def loadtopo(maxnum,step,boxwidth): global pboxlist tile=[] for i in range(step,maxnum+step,step): make_text(str(i)).put(boxwidth*(i-1),0) box.put(boxwidth*(i-1),0) boxsel=[boxwidth*(i-1)+1,1,38,38] g.select(boxsel) g.shrink() if g.getselrect()==boxsel: continue else: sel=g.getselrect() pbox=g.getselrect() clist=g.getcells(pbox) for i in range(int(len(clist)/3)): clist[3*i] = clist[3*i]-sel[0] clist[3*i+1] = clist[3*i+1]-sel[1] clist.insert(0,sel[2]) clist.insert(1,sel[3]) tile.append(clist) pboxlist.append(pbox) return tile
def replace_sel(IN, ):
od = IN.split('/')
od = [int(x) for x in od]
sel = (g.getselrect() != [])
if g.empty():
g.show('universe is empty')
else:
if sel:
replace(g.getselrect(), od)
else:
replace(g.getrect(), od)
def find_best_selection():
r = g.getrect()
all = g.getcells(r)
sep = 1
# - run the pattern for 4096 ticks, get the new settled pattern
# - try XORing new pattern with original pattern for every possible offset up to 512
# - one of the offsets should give the lowest total population
# (will probably decrease the population instead of increasing it,
# unless what is being built is a prolific puffer or gun or some such)
bestscore, bestsep = len(all), -1 # = population * 2
allplus4096 = g.evolve(all, 4096)
g.addlayer()
while sep <= 512:
g.show("Finding stage spacing -- testing " + str(sep))
g.new("sep=" + str(sep))
g.putcells(all)
g.putcells(allplus4096, sep, 0, 1, 0, 0, 1, "xor")
score = int(g.getpop())
if bestscore > score: bestscore, bestsep = score, sep
sep += 1
g.dellayer()
sep = bestsep
g.show("found separation: " + str(sep))
bestblockscore, bestoffset = -999999, -1
for offset in range(sep):
g.select([r[0] - offset, r[1], sep, r[3]])
g.update()
blockscore = 0
for blockx in range(r[0] - offset, r[0] + r[2], sep):
g.select([blockx, r[1], sep, r[3]])
blockrect = g.getselrect()
block = g.getcells(blockrect)
if len(
block
) == 0: # ran into empty block, this must not be the right separation
g.exit("Invalid pattern format found at separation = " +
str(sep) + ": selected block is empty.")
g.shrink(1)
shrunkblockrect = g.getselrect()
leftdiff = shrunkblockrect[0] - blockrect[0]
rightdiff = (blockrect[0] + blockrect[2]) - (shrunkblockrect[0] +
shrunkblockrect[2])
blockscore += leftdiff + rightdiff
if leftdiff < 10: blockscore -= (10 - leftdiff)**2
if rightdiff < 10: blockscore -= (10 - rightdiff)**2
if blockscore > bestblockscore:
bestblockscore, bestoffset = blockscore, offset
g.select([r[0] - bestoffset, r[1], r[2] + offset, r[3]])
return sep
def shrink(): global d if g.empty(): return g.select(g.getrect()) d=int(10000*float(g.getpop())/(int(g.getselrect()[2])*int(g.getselrect()[3]))) while d<100: bbox=g.getselrect() bbox[0]=bbox[0]+1 bbox[1]=bbox[1]+1 bbox[2]=bbox[2]-2 bbox[3]=bbox[3]-2 g.select(bbox) g.shrink() d=int(10000*float(g.getpop())/(int(g.getselrect()[2])*int(g.getselrect()[3])))
def lookforkeys(event, deltax, deltay):
global oldcells, selrect, selpatt
# look for keys used to flip/rotate selection
if event == "key x none" or event == "key y none":
# flip floating selection left-right or top-bottom
if len(oldcells) > 0:
g.clear(0)
g.putcells(selpatt, deltax, deltay)
if " x " in event:
g.flip(0)
else:
g.flip(1)
selpatt = g.transform(g.getcells(selrect), -deltax, -deltay)
if len(oldcells) > 0:
g.clear(0)
g.putcells(oldcells)
g.putcells(selpatt, deltax, deltay)
g.update()
return
if event == "key > none" or event == "key < none":
# rotate floating selection clockwise or anticlockwise;
# because we use g.rotate below we have to use the exact same
# calculation (see Selection::Rotate in wxselect.cpp) for rotrect:
midx = selrect[0] + int((selrect[2]-1)/2)
midy = selrect[1] + int((selrect[3]-1)/2)
newleft = midx + selrect[1] - midy
newtop = midy + selrect[0] - midx
rotrect = [ newleft, newtop, selrect[3], selrect[2] ]
if not rectingrid(rotrect):
g.warn("Rotation is not allowed if selection would be outside grid.")
return
g.clear(0)
if len(oldcells) > 0: g.putcells(oldcells)
oldcells = g.join(oldcells, g.getcells(rotrect))
g.clear(0)
g.select(rotrect)
g.clear(0)
g.select(selrect)
g.putcells(selpatt, deltax, deltay)
if " > " in event:
g.rotate(0)
else:
g.rotate(1)
selrect = g.getselrect()
if selrect != rotrect: g.warn("Bug: selrect != rotrect")
selpatt = g.transform(g.getcells(selrect), -deltax, -deltay)
if len(oldcells) > 0:
g.clear(0)
g.putcells(oldcells)
g.putcells(selpatt, deltax, deltay)
g.update()
return
if event == "key h none":
showhelp2()
return
g.doevent(event)
def lookforkeys(event, deltax, deltay):
global oldcells, selrect, selpatt
# look for keys used to flip/rotate selection
if event == "key x none" or event == "key y none":
# flip floating selection left-right or top-bottom
if len(oldcells) > 0:
g.clear(0)
g.putcells(selpatt, deltax, deltay)
if " x " in event:
g.flip(0)
else:
g.flip(1)
selpatt = g.transform(g.getcells(selrect), -deltax, -deltay)
if len(oldcells) > 0:
g.clear(0)
g.putcells(oldcells)
g.putcells(selpatt, deltax, deltay)
g.update()
return
if event == "key > none" or event == "key < none":
# rotate floating selection clockwise or anticlockwise;
# because we use g.rotate below we have to use the exact same
# calculation (see Selection::Rotate in wxselect.cpp) for rotrect:
midx = selrect[0] + int((selrect[2]-1)/2)
midy = selrect[1] + int((selrect[3]-1)/2)
newleft = midx + selrect[1] - midy
newtop = midy + selrect[0] - midx
rotrect = [ newleft, newtop, selrect[3], selrect[2] ]
if not rectingrid(rotrect):
g.warn("Rotation is not allowed if selection would be outside grid.")
return
g.clear(0)
if len(oldcells) > 0: g.putcells(oldcells)
oldcells = g.join(oldcells, g.getcells(rotrect))
g.clear(0)
g.select(rotrect)
g.clear(0)
g.select(selrect)
g.putcells(selpatt, deltax, deltay)
if " > " in event:
g.rotate(0)
else:
g.rotate(1)
selrect = g.getselrect()
if selrect != rotrect: g.warn("Bug: selrect != rotrect")
selpatt = g.transform(g.getcells(selrect), -deltax, -deltay)
if len(oldcells) > 0:
g.clear(0)
g.putcells(oldcells)
g.putcells(selpatt, deltax, deltay)
g.update()
return
if event == "key h none":
showhelp2()
return
g.doevent(event)
def popcount(sel=0):
dict_lc = {'BDRainbow': [2, 4], 'BGRainbowR2': [2, 4]}
live_cells = dict_lc[g.getrule().split(':')[0]]
if not sel:
clist = g.getcells(g.getrect())
else:
clist = g.getcells(g.getselrect())
return sum(clist[2::3].count(x) for x in live_cells)
def loadtopo():
for i in range(step, max + step, step):
make_text(str(i)).put(boxwidth * (i - 1), 0)
box.put(boxwidth * (i - 1), 0)
boxsel = [boxwidth * (i - 1) + 1, 1, 38, 38]
g.select(boxsel)
g.shrink()
if g.getselrect() == boxsel:
continue
else:
clist = g.getcells(g.getselrect())
sel = g.getselrect()
for i in range(int(len(clist) / 3)):
clist[3 * i] = clist[3 * i] - sel[0]
clist[3 * i + 1] = clist[3 * i + 1] - sel[1]
clist.insert(0, sel[2])
clist.insert(1, sel[3])
tile.append(clist)
return tile
def popcount(sel=0):
dict_lc = {'BDRainbow': [2, 4], 'BGRainbowR2': [2, 4]}
rule = g.getrule().split(':')[0]
try:
live_cells = dict_lc[rule]
except:
live_cells = range(1, g.numstates())
if not sel:
clist = g.getcells(g.getrect())
else:
clist = g.getcells(g.getselrect())
return sum(clist[2::3].count(x) for x in live_cells)
def main(): # get selection and set to boundary bound = g.getselrect() if len( bound ) == 0: g.note( "No selection." ) g.exit() # get current Golly states left = bound[ 0 ] top = bound[ 1 ] width = bound[ 2 ] height = bound[ 3 ] for y in xrange( 0, height ): for x in xrange( 0, width ): state = g.getcell( left + x, top + y ) g.setcell( height - y - 600, x - 600, state )
def tileit(clist,tilewd): global inc,pbox cliplist=clist # g.select([boxsel[0]-20,boxsel[1]-20,20,20]) # g.clear(0) # make_text(str(posi)).put(boxsel[0]-20,boxsel[1]) pbox = rect( [0, 0] + cliplist[0 : 2] ) wd=tilewd*pbox.wd ht=tilewd*pbox.ht boxsel=[-int(wd/2),-int(wd/2),wd,ht] g.select(boxsel) selrect = rect( g.getselrect() ) inc=2 cliplist[0 : 2] = [] # remove wd,ht p = pattern( cliplist ) if len(cliplist) & 1 == 1: inc = 3 # multi-state? g.clear(inside) if len(cliplist) > 0: # tile selrect with p, clipping right & bottom edges if necessary y = selrect.top while y <= selrect.bottom: bottom = y + pbox.height - 1 x = selrect.left while x <= selrect.right: right = x + pbox.width - 1 if (right <= selrect.right) and (bottom <= selrect.bottom): p.put(x, y) else: clip_rb( p(x, y), selrect.right, selrect.bottom ).put() x += pbox.width y += pbox.height if not selrect.visible(): g.fitsel()
def get_bitmap():
selrect = golly.getselrect()
if len(selrect) == 0: golly.exit("There is no selection, aborting.")
#Get bitmap size
w, h = selrect[2:]
#Adjust width, so it's in the form of 4m, m>1
w = (w + 3) // 4 * 4
w = max(8, w)
#Initialize empty bitmap
row = w * ['0']
bm = [row[:] for i in xrange(h)]
#Populate bitmap with cell data
u, v = selrect[:2]
cells = golly.getcells(selrect)
cellsxy = [(cells[i] - u, cells[i+1] - v) for i in xrange(0, len(cells), 2)]
for x, y in cellsxy:
bm[y][x] = '1'
#Convert to CSV string
return ','.join([''.join(row) for row in bm])
def get_bitmap():
''' Get current selection & turn it into a bitmap. '''
selrect = golly.getselrect()
if len(selrect) == 0: golly.exit("There is no selection, aborting.")
#Get bitmap size
w, h = selrect[2:]
#Adjust width, so it's in the form of 4m, m>1
w = (w + 3) // 4 * 4
w = max(8, w)
#Initialize empty bitmap
row = w * [0]
bm = [row[:] for i in xrange(h)]
#Populate bitmap with cell data
u, v = selrect[:2]
cells = golly.getcells(selrect)
cellsxy = [(cells[i] - u, cells[i + 1] - v)
for i in xrange(0, len(cells), 2)]
for x, y in cellsxy:
bm[y][x] = 1
return bm
def getoctohash(clist):
ptr = 0
g.new("Octotest" + str(count))
for orientation in [[1, 0, 0, 1], [0, -1, 1, 0], [-1, 0, 0, -1],
[0, 1, -1, 0], [-1, 0, 0, 1], [1, 0, 0, -1],
[0, 1, 1, 0], [0, -1, -1, 0]]:
g.putcells(clist, ptr * 2048, 0, *orientation)
ptr += 1
for j in range(8):
g.select([2048 * j - 1024, -1024, 2048, 2048])
g.shrink()
r = g.getselrect()
if r == []: r = [0, 0, 1, 1]
pat = g.getcells(r)
deltax, deltay = 0, 0
if pat != []:
deltax, deltay = -pat[0], -pat[1]
if j == 0:
minstr = str(g.transform(pat, deltax, deltay))
else:
strpat = str(g.transform(pat, deltax, deltay))
if strpat < minstr:
minstr = strpat
return " " + get9char(minstr)
r = g.getselrect()
if r == []: r = [0, 0, 1, 1]
pat = g.getcells(r)
deltax, deltay = 0, 0
if pat != []:
deltax, deltay = -pat[0], -pat[1]
if j == 0:
minstr = str(g.transform(pat, deltax, deltay))
else:
strpat = str(g.transform(pat, deltax, deltay))
if strpat < minstr:
minstr = strpat
return " " + get9char(minstr)
r = g.getselrect()
if r == []:
g.exit("No selection. Select something to find by fingerprint.")
g.fitsel()
r = g.getselrect()
if r == []:
g.exit("No selection. Select something to find by fingerprint.")
count = NUMLINES
outptrx, outptry, matches = 0, 0, 0
pat = g.getcells(r)
g.addlayer() # do tests in a new layer, then put results there
hash = getoctohash(pat)
g.new("Output")
if pat != []:
import os.path
# default base path as the Desktop, change it if needed
default_path = os.path.expanduser('~/Desktop')
# default name is the current pattern name without extension
pattern_name = g.getname().split('.')[0]
# getting an output path
export_path = g.savedialog('Choose the directory and name',
'All files (*)|*',
default_path,
pattern_name)
if export_path == "":
export_path = default_path
# number of generations
num_generations = 10
# has a selection been made?
selected = 1 if len(g.getselrect()) > 0 else 0
for i in range(num_generations):
# advance by one generation (checking if something is selected)
if selected == 1:
g.advance(0, 1)
else:
g.run(1)
# export to a new file
file_path = '%s-%d.rle' % (export_path, i)
g.show(file_path)
g.save(file_path, 'rle')
)
objs = []
add_it(objs, '3o$2bo$bo!', 1, -1)
add_it(objs, '3o$o$bo!', -1, -1)
add_it(objs, 'bo$2bo$3o!', 1, 1)
add_it(objs, 'bo$o$3o!', -1, 1)
add_it(objs, '3o$o2bo$o$o$bobo!', 0, -2)
add_it(objs, 'bobo$o$o$o2bo$3o!', 0, 2)
add_it(objs, 'o2bo$4bo$o3bo$b4o!', 2, 0)
add_it(objs, 'bo2bo$o$o3bo$4o!', -2, 0)
site_step = 0
rect = g.getselrect()
if not rect:
site_step = find_best_selection()
rect = g.getselrect()
if not rect:
g.exit(
"No selection. Could not locate a valid separation and offset automatically."
)
g.fitsel()
g.update()
if site_step == 0:
site_step = int(g.getstring("Enter step between construction sites"))
delay2 = int(
g.getstring(
"Enter delay for 2nd construction (only relevant for spaceships)",
dict_lc={'BDRainbow':[2,4],'BGRainbowR2':[2,4]}
live_cells=dict_lc[g.getrule().split(':')[0]]
if sel:
clist=g.getcells(g.getselrect())
else:
clist=g.getcells(g.getrect())
return sum(clist[2::3].count(x) for x in live_cells)
dict_lc={'BDRainbow':[2,4],'BGRainbowR2':[2,4]}
input=(g.getstring('How many steps?/similarity distance?','2000/1'))
numsteps=int(input.split('/')[0])
dmax=int(input.split('/')[1])
sel=(g.getselrect()!=[])
rule=g.getrule().split(':')[0]
if rule in dict_lc:
popfunc=lambda:popcount(sel)
else:
popfunc=lambda:int(g.getpop())
poplist=[]
dpoplist=[]
hashlist=[int(g.hash(g.getrect()))]
popold=int(popfunc())
poplist.append(popold)
if selrect[1] < gridt:
selrect[1] = gridt
y = selrect[1] + yoffset
elif selrect[1] + selrect[3] - 1 > gridb:
selrect[1] = gridb + 1 - selrect[3]
y = selrect[1] + yoffset
g.select(selrect)
oldcells = g.getcells(selrect)
g.putcells(selpatt, x - firstx, y - firsty)
oldmouse = mousepos
g.update()
# ------------------------------------------------------------------------------
selrect = g.getselrect()
if len(selrect) == 0: g.exit("There is no selection.")
selpatt = g.getcells(selrect)
# remember initial selection in case user aborts script
firstrect = g.getselrect()
firstpatt = g.getcells(selrect)
g.show("Click anywhere in selection, move mouse and click again..." + helpmsg)
oldcursor = g.getcursor()
g.setcursor("Move")
oldcells = []
try:
aborted = True
moveselection()
def main(step=1, start=0):
global bound, expand, duration
# get selection and set to boundary
bound = g.getselrect()
if duration == None:
duration = int(g.getgen())
if isReset:
g.reset()
if len(bound) == 0:
g.note("No selection.")
g.exit()
# get current Golly states
bound[0] -= expand
bound[1] -= expand
bound[2] += expand * 2
bound[3] += expand * 2
left = bound[0]
top = bound[1]
width = bound[2]
height = bound[3]
palette = getPalette()
cells = g.getcells(bound)
isMultiStates = len(cells) % 2 == 1
cellW = 3 if isMultiStates else 2
# create image and destination directory
dstDir = "%s/%s" % (exportDir, name)
if not os.path.exists(dstDir):
os.makedirs(dstDir)
# else:
# g.note( "destination folder already exists" )
# g.exit()
# log( cells )
for i in xrange(duration):
g.show("Processing... %d / %d" % (i + 1, duration))
g.run(1)
g.update()
cells = g.getcells(bound)
# create image
img = Image.new("RGB", (width, height))
cellLen = int(floor(len(cells) / cellW) * cellW)
for i in xrange(0, cellLen, cellW):
x = cells[i]
y = cells[i + 1]
state = cells[i + 2] if isMultiStates else 1
img.putpixel((x - left, y - top), palette[state])
# save
gen = int(g.getgen())
img.save("%s/%s_%08d.png" % (dstDir, name, gen))
# Tile current selection with pattern inside selection. # Author: Andrew Trevorrow ([email protected]), March 2006. # Updated to use exit command, Nov 2006. # Updated to handle multi-state patterns, Aug 2008. from glife import * import golly as g selrect = rect( g.getselrect() ) if selrect.empty: g.exit("There is no selection.") selpatt = pattern( g.getcells(g.getselrect()) ) if len(selpatt) == 0: g.exit("No pattern in selection.") # determine if selpatt is one-state or multi-state inc = 2 if len(selpatt) & 1 == 1: inc = 3 # ------------------------------------------------------------------------------ def clip_left (patt, left): clist = list(patt) # remove padding int if present if (inc == 3) and (len(clist) % 3 == 1): clist.pop() x = 0 while x < len(clist): if clist[x] < left: clist[x : x+inc] = [] # remove cell from list else:
def fit_if_not_visible():
# fit pattern in viewport if not empty and not completely visible
r = rect(g.getselrect())
if (not r.empty) and (not r.visible()): g.fit()
def burp():
test_signal=pattern("""
40bo$41bo$39b3o17$40bo4bo4bo4bo4bo$41bo4bo4bo4bo4bo$39b3o2b3o2b3o2b3o
2b3o3$40bo4bo4bo4bo4bo$41bo4bo4bo4bo4bo$39b3o2b3o2b3o2b3o2b3o3$40bo4bo
4bo4bo4bo$41bo4bo4bo4bo4bo$39b3o2b3o2b3o2b3o2b3o3$40bo4bo4bo4bo4bo$41b
o4bo4bo4bo4bo$39b3o2b3o2b3o2b3o2b3o3$bo38bo4bo4bo4bo4bo18bo$2bo38bo4bo
4bo4bo4bo18bo$3o36b3o2b3o2b3o2b3o2b3o16b3o37$40bo$41bo$39b3o!""")
prepare_burp()
ticks=0
tickstep=5
last_signal=-99999
viewport_speed=16
sel_speed=0.0
delta_sel=0.0
delay=-1.0
run_flag=False
ch=""
selx=600.0
sely=365.0
place_signal=3
helpstring="""Use ENTER and SPACE to run or halt the pattern;
use + and - to change the step size or delay value;
use arrow keys and mouse tools to pan and zoom in any pane;
T toggles between a tiled view and a single-pane view;
S creates another signal fleet near the detection mechanism;
R resets the Heisenburp device to its initial state;
Q quits out of the script and restores original settings."""
instr="Press H for help. "
g.show(instr + str(tickstep))
g.select([selx,sely,50,50])
# keyboard handling
while ch<>"q":
if place_signal>0:
if ticks-last_signal>1846:
test_signal.put(-150,60)
last_signal=ticks
place_signal-=1
if place_signal>0 and run_flag==True:
show_status_text("Next signal placement in " \
+ str(1847 - ticks + last_signal) + " ticks. " + instr, delay, tickstep)
else:
show_status_text(instr,delay,tickstep)
event = g.getevent()
if event.startswith("key"):
evt, ch, mods = event.split()
else:
ch = ""
if ch=="r":
prepare_burp()
ticks=0
last_signal=-99999
viewport_speed=16
sel_speed=0
run_flag=False
selx=600.0
sely=365.0
place_signal=3
g.select([selx,sely,50,50])
elif ch=="h":
g.note(helpstring)
elif ch=="t":
g.setoption("tilelayers",1-g.getoption("tilelayers"))
elif ch=="=" or ch=="+":
if delay>.01:
delay/=2
elif delay==.01:
delay=-1
else:
if tickstep==1:
tickstep=3
elif tickstep<250:
tickstep=(tickstep-1)*2+1
elif ch=="-" or ch=="_":
if delay==-1:
if tickstep==1:
delay=.01
else:
if tickstep==3:
tickstep=1
else:
tickstep=(tickstep-1)/2+1
else:
if delay<1:
delay*=2
elif ch=="space":
run_flag=False
elif ch=="return":
run_flag=not run_flag
elif ch=="s":
place_signal+=1
else:
# just pass any other keyboard/mouse event through to Golly
g.doevent(event)
# generation and selection speed handling
if ch=="space" or run_flag==True:
g.run(tickstep)
currlayer = g.getlayer()
if currlayer != 4:
# user has switched layer so temporarily change it back
# so we only change location of bottom right layer
g.check(False)
g.setlayer(4)
x, y = getposint()
oldticks=ticks
ticks+=tickstep
delta_view=int(ticks/viewport_speed) - int(oldticks/viewport_speed)
if delta_view <> 0: # assumes diagonal motion for now
setposint(x + delta_view, y + delta_view)
sel = g.getselrect()
if len(sel)<>0:
x, y, w, h = sel
if int(selx)<>x: # user changed selection
# prepare to move new selection instead (!?!)
# -- use floating-point selx, sely to account for fractional speeds
selx=x
sely=y
else:
selx+=sel_speed*tickstep
sely+=sel_speed*tickstep
g.select([selx, sely, w, h])
else:
g.select([selx, sely, 50, 50])
if currlayer != 4:
g.setlayer(currlayer)
g.check(True)
# change viewport speed at appropriate times to follow the action
if oldticks<4570 and ticks>=4570:
sel_speed=.666667
# one-time correction to catch up with the signal at high sim speeds
g.select([600+(ticks-4570)*1.5, 365+(ticks-4570)*1.5, w, h])
if selx>2125:
sel_speed=0
g.select([2125, sely+2125-selx, w, h])
if oldticks<4750 and ticks>=4750: viewport_speed=1.5
if oldticks<6125 and ticks>=6125: viewport_speed=16
if oldticks>=11995: viewport_speed=99999.9
# stop automatically after the last signal passes through the device
if oldticks - last_signal<8705 and ticks - last_signal>=8705:
run_flag=False
if run_flag==True and delay>0:
sleep(delay)
g.update()
def Main(self):
g.show("left click on a pattern to change, 'h' for help")
gollyMode = False
while True:
event = g.getevent()
if ("key" in event and "return" in event) or (gollyMode and " a " in event):
gollyMode = not gollyMode
if gollyMode:
g.show("In golly mode")
g.update()
else:
g.show("left click on a pattern, right click to finish")
g.setrule("B3/S23")
g.setalgo("HashLife")
g.reset()
g.update()
continue
if gollyMode:
if " delete " in event:
g.clear(0)
if "click" in event and "ctrl" in event and g.getxy() != "":
x, y = g.getxy().split()
cell = g.getcell(int(x), int(y))
if cell >= 0 and cell <= 1:
g.setcell(int(x), int(y), 1 - cell)
g.update()
if " c " in event and "ctrl" in event and g.getselrect() != []:
g.copy()
if " v " in event and "ctrl" in event and g.getxy() != "":
x, y = g.getxy().split()
g.paste(int(x), int(y), "or")
if " space " in event:
if "ctrl" in event:
g.run(10)
else:
g.run(1)
g.doevent(event)
continue
if "click" in event:
if "left" in event:
if self.ExistinCircuitHandler() == None:
if self.SignalClickHandler(event) == None:
g.show("left click on a pattern, h for help")
elif "key" in event:
if " space " in event:
for i in xrange(0, 30):
g.run(60)
g.update()
g.reset()
g.update()
if " a " in event:
if g.getrule() == "Perrier":
g.setrule("B3/S23")
g.setalgo("HashLife")
g.update()
else:
g.setrule("Perrier")
for key in self.smarCells:
x, y = key.split(":")
g.setcell(int(x), int(y), self.smarCells[key] + 2)
gollyMode = True
g.show("In golly mode")
g.update()
if " s " in event:
fname = os.path.join(g.getdir("data"), "MetadataManager.json")
#self.Save(fname)
if " h " in event:
noteMessage = "Viewing and Selecting\n\n"
noteMessage += "'left click' to chose gun or glider\n"
noteMessage += "'a' to see in colors, a to go back \n"
noteMessage += "'space' see ahead 1800 generations \n"
noteMessage += "'enter' gollyMode, stays in the script \n"
noteMessage += "\n Editing Gun \n\n"
noteMessage += "'left click' to place\n"
noteMessage += "'right click' to switch gun/orientation \n"
noteMessage += "'delete' to delete the gun \n"
noteMessage += "'left-right arrow' - one step adjustment\n"
noteMessage += "\n In Golly Mode \n\n"
noteMessage += "'delete' to clear selection\n"
noteMessage += "'ctrl' + 'click' to draw \n"
noteMessage += "'ctrl' + 'c' to copy selection \n"
noteMessage += "'ctrl' + 'v' to paste in mouse location \n"
noteMessage += "'space' + to run 1 generation \n"
noteMessage += "'ctrl' +'space' to run 10 generations \n"
g.note(noteMessage)
# Metafier V2: writes directly to output.mc
# Uses numpy and memoization to speed up a crap ton & compress data a bit
# ===REQUIRES metatemplate11.mc===
import golly as g
import numpy as np
from shutil import copyfile
#Get the selection
selection = g.getselrect()
if not selection: g.exit("No selection.")
#Get the cells in the selection
cells = g.getcells(selection)
if not cells: g.exit("No pattern in selection")
if len(cells) % 3: cells = cells[:-1]
selw = selection[2]
selh = selection[3]
patternsize = 1 << int(np.ceil(np.log2(selh | selw)))
metapattern = np.zeros((patternsize, patternsize))
#Pseudo-convolution, to detect diagonal neighbors
# +1 +0 +2
# +0 *16 +0
# +4 +0 +8
for cell in np.reshape(cells, (-1, 3)):
selx = cell[0] - selection[0]
sely = cell[1] - selection[1]
cells_dict = dict.fromkeys(zip(cells[::2], cells[1::2]))
for x, y in zip(cells[::2], cells[1::2]):
glider_dict = dict.fromkeys([(x, y), (x, y + 2), (x + 1, y + 1),
(x + 1, y + 2), (x + 2, y + 1)])
spot = product(range(x - 1, x + 4), range(y - 1, y + 4))
if all([((i, j) in cells_dict) is ((i, j) in glider_dict)
for i, j in spot]):
gliders.append((x, y))
return gliders
def compute_invariants(glider_pair):
(x1, y1, t1), (x2, y2, t2) = glider_pair
dx = x2 - x1
dy = y2 - y1
dt = t2 - t1
hd = dx - dy
tr = float(hd) / 2 * 47
return [abs(dt - 4 * dy - tr), abs(4 * dx - dt - tr)]
invariants = get_invariants(g.getcells(g.getselrect()))
g.show(' '.join([str(item) for item in invariants]))
import golly as g
catdir = '/home/scorbie/Apps/ptbtest/cats'
r = g.getselrect()
if len(r)==0:
r=g.getrect()
if len(r)==0:
g.exit('No pattern, nothing to do.')
sel = g.getcells(r)
if len(sel)==0:
g.exit('Nothing in selection.')
if g.getrule() != 'LifeHistory':
g.exit('The rule should be in LifeHistory.')
# Get catalyst in various positions
if g.getselrect() != []:
g.shrink()
pattern = g.getcells(r)
patrlelist = []
translist =[(1,0,0,1), (1,0,0,-1), (-1,0,0,1), (-1,0,0,-1),
(0,1,1,0), (0,-1,1,0), (0,1,-1,0), (0,-1,-1,0)]
# Get unique transformed patterns
for trans in translist:
g.new('')
g.putcells(g.transform(pattern, 0, 0, *trans))
g.select(g.getrect())
g.copy()
patrle = ''.join(g.getclipstr().split('\n')[1:])
if patrle not in patrlelist:
newlist.append(temp[0] + x)
newlist.append(temp[1] + y)
newlist.append(temp[2])
newlist.append(0)
return newlist
input = g.getstring(
'what cell state to screen for/ \n \
treat selection as torus?/ \n \
how many repeating units?',
'%s/%s/%s' % (g.getoption("drawingstate"), '1', '2'))
state = int(input.split('/')[0])
torus = int(input.split('/')[1])
n = int(input.split('/')[2])
pbox = g.getselrect()
clist = getquad(pbox, n=n)
g.setclipstr(str(clist))
parsed_clist = parse_list(clist)
g.show('clist %i %s, parsed_clist %i %s' %
(len(clist), str(clist), len(parsed_clist), str(parsed_clist)))
fclist = full_clist(parsed_clist, pbox)
adjmat = adjacencymatrix(parsed_clist, pbox, torus, n=n)
s = mathematica(str(adjmat))
g.setclipstr(s)
# Make a pattern from states 1 and 0, select it and then
# run this script to make a Codd CA pattern that will then
# construct the pattern. The constructor will then attempt
# to inject sheathing and triggering signals to a point one
# up from the pattern's bottom-left corner.
#
# See example: Patterns/Codd/golly-constructor.rle
#
# Tim Hutton <*****@*****.**>
from glife import rect
from time import time
import golly as g
r = rect( g.getselrect() )
if r.empty: g.exit("There is no selection.")
oldsecs = time()
maxstate = g.numstates() - 1
# these are the commands:
extend = '70116011'
extend_left = '4011401150116011'
extend_right = '5011501140116011'
retract = '4011501160116011'
retract_left = '5011601160116011'
retract_right = '4011601160116011'
mark = '701160114011501170116011'
erase = '601170114011501160116011'
sense = '70117011'
cap = '40116011'
# A randomized rectangle filler for use with Golly. # Author: Nathaniel Johnston ([email protected]), June 2009. # # Even though Golly comes built-in with the golly.randfill() function, there # does not seem to be a way to seed that function, so you get the same sequence # of random rectangles every time you reload Golly. This script eliminates that # problem. import golly as g import random g.note(str(g.getcells(g.getselrect())))
return [ item for item in invariants if item not in seen and not seen.add(item) ]
def find_all_gliders(cells):
gliders = []
cells_dict = dict.fromkeys(zip(cells[::2], cells[1::2]))
for x, y in zip(cells[::2], cells[1::2]):
glider_dict = dict.fromkeys([(x, y), (x, y+2), (x+1, y+1), (x+1, y+2), (x+2, y+1)])
spot = product(range(x-1, x+4), range(y-1, y+4))
if all([ ((i, j) in cells_dict) is ((i, j) in glider_dict) for i, j in spot ]):
gliders.append( (x, y) )
return gliders
def compute_invariants(glider_pair):
(x1, y1, t1), (x2, y2, t2) = glider_pair
dx = x2 - x1
dy = y2 - y1
dt = t2 - t1
hd = dx - dy
tr = float(hd) / 2 * 47
return [abs(dt - 4 * dy - tr), abs(4 * dx - dt - tr)]
invariants = get_invariants(g.getcells(g.getselrect()))
g.show(' '.join([str(item) for item in invariants]))
def oscillating():
# return True if the pattern is empty, stable or oscillating
# first get current pattern's bounding box
csel = g.getselrect()
g.shrink()
prect = g.getselrect()
g.select(csel)
pbox = rect(prect)
if pbox.empty:
g.show("The pattern is empty.")
return True
# get current pattern and create hash of "normalized" version -- ie. shift
# its top left corner to 0,0 -- so we can detect spaceships and knightships
## currpatt = pattern( g.getcells(prect) )
## h = hash( tuple( currpatt(-pbox.left, -pbox.top) ) )
# use Golly's hash command (3 times faster than above code)
h = g.hash(prect)
# check if outer-totalistic rule has B0 but not S8
rule = g.getrule().split(":")[0]
hasB0notS8 = rule.startswith("B0") and (rule.find("/") >
1) and not rule.endswith("8")
# determine where to insert h into hashlist
pos = 0
listlen = len(hashlist)
while pos < listlen:
if h > hashlist[pos]:
pos += 1
elif h < hashlist[pos]:
# shorten lists and append info below
del hashlist[pos:listlen]
del genlist[pos:listlen]
del poplist[pos:listlen]
del boxlist[pos:listlen]
break
else:
# h == hashlist[pos] so pattern is probably oscillating, but just in
# case this is a hash collision we also compare pop count and box size
if (pbox.wd == boxlist[pos].wd) and \
(pbox.ht == boxlist[pos].ht):
# (int(g.getpop()) == poplist[pos])
period = int(g.getgen()) - genlist[pos]
if hasB0notS8 and (period % 2 > 0) and (pbox == boxlist[pos]):
# ignore this hash value because B0-and-not-S8 rules are
# emulated by using different rules for odd and even gens,
# so it's possible to have identical patterns at gen G and
# gen G+p if p is odd
return False
if period == 1:
if pbox == boxlist[pos]:
g.show("The pattern is stable.")
else:
show_spaceship_speed(1, 0, 0)
elif pbox == boxlist[pos]:
g.show("Oscillator detected (period = " + str(period) +
")")
else:
deltax = abs(boxlist[pos].x - pbox.x)
deltay = abs(boxlist[pos].y - pbox.y)
show_spaceship_speed(period, deltax, deltay)
return True
else:
# look at next matching hash value or insert if no more
pos += 1
# store hash/gen/pop/box info at same position in various lists
hashlist.insert(pos, h)
genlist.insert(pos, int(g.getgen()))
poplist.insert(pos, int(g.getpop()))
boxlist.insert(pos, pbox)
return False
from glife import validint, inside
from string import lower
import golly as g
import math
rules = ("JvN29", "Nobili32", "Hutton32")
rule = g.getrule ()
if rule not in rules:
g.exit ("Invalid rule: " + rule + " (must be " + rules + ")")
rect = g.getselrect ()
if len (rect) == 0:
g.exit ("There is no selection.")
answer = g.getstring("Enter direction to rotate in\n" +
"(valid rotations are cw and ccw, default is cw):",
"cw",
"Rotate selection")
if answer != "cw" and answer != "ccw":
g.exit ("Unknown direction: " + answer + " (must be cw/ccw)")
cells = g.getcells (rect)
jvn_rotate = (( 9, 12, 11, 10),
(13, 16, 15, 14),
(17, 20, 19, 18),
(21, 24, 23, 22))
def rotated (rotations, direction, state):
if selrect[1] < gridt:
selrect[1] = gridt
y = selrect[1] + yoffset
elif selrect[1] + selrect[3] - 1 > gridb:
selrect[1] = gridb + 1 - selrect[3]
y = selrect[1] + yoffset
g.select(selrect)
oldcells = g.getcells(selrect)
g.putcells(selpatt, x - firstx, y - firsty)
oldmouse = mousepos
g.update()
# ------------------------------------------------------------------------------
selrect = g.getselrect()
if len(selrect) == 0: g.exit("There is no selection.")
selpatt = g.getcells(selrect)
# remember initial selection in case user aborts script
firstrect = g.getselrect()
firstpatt = g.getcells(selrect)
g.show("Click anywhere in selection, move mouse and click again..." + helpmsg)
oldcursor = g.getcursor()
g.setcursor("Move")
oldcells = []
try:
aborted = True
moveselection()
# Calculates the density of live cells in the current pattern. # Author: Andrew Trevorrow ([email protected]), March 2006. # Updated to use exit command, Nov 2006. import golly as g from glife import * from utils import * def popcount(sel=0): dict_lc = {'BDRainbow': [2, 4], 'BGRainbowR2': [2, 4]} live_cells = dict_lc[g.getrule().split(':')[0]] if not sel: clist = g.getcells(g.getrect()) else: clist = g.getcells(g.getselrect()) return sum(clist[2::3].count(x) for x in live_cells) pop = popcount(sel=1) medium = int(len(g.getcells(g.getselrect())) / 3) density = float(pop) / float(medium) * 100 g.setclipstr(str(density)) g.show('density=%i/100,pop=%i,medium=%i' % (density, pop, medium))
# Fill clicked region with current drawing state. # Author: Andrew Trevorrow ([email protected]), Jan 2011. import golly as g from time import time def fill(rectcoords): newstate = g.getoption("drawingstate") for i in range(rectcoords[0],rectcoords[0]+rectcoords[2]): for j in range(rectcoords[1],rectcoords[1]+rectcoords[3]): g.setcell(i, j, newstate) try: sel=g.getselrect() fill(sel) except: g.show('no selection')
def burp():
test_signal=pattern("""
40bo$41bo$39b3o17$40bo4bo4bo4bo4bo$41bo4bo4bo4bo4bo$39b3o2b3o2b3o2b3o
2b3o3$40bo4bo4bo4bo4bo$41bo4bo4bo4bo4bo$39b3o2b3o2b3o2b3o2b3o3$40bo4bo
4bo4bo4bo$41bo4bo4bo4bo4bo$39b3o2b3o2b3o2b3o2b3o3$40bo4bo4bo4bo4bo$41b
o4bo4bo4bo4bo$39b3o2b3o2b3o2b3o2b3o3$bo38bo4bo4bo4bo4bo18bo$2bo38bo4bo
4bo4bo4bo18bo$3o36b3o2b3o2b3o2b3o2b3o16b3o37$40bo$41bo$39b3o!""")
prepare_burp()
ticks=0
tickstep=5
last_signal=-99999
viewport_speed=16
sel_speed=0.0
delta_sel=0.0
delay=-1.0
run_flag=False
ch=""
selx=600.0
sely=365.0
place_signal=3
helpstring="""Use ENTER and SPACE to run or halt the pattern;
use + and - to change the step size or delay value;
use arrow keys and mouse tools to pan and zoom in any pane;
T toggles between a tiled view and a single-pane view;
S creates another signal fleet near the detection mechanism;
R resets the Heisenburp device to its initial state;
Q quits out of the script and restores original settings."""
instr="Press H for help. "
g.show(instr + str(tickstep))
g.select([selx,sely,50,50])
# keyboard handling
while ch<>"q":
if place_signal>0:
if ticks-last_signal>1846:
test_signal.put(-150,60)
last_signal=ticks
place_signal-=1
if place_signal>0 and run_flag==True:
show_status_text("Next signal placement in " \
+ str(1847 - ticks + last_signal) + " ticks. " + instr, delay, tickstep)
else:
show_status_text(instr,delay,tickstep)
event = g.getevent()
if event.startswith("key"):
evt, ch, mods = event.split()
else:
ch = ""
if ch=="r":
prepare_burp()
ticks=0
last_signal=-99999
viewport_speed=16
sel_speed=0
run_flag=False
selx=600.0
sely=365.0
place_signal=3
g.select([selx,sely,50,50])
elif ch=="h":
g.note(helpstring)
elif ch=="t":
g.setoption("tilelayers",1-g.getoption("tilelayers"))
elif ch=="=" or ch=="+":
if delay>.01:
delay/=2
elif delay==.01:
delay=-1
else:
if tickstep==1:
tickstep=3
elif tickstep<250:
tickstep=(tickstep-1)*2+1
elif ch=="-" or ch=="_":
if delay==-1:
if tickstep==1:
delay=.01
else:
if tickstep==3:
tickstep=1
else:
tickstep=(tickstep-1)/2+1
else:
if delay<1:
delay*=2
elif ch=="space":
run_flag=False
elif ch=="return":
run_flag=not run_flag
elif ch=="s":
place_signal+=1
else:
# just pass any other keyboard/mouse event through to Golly
g.doevent(event)
# generation and selection speed handling
if ch=="space" or run_flag==True:
g.run(tickstep)
currlayer = g.getlayer()
if currlayer != 4:
# user has switched layer so temporarily change it back
# so we only change location of bottom right layer
g.check(False)
g.setlayer(4)
x, y = getposint()
oldticks=ticks
ticks+=tickstep
delta_view=int(ticks/viewport_speed) - int(oldticks/viewport_speed)
if delta_view <> 0: # assumes diagonal motion for now
setposint(x + delta_view, y + delta_view)
sel = g.getselrect()
if len(sel)<>0:
x, y, w, h = sel
if int(selx)<>x: # user changed selection
# prepare to move new selection instead (!?!)
# -- use floating-point selx, sely to account for fractional speeds
selx=x
sely=y
else:
selx+=sel_speed*tickstep
sely+=sel_speed*tickstep
g.select([selx, sely, w, h])
else:
g.select([selx, sely, 50, 50])
if currlayer != 4:
g.setlayer(currlayer)
g.check(True)
# change viewport speed at appropriate times to follow the action
if oldticks<4570 and ticks>=4570:
sel_speed=.666667
# one-time correction to catch up with the signal at high sim speeds
g.select([600+(ticks-4570)*1.5, 365+(ticks-4570)*1.5, w, h])
if selx>2125:
sel_speed=0
g.select([2125, sely+2125-selx, w, h])
if oldticks<4750 and ticks>=4750: viewport_speed=1.5
if oldticks<6125 and ticks>=6125: viewport_speed=16
if oldticks>=11995: viewport_speed=99999.9
# stop automatically after the last signal passes through the device
if oldticks - last_signal<8705 and ticks - last_signal>=8705:
run_flag=False
if run_flag==True and delay>0:
sleep(delay)
g.update()
# should be deleted so the script can re-generate them.
#
# 3 July 2007: added code to avoid errors in rules like Seeds,
# where the Golly canonical form of the rule doesn't include a '/'
#
# Modified by Andrew Trevorrow, 20 July 2006 (faster, simpler and
# doesn't change the current clipboard).
#
# Modified by Andrew Trevorrow, 5 October 2007 (metafied pattern is
# created in a separate layer so we don't clobber the selection).
import os
import golly as g
from glife import *
selrect = g.getselrect()
if len(selrect) == 0: g.exit("There is no selection.")
# check that a layer is available for the metafied pattern;
# if metafied layer already exists then we'll use that
layername = "metafied"
metalayer = -1
for i in xrange(g.numlayers()):
if g.getname(i) == layername:
metalayer = i
break
if metalayer < 0 and g.numlayers() == g.maxlayers():
g.exit("You need to delete a layer.")
# note that getrule returns canonical rule string
rulestr = g.getrule().split(":")[0]
def boxdm(orientation):
if not g.empty():
shrink()
return g.getselrect()[orientation]
else:
return 0
if g.empty(): g.exit("There is no pattern.")
if g.numstates() == 256: g.exit("No room for extra state.")
# check that a layer is available for the histogram
histname = "histogram"
histlayer = -1
for i in xrange(g.numlayers()):
if g.getname(i) == histname:
histlayer = i
break
if histlayer == -1 and g.numlayers() == g.maxlayers():
g.exit("You need to delete a layer.")
# use selection rect if it exists, otherwise use pattern bounds
label = "Selection"
r = rect(g.getselrect())
if r.empty:
label = "Pattern"
r = rect(g.getrect())
# count all cell states in r
g.show("Counting cell states...")
counted = 0
totalcells = r.wd * r.ht
statecount = [0] * g.numstates()
oldsecs = time()
for row in xrange(r.top, r.top + r.height):
for col in xrange(r.left, r.left + r.width):
counted += 1
statecount[g.getcell(col, row)] += 1
newsecs = time()
def area():
if not g.empty():
shrink()
return g.getselrect()[2] * g.getselrect()[3]
else:
return 0
