Aug 2026· Sustainable Development· Vol 1, pp. 53· 0 citations· 15 references
TL;DR
This review condenses the operational bottlenecks, enabling algorithms, and deployment architecture of AI-enabled pipeline networks, and identifies five development directions: deeper integration with digital twins, edge computing and the Internet of Things; systematic industry foundation models; low-carbon optimization; greater value from governed and securely shared data; and coordinated talent and innovation ecosystems.
Abstract
Oil and gas pipeline operators must simultaneously improve efficiency, strengthen safety, and reduce emissions. Artificial intelligence offers a practical route from fragmented monitoring toward coordinated, closed-loop control. This review condenses the operational bottlenecks, enabling algorithms, and deployment architecture of AI-enabled pipeline networks. It organizes intelligent control around four functions—perception, prediction and warning, decision optimization, and automated control—and maps multi-source data to suitable algorithms and cloud-edge execution. Priority applications include leak detection, robotic inspection, integrity assessment, demand forecasting, pressure and throughput optimization, compressor coordination, transient protection, and intelligent safety management of storage facilities. Five development directions are identified: deeper integration with digital twins, edge computing and the Internet of Things; systematic industry foundation models; low-carbon optimization; greater value from governed and securely shared data; and coordinated talent and innovation ecosystems. The central implementation principle is progressive autonomy: validated AI recommendations should first augment dispatchers, then move toward constrained closed-loop control as data quality, interpretability, cybersecurity, and fail-safe mechanisms mature.
Driven by global carbon neutrality targets, coal-fired power generation is undergoing substantial operational changes. Modern boilers must operate more flexibly while maintaining low emissions and reliable performance. This transition has increased the need for intelligent monitoring, operator-supervised optimization,...
Rui Luo, Jun-Bo Yu, Na Li et al.· Applied Sciences· 0 citations
Special emphasis is placed on the concept of explainable AI, human in the loop decision making, risk based asset prioritization and ongoing model validation as ways to provide public accountability and reliability in critical infrastructure sectors.
Marjan Sultana Nuha· Journal of Artificial Intell...· 0 citations
This paper compares equipment-specific sensing and failure signatures with the shared data, governance, and decision layers necessary for facility-wide automation and proposes a closed-loop architecture and maturity roadmap linking sensing, validation, diagnosis, decision, action, and learning.
M. A. T. Veleri· Global academic journal of e...· 0 citations
It is concluded that autonomous UAV operations necessitate a fundamental shift toward Trustworthy and Explainable AI (XAI), coupled with high-fidelity digital twin validation, to guarantee system stability in safety-critical domains.
Kai-Yi Chen· Applied and Computational En...· 0 citations
A conceptual framework is proposed linking sensing, AI-based prediction, decision support, autonomous control, and continuous feedback, providing a pathway toward resilient, intelligent, and sustainable water management systems.
K. Pragadeeshwaran· International Journal Of Rec...· 0 citations
: Affected by global extreme climates, ice-covering disasters occur frequently, posing a significant threat to the safe and stable operation of power transmission lines, wind turbine generators, high-speed railway contact nets, and airport infrastructure. The traditional ice removal methods generally have problems such...