É um simples simulador da trajectoria de uma bola com efeito de Magnus, explicado na ultima sessao do quark.
Embora seja simples, a 'jogabilidade e interactividade com o utilizador' é enorme.
O 'jogo' dispoe de instruçoes no idle ou linha de comandos, de um painel de controlos, e de um modo visual.
Basta seguir as instruçoes e simular, muito simples. [Fase BETA]
deixo aqui o script, é so fazer copy-paste. Depois deem me um feedback SFF.
- Código: Seleccionar Todos
from visual.controls import *
import random
scene.autoscale=False
scene.width=638
scene.height=768
goal=box(pos=(22,1.25,0),size=(3,2.5,7), opacity=0.5)
floor=box(pos=(0,-0.0005,0),length=100,width=50,height=0.001, color=color.green)
channel=cylinder(pos=(0,10,0), radius=0.3, length=2, axis=(0,0,1), visible=False, opacity=0.5)
luck=sphere(pos=channel.pos, radius=channel.radius, visible=False)
welcome='Welcome to my free-kick simulator. '
print '\n'
print welcome
print '\n'
print 'Created by Rui Marques'
print '\n'
print 'Starting up...Please follow the instructions above'
print '\n'
print 'To zoom, hold both mouse buttons at the same time. To rotate camera, hold righ button.'
c=controls(title='Controls', width=683, height=384, range=100)
reset=toggle(pos=(-30,0), text1='SHOOT', text0='RESET', color=color.red)
cvel=slider(pos=(-30,30), text='Speed', color=color.red, min=0, max=200, value=0)
lvel=button(pos=(-80,40), text='Speed', color=color.red, size=(20,10))
cspin=slider(pos=(-30,-30), text='Spin', size=(50,50), color=color.green, min=0, max=20, value=0)
lspin=button(pos=(-80,-20), text='Spin', color=color.green, size=(20,10))
distance=button(pos=(20,0), text='Distance', size=(50,10))
def fkick():
chance=False
cvel.value=0
cspin.value=0
reset.value=0
k=0.006
t=-1
g=9.81
dt=0.01
c=0.7
scale=0.03
scale2=0.5
shot=False
shot2=False
shot3=False
shot4=False
print '\n'
print '1-Select the ball position on the field, by clicking on it.'
print '\n'
while shot3==False:
if scene.mouse.clicked:
m = scene.mouse.getclick()
ball=sphere(radius=0.2,make_trail=True, material=materials.earth, pos=m.project(normal=(0,1,0)))
ball.pos.y+=0.2
print ball.pos
shot3=True
print '2-Reset ball position using directional keys.Confirm ball position by pressing backspace.'
print 'Ball position settled'
print '\n'
while shot4==False:
if scene.kb.keys:
s = scene.kb.getkey()
distance.text=str(mag(vector(ball.pos-goal.pos)))
if s=='left':
ball.pos.z+=-0.2
if s=='right':
ball.pos.z+=0.2
if s=='up':
ball.pos.x+=0.2
if s=='down':
ball.pos.x-=0.2
if s=='backspace':
shot4=True
scene.center=ball.pos
ball.vel=vector(1,0,0)
ball.rot=vector(1,0,0)
print '3-Select the speed direction with a left click on the target'
while shot==False:
if scene.mouse.clicked:
m = scene.mouse.getclick()
loc = m.project(normal=(1,0,0), point=(22,0,0))
mark1=sphere(pos=loc, radius=0.1, color=color.red)
shot=True
ball.vel=vector(loc-ball.pos)
speed=arrow(pos=ball.pos,axis=ball.vel*scale,color=color.red)
print ball.vel
print '\n'
print '4-Select the spin direction (using the right-hand-rule, left click)'
while shot2==False:
if scene.mouse.clicked:
m = scene.mouse.getclick()
loc2 = m.pos
mark2=sphere(pos=loc2, radius=0.01, color=color.cyan)
shot2=True
ball.rot=vector(loc2-ball.pos)
rotation=arrow(pos=ball.pos, axis=ball.rot*scale2, color=color.cyan)
print ball.rot
print '\n'
channel.pos=ball.pos
channel.pos.z-=(channel.length)/2
channel.pos.y+=2
luck.pos=channel.pos
luck.pos.z=ball.pos.z
channel.visible=True
luck.visible=True
n=0
dn=0.01
mark3=ring(pos=luck.pos, axis=(0,0,1), radius=channel.radius+0.1, thickness=0.1, color=color.red)
print '5-Press backspace once again, when the ball is closer to the ring for maximum accuracy.'
while chance==False:
rate(100)
n+=dn
luck.pos.z=mark3.pos.z+(channel.length/2)*sin(n*(pi/4))
if scene.kb.keys:
s = scene.kb.getkey()
if s=='backspace':
r=(luck.pos.z-mark3.pos.z)/((channel.length)/2)
print 'Accuracy: '+str(r)
chance=True
print '\n'
channel.visible=False
mark3.visible=False
luck.visible=False
ball.vel.x*(random.uniform(1-r,1+r))
ball.vel.y*(random.uniform(1-r,1+r))
ball.vel.z*(random.uniform(1-r,1+r))
ball.rot.x*(random.uniform(1-r,1+r))
ball.rot.y*(random.uniform(1-r,1+r))
ball.rot.z*(random.uniform(1-r,1+r))
r=r/2
def change1(x):
ball.vel.mag=(x*1000)/3600*(1+r)
def change2(x):
ball.rot.mag=x*2*pi*(1+r)
print '6-Use the slider to select speed and spin values in km/h and Hz, respectively.'
print '\n'
print '7-Click on the toggle switch to shoot. Toggle it again for reset.'
while reset.value==0:
lvel.text=str(cvel.value)
lspin.text=str(cspin.value)
cvel.action=lambda: change1(cvel.value)
cspin.action=lambda: change2(cspin.value)
mark1.visible=False
mark2.visible=False
speed.visible=False
rotation.visible=False
phi=mag(ball.rot)
score=False
print '\n'
while t<20:
rate(20)
scene.center=ball.pos
t+=dt
magnus=cross(ball.rot,ball.vel)*k
ball.vel+=vector(0,-g,0)*dt
if ball.pos.y>=ball.radius:
ball.vel+=magnus*dt
ball.pos+=ball.vel*dt
phi+=-dt
ball.rotate(angle=phi*dt,axis=ball.rot, origin=ball.pos)
if ball.pos.y-ball.radius<0:
ball.pos.y=ball.radius
ball.vel.y=-ball.vel.y*c
ball.vel.x=ball.vel.x*0.9
ball.vel.z=ball.vel.z*0.9
phi=phi*c
elif ball.pos.x-ball.radius<=-25:
ball.vel.x=-ball.vel.x*c
phi=phi*c
elif ball.pos.z+ball.radius>=25 or ball.pos.z-ball.radius<=-25:
ball.vel.z=-ball.vel.z*c
phi=phi*c
if goal.pos.z-3.5<=ball.pos.z+ball.radius<=goal.pos.z+3.5 and ball.pos.y+ball.radius<=goal.pos.y+1.25 and goal.pos.x+1.5>=ball.pos.x+ball.radius>=goal.pos.x-1.5:
if score==False:
print 'GOAL!!!!!'
score=True
if goal.pos.z-3>=ball.pos.z+ball.radius or ball.pos.z+ball.radius>=goal.pos.z+3 or ball.pos.y+ball.radius>=goal.pos.y+1 or goal.pos.x+1<=ball.pos.x+ball.radius:
ball.vel=-ball.vel*0.5
if mag(ball.vel)<=0.1 or reset.value==0:
break
if score==False:
print 'You suck.'
ball.make_trail=False
ball.visible=False
scene.center=(0,0,0)
print 'Game Over'
print '\n'
while True:
fkick()
