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Course Outline

Understanding Requirements Through Requirement Diagrams

  • Fundamental concept of a "requirement"
  • Essential relationships such as derive, verify, satisfy, refine, trace, and containment
  • Overview of Requirement Diagrams: description, objectives, and advantages

Analyzing System Functionality Using Use Case Diagrams

  • Overview of Use Case Diagrams: description, objectives, and advantages
  • Core components of use cases: use case, actor, and subject
  • Foundational relationships: association, include, extend, and generalization

Exploring Model Organization via Package Diagrams

  • Overview of Package Diagrams: description, objectives, and advantages; key package aspects including element ownership and namespace definition
  • Key relationships: containment and dependency
  • Understanding the concepts of views and viewpoints

Examining System Structure with Block Diagrams

  • Definition and description of blocks, distinguishing between definition and usage; understanding valuetypes (with units) and block features like value properties, parts, references, and operations
  • Overview of Block Definition Diagrams: description, objectives, and advantages; compartments; block relationships including specialization and associations (composite aggregation, excluding shared aggregation); and multiplicities
  • Overview of Internal Block Diagrams: description, objectives, and advantages; enclosing blocks; flow ports and standard ports; connectors and item flows; and part representation

Evaluating System Constraints on Block Definition and Parametric Diagrams

  • Interpreting constraint blocks within Block Definition Diagrams
  • Overview of Parametric Diagrams: description, objectives, and advantages; constraint properties, parameters, and expressions
  • Linking constraint properties and value properties using binding connectors

Analyzing Flow-Based Behavior in Activity Diagrams

  • Overview of Activity Diagrams: description, objectives, and advantages
  • Data flow: object flow, parameters, parameter nodes, and pins
  • Control flow: control nodes and their functions
  • Activity partitions (swimlanes) and actions, including activity decomposition through call behavior actions
  • Handling signals via send signal and accept event actions

Understanding Message-Based Behavior in Sequence Diagrams

  • Overview of Sequence Diagrams: description, objectives, and advantages
  • Lifelines and their role
  • Message types: asynchronous and synchronous
  • Interaction references for elements external to the diagram

Interpreting Event-Based Behavior in State Machine Diagrams

  • Overview of State Machine Diagrams: description, objectives, and advantages
  • States and regions: states, regions, initial states, and final states
  • Transitions triggered by time or signal events, guards, and actions (effects); behaviors such as entry, exit, and do actions

Managing Allocations Across Multiple Diagram Types and Additional Topics

  • Allocation: description, purpose, and usage
  • Understanding AllocatedFrom and AllocatedTo relationships
  • Representation methods: callouts, compartments, allocated activity partitions, and tables
  • Special notations for comments, rationales, problems, and constraints
  • Diagram-related concepts: frames, ports, parameters, and anchors on diagram frames
  • Diagram headers and descriptions
  • Stereotypes
 21 Hours

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