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ManufacturingPredictive Maintenance AI

Automotive Parts Manufacturer Eliminates 73% of Unplanned Downtime with Predictive AI

Client: Tier 1 Automotive Parts Manufacturer (400 machines, Ohio)Timeline: 18 weeksTeam: 4 engineers + 2 IoT specialists + 1 ML engineer
Manufacturing plant floor with AI-monitored industrial equipment and sensor arrays

$2.1M

Annual Savings

73%

Unplanned Downtime Reduced

-68%

Emergency Maintenance Calls

8 months

Payback Period

!

The Challenge

This Tier 1 automotive supplier was experiencing 340+ hours of unplanned downtime per year across their 400-machine facility. Each hour of downtime cost $28,000 in lost production and expediting costs. Their maintenance team was reactive β€” responding to failures after they happened rather than preventing them.

Our Solution

We deployed vibration, temperature, and current sensors on the 80 most critical machines, built ML models that learn each machine's normal operating signature, and created a maintenance work order system that generates alerts 2–4 weeks before predicted failures β€” giving the team time to schedule maintenance during planned downtime windows.

The True Cost of Unplanned Downtime

At $28,000 per hour, the manufacturer's 340 hours of annual unplanned downtime cost $9.5M per year in direct production losses. But the indirect costs were equally significant: emergency parts procurement at 3x normal cost, overtime labor for emergency repairs, customer delivery penalties, and the stress on a maintenance team that was perpetually in crisis mode.

Sensor Deployment Strategy

Rather than instrumenting all 400 machines at once, we used a criticality-based approach: rank machines by failure impact (production loss Γ— failure frequency) and start with the top 80. This allowed us to demonstrate ROI within 6 months while building the team's confidence in the system before scaling.

Each critical machine received: a triaxial vibration sensor (detecting bearing wear, imbalance, and misalignment), a thermal sensor array (detecting insulation degradation and overheating), and a current transducer (detecting motor efficiency degradation). Data streams at 1kHz to edge computing nodes that perform initial signal processing before sending aggregated features to the cloud.

Machine-Specific Model Training

The key insight in predictive maintenance is that every machine has a unique "normal" β€” influenced by its age, load profile, maintenance history, and operating environment. We trained separate anomaly detection models for each machine type (CNC mills, stamping presses, conveyors, compressors) using 90 days of baseline data, then fine-tuned each individual machine's model over the following 60 days.

Integration with SAP PM

The system integrates directly with the plant's SAP Plant Maintenance module. When the AI predicts a failure with >75% confidence, it automatically creates a PM work order with the predicted failure mode, recommended parts, estimated repair time, and suggested maintenance window. Maintenance planners review and schedule β€” they don't have to create work orders from scratch or manually prioritize their queue.

"We went from firefighting to planning. Our maintenance team now schedules 80% of their work in advance instead of responding to emergencies. The culture change alone has been worth it."

Director of Manufacturing Operations

Tier 1 Automotive Parts Manufacturer

Technologies Used

PythonTensorFlowInfluxDBMQTTGrafanaApache KafkaSAP PM IntegrationRaspberry Pi edge nodesAWS IoT Greengrass

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