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Systems Engineering

Industrial projects fail at the interfaces: where a foundation meets a machine, a machine meets its power supply, or a design meets real operating loads. Systems engineering is how we manage those interfaces.

Integration

Civil, electrical, mechanical and computational, as one system.

We start from what the whole system must do, divide it into parts each discipline can own, and define exactly how those parts connect. Analysis checks the design; testing and commissioning confirm it.

CIVILstructures ELECTRICALpower · PLC MECHANICALmachines COMPUTATIONALFEA · CFD SYSTEMARCHITECTURErequirements+ interfaces INTEGRATEDDESIGN VERIFICATION + VALIDATIONanalysis · testing · commissioning INTELLIGENTMACHINESAI · robotics feedback: results change the architecture, not just the drawings

System architecture and interfaces

Where the disciplines meet

A typical interface matrix for an industrial installation. Each cell is a requirement one team must meet for another.

InterfaceCivilElectricalMechanicalComputational
Civil—Cable trenches, earthing pits, substation plinthsFoundation stiffness, anchor bolts, crane railsFoundation loads and dynamic response
ElectricalLoad and space for panels and transformers—Drives, sensors, interlocks, PLC I/OHeat loads, vibration at panels
MechanicalStatic and dynamic machine loadsPower, control and safety signals—Strength, fatigue and vibration checks
ComputationalCode checks of structuresThermal and airflow of enclosuresDesign changes from analysis results—

Multidisciplinary design and integration

Our integration process

  1. 01Requirements

    What the system must do, under which loads, codes and constraints.

  2. 02Architecture

    Split into subsystems; define every interface between disciplines.

  3. 03Design

    Each team designs its part against the interface definitions.

  4. 04Analysis

    FEA, CFD and code checks on the integrated design.

  5. 05Build

    Construction, installation and wiring, sequenced across teams.

  6. 06Commission

    Testing and handover with documentation for approval.

Verification and validation

Proving the design, then proving the build

Verification by analysis

Designs are checked by FEA and CFD to ASME, IS and Euro codes, including fatigue, seismic and dynamic load cases.

Inspection and testing

Structural inspection on site, electrical testing and functional checks of controls before energisation.

Commissioning

End-to-end commissioning with documentation built for regulatory and audit approval.

Integrated engineering in practice

Examples of integrated scope

Heavy press installations

Press foundations (civil), power and controls (electrical) and structural and dynamic checks (CAE) for the forging industry.

Robot cells and lines

Gantry and line structures analysed for E-stop, jerk and fatigue loads (CAE), with mechanical and electrical integration.

Intelligent machines

Our AI & Robotics venture applies the same method to a new kind of system: a field robot that must see, decide and act.

From traditional to intelligent

The bridge to intelligent technologies

Adding sensors, software and AI to a machine adds new interfaces, not fewer. Systems engineering is how we connect our established disciplines with robotics and artificial intelligence.

Explore our ventures

Concept exploded view of a soft robotic gripper holding a flower budConcept visualisation · AI & Robotics

Discuss an engineering project

Civil, electrical, mechanical or simulation: tell us what you are building and we will bring the right engineers to the table.

Discuss an Engineering Project