this is my code and I need the code for the following description based on my code so that when I add it I can run it

the grids should be like this

this code should be in python please provide a code that can be added to my code without modifications from my end as I'm confused so please provide a code that can be directly added to my code please refer rule 4

this is a code for the game of go please provide a code that can be directly added to my code and which provides the expected output

This is my code from collections import deque def load_board(filename): result = " " with open(filename) as f: print(f) for index, line in enumerate(f): if index == 0: result += ' '+' '.join([chr(alphabets + 65) for alphabets in range(len(line) - 1)]) + ' ' # the alphabetical column heading result += f"{19 - index:2d}" result += ' ' + ' '.join(line.strip()) + ' ' return result

def save_board(filename, board): with open(filename, "wt") as f: f.write(str(board)) # with open(filename, 'w') as f: # f.write(''.join([''.join(line) + ' ' for line in board])) # # # def print_board(board): # result = f" {' '.join([chr(ord('A') + i) for i in range(len(board[0]))])} " # # for y, row in enumerate(board): # result += f"{str(abs(y - len(board))):>3s} {' '.join(row)} " # # print(result) # # from string import ascii_uppercase as letters class Board: #Dictionary created for the colours and the respected symbols points = {'E': '.', 'B': '@', 'W': 'O'}

#Constructor def __init__(self,board,size=19,from_strings=None): assert 2

def get_size(self): #Returns the size of the grid created by the constructor return self.size

def __str__(self): # creating the grid padding = ' ' # Creating a variable with a space assigned so that it acts as a padding to the rows that have a single digit heading = ' ' + ' '.join(letters[:self.size]) # Alphabetical heading is created lines = [heading] # adding the alphabetical heading into a list named lines to which the rows will be added later for r, row in enumerate(self.grid): if len(self.grid) 9: # for rows 1 to 9 the single digits are aligned according to the first digit from the right of the two digit rows if (self.from_strings): line = f'{self.size - r} ' + ' '.join(self.from_strings[r]) else: line = f'{self.size - r} ' + ' '.join(self.points[x] for x in row) line = padding + line # adding the space using the variable padding to the row created lines.append(line) # adding the row to the list of rows else: # for the rows 10 onwards - as there is no requirement to add a padding it is not added here if (self.from_strings): line = f'{self.size - r} ' + ' '.join(self.from_strings[r]) else: line = f'{self.size - r} ' + ' '.join(self.points[x] for x in row) # creation of the row lines.append(line) # adding the newly created row to the list of rows return ' '.join(lines)

def _to_row_and_column(self, coords): # destructure coordinates like "B2" to "B" and 2 alpha, num = coords colnum = ord(alpha) - ord('A') + 1 rownum = self.size - int(num) + 1 assert 1

def set_colour(self, coords, colour_name): rownum, colnum = self._to_row_and_column(coords) assert len(coords)==2 or len(coords)==3, "invalid coordinates" assert colour_name in self.points,"invalid colour name" self.grid[rownum - 1][colnum - 1] = colour_name

def get_colour(self, coords): rownum, colnum = self._to_row_and_column(coords) return self.grid[rownum - 1][colnum - 1]

def to_strings(self): padding = ' ' lines = [] for r, row in enumerate(self.grid): if self.from_strings: lines.append(''.join(self.from_strings[r])) else: lines.append(''.join(self.points[x] for x in row)) return lines

def to_integer(self): digit_colour="" for line in self.to_strings(): for character in line: if character=='.': character=0 elif character=='O': character=1 elif character=='@': character=2 character=str(character) digit_colour+=character return int(digit_colour,3)

# return ''.join(self.to_int[x] for line in self.grid for x in line)

def set_from_integer(self, integer_encoding): n = int(integer_encoding) list1 = [] p=[] m=[] t=[] while n != 0: rem = n % 3 list1.append(rem) n = n // 3 list1.reverse() list1=["." if item ==0 else item for item in list1] list1=["O" if item ==1 else item for item in list1] list1=["@" if item ==2 else item for item in list1] for i in range(0,len(list1),3): p.append(list1[i:i+3]) #print(p) for x in p: m=''.join(map(str,x)) t.append(m) #print(Board(self.size,t)) self.from_strings=t

def fill_reaching(self,colour_name,reach_name, visited, r, c): new_list = [] new_list2 = [] for x in self.from_strings: for y in x: if y == ".": y = "E" elif y == "@": y = "B" elif y == "O": y = "W" new_list.append(y) for i in range(0, len(new_list), self.size): new_list2.append(new_list[i:i + self.size]) self.grid = new_list2 if r = self.size or c = self.size: #Checking whether the number of rows are within the size of the grid return False if visited[r][c] or self.grid[r][c] != colour_name:#Checking whether the number of columns are within the size of the grid return False if self.grid[r][c] == reach_name: return True visited[r][c] = True if self.fill_reaching(colour_name, reach_name, visited, r + 1, c): return True if self.fill_reaching(colour_name, reach_name, visited, r - 1, c): return True if self.fill_reaching(colour_name, reach_name, visited, r, c + 1): return True if self.fill_reaching(colour_name, reach_name, visited, r, c - 1): return True return False

def reaching_empty_matrix(self): # Create a matrix of the same size as the board, filled with False values matrix = [[False for i in range(self.size)] for j in range(self.size)] #false for the empty grid # Iterate over the points on the board print(self.grid[1][0]) for i in range(self.size): for j in range(self.size): # If the current point is empty or an "O" point, perform a BFS from this point if self.grid[i][j] == "." or self.grid[i][j] == "O": queue = deque([(i, j)]) matrix[i][j] = True while queue: r, c = queue.popleft() for dr, dc in ((1, 0), (-1, 0), (0, 1), (0, -1)): new_r = r + dr new_c = c + dc # If the new point is within the bounds of the board and has not been visited, add it to the queue and mark it as visited if 0

def is_legal(self): # Iterate over the points on the board #print(self.grid) for i in range(self.size): for j in range(self.size): # Skip empty points if self.board[i][j] == ".": continue # Check the surrounding points for any illegal positions for dr, dc in ((1, 0), (-1, 0), (0, 1), (0, -1)): new_r = i + dr new_c = j + dc # If the new point is out of bounds or empty, or if it has a different color than the current point, the position is illegal if not (0 FINALE ) experiment2.py from string import asci1 uppercase as Zetters class Board: 1ctionary created for the colours and the respected symbols points={E:,B:C,W:O} \#Constructor def get size(self): \#Returns the size of the grid created by the constructor return self.size f fill_reaching(self, colour name, reach_name, visited, re c): if salf.fil1 paachina(molour name peach name visitad r1c ). hopen(filename, "wt") as f defis. Legal(self): \# Iterate over the points on the board \#print(self,grid) for 1 in range ( self. size): for j in range(self.size): \# Skip empty points if self. board[1][j] == ",": continue \# Check the surrounding points for any illegal positions for dr, dc in ((1,0),(1,0),(0,1),(0,1)) : new_r =1+dr new_c =j+dc \# If the new point is out of bounds or empty, or if it has a different color than the current point, the position is illegal if not (