PHASE 1 PoC · FIELD DEPLOYMENT Q3 2026

TERVOX GRID

Distributed Edge AI Sensor Mesh for UAV Detection

Autonomous multi-modal threat detection in contested electromagnetic environments — no cloud, no cellular dependency.

ONYX GRID SIA  |  RIGA, LATVIA  |  EU / NATO MARKET FOCUS

The Threat

Drones are a growing security threat across NATO's eastern flank

Commercial and modified UAVs increasingly probe military and civilian infrastructure — and today's detection systems have structural blind spots.

⚠️

Escalating Incidents

Baltic states report increasing drone overflights near military bases, ports, and critical infrastructure.

📡

Remote ID Spoofing

Existing detection relies on Remote ID — a broadcast signal that can be spoofed for under €20 with commodity hardware.

☁️

Cloud Dependency

Current solutions require constant internet connectivity — a single point of failure under electronic warfare conditions.

🛰️

EW Vulnerability

Cellular jamming and GPS spoofing are standard adversary tactics in the Baltic theatre, blinding cloud-dependent systems.

The Solution

Detect, classify, and track — without cloud or cellular

Tervox Grid is a distributed sensor mesh that detects, classifies, and tracks drones using multi-modal AI fusion — fully autonomous at the network edge.

👁 Visual

Edge AI object detection (YOLOv8) on dual cameras with Hailo-8L neural accelerator. Real-time classification at 30+ FPS.

🔊 Acoustic

Microphone array with ML-based drone audio signature detection. Works in zero-visibility conditions — fog, night, smoke.

📻 Radio Frequency

Passive RF monitoring: Wi-Fi Remote ID reception, ADS-B aircraft context filtering, spectrum baseline monitoring.

▼ MULTI-MODAL FUSION ENGINE ▼
Tervox Grid sensor node deployed on the Baltic coastline

Portable, weather-hardened sensor node — rapid perimeter deployment

How It Works

From perimeter sensor to command & control

Four layers, one resilient pipeline. Sensor nodes talk over an encrypted LoRa mesh — the perimeter needs no cellular coverage at all.

01 / SENSOR NODE

Detect at the Edge

  • Raspberry Pi 5
  • Hailo-8L accelerator
  • Dual CSI cameras
  • Acoustic array
  • Wi-Fi RID receiver
  • RTL-SDR (ADS-B)
02 / MESH NETWORK

Relay Resiliently

  • LoRa 868 MHz
  • Multi-hop routing
  • Encrypted P2P
  • EW-resistant transport
  • No cellular required
03 / GATEWAY

Aggregate Securely

  • Deep in protected zone
  • LTE / Ethernet uplink
  • Event aggregation
  • Hardened vs jamming
04 / C2 SERVER

Command & Control

  • Event correlation
  • Operator UI
  • Alert history
  • Threat map
Mesh network diagram: two sensor nodes exchanging encrypted LoRa data packets through deep fog

Sensor nodes communicate via encrypted LoRa mesh — no cellular dependency on the perimeter

Why Tervox Wins

Built for the environments where others fail

Cloud-dependent competitors assume a permissive RF environment. Tervox Grid assumes the opposite.

Capability Cloud-Dependent Competitors Tervox Grid
Detection modality Single (Remote ID only) Multi-modal (visual + acoustic + RF)
Remote ID spoofing resilience Vulnerable Cross-validated via sensor fusion
Cellular / internet dependency Required for operation None — LoRa mesh operates independently
Edge AI inference Cloud-side processing On-device (Hailo-8L, sub-second latency)
EW resilience Fails under jamming Designed for contested RF environments
False positive reduction No context filtering ADS-B aircraft correlation layer
Deployment flexibility Fixed infrastructure Portable, solar-powered, rapid setup

Progress

Actual development progress

This section tracks the real state of the system as it is built — validated milestones, work in integration, and what comes next.

Phase 1 PoC — hardware validated, software in integration, field deployment planned Q3 2026
UPDATED: JULY 2026
✓ Validated
  • [✓]YOLOv8n drone detection model trained and validated (mAP@50 ~95%, Precision ~97.7%)
  • [✓]Model compiled for Hailo-8L edge accelerator (.hef format, deployment-ready)
  • [✓]Sensor compute platform validated (Raspberry Pi 5 + Hailo-8L M.2 HAT)
  • [✓]ADS-B aircraft tracking pipeline validated (RTL-SDR + dump1090)
  • [✓]3-stage provisioning infrastructure (Pi Imager / Ansible / Docker Compose)
  • [✓]C2 gateway MVP operational (ingestion → persistence → broadcast → console)
◐ In Progress
  • [◐]Sensor-to-C2 event pipeline (in development, July 2026)
  • [◐]LoRa mesh integration (hardware procurement in progress)
▹ Planned
  • [ ]Field deployment of 2–3 nodes (August–September 2026)
  • [ ]Multi-modal detection validated in field (visual + acoustic + RID)

SENSOR NODE SUBSYSTEM

IN INTEGRATION

Edge detection platform built on Raspberry Pi 5 with Hailo-8L neural accelerator (13 TOPS INT8). The trained YOLOv8n drone model runs on-device; the acoustic array and RF receivers extend detection beyond line of sight.

  • Edge AI vision: YOLOv8n compiled to .hef, real-time inference on Hailo-8L at 30+ FPS.
  • Multi-sensor framework: extensible architecture for video, audio, and RF detection channels.
  • ADS-B context layer: RTL-SDR + dump1090 aircraft tracking for false-positive filtering.
  • Reproducible provisioning: Pi Imager → Ansible → Docker Compose, three-stage node bring-up.
  • Telemetry isolation: MQTT bridge keeps the internal mesh unexposed.
Sensor node prototype: Raspberry Pi camera module, acoustic array PCB, and compute board on the bench

C2 GATEWAY & OPERATIONS CONSOLE

OPERATIONAL

Fully functional MVP. Ingests sensor telemetry over mutual-TLS MQTT, persists state to PostgreSQL, broadcasts Cursor-on-Target (CoT) multicast for ATAK integration, and streams live updates to an offline-capable web operations console.

  • Secure ingestion: MQTT over mTLS (TLS 1.3) with embedded PKI for node commissioning.
  • Tactical broadcasting: CoT XML over UDP multicast — plugs into ATAK and existing C2 systems.
  • Live operations console: MapLibre GL with offline vector tiles, real-time node markers, directional threat vectors, geofenced perimeters.
  • Authentication: OIDC via Keycloak (Authorization Code + PKCE), HTTPS end-to-end.
  • State & audit: PostgreSQL 16 persistence; all node lifecycle transitions logged for incident reconstruction.
  • Test coverage: Testcontainers integration suite validating the full ingestion → broadcast flow.

STACK: Java 21 · Quarkus · PostgreSQL 16 · Eclipse Mosquitto (MQTT mTLS) · Keycloak OIDC · MapLibre GL JS · Docker

Market Opportunity

A rapidly expanding counter-UAS market

€2.5B+
Baltic defence spend increase 2024–2028 (NATO commitment)
€7.5B
Global counter-UAS market projected by 2030
340%
Growth in drone-related security incidents 2022–2025
🪖

Military & Border

NATO bases, border control points, forward operating positions.

🏭

Critical Infrastructure

Ports, railway stations, power plants, government buildings.

🏟️

Enterprise Security

Airports, industrial zones, event venues (Phase 2 — server-side AI product).

Roadmap

From field PoC to series production

PHASE 1 · Q3–Q4 2026

Field Validation

  • 2–3 sensor nodes deployed in field
  • Multi-modal detection validated (visual + acoustic + RID)
  • LoRa mesh transport operational
  • C2 server with event correlation and operator UI
  • ADS-B context layer integrated
  • Field validation data collected
PHASE 2 · Q1–Q2 2027

Advanced Detection

  • Broadband RF detection (2.4 / 5.8 GHz C2 links)
  • DJI OcuSync RF fingerprinting
  • GNSS spoofing / cellular jamming detection
  • Pattern-of-life analysis (ST-DBSCAN, anomaly detection)
  • Custom PCB design (LIAA grant)
  • Production-grade mesh protocol
PHASE 3 · H2 2027

Scale & Pilots

  • Pilot deployments with defence customers
  • NATO DIANA accelerator programme
  • Server-side AI product for enterprise CCTV
  • Multi-node triangulation
  • Series production readiness

Founder

Deep-tech experience meets mission-critical engineering

Dmitrijs

FOUNDER & SOLUTION ARCHITECT

25+ years delivering complex distributed systems in regulated environments — capital markets, banking, and insurance. Owns architecture end-to-end: from discovery and design through production-grade PoCs, governance, and delivery — hands-on, leading by example, not from an ivory tower.

SOLUTION ARCHITECTURE ZERO TRUST SECURITY EVENT-DRIVEN SYSTEMS LOW-LATENCY JAVA CLOUD & KUBERNETES EDGE AI / ML PIPELINES
Low-Latency Trading Systems Architected a fixed-income trading platform with a sub-millisecond, high-throughput matching engine (LMAX Disruptor) that attracted investment from a major European stock exchange group.
Engineering Leadership at Scale Led 65 engineers across 6 teams through a bank-wide modernisation: monolith-to-microservices migration, VM-to-Kubernetes transformation, and launch of the bank's first fintech product.
Cloud & Security Architecture Led cloud migration of 50+ microservices across 3 geographic regions for a global financial markets operator; designed Zero Trust security — mTLS, OAuth2/OIDC, IAM, network segmentation.
Edge AI & Multi-Sensor Fusion Hands-on ML delivery: full pipeline from dataset through fine-tuning, quantization, and edge-accelerator compilation — applied to distributed sensor meshes and real-time detection.

Partnership Opportunities

How you can get involved

🎯

Testing Ground Access

Access to controlled outdoor testing facilities or military proving grounds for multi-node field validation with live drone targets.

🤝

Mentorship & Network

Strategic guidance from defence industry professionals, introductions to MoD procurement offices and NATO innovation programmes.

💶

Funding & Grants

Pre-seed investment or grant co-financing for custom PCB design, production engineering, and team scaling.

🛡️

Pilot Partnerships

Collaboration with defence OEMs, system integrators, or infrastructure operators for real-world pilot deployments.

Building the detection layer for contested airspace

Onyx Grid SIA · Riga, Latvia · EU / NATO market focus

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