<span>This book introduces the Learning-Augmented Network Optimization (LANO) paradigm, which interconnects network optimization with the emerging AI theory and algorithms and has been receiving a growing attention in network research. The authors present the topic based on a general stochastic netw
Network Connectivity: Concepts, Computation, and Optimization (Synthesis Lectures on Learning, Networks, and Algorithms)
โ Scribed by Chen, Hanghang Tong
- Publisher
- Morgan & Claypool
- Year
- 2022
- Tongue
- English
- Leaves
- 165
- Series
- Synthesis Lectures on Learning, Networks, and Algorithms
- Category
- Library
No coin nor oath required. For personal study only.
โฆ Synopsis
<p><b>Networks naturally appear in many high-impact domains, ranging from social network analysis to disease dissemination studies to infrastructure system design.</b> Within network studies, network connectivity plays an important role in a myriad of applications. The diversity of application areas has spurred numerous connectivity measures, each designed for some specific tasks. Depending on the complexity of connectivity measures, the computational cost of calculating the connectivity score can vary significantly. Moreover, the complexity of the connectivity would predominantly affect the hardness of connectivity optimization, which is a fundamental problem for network connectivity studies.</p><p>This book presents a thorough study in network connectivity, including its concepts, computation, and optimization. Specifically, a unified connectivity measure model will be introduced to unveil the commonality among existing connectivity measures. For the connectivity computation aspect, the authors introduce the connectivity tracking problems and present several effective connectivity inference frameworks under different network settings. Taking the connectivity optimization perspective, the book analyzes the problem theoretically and introduces an approximation framework to effectively optimize the network connectivity.Lastly, the book discusses the new research frontiers and directions to explore for network connectivity studies.</p><p>This book is an accessible introduction to the study of connectivity in complex networks. It is essential reading for advanced undergraduates, Ph.D. students, as well as researchers and practitioners who are interested in graph mining, data mining, and machine learning.</p>
โฆ Table of Contents
Acknowledgments
Introduction
Background
Motivations
Research Tasks Overview
Organization
Connectivity Measure Concepts
Single-Layered Network Measures
Multi-Layered Network Measures
Connectivity Inference Computation
Eigen-Functions Tracking in Dynamic Networks
Problem Definition
Proposed Algorithms
Experimental Evaluation
Cross-Layer Dependency Inference
Problem Definition
Proposed Algorithms for Code
Proposed Algorithm for Code-ZERO
Experimental Evaluation
Incremental One-Class Collaborative Filtering
Problem Definition
Proposed Algorithm
Experimental Evaluations
Network Connectivity Optimization
SubLine Connectivity Optimization
Problem Definition
Fundamental Limits
Proposed Algorithm
Experimental Evaluation
Connectivity Optimization in Multi-Layered Networks
Problem Definition
Theoretical Analysis
Proposed Algorithm
Experimental Evaluation
Conclusion and Future Work
Conclusion
Future Research Directions
Complex Multi-Layered Network Connectivity
Dynamic Network Inference
Connectivity Optimization and Adversarial Attack
Connectivity on High-Order Dependency Networks
Bibliography
Authors' Biographies
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