Kỹ thuật lập trình UTE: (Buổi 06_3) Trò chơi caro (tiếp theo)

Kỹ thuật lập trình UTE: (Buổi 06_3) Trò chơi caro (tiếp theo)

Understanding Taro Game Mechanics

Introduction to Game Functions

  • The initial discussion revolves around the function for reading data from a text file into a matrix, referred to as "Boom Matrix," with size denoted by 'n'.
  • A function checks if the game state is valid; it returns true if no cheating occurs and false otherwise.

Checking Winning Conditions

  • The focus shifts to verifying if a specific position on the board contains part of a winning line (referred to as "đường 5").
  • If the value at that position is -1, it indicates an empty spot, suggesting potential for forming a winning line.

Analyzing Possible Lines

  • The analysis includes checking horizontal lines: moving left or right from the current position.
  • Vertical checks involve moving up and down, while diagonal checks assess both primary and secondary diagonals.

Conclusion on Line Presence

  • After evaluating various directions, it's concluded that certain positions do not contribute to any winning lines.
  • Conversely, another position may indeed form part of a winning line when checked in multiple directions.

Implementing Core Functions

Main Program Structure

  • The main program initializes the game matrix and calls functions to read data from files and validate game states.
  • It also determines whether there’s a winner based on the current state of play.

Data Reading Process

  • The process involves opening files, checking accessibility, and reading elements into the matrix through nested loops.

Validating Game State

  • Validation includes counting occurrences of player markers (0's and 1's), ensuring they adhere to game rules regarding their distribution.

Distance Calculation for Winning Lines

  • A critical function assesses distances between markers in potential winning lines. If five consecutive markers are found, it confirms victory; more than five does not count as a win.

Understanding Movement on the Grid

Key Concepts of Movement and Variables

  • The discussion begins with the explanation of a grid system where all paths are aligned along column C, with vertical movement represented by variable Y1 (upward) and Y2 (downward).
  • When moving upward on the grid, there is a decrease in the row count; conversely, moving downward results in an increase. This relationship highlights how movement affects positional values.
  • The concept of "đường trẻo 9" (line 9) is introduced as a reference point for checking movements. It emphasizes that while Y decreases when moving up, another variable zi increases, indicating a complex interaction between different dimensions of movement.
  • The instructor encourages students to apply these principles to test their understanding of the entire board setup after mastering specific checks related to line 9.
  • There’s an emphasis on understanding how changes in one variable can inversely affect others, showcasing the interconnectedness within the grid's structure.