Interactive Demo: AI-Enhanced Predictive Maintenance

Real-Time Equipment Monitoring with Hybrid Statistical & AI Analysis

The Challenge

Industrial equipment failures result in costly unplanned downtime, safety incidents, and production losses. Traditional maintenance approaches are either reactive (fixing after failure) or time-based (preventive scheduling), both of which are inefficient and costly. Modern industrial facilities need:

  • Real-time monitoring: Continuous tracking of equipment health across thousands of sensors
  • Early warning systems: Detect anomalies before they cause failures
  • Intelligent analysis: Understand complex degradation patterns and failure modes
  • Actionable recommendations: Clear maintenance guidance with cost-benefit analysis
What This Demo Showcases

This interactive demonstration showcases an AI-enhanced predictive maintenance pipeline. Using a hybrid approach, it combines deterministic statistical methods for reliable anomaly detection and trend analysis with AI-powered recommendations for complex decision-making. This architecture is more robust and cost-effective than pure AI approaches:

Real-Time Data Streaming

Server-Sent Events (SSE) stream live sensor data from a simulated centrifugal pump

Statistical Anomaly Detection

Deterministic analysis continuously monitors for deviations and threshold violations

Mathematical Trend Analysis

Calculates degradation rates and predicts equipment health trajectories

AI-Powered Recommendations

GPT-5 generates contextual maintenance actions with cost-benefit analysis

Hybrid Architecture: Deterministic + AI

This demo uses a three-stage pipeline: (1) Statistical Anomaly Detection - z-score analysis and threshold monitoring (deterministic, explainable), (2) Mathematical Trend Analysis - degradation tracking and RUL prediction (deterministic calculations), (3) AI-Powered Maintenance Planning - GPT-5 generates contextual recommendations (AI for complex decision-making). This hybrid approach provides reliable detection with intelligent, cost-effective recommendations.

Understanding the Demo
How the simulation works and what you're seeing on the dashboard

Normal Operation (Clean Start)

The demo starts with a simulated centrifugal pump in normal operating condition. Even without anomalies, the system includes natural degradation (0.2% per reading) to simulate realistic equipment wear over time. The Degradation metric on the dashboard shows this cumulative wear factor as a percentage (0-100%).

Demo Duration & Timeline

The demo runs for 2 minutes (120 seconds) with sensor readings every 1.5 seconds. At 30 seconds, the AI generates baseline maintenance recommendations. Additional recommendations may be triggered if anomalies are detected or degradation becomes significant.

Interactive Anomaly Injection

While the demo runs, you can inject anomalies (Temperature Surge, Cavitation, Vibration Spike) to test how the system responds. Each anomaly lasts 30 seconds and triggers statistical analysis and AI recommendations. This lets you see how the hybrid pipeline handles both normal wear and unexpected equipment issues.

Dashboard Metrics Explained

  • • Elapsed Time: Time since demo started (MM:SS format)
  • • Readings: Total sensor readings collected (one per 1.5 seconds)
  • • Degradation: Cumulative equipment wear (0-100%), increases naturally over time
  • • Progress: Demo completion percentage (0-100%)

💡 Pro Tip: Try running the demo multiple times with different scenarios: once without any anomalies (clean operation), once with a single anomaly injection, and once with multiple anomalies to see how the AI adapts its recommendations.

Try the Interactive Demo

Watch real-time statistical analysis and AI-powered recommendations

Click "Start Demo" below • Optionally inject anomalies • Watch AI generate recommendations

Live Monitoring Dashboard○ Disconnected
Real-time centrifugal pump monitoring with predictive maintenance AI
PUMPTT0.0 °CBearingTemp.VT0.00 mm/sBearingVibrationPT0.00 barDischargePressureFT0.0 m³/hDischargeFlow
Vibration
Real-time sensor monitoring

Waiting for sensor data...

Start the demo to see real-time charts

Temperature
Real-time sensor monitoring

Waiting for sensor data...

Start the demo to see real-time charts

Pressure
Real-time sensor monitoring

Waiting for sensor data...

Start the demo to see real-time charts

Flow Rate
Real-time sensor monitoring

Waiting for sensor data...

Start the demo to see real-time charts

Business Impact

Downtime Reduction

Predict failures before they occur

Maintenance Cost Savings

Optimize maintenance scheduling

Failure Prevention

Catch issues before critical failure

How It Works
1

Data Simulation & Streaming

Realistic centrifugal pump simulator generates sensor data (vibration, temperature, pressure, flow rate) with physics-based correlations and configurable anomalies. Data streams via Server-Sent Events (SSE) every 1.5 seconds.

2

Statistical Anomaly Detection

First stage uses deterministic z-score analysis and moving averages to detect unusual patterns, spikes, or threshold violations in real-time. Flags anomalies by severity (warning, critical). This statistical approach is explainable and reliable.

3

Mathematical Trend Analysis

Second stage uses mathematical calculations to identify degradation trends, calculate rates of change, and estimate remaining useful life (RUL). Deterministic predictions of when equipment will reach critical thresholds.

4

AI-Powered Maintenance Planning

Third stage uses GPT-5 to synthesize anomaly and trend data, generating prioritized maintenance recommendations with detailed reasoning, failure mode analysis, and cost-benefit estimates. AI is applied strategically where complex decision-making adds the most value.

Technology Stack: Built with Next.js 15, TypeScript, Server-Sent Events (SSE), recharts for visualization, and OpenAI GPT-5 for intelligent recommendations.

Ready to Implement Predictive Maintenance?

Let's discuss how AI-enhanced predictive maintenance can transform your operations and reduce downtime