def read_art(art_name):
check_ext(art_name, '.ART')
verbose = 0
parts = read_madspack(art_name)
save_madspack(art_name, parts)
# parts[0] -- dimensions + palette
# parts[1] -- image data
# header
h = Header()
h.width = read_uint16(parts[0])
h.height = read_uint16(parts[0])
save_header(art_name, h)
# palette
pal = read_palette_rex(parts[0])
export_palette(pal, art_name)
# image -- read indexed image
img = Image.new('P', (h.width, h.height))
attach_palette(img, pal)
pix = img.load()
for j in range(h.height):
for i in range(h.width):
ind = read_uint8(parts[1])
pix[i, j] = ind
save_image(art_name, img)
def read_pik(pik_name): check_ext(pik_name, '.PIK') parts = read_madspack(pik_name) assert len(parts) >= 3 save_madspack(pik_name, parts) h = read_pik_header(parts[0]) pal = read_palette_col(parts[2]) img = read_pik_image(parts[1], h, pal) save_image(pik_name, img)
def read_cnv(cnv_name):
check_ext(cnv_name, '.CNV')
parts = read_madspack(cnv_name)
assert len(parts) == 7
save_madspack(cnv_name, parts)
h = read_cnv_header(cnv_name)
save_cnv_header(cnv_name, h)
msgs = read_cnv_messages(cnv_name, h.msg_count)
save_cnv_messages(cnv_name, msgs)
def read_aa(aa_name):
assert aa_name.endswith('.AA')
parts = read_madspack(aa_name)
assert len(parts) >= 1
save_madspack(aa_name, parts)
h = read_aa_header(aa_name)
save_aa_header(aa_name, h)
if len(parts) > 1:
msgs = read_aa_messages(aa_name, h.msg_count)
save_aa_messages(aa_name, msgs)
def read_aa(aa_name):
check_ext(aa_name, '.AA')
parts = read_madspack(aa_name)
assert len(parts) >= 1
save_madspack(aa_name, parts)
h = read_aa_header(aa_name)
save_aa_header(aa_name, h)
if len(parts) > 1:
msgs = read_aa_messages(aa_name, h.msg_count)
save_aa_messages(aa_name, msgs)
def read_ss(f, ss_name):
"""
SS file is a MADSPACK file with 4 parts:
* part 0
header
mode -- part3 encoding
0 -- linemode
1 -- FAB and linemode
count -- number of sprites
size -- size of part3
* part 1
is composed of tile_headers, there can be many tiles in one file
ntiles = len(part2) / 0x00000010
* part 2
palette
* part 3
image data, may contain many tiles
Tiles are compressed with linemode|command encoding. Colors are stored
in indexed mode. Each pixel line begins with linemode.
Linemodes/commands:
lm cm description
------------------------------------------------------------------------
255 fill rest of the line with bg color and read linemode
252 stop
254 pixel mode
254 255 fill rest of the line with bg color and read linemode
254 254 len col produce len * [col] pixels, read command
254 col produce [col] pixel, read command
253 multiple pixels mode
253 255 fill rest of the line with bg color and read linemode
253 len col produce len * [col] pixels, read command
"""
verbose = 0
parts = read_madspack(f)
save_madspack(ss_name, parts)
ss_header = read_ss_header(parts[0])
# save header
save_ss_header(ss_name, ss_header)
if verbose:
print("nsprites=", ss_header.nsprites)
sprite_headers = []
for i in range(ss_header.nsprites):
sprite_header = read_sprite_header(parts[1])
sprite_headers.append(sprite_header)
# save header
sprite_name = '{}.{:03}'.format(ss_name, i)
save_sprite_header(sprite_name, sprite_header)
pal = read_pallete(parts[2])
sprites = []
for i, sprite_header in enumerate(sprite_headers):
sprite = read_sprite(sprite_header, parts[3], pal, mode = ss_header.mode)
sprites.append(sprite)
# save sprite
sprite_name = '{}.{:03}'.format(ss_name, i)
save_sprite(sprite_name, sprite)
return sprites
def read_ff(ff_name):
"""
FF file: 1 part MADSPACK
header
max_height: 1 byte
max_width: 1 byte
glyphs widths: 128 bytes
glyphs offsets: 2 x 128 byte
glyphs
...
"""
check_ext(ff_name, '.FF')
parts = read_madspack(ff_name)
save_madspack(ff_name, parts)
f = parts[0]
# Header
h = Record()
h.max_height = read_uint8(f)
h.max_width = read_uint8(f)
# glyphs width in pixels
# glyph height is max_height
# null has width 0
h.char_widths = [0] + [read_uint8(f) for _ in range(127)]
read_uint8(f) # alignment to 128
# space occupied by glyph is
# math.ceil((glyph_width * max_height) / 4.0) # or is is rounded per line ?
# offsets inside section
h.char_offsets = [2 + 128 + 256] + [read_uint16(f) for _ in range(127)]
read_uint16(f) # alignment
assert f.tell() == 2 + 128 + 256
save_ff_header(ff_name, h)
# Glyphs
f.seek(h.char_offsets[1])
for ch in range(1,128):
width = h.char_widths[ch]
height = h.max_height
offset = h.char_offsets[ch]
assert f.tell() == offset
if width == 0:
continue
img = Image.new("P", (width,height))
attach_palette(img, pal)
y = 0
while y < height:
x = 0
while 1:
byte = read_uint8(f)
col = (byte & 0b11000000) >> 6
img.putpixel((x,y), col)
x += 1
if x == width:
break
col = (byte & 0b00110000) >> 4
img.putpixel((x,y), col)
x += 1
if x == width:
break
col = (byte & 0b00001100) >> 2
img.putpixel((x,y), col)
x += 1
if x == width:
break
col = (byte & 0b00000011) >> 0
img.putpixel((x,y), col)
x += 1
if x == width:
break
y += 1
oname = "{}.{:03}.png".format(ff_name, ch)
img.save(oname)
output(oname)
def read_ff(ff_name):
pal = [(0,0,0,0),(0,255,0,255),(0,127,0,255),(0,63,0,255)]
parts = read_madspack(ff_name)
save_madspack(ff_name, parts)
f = parts[0]
f.seek(0)
h = Record()
h.max_height = read_uint8(f)
h.max_width = read_uint8(f)
# glyphs width in pixels
# glyph height is max_height
# null has width 0
h.char_widths = [0] + read_bytes(f, 127)
read_uint8(f) # alignment to 128
# space occupied by glyph is
# math.ceil((glyph_width * max_height) / 4.0) # or is is rounded per line ?
# offsets inside section
h.char_offsets = [2 + 128 + 256] + [read_uint16(f) for _ in range(127)]
read_uint16(f) # alignment
assert f.tell() == 2 + 128 + 256
save_ff_header(ff_name, h)
# load glyphs
for ch in range(1,128):
width = h.char_widths[ch]
height = h.max_height
if width == 0:
continue
img = Image.new("RGBA", (width,height))
y = 0
while y < height:
x = 0
while 1:
byte = read_uint8(f)
col = pal[(byte & 0b11000000) >> 6]
img.putpixel((x,y), col)
x += 1
if x == width:
break
col = pal[(byte & 0b00110000) >> 4]
img.putpixel((x,y), col)
x += 1
if x == width:
break
col = pal[(byte & 0b00001100) >> 2]
img.putpixel((x,y), col)
x += 1
if x == width:
break
col = pal[(byte & 0b00000011) >> 0]
img.putpixel((x,y), col)
x += 1
if x == width:
break
y += 1
oname = "{}.{:03}.png".format(ff_name, ch)
img.save(oname)
output(oname)
def call(fmt,cmd,path):
odd = os.getcwd()
ndd,arg1 = os.path.split(path)
common.g_curr_dir = ndd
if ndd:
os.chdir(ndd)
try:
if cmd not in ['pack','unpack']:
print('invalid command; use "pack" or "unpack"')
sys.exit(1)
if fmt == 'dat':
if cmd == 'unpack':
read_messagesdat(open(arg1, 'rb'), arg1)
elif cmd == 'pack':
write_messagesdat(open(arg1, 'wb'), arg1)
elif fmt == 'hag':
if cmd == 'unpack':
read_madsconcat(open(arg1, 'rb'), arg1)
elif cmd == 'pack':
write_madsconcat(arg1)
elif fmt == 'ss':
if cmd == 'unpack':
read_ss(open(arg1, 'rb'), arg1)
elif cmd == 'pack':
write_ss(arg1)
else:
print(usage)
sys.exit(1)
elif fmt == 'fab':
if cmd == 'unpack':
read_fab_unrestricted(arg1)
elif cmd == 'pack':
print("fab compression? what for?")
# write_fab_unrestricted(arg1)
else:
print(usage)
sys.exit(1)
elif fmt == 'madspack':
if cmd == 'unpack':
save_madspack(arg1, read_madspack(open(arg1, 'rb')))
elif cmd == 'pack':
write_madspack(arg1, load_madspack(arg1))
else:
print(usage)
sys.exit(1)
elif fmt == 'aa':
if cmd == 'unpack':
read_aa(arg1)
elif cmd == 'pack':
write_aa(arg1)
else:
print(usage)
sys.exit(1)
elif fmt == 'ff':
if cmd == 'unpack':
read_ff(arg1)
elif cmd == 'pack':
write_ff(arg1)
else:
print(usage)
sys.exit(1)
else:
raise External('invalid format specification')
finally:
os.chdir(odd)
common.g_curr_dir = ''
