Predictive maintenance services
Predictable maintenance for stable production processes.
Systematic Maintenance – Our Predictive Maintenance Services
Unplanned machine downtime costs time, money, and trust. With predictive maintenance , you can identify risks before they become problems. Sensor data, IoT platforms, and AI models reveal when plants, machines, or components need maintenance—not too early, not too late, but exactly when it makes economic and technical sense.
Many providers deliver technology. MaibornWolff delivers comprehensive predictive maintenance services. Drawing on experience from over 60 Industry 4.0 projects, we develop predictive maintenance not as a mere data model, but as a practical solution for your maintenance operations. True to our motto: Less Technology. Better Business.
Predictive Maintenance Services: The Benefits of Working with MaibornWolff
For predictive maintenance services to be effective in an operational setting, data quality, equipment knowledge, and maintenance processes must all align. MaibornWolff combines technical implementation with economic analysis and ensures that forecasts are translated into concrete decisions. In doing so, we rely on:
We don't start with the technology; instead, we begin by asking where outages are particularly costly, critical, or difficult to plan for. Working with you, we identify the use cases where predictive maintenance delivers the greatest benefits.
Your predictive maintenance solution grows with your needs. Whether you have more data, additional equipment, or new technologies, the architecture remains flexible and can be expanded step by step.
We don't just develop a technical solution; we also strengthen your internal expertise. Your team will gain the knowledge, methods, and tools needed to continue implementing predictive maintenance on its own in the long term.
Forecasts are prepared so that your teams can work with them directly. Dashboards, alerts, interfaces, and workflows deliver relevant information to where maintenance is planned, prioritized, and carried out.
The most important criterion for the success of this machine learning project is a unified and scalable solution that effectively integrates both the diversity of our products and manually scheduled plants. This synergy, tailored by MaibornWolff, demonstrates the true value of the project.
Data-Driven Decisions Instead of Reactive Maintenance
Many companies maintain their machinery at fixed intervals or only when a fault occurs. Both approaches are costly: parts are replaced too early, spare parts inventories tie up capital unnecessarily, or outages catch production, service, and supply chains off guard.
Predictive maintenance services take a more proactive approach. Sensors and IoT systems continuously collect condition data. This data is linked to historical operating and maintenance information and analyzed using analytical methods and machine learning.
The result of predictive maintenance:
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Less downtime: The system detects patterns, deviations, and early signs of wear long before they cause a shutdown.
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Greater cost efficiency: Maintenance is performed only when technically necessary. This reduces unnecessary service calls and spare part costs.
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Longer machine lifespan: Equipment is monitored more closely and operated more gently. This can improve the ROI of your machines.
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Greater safety: Critical conditions are detected earlier and can be better controlled.
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More efficient use of resources: Staff, materials, and maintenance windows can be planned more effectively and coordinated well in advance.
Schedule a no-obligation consultation today and find out where Predictive Maintenance Services can deliver the greatest benefits.
Here's How We Bring Predictive Maintenance to Your Company
A sensor alone cannot maintain a machine. MaibornWolff brings together what belongs together: machine data, ML models, IT/OT infrastructure, and the teams that ultimately work with them. From the initial analysis to the global rollout, we manage your predictive maintenance services as a holistic project.
1. Needs Assessment and Strategy Development
We analyze the maturity level of your maintenance operations, relevant equipment, failure risks, and available data. Together with you, we define goals and KPIs and prioritize use cases. This makes it clear early on where predictive maintenance makes technical sense and delivers the greatest economic benefits.
2. Technology Selection and Data Integration
We review your data infrastructure, identify the necessary sensors, and select the appropriate technologies for data collection, processing, and analysis. Depending on your specific situation, this may include IoT gateways, edge components, platform architectures, and interfaces to existing systems.
3. Implementation and Validation
Based on your data, we develop and train analytical and predictive models. In a proof-of-concept, we test how reliably patterns, anomalies, or wear signals are detected. Once validated, the solution is gradually rolled out into production.
4. Training and Qualification
To ensure that predictive maintenance is effective in the long term, we actively involve your teams. They will gain the knowledge, methods, and tools needed to correctly interpret results, determine appropriate actions, and confidently implement the solution in day-to-day operations.
5. Optimization and Rollout
After implementation, the solution is continuously improved. New operational data, maintenance results, and feedback from the field are incorporated into the models. Predictive maintenance can then be scaled to additional machines, lines, plants, or locations.
Thanks to Predictive Maintenance Services, you can detect wear and anomalies
early on and ensure greater safety for your production.
Predictive Maintenance Services in Practice
Every facility, every data set, and every maintenance process is different. That’s why we don’t view predictive maintenance in isolation, but rather as part of your interconnected production environment. MaibornWolff brings 9 years of hands-on Industry 4.0 experience and over 60 successfully implemented projects to the table. Click through a selection of our success stories and see for yourself!
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About the Monitoring ReferenceA New Approach to Workplace Safety: Live Monitoring and Management of Gas Detectors in the CloudCybersecurityEmbedded Systems & RoboticsIoTAbout the Monitoring ReferenceCloud Platform for Live Monitoring and Management of Mobile Gas Detectors
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To the MAN referenceMAN - ATLAS L4. Control Center for the autonomous truckCloudData/Data PlatformsAppsTo the MAN referenceControl center for the technical monitoring of driverless trucks
To the MAN referenceUX design, product strategy, data structure, vehicle data visualization
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To the NETZSCH referenceNETZSCH: Development of an IoT platformCloudData/Data PlatformsIoTTo the NETZSCH referenceUnified IoT platform for 3 business units, harmonization of existing IoT solutions
To the NETZSCH referenceIoT device connectivity, visualization software for data analysis, cloud infrastructure, operations
To the NETZSCH referenceQuick testing in the cloud infrastructure, fast integration of use cases such as predictive maintenance, process optimizations, etc.
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See robotics referenceResearch: AI-supported robotics for employees with physical limitationsEmbedded Systems & RoboticsIndustry 4.0ManufacturingSee robotics referenceCustomized assistance robots for people with physical disabilities in production
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See Siemens referenceSiemens: AI demand prediction platform for industrial production planningCloudData/Data PlatformsIndustry 4.0See Siemens referenceMachine learning for time series forecasting
See Siemens referenceAutoML for automated adaptation of models to different data
See Siemens referenceUnified, scalable solution, optimized inventory costs, efficiency gains
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See VW referenceVW: Digitization of key production figures with the iProcess appData/Data PlatformsAppsIndustry 4.0See VW referenceReplacement of analog, error-prone activities with a digital app solution
See VW referenceDigital design, cloud-native technologies, UX concept, UI design, front- & backend
See VW referenceMore transparency in production processes, higher production OEE, across plants
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See Miele referenceMiele domestic appliances are networked worldwideCloudIoTEmbedded Systems & RoboticsSee Miele referenceFurther development of the IoT platform for connected home appliances
See Miele referenceContainer-based architecture, open standards, modular design
See Miele referenceQuick availability & scalability of digital services, high added value for users
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See ifm services referenceifm services: Remote maintenance of systems and machinesCloudIoTEmbedded Systems & RoboticsSee ifm services referenceFully integrated remote access in the IoT platform
See ifm services referenceFull stack cloud application, RUST-based clients, UX design
See ifm services referenceAnalysis of sensor data from production as a basis for sustainable decisions for customers
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See referencePlanning systems: Optimizing the capacity utilization of pressing plantsData/Data PlatformsIndustry 4.0ManufacturingSee referenceCentralized planning of component manufacturing for cost- & resource-optimized production capacity worldwide
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See referenceData-based planning & calculation of different manufacturing scenarios & site-specific production costs
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See KUKA referenceKUKA: UI/UX design for an app for load data analysis for industrial robotsDigital Design/UX DesignData/Data PlatformsAppsSee KUKA referenceWeb app to replace legacy systems for easier interaction between users & system
See KUKA referenceConversion from local processing with fat clients to a client-server application & migration to the cloud
See KUKA referenceData-based planning & calculation of different manufacturing scenarios & site-specific production costs
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See BMW Group referenceBMW Group: Remote software upgrade for vehiclesCloudCybersecurityIoTSee BMW Group referenceSoftware upgrades without the need to visit a service center
See BMW Group referenceBackend system for over-the-air communication with the vehicle, 24/7 support
See BMW Group referenceIT security, more comfort, on-demand provision of new features
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See SMA referenceSMA: Development of a Web UI for ennexOS platformDigital Design/UX DesignIoTWeb & Portal PlatformsSee SMA referenceCreation of a unified customer experience across all products, smooth generational transition for customers, secure, agile operation
See SMA referenceWebUI for the digitalization & automation of energy management processes, open-source solution for energy flow visualization
See SMA referenceEnergy flow & cost optimization, operational reliability, customer-friendliness
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See Weidmüller referenceWeidmüller: Progression of the Industrial Service PlatformCloudIoTWeb & Portal PlatformsSee Weidmüller referenceCreation of a centralized, intuitive, expandable portal as the foundation for industrial applications (remote access, data visualization, ML)
See Weidmüller referenceExploration, setup & further development of the base platform for industrial services
See Weidmüller referenceInnovative portal for end-to-end solutions, MVP in just 7 months
How do predictive maintenance services work?
Behind every prevented outage lies a combination of measurement technology, data transmission, and intelligent analysis methods. Predictive maintenance services bring these technologies together in a structured process, making maintenance proactive rather than reactive.
1. Data Collection
Predictive maintenance begins with the continuous collection of condition data directly from the machine. Sensors measure values such as vibration, acceleration, temperature, pressure, and current consumption. Condition monitoring makes these machine conditions visible in real time, thereby forming the basis for all further analyses.
2. Data Analysis
The collected data is transmitted to analytics environments via Industrial IoT, IoT gateways, and protocols such as OPC UA or MQTT, where it is processed. IIoT platforms aggregate the data streams, while machine learning models compare historical and current values. This reveals patterns, trends, and anomalies.
3. Forecast
Based on the analysis, predictive models calculate the probability of a failure or how long a component is expected to continue operating reliably. When dealing with complex data, deep learning models can detect subtle deviations. This makes it possible to assess wear or incipient damage early on and plan maintenance as needed.
4. Optimization
Predictive maintenance becomes more accurate with every piece of feedback. New operational data, confirmed malfunctions, and the results of maintenance tasks fed back into the system. As a result, the models continuously learn, false alarms are reduced, and the maintenance strategy becomes more precise step by step.
These companies already rely on our expertise
Request Predictive Maintenance Services and Reduce Downtime
Your equipment has been sending signals for quite some time. Predictive maintenance services make these signals understandable and transform technical data into clear decisions. This results in a maintenance approach that doesn’t wait until it’s too late to react, but instead identifies risks early and acts proactively.
With MaibornWolff, you can develop a solution that keeps your teams ready to act and makes maintenance more targeted, cost-effective, and predictable. Let’s work together to identify where the greatest potential for improvement lies in your maintenance operations!
FAQ: Frequently Asked Questions About Predictive Maintenance Services
What are predictive maintenance services?
Predictive maintenance services help companies plan maintenance proactively. To do this, machine, sensor, and operational data are analyzed to detect anomalies, wear, or the risk of failure at an early stage. The goal is to manage maintenance not reactively, but in a data-driven and needs-based manner.
How does predictive maintenance differ from traditional maintenance?
Traditional maintenance follows fixed intervals or is only performed after a failure occurs. Predictive maintenance services, on the other hand, are data-driven: maintenance is triggered precisely when measurement values indicate an impending failure. This reduces unnecessary interventions and prevents unplanned downtime.
When Is Predictive Maintenance Worth It?
Predictive maintenance is particularly beneficial for systems whose failure would result in high costs, production stoppages, or safety risks. This is the case wherever critical machinery operates continuously—for example, in manufacturing, energy supply, logistics, or building management.
What technologies underpin predictive maintenance services?
Predictive maintenance is based on condition monitoring, sensor technology, the Industrial IoT, and machine learning. Sensors capture machine conditions in real time, such as vibration, acceleration, or temperature. IoT gateways process data from various machines and systems and make it available for centralized analysis. Machine learning models identify patterns and anomalies in this data, enabling wear and tear to be detected early, before critical failures occur.
What is the difference between predictive maintenance and condition monitoring?
Condition monitoring tracks the current status of a machine. Predictive maintenance goes a step further and uses this data to predict future failures or maintenance needs.
How can predictive maintenance services be successfully implemented?
A successful implementation begins with a clear analysis of your facilities, data landscape, and maintenance processes. This is followed by the technical integration with existing systems, the development of appropriate models, and integration into operational workflows. It’s also important to involve employees early on so they can correctly interpret forecasts and confidently make data-driven maintenance decisions. The experts at MaibornWolff are happy to support you throughout the entire process!