
Online Social Networks: Perspectives, Applications and Developments
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Content
- Intro
- ONLINE SOCIAL NETWORKSPERSPECTIVES, APPLICATIONSAND DEVELOPMENTS
- ONLINE SOCIAL NETWORKSPERSPECTIVES, APPLICATIONSAND DEVELOPMENTS
- CONTENTS
- PREFACE
- Chapter 1GENERALIZED MODULARITY EMBEDDING:A GENERAL FRAMEWORKFOR NETWORK EMBEDDING
- Abstract
- 1. INTRODUCTION
- 2. THE PROBABILISTIC FRAMEWORK FORGENERALIZED MODULARITY EMBEDDING
- 2.1. The Generalized ModularityMatrix of a Sampled Graph
- 2.2. Community Detection
- 2.3. Modularity Embedding
- 3. EXTENSIONS AND APPLICATIONS OFGENERALIZED MODULARITY EMBEDDING
- 3.1. Modularity Embedding for Data Points in a Semi-MetricSpace
- 3.2. The Laplacian Eigenmaps as a Special Case of GeneralizedModularity Embedding
- 3.3. Dimensionality Reduction and Connections to PCA
- 4. NONNEGATIVE EMBEDDING AND CLUSTERING
- 5. EXPERIMENTS
- 5.1. Performance on the Six Clusters Dataset
- 5.2. Performance on the Amazon Dataset
- 5.3. Performance on the Flickr Dataset
- CONCLUSION AND FUTURE WORK
- APPENDIX A. PROOF OF THEOREM 3
- APPENDIX B. PROOF OF THEOREM 5
- REFERENCES
- Chapter 2EPIDEMIC SOURCE DETECTIONIN COMPLEX NETWORKS
- Abstract
- 1. INTRODUCTION
- 2. PROBLEM SETTING
- 2.1. NetworkModel
- 2.2. Epidemic Model
- 2.3. Epidemic Source Localization
- 3. MATHEMATICAL MODELS OF DIFFUSION
- 3.1. Exact and Approximate Infection Likelihoods
- 3.2. Distance-Dependent Infection Likelihood
- 4. RUMOUR SOURCE DETECTION,WITH KNOWNACTIVATION TIME
- 4.1. Estimation of Monitor Location
- 4.1.1. Estimation of Monitor Location with Artificial Rumour Spreading
- 4.1.2. Estimation of Monitor Location with a K-Medoids Approach
- 4.2. Estimation of a Set of Candidate Sources
- 4.3. Single Source Estimation
- 4.4. Source Detection Algorithm
- 4.5. Experimental Results
- 5. RUMOUR SOURCE DETECTION, WITH UNKNOWNACTIVATION TIME
- 5.1. Estimation of Monitor Locations
- 5.1.1. Estimation of Monitor Locations using a Fixed Rumour Start Time
- 5.1.2. Simultaneous Estimation of Monitor Location and RumourStart Time
- 5.2. Estimation of a Set of Potential Sources
- 5.3. Experimental Results
- CONCLUSION
- REFERENCES
- Chapter 3SUBGRAPH NETWORK FOR EXPANDINGSTRUCTURAL FEATURE SPACEWITH APPLICATION TO GRAPH DATAMINING
- Abstract
- 1. SUBGRAPH NETWORKS
- 1.1. Different-Order SGNs
- 1.2. First-Order SGN
- 1.3. Second-Order SGN
- 2. APPLICATIONS OF SGNS
- 2.1. LinkWeight Prediction
- 2.1.1. Feature Indices
- 2.1.2. Experimental Results
- 2.2. Node Classification
- 2.2.1. Method
- 2.2.2. Experimental Results
- 2.3. Graph Classification
- 2.3.1. Graph Representation
- 2.3.2. Experiments
- 3. APPENDIX
- 3.1. SGN(0) Indices
- 3.2. SGN(1) Indices
- CONCLUSION
- REFERENCES
- Chapter 4ONLINE INFORMATION SPREADINGAND SOURCE IDENTIFICATION
- Abstract
- 1. INTRODUCTION
- 1.1. Information Spreading Models
- 1.2. Information Source Identification
- 2. CENTRALITY METHODS
- 2.1. Single Source
- 2.2. Multiple Sources
- 2.3. Different Infection Start Times
- 3. BAYESIAN INFERENCE
- 3.1. MLE
- 3.2. Sequential Source Estimation
- 4. THE GROMOV METHOD
- 5. MACHINE LEARNING USING GRAPH FLOWCONVOLUTIONAL NETWORK
- CONCLUSION
- REFERENCES
- Chapter 5THE PAGERANK BIPARTITE GRAPHRANKING: ONLINE CHAT GROUPRECOMMENDATION
- Abstract
- 1. INTRODUCTION
- 2. PROBLEM FORMULATION
- 3. PRELIMINARY CONCEPTS
- 3.1. Graph Ranking
- 3.1.1. PageRank
- 3.1.2. Hypertext Induced Topic Selection
- 3.2. Ranking on Bipartite Graph
- 4. WEIGHTED PAGERANK ALGORITHM
- 5. EXPERIMENT
- 5.1. Experiment Setup
- 5.2. Experiment Result
- CONCLUSION
- REFERENCES
- Chapter 6PARALLEL COUNTING OF SUBGRAPHS INLARGE GRAPHS: PRUNING ANDHIERARCHICAL CLUSTERING ALGORITHMS
- Abstract
- 1. INTRODUCTION
- 2. ALGORITHMS AND ANALYSIS
- 2.1. Pruning Step
- 2.2. Hierarchical Clustering Step
- 2.3. Counting Step
- 2.3.1. Inter-Cluster Triangles with One Vertex as the Root
- 2.3.2. Non-Root Inter-Cluster Triangles
- 2.3.3. Intra-Cluster Triangles
- 2.4. Algorithm Implementation
- 2.5. Time Complexity
- 3. PERFORMANCE EVALUATION
- 3.1. Experimental Setup
- 3.2. Comparison between Different Algorithms
- 3.3. Algorithm on Large Graphs in Public Domain
- 3.4. Trade-Off between Pruning and Hierarchical Clustering
- 3.5. MapReduce Software Implementation
- 4. EVALUATION USING LARGE RANDOM GRAPHS
- CONCLUSION AND FUTURE WORK
- REFERENCES
- Chapter 7SOCIAL LEARNING NETWORKAND ITS APPLICATIONS IN LARGE SCALEONLINE EDUCATION THROUGH CHATBOT
- 1. INTRODUCTION
- 2. LEARNING TASK SCHEDULING PROBLEM
- 3. OPTIMAL TASK SCHEDULING FRAMEWORK
- 3.1. Optimization Problem Formulation
- 3.2. Optimality Characterization
- 4. HUMAN-ASSISTED COMPUTATION FORAUTO-GRADING
- 5. AUTO-GRADING FRAMEWORK FOR MCQS
- 6. EXTENSION TO IMAGE ANNOTATIONASSESSMENT
- 7. APPLICATION IN MESSENGER CHATBOT
- 7.1. Optimal Learning Task Scheduling Frame
- 7.2. Automated Grading Framework
- 8. FUTURE WORK
- CONCLUSION
- REFERENCES
- Chapter 8RUMOR SOURCE DETECTIONIN FINITE GRAPHS WITH BOUNDARYEFFECTS BY MESSAGE-PASSINGALGORITHMS
- Abstract
- 1. INTRODUCTION
- 1.1. Our Contributions
- 2. PRELIMINARIES OF RUMOR CENTRALITY
- 3. TREES WITH A SINGLE END VERTEX
- 3.1. Impact of Boundary Effects on P(Gn|v)
- 3.2. Analytical Characterization of Likelihood Function
- 3.3. Optimality Characterization of Likelihood Estimate
- 3.4. Likelihood Ratio Between Centroid and End Vertexon Different Network Topology
- 4. TREES WITH MULTIPLE END VERTICES
- 4.1. Degree-Regular Tree (d 3) Special Case:Gn Is Broom-Shaped
- 4.2. Message-Passing Algorithm
- 4.3. Simulation Results for Finite d-Regular Tree Networks
- 4.4. Simulation Results for Finite General Tree Networks
- CONCLUSION
- REFERENCES
- ABOUT THE EDITOR
- INDEX
- Blank Page
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