List of Figures

Chapter I: Basic Notions

Figure 1: Phases of the Aggregation Process
Figure 2: Simple MADS
Figure 3: The "Geography" Primitive Dimension
Figure 4: The 2-D Representation of a Multidimensional MADS
Figure 5: A Complex MADS
Figure 6: A Composite MADS
Figure 7: A Complex-Composite MADS
Figure 8: Spaces and Levels of ADAMO
Figure 9: Graphical Representation of a MAD in ADAMO
Figure 10: Graphical Notations of Different Summarizability Characteristics
Figure 11: Table Example
Figure 12: Graphical Representation of Marginals and Implicit Dimensions
Figure 13: Graphical Representation of the ID-Dependency
Figure 14: Composite Table
Figure 15: The Graphical Representation of an Alias Node
Figure 16: Different Total Levels
Figure 17: Graphical Representation of Butterfly Node with Alias and Marginals
Figure 18: Example of Star Model Representation

Chapter II: Multidimensionality in Statistical, OLAP, and Scientific Databases

Figure 1a: An "Employee" Table
Figure 1b: A 3-D View of the Table
Figure 2a: A Summary Database in 2D Space
Figure 2b: The Database Further Summarized on Each Dimension
Figure 3a: A Graphical Representation of a Summary Database
Figure 3b: An Inverted Graphical à Representation Using UML Notation
Figure 3c: A Star Schema Representation of the Summary Database
Figure 4: Using Links to Federate "Object" and "Summary" Databases
Figure 5a: Representing a Category Hierarchy in a Tabular Form
Figure 5b: An Alternative, More Compact Representation
Figure 5c: A Normalized Version of the Category Hierarchy
Figure 6a: A Schematic of an Object Model for Supporting Category-Hierarchy Class
Figure 6b: A Schematic of an Object Model to Support a Multidimensional Class Whose Dimensions Are Two Category-Hierarchy Classes

Chapter III: Conceptual Multidimensional Models

Figure 1: An Example of Star Schema
Figure 2: Dimension Scheme in the MD Model
Figure 3: Two Data Cube Schemes Over the Dimensions in Figure 2
Figure 4: A Sample Instance Over the Multidimensional Scheme of Example 4:

Chapter IV: Hierarchies

Figure 1: Examples of non-hierarchical structures
Figure 2: Example of the MAD occupation
Figure 3: Example of non-completeness
Figure 4: Temporal Summarization by Function and Summary Attribute Type
Figure 5: Non Temporal Summarization by Function and Summary Attribute Type
Figure 6: Example of a Data Cube
Figure 7: The Hierarchy Along Dimensions: Beverages and Location (on the Left) and the Relative Domain Value (on the Right)
Figure 8: Domain Values of the Level City
Figure 9: Example of a Multiple Hierarchy
Figure 10: Example of Path Generation Between Levels
Figure 11: A Multidimensional View of the Drink Sales Data Cube
Figure 12: The result of the query
Figure 13: Example of an Insert Level

Chapter V: Operators for Multidimensional Aggregate Data

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Chapter VI: Time in Multidimensional Databases

Figure 1: A Geography Dimension
Figure 2: Updated Geography Dimension
Figure 3: The Temporal Dimension "Store"
Figure 4: A Series of Updates to Dimension "Product"
Figure 5: A Snapshot at "d4"
Figure 6: Dimension Product for the Running Example
Figure 7: Data Warehouse Versioning
Figure 8: Dimensions in the Case Study
Figure 9: Browsing Dimension "Patient"

Chapter VII: Dynamic Multidimensional Data Cubes

Figure 1: Data Cube Example
Figure 2: Original Data Cube A and Corresponding Prefix Cube PS with Range Sum Query
Figure 3: Aggregation Regions of Cells for RPS
Figure 4: Original Data Cube A and Corresponding RPS Cube with Range Sum Query (Middle) and Update (Right)
Figure 5: Original Data Cube A and Corresponding DDC Cube with Range Sum Query
Figure 6: Tree Structure of the DDC Cube (Query Endpoint Hatched, Accessed Cells Shaded)
Figure 7: Original Data Cube A and a Possible HBC Cube
Figure 8: Original Array A and Corresponding RPS (Block Size 3) and PS Arrays (Query Range and Updated Cell in A Are Framed, Accessed Cells Are Shaded)
Figure 9: Original Data Cube A, Intermediate Result, and Final IDC Cube (Fat Lines Indicate Partitioning into Blocks by RPS)
Figure 10: Processing Queries and Updates on an Iterative Data Cube (RPS Technique Used for Both Dimensions)
Figure 11: pCube with R-Tree Based Structure for the Aggregate Function COUNT
Figure 12: Processing a Query on a Simple pCube for Aggregate Operator SUM
Figure 13: Cuboids of a Three-Dimensional Example Cube
Figure 14: Cube as a Multidimensional Data Cube; Cuboids of Figure 13 Indicated

Chapter VIII: Materialized Views in Multidimensional Databases

Figure 1: Entity-Relationship Representation of an MDDB
Figure 2: Data-Cube Lattice with Associated Queries
Figure 3: MD-Lattice of the Store Dimension
Figure 4: A Configuration of Materializations
Figure 5: A Configuration of Materializations

Chapter IX: Querying Multidimensional Data

Figure 1: Star and Snowflake Schemes
Figure 2: The Dimension Hierarchies for Fcalls
Figure 3: Relational and Multidimensional Operations on Tables
Figure 4: A Graphical Query of the MD Model

Chapter X: Incomplete Information in Multidimensional Databases

Figure 1: A Multidimensional Space
Figure 2: A Hierarchy in the Multidimensional Space
Figure 3: Options for Handling an Unknown Value (in a Max Aggregate)
Figure 4: Options for Handling an Imprecise Value (in a Max Aggregate)
Figure 5: Options for Handling an Exclusive Disjunctive Value (in a Max Aggregate)
Figure 6: Suggesting an Alternative, Complete Query
Figure 7: A Mapping Table from Items to Food Groups
Figure 8: Repairing a Non-Covering Mapping
Figure 9: Repairing a Non-Strict Hierarchy

Chapter XI: Privacy in Multidimensional Databases

Figure 1: The Graph Associated with Three Queries
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Figure 3: A Simple Bond of a Bipartite Graph
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Figure 32: A Data Map.
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Chapter XIII: Cooperation with Geographic Databases

Figure 1: A GDB Schema with Full-Contains Relationships
Figure 2: Example of Cube "Car_Sales"
Figure 3: Example of Binding Attributes in the Geographic Class Schema MUNICIPALITY
Figure 4: Instances of the Binding Attributes, "Car_Sales" and "Toy_Sales"
Figure 5: The Inheritance of Binding Attribute
Figure 6: Example of Inferring Binding Attribute
Figure 7: Example of Different Steps for the Generation of Specialized Geographic Classes



Multidimensional Databases(c) Problems and Solutions
Multidimensional Databases: Problems and Solutions
ISBN: 1591400538
EAN: 2147483647
Year: 2003
Pages: 150

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