Heisenware Blog

Predictive Maintenance

Written by Gerrit Meyer | 10/17/25 7:00 AM

Stop Fixing – It's Time to Start Predicting

Imagine knowing exactly when a machine is about to fail—weeks before it actually happens. No more unplanned downtime at the worst possible moment. No more expensive emergency repairs. No more production outages that jeopardize your delivery dates. This isn't wishful thinking; it's the promise of Predictive Maintenance (PdM).

While traditional preventive maintenance is based on rigid schedules ("We change the bearing every 2,000 operating hours"), predictive maintenance takes a crucial step forward. It uses real-time data from your machines to analyze their actual condition and predict failures. Studies show that PdM can help companies reduce maintenance costs by up to 30% and decrease equipment downtime by up to 75%. This guide will show you how to transition from a reactive to a proactive maintenance strategy, thereby maximizing the availability and lifespan of your assets.

Predictive vs. Preventive Maintenance: The Key Difference

To understand the value of PdM, we need to distinguish it from its predecessor:

  • Preventive Maintenance: Acts according to the calendar or fixed intervals. You service components regardless of whether they actually need it. This is safe but often wasteful. You replace parts that might have run flawlessly for hundreds of more hours.

  • Predictive Maintenance: Acts according to the actual condition. It is data-driven, not calendar-driven. Maintenance is triggered precisely when the data signals that a problem is developing. This is not only efficient but also resource-conserving.

The Technology Behind the Prediction: How Does Predictive Maintenance Work?

Predictive maintenance isn't magic; it's the intelligent interplay of three technological pillars:

  1. Data Collection (Condition Monitoring): It all starts with data. IoT sensors attached to critical machine components continuously collect condition data. This can include vibrations, temperatures, pressures, oil quality, or acoustic signals. This data forms the digital fingerprint of your machine.

  2. Data Analysis and Pattern Recognition: The collected data is sent to a central platform. Here, algorithms (often using machine learning and AI) analyze the data streams in real-time. They learn how a "healthy" machine behaves and detect minimal deviations that indicate a future problem—long before a human would notice.

  3. Automated Actions and Workflows: When the analysis detects an anomaly that suggests a probable failure, an action is automatically triggered. This could be a simple notification to the maintenance technician or, even better, the automatic creation of a work order in your CMMS (Computerized Maintenance Management System). Integrating with a CMMS is crucial to closing the loop from prediction to action.

The Path to Predictive Maintenance: A Step-by-Step Approach

Introducing predictive maintenance doesn't have to be a leap into the deep end. A structured roadmap helps you proceed step by step:

  1. Identify Critical Assets: You don't need to monitor your entire factory at once. Start with the assets where a failure causes the most pain—your bottleneck machines or the most expensive equipment.

  2. Understand Failure Modes: Analyze historical data. Which failures have occurred most frequently in the past? Which components are most vulnerable? This helps you decide what you need to measure.

  3. Select the Right Sensors: Choose the appropriate sensors for the identified failure modes. For a bearing problem, vibration analysis is key; for an issue in the electrical cabinet, thermography is essential.

  4. Collect Data and Establish a Baseline: Let the sensors collect data from your assets during normal operation. This "baseline" is the reference against which future deviations will be measured.

  5. Start a Pilot Project and Scale: Begin with one or two machines. Prove the benefit and ROI (Return on Investment) in a manageable scope. With the insights gained, you can then roll out the solution to other assets. With the insights gained, you can then roll out the solution to other systems—supported by the Heisenware Deployment Options, which allow for flexible scalability.

Your Low-Code Platform: The Flexible Toolkit for Your PdM Strategy

Off-the-shelf predictive maintenance solutions are often rigid and expensive. A low-code platform gives you the tools to build your own, customized PdM application:

  • Easy Sensor Integration: Connect a wide variety of IoT sensors to your platform using protocols like MQTT or APIs.

  • Custom Dashboards: Visualize the condition data exactly as your maintenance team needs it. Display live vibration curves, temperature heatmaps, or oil quality trends.

  • Flexible Alerting Logic: Define your own rules via drag-and-drop. Send an email to the supervisor when the temperature exceeds threshold X, and automatically create a Prio-1 ticket in the CMMS if vibration also increases.

  • Mobile Maintenance Apps: Create mobile applications that provide the technician with all necessary information—from failure history and digital instructions to the spare parts list.

Conclusion: Take Control of Your Maintenance

Predictive maintenance is the logical next step in the evolution of maintenance. It transforms a cost-intensive, reactive department into a proactive, value-adding part of your company. By predicting problems before they occur, you not only increase asset availability and reduce costs but also create a safer and more predictable working environment. The key is to start small, prove the value, and use a flexible platform that grows with your needs.