We build the governed execution layer between robotic capability and operator trust — delivered as a managed service for hazardous process, chemical, and nuclear facilities across EU and EFTA.
Critical infrastructure inspection in hazardous environments is stuck between two failures: manual rounds that are exposure‑heavy and weakly governed, and off‑the‑shelf robotics that improves access without closing the trust gap.
Routine evidence capture depends on people entering ATEX zones, radiation‑controlled areas, and confined spaces with toxic atmospheres. Every entry carries real risk; reducing routine exposure is a safety imperative, not an optimisation.
Rounds vary by person. Data is recorded late. Abnormalities are flagged informally. In high‑consequence environments, routine inspection is part of the barrier system — today that barrier is manual, variable, and weakly structured.
Commercial platforms are optimised for broad deployability. They are rarely designed first for qualified degraded‑mode behaviour, explicit operating envelopes, approved configuration control, or auditable evidence chains. They open the wedge; they do not close the assurance gap.
Even when hardware is adequate, the deployment model is often not governable enough. No approved configuration record. No documented degraded‑mode logic. No accountable service layer. The market does not lack robots; it lacks an assurance layer.
The doctrine is the constitutional framework of the company. These are not aspirational statements — they are engineering constraints that apply from the first deployment onward.
No sensor operates without calibration traceability. Every measurement carries a known uncertainty bound, a documented calibration chain, and a defined validity window. If a sensor drifts beyond tolerance, the system flags the data as suspect before any human sees it.
The platform carries a formal failure model — a quantitative fault tree covering every safety‑relevant function. Every credible failure mode is identified, analysed, and assigned a defined response before deployment.
Emergency stop, gas withdrawal, radiation withdrawal, drone recall, battery thermal management, and safe‑halt are all executed autonomously. Automation handles the time‑critical path; humans handle the judgement‑critical path.
Continuous awareness of health, position, environmental conditions, and operational boundaries. Every state transition is logged, every reading timestamped, every actuator command recorded. If the platform cannot verify its own state, it stops.
Systems do not fail in binary; they degrade. The platform is designed to detect degradation before it becomes failure and respond with proportional action — continue with reduced capability, escalate, log the gap, return to base, or demand human intervention.
The platform operates as a five‑layer inspection chain. Each layer has a defined responsibility, a governed interface to adjacent layers, and a clear escalation path. No single layer depends on assumptions about the behaviour of another.
Quadruped and drone provide physical access to inspection targets. Move, position, protect. Do not interpret sensor data.
Configurable payload suite captures calibrated, traceable measurement data with known uncertainty bounds. Each sensor reports its own health and calibration validity.
Mission software coordinates mobility and sensing. Route sequencing, sensor triggering, timestamping, and enforcement of the approved configuration record and operating envelope.
Analytics engine transforms raw data into actionable information. Anomaly classification, trend analysis, automated report generation, and structured packaging of non‑standard findings.
Humans review flagged anomalies, validate non‑standard assessments, and make decisions that require engineering judgement or regulatory authority. The platform delivers structured information; humans decide.
Quadruped and drone provide physical access to inspection targets. Move, position, protect. Do not interpret sensor data.
Configurable payload suite captures calibrated, traceable measurement data with known uncertainty bounds. Each sensor reports its own health and calibration validity.
Mission software coordinates mobility and sensing. Route sequencing, sensor triggering, timestamping, and enforcement of the approved configuration record and operating envelope.
Analytics engine transforms raw data into actionable information. Anomaly classification, trend analysis, automated report generation, and structured packaging of non‑standard findings.
Humans review flagged anomalies, validate non‑standard assessments, and make decisions that require engineering judgement or regulatory authority. The platform delivers structured information; humans decide.
The interplay between layers is the product. Competitors sell components. We deliver the governed chain.
Quanteon delivers governed inspection as a managed service. Every mission is Quanteon‑operated under a defined operating envelope, with approved configurations and documented escalation paths. Minimum contract duration is three years.
The core governed inspection service. Quadruped‑based missions, drone‑enabled where route geometry and access justify it, full payload suite and mission software under a Quanteon‑operated mission.
Managed Inspection with dedicated data analyst, compliance reporting, and deeper enterprise integration. For sites where documentation depth and regulatory packaging carry weight.
High‑Assurance with on‑site regional operator and 24/7 remote surveillance. Highest responsiveness and continuous coverage for the most consequence‑sensitive deployments.
Every tier includes a target 24‑hour replacement SLA in defined service regions and under agreed site‑access conditions. Hardware risk sits with Quanteon.
The certification stack is the most significant technical and financial barrier to entry. It is also the technical moat. Documentation, test evidence, and design rationale generated during certification become core assets.
Pre‑certification pilots operate in non‑hazardous zones under a separate pilot configuration. Hazardous‑zone deployment follows certification completion.
CEO · Co‑Founder
Mechanical engineering, TU Munich. Fifteen years of safety‑critical asset experience across European and GCC markets. Background in robotics evaluation in nuclear operations, process safety, asset integrity, and commercial strategy in regulated environments.
CTO · Co‑Founder
Systems engineer and mission‑critical software specialist. Designed and deployed a counter‑drone command‑and‑control platform at the Munich Security Conference under live operational constraints. Mission‑critical architecture, real‑time control, safety‑critical design patterns.
For hazardous‑process sites in EU and EFTA considering governed autonomous inspection, for partners evaluating integration, or for press — direct contact goes to the founders.