Industrial Automation & RoboticsReference Blueprint

IIoT Predictive Maintenance & Sensor Network Architecture

An end-to-end condition-monitoring pattern using vibration, thermal, and acoustic sensors to catch machine failures early.

IIoT Predictive Maintenance & Sensor Network Architecture
Days–weeks
advance warning for bearing wear
~25%
lower maintenance spend over time
100%
monitored-asset visibility

Design targets, not measured client results.

The Problem

Why teams need this pattern

Calendar-based maintenance misses real wear. Motors, pumps, and gearboxes fail unexpectedly and halt production lines for days.

Ideal for

  • Plants with costly rotating equipment
  • Maintenance teams starting condition monitoring

Our Approach

Architectural approach

Wireless tri-axial vibration and temperature sensors on rotating assets, with FFT spectral analysis on edge processors to flag bearing wear and misalignment well ahead of failure.

Illustration for IIoT Predictive Maintenance & Sensor Network Architecture

System Design

Architectural layers & components

How data and control flow from the edge of the system to the people who use it.

  1. 01

    Sensor Layer

    Wireless MEMS vibration and IR temperature sensors on rotating assets.

  2. 02

    Edge Processing

    Jetson / Raspberry Pi gateways running local FFT analysis.

  3. 03

    Time-Series Ingestion

    AWS IoT Core streaming into InfluxDB / Timestream.

  4. 04

    Alerting & Work Orders

    Automatic CMMS / SAP PM work orders when thresholds are breached.

Design Targets

What this architecture is built to achieve

Targets we design toward. We confirm them against your own data and workload before you commit to a build.

Days–weeks
advance warning for bearing wear
Target
~25%
lower maintenance spend over time
Target
100%
monitored-asset visibility
Target
Pilot
start with 10–20 critical assets
Target
Assumptions & limits
  • Prediction quality improves as failure history accumulates; early alerts are threshold-based.
  • Savings depend on current maintenance practice and asset criticality.

What You Get

Artifacts tailored to your environment

The blueprint is a starting point. These are the working documents and code we adapt for you.

Learn about our Industrial Automation & Robotics services
  • Sensor mounting guidelines
  • FFT feature extractors
  • Node-RED flows
  • Grafana dashboard templates

How We Work

From first call to working prototype

  1. 130–45 min

    Discovery call

    We review your constraints, existing systems, and success criteria, and tell you honestly whether this blueprint fits.

  2. 21–2 weeks

    Fit & feasibility workshop

    We adapt the reference architecture to your stack, validate the design targets against your real data, and produce a scoped plan.

  3. 3Scoped per project

    Prototype, then build

    We ship a working slice first so you can judge the approach before committing to a full build.

Technology Stack

Default tools & infrastructure

We swap components to fit your stack.

  • AWS IoT Core
  • InfluxDB
  • Python SciPy / FFT
  • Node-RED
  • Grafana
  • Docker

FAQ

Common questions

Want an architecture like this?

Book a call and we'll tell you honestly whether this blueprint fits, and how we'd adapt it to your stack and constraints.