def __init__(self,sx,sy, level):
self.level=level
self.current_state["standing"]=True
self.current_state["crouching"]=False
self.current_state["walking"]=False
self.current_state["jumping"]=False
self.current_state["wandswish"]=False
self.current_state["falling"]=False
self.x=sx
self.y=sy
self.startx=sx
self.starty=sy
self.AG_walk=ActionGroup()
self.AG_walk.append("wobble",Action(func=self.wobble,max=5,cycle=True,min=-5,reverseloop=True,init_tick=0))
self.AG_walk.append("footR",Action(func=self.footR,max=13,cycle=True,min=0))
self.AG_walk.append("footL",Action(func=self.footL,max=13,cycle=True,min=0,init_tick=6))
self.AG_jump=ActionGroup()
self.AG_jump.append("jump_displacement",Action(func=self.jump_displacement,max=10,min=0))
self.AG_jump.action("jump_displacement").callback=self.end_jump
self.AG_walk.speed_scale(2)
self.A_wandswish=Action(func=self.swish,min=-7,max=-1,cycle=False,reverseloop=False,init_tick=-7)
def __init__(self,x,y):
self.x=x
self.y=y
self.draw_func=self.temp_drawfunc
self.AG_move=ActionGroup()
self.AG_move.append("x_action",Action(func=self.x_action,max=100,cycle=True,min=0))
self.AG_move.append("y_action",Action(func=self.y_action,max=100,cycle=True,min=0))
self.AG_move.append("z_action",Action(func=self.z_action,max=100,cycle=True,min=0))
self.AG_move.append("xrot_action",Action(func=self.xrot_action,max=360,cycle=True,min=0))
self.AG_move.append("yrot_action",Action(func=self.yrot_action,max=360,cycle=True,min=0))
self.AG_move.append("zrot_action",Action(func=self.zrot_action,max=360,cycle=True,min=0))
def __init__(self, x, y):
self.x = x
self.y = y
self.draw_func = self.temp_drawfunc
self.AG_move = ActionGroup()
self.AG_move.append(
"x_action", Action(func=self.x_action, max=100, cycle=True, min=0))
self.AG_move.append(
"y_action", Action(func=self.y_action, max=100, cycle=True, min=0))
self.AG_move.append(
"z_action", Action(func=self.z_action, max=100, cycle=True, min=0))
self.AG_move.append(
"xrot_action",
Action(func=self.xrot_action, max=360, cycle=True, min=0))
self.AG_move.append(
"yrot_action",
Action(func=self.yrot_action, max=360, cycle=True, min=0))
self.AG_move.append(
"zrot_action",
Action(func=self.zrot_action, max=360, cycle=True, min=0))
def __init__(self,griddata):
griddata.reverse()
#self.grid=griddata
self.grid=[]
for line in griddata:
self.grid.append(list(line))
rr=0
for r in self.grid:
cc=0
for c in r:
if c=="@":
self.solomon=Solomon(cc,rr,self)
self.grid[rr][cc]="."
self.solomon.A_wandswish.callback=self.block_swap
elif c=="4":
self.door=[cc,rr]
self.grid[rr][cc]="."
elif c=="k":
ns=Sprite(cc,rr+0.5)
ns.setDrawFuncToList(lists["green_key"])
ns.collision_action=self.key_detected_something_test
self.sprites.append(ns)
self.grid[rr][cc]="."
elif not c in ["b","B","s"]:
self.grid[rr][cc]="."
cc+=1
rr+=1
self.AG_twinklers=ActionGroup()
self.AG_twinklers.append("twinkle1",Action(func=self.sin_gen_1,max=200,cycle=True,min=0,reverseloop=False,init_tick=0))
self.AG_twinklers.append("twinkle2",Action(func=self.sin_gen_2,max=100,cycle=True,min=0,reverseloop=False,init_tick=10))
def __init__(self,griddata):
griddata.reverse()
#self.grid=griddata
self.grid=[]
for line in griddata:
self.grid.append(list(line))
rr=0
for r in self.grid:
cc=0
for c in r:
if c=="@":
self.solomon=Solomon(cc,rr,self)
self.grid[rr][cc]="."
self.solomon.A_wandswish.callback=self.block_swap
elif c=="k":
ns=Sprite(cc,rr)
ns.setDrawFuncToList(lists["green_key"])
ns.collision_action=key_detected_something_test
self.sprites.append(ns)
self.grid[rr][cc]="."
elif not c in ["b","B","s"]:
self.grid[rr][cc]="."
cc+=1
rr+=1
self.AG_twinklers=ActionGroup()
self.AG_twinklers.append("twinkle1",Action(func=self.sin_gen_1,max=200,cycle=True,min=0,reverseloop=False,init_tick=0))
self.AG_twinklers.append("twinkle2",Action(func=self.sin_gen_2,max=100,cycle=True,min=0,reverseloop=False,init_tick=10))
class Level:
grid=None
baddies=[]
solomon=None
sprites=[]
AG_twinklers=None
def sin_gen_1(self,tvsl):
t,v,s,l=tvsl
v=0.5*(1+sin(2*pi*t/(l)))
#print (t,v)
return v
def sin_gen_2(self,tvsl):
t,v,s,l=tvsl
v=0.5*(1+sin(4*pi*t/(l)))
#print (t,v)
return v
def __init__(self,griddata):
griddata.reverse()
#self.grid=griddata
self.grid=[]
for line in griddata:
self.grid.append(list(line))
rr=0
for r in self.grid:
cc=0
for c in r:
if c=="@":
self.solomon=Solomon(cc,rr,self)
self.grid[rr][cc]="."
self.solomon.A_wandswish.callback=self.block_swap
elif c=="k":
ns=Sprite(cc,rr)
ns.setDrawFuncToList(lists["green_key"])
ns.collision_action=key_detected_something_test
self.sprites.append(ns)
self.grid[rr][cc]="."
elif not c in ["b","B","s"]:
self.grid[rr][cc]="."
cc+=1
rr+=1
self.AG_twinklers=ActionGroup()
self.AG_twinklers.append("twinkle1",Action(func=self.sin_gen_1,max=200,cycle=True,min=0,reverseloop=False,init_tick=0))
self.AG_twinklers.append("twinkle2",Action(func=self.sin_gen_2,max=100,cycle=True,min=0,reverseloop=False,init_tick=10))
def block_swap(self):
print("hi"+str(self.solomon))
takeoff_for_crouching=0
if self.solomon.state_test(["crouching"])>0 : takeoff_for_crouching=-0.8
res=self.detect(val(self.solomon.x,self.solomon.facing*1.0),val(self.solomon.y,takeoff_for_crouching),collision_bound=0.5)
if res=="OK": return
ch,xx,yy,dist=res[0]
if ch=="b":
#print("break block")
#self.grid[yy][xx]="B"
print("destroy block")
self.grid[yy][xx]="."
elif ch=="B":
print("destroy block")
self.grid[yy][xx]="."
elif ch==".":
print("create")
self.grid[yy][xx]="b"
def detect(self,xx,yy,collision_bound=None,callback=None,ignoreDots=False,ignoreTheseSprites=[]):
""" return "OK" message in test of a tuple of (character detected,x of char,y of char,distance float """
if collision_bound==None: collision_bound=self.solomon.bound
detection=[]
for rr in range(int(floor(yy-collision_bound+0.5)),int(ceil(yy+collision_bound+0.5))): #didhave +1
list1=""
for cc in range(int(floor(xx-collision_bound+0.5)),int(ceil(xx+collision_bound+0.5))):
c=self.grid[rr][cc]
if not (c=="." and ignoreDots==True):
test=(cc-xx)**2+(rr-yy)**2
list1+=c
if test<(collision_bound)**2:
detection.append((c,cc,rr,sqrt(test)))
#print list1
for s in self.sprites:
if not s in ignoreTheseSprites:
test=(s.x-xx)**2+(s.y-yy)**2
if test<(collision_bound)**2:
detection.append((s,s.x,s.y,sqrt(test)))
detection=sorted(detection,key=lambda x: x[3])
if not callback==None: callback(detection)
return detection
def evaluate(self,joystick,keys):
self.solomon.stickers=[]
self.solomon.stickers.append([0,0,0,"white"])
""" TODO redo current_state was rubbish anyway """
self.AG_twinklers.do()
jumpnow=False
walkcheck=False
if self.solomon.A_wandswish.overide==False:
self.solomon.current_state["wandswish"]=False
if joystick.isDown(keys)==True:
self.solomon.current_state["crouching"]=True
self.solomon.current_state["standing"]=False
else:
self.solomon.current_state["crouching"]=False
if joystick.isRight(keys)==True:
self.solomon.facing=1
self.solomon.current_state["walking"]=True
self.solomon.current_state["standing"]=False
walkcheck=True
elif joystick.isLeft(keys)==True:
self.solomon.facing=-1
self.solomon.current_state["walking"]=True
self.solomon.current_state["standing"]=False
walkcheck=True
else:
self.solomon.current_state["walking"]=False
self.solomon.current_state["standing"]=True
if walkcheck==True:
if joystick.isUp(keys)==True and self.solomon.current_state["jumping"]==False:
self.solomon.current_state["jumping"]=True
jumpnow=True
else:
self.solomon.current_state["jumping"]=False
xcheck_p=val(self.solomon.x+0.5,self.solomon.step*2*self.solomon.facing)
xcheck_m=val(self.solomon.x+0.5,-self.solomon.step*2*self.solomon.facing)
#self.solomon.stickers.append([xcheck_p,self.solomon.y-self.solomon.step,0,"white"])
#self.solomon.stickers.append([xcheck_m,self.solomon.y-self.solomon.step,0,"white"])
#self.solomon.stickers.append([xcheck_p,self.solomon.y-self.solomon.step,0,"white"])
#self.solomon.stickers.append([xcheck_m,self.solomon.y-self.solomon.step,0,"white"])
width=1.5
canwalk=False
if walkcheck:
col="green"
if self.solomon.facing==-1:
col="yellow"
self.solomon.stickers.append([self.solomon.facing*self.solomon.step*width,0,0,col])
result=self.detect(val(self.solomon.x,self.solomon.facing*self.solomon.step*width),self.solomon.y)
if (len(result)==0 or result[0][0]==".") and self.solomon.current_state["walking"]==True:
#self.solomon.x+=self.solomon.step*self.solomon.facing
self.solomon.current_state["standing"]=False
self.solomon.current_state["walking"]=True
canwalk=True
#elif result[0][0] in ["]
result1=self.grid[int(self.solomon.y-self.solomon.step)][int(xcheck_p)]
result2=self.grid[int(self.solomon.y-self.solomon.step)][int(xcheck_m)]
print("fall check" + str((result1,result2,self.solomon.x,self.solomon.y)))
if result1=="." and result2==".":
self.solomon.y_change(-self.solomon.step)
print(("solomon y affected by", -self.solomon.step))
self.solomon.current_state["falling"]=True
#canwalk=False
else:
self.solomon.current_state["falling"]=False
if canwalk==True:
print(("self.solomon.x before",self.solomon.x))
self.solomon.x_change(self.solomon.step*self.solomon.facing)
print(("self.solomon.x after",self.solomon.x))
if joystick.isFire(keys)==True and self.solomon.current_state["wandswish"]==False:
self.solomon.A_wandswish.kick()
self.solomon.A_wandswish.overide=True
self.solomon.current_state["wandswish"]=True
if self.solomon.current_state["jumping"]==True:
isWalk=0
if self.solomon.current_state["walking"]==True: isWalk=1
result=self.detect(self.solomon.x+(self.solomon.facing*self.solomon.step*5.0)*(isWalk),self.solomon.y)
self.solomon.current_state["falling"]=False
print(("jumping",result))
self.solomon.AG_jump.do()
print("he's jumping")
print(str(self.solomon.AG_jump.action("jump_displacement").tick ))
print(str(self.solomon.AG_jump.action("jump_displacement").value ))
self.solomon.y+=0.2
print(("solomon y affected by", +0.2))
#print "co-ordinates "+str((self.solomon.x,self.solomon.y))
if joystick.isUp(keys)==True and self.solomon.current_state["jumping"]==False:
self.solomon.current_state["jumping"]=True
self.solomon.AG_jump.kick()
if self.solomon.current_state["walking"]==True:
self.solomon.AG_walk.do()
def draw(self):
#global X
#glRotate(X,1,0,0)
glPushMatrix()
glTranslate(8,6.5,-0.55)
glScale(15,12,0.1)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["red"])
glutSolidCube(1)
glPopMatrix()
rr=0
for r in self.grid:
cc=0
for c in r:
#if True:
if rr>0 and rr<13 and cc>0 and cc<16:
glPushMatrix()
glTranslate(cc,rr,0)
if c in ["b","s"]:
if c=="b": color = [0.3,0.3,1.0,1.0]
elif c=="s": color = [1.0,1.0,0.0,1.0]
glMaterialfv(GL_FRONT,GL_DIFFUSE,color)
glutWireCube(1)
#glutSolidCube(1)
elif c in ["d","6"]:
glEnable(GL_BLEND)
glBlendFunc(GL_SRC_ALPHA, GL_SRC_ALPHA);
if c=="d": color = [0.8,0.5,0.0, 0.1+0.2*float(self.AG_twinklers.value("twinkle1")) ]
elif c=="6": color = [10,0.5,0.0, 0.1+0.2*float(self.AG_twinklers.value("twinkle1")) ]
glMaterialfv(GL_FRONT,GL_DIFFUSE,color)
glutSolidCube( float(self.AG_twinklers.value("twinkle2"))*0.3+0.7)
glBlendFunc(GL_SRC_ALPHA, GL_ONE)
glDisable(GL_BLEND)
elif c in ["B"]: ##i.e changed to half a block because recieved bash
color = [0.3,0.3,1.0,1.0]
glMaterialfv(GL_FRONT,GL_DIFFUSE,color)
#global lists
glCallList(lists["broken brick"])
glPopMatrix()
cc+=1
rr+=1
glPushMatrix()
self.solomon.draw(self.solomon.stickers)
glPopMatrix()
for s in self.sprites:
glPushMatrix()
s.runDetection(self)
s.draw()
glPopMatrix()
s.do()
class Sprite:
collision_action=None
def __init__(self,x,y):
self.x=x
self.y=y
self.draw_func=self.temp_drawfunc
self.AG_move=ActionGroup()
self.AG_move.append("x_action",Action(func=self.x_action,max=100,cycle=True,min=0))
self.AG_move.append("y_action",Action(func=self.y_action,max=100,cycle=True,min=0))
self.AG_move.append("z_action",Action(func=self.z_action,max=100,cycle=True,min=0))
self.AG_move.append("xrot_action",Action(func=self.xrot_action,max=360,cycle=True,min=0))
self.AG_move.append("yrot_action",Action(func=self.yrot_action,max=360,cycle=True,min=0))
self.AG_move.append("zrot_action",Action(func=self.zrot_action,max=360,cycle=True,min=0))
def setDrawFuncToList(self,listid):
self.listnumber=listid
self.draw_func=self.drawList
def drawList(self):
glCallList(self.listnumber)
def runDetection(self,level):
level.detect(self.x,self.y,collision_bound=2.0,callback=self.collision_action,ignoreDots=True,ignoreTheseSprites=[self])
def draw(self):
#glPushMatrix()
#print str((self.x,self.y))
glTranslate(self.x,self.y,0)
glTranslate(float(self.AG_move.value("x_action")),float(self.AG_move.value("y_action")),float(self.AG_move.value("z_action")))
glRotate(float(self.AG_move.value("xrot_action")),1,0,0)
glRotate(float(self.AG_move.value("yrot_action")),0,1,0)
glRotate(float(self.AG_move.value("zrot_action")),0,0,1)
#glRotate(15,1,0,0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["white"])
#glutWireCube(1)
self.draw_func()
#glPopMatrix()
def temp_drawfunc(self):
glutSolidCube(0.8)
def do(self):
self.AG_move.do()
def x_action(self,tvmm):
return 0
def y_action(self,tvmm):
return 0
def z_action(self,tvmm):
return 0
def xrot_action(self,tvmm):
return 0
def yrot_action(self,tvmm):
return 0
def zrot_action(self,tvmm):
t,v,min,max=tvmm
v=t*2
return v
class Solomon:
x,y=None,None
startx,starty=None,None
#st_a=None
AG_walk=None
AG_jump=None
A_wandswish=None
current_state={}
bound=0.3 #this is his bounding sphere
step=0.100
facing=1 #or -1
level=None
def x_change(self,amt):
print(("changing x",amt))
self.x=val(self.x,amt)
def y_change(self,amt):
self.y=val(self.y,amt)
def wobble(self,tvmm):
t,v,mi,ma=tvmm
v=t
#print (t,v,mi,ma)
return v
def footR(self,tvsl):
t,v,s,l=tvsl
if t<7: v+=1
elif t<10: v-=2
else: v=0
#print (t,v,s,l)
return v
def footL(self,tvsl):
t,v,s,l=tvsl
if t<7: v+=1
elif t<10: v-=2
else: v=0
#print (t,v,s,l)
return v
def swish(self,tvmm):
t,v,min,max=tvmm
v=t
#print (t,v)
return v
def jump_displacement(self,tvmm):
print("jump disp called")
t,v,min,max=tvmm
if t<4: v+=2
else: v+=1
return v
def end_jump(self):
print("jump complete")
self.current_state["jumping"]=False
def __init__(self,sx,sy, level):
self.level=level
self.current_state["standing"]=True
self.current_state["crouching"]=False
self.current_state["walking"]=False
self.current_state["jumping"]=False
self.current_state["wandswish"]=False
self.current_state["falling"]=False
self.x=sx
self.y=sy
self.startx=sx
self.starty=sy
self.AG_walk=ActionGroup()
self.AG_walk.append("wobble",Action(func=self.wobble,max=5,cycle=True,min=-5,reverseloop=True,init_tick=0))
self.AG_walk.append("footR",Action(func=self.footR,max=13,cycle=True,min=0))
self.AG_walk.append("footL",Action(func=self.footL,max=13,cycle=True,min=0,init_tick=6))
self.AG_jump=ActionGroup()
self.AG_jump.append("jump_displacement",Action(func=self.jump_displacement,max=10,min=0))
self.AG_jump.action("jump_displacement").callback=self.end_jump
self.AG_walk.speed_scale(2)
self.A_wandswish=Action(func=self.swish,min=-7,max=-1,cycle=False,reverseloop=False,init_tick=-7)
def state_test_on(self):
return [k for k in self.current_state if self.current_state[k]==True]
def state_test(self,list):
return len([l for l in list if self.current_state[l]==True])
def draw0(self):
glTranslate(self.x,self.y,0)
glutSolidCube(0.1)
def draw(self,stickers=None):
#correction
glTranslate(0,-0.15,0)
#main displacement
glTranslate(self.x,self.y,0)
#for experiments
global X
#print (X,self.AG_walk.value("footL"),self.AG_walk.value("footR"))
#scale down character
glScale(0.3,0.3,0.3)
if stickers!=None:
for st in stickers:
glPushMatrix()
##glLoadIdentity()
print((st))
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours[st[3]])
glTranslate(st[0]*10,10*st[1],st[2])
glutSolidCube(0.5)
glPopMatrix()
#rotate to direction facing
if self.facing==-1: glRotatef(180,0,1,0)
#correction for drawing character
glRotatef(-90.0,1.0,0,0)
drawSolProperly=True
#if not drawSolProperly:
# glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["white"])
# glutSolidCube(0.2)
#############################entering crouch section###############################
glPushMatrix()
if "crouching" in self.state_test_on(): glTranslate(0,0,-0.3)
#hat
glPushMatrix()
if "walking" in self.state_test_on(): glRotatef(-float(self.AG_walk.value("wobble")),1.0,0,0)
glTranslate(0,0,0.5)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["hat"])
if drawSolProperly: glutSolidCone(1,2,12,6)
glPopMatrix()
#head/body
glPushMatrix()
glTranslate(0,0,0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["body"])
if drawSolProperly: glutSolidSphere(1,12,12)
glPopMatrix()
#left arm
glPushMatrix()
if self.state_test(["walking"])>0: glTranslate(0-float(self.AG_walk.value("footR"))/10,0.9,0)
elif self.state_test(["standing","crouching","wandswish"])>0: glTranslate(0,0.9,0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["arm"])
if drawSolProperly: glutSolidSphere(0.5,24,12)
glPopMatrix()
#right arm
glPushMatrix()
#glTranslate(0,-0.9,0)
if self.state_test(["wandswish"])>0:
res=self.A_wandswish.do()
if res==None: poo=0.0
else: poo=float(res/0.05)
#print poo
glTranslate(0,-0.9,0)
glRotatef(poo,1,1,0)
elif self.state_test(["walking"])>0: glTranslate(float(self.AG_walk.value("footL"))/10,-0.9,0)
elif self.state_test(["standing","crouching"])>0: glTranslate(0,-0.9,0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["arm"])
if drawSolProperly: glutSolidSphere(0.5,24,12)
#move pop to end to keep arm local system
#wand
q=gluNewQuadric()
glPushMatrix()
glTranslate(1.1,0,0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["wandtip"])
glRotatef(90,0,1,0)
if drawSolProperly: gluCylinder(q,0.1,0.1,0.2,12,1)
glPopMatrix()
glPushMatrix()
glTranslate(0.5,0,0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["wand"])
glRotatef(90,0,1,0)
if drawSolProperly: gluCylinder(q,0.1,0.1,0.6,12,1)
glPopMatrix()
#from arm
glPopMatrix()
#eyes
glPushMatrix()
glTranslate(1,.2,.1)
glRotatef(90,0,1,0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["wandtip"])
if drawSolProperly: gluDisk(q,0.05,0.2,12,12)
glPopMatrix()
glPushMatrix()
glTranslate(1,-.2,.1)
glRotatef(90,0,1,0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["wandtip"])
if drawSolProperly: gluDisk(q,0.05,0.2,12,12)
glPopMatrix()
#nose
glPushMatrix()
glTranslate(1,0,-.1)
glScale(1,1,0.5)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["arm"])
if drawSolProperly: glutSolidSphere(0.3,24,12)
glPopMatrix()
##########################left crouch section##################################
glPopMatrix() #end of crouch
#drawing rest of body (feet)
#left foot
glPushMatrix()
glTranslate(-0.5,0,0)
#apply rotation if walking
if self.state_test(["walking"])>0: glRotatef(-15*float(self.AG_walk.value("footL")),0,1,0)
elif self.state_test(["standing","crouching","wandswish"])>0: glRotatef(0,0,1,0)
glTranslate(0.5,0,0)
glScale(1.5,1,.5)
glTranslate(0,0.5,-2)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["shoe"])
if drawSolProperly: glutSolidSphere(0.5,24,12)
glPopMatrix()
#right foot
glPushMatrix()
glTranslate(-0.5,0,0)
#apply rotation if walking
if self.state_test(["walking"])>0: glRotatef(-15*float(self.AG_walk.value("footR")),0,1,0)
elif self.state_test(["standing","crouching","wandswish"])>0: glRotatef(0,0,1,0)
glTranslate(0.5,0,0)
glScale(1.5,1,.5)
glTranslate(0,-0.5,-2)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["shoe"])
if drawSolProperly: glutSolidSphere(0.5,24,12)
glPopMatrix()
X+=1
class Sprite:
collision_action = None
def __init__(self, x, y):
self.x = x
self.y = y
self.draw_func = self.temp_drawfunc
self.AG_move = ActionGroup()
self.AG_move.append(
"x_action", Action(func=self.x_action, max=100, cycle=True, min=0))
self.AG_move.append(
"y_action", Action(func=self.y_action, max=100, cycle=True, min=0))
self.AG_move.append(
"z_action", Action(func=self.z_action, max=100, cycle=True, min=0))
self.AG_move.append(
"xrot_action",
Action(func=self.xrot_action, max=360, cycle=True, min=0))
self.AG_move.append(
"yrot_action",
Action(func=self.yrot_action, max=360, cycle=True, min=0))
self.AG_move.append(
"zrot_action",
Action(func=self.zrot_action, max=360, cycle=True, min=0))
def setDrawFuncToList(self, listid):
self.listnumber = listid
self.draw_func = self.drawList
def drawList(self):
glCallList(self.listnumber)
def runDetection(self, level):
#level.detect(self.x,self.y,collision_bound=2.0,callback=self.collision_action,ignoreDots=True,ignoreTheseSprites=[self])
pass
def draw(self):
#glPushMatrix()
#print str((self.x,self.y))
glTranslate(self.x, self.y, 0)
glTranslate(float(self.AG_move.value("x_action")),
float(self.AG_move.value("y_action")),
float(self.AG_move.value("z_action")))
glRotate(float(self.AG_move.value("xrot_action")), 1, 0, 0)
glRotate(float(self.AG_move.value("yrot_action")), 0, 1, 0)
glRotate(float(self.AG_move.value("zrot_action")), 0, 0, 1)
#glRotate(15,1,0,0)
glMaterialfv(GL_FRONT, GL_DIFFUSE, colours["white"])
#glutWireCube(1)
self.draw_func()
#glPopMatrix()
def temp_drawfunc(self):
glutSolidCube(0.8)
def run_collision_action(self):
if self.collision_action != None: self.collision_action()
return self
def do(self):
self.AG_move.do()
def x_action(self, tvmm):
return 0
def y_action(self, tvmm):
return 0
def z_action(self, tvmm):
return 0
def xrot_action(self, tvmm):
return 0
def yrot_action(self, tvmm):
return 0
def zrot_action(self, tvmm):
t, v, min, max = tvmm
v = t * 2
return v
class Level:
counter=0
grid=None
baddies=[]
solomon=None
sprites=[]
bursts=[]
door=None
target_z=6
proper_z=6
AG_twinklers=None
def sin_gen_1(self,tvsl):
t,v,s,l=tvsl
v=0.5*(1+sin(2*pi*t/(l)))
#print (t,v)
return v
def sin_gen_2(self,tvsl):
t,v,s,l=tvsl
v=0.5*(1+sin(4*pi*t/(l)))
#print (t,v)
return v
def __init__(self,griddata):
griddata.reverse()
#self.grid=griddata
self.grid=[]
for line in griddata:
self.grid.append(list(line))
rr=0
for r in self.grid:
cc=0
for c in r:
if c=="@":
self.solomon=Solomon(cc,rr,self)
self.grid[rr][cc]="."
self.solomon.A_wandswish.callback=self.block_swap
elif c=="4":
self.door=[cc,rr]
self.grid[rr][cc]="."
elif c=="k":
ns=Sprite(cc,rr+0.5)
ns.setDrawFuncToList(lists["green_key"])
ns.collision_action=self.key_detected_something_test
self.sprites.append(ns)
self.grid[rr][cc]="."
elif not c in ["b","B","s"]:
self.grid[rr][cc]="."
cc+=1
rr+=1
self.AG_twinklers=ActionGroup()
self.AG_twinklers.append("twinkle1",Action(func=self.sin_gen_1,max=200,cycle=True,min=0,reverseloop=False,init_tick=0))
self.AG_twinklers.append("twinkle2",Action(func=self.sin_gen_2,max=100,cycle=True,min=0,reverseloop=False,init_tick=10))
def eval_grid(self,coords):
return self.grid[coords[1]][coords[0]]
def key_detected_something_test(self):
print ("KEY GOT!")
def block_swap(self,bump_only=False):
self.solomon.current_state["wandswish"]=False
print("hi from block swap "+str(self.solomon))
takeoff_for_crouching=0
if self.solomon.state_test(["crouching"])>0 : takeoff_for_crouching=-0.5
##if res=="OK": return
yy = self.block_to_action[1]
xx = self.block_to_action[0]
ch = self.grid[yy][xx]
print('yy {} xx {} ch {} '.format(yy,xx,ch))
if not bump_only:
#wand flare!
crouch=0.5
if self.solomon.current_state["crouching"]==True: crouch=0
self.bursts.append(Burst(x=self.solomon.x+self.solomon.facing*0.5,y=self.solomon.y+crouch,z=0))
#must be in correct place first
distanceLeft = 0.5 + (self.solomon.x)-(int(self.solomon.x))
distanceRight = 0.5 + (int(self.solomon.x+1))-(self.solomon.x)
distance = 0
if self.solomon.facing==-1: distance=distanceLeft
elif self.solomon.facing==1: distance=distanceRight
print('distance {}'.format(distance))
#check not in block space when casting
if distance > 1.1:
if bump_only:
if ch=="b":
print("destroy block")
self.grid[yy][xx]="B"
elif ch=="B":
print("destroy block")
self.grid[yy][xx]="."
elif ch==".":
print("create")
self.grid[yy][xx]="b"
else:
if ch=="b":
print("destroy block")
self.grid[yy][xx]="."
elif ch==".":
print("create")
self.grid[yy][xx]="b"
elif ch=="k" and not bump_only:
print ("*****KEY STRUCK!*****")
def grid_cell(self,coords):
x=coords[0]
y=int(coords[1])
dx = round(x - int(x),3)
#print('in {} {} dx {}'.format(x,y,dx))
if dx>0.5: x = int(x) + int(1)
else: x = int(x)
return [x,y]
def set_state(self,state,value=True):
self.solomon.current_state[state]=value
#print('state {} set to {}'.format(state,value))
def calculate_states(self):
if False:
print('solomon x,y: {0},{1}'.format(self.solomon.x,self.solomon.y))
gx,gy=int(self.solomon.x),int(self.solomon.y)
print('solomon gx,gy: {0},{1}'.format(gx,gy))
print('grid on: {0}'.format(self.grid[gy][gx]))
print('grid below: {0}'.format(self.grid[gy-1][gx]))
self.solomon.drawSolProperly=True #int((self.counter)/20)%2==0
#under box
twitch_left = 0.01
# so the box presses to right edge flush
sol_bottom_edge_x1 = self.solomon.x - self.solomon.size_x/2 + twitch_left
sol_bottom_edge_x2 = self.solomon.x + self.solomon.size_x/2
sol_bottom_edge_y2 = self.solomon.y - self.solomon.fall_detect
sol_top_edge_y2 = self.solomon.y + self.solomon.size_y
sol_top_edge_y2_jumping = self.solomon.y + self.solomon.size_y + 0.2
#grid cell for below left and right
sol_blockbelow_coord_x1 = self.grid_cell([sol_bottom_edge_x1,sol_bottom_edge_y2])
sol_blockbelow_coord_x2 = self.grid_cell([sol_bottom_edge_x2,sol_bottom_edge_y2])
#grid cell for above left and right
sol_blockabove_coord_x1 = self.grid_cell([sol_bottom_edge_x1,sol_top_edge_y2_jumping])
sol_blockabove_coord_x2 = self.grid_cell([sol_bottom_edge_x2,sol_top_edge_y2_jumping])
#grid cell for right top and bottom
sol_blockright_coord_y1 = self.grid_cell([sol_bottom_edge_x2+self.solomon.step_inc,sol_top_edge_y2])
sol_blockright_coord_y2 = self.grid_cell([sol_bottom_edge_x2+self.solomon.step_inc,self.solomon.y])
#grid cell for left top and bottom
sol_blockleft_coord_y1 = self.grid_cell([sol_bottom_edge_x1-self.solomon.step_inc,sol_top_edge_y2])
sol_blockleft_coord_y2 = self.grid_cell([sol_bottom_edge_x1-self.solomon.step_inc,self.solomon.y])
#print ('{} {}'.format(sol_blockbelow_coord_x1,sol_blockbelow_coord_x2))
#set state on behalf of block below
if self.grid[sol_blockbelow_coord_x1[1]][sol_blockbelow_coord_x1[0]]=='.' and \
self.grid[sol_blockbelow_coord_x2[1]][sol_blockbelow_coord_x2[0]]=='.':
self.set_state("canfall")
else:
self.set_state("canfall", False)
#set state on behalf of block above
if self.grid[sol_blockabove_coord_x1[1]][sol_blockabove_coord_x1[0]]=='.' and \
self.grid[sol_blockabove_coord_x2[1]][sol_blockabove_coord_x2[0]]=='.':
self.set_state("headhurt", False)
else:
self.set_state("headhurt")
#set state on behalf of right top and bottom
if self.grid[sol_blockright_coord_y1[1]][sol_blockright_coord_y1[0]]=='.' and \
self.grid[sol_blockright_coord_y2[1]][sol_blockright_coord_y2[0]]=='.':
self.set_state("cwright")
else:
self.set_state("cwright", False)
#set state on behalf of left top and bottom
if self.grid[sol_blockleft_coord_y1[1]][sol_blockleft_coord_y1[0]]=='.' and \
self.grid[sol_blockleft_coord_y2[1]][sol_blockleft_coord_y2[0]]=='.':
self.set_state("cwleft")
else:
self.set_state("cwleft", False)
#stickers for underneath (floor) detection
#self.solomon.stickers.append([sol_bottom_edge_x1,sol_bottom_edge_y2,0,'green'])
#self.solomon.stickers.append([sol_bottom_edge_x2,sol_bottom_edge_y2,0,'blue'])
#stickers for underneath (head crash) detection
self.solomon.stickers.append([sol_bottom_edge_x1,sol_top_edge_y2,0,'green'])
self.solomon.stickers.append([sol_bottom_edge_x2,sol_top_edge_y2,0,'blue'])
#stickers for right side solomon (wall) detect
#self.solomon.stickers.append([sol_bottom_edge_x2,sol_top_edge_y2,0,'green'])
#self.solomon.stickers.append([sol_bottom_edge_x2,self.solomon.y,0,'blue'])
#stickers for left side solomon (wall) detect
#self.solomon.stickers.append([sol_bottom_edge_x1,sol_top_edge_y2,0,'green'])
#self.solomon.stickers.append([sol_bottom_edge_x1,self.solomon.y,0,'blue'])
#stickers for showing which block is investigating
#self.solomon.stickers.append(sol_blockbelow_coord_x1+[0.1,'green'])
#self.solomon.stickers.append(sol_blockbelow_coord_x2+[0,'blue'])
def evaluate(self,joystick,keys):
self.counter+=1
if self.counter>100000: self.counter=0
self.solomon.stickers=[]
self.solomon.stickers.append([self.solomon.x,self.solomon.y,0,"white"])
""" TODO redo current_state was rubbish anyway """
self.calculate_states()
#wand is used to hover, so comes before fall and walk
if joystick.isFire(keys):
print(' fire')
if self.solomon.current_state["wandswish"]==False:
print(' swish is false')
print('self.solomon.wand_rest {}'.format(self.solomon.wand_rest))
if self.solomon.wand_rest==0:
self.solomon.wand_rest=self.solomon.wand_rest_start
#start swish
self.set_state("wandswish")
print (" swish")
if self.solomon.facing==-1: self.block_to_action = self.grid_cell([self.solomon.x-1,self.solomon.y])
elif self.solomon.facing==1:
if round((self.solomon.x-int(self.solomon.x)),3)==0.45: print (' booh! {}'.format(self.grid_cell([self.solomon.x+1,self.solomon.y])))
print (' plop')
self.block_to_action = self.grid_cell([self.solomon.x+1,self.solomon.y])
if self.solomon.current_state["crouching"]==True:
self.block_to_action=[self.block_to_action[0],self.block_to_action[1]-1]
else:
#continue swish
print (" blah")
pass
self.calculate_states()
# decrease wand swish counter
if self.solomon.wand_rest>0:
self.solomon.wand_rest-=1
if self.solomon.current_state["canfall"]==False:
#if not int(self.solomon.y)==self.solomon.y:
# print("integer problem {}".format(self.solomon.y))
# self.solomon.set_y(round(self.solomon.y ,0))
# print("fixed {}".format(self.solomon.y))
if self.solomon.current_state["falling"]==True:
self.set_state("falling", False)
if self.solomon.current_state["jumping"]==True:
self.set_state("jumping", False)
print("jumping set false")
self.calculate_states()
# can fall state true and not swishing wand means can fall
if self.solomon.current_state["canfall"] and self.solomon.current_state["wandswish"]==False:
print('falling')
self.solomon.set_y(self.solomon.y-self.solomon.fall_inc)
self.calculate_states()
# defaults to can't walk
self.solomon.current_state["walking"]=False
# crouch, does nothing to collision detection
# only offsets the wand target
self.solomon.current_state["crouching"]=False
if joystick.isDown(keys):
self.set_state("crouching")
# if not crouching and keys pressed try walking right, animate but move only if can
if joystick.isRight(keys):
self.solomon.facing=1
if self.solomon.current_state["crouching"]==False:
self.set_state("walking")
if self.solomon.current_state["cwright"]:
self.solomon.set_x(self.solomon.x+self.solomon.step_inc)
self.calculate_states()
# if not crouching and keys pressed try walking left, animate but move only if can
if joystick.isLeft(keys):
self.solomon.facing=-1
if self.solomon.current_state["crouching"]==False:
self.set_state("walking")
if self.solomon.current_state["cwleft"]:
self.solomon.set_x(self.solomon.x-self.solomon.step_inc)
self.calculate_states()
if self.solomon.current_state["jumping"]==False and \
self.solomon.current_state["crouching"]==False and \
self.solomon.current_state["falling"]==False and \
self.solomon.current_state["canfall"]==False and \
self.solomon.current_state["headhurt"]==False:
if joystick.isUp(keys):
self.set_state("jumping")
self.solomon.jumping_rest=self.solomon.jumping_rest_start
print ("jumping rest {}".format(self.solomon.jumping_rest))
if self.solomon.jumping_rest>0:
self.solomon.jumping_rest-=1
self.solomon.jump_inc=self.solomon.jump_inc_start
self.calculate_states()
if self.solomon.jumping_rest==0 and self.solomon.current_state["jumping"]==True:
print("jumping rest is 0 and jumping is true")
if self.solomon.current_state["headhurt"]==False:
print('jumping true, no head hurt {}'.format(self.solomon.y))
self.solomon.set_y(round(self.solomon.y + self.solomon.jump_inc_falloff,3))
#if self.solomon.jump_inc<0.01:
# self.set_state("jumping", False)
else:
self.set_state("jumping", False)
print("jumping set false")
self.calculate_states()
# animate the walk cycle
if self.solomon.current_state["walking"]:
self.solomon.AG_walk.do()
self.AG_twinklers.do()
return
def reset_z(self):
self.target_z=self.proper_z
print ("reset z called")
def detect(self):
pass
def draw(self):
#global X
#glRotate(X,1,0,0)
glPushMatrix()
glTranslate(8,6.5,-0.55)
glScale(15,12,0.1)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["red"])
glutSolidCube(1)
glPopMatrix()
rr=0
for r in self.grid:
cc=0
for c in r:
#if True:
if rr>=0 and rr<=13 and cc>=0 and cc<=16:
glPushMatrix()
glTranslate(cc,rr+0.5,0)
if c in ["b","s"]:
if c=="b": color = [0.3,0.3,1.0,1.0]
elif c=="s": color = [1.0,1.0,0.0,1.0]
glMaterialfv(GL_FRONT,GL_DIFFUSE,color)
if True: glutSolidCube(1)
elif c in ["d","6"]:
glEnable(GL_BLEND)
glBlendFunc(GL_SRC_ALPHA, GL_SRC_ALPHA);
if c=="d": color = [0.8,0.5,0.0, 0.1+0.2*float(self.AG_twinklers.value("twinkle1")) ]
elif c=="6": color = [10,0.5,0.0, 0.1+0.2*float(self.AG_twinklers.value("twinkle1")) ]
glMaterialfv(GL_FRONT,GL_DIFFUSE,color)
glutSolidCube( float(self.AG_twinklers.value("twinkle2"))*0.3+0.7)
glBlendFunc(GL_SRC_ALPHA, GL_ONE)
glDisable(GL_BLEND)
elif c in ["B"]: ##i.e changed to half a block because recieved bash
color = [0.3,0.3,1.0,1.0]
glMaterialfv(GL_FRONT,GL_DIFFUSE,color)
glCallList(lists["broken brick"])
glPopMatrix()
cc+=1
rr+=1
glPushMatrix()
self.solomon.draw(self.solomon.stickers)
glPopMatrix()
if debug==True:
'''
glPushMatrix()
glTranslate(self.solomon_block_below[0],self.solomon_block_below[1],0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["white"])
glutWireCube(0.85)
glPopMatrix()
glPushMatrix()
glTranslate(self.solomon_block_above[0],self.solomon_block_above[1],0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["white"])
glutWireCube(0.85)
glPopMatrix()
glPushMatrix()
glTranslate(self.solomon_block_above_brow1[0],self.solomon_block_above_brow1[1],0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["green"])
glutWireCube(0.85)
glPopMatrix()
glPushMatrix()
glTranslate(self.solomon_block_above_brow2[0],self.solomon_block_above_brow2[1],0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["green"])
glutWireCube(0.85)
glPopMatrix()
glPushMatrix()
glTranslate(self.solomon_block_left[0],self.solomon_block_left[1],0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["white"])
glutWireCube(0.85)
glPopMatrix()
glPushMatrix()
glTranslate(self.solomon_block_right[0],self.solomon_block_right[1],0)
glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["white"])
glutWireCube(0.85)
glPopMatrix()
'''
#centre spot
##glPushMatrix()
##glTranslate(self.solomon.x,self.solomon.y,0)
##glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["white"])
##glScale(0.4, 0.4,0.4)
##glutSolidCube(1)
##glPopMatrix()
#####size box for edge/falling etc
####glPushMatrix()
####glTranslate(self.solomon.x,self.solomon.y,0)
####glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["yellow"])
####glTranslate(0,self.solomon.size_y/2,0)
####glScale(self.solomon.size_x, self.solomon.size_y,1.0)
####glutWireCube(1)
####glPopMatrix()
####
#####detection box for enemies/items
####glPushMatrix()
####glTranslate(self.solomon.x,self.solomon.y,0)
####glMaterialfv(GL_FRONT,GL_DIFFUSE,colours["yellow"])
####glTranslate(0,self.solomon.det_size_y/2,0)
####glScale(self.solomon.det_size_x, self.solomon.det_size_y,1.0)
####glutWireCube(1)
####glPopMatrix()
for s in self.sprites:
glPushMatrix()
s.runDetection(self)
s.draw()
glPopMatrix()
s.do()
for b in self.bursts:
if b.draw():
self.bursts.remove(b)
