Improve safety and cut costs by validating fatigue life, crashworthiness, and infrastructure integrity before physical testing on rolling stock and track-side structures.
Talk to a railway simulation engineer arrow_forwardThe railway industry faces growing challenges including aging infrastructure, increasing capacity demands, asset fatigue, safety requirements, sustainability targets, climate resilience, and digital transformation. Operators must maintain reliable and cost-effective services while reducing emissions and improving passenger comfort.
Advanced engineering tools such as Finite Element Analysis (FEA) help address these challenges by predicting structural behavior, optimizing designs, extending asset life, enhancing safety, and reducing development and maintenance costs across railway vehicles and infrastructure.
Many railway networks rely on decades-old tracks, bridges, tunnels, and signaling systems that are reaching the end of their design life. Deterioration increases maintenance requirements, service disruptions, and safety risks. FEA helps assess structural integrity and prioritize repair or replacement activities.
Railway components are subjected to millions of repeated loading cycles from train operations. Over time, this can cause crack initiation and propagation in rails, axles, bogies, and welded joints. FEA predicts fatigue hotspots and remaining life, enabling proactive maintenance.
Ensuring high safety standards requires identifying potential structural weaknesses before failures occur. Excessive stresses, deformations, or unfavorable load paths can compromise asset reliability. FEA simulates real operating conditions to reveal critical areas and support safer engineering designs.
Train-induced vibrations and noise directly affect passenger experience, especially in high-speed and urban rail systems. Poor vibration performance can lead to discomfort and increased wear of components. FEA helps analyze dynamic behavior and optimize designs for smoother operation.
Railway infrastructure must withstand temperature variations, flooding, strong winds, and other extreme weather events. These environmental factors can cause material degradation and structural damage. FEA evaluates thermal and environmental load effects to improve infrastructure resilience and reliability.
Developing and validating railway components through physical testing alone is expensive and time-consuming. Multiple prototypes often increase project costs and schedules. FEA enables virtual testing and design optimization, reducing development expenses while improving overall engineering efficiency.
Tracks, bridges, tunnels, and supporting structures must consistently perform under heavy operational loads. Unexpected failures can cause delays, disruptions, and costly repairs. FEA provides detailed insight into load distribution and structural performance, supporting reliable and long-lasting infrastructure management.
MÁV's 53-tonne welded steel car body needed full static and crash clearance across 18 EN 12663 static cases and 3 EN 15227 crash scenarios. eCon built the full FE model, ran the tensile characterisation in-house, and developed the front-frame reinforcement together with the design team until every criterion was cleared.
Full case study arrow_forward"Both EN 12663 and EN 15227 verifications passed. In the crash scenario where the first design didn't hold, simulation experts from eCon worked together with our design team on the reinforcements that made it pass the crash requirements."
Facing a type-approval deadline on a welded rail structure, and running out of prototype budget to get there?
Talk to a railway simulation engineer arrow_forwardDrop your project specs below. We'll analyze your requirements and get in touch within 2 business days to discuss the technical approach.
