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AI-Driven Predictive Maintenance for Industrial Robotics Using IoT Sensor Fusion

Kapil RajputGraphic Era Hill University,Department of Computer Science & Engineering,Dehradun,IndiaAnvar AbsamatovTermez University of Economics and Service,Department of Economics,Termez,UzbekistanShakir YusupovMamun University,Department of History,Khiva,UzbekistanOdilbek MatsapayevUrgench State Pedagogical Institute,Department of Digital Technology,Urgench,UzbekistanEtibor SariyevaEducation Methodology Urgench Innovation University,Department of Pedagogy and Primary,Urgench,UzbekistanMukhammad KhabibullaevUrgench State University,Department of Computer Science,Urgench,Uzbekistan
2025
ABI

Аннотация

Further predictive maintenance of industrial robotics based on advanced AI with sensor data fusion with IoT is a mere game changer towards reducing downtimes and enhancing efficiency in smart factories to produce goods. After analyzing data about various sensors, vibration, temperature and current sensors, as well as with the help of machine learning algorithms, such as deep neural net and random forests, the framework deduces liabilities and equipment degradations prior to failure occurrences. Edge or cloud computing will manage the real-time data stream of IoT-based robots and be used to monitor them and make decisions. Some of the techniques that enhance predictive models include time-series analysis, anomaly detection, and RUL estimation. The analysis of historical data is a necessity. Create digital twins, which can be considered as a reflection of a connected system, in which it is possible to contemplate and experiment with the scenario to validate it. Handling high-dimensional, noisy sensor data, low latency inference and being able to generalize across a diverse array of robotic systems are major challenges. More recent advances are federated learning to support privacy-aware collaboration between factories, and explainable AI (XAI) to support interpretable fault diagnostics. The addition of 5G and edge AI will also make the real-time feedback faster. This kind of paradigm is a major reduction in the cost of maintenance and extends the life of robotic assets, as a part of the Industry 4.0 objectives. The future research directions include the development of hybrid physics-informed AI models, label-efficient training, and scalable deployment schemes. Lastly, AI predictive maintenance with IoT support will revolutionize the world of industrial robots with predictive and data-driven reliability management.

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