Developed optimized backtracking for magic squares

  • Day: 2023-07-24
  • Time: 00:00 to 01:00
  • Project: Teaching
  • Workspace: WP 1: Strategic / Growth & Development
  • Status: In Progress
  • Priority: MEDIUM
  • Assignee: Matías Nehuen Iglesias
  • Tags: Magic Squares, Backtracking, Algorithm Optimization, Latex, Programming

Description

Session Goal

The session aimed to explore and develop optimized algorithms for solving magic squares using backtracking techniques, as part of a practical programming exercise in algorithmic techniques.

Key Activities

  • Reviewed the practical work requirements for algorithmic techniques, focusing on backtracking, dynamic programming, and greedy algorithms.
  • Developed a C++ program to solve the magic squares problem, detailing functions and algorithms for finding lexicographic magic squares.
  • Explored the creation and counting of magic squares of order n, utilizing backtracking trees and optimizations through pruning.
  • Described an algorithm for backtracking in magic squares, highlighting advantages over brute force methods.
  • Implemented pruning techniques in backtracking algorithms, including pseudocode for optimizing the search process by considering partial sums of diagonals.
  • Demonstrated the mathematical derivation of the magic number for magic squares of order n.
  • Optimized the backtracking algorithm using the derived magic number for efficient pruning.
  • Provided guidance on using LaTeX packages (listings and minted) for rendering and syntax highlighting code, including customization of fonts and colors.

Achievements

  • Successfully developed and optimized a backtracking algorithm for magic squares, incorporating mathematical insights and pruning techniques.
  • Enhanced understanding of algorithmic techniques and their practical applications in programming.

Pending Tasks

  • Further testing and validation of the optimized backtracking algorithm to ensure robustness and efficiency.
  • Exploration of additional optimizations or alternative algorithms for solving magic squares.

Evidence

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  • event_ids: []