Engineering service
Embedded systems integration
Bringing electronics, firmware, sensors, actuators and operator interfaces together into hardware that behaves as one system — for robotics, marine, aerial and industrial equipment.
Inside the engineering
Built as parts. Engineered as one.
Mechanical design, electronics and embedded control are separate disciplines and one delivery. The illustration opens to show the layers; this page sets out what the service covers.
- What we doThe layer where subsystems become a product.
- How we workInterfaces defined before subsystems are built.
- What you getDeliverables.
Illustrative model, drawn to explain the story on this page. It is not a CAD model, a production design or a description of internal construction.
What we do
The layer where subsystems become a product.
Integration is the work of making independently specified subsystems behave as a single machine: microcontroller and compute hardware, sensor and actuator interfacing, communication between subsystems, power architecture, control logic and the operator interface through which someone actually uses the result.
We work across the boundary that usually causes trouble — where mechanical, electrical and software responsibilities meet. Multi-axis robotic arms, mobile and assistive mechanisms, underwater vehicles and aerial platforms all fail at that boundary more often than they fail within any one discipline.
How we work
Interfaces defined before subsystems are built.
Integration problems are almost always interface problems: a protocol assumed rather than agreed, a voltage rail sized for steady state but not for inrush, a mechanical tolerance that was fine on two parts and not on the stack of five. Defining those interfaces explicitly at the architecture stage is the cheapest work on a project.
Communication and control are specified for the real environment: bus choice and topology, update rates, timeout and fault behaviour, and what the system does when a subsystem stops answering. Equipment that behaves sensibly on failure is a design decision, not a happy accident.
Validation covers system behaviour, communication integrity and data flow before operational use — testing the assembled machine rather than each part in isolation, because the assembled machine is what fails.
What you get
Deliverables.
Working, integrated hardware plus the interface documentation that makes it maintainable: the bus and protocol definition, message formats and rates, power architecture with rail budgets, and the fault and timeout behaviour of each subsystem link.
Firmware is delivered with its source and build instructions, and with the configuration parameters that were tuned during commissioning recorded — so the machine can be rebuilt or a second unit brought up without rediscovering settings.
Validation covers the assembled system: communication integrity, data flow end to end, and behaviour when a subsystem is removed or stops responding.
Applications
Where this work applies.
- Robotic arms and motion-control systems
- Underwater vehicle control and instrumentation
- UAV avionics and payload integration
- Industrial automation and machine control
- Assistive and exoskeleton mechanisms
Related services
Work that usually goes with this.
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