Network-Constrained Data-Driven Control of High-Speed Railway Systems: Adaptive and Learning-Based Approaches
Autor Deqing Huang, Wei Yuen Limba Engleză Paperback – 13 ian 2026
This resource is helpful for researchers, engineers, and graduate students in high speed railway control systems, offering innovative strategies to advance autonomous operations and meet the demands of high-density, high-speed rail networks
- Presents a data-driven adaptive and learning control framework for high-speed trains under network constraints
- Discusses the theory and method of multi-train cooperative control in detail: particularly, how to realize real-time information interaction and dynamic adjustment between trains with the support of train-to-train communication
- Discusses the influence of network constraints (such as fading measurement, malicious attacks, etc.) on train cooperative control, and proposes a series of compensation strategies
- Focuses on current, high-speed rail control technology, but also contains a forward-looking discussion of future high-speed rail communication and control technology, such as the application of 5G-R communication system and autonomous driving technology
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Specificații
ISBN-13: 9780443489945
ISBN-10: 0443489947
Pagini: 250
Dimensiuni: 152 x 229 mm
Greutate: 0.45 kg
Editura: ELSEVIER SCIENCE
ISBN-10: 0443489947
Pagini: 250
Dimensiuni: 152 x 229 mm
Greutate: 0.45 kg
Editura: ELSEVIER SCIENCE
Cuprins
1. Introduction
2. Preliminaries
3. Coordinated MFAC of MHSTs Under Faded Channels and DoS Attacks
4. DD Consensus of MHSTs Via Random Topologies with Recovery Mechanism
5. Weighted T2T Communication-Based DD Consensus of MHSTs Under DA
6. Active Quantizer-Based DMFAC for MHSTs Against Sensor Bias
7. HOIM Based Data-Driven ILC of HSTs Subject to Faded Channels
8. Fading-Based Coordinated MFAILC of MHSTs Against DoS Attacks
9. Attack Recovery-Based DMFAILC for MHSTs with Fading Compensation
10. Event-Triggered DMFAILC for MHSTs with Switching Topologies
11. DMFAILC for MHSTs under Weighted Communication and Saturations
12. DMFAILC for MHSTs Considering Quantizations and Measurement Bias
2. Preliminaries
3. Coordinated MFAC of MHSTs Under Faded Channels and DoS Attacks
4. DD Consensus of MHSTs Via Random Topologies with Recovery Mechanism
5. Weighted T2T Communication-Based DD Consensus of MHSTs Under DA
6. Active Quantizer-Based DMFAC for MHSTs Against Sensor Bias
7. HOIM Based Data-Driven ILC of HSTs Subject to Faded Channels
8. Fading-Based Coordinated MFAILC of MHSTs Against DoS Attacks
9. Attack Recovery-Based DMFAILC for MHSTs with Fading Compensation
10. Event-Triggered DMFAILC for MHSTs with Switching Topologies
11. DMFAILC for MHSTs under Weighted Communication and Saturations
12. DMFAILC for MHSTs Considering Quantizations and Measurement Bias