IndustriesCivilian & defense
Critical systems • Autonomy • Cybersecurity

Design for the most demanding environments.

Systèmes critiques, autonomie, cybersecurity et communications sécurisées.

CybersecurityUGV / UAV / USVSecure CommsSensor fusion
TACTICAL SYSTEM / ONLINELINK 98.7%
RADARAUTONOMYCYBERDATA LINK
Constrained environmentsHigh availabilityHigh reliabilityEmbedded AIInteroperabilityOperational resilience
Our field perspective

Criticality changes the rules of the game.

Missions critiques, deployments contraints, sovereignty numérique et fonctionnement en mode dégradé: nous let's build des systèmes robustes, observables et maintenables in the field.

In secure civilian as in defense contexts, failure is not an operational option. Systems must withstand outages, hostile conditions, intrusion attempts, and rapid-deployment constraints. Documentation, traceability, and the ability to operate in degraded mode are part of the product.

We design defense-ready architectures: security by design, segmentation, observability, local autonomy, and recovery procedures. The civilian → defense continuum lets us reuse proven building blocks while respecting each mission’s specifics.

Critical capabilities

Building blocks for systems that hold up.

Infrastructure, cybersecurity, embedded, AI and operations: a chain designed for constraint.

Infrastructure & cybersecurity

Secure architectures, Zero Trust, DevSecOps, monitoring and continuity for sensitive environments.

In plain terms: Security is not a bolted-on layer: it structures the architecture.
Zero TrustDevSecOps
See infrastructure →

Embedded systems & autonomy

Edge, robotics, drones and autonomous platforms for surveillance, inspection and mission support.

See embedded →

AI & intelligent systems

AI infrastructure, RAG, agents and embedded vision for decision support and stream processing.

See AI →

Software & platforms

Business applications, mapping, command interfaces and secure APIs.

See development →

Controlled hosting

Private cloud, dedicated environments, and container platforms under operational control.

See hosting →

Continuity & Operational Sustainment

DRP/BCP, monitoring, and operational sustainment of critical systems.

See continuity →
Autonomous platforms

UGV, UAV, USV and perception for defense missions.

Robotics and sensor-fusion building blocks designed for inspection, surveillance, logistics and operations in constrained environments.

Aerial drones
Aerial dronesPlatforms, autopilots, sensors, and mission control.
UGV

Ground drones and mobile robots

Development of autonomous or teleoperated ground platforms for inspection, logistics, security, mapping or missions in constrained environments.

ROS 2SLAMAutonomous navigationVisionTeleoperation
UAV

Aerial drones and mission systems

Drone design, integration of flight computers, payloads, communication systems, control stations, telemetry, video, and advanced assistance or autonomy features.

ArduPilotMAVLinkPX4GCSEmbedded AI
USV / ROV

Maritime drones and autonomous naval systems

Development of surface or underwater vehicles integrating navigation, telecommunications, video, sonar, environmental sensors and remote monitoring.

USVROVGNSSSonarLong-range links
Sensor fusion

Sensors, perception and data acquisition

Integration of optical, thermal, inertial, radar, environmental or industrial sensors with synchronization, calibration, data fusion and local or remote processing.

CamerasLiDARRadarIMUData fusion
Our method

Reduce uncertainty at every milestone.

We advance by evidence: architecture, constrained prototyping, hardening, then documented operations.

01

Mission analysis

Operational constraints, threats, classification, deployment environment, and acceptance criteria.

02

Secure architecture

Decomposition, attack surfaces, resilience, technology choices, and compliance plan.

03

Prototyping & trials

Validation in realistic conditions, load tests, degraded scenarios and field feedback.

04

Hardening & industrialization

System hardening, controlled CI/CD, documentation, training, and operating procedures.

05

Operations & improvement

Monitoring, operational sustainment (MCO), vulnerability management, and controlled capacity evolution.

Why RDMC

What constraint-driven engineering changes.

Criteria
Consumer-grade approach
With RDMC
Availability
Best effort
Planned degraded modes
Security
After-the-fact fixes
By design + DevSecOps
Deployment
Datacenter only
Integrated edge & field
Sovereignty
Opaque dependencies
Controlled, documented foundation
Operations
Standard support
Mission-critical sustainment and tested DRP
In figures

Systems sized for the mission.

CriticalResilient architectures
EdgeLocal autonomy
SecBuilt-in security
MCODocumented operations
Frequently asked questions

Civilian & defense — key considerations.

Do you only work on defense projects?
No. We also cover secure civilian use (critical infrastructure, security, operations). The continuum lets us reuse building blocks while meeting each mission’s requirements.
How do you approach digital sovereignty?
Through platform choices, data location, dependency control, and documentation of run chains. Each project sets a target sovereignty level.
Can you operate in disconnected or intermittent environments?
Yes. Our edge architectures provide for local operation, deferred sync, and degraded-mode procedures.
Do you work on UGVs, UAVs, USVs and sensor fusion?
Yes. We design and integrate land, air, and maritime platforms, as well as perception chains (cameras, LiDAR, radar, IMU) for surveillance, inspection, logistics, and operational support missions.
Do you work with industrial partners?
Yes. We integrate leading vendors and publishers, and can co-build with your teams or long-standing partners.
Do you offer scoping before commitment?
Yes. The Advisory, audit & architecture offering secures feasibility, risks, and roadmap before industrialization.
Civilian & defense

A critical system to design, harden or operate?

Let’s discuss the mission, constraints and expected sovereignty level. We propose a suitable technical and operational trajectory.