01
Operational fit
Start with the workflow, environment, people, and exception paths the system must support.
Service / ROBT
Intelligent machines for real operating environments.
We combine robotics software, perception, controls, integration, and operational design to automate physical workflows. Systems are developed around safety boundaries, environmental variation, and maintainability—not a perfect demonstration floor.
02
Safe autonomy
Bound machine behaviour through sensing, controls, supervision, and clearly defined fallback states.
03
Lifecycle operation
Plan deployment, maintenance, fleet visibility, updates, and human training as part of the product.
Operating application
Applied to concrete decisions.
The technology matters only when it improves a real operating path with defensible evidence.
Warehousing
Material movement
Coordinate autonomous movement, pickup, delivery, and exception handling across dynamic facilities.
Manufacturing
Inspection and handling
Automate repetitive inspection and manipulation tasks while preserving traceability and operator control.
Infrastructure
Remote condition monitoring
Collect repeatable visual and sensor evidence in locations that are difficult, hazardous, or costly to inspect manually.
Service operations
Human-machine workflows
Design robots to support staff through clear handoffs, predictable behaviour, and manageable operating procedures.
Capability system
The work required to move from intent to operation.
Capabilities are composed around the operating problem. Each can stand alone or form part of a governed programme.
01 / ROBT
Automation strategy & cell design
Assess physical processes and define where automation can improve consistency, safety, or throughput.
- Workflow and site study
- Automation feasibility
- System concept design
- Deployment roadmap
02 / ROBT
Autonomous mobile robotics
Develop navigation and task systems for mobile robots operating in warehouses, factories, and controlled facilities.
- Mapping and localisation
- Path and motion planning
- Fleet coordination
- Task orchestration
03 / ROBT
Machine perception & inspection
Use cameras and other sensors to identify objects, inspect conditions, and support navigation or quality workflows.
- Sensor fusion
- Visual inspection
- Object and pose estimation
- Environmental perception
04 / ROBT
Robot software & controls
Engineer modular control software, hardware interfaces, and deterministic behaviours for robotic platforms.
- ROS 2 architecture
- Device and actuator interfaces
- Control loops
- Simulation environments
05 / ROBT
Systems integration
Connect robots with equipment, warehouse systems, manufacturing execution, identity, and operator interfaces.
- PLC and equipment integration
- WMS and MES connectivity
- Mission APIs
- Operator workflows
06 / ROBT
Safety & fleet operations
Design supervision, diagnostics, update, and recovery mechanisms for systems that must operate around people and assets.
- Hazard and failure analysis
- Fleet observability
- Remote diagnostics
- Maintenance planning
Delivery model
Technical depth with executive visibility.
Scope, technical decisions, risk and handover stay visible across the complete engagement.
01
Align
Define the outcome, constraints, authority and evidence required for a sound decision.
02
Architect
Design system boundaries, integration, security and the delivery path before committing to scale.
03
Deliver
Build in controlled increments and test the assumptions that carry the greatest consequence.
04
Operate
Instrument production, transfer ownership and improve the system from operating evidence.
Engineering position
Standards that govern delivery.
01
Safety is a system property
Sensors, controls, environment, people, procedures, and recovery behaviour are assessed together rather than in isolation.
02
Simulate, then test physically
Simulation accelerates development, but representative site testing is required to expose environmental and integration failure modes.
03
Design for serviceability
Diagnostics, replaceable components, remote support, documentation, and operator training determine whether automation remains useful.
Related practices
Connected engineering disciplines.
Start with the workflow and operating environment.
We can assess the physical process, safety boundaries, integration points, and support model before hardware or autonomy choices lock the programme in.