This repo is a versatile developer toolkit for implementing, visualizing, and analyzing complex graph algorithms with clarity and efficiency. It provides a robust foundation for exploring pathfinding, network optimization, and graph traversal techniques.
This project streamlines the development of graph-based solutions by offering:
- 🧩 🔍 Visualization: Visualize graph traversals and minimum spanning trees to better understand algorithm behavior.
- ⚙️ 🛠️ Modular Architecture: Well-structured components for easy customization and extension.
- 📊 📈 Validation & Type Safety: Ensures data integrity with validation mechanisms and static type definitions.
- 🚀 Experimentation: Supports multiple experiment runs from user-defined starting points for in-depth analysis.
- 💡 Comprehensive Algorithm Suite: Includes BFS, DFS, Dijkstra, Prim, Kruskal, and more for diverse graph tasks.
Component | Details | |
---|---|---|
⚙️ | Architecture |
|
🔩 | Code Quality |
|
📄 | Documentation |
|
🔌 | Integrations |
|
🧩 | Modularity |
|
⚡️ | Performance |
|
🛡️ | Security |
|
📦 | Dependencies |
|
└── algorithm-analysis-and-design/
├── README.md
├── helper
│ ├── edge_types.py
│ ├── validators.py
│ └── vertex_types.py
├── interface
│ ├── contents.py
│ ├── core
│ └── sub
├── knights_tour_dynamic.py
├── main.py
└── tools
├── algorithms
└── api
ALGORITHM-ANALYSIS-AND-DESIGN/
__root__
⦿ __root__
File Name Summary main.py - Initialize and orchestrate the applications execution flow, serving as the primary entry point for launching the program
- It creates an instance of the core main program, starts its operation, and ensures proper termination and data persistence
- This file effectively coordinates the startup and shutdown processes, integrating the main programs functionalities within the overall project architecture.knights_tour_dynamic.py - Implements a dynamic approach to solving the Knights Tour problem, enabling multiple experiment runs from user-defined starting positions
- It explores potential move sequences, evaluates branching factors, and estimates the overall search tree size, providing insights into the complexity and efficiency of the traversal process within the larger codebase focused on combinatorial pathfinding.README.md - Provides an overview of the projects architecture and core functionalities, illustrating how various components integrate to deliver the applications primary features
- Serves as a guide for understanding the overall structure, ensuring clarity on the system's purpose and facilitating onboarding, maintenance, and future development efforts within the codebase.
helper
⦿ helper
File Name Summary vertex_types.py - Defines static type structures for vertex attributes used in graph traversal algorithms such as BFS, DFS, and Dijkstra
- Facilitates validation of vertex data consistency and correctness across the codebase, ensuring reliable implementation of graph-related functionalities within the overall architecture.edge_types.py - Defines a TypedDict for DFS edge attributes to ensure static type validation within the graph traversal components
- It facilitates consistent representation of edge classification data, supporting reliable data handling and integration across the broader graph processing architecture
- This module enhances type safety and clarity in managing edge-related information throughout the project.validators.py - Provides validation mechanisms for graph components and method parameters through decorators, ensuring label integrity and parameter consistency
- Enhances data correctness and robustness within the overall architecture by enforcing input constraints on vertices, edges, and method attributes, thereby supporting reliable graph operations and maintaining code quality across the project.
tools
⦿ tools
algorithms
⦿ tools.algorithms
File Name Summary kruskal.py - Implements Kruskals algorithm to identify the Minimum Spanning Tree within a graph structure, facilitating efficient network optimization
- Integrates visualization capabilities for graph analysis and maintains internal state to track the resulting tree sets
- Serves as a core component for algorithms requiring minimal connection costs, supporting broader graph processing and analysis workflows.breadth_first_search.py - Implements breadth-first search to traverse and analyze graph structures, enabling efficient exploration of node relationships and shortest path calculations
- Facilitates visualization of traversal progress and results, integrating with the overall graph architecture to support algorithms, data analysis, and visualization workflows within the project.prim.py - Implements Prims algorithm to identify the minimum spanning tree within a graph, facilitating efficient network optimization and connectivity analysis
- Provides visualization capabilities to illustrate the resulting tree structure, integrating seamlessly into the broader graph processing architecture for tasks such as network design, clustering, or pathfinding.depth_first_search.py - Implements depth-first search to analyze graph structures, enabling traversal, exploration, and visualization of vertices and edges
- Facilitates understanding of graph connectivity, discovery and finish times, and edge classifications, supporting advanced graph analysis and visualization within the broader system architecture
- Enhances capabilities for graph-based algorithms and diagnostics.dijkstra.py - Implements Dijkstras algorithm to compute shortest paths within a graph structure, enabling efficient pathfinding and distance calculations
- Facilitates visualization of the graph and traversal process, supporting analysis and debugging
- Integrates with the broader graph architecture to enhance routing, network analysis, and optimization tasks across the project.api
⦿ tools.api
File Name Summary graph.py - Defines a Graph class that models complex graph structures with vertices and edges, supporting various algorithms such as BFS, DFS, Dijkstra, Prim, and Kruskal
- Facilitates creation of predefined graphs for specific tasks, enabling visualization and analysis of graph-based problems within the broader system architecture
- Serves as the core component for graph operations and algorithm execution.object.py - Defines core graph components, including Vertex and Edge classes, to facilitate graph representation and manipulation within the architecture
- Supports various algorithms by encapsulating attributes and relationships, enabling efficient traversal, pathfinding, and graph analysis
- Serves as the foundational data structure layer that underpins graph-based operations across the entire system.
interface
⦿ interface
File Name Summary contents.py - Defines user interaction menus and prompts for navigating and executing various graph algorithms within the application
- Facilitates user input for creating, visualizing, and running algorithms like BFS, DFS, Kruskal, Prim, and Dijkstra, supporting seamless interaction with the graph data structures
- Serves as the central interface layer, guiding users through different graph operations in the overall architecture.sub
⦿ interface.sub
File Name Summary prim_program.py - Implements user interaction for executing Prims algorithm within the graph management system
- Facilitates vertex and edge creation, graph visualization, and running the algorithm to generate minimum spanning trees
- Serves as an interface layer that orchestrates user commands, updates graph states, and displays results, integrating core algorithm logic with user-driven operations in the overall architecture.dfs_program.py - Facilitates user interaction with Depth-First Search algorithms within the broader graph management system
- Enables creation, visualization, and traversal of graph structures, ensuring seamless integration with the overall architecture
- Supports dynamic graph modifications and DFS execution, enhancing the systems capability to analyze and visualize graph data effectively.bfs_program.py - Facilitates user interaction with Breadth-First Search (BFS) algorithms within a graph-based application
- Enables creation and management of vertices and edges, visualizes graph structures, and executes BFS traversal, integrating user inputs seamlessly into the overall architecture
- Serves as the primary interface layer for BFS operations, ensuring accessible and structured graph exploration.dijkstra_program.py - Facilitates user interaction with Dijkstras algorithm within the application, enabling graph creation, vertex and edge management, and execution of shortest path computations
- Integrates core algorithmic functions with user interface components to support dynamic graph manipulation and visualization, ensuring seamless operation within the overall architecture.kruskal_program.py - Facilitates user interaction with Kruskals algorithm by managing graph creation, vertex and edge operations, and executing the algorithm to find minimum spanning trees
- Integrates visualization and user prompts to build and analyze graphs, ensuring proper validation and flow control within the broader graph processing architecture.core
⦿ interface.core
File Name Summary base_program.py - Provides foundational utilities for managing program flow, user interaction, and status reporting within a terminal-based environment
- Facilitates consistent display, loading animations, and context resets across various subprograms, ensuring a cohesive user experience and streamlined process control throughout the application architecture.main_program.py - Facilitates user interaction with the core application by presenting a menu of graph algorithms and managing subprogram execution
- Coordinates the selection, initiation, and termination of specific graph traversal and minimum spanning tree algorithms, ensuring seamless user experience and modular control flow within the overall architecture.