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INTEGRATING NDE | INSTRUMENTATION & CONTROL


The integration of advanced NDE into maintenance strategies is a practical necessity for sustaining long- term safety and reliability. Source: EPRI


degradation behaviour, a premise that is increasingly failing in ageing systems, where multiple degradation mechanisms interact and incubation periods can be long. Advanced non- destructive evaluation enables early detection of damage long before it manifests as a functional or safety concern, shifting maintenance from confirmation to prediction. Modern non-destructive evaluation techniques provide


insight far beyond surface inspection. Phased array ultrasonic testing enables detailed imaging of welds and heat affected zones, supporting early detection of stress corrosion cracking. Time-of-flight diffraction improves crack sizing accuracy, which is essential for fitness-for-service evaluations. Eddy current array and magnetic flux leakage techniques


are widely used for rapid inspection of tubing and piping systems, particularly in steam generators and heat exchangers. X-ray computed tomography allows three- dimensional visualisation of internal features such as porosity and cracking without disassembly. Acoustic emission monitoring detects active damage by capturing stress induced signals during operation, offering real time insight into degradation progression. These tools generate high quality condition data that


reveal damage at an early stage. However, their true value emerges only when this information is integrated into predictive maintenance frameworks. Predictive maintenance relies on continuous condition


monitoring and degradation forecasting rather than periodic inspection alone. Integrating NDE data into predictive systems requires a structured approach that emphasises data quality, baseline establishment, and trend analysis. Initial baseline scans provide a reference against which


future inspections are compared, enabling high-sensitivity detection of incremental changes. Physics-based degradation models incorporate known material behaviour, such as corrosion kinetics or irradiation effects, to forecast future condition states. Advanced analytics can identify subtle trends and anomalies across large datasets, supporting earlier intervention decisions. Risk based prioritisation ensures that maintenance actions are aligned with safety significance and operational impact. Not all degradation requires immediate action, but all degradation must be understood in context. Predictive maintenance frameworks convert inspection data into actionable intelligence.


Reducing unplanned outages Unplanned outages are among the most significant cost drivers in nuclear operations. Even short disruptions can result in substantial revenue loss and regulatory scrutiny. Predictive maintenance, supported by advanced NDE, enables targeted interventions that reduce both the frequency and duration of maintenance outages. Early detection of degradation extends component life,


reduces unnecessary replacement, and optimises spare part inventory. Maintenance resources are allocated more efficiently, with a focus on components with the highest risk profiles. By preventing cascading failures, predictive strategies protect both plant availability and safety margins. These economic benefits are reinforced by improved


regulatory confidence. Data driven maintenance programmes demonstrate proactive asset stewardship and support transparent engagement with oversight bodies. Successful integration of advanced NDE with predictive


maintenance requires collaboration among plant operators, regulators, and technology providers. Operators contribute operational context and asset history. Regulators adapt acceptance frameworks to incorporate predictive insights. Technology providers ensure tools are robust, reliable, and compatible with nuclear operating environments. Standardising NDE practices, data formats, and


predictive modelling approaches will further drive adoption. Shared learning across plant fleets enables best practices to propagate more rapidly, strengthening industry wide reliability.


Advancing maintenance through data driven insight As nuclear plants operate for longer, the need for intelligent maintenance strategies increases. Advanced non-destructive evaluation integrated with predictive maintenance offers a path to improved safety, reduced costs, and enhanced operational confidence. By transforming inspection data into predictive insights, plant operators can anticipate degradation rather than react to failure. In an industry where reliability is paramount and margins for error are narrow, predictive maintenance enabled by advanced testing represents the future of nuclear plant asset management. ■


www.neimagazine.com | March 2026 | 21


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