def draw(self, screen, camera): if self.rect == [Vct(0, 0), Vct(0, 0)]: return else: if not self.is_crop: pygame.draw.rect(screen, (0, 255, 0),( (self.rect[0]*camera.scale-camera.pos).tuple(), ((self.rect[1]+Vct(1, 1))*camera.scale).tuple()), 1) else: pygame.draw.rect(screen, (255, 0, 0),( (self.rect[0]*camera.scale-camera.pos).tuple(), ((self.rect[1]+Vct(1, 1))*camera.scale).tuple()), 1)
def save(self): #uloží buňky co jsou ve výběru označeném čtvercem a uloží je do listu self.buffer self.buffer = [] for pos in self.units: classes.Unit.units[pos].selected = False rel_pos = pos - self.rect[0]-round(self.rect[1]/2) self.buffer.append([rel_pos, type(classes.Unit.units[pos]), classes.Unit.units[pos].orientation]) self.untis = [] self.rect = [Vct(0, 0), Vct(0, 0)] print(self.buffer)
def draw(self, screen, camera):
pygame.draw.rect(screen, self.wirecolors[self.life],
(((self.pos + Vct(0.05, 0.05)) * camera.scale -
camera.pos).tuple(),
(Vct(0.9, 0.9) * camera.scale).tuple()))
if self.selected:
pygame.draw.rect(screen, self.colors["green"],
(((self.pos) * camera.scale - camera.pos).tuple(),
(Vct(1, 1) * camera.scale).tuple()), 1)
def draw(self, screen, camera):
if self.orientation == "upDown":
pygame.draw.rect(screen, self.color,
(((self.pos - Vct(0.25, 0)) * camera.scale -
camera.pos).tuple(),
((Vct(1.5, 1) * camera.scale).tuple())))
pygame.draw.rect(screen, self.colors["grey"],
(((self.pos - Vct(0.25, 0)) * camera.scale -
camera.pos).tuple(),
((Vct(1.5, 1) * camera.scale).tuple())),
int(0.1 * camera.scale))
elif self.orientation == "leftRight":
pygame.draw.rect(screen, self.color,
(((self.pos - Vct(0, 0.25)) * camera.scale -
camera.pos).tuple(),
((Vct(1, 1.5) * camera.scale).tuple())))
pygame.draw.rect(screen, self.colors["grey"],
(((self.pos - Vct(0, 0.25)) * camera.scale -
camera.pos).tuple(),
((Vct(1, 1.5) * camera.scale).tuple())),
int(0.1 * camera.scale))
if self.selected:
pygame.draw.rect(screen, self.colors["green"],
(((self.pos) * camera.scale - camera.pos).tuple(),
(Vct(1, 1) * camera.scale).tuple()), 1)
def crop(self): self.buffer = [] for pos in self.units: classes.Unit.units[pos].selected = False rel_pos = pos - self.rect[0]-round(self.rect[1]/2) self.buffer.append([rel_pos, type(classes.Unit.units[pos]), classes.Unit.units[pos].orientation]) classes.Unit.delete_cell(pos) self.is_crop = False self.untis = [] self.rect = [Vct(0, 0), Vct(0, 0)] print(self.buffer)
def __init__(self):
self.end = False
self.screen = pygame.display.set_mode((1800, 1000))
self.clock = pygame.time.Clock()
self.tick = 0
self.tickrate = 8
self.keys = []
self.mousepos = Vct(0, 0)
self.m1 = False
self.m2 = False
self.inputhandler = inputhandler.Handler()
self.camera = camera.Camera(Vct(0, 0), 20)
self.sWheel = selection_wheel.Wheel(self.screen)
self.filehandler = filehandler.Filehandler()
def draw(self, screen, camera):
verts = [((vert + self.pos) * camera.scale - camera.pos).tuple()
for vert in self.triangles[self.orientation]]
pygame.draw.polygon(screen, self.colors["grey"], verts)
if self.selected:
pygame.draw.rect(screen, self.colors["green"],
(((self.pos) * camera.scale - camera.pos).tuple(),
(Vct(1, 1) * camera.scale).tuple()), 1)
def __init__(self):
self.mousexy = Vct(
0, 0) # pozice kurzoru relativně vůči zvětšení a posunu kamery
self.activeunit = classes_models.Wire # Třída, jež je uložena s této proměnné se bude vytvářet při klikání myši
self.keys = {}
self.buttonpressed = False
self.transistorRotation = [["upDown", "leftRight"], 0]
self.diodeRotation = [["left", "up", "right", "down"], 0]
def __init__(self, screen):
self.r = 0
self.timer = 0
self.size = Vct(500, 500)
self.surface = pygame.Surface(
(self.size).tuple(),
pygame.SRCALPHA) # vlastní povrch (nutné k průhlednosti)
self.models = [
models.Wire, models.Transistor, models.Diode, models.Remove,
models.BringAlive
] # seznam všech možností, které chci mít v tomto kolečku
self.spacing = 2 * math.pi / len(self.models)
self.camera = camera.Camera(
Vct(0, 0), 20
) # vlastní kamera je nutná aby byla zachována velikost náhledu i při zvětšování a zmenšování
self.screensize = Vct(screen.get_size()[0], screen.get_size()[1])
self.closestToMouse = [
models.Wire, float("inf")
] # volba, která je nejblíže k myši je uložena v této hodnotě
def mark(self, mousexy): self.units = [] if self.rect[0] == Vct(0, 0): self.rect[0] = mousexy self.rect[1] = mousexy-self.rect[0] for pos in classes.Unit.units: if self.is_in_rect(pos): self.units.append(pos) classes.Unit.units[pos].selected = True else: classes.Unit.units[pos].selected = False
def load(self): # Z uložených textových souborů vytvoří buffer, který lze poté vložit do simulace
self.buffer = []
list = [name for name in os.listdir() if ".txt" in name]
for i, name in enumerate(list):
print(str(i+1) + ". " + name) # tímto se usnadní výběr souboru, uživatel nemusí psát celý název, stačí pouze číslo
try:
file = open(list[int(input("select number of file:"))-1])
except IndexError:
print("There is no file with that number :(")
return
for line in file.readlines(): # tímto cyklem se načítá soubor do bufferu
line = line.strip().split(" ")
line[0] = [s.strip("()") for s in line[0].split(",")]
if line[1] == "wire":
self.buffer.append([Vct(int(line[0][0]), int(line[0][1])), classes.Wire, line[2]])
if line[1] == "diode":
self.buffer.append([Vct(int(line[0][0]), int(line[0][1])), classes.Diode, line[2]])
if line[1] == "transistor":
self.buffer.append([Vct(int(line[0][0]), int(line[0][1])), classes.Transistor, line[2]])
def update(self):
self.keys = pygame.key.get_pressed()
if self.keys[pygame.K_ESCAPE]:
self.end = True
self.mousepos = Vct(pygame.mouse.get_pos()[0],
pygame.mouse.get_pos()[1])
self.m1 = pygame.mouse.get_pressed()[0]
self.m2 = pygame.mouse.get_pressed()[2]
self.tick = (self.tick + 1) % self.tickrate
if self.tick == 0:
classes.Unit.make_new_itteration()
self.inputhandler.update(self.keys, self.m1, self.mousepos,
self.camera, self.sWheel, self.filehandler)
self.camera.update(self.m2, self.mousepos)
self.sWheel.update(self.mousepos)
def draw(pos,screen, camera, selected = False, orientation = "upDown"): pygame.draw.rect(screen, white, (((pos+Vct(0.05, 0.05))*camera.scale-camera.pos).tuple(), (Vct(0.9, 0.9)*camera.scale).tuple())) if orientation == "upDown": pygame.draw.rect(screen, white, (((pos-Vct(0.25, 0) )* camera.scale-camera.pos).tuple(), ((Vct(1.5, 1) * camera.scale).tuple()))) pygame.draw.rect(screen, lightgrey, (((pos-Vct(0.25, 0))* camera.scale-camera.pos).tuple(), ((Vct(1.5, 1)*camera.scale).tuple())),int(0.1 *camera.scale)) if orientation == "leftRight": pygame.draw.rect(screen, white, (((pos-Vct(0, 0.25) )* camera.scale-camera.pos).tuple(), ((Vct(1, 1.5) * camera.scale).tuple()))) pygame.draw.rect(screen, lightgrey, (((pos-Vct(0, 0.25))* camera.scale-camera.pos).tuple(), ((Vct(1, 1.5) * camera.scale).tuple())),int(0.1 *camera.scale)) if selected: pygame.draw.rect(screen, green, (((pos+Vct(0.05, 0.05))*camera.scale-camera.pos).tuple(), (Vct(0.9, 0.9)*camera.scale).tuple()), 1)
class Unit():
units = {} # slovník držící všechny buňky a jejich souřadnice
living_units = [
] # souřadnice všech buněk, které jsou aktivní a je třeba je updatovat
new_itteration = [
] # souřadnice všech buněk, které budou živé i v příští iteraci simulace. Na konci každého kroku simulace se seznam living_units změní na new_itteration
directions = {
"up": Vct(0, -1), #slouží k zjišťování sousedů
"down": Vct(0, 1),
"left": Vct(-1, 0),
"right": Vct(1, 0)
}
colors = {
"grey": (127, 127, 127),
"lightgrey": (180, 180, 180),
"white": (255, 255, 255),
"green": (0, 255, 0)
}
wirecolors = {
0: (255, 255, 255),
1: (255, 100, 100),
2: (255, 50, 50),
3: (255, 0, 0),
4: (0, 255, 0)
}
def __init__(self, pos):
self.pos = pos
self.neighbors = {}
self.life = 0
self.selected = False
self.orientation = None
def updateneighbors(self):
# zjistí a uloží všechny svoje sousedy (slouží primárně k optimalizaci)
self.neighbors = {}
for d in self.directions.values():
if d + self.pos in self.units:
self.neighbors[d + self.pos] = self.units[d + self.pos]
def draw(self, screen, camera):
pygame.draw.rect(screen, self.wirecolors[self.life],
(((self.pos + Vct(0.05, 0.05)) * camera.scale -
camera.pos).tuple(),
(Vct(0.9, 0.9) * camera.scale).tuple()))
if self.selected:
pygame.draw.rect(screen, self.colors["green"],
(((self.pos) * camera.scale - camera.pos).tuple(),
(Vct(1, 1) * camera.scale).tuple()), 1)
def make_new_itteration():
# Vytvoří novou iteraci simulace
Unit.new_itteration = []
filtred_new_itter = []
for pos in Unit.living_units:
if not pos in filtred_new_itter:
filtred_new_itter.append(pos)
Unit.living_units = filtred_new_itter # zbav se duplikátů
for pos in Unit.living_units:
if type(Unit.units[pos]) == Diode:
Unit.units[pos].update()
for pos in Unit.living_units:
if type(Unit.units[pos]) != Diode:
Unit.units[pos].update()
Unit.living_units = Unit.new_itteration
def delete_cell(pos):
neighbors = Unit.units[pos].neighbors
del Unit.units[pos] #odstraní buňku se seznamu všech buňek
if pos in Unit.new_itteration: #odstraní buňku z nové iterace
Unit.new_itteration.remove(pos)
if pos in Unit.living_units: #odstraní buňky z žíjících buňek
Unit.living_units.remove(pos)
for n in neighbors: #updatetuje všechny sousedy odstraněné buňky aby se jí nesnažily oživit
Unit.units[n].updateneighbors()
class Diode():
triangles = {"left":[Vct(0, 0.5), Vct(1, 0), Vct(1, 1)],
"right":[Vct(0, 0), Vct(0, 1), Vct(1, 0.5)],
"up":[Vct(0, 1), Vct(1, 1), Vct(0.5, 0)],
"down":[Vct(0, 0), Vct(1, 0), Vct(0.5, 1)]}
def draw(pos,screen, camera, selected = False, orientation = "down"):
verts = [((vert+pos)*camera.scale-camera.pos).tuple() for vert in Diode.triangles[orientation]]
pygame.draw.polygon(screen, grey,verts)
if selected:
pygame.draw.rect(screen, green, (((pos+Vct(0.05, 0.05))*camera.scale-camera.pos).tuple(), (Vct(0.9, 0.9)*camera.scale).tuple()), 1)
class Diode(Unit):
"""
Dioda vede proud pouze směrem svojí orentace, všechny ostatní impulsy ignoruje
"""
triangles = {
"left": [Vct(0, 0.5), Vct(1, 0), Vct(1, 1)], #slouží k vykreslování
"right": [Vct(0, 0), Vct(0, 1), Vct(1, 0.5)],
"up": [Vct(0, 1), Vct(1, 1), Vct(0.5, 0)],
"down": [Vct(0, 0), Vct(1, 0), Vct(0.5, 1)]
}
def __init__(self, pos, orientation="left"):
super().__init__(pos)
self.orientation = orientation
self.new_itteration.append(self.pos)
def update(self):
self.life = 0
for d in self.directions: #zjistí svojí orientaci a podle té se vyhodnotí
if self.orientation == d:
if self.pos - self.directions[
d] in self.living_units and self.neighbors[
self.pos - self.directions[d]].life == 3:
if self.pos + self.directions[d] in self.neighbors:
if type(self.neighbors[self.pos + self.directions[d]]
) == Transistor and not d in self.neighbors[
self.pos +
self.directions[d]].orientation.lower():
self.neighbors[self.pos +
self.directions[d]].blocked = 8
self.new_itteration.append(self.pos +
self.directions[d])
# speciálné je zde ošetřená interakce s tranzistorem, ten se zablokuje byl-li oživen Diodou při odpovídající orientaci
else:
self.neighbors[self.pos +
self.directions[d]].life = 3
self.new_itteration.append(self.pos +
self.directions[d])
self.new_itteration.append(self.pos)
def draw(self, screen, camera):
verts = [((vert + self.pos) * camera.scale - camera.pos).tuple()
for vert in self.triangles[self.orientation]]
pygame.draw.polygon(screen, self.colors["grey"], verts)
if self.selected:
pygame.draw.rect(screen, self.colors["green"],
(((self.pos) * camera.scale - camera.pos).tuple(),
(Vct(1, 1) * camera.scale).tuple()), 1)
def make_new(pos, orientation):
Unit.units[pos] = Diode(pos, orientation)
Unit.units[pos].updateneighbors()
for n in Unit.units[pos].neighbors.values():
n.updateneighbors()
def __repr__(self):
return ("Diode {} {} {}".format(self.pos.x, self.pos.y,
self.orientation))
def draw(pos,screen, camera, selected = False, orientation = "down"): verts = [((vert+pos)*camera.scale-camera.pos).tuple() for vert in Diode.triangles[orientation]] pygame.draw.polygon(screen, grey,verts) if selected: pygame.draw.rect(screen, green, (((pos+Vct(0.05, 0.05))*camera.scale-camera.pos).tuple(), (Vct(0.9, 0.9)*camera.scale).tuple()), 1)
def __init__(self): self.units = [] # v tomto listu jsou uložené všechny buňky, jež jsou označeny výběrem self.buffer = [] # slouží k ukládání a nahrávání buňek self.rect = [Vct(0, 0), Vct(0, 0)] # obdelník ukazující výběr self.is_crop = False
def draw(pos,screen, camera, selected = False,orientation = None): pygame.draw.rect(screen, red, (((pos+Vct(0.05, 0.05))*camera.scale-camera.pos).tuple(), (Vct(0.9, 0.9)*camera.scale).tuple())) if selected: pygame.draw.rect(screen, green, (((pos+Vct(0.05, 0.05))*camera.scale-camera.pos).tuple(), (Vct(0.9, 0.9)*camera.scale).tuple()), 1)
def __init__(self, pos, scale):
self.pos = pos
self.scale = scale
self.shiftstart = Vct(0, 0)
self.shiftapplied = False
def update(self, keys, m1, mousepos, camera, wheel, filehandler):
self.mousexy = round(
((mousepos + camera.pos) -
(mousepos + camera.pos) % camera.scale) / camera.scale)
self.keys = keys
self.m1 = m1
if self.m1:
if wheel.timer <= 10:
if self.activeunit == classes_models.Wire:
classes.Wire.make_new(self.mousexy)
elif self.activeunit == classes_models.Transistor:
classes.Transistor.make_new(
self.mousexy,
self.transistorRotation[0][self.transistorRotation[1]])
elif self.activeunit == classes_models.Diode:
classes.Diode.make_new(
self.mousexy,
self.diodeRotation[0][self.diodeRotation[1]])
elif self.activeunit == classes_models.BringAlive: #ožíví vybranou buňku
if self.mousexy in classes.Unit.units:
classes.Unit.units[self.mousexy].life = 3
classes.Unit.living_units.append(self.mousexy)
elif self.activeunit == classes_models.Remove: #odstraní buňky
if self.mousexy in classes.Unit.units:
classes.Unit.delete_cell(self.mousexy)
elif self.activeunit == "copytool" or self.activeunit == "croptool":
filehandler.mark(self.mousexy)
elif self.activeunit == "insertiontool":
filehandler.blit_copy(self.mousexy)
else:
self.activeunit = wheel.change_active_unit()
if wheel.timer > 50:
wheel.timer = 50
if keys[pygame.K_e] and not self.buttonpressed:
self.buttonpressed = True
if wheel.timer == 0:
wheel.timer = 500
elif wheel.timer > 50:
wheel.timer = 50
if keys[pygame.K_r] and not self.buttonpressed:
self.buttonpressed = True
if self.activeunit == classes_models.Transistor:
self.transistorRotation[1] = (self.transistorRotation[1] +
1) % 2
if self.activeunit == classes_models.Diode:
self.diodeRotation[1] = (self.diodeRotation[1] + 1) % 4
if not keys[pygame.K_e] and not keys[pygame.K_r]:
self.buttonpressed = False
if keys[pygame.K_LCTRL] and keys[pygame.K_c]:
self.activeunit = "copytool"
filehandler.is_crop = False
if self.activeunit == "copytool" and not self.m1 and filehandler.rect != [
Vct(0, 0), Vct(0, 0)
]:
filehandler.save()
self.activeunit = "insertiontool"
if keys[pygame.K_LCTRL] and keys[pygame.K_v]:
self.activeunit = "insertiontool"
if keys[pygame.K_LCTRL] and keys[pygame.K_s]:
filehandler.store_buffer()
if keys[pygame.K_LCTRL] and keys[pygame.K_l]:
filehandler.load()
self.activeunit = "insertiontool"
if keys[pygame.K_LCTRL] and keys[pygame.K_x]:
filehandler.is_crop = True
self.activeunit = "croptool"
if self.activeunit == "croptool" and not self.m1 and filehandler.rect != [
Vct(0, 0), Vct(0, 0)
]:
filehandler.crop()
self.activeunit = "insertiontool"
def polar_to_cartestian(r, angle):
# tato funkce slouže k převodu z polární soustavy do kartezské
x = r * math.cos(angle)
y = r * math.sin(angle)
return Vct(x, y)
