feat added moving client

app.py

@@ -10,12 +10,24 @@ from collections import deque
 import threading
 import time
 import random
+from classes.data.klient import Klient
 
 pygame.init()
 window = pygame.display.set_mode((prefs.WIDTH, prefs.HEIGHT))
 pygame.display.set_caption("Game Window")
 table_coords = [(4, 4), (4, prefs.GRID_SIZE-5), (prefs.GRID_SIZE-5, 4), (prefs.GRID_SIZE-5, prefs.GRID_SIZE-5)]
 
+chosen_coords = random.choice(table_coords)
+chosen_index = random.randint(0, len(table_coords)-1)
+chosen_coords = table_coords[chosen_index]
+klientx_target = chosen_coords[0] + 1
+klienty_target = chosen_coords[1] + 1
+# klientx_target = 16
+# klienty_target = 16
+
+print("klientx_target:", klientx_target)
+print("klienty_target:", klienty_target)
+
 def initBoard():
     wall_probability = 0.001 
     global cells
@@ -36,19 +48,9 @@ def initBoard():
                 if random.random() < wall_probability:
                     cell.prepareTexture("sprites/wall.png")
                     cell.blocking_movement = True
-
-            # Wybierz kolor dla płytki na podstawie jej położenia
             row.append(cell)
         cells.append(row)
 
-    # Test
-    # Na potrzeby prezentacji tworzę sobie prostokątne ściany na które nie da się wejść
-    # x1 = 3
-    # y1 = 6
-    # for i in range(x1, x1+4):
-    #     for j in range(y1, y1+2):
-    #         cells[i][j].prepareTexture("sprites/wall.png")
-    #         cells[i][j].blocking_movement = True
     for i in range(prefs.GRID_SIZE):
         for j in range(prefs.GRID_SIZE):
             if i == 0 or j==0 or j==prefs.GRID_SIZE-1 or (i == prefs.GRID_SIZE-1 and j != 17):
@@ -92,8 +94,10 @@ def draw_grid(window, cells, agent):
 
 initBoard()
 agent = Agent(prefs.SPAWN_POINT[0], prefs.SPAWN_POINT[1], cells)
+klient = Klient(prefs.GRID_SIZE-1, 17,cells)
+target_x, target_y = klientx_target-1, klienty_target
+
 
-target_x, target_y = 18, 18
 
 def watekDlaSciezkiAgenta():
     time.sleep(3)
@@ -112,6 +116,41 @@ def watekDlaSciezkiAgenta():
                 agent.moveto(x, y)
         time.sleep(1)
 
+def watekDlaSciezkiKlienta():
+    time.sleep(3)
+    while True:
+        if len(path2) > 0:
+            element2 = path2.pop(0)
+            print(element2)
+            if element2 == "left":
+                klient.rotate_left()
+            if element2 == "right":
+                klient.rotate_right()
+            if element2 == "forward":
+                klient.move_direction()
+            elif isinstance(element2, tuple):  # Check if it's a tuple indicating movement coordinates
+                x, y = element2
+                klient.moveto(x, y)
+
+        if klient.current_cell == cells[klientx_target][klienty_target]:
+            klient.przyStoliku = True
+            klient.stolik = klient.current_cell
+
+
+        time.sleep(1)
+
+path2 = klient.bfs2(klientx_target, klienty_target)
+print("Najkrótsza ścieżka:", path2)
+watek = threading.Thread(target=watekDlaSciezkiKlienta)
+watek.daemon = True
+watek.start()
+
+path = agent.bfs2(target_x, target_y)
+print("Najkrótsza ścieżka:", path)
+watek = threading.Thread(target=watekDlaSciezkiAgenta)
+watek.daemon = True
+watek.start()
+
 running = True
 while running:
     for event in pygame.event.get():
@@ -156,6 +195,7 @@ while running:
     window.fill((255, 0, 0))
     draw_grid(window, cells, agent)
     agent.update(window)
+    klient.update(window)
     pygame.display.update()
     time.sleep(0.1)
 

classes/data/klient.py

@@ -1,16 +1,103 @@
 import pygame
-from rachunek import Rachunek
+from classes.cell import Cell
+import prefs
 import random
+import heapq
+from collections import deque
 
 class Klient:
-    def __init__(self,imie,nazwisko,wiek,ulubiony_posilek=None, restrykcje_dietowe=None):
-        self.imie = imie
-        self.nazwisko = nazwisko
-        self.wiek = wiek
+    def __init__(self,x,y,cells):
+        self.sprite = pygame.image.load("sprites/klient.png").convert_alpha()
+        self.sprite = pygame.transform.scale(self.sprite, (prefs.CELL_SIZE, prefs.CELL_SIZE))
+        self.current_cell = cells[x][y]
+        self.current_x = x
+        self.current_y = y
+        # self.imie = imie
+        # self.nazwisko = nazwisko
+        # self.wiek = wiek
+        przyStoliku = False
         self.stolik = None
-        self.rachunek = Rachunek(random.randint(1,1000))
-        self.ulubiony_posilek = ulubiony_posilek
-        self.restrykcje_dietowe = restrykcje_dietowe
+        # self.rachunek = Rachunek(random.randint(1,1000))
+        # self.ulubiony_posilek = ulubiony_posilek
+        # self.restrykcje_dietowe = restrykcje_dietowe
+        self.cells = cells
+        self.X = x
+        self.Y = y
+        self.last_move_time = pygame.time.get_ticks()
+        self.last_interact_time = pygame.time.get_ticks()
+        self.last_update_time = pygame.time.get_ticks()
+        self.direction = 0
+        self.directionPOM = 0
+        self.xPOM = x
+        self.yPOM = y
+        self.g_scores = {}
+
+
+        self.textures = [
+            pygame.image.load("sprites/klient.png").convert_alpha(),
+            pygame.image.load("sprites/klient.png").convert_alpha(), 
+            pygame.image.load("sprites/klient.png").convert_alpha(),
+            pygame.image.load("sprites/klient.png").convert_alpha()
+        ]
+
+    def update(self, surface):
+        surface.blit(self.sprite, (self.current_cell.X * prefs.CELL_SIZE, 
+                                   self.current_cell.Y * prefs.CELL_SIZE))
+    
+
+    def moveto(self,x,y):
+        if not self.cells[x][y].blocking_movement:
+            self.current_cell = self.cells[x][y]
+            self.moved=True
+            self.last_move_time=pygame.time.get_ticks()
+            print("Agent moved to x,y: ",x,y)
+        else:
+            print("Agent cannot move to this direction")
+
+
+    def move_direction(self):
+        if self.direction == 0 and pygame.time.get_ticks()-self.last_move_time > 125 and self.current_cell.Y < prefs.GRID_SIZE-1 and not self.cells[self.current_cell.X][self.current_cell.Y+1].blocking_movement:
+            self.current_cell = self.cells[self.current_cell.X][self.current_cell.Y+1]
+            self.moved=True
+            self.last_move_time=pygame.time.get_ticks()
+        if self.direction == 1 and pygame.time.get_ticks()-self.last_move_time > 125 and self.current_cell.X > 0 and not self.cells[self.current_cell.X-1][self.current_cell.Y].blocking_movement:
+            self.current_cell = self.cells[self.current_cell.X-1][self.current_cell.Y]
+            self.moved=True
+            self.last_move_time=pygame.time.get_ticks()
+
+        if self.direction == 2 and pygame.time.get_ticks()-self.last_move_time > 125 and self.current_cell.Y > 0 and not self.cells[self.current_cell.X][self.current_cell.Y-1].blocking_movement:
+            self.current_cell = self.cells[self.current_cell.X][self.current_cell.Y-1]
+            self.moved=True
+            self.last_move_time=pygame.time.get_ticks()
+
+        if self.direction == 3 and pygame.time.get_ticks()-self.last_move_time > 125 and self.current_cell.X < prefs.GRID_SIZE-1 and not self.cells[self.current_cell.X+1][self.current_cell.Y].blocking_movement:
+            self.current_cell = self.cells[self.current_cell.X+1][self.current_cell.Y]
+            self.moved=True
+            self.last_move_time=pygame.time.get_ticks()
+        
+
+    def rotate_left(self):
+        if pygame.time.get_ticks()-self.last_move_time > 125:
+            self.direction +=1
+            if self.direction==4:
+                self.direction=0
+            self.sprite = self.textures[self.direction]
+            self.sprite = pygame.transform.scale(self.sprite, (prefs.CELL_SIZE, prefs.CELL_SIZE))
+            self.last_move_time=pygame.time.get_ticks()
+            print(self.direction)
+
+    def rotate_right(self):
+        if pygame.time.get_ticks()-self.last_move_time > 125:
+            self.direction-=1
+            if self.direction==-1:
+                self.direction=3
+            self.sprite = self.textures[self.direction]
+            self.sprite = pygame.transform.scale(self.sprite, (prefs.CELL_SIZE, prefs.CELL_SIZE))
+            self.last_move_time=pygame.time.get_ticks()
+            print(self.direction)
+        
+
+
     def zloz_zamowienie(self,zamowienie,stolik):
         if self.stolik is None:
             self.stolik = stolik
@@ -23,3 +110,92 @@ class Klient:
     def __str__(self):
         return f"Klient: {self.imie} {self.nazwisko} {self.wiek}, ulubione Danie: {self.ulubiony_posilek}, restrykcje diet: {self.restrykcje_dietowe}"
     
+    def get_possible_moves(self):
+        possible_moves = []
+
+        if self.directionPOM == 0:  # Patrzy w dół
+            possible_moves.append((0, 'left'))
+            possible_moves.append((0, 'right'))
+            if self.yPOM < prefs.GRID_SIZE - 1 and not self.cells[self.xPOM][self.yPOM + 1].blocking_movement:
+                possible_moves.append((self.directionPOM, 'forward'))
+        elif self.directionPOM == 1:  # Patrzy w lewo
+            possible_moves.append((1, 'left'))
+            possible_moves.append((1, 'right'))
+            if self.xPOM > 0 and not self.cells[self.xPOM - 1][self.yPOM].blocking_movement:
+                possible_moves.append((self.directionPOM, 'forward'))
+        elif self.directionPOM == 2:  # Patrzy w górę
+            possible_moves.append((2, 'left'))
+            possible_moves.append((2, 'right'))
+            if self.yPOM > 0 and not self.cells[self.xPOM][self.yPOM - 1].blocking_movement:
+                possible_moves.append((self.directionPOM, 'forward'))
+        elif self.directionPOM == 3:  # Patrzy w prawo
+            possible_moves.append((3, 'left'))
+            possible_moves.append((3, 'right'))
+            if self.xPOM < prefs.GRID_SIZE - 1 and not self.cells[self.xPOM + 1][self.yPOM].blocking_movement:
+                possible_moves.append((self.directionPOM, 'forward'))
+
+        return possible_moves
+
+    def calculate_priority(self, el):
+        return el[0]
+
+    def bfs2(self, target_x, target_y):
+        visited = set()
+        self.directionPOM = self.direction
+        start_state = (self.current_cell.X, self.current_cell.Y, self.directionPOM)
+        #print(start_state)
+        queue = []
+        heapq.heappush(queue, (0,(start_state, [], 0)))
+        while queue:
+            _, que = heapq.heappop(queue)
+            state, actions, gscore = que
+            self.xPOM, self.yPOM, self.directionPOM = state
+            if self.xPOM == target_x and self.yPOM == target_y:
+                return actions
+
+            if (self.xPOM, self.yPOM, self.directionPOM) in visited:
+                continue
+
+            visited.add((self.xPOM, self.yPOM, self.directionPOM))
+
+            possible_moves = self.get_possible_moves()
+            for new_direction, action in possible_moves:
+                new_x, new_y = self.xPOM, self.yPOM
+                new_actions = actions + [action]
+
+                if action == 'left':
+                    new_direction = (self.directionPOM + 1) % 4
+                elif action == 'right':
+                    new_direction = (self.directionPOM - 1) % 4
+                else:  # forward
+                    if self.directionPOM == 0:
+                        new_y += 1
+                    elif self.directionPOM == 1:
+                        new_x -= 1
+                    elif self.directionPOM == 2:
+                        new_y -= 1
+                    else:  # direction == 3
+                        new_x += 1
+
+                if 0 <= new_x < prefs.GRID_SIZE and 0 <= new_y < prefs.GRID_SIZE \
+                        and not self.cells[new_x][new_y].blocking_movement:
+                    new_state = (new_x, new_y, new_direction)
+
+                    if (action == 'left' or action == 'right') :
+                        gscore = gscore + 1
+                    else:
+                        gscore = gscore + self.cells[new_x][new_y].waga
+
+                    f_score = gscore + self.heuristic((new_x,new_y), (target_x,target_y))
+
+                    heapq.heappush(queue, (f_score, (new_state, new_actions, gscore)))
+
+    
+        return []
+    
+    def heuristic(self, current, target):
+        # Manhattan distance heuristic
+        dx = abs(current[0] - target[0])
+        dy = abs(current[1] - target[1])
+        return dx + dy
+