Cover image for Data Mining In Time Series Databases.
Data Mining In Time Series Databases.
Title:
Data Mining In Time Series Databases.
Author:
Last, Mark.
ISBN:
9789812565402
Personal Author:
Edition:
57th ed.
Physical Description:
1 online resource (205 pages)
Contents:
Contents -- Preface -- Chapter 1 Segmenting Time Series: A Survey and Novel Approach E. Keogh, S. Chu, D. Hart and M. Pazzani -- 1. Introduction -- 2. Background and Related Work -- 2.1. The Sliding Window Algorithm -- 2.2. The Top-Down Algorithm -- 2.3. The Bottom-Up Algorithm -- 2.4. Feature Comparison of the Major Algorithms -- 3. Empirical Comparison of the Major Segmentation Algorithms -- 3.1. Experimental Methodology -- 3.2. Experimental Results -- 4. A New Approach -- 4.1. The SWAB Segmentation Algorithm -- 4.2. Experimental Validation -- 5. Conclusions and Future Directions -- References -- Chapter 2 A Survey of Recent Methods for Efficient Retrieval of Similar Time Sequences M. L. Hetland -- 1. Introduction -- 1.1. Terminology and Notation -- 2. The Problem -- 2.1. Robust Distance Measures -- 2.2. Good Indexing Methods -- 2.3. Spatial Indices and the Dimensionality Curse -- 3. Signature Based Similarity Search -- 3.1. A Simple Example -- 3.2. Spectral Signatures -- 3.3. Piecewise Constant Approximation -- 3.4. Landmark Methods -- 4. Other Approaches -- 4.1. Using Suffix Trees to Avoid Redundant Computation -- 4.2. Data Reduction through Piecewise Linear Approximation -- 4.3. Search Space Pruning through Subsequence Hashing -- 5. Conclusion -- Appendix Distance Measures -- References -- Chapter 3 Indexing of Compressed Time Series E. Fink and K. B. Pratt -- 1. Introduction -- 2. Previous Work -- 3. Important Points -- 4. Similarity Measures -- 5. Pattern Retrieval -- 6. Concluding Remarks -- Acknowledgements -- References -- Chapter 4 Indexing Time-Series under Conditions of Noise M. Vlachos, D. Gunopulos and G. Das -- 1. Introduction -- 2. Background -- 2.1. Time Series Similarity Measures -- 2.2. Indexing Time Series -- 2.3. Motivation for Non-Metric Distance Functions -- 3. Similarity Measures Based on LCSS.

3.1. Original Notion of LCSS -- Dynamic Programming Solution [11,42] -- 3.2. Extending the LCSS Model -- 3.3. Differences between DTW and LCSS -- 4. Efficient Algorithms to Compute the Similarity -- 4.1. Computing the Similarity Function S1 -- 4.2. Computing the Similarity Function S2 -- 4.3. An Efficient Approximate Algorithm -- 5. Indexing Trajectories for Similarity Retrieval -- 5.1. Indexing Structure -- 5.2. Searching the Index Tree for Nearest Trajectories -- 6. Experimental Evaluation -- 6.1. Time and Accuracy Experiments -- 6.2. Clustering using the Approximation Algorithm -- 6.2.1. Determining the Values for δ and ε -- 6.2.2. Experiment 1 - Video Tracking Data -- 6.2.3. Experiment 2 - Australian Sign Language Dataset (ASL)3 -- 6.2.4. Experiment 3 - ASL with Added Noise -- 6.3. Evaluating the Quality and Efficiency of the Indexing Technique -- 7. Conclusions -- References -- Chapter 5 Change Detection in Classification Models Induced from Time Series Data G. Zeira, O. Maimon, M. Last and L. Rokach -- 1. Introduction -- 2. Change Detection in Classification Models of Data Mining -- 2.1. Classification Model Characteristics -- 2.2. Variety of Changes -- 2.3. Statistical Hypothesis Testing -- 2.4. Methodology -- 2.5. Change Detection Procedure -- 3. Experimental Evaluation -- 3.1. Design of Experiments -- 3.2. Results - Part 1 (Hit Rate and False Alarm Rate) -- 3.3. Results - Part 2 (Time Series Data) -- 4. A Real-World Case Study -- 4.1. Dataset Description -- 5. Conclusions and Future Work -- References -- Chapter 6 Classification and Detection of Abnormal Events in Time Series of Graphs H. Bunke and M. Kraetzl -- 1. Introduction -- 2. Preliminaries -- 3. Analysis of Graph Spectra -- 4. Graph Edit Distance -- 5. Median Graphs -- 6. Median Graphs and Abnormal Change Detection in Sequences of Graphs.

6.1. Median vs. Single Graph, Adjacent in Time (msa) -- 6.2. Median vs. Median Graph, Adjacent in Time (mma) -- 6.3. Median vs. Single Graph, Distant in Time (msd) -- 6.4. Median vs. Median Graph, Distant in Time (mmd) -- 7. Application to Computer Network Monitoring -- 7.1. Problem Description -- 7.2. Experimental Results -- 8. Conclusion -- References -- Chapter 7 Boosting Interval-Based Literals: Variable Length and Early Classification C. J. Alonso Gonzalez and J. J. Rodriguez Diez -- 1. Introduction -- 2. Boosting -- 3. Interval Based Literals -- 3.1. Relative Predicates -- 3.2. Region Based Predicates -- 3.3. Classifier Example -- 4. Variable Length Series -- 5. Early Classification -- 6. Experimental Validation -- 6.1. CBF (Cylinder, Bell and Funnel) -- 6.2. Control Charts -- 6.3. Trace -- 6.4. Auslan -- 7. Conclusions -- References -- Chapter 8 Median Strings: A Review X. Jiang, H. Bunke and J. Csirik -- 1. Introduction -- 2. Median String Problem -- 3. Theoretical Results -- 4. Fast Computation of Set Median Strings -- 4.1. Exact Set Median Search in Metric Spaces -- 4.2. Approximate Set Median Search in Arbitrary Spaces -- 5. Computation of Generalized Median Strings -- 5.1. An Exact Algorithm and Its Variants -- 5.2. Approximate Algorithms -- 5.2.1. Greedy Algorithms -- 5.2.2. Genetic Search -- 5.2.3. Perturbation-Based Iterative Refinement -- 5.3. Dynamic Computation of Generalized Median Strings -- 6. Experimental Evaluation -- 7. Discussions and Conclusion -- Acknowledgments -- References.
Abstract:
Adding the time dimension to real-world databases produces Time SeriesDatabases (TSDB) and introduces new aspects and difficulties to datamining and knowledge discovery. This book covers the state-of-the-artmethodology for mining time series databases. The novel data miningmethods presented in the book include techniques for efficientsegmentation, indexing, and classification of noisy and dynamic timeseries. A graph-based method for anomaly detection in time series isdescribed and the book also studies the implications of a novel andpotentially useful representation of time series as strings. Theproblem of detecting changes in data mining models that are inducedfrom temporal databases is additionally discussed.
Local Note:
Electronic reproduction. Ann Arbor, Michigan : ProQuest Ebook Central, 2017. Available via World Wide Web. Access may be limited to ProQuest Ebook Central affiliated libraries.
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