Applications

Built for real-time
embedded systems.

EOS Max dispatches each event directly to the state that handles it - by priority, run to completion - so complex systems stay predictable under load and keep running for years. Built for robotics, industrial automation, medical devices, automotive, energy and infrastructure, and Edge AI.

// 01 · By sector

Ready For The Systems Of The Future

Systems now are more autonomous, more connected and more intelligent. And the hard problems underneath - coordinating events, states and timed events in real time - are more complex than ever. EOS Max is built to solve them.

  • 01

    Robotics

    Autonomous mobile robots, robotic arms, inspection and service robots, drones.

    // The challenge

    A robot juggles navigation, sensor fusion, motion control, fault handling, charging and safety behaviours at once - hundreds of interacting states and decision pathways.

    // The fit

    Each behaviour is modelled as its own virtual state machine and scheduled by event. Complex autonomy stays readable, deterministic and efficient, instead of buried in task threads and custom logic.

    • Path planning and obstacle response as discrete states
    • Sensor fusion feeding event-driven decisions
    • Fault, charging and safe-state handling
    • Local inference triggering reliable control
  • 02

    Industrial Automation

    Machine controllers, PLC-class control, actuators, production-line coordination, safety systems.

    // The challenge

    Industrial systems coordinate sensors, actuators, safety events, machine states and production logic - and they have to stay deterministic across long deployment lifecycles.

    // The fit

    Event-driven processing keeps response times predictable while cutting architectural overhead. Behaviour is captured as state machines that are straightforward to maintain years after delivery.

    • Deterministic machine and actuator control
    • Safety-critical priority event handling.
    • Production-state and sequence coordination
    • Incremental feature delivery across long lifecycles
  • 03

    Medical Devices

    Infusion and delivery devices, diagnostic and monitoring equipment, handheld and wearable instruments.

    // The challenge

    Regulated, safety-critical devices need behaviour that is traceable, validated and unambiguous - from first specification through to the evidence a certification needs.

    // The fit

    Behaviour is bounded and explicit, and every requirement carries a unique identifier into generated code and tests. The traceability and evidence build up as you go, not reconstructed before an audit.

    • Traceable firmware for regulated devices
    • Validated state behaviour for safety-critical functions
    • Evidence aligned to ISO, IEC and medical frameworks
    • Controlled, predictable execution on small MCUs
  • 04

    Automotive

    ECUs, body and comfort control, sensor and actuator modules, sub-system controllers.

    // The challenge

    Vehicle software is safety-critical, runs across long platform lifecycles, and has to stay predictable as features are added over time.

    // The fit

    Deterministic, event-driven control with a small, controlled footprint. State machines keep behaviour clear across evolving platforms, and traceability supports the assurance these systems demand.

    • Real-time control for safety-critical functions
    • Sub-10us interrupt latency for time-sensitive events
    • Predictable behaviour across platform variants
    • Built to last and evolve over the vehicle lifecycle
  • 05

    Energy & Infrastructure

    Battery energy storage, EV charging, solar and grid-interface controllers, protection and monitoring.

    // The challenge

    Energy installations need predictable control across battery states, charging, discharging, grid interaction, protection events and maintenance modes - in mission-critical, long-lived environments.

    // The fit

    Deterministic event handling makes state transitions reliable and responsive, while the small footprint suits controllers that run for years in the field.

    • Battery charge, discharge and balancing states
    • Grid-interaction and protection-event handling
    • EV charging control and safety states
    • Resilient operation over long deployment lifecycles
  • 06

    Edge AI

    Smart sensors, vision and audio devices, autonomous and connected products running local inference.

    // The challenge

    Edge-AI devices combine local inference, sensor events and deterministic control - and they have to do it on constrained, low-power hardware without leaning on the cloud.

    // The fit

    EOS Max coordinates inference, sensor events and control on one device. AI outputs become event-driven state transitions that run reliably and efficiently, with deterministic behaviour around the model.

    • Inference outputs driving deterministic state changes
    • Local sensor-event processing without cloud dependency
    • Efficient execution on constrained, low-power MCUs
    • Autonomous decision pathways on the device

// See it work

See how a project
gets built.

See a reference project get built from specification to code architecture.

Eight-minute walkthroughUnlock the demo  →