Special Issues
Table of Content

Intelligent Scheduling and Optimization in Engineering and Management

Submission Deadline: 31 December 2026 View: 946 Submit to Special Issue

Guest Editor(s)

Prof. Dr. Chia-Nan Wang

Email: cn.wang@nkust.edu.tw

Affiliation: Department of Industrial Engineering and Management, National Kaohsiung University of Science and Technology, Kaohsiung, Taiwan

Homepage:

Research Interests: operations management, decision-making, management of technology, electronic commerce, systematic innovation

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Dr. Phan Van-Thanh

Email: pvthanh.tg@vku.udn.vn

Affiliation: Vietnam-Korea University of Information and Communication Technology, Danang, Vietnam

Homepage:

Research Interests: grey system theory, time series forecasting, decision making, data envelopment analysis, measurement, operations management

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Summary

The rapid transition toward Industry 4.0, interconnected global supply chains, and complex cyber-physical systems has introduced unprecedented challenges into engineering and management operations. Today's decision-makers are increasingly confronted with large-scale, highly dynamic, and non-linear optimization problems under real-world uncertainties. Traditional exact mathematical methods and conventional scheduling algorithms often struggle to meet the real-time and high-dimensional demands of these modern systems. Consequently, the integration of advanced computer modeling, artificial intelligence, and operations research has emerged as a critical research frontier. This Special Issue aims to explore the convergence of novel algorithmic innovations with practical smart system architectures. We invite original research and comprehensive review articles that propose data-driven models, deep reinforcement learning frameworks, hybrid metaheuristics, and digital twin-driven simulations tailored for complex scheduling tasks. By bridging theoretical computational sciences with real-world applications—such as smart manufacturing, logistics, and energy management—this Special Issue seeks to provide robust, intelligent, and sustainable solutions to the most challenging optimization bottlenecks across diverse industrial sectors.


Topics
• Algorithmic Innovation & AI
• Smart Manufacturing & Industry 4.0/5.0
• Uncertainty & Resilience
• Hybrid Approaches
• Logistics & Transportation
• Sustainability & Energy
• Distributed Computing
• Advanced Operations Research
• Intelligent scheduling and optimization
• Robust, stochastic, and decision-making optimization
• Intelligent management and optimization
• Energy-efficient, green, and sustainable scheduling
• Resource-constrained project scheduling and optimization
• Human-robot collaborative scheduling and optimization


Keywords

intelligent scheduling, metaheuristic algorithms, deep reinforcement learning, digital twins, industry 4.0/5.0, combinatorial optimization, robust optimization, cyber-physical systems, smart manufacturing, supply chain optimization, simulation-based scheduling

Published Papers


  • Open Access

    ARTICLE

    A New Hybrid Framework Based on Grey and Neuro-Fuzzy Inference System for Energy Demand Forecasting in Vietnam

    Xuan Kien Pham, Van Dat Nguyen, Van Thanh Phan, Duc Trien Nguyen
    CMES-Computer Modeling in Engineering & Sciences, DOI:10.32604/cmes.2026.086196
    (This article belongs to the Special Issue: Intelligent Scheduling and Optimization in Engineering and Management)
    Abstract Accurate energy consumption forecasting faces two major challenges: limited historical data and complex consumption patterns. To address these challenges, this study proposes a new hybrid framework named the Decomposition-based Grey-Neuro-Fuzzy Architecture (DeGNA). The model first uses the Denton method to convert limited annual records into high-frequency monthly data. Next, it applies STL decomposition to separate the data into trend, seasonal and residuals components. A rolling-window GM(1,1) model is then used to predict the main growth trend, while a GWO-optimized ANFIS model uses economic indicators (IIP and FDI) to forecast complex seasonal changes. This study evaluates… More >

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