Roadmap

Where the programme is, and what comes next.

Layer by layer, gate by gate, without dates we cannot keep. The evidence page is authoritative; where this page disagrees with it, the evidence page is correct.

Last reviewed .

Where the programme is

CarpatDome programme status by milestone, as of 15 September 2026
Milestone State
Software demonstrator (v1.1, extended 7 September 2026)Complete — node runtime, acoustic layer, integration port
Physical receiver nodeComponents received — assembly not started
Acoustic layer (RF-silent drones)Software only — synthetic audio, no field capture
Multi-node TDoA localisationExperimental — end-to-end in software, synthetic IQ only
Outdoor field experimentNot started
Measured detection performanceNone claimed
Operational deploymentNot claimed

Software, layer by layer

Everything below runs end-to-end in software on synthetic data or captured samples. 192 of 194 automated tests pass; the two excluded need a physical radio and a running broker.

Node sensors

One process per sensor: Remote ID decoding on Wi-Fi and Bluetooth Long Range, sub-GHz RF energy scanning and classification, an acoustic listener for RF-silent drones, and time-stamped IQ capture for TDoA. Scripted provisioning; node health reports timing state. Resilience under GNSS degradation is a design goal, not a validated capability.

4 LOGICAL NODES · RECEIVE-ONLY SENSING CHAIN.

C2 and fusion

Every source fuses into one contact per drone with a confidence score. TDoA cross-correlation and multilateration run end-to-end on synthetic IQ — experimental, not a validated capability. A live radar map replays 14 scripted engagement scenarios; the engagement ladder is a C2 simulation and commands no hardware.

14 SCENARIOS · NO EFFECTOR.

Integration port

Partner sensor detections come in and provider-neutral cues go out over the same versioned JSON contract — radar, EO/IR or an effector connect here. None of them exist in CarpatDome; the boundary does, and it is documented for an integrator.

MQTT · VERSIONED JSON · REST · WEBSOCKET.

Production tier

Authenticated transport, role separation, an audit log and continuous integration are scoped as a separate tier. Not built. The demonstrator runs on an isolated network and says so.

SCOPED, NOT BUILT.

Hardware phase

A node is built from COTS classes, not bespoke parts: sub-GHz SDR receivers, a dual-band Wi-Fi adapter in monitor mode, a Bluetooth Long Range receiver, a microphone array and a GNSS timing reference. A field tier adds timing resilience for GNSS-degraded operation — a design goal, not a validated capability. Components received 15 September 2026; assembly not started.

  1. M1 First physical nodes assembled and provisioned from script.
  2. M2 Inter-node timing check; timing error published.
  3. M3 First outdoor Remote ID decode and first acoustic capture against a known airframe.
  4. M4 TDoA against ground truth → Field Note #001, figures achieved or plainly not achieved.

No dates. Each gate is published on the evidence page when it is passed, not when it is planned.

Supply chain

Phase A validates the concept on commodity COTS hardware, because that is the fastest honest path to a measurement. Phase B replaces the reference node with an EU-sourced, supply-chain-controlled build: component origin for RF front-end, SDR, GNSS timing, MCU and antenna is a tracked deliverable, not an afterthought.

Where we are listed

A listing is a matchmaking step, not a project. These are the places a coordinator can find us today:

I3 Instrument Support Facility
Partnering offer #337 — passive RF + acoustic drone detection layer for critical infrastructure.
EDF Partner Pool (Enterprise Europe Network)
Organisation profile and marketplace entries: expertise offer and consortium request.
EU Funding & Tenders Portal
Partner search announcements on EDF-2026-LS-DA-SME-NT, EDF-2026-LS-DIS-RA-SMERO-NT and EDF-2026-LS-RA-CHALLENGE-DIGIT-AISAP-STEP.

Demonstrator changelog → Partner with us →