project scope, interfaces, and deliverables.
All projectsDry Building Mixes Production Plant: Full Basic Design for an Industrial Facility
50.4 mSilo body height17,284.5 m²Listed building area
Construction Equipment Rental Service Centre: Design for Maintenance, Washing, Repair, and Fleet Operations
~7,000 m²Main facility scale3Office levels
7,000 m² Industrial Plant in Central Europe: Full-Scope BIM Delivery
7,000 m²Production facility6Coordinated disciplines
Industrial design and engineering