Fewer Train Service Disruptions and Operational Delays:
Shifting from Cyclic Maintenance to Condition-based Maintenance

Smooth and uninterrupted railway operations rely heavily on the maintenance of rail vehicles, components, and infrastructure. Traditionally, a cyclic maintenance approach has been employed. However, this approach poses challenges. If maintenance intervals are too short, it results in excessive maintenance costs, while longer intervals can lead to costly disruptions and failures.

Optimized maintenance intervals enable uninterrupted operations with lower maintenance costs

Determining the need for maintenance and upkeep measures is not solely dependent on elapsed time. Numerous factors, such as

utilization and load,
environmental and operational influences
age of components

influence the wear and tear of rail vehicles, individual components, or infrastructure. These factors are typically measurable. Our core competency lies in monitoring, with a focus on vibration and acoustic data in conjunction with operational data and integrating them into monitoring systems. For this purpose, algorithms are developed based on mechanical models, enhanced by AI components. The objective is to identify precise condition indicators and key performance indicators (KPIs). With these insights, infrastructure and components can be continuously monitored and maintained based on their condition.

Predictive Maintenance is a broad term that has been discussed in many industries for quite some time. The benefits of this concept for the rail sector are evident and widely acknowledged:

  • Optimized monitoring of wear condition
  • Improved maintenance planning and management
  • More efficient utilization of existing personnel resources
  • Optimized material usage
  • Enhanced safety and reliability in train operations
  • Reduced delays and cancellations
  • High fleet availability and reduced need for replacement vehicles
  • Identification of weak spots to optimize future products
  • Improved vehicle availability and reliability
  • Increased customer satisfaction

For many, the real challenge lies in implementation. What data should we gather? And, more importantly, how can we extract concrete value from this data?

Our three-step approach makes integrating predictive maintenance into your existing system far more straightforward than you might anticipate. Explore each step by hovering your cursor over it to gain deeper insights:

  • Optimization of maintenance intervals
  • Monitoring of critical infrastructure components (rail, switch, track alignment)
  • Evaluation of operational stress factors (shock monitoring, dynamic loads)
  • Monitoring of maintenance-relevant components (wheelset, bogie, wheel bearings)
  • Early detection of defects and anomalies
  • Load detection (service life, validation, design loads)

Please contact us personally

________

We will be happy to advise you on multibody simulations and assist you in developing, optimizing, and automating your processes.

Dr.-Ing. Manuel Eckstein
Head of Simulation + Predictive Maintenance

Study

Mechanical Engineering, TU Darmstadt

Acadamic Degree

Dr.-Ing.

Working at Wölfel

Mastering the variety of technical challenges together with our customers and with the Wölfel team through innovative solutions.

M. Sc. Bernhard Huber
AI-Specialist

+49 931 49708-295
huber@woelfel.de
Contact form

Study

Nanostructure Technology (today's name: Quantum Engineering) at University of Würzburg

Acadamic Degree

M.Sc.

Committee Activity

Competence Network AI in SMEs "AI-HUB Northern Bavaria"

Professional Motto

Real innovation requires not only knowledge, experience and creativity, but also a strong team and communication.

Working at Wölfel

Because Wölfel is active across industries in the areas of expertise of vibrations, structural dynamics and acoustics, new challenges, customer requirements and knowledge transfers are constantly arising. This always opens up new use cases for the application of smart data-driven algorithms for us and our customers.

Study

Mechanical Engineering, TU Darmstadt

Acadamic Degree

Dr.-Ing.

Working at Wölfel

Mastering the variety of technical challenges together with our customers and with the Wölfel team through innovative solutions.

Study

Nanostructure Technology (today's name: Quantum Engineering) at University of Würzburg

Acadamic Degree

M.Sc.

Committee Activity

Competence Network AI in SMEs "AI-HUB Northern Bavaria"

Professional Motto

Real innovation requires not only knowledge, experience and creativity, but also a strong team and communication.

Working at Wölfel

Because Wölfel is active across industries in the areas of expertise of vibrations, structural dynamics and acoustics, new challenges, customer requirements and knowledge transfers are constantly arising. This always opens up new use cases for the application of smart data-driven algorithms for us and our customers.