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Real-Time Network Monitoring for Connected Vehicle Infrastructure

Real-Time Network Monitoring for Connected Vehicle Infrastructure
Custom embedded probe system for continuous diagnostics of automotive-grade communication networks
Key Results
60%
faster fault detection
80%
reduction in reactive incidents
Client
Automotive OEMs and Tier 1 suppliers operating large-scale connected vehicle programs need continuous visibility into the health of their communication infrastructure — V2X gateways, telematics back-ends, and in-plant Ethernet networks. Off-the-shelf monitoring tools lack the precision and configurability required to diagnose automotive-specific failure patterns at the edge.
Objective
Build a custom embedded monitoring system deployable at network edge points — inside vehicles, at charging stations, or within manufacturing facilities — that continuously measures network performance metrics, detects anomalies in real time, and feeds structured diagnostics to a central NOC dashboard. No cloud dependency for local detection. No generic tooling limitations.
Location:
USAUSA
Development time:
3 months
Cooperation period:
Ongoing
Project Team
Project manager
DevOps
QA Engineer
Backend Developer
Embedded Engineer
Generative AI Product Manager
Device Driver Developer
Work Approach
Edge-first detection
Automotive protocol fluency
Zero-touch deployment
NOC-ready output

Edge-first detection

All anomaly detection logic runs on the probe device itself. The system identifies and classifies faults locally — upstream reporting only happens when something actionable is found, keeping bandwidth usage minimal and detection latency under 100ms.

Automotive protocol fluency

The monitoring stack speaks the languages of automotive networks natively — CAN, LIN, automotive Ethernet (100BASE-T1), and SOME/IP — enabling diagnostics that generic IT monitoring tools simply cannot perform.

Zero-touch deployment

Probes are designed for tool-free installation and automatic registration. Drop a unit into a network segment and it begins reporting within minutes, no manual configuration required.

NOC-ready output

Diagnostics data is structured for direct ingestion by existing operations dashboards. No custom integration work required on the operator side.

Technical Architecture
Embedded & Firmware Layer
Communication & Protocols
Backend & Infrastructure
Integrations

Embedded & Firmware Layer

  • Platform: ARM Cortex-A (Linux) + Cortex-M co-processor for real-time tasks
  • OS: Yocto-based Embedded Linux with real-time kernel patches
  • Automotive interfaces: CAN FD, automotive Ethernet (100BASE-T1), LIN
  • Watchdog, self-recovery, and remote firmware update over secure channel

Communication & Protocols

  • MQTT for lightweight telemetry to cloud backend
  • SOME/IP and DDS for in-vehicle network diagnostics
  • AUTOSAR-compatible diagnostic interfaces (UDS over CAN / Ethernet)
  • TLS 1.3 encrypted transport for all upstream communication

Backend & Infrastructure

  • Time-series database: InfluxDB for metrics retention and trending
  • Alerting: configurable threshold engine with escalation routing
  • REST API for third-party NOC and fleet management platform integration

Integrations

  • Grafana-based operations dashboards
  • OEM telematics back-end systems
  • JIRA / PagerDuty webhook alerting
Results
Operational Efficiency
Diagnostics Quality
Scalability

Operational Efficiency

NOC teams eliminated manual polling routines entirely. Engineers now respond to structured, prioritized alerts instead of hunting through raw logs — cutting mean response time from hours to minutes.

Diagnostics Quality

Per-node, per-protocol diagnostics surface failure patterns that aggregate monitoring tools miss completely. Intermittent CAN bus errors, Ethernet frame loss spikes, and timing violations are caught at the source before they propagate to vehicle-level symptoms.

Scalability

New network segments and probe units are added without touching the backend. The architecture handles hundreds of simultaneous probe nodes with linear scaling.

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