Data Driven Approaches for Industrial Systems Optimization and Process Efficiency Improvement
DOI:
https://doi.org/10.71086/IAJIR/V13I2/IAJIR1327Keywords:
Data-Driven Optimization, Industrial Systems, Process Efficiency, Machine Learning, Predictive Maintenance, Industry 4.0, Smart Manufacturing.Abstract
In highly competitive manufacturing industries, intelligent optimization techniques to improve operational efficiency, reduce production costs, and enhance system reliability are urgently needed. Large-scale industrial data, real-time monitoring, and unpredictable process variations are difficult for conventional optimization techniques to handle efficiently. This research proposes a data-driven methodology for industrial systems optimization and process efficiency improvement, leveraging predictive and analytical techniques. By combining industrial sensors, statistical data, machine-learning-based predictive models, and process optimization algorithms, it is possible to evaluate and monitor industrial processes. Data pre-processing, anomaly detection, predictive maintenance, and efficiency-based optimization models are incorporated to identify inefficient processes and improve overall productivity effectively. Using the proposed methods, the experimental analysis showed that machine downtime was reduced by up to 28.4%, production efficiency increased by up to 21.7%, and operational energy consumption decreased by up to 16.3% compared to the conventional industrial management strategy. The predictive maintenance models achieve an operational prediction accuracy of 93.5%, thereby significantly enhancing system reliability and avoiding unexpected equipment failures. Also, according to statistical analysis, the reduction in process variability and improvement in resource utilization efficiency were up to 19.8% and 24.1%, respectively, after implementing the proposed methods. This study demonstrates that a data-driven optimization approach is a promising and effective way to manage industrial processes by enabling real-time decision-making, prediction, and adaptation, which supports, to some extent, initiatives in sustainable manufacturing and Industry 4.0. The proposed model provides an Engineering and Applied Sciences contribution by delivering a scalable and efficient solution to improve industrial productivity, operational stability, and long-term efficiency.


