Upgraded Hatenatools to the latest version

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Rix565 authored and Peder B. Sundt committed 2020-12-17 16:35:20 +01:00
1 parent e21e637923
commit 545fd41b03
3 files changed
+442 -222

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+64 -32
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@@ -8,7 +8,7 @@
# -The guys behind TiledGGD. This sped up my work a lit.
# -Jsafive for supplying .ugo files
#
import sys, os
import sys, os, numpy as np
try:
import Image
hasPIL = True
@@ -87,7 +87,8 @@ class NTFT:
return False
#JUST DO IT!
self.Image = [[None for _ in xrange(h)] for _ in xrange(w)]
#self.Image = [[None for _ in xrange(h)] for _ in xrange(w)]
self.Image = np.zeros((w, h), dtype=">u4")
for y in xrange(h):
for x in xrange(w):
pos = (x + y*pw)*2
@@ -99,7 +100,8 @@ class NTFT:
g = (byte >> 5 & 0x1F) * 0xFF / 0x1F
r = (byte & 0x1F) * 0xFF / 0x1F
self.Image[x][y] = (r<<24) | (g<<16) | (b<<8) | a#RGBA8
#self.Image[x][y] = (r<<24) | (g<<16) | (b<<8) | a#RGBA8
self.Image[x, y] = (r<<24) | (g<<16) | (b<<8) | a#RGBA8
self.Loaded = True
return self
@@ -115,22 +117,24 @@ class NTFT:
if not self.Loaded:
return False
w = len(self.Image[0])
h = len(self.Image)
#h = len(self.Image[0])
#w = len(self.Image)
w, h = self.Image.shape
#the actual stored data is a image with the sizes padded to the nearest power of 2
psize = []
for i in size:
for i in (w, h):
p = 1
while 1<<p < i:
p += 1
padded_size.append(1<<p)
psize.append(1<<p)
out = []
for y in xrange(psize[1]):
for x in xrange(psize[0]):
#read
c = self.Image[clamp(x, 0, w-1)][clamp(y, 0, h-1)]
#c = self.Image[clamp(x, 0, w-1)][clamp(y, 0, h-1)]
c = self.Image[clamp(x, 0, w-1), clamp(y, 0, h-1)]
r = c >> 24
g = (c >> 16) & 0xFF
b = (c >> 8 ) & 0xFF
@@ -153,19 +157,24 @@ class NTFT:
#Function WriteImage:
#
# Writes a 2D list of uint32 RGBA values as a image files.
# Writes a 2D array of uint32 RGBA values as a image file.
# Designed to work with NTFT.Image
#
# This function requires the PIl imaging module
def WriteImage(image, outputPath):
if not hasPIL or not image: return False
if not hasPIL:
print "Error: PIL not found!"
return False
#if not image: return False
out = []
for y in xrange(len(image[0])):
for x in xrange(len(image)):
out.append(DecAsc(image[x][y], 4))
out = image.tostring("F")
out = Image.fromstring("RGBA", (len(image), len(image[0])), "".join(out))
# out = []
# for y in xrange(len(image[0])):
# for x in xrange(len(image)):
# out.append(DecAsc(image[x][y], 4))
out = Image.fromstring("RGBA", (len(image), len(image[0])), out)
filetype = outputPath[outputPath.rfind(".")+1:]
out.save(outputPath, filetype)
@@ -178,7 +187,7 @@ def WriteImage(image, outputPath):
# This can be passed into NTFT().SetImage()
#
# This function requires the PIl imaging module
def ReadImage(path):
def ReadImage(path):#TODO: make it support numpy
if not hasPIL: return False
image = Image.open(path)
@@ -192,12 +201,14 @@ def ReadImage(path):
def Combine((r, g, b, a)):
return (r << 24) | (g << 16) | (b << 8) | a
ret = []
#ret = []
ret = np.zeros((w, h), dtype=">u4")
for x in xrange(w):
line = []
#line = []
for y in xrange(h):
line.append(Combine(pixeldata[y*w + x]))
ret.append(line)
ret[x, y] = Combine(pixeldata[y*w + x])#maybe make a more numpy efficient way?
#line.append(Combine(pixeldata[y*w + x]))
#ret.append(line)
return ret
@@ -218,23 +229,22 @@ def ReadImage(path):
#i.Image = ReadImage("NTFTtests/geh.png")
#i.WriteFile("NTFTtests/geh.ntft")
if __name__ == "__main__":
print " == NTFT.py =="
print " == by pbsds =="
print " == v0.72 =="
print " == v0.95 =="
print
if not hasPIL:
print "PIL not found! Exiting..."
sys.exit()
if len(sys.argv) < 3:
if len(sys.argv) < 2:
print "Usage:"
print " NTFT.py <input> [<output> [<width> <height>]]"
print ""
print "Can convert a NTFT to PNG or the other way around."
print "if <output> isn't spesified it will be set to <input> with an another extention"
print "if <output> isn't specified it will be set to <input> with an another extension"
print ""
print "The NTFT file contain only the colordata, so it's up to the user to find or"
print "store the resolution of the image. <width> and <height> is required"
@@ -243,31 +253,53 @@ if __name__ == "__main__":
sys.exit()
input = sys.argv[1]
Encode = True#if false it'll decode
if input[-4:].lower == "ntft" or len(sys.argv) >= 5:
if input[-4:].lower() == "ntft" or len(sys.argv) >= 5:
print "Mode: NTFT -> image"
Encode = False
else:
print "Mode: image -> NTFT"
Encode = True#if false it'll decode
if len(sys.argv) >= 3:
output = sys.argv[2]
width, height = None, None
if len(sys.argv) >= 5:
if (not sys.argv[3].isdigit()) or (not sys.argv[4].isdigit()):
print "Invalid sizes"
print "Invalid size input!"
sys.exit()
width = int(sys.argv[3])
height = int(sys.argv[4])
else:
width, height = None, None
if not (width and height) and not Encode:
print "Image size not provided!"
sys.exit()
else:
output = ".".join(input.split(".")[:-1]) + (".ntft" if Encode else ".png")
print "Converting..."
if Encode:
try:
image = ReadImage(input)
except IOError as err:
print err
sys.exit()
i = NTFT()
i.Loaded = True
i.Image = ReadImage(input)
i.Image = image
i.WriteFile(output)
else:
WriteImage(NTFT().ReadFile(input, (width, height)).Image, output)
try:
ntft = NTFT().ReadFile(input, (width, height))
except IOError as err:
print err
sys.exit()
if not ntft:#eeror message already printed
sys.exit()
WriteImage(ntft.Image, output)
print "Done!"
+375 -187
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@@ -1,20 +1,39 @@
#!/usr/bin/env python
#PPM.py by pbsds for python 2.7
#AGPL3 licensed
#
#PIL is required to write images to disk
#Numpy is required
#PIL is needed to write images to disk
#
#Credits:
#
# -Steven for most of the documentation on DSiBrew and his frame decoding example on his talkpage
# -Remark for help on the 8x8 tiling on the preview image.
# -Jsafive for supplying .tmb files
# - Steven for most of the documentation on DSiBrew and his frame decoding example on his talkpage
# - Remark for help on the 8x8 tiling on the preview image.
# - Jsafive for supplying .tmb files
# - Austin Burk, Midmad on hatena haiku and WDLmaster on hcs64.com for determining the sound codec
#
import sys, wave#needs os and time aswell
import sys, wave, audioop, re, os #needs os and time aswell in CMD mode (UPDATE 2018/07/04: os used to get devnull for discarding subprocess output)
import numpy as np
import subprocess # used for ffmpeg
import tempfile, shutil # temporary directory whilst exporting, shutil to clean up after
import time
try:
import Image
from PIL import Image
hasPIL = True
except ImportError:
print "Warning: PIL not found, image extraction won't work!"
hasPIL = False
# Test for ffmpeg by executing ffmpeg -h; an OSError indicates ffmpeg is not installed
try:
with open(os.devnull,"w") as null:
subprocess.call(["ffmpeg","-h"],
stdout=null,
stderr=null)
hasffmpeg = True
except OSError:
print "Warning: ffmpeg not found, video export unavailable. Please make sure ffmepg is installed and can be accessed on your path."
hasffmpeg = False
#helpers:
def AscDec(ascii, LittleEndian=False):#Converts a ascii string into a decimal
@@ -46,6 +65,25 @@ def AddPadding(i,pad = 0x10):#used mainly for zipaligning offsets
return i + pad - (i % pad)
return i
#palettes:
FramePalette = [0xFFFFFFFF,0x000000FF,0xFF0000FF,0x0000FFFF]
ThumbPalette = (0xFEFEFEFF,#0
0x4F4F4FFF,#1
0xFFFFFFFF,#2
0x9F9F9FFF,#3
0xFF0000FF,#4
0x770000FF,#5
0xFF7777FF,#6
0x00FF00FF,#7-
0x0000FFFF,#8
0x000077FF,#9
0x7777FFFF,#A
0x00FF00FF,#B-
0xFF00FFFF,#C
0x00FF00FF,#D-
0x00FF00FF,#E-
0x00FF00FF)#F-
#Class PPM:
#
# With this class you can read a Flipnote PPM file into memory and get its attributes.
@@ -69,8 +107,9 @@ def AddPadding(i,pad = 0x10):#used mainly for zipaligning offsets
# - instance.OriginalFilename: The original filename
# - instance.CurrentFilename: The current filename
# - instance.Date: The date in seconds since January 1'st 2000
# - instance.GetThumbnail(): The thumbnail stored in a 2D list of uint32 RGBA values. Will decode it first if not done so already
# - instance.GetFrame(n): Returns the specified frame as a 2D list of uint32 RGBA values. Only works if ReadFrames was true when reading the PPM file
# - instance.GetThumbnail(): The thumbnail stored in a 2D list of uint32 RGBA values (>u4). Will decode it first if not done so already
# - instance.GetFrame(n): Returns the specified frame as a 2D list of uint32 RGBA values (>u4). Only works if ReadFrames was true when reading the PPM file
# - instance.GetSound(n): Returns the decoded sound. Index 0 is the BGM. 1, 2 and 3 are the SFXs. if outputpath is None, the raw mono PCM @ 8184Hz is returned instead as a string
# - instance.Looped: A boolean telling us wether it's looped or not
# - instance.SFXUsage: A list telling us when the different sound effects are used:
# instance.SFXUsage[frame] = [SFX1, SFX2, SFX3] where the SFX's are booleans
@@ -83,12 +122,13 @@ def AddPadding(i,pad = 0x10):#used mainly for zipaligning offsets
# To get a colored image of a frame, use instance.GetFrame()
# - instance.SoundData: A list contaning the raw data of the BGM and the 3 sound effects. Only available if ReadSound was true set to true
class PPM:
def __init__(self):
def __init__(self,forced_speed=None):
self.Loaded = [False, False, False]#(Meta, Frames, Sound)
self.Frames = None
self.Thumbnail = None
self.RawThumbnail = None
self.SoundData = None
self.forced_speed = forced_speed
def ReadFile(self, path, DecodeThumbnail=False, ReadFrames=True, ReadSound=False):#Load: (thumbnail, frames, sound)
f = open(path, "rb")
ret = self.Read(f.read(), DecodeThumbnail, ReadFrames, ReadSound)
@@ -116,8 +156,8 @@ class PPM:
self.OriginalFilenameC = data[0x66:0x78]#compressed
self.CurrentFilenameC = data[0x78:0x8a]#compressed
self.OriginalFilename = "%s_%s_%s.tmb" % (self.OriginalFilenameC[:3].encode("HEX").upper(), self.OriginalFilenameC[3:-2], str(AscDec(self.OriginalFilenameC[-2:], True)).zfill(3))
self.CurrentFilename = "%s_%s_%s.tmb" % (self.CurrentFilenameC[:3].encode("HEX").upper(), self.CurrentFilenameC[3:-2], str(AscDec(self.CurrentFilenameC[-2:], True)).zfill(3))
self.OriginalFilename = "%s_%s_%s.ppm" % (self.OriginalFilenameC[:3].encode("HEX").upper(), self.OriginalFilenameC[3:-2], str(AscDec(self.OriginalFilenameC[-2:], True)).zfill(3))
self.CurrentFilename = "%s_%s_%s.ppm" % (self.CurrentFilenameC[:3].encode("HEX").upper(), self.CurrentFilenameC[3:-2], str(AscDec(self.CurrentFilenameC[-2:], True)).zfill(3))
self.PreviousEditAuthorID = data[0x8a:0x92][::-1].encode("HEX").upper()#don't know what this really is
@@ -127,7 +167,7 @@ class PPM:
self.RawThumbnail = data[0xa0:0x6a0]
if DecodeThumbnail:
self.GetThumbnail()#self.Thumbnail[x][y] = uint32 RGBA
self.GetThumbnail()#self.Thumbnail[x, y] = uint32 RGBA
self.Loaded[0] = True
@@ -142,12 +182,17 @@ class PPM:
AscDec(data[AddPadding(AudioOffset+self.FrameCount, 4)+ 4:AddPadding(AudioOffset+self.FrameCount, 4)+ 8], True),#SFX1
AscDec(data[AddPadding(AudioOffset+self.FrameCount, 4)+ 8:AddPadding(AudioOffset+self.FrameCount, 4)+12], True),#SFX2
AscDec(data[AddPadding(AudioOffset+self.FrameCount, 4)+12:AddPadding(AudioOffset+self.FrameCount, 4)+16], True))#SFX3
if self.forced_speed == None:
self.Framespeed = 8 - ord(data[AddPadding(AudioOffset+self.FrameCount, 4) + 16])
else:
self.Framespeed = self.forced_speed
self.BGMFramespeed = 8 - ord(data[AddPadding(AudioOffset+self.FrameCount, 4) + 17])#framespeed when the bgm was recorded
## self.BGMFramespeed = self.forced_speed
#Read the Frames:
if ReadFrames:
self.Frames = []#self.Frames[frame] = [inverted(bool), (color1(0-2), color2(0-2)), frame[layer][x][y] = bool]
self.Frames = []#self.Frames[frame] = [inverted(bool), (color1(0-2), color2(0-2)), frame[layer, x, y] = bool]
for i, offset in enumerate(FrameOffsets):
#Read frame header:
Inverted = ord(data[offset]) & 0x01 == 0
@@ -184,52 +229,34 @@ class PPM:
pass
#Extracting:
def GetFrame(self, frame):#frame is the index in self.Frames. Only works if ReadFrames was True when reading the PPM file
global FramePalette
if not self.Loaded[1]: return None
Inverted, Colors, Frame = self.Frames[frame]
#Defines the palette:
Palette = [0xFFFFFFFF,0x000000FF,0xFF0000FF,0x0000FFFF]
Palette = FramePalette[:]
if Inverted:
Palette[0] = 0x000000FF
Palette[1] = 0xFFFFFFFF
Palette[0], Palette[1] = Palette[1], Palette[0]
Color1 = Palette[Colors[0]]
Color2 = Palette[Colors[1]]
out = []
for x in xrange(256):
out.append([])
for y in xrange(192):
if Frame[0][x][y]:#Color 1:
out[-1].append(Color1)
elif Frame[1][x][y]:#Color 2:
out[-1].append(Color2)
else:#background:
out[-1].append(Palette[0])
out = np.zeros((256, 192), dtype=">u4")
out[:] = Palette[0]
out[Frame[1]] = Color2
out[Frame[0]] = Color1
return out
def GetThumbnail(self, force=False):
if (not self.Thumbnail or force) and self.RawThumbnail:
if (self.Thumbnail is None or force):# and self.RawThumbnail:
global ThumbPalette
if not self.RawThumbnail:
return False
out = [[0 for _ in xrange(48)] for _ in xrange(64)]
palette = (0xFEFEFEFF,#0
0x4F4F4FFF,#1
0xFFFFFFFF,#2
0x9F9F9FFF,#3
0xFF0000FF,#4
0x770000FF,#5
0xFF7777FF,#6
0x00FF00FF,#7-
0x0000FFFF,#8
0x000077FF,#9
0x7777FFFF,#A
0x00FF00FF,#B-
0xFF00FFFF,#C
0x00FF00FF,#D-
0x00FF00FF,#E-
0x00FF00FF)#F-
out = np.zeros((64, 48), dtype=">u4")
#speedup:
palette = ThumbPalette
#8x8 tiling:
for ty in range(6):
@@ -238,12 +265,39 @@ class PPM:
for x in range(0,8,2):
#two colors stored in each byte:
byte = ord(self.RawThumbnail[(ty*512+tx*64+y*8+x)/2])
out[x+tx*8 ][y+ty*8] = palette[byte & 0xF]
out[x+tx*8+1][y+ty*8] = palette[byte >> 4]
out[x+tx*8 , y+ty*8] = palette[byte & 0xF]
out[x+tx*8+1, y+ty*8] = palette[byte >> 4]
self.Thumbnail = out
return self.Thumbnail
#sub functions:
def GetSound(self, index, outputpath=None):#index 0 is BGM. 1, 2 and 3 is SFX. if outputpath is None, the raw mono PCM @ 8184Hz is returned instead
if self.Loaded[2]:
if self.SoundData[index]:
#reverse nibbles:
data = []
for i in map(ord,self.SoundData[index]):
data.append(chr((i&0xF)<< 4 | (i>>4)))
data = "".join(data)
#4bit ADPCM decode
decoded = audioop.adpcm2lin(data, 2, None)[0]
#write to wav:
if outputpath:
f = wave.open(outputpath, "wb")
f.setnchannels(1)
f.setsampwidth(2)
f.setframerate(8192)#possibly 8184, but not a noticable difference anyway
f.writeframes(decoded)
#f.writeframes("".join(out))
f.close()
return True
else:
return decoded
else:
return False
#sub functions: (private)
def ExtractFrame(self, data, offset, PrevFrame=None):
#defines line encoding storage:
#Enc1 = [0 for i in range(192)]
@@ -253,7 +307,8 @@ class PPM:
#Color2Frame = [[0 for i in range(192)] for i in range(256)]
Encoding = [[], []]
Frame = [[[False for _ in xrange(192)] for _ in xrange(256)] for _ in xrange(2)]
#Frame = [[[False for _ in xrange(192)] for _ in xrange(256)] for _ in xrange(2)]
Frame = np.zeros((2, 256, 192), dtype=np.bool_)
#Read tags:
NewFrame = ord(data[offset]) & 0x80 <> 0
@@ -264,14 +319,15 @@ class PPM:
#WIP - framemove:
FrameMove = [0,0]
if Unknown & 0x2:#doesn't work 100%...
move = AscDec(data[offset:offset+2], True)
if move > 128:
FrameMove[0] = move - 256
else:
FrameMove[1] = 0-move
print "FrameMove at offset ",offset-1
move_x = AscDec(data[offset+0:offset+1], True)
move_y = AscDec(data[offset+1:offset+2], True)
FrameMove[0] = move_x if move_x <= 127 else move_x-256
FrameMove[1] = move_y if move_y <= 127 else move_y-256
offset += 2
if Unknown:
print "Unknown instance:",Unknown,"at offset ",offset-1
elif Unknown:
print "Unknown tags:",Unknown,"at offset ",offset-1
#read the line encoding of the layers:
@@ -314,14 +370,15 @@ class PPM:
offset += 1
for _ in range(8):
if not byte & 0x01:
Frame[layer][x][y] = True
Frame[layer, x, y] = True
x += 1
byte >>= 1
else:
x += 8
UseByte <<= 1
for n in range(256):
Frame[layer][n][y] = not Frame[layer][n][y]
#Frame[layer][n][y] = not Frame[layer][n][y]
Frame[layer, n, y] = not Frame[layer, n, y]
elif Encoding[layer][y] == 3:#Raw/full
x = 0
for _ in range(32):
@@ -329,30 +386,27 @@ class PPM:
offset += 1
for _ in range(8):
if byte & 0x01:
Frame[layer][x][y] = True
Frame[layer, x, y] = True
x += 1
byte >>= 1
#Merges this frame with the previous frame if NewFrame isn't true:
if not NewFrame and PrevFrame:
if FrameMove[0] or FrameMove[1]:#Moves the previus frame if specified:
NewPrevFrame = [[[False for _ in xrange(192)] for _ in xrange(256)] for _ in xrange(2)]
if not NewFrame and PrevFrame.all() <> None:#maybe optimize this better for numpy...
if FrameMove[0] or FrameMove[1]:#Moves the previous frame if specified:
NewPrevFrame = np.zeros((2, 256, 192), dtype=np.bool_)
for y in range(192):
for y in range(192):#this still isn't perfected
for x in range(256):
TempX = x+FrameMove[0]
TempY = y+FrameMove[1]
if 0 <= Tempx < 256 and 0 <= TempY < 192:
NewPrevFrame[0][TempX][TempY] = PrevFrame[0][x][y]
NewPrevFrame[1][TempX][TempY] = PrevFrame[1][x][y]
if 0 <= TempX < 256 and 0 <= TempY < 192:
NewPrevFrame[0, TempX, TempY] = PrevFrame[0, x, y]
NewPrevFrame[1, TempX, TempY] = PrevFrame[1, x, y]
PrevFrame = NewPrevFrame
#Merge the frames:
for y in range(192):
for x in range(256):
Frame[0][x][y] = Frame[0][x][y] <> PrevFrame[0][x][y]
Frame[1][x][y] = Frame[1][x][y] <> PrevFrame[1][x][y]
#merge the frames:
Frame = Frame <> PrevFrame
return Frame
@@ -377,7 +431,7 @@ class PPM:
# - instance.OriginalFilename: The original filename
# - instance.CurrentFilename: The current filename
# - instance.Date: The date in seconds since January 1'st 2000
# - instance.GetThumbnail(): The thumbnail stored in a 2D list of uint32 RGBA values. Will decode it first if not done so already
# - instance.GetThumbnail(): The thumbnail stored in a 2D numpy array of uint32 RGBA values (>u4). Will decode it first if not done so already
class TMB:
def __init__(self):
self.Loaded = False
@@ -423,7 +477,7 @@ class TMB:
self.RawThumbnail = data[0xa0:0x6a0]
if DecodeThumbnail:
self.GetThumbnail()#self.Thumbnail[x][y] = uint32 RGBA
self.GetThumbnail()#self.Thumbnail[x, y] = uint32 RGBA
self.Loaded = True
#return the results
@@ -465,27 +519,15 @@ class TMB:
return "".join(out)
def GetThumbnail(self, force=False):
if (not self.Thumbnail or force) and self.RawThumbnail:
if (self.Thumbnail is None or force):# and self.RawThumbnail:
global ThumbPalette
if not self.RawThumbnail:
return False
out = [[0 for _ in xrange(48)] for _ in xrange(64)]
palette = (0xFEFEFEFF,#0
0x4F4F4FFF,#1
0xFFFFFFFF,#2
0x9F9F9FFF,#3
0xFF0000FF,#4
0x770000FF,#5
0xFF7777FF,#6
0x00FF00FF,#7-
0x0000FFFF,#8
0x000077FF,#9
0x7777FFFF,#A
0x00FF00FF,#B-
0xFF00FFFF,#C
0x00FF00FF,#D-
0x00FF00FF,#E-
0x00FF00FF)#F-
out = np.zeros((64, 48), dtype=">u4")
#speedup:
palette = ThumbPalette
#8x8 tiling:
for ty in range(6):
@@ -494,8 +536,8 @@ class TMB:
for x in range(0,8,2):
#two colors stored in each byte:
byte = ord(self.RawThumbnail[(ty*512+tx*64+y*8+x)/2])
out[x+tx*8 ][y+ty*8] = palette[byte & 0xF]
out[x+tx*8+1][y+ty*8] = palette[byte >> 4]
out[x+tx*8 , y+ty*8] = palette[byte & 0xF]
out[x+tx*8+1, y+ty*8] = palette[byte >> 4]
self.Thumbnail = out
return self.Thumbnail
@@ -531,8 +573,8 @@ class TMB:
for x in range(0,8,2):
#two colors stored in each byte:
#pos = 0xa0+(ty*512+tx*64+y*8+x)/2
p1 = palette.index(self.Thumbnail[x+tx*8 ][y+ty*8])
p2 = palette.index(self.Thumbnail[x+tx*8+1][y+ty*8])
p1 = palette.index(int(self.Thumbnail[x+tx*8 , y+ty*8]))
p2 = palette.index(int(self.Thumbnail[x+tx*8+1, y+ty*8]))
out.append(chr(p2<<4 | p1))
self.RawThumbnail = "".join(out)
@@ -543,92 +585,107 @@ class TMB:
#Function WriteImage:
#
# Writes a 2D list if uint32 RGBA values as a image files.
# Writes a 2D numpy array of uint32 RGBA values (>u4) as a image files.
# Designed to work with PPM().Thumbnail or PPM().GetFrame(n)
#
# This function requires the PIl imaging module
def WriteImage(image, outputPath):
if not hasPIL or not image: return False
def WriteImage(image, outputPath, scale=1):
if not hasPIL:
print "Error: PIL not found!"
return False
#if not image: return False
out = []
for y in xrange(len(image[0])):
for x in xrange(len(image)):
out.append(DecAsc(image[x][y], 4))
# Upscale the image by the scale factor so each original pixel is
# represented by a n-by-n-pixel square in the larger version.
# Any number 1 or smaller is just treated as a scale factor of 1.
if scale > 1:
newImg = np.repeat(np.repeat(image, scale, axis = 0), scale, axis = 1)
else:
newImg = image
out = Image.fromstring("RGBA", (len(image), len(image[0])), "".join(out))
out = newImg.tostring("F")
out = Image.frombytes("RGBA", (len(newImg), len(newImg[0])), out)
filetype = outputPath[outputPath.rfind(".")+1:]
out.save(outputPath, filetype)
return True
#this is just for experimenting with sound decoding:
#not even remotely close to being finished
def DecodeSound(outputpath, data):
f = wave.open(outputpath, "wb")
f.setnchannels(1)
f.setsampwidth(2)
f.setframerate(32000)
for i in data:
i1 = ord(i)&0xF
i2 = (ord(i)>>4)&0xF
#Noise reduction:
#if i1&0x8: i1 = 0xF-(i1&0x7)
#if i2&0x8: i2 = 0xF-(i2&0x7)
i1 = i1&0x7 if i1&0x8 else 0xF-i1
i2 = i2&0x7 if i2&0x8 else 0xF-i2
f.writeframes(DecAsc(i1<<12, 2, True)*4)
f.writeframes(DecAsc(i2<<12, 2, True)*4)
def get_metadata(flipnote):
epoch = time.mktime(time.struct_time([2000, 1, 1, 0, 0, 0, 5, 1, -1]))
meta = {
u"Current filename":flipnote.CurrentFilename[:-3]+filetype,
u"Original filename":flipnote.OriginalFilename[:-3]+filetype,
u"Number of frames":flipnote.FrameCount,
u"Locked":flipnote.Locked,
u"Thumbnail frame index":(flipnote.ThumbnailFrameIndex+1),
u"Original author":flipnote.OriginalAuthorName,
u"Editor author":flipnote.EditorAuthorName,
u"Username":flipnote.Username,
u"Original author ID":flipnote.OriginalAuthorID,
u"Editor author ID":flipnote.EditorAuthorID,
u"Date(seconds since 1'st Jan 2000)":flipnote.Date,
u"Date":time.strftime("%H:%M %d/%m-%Y (faulty)", time.gmtime(epoch+flipnote.Date)),
}
if filetype == "ppm":
meta[u"Frame speed"]=flipnote.Framespeed
meta[u"BGM Frame speed"]=flipnote.BGMFramespeed
meta[u"Looped"]=flipnote.Looped
return meta
def DumpFrames(flipnote,directory,scale=1):
for i in xrange(flipnote.FrameCount):
print "Dumping frame #%i of %i..." % (i+1, flipnote.FrameCount)
WriteImage(flipnote.GetFrame(i), os.path.join(directory, "frame %s.png" % str(i+1).zfill(3)), scale)
def DumpSoundFiles(flipnote,directory,raw=False):
for i, data in enumerate(flipnote.SoundData):
if not data: continue
path = os.path.join(directory, ("BGM.wav", "SFX1.wav", "SFX2.wav", "SFX3.wav")[i])
flipnote.GetSound(i, path)
if raw:
f = open(path[:-3]+"bin", "wb")
f.write(data)
f.close()
#testing:
# p = PPM()
# print "loading ppm..."
# p.ReadFile("PPMtests/test.ppm", (1, 1, 1))
# print str(p.OriginalAuthorName), str(p.OriginalAuthorID)
# print str(p.EditorAuthorName), str(p.EditorAuthorID)
# print "Dumping Thumbnail..."
# WriteImage(p.Thumbnail, "thumbnail.png")
# print "Dumping frames..."
# for i in xrange(p.FrameCount):
# WriteImage(p.GetFrame(i), "frames/frame %i.png" % i)
# print "Dumping raw sounds..."
# for i, data in enumerate(p.SoundData):
# f = open("sound %i.bin" % i, "wb")
# f.write(data)
# f.close()
# print "Extracting sounds...."
# for i, d in enumerate(p.SoundData): DecodeSound("out_%i.wav"%i, d)
def DumpSFXUsage(flipnote,directory):
with open(os.path.join(directory, "SFX usage.txt"), "w") as f:
for i, (s1, s2, s3) in enumerate(flipnote.SFXUsage):
f.write("Frame %i:%s%s%s\n" % (i, " SFX1"*s1, " SFX2"*s2, " SFX3"*s3))
if __name__ == '__main__':
print " == PPM.py =="
print " == by pbsds =="
print " == v1.05 =="
print " == v1.3 =="
print
if len(sys.argv) < 3:
print "Usage:"
print " PPM.py <Mode> <Input> [<Output>] [<Frame>]"
print " PPM.py <Mode> <Input> [<Output>] [<Frame>] [<Option>]"
print ""
print " <Mode>:"
print " -t: Extracts the thumbnail to the file <Output>"
print " -f: Extracts the frame(s) to <Output>"
print " -s: Dumps the raw sound data files to the folder <Output>"
print " -S: Same as mode 2, but will also dump the experimentally decoded"
print " sounds."
print " -s: Dumps the sound files to the folder <Output>"
print " -S: Same as mode -s, but will also dump the raw sound data files"
print " -e: Exports the flipnote to an MKV"
print " -m: Prints out the metadata. Can also write it to <output> which also"
print " supports unicode charactes."
print " -oa: Seach a directory for an original author that matches the RegEx"
print " Mode -t and -m supports TMB files aswell"
print " <Frame>"
print " Only used in mode -f"
print " Set this to the exact frame you want to extract(starting at 1) and it"
print " will be saved as a file to <Output>."
print " If not specified, it will extract all frames to the folder <Output>"
print " <Option>"
print " --speed N: Only used in mode -e. Set this to force a specific"
print " flipnote speed (1 to 8)."
print " --scale N: Only used in modes -e and -f. Set this to upscale the"
print " frames N times."
sys.exit()
@@ -655,6 +712,12 @@ if __name__ == '__main__':
print "<Output> not specified!"
sys.exit()
try:
scale = int(sys.argv[sys.argv.index("--scale")+1])
print "Using frame scaling "+str(scale)
except (IndexError,ValueError):
scale = 1
print "Reading the flipnote file...",
if not os.path.isfile(sys.argv[2]):
print "Error!\nSpecified file doesn't exist!"
@@ -671,9 +734,8 @@ if __name__ == '__main__':
print "Error!\nThe specified directory doesn't exist!"
sys.exit()
for i in xrange(flipnote.FrameCount):
print "Dumping frame #%i..." % (i+1),
WriteImage(flipnote.GetFrame(i), os.path.join(sys.argv[3], "frame %s.png" % str(i+1).zfill(3)))
DumpFrames(flipnote,sys.argv[3], scale)
print "Done!"
else:
try:
@@ -687,7 +749,7 @@ if __name__ == '__main__':
sys.exit()
print "Dumping frame #%i..." % int(sys.argv[4]),
WriteImage(flipnote.GetFrame(int(sys.argv[4])-1), sys.argv[3])
WriteImage(flipnote.GetFrame(int(sys.argv[4])-1), sys.argv[3], scale)
print "Done!"
elif sys.argv[1] in ("-s", "-S"):
if len(sys.argv) < 4:
@@ -706,31 +768,17 @@ if __name__ == '__main__':
print "Done!"
if not os.path.isdir(sys.argv[3]):
print "Error!\nThe specified directory doesn't exist!"
print "Error!\nThe specified output directory doesn't exist!"
sys.exit()
print "Dumping the raw sound data...",
for i, data in enumerate(flipnote.SoundData):
f = open(os.path.join(sys.argv[3], ("BGM.bin", "SFX1.bin", "SFX2.bin", "SFX3.bin")[i]), "wb")
f.write(data)
f.close()
print "Done!"
if sys.argv[1] == "-S":
print "Dumping the decoded sound data...",
for i, data in enumerate(flipnote.SoundData):
DecodeSound(os.path.join(sys.argv[3], ("BGM decoded.wav", "SFX1 decoded.wav", "SFX2 decoded.wav", "SFX3 decoded.wav")[i]), data)
print "Converting the sound files...",
DumpSoundFiles(flipnote,sys.argv[3],raw=(sys.argv[1]=="-S"))
print "Done!"
print "Dumping the sound effect usage...",
f = open(os.path.join(sys.argv[3], "SFX usage.txt"), "w")
for i, (s1, s2, s3) in enumerate(flipnote.SFXUsage):
f.write("Frame %i:%s%s%s\n" % (i, " SFX1"*s1, " SFX2"*s2, " SFX3"*s3))
f.close()
DumpSFXUsage(flipnote,sys.argv[3])
print "Done!"
elif sys.argv[1] == "-m":
epoch = time.mktime(time.struct_time([2000, 1, 1, 0, 0, 0, 5, 1, -1]))
if not os.path.isfile(sys.argv[2]):
print "Error!\nSpecified file doesn't exist!"
sys.exit()
@@ -745,32 +793,172 @@ if __name__ == '__main__':
f.close()
sys.exit()
meta = []
meta.append(u"Current filename: %s" % flipnote.CurrentFilename[:-3]+filetype)
meta.append(u"Original filename: %s" % flipnote.OriginalFilename[:-3]+filetype)
meta.append(u"Number of frames: %s" % flipnote.FrameCount)
meta.append(u"Locked: %s" % flipnote.Locked)
if filetype == "ppm":
meta.append(u"Frame speed: %s" % flipnote.Framespeed)
meta.append(u"Looped: %s" % flipnote.Looped)
meta.append(u"Thumbnail frame index: %i" % (flipnote.ThumbnailFrameIndex+1))
meta.append(u"Original author: %s" % flipnote.OriginalAuthorName)
meta.append(u"Editor author: %s" % flipnote.EditorAuthorName)
meta.append(u"Username: %s" % flipnote.Username)
meta.append(u"Original author ID: %s" % flipnote.OriginalAuthorID)
meta.append(u"Editor author ID: %s" % flipnote.EditorAuthorID)
meta.append(u"Date(seconds since 1'st Jan 2000): %s" % flipnote.Date)
meta.append(time.strftime(u"Date: %H:%M %d/%m-%Y", time.gmtime(epoch+flipnote.Date)) + " (faulty)")
meta = get_metadata(flipnote)
newline = "\n"
if sys.platform in ("win32", "cygwin"): newline = "\r\n"
elif sys.platform in ("darwin"): newline = "\r"
print newline.join(meta).encode('ascii', 'ignore')
print newline.join(["\t".join([unicode(char) for char in line]) for line in meta.items()]).encode('ascii', 'ignore')
if len(sys.argv) >= 4:
f = open(sys.argv[3], "wb")
f.write(newline.join(meta).encode("UTF-8"))
f.close()
elif sys.argv[1] == "-oa":
regex = re.compile(sys.argv[2])
os.chdir(sys.argv[3])
for filename in os.listdir("."):
epoch = time.mktime(time.struct_time([2000, 1, 1, 0, 0, 0, 5, 1, -1]))
if not os.path.isfile(filename):
print "Error!\nSpecified file doesn't exist!"
sys.exit()
filetype = "ppm" if filename[-3:].lower() == "ppm" else "tmb"
flipnote = TMB().ReadFile(filename) if filetype == "tmb" else PPM().ReadFile(filename, ReadFrames=False)
if not flipnote:
continue
meta = get_metadata(flipnote)
if regex.match(meta["Original author"]):
print filename
elif sys.argv[1] == "-e":
if not hasffmpeg:
print "Error!\nffmpeg is not installed."
sys.exit()
in_file = sys.argv[2]
out_file = sys.argv[3]
try:
sleep_time = int(sys.argv[sys.argv.index("--sleep")+1])
except (IndexError,ValueError):
sleep_time = 0
print "Not sleeping."
try:
forced_speed = int(sys.argv[sys.argv.index("--speed")+1])
print "Using forced speed "+str(forced_speed)
except (IndexError,ValueError):
forced_speed = None
try:
scale = int(sys.argv[sys.argv.index("--scale")+1])
print "Using frame scaling "+str(scale)
except (IndexError,ValueError):
scale = 1
if out_file.lower()[-4:] != ".mkv":
out_file += ".mkv"
if not os.path.isfile(in_file):
print "Error!\nSpecified file doesn't exist!"
sys.exit()
if os.path.isfile(out_file):
print "Overwrite existing file?"
overwrite = ""
while overwrite != "y" and overwrite != "n":
overwrite = raw_input("(Y/N) ").lower()
if overwrite == "n":
print "Not overwriting; exiting."
sys.exit()
filetype = "ppm" if in_file[-3:].lower() == "ppm" else "tmb"
flipnote = TMB().ReadFile(in_file) if filetype == "tmb" else PPM(forced_speed).ReadFile(in_file, ReadFrames=True, ReadSound=True)
# Make temp dir and dump the frames and sound here
tempdir = tempfile.mkdtemp()
os.mkdir(tempdir+"/sounds")
print "Dumping the frames..."
DumpFrames(flipnote,tempdir,scale)
print "Done!"
print "Dumping the sounds..."
DumpSoundFiles(flipnote,tempdir+"/sounds")
print "Done!"
print "Dumping SFX usage..."
DumpSFXUsage(flipnote,tempdir+"/sounds")
print "Done!"
# Now we need the metadata so we can look up the FPS
SPEEDS = [None,0.5,1,2,4,6,12,20,30]
print "Getting metadata..."
metadata = get_metadata(flipnote)
print "Done!"
speed = int(metadata["Frame speed"])
fps = SPEEDS[speed]
duration = float(metadata["Number of frames"])/float(fps)
print "Flipnote is speed {speed}, so {fps} FPS for {dur} seconds".format(speed=speed,fps=fps,dur=duration)
# Now to make the video in ffmpeg
print "Exporting video with ffmpeg..."
export_command = ["ffmpeg","-framerate",str(fps),"-start_number","1","-i","{path}/frame %03d.png".format(path=tempdir),"-i","{path}/sounds/BGM.wav".format(path=tempdir),"-c:v","libx264","-preset","veryslow","-c:a","pcm_s16le","-t","{dur}".format(dur=duration),"-y",out_file]
if not os.path.isfile(tempdir+"/sounds/BGM.wav"):
print "No background music. Adding silent track..."
#has_bgm = False
export_command = ["ffmpeg","-framerate",str(fps),"-start_number","1","-i","{path}/frame %03d.png".format(path=tempdir),"-f","lavfi","-i","anullsrc=r=8192:cl=mono","-c:v","libx264","-preset","veryslow","-c:a","pcm_s16le","-shortest","-y",out_file]
else:
#has_bgm = True
pass
with open(os.devnull) as null:
subprocess.call(export_command,stdout=null,stderr=null)
print "Done!"
# If the audio has been sped up, we have to do it again manually
bgm_speed = int(metadata["BGM Frame speed"])
if bgm_speed != speed:
print "Background music speed must be modified!"
original_rate = 8192
newrate = 8192*(float(fps)/SPEEDS[bgm_speed])
print "Using new rate: "+str(newrate)
speed_change_command = ["ffmpeg","-i","{path}/sounds/BGM.wav".format(path=tempdir),"-filter_complex","asetrate={rate}".format(rate=newrate),"-i",out_file,"-map","0:a","-map","1:v","-vcodec","copy","-acodec","pcm_s16le","{path}/temp_out.mkv".format(path=tempdir)]
with open(os.devnull,"w") as null:
subprocess.call(speed_change_command,stdout=null,stderr=null)
os.remove(out_file)
shutil.move("{path}/temp_out.mkv".format(path=tempdir),out_file)
print "Done!"
# These are the ffmpeg commands I need for each sound effect
# The first generates a silent track, with variable length. This gets concatenated to the front of the sound effect.
silence_command = ["ffmpeg","-f","lavfi","-i","anullsrc=r=8192:cl=mono","-t","{length}","-f","wav","-y","{path}/silence.wav"]
# The second concatenates the silent track and the sound effect, producing a sound file that can be mixed into the video's audio track so that it plays at the correct time.
SFX_command = ["ffmpeg","-i","{path}/silence.wav","-i","{path}/sounds/{sfx}.wav","-filter_complex","[0:a] [1:a] concat=n=2:v=0:a=1","-y","{path}/sfx.wav"]
# The third mixes the silence+sound effect into the video file
merge_command = ["ffmpeg","-i",out_file,"-i","{path}/sfx.wav","-filter_complex","[0:a][1:a] amix=inputs=2:duration=longest:dropout_transition={video_length},volume=2","-c:a","pcm_s16le","-c:v","copy","-max_muxing_queue_size","1024","-y","{path}/temp_out.mkv"]
## normalise_command = ["ffmpeg","-i",out_file,"-filter_complex","dynaudnorm","{path}/temp_out.mkv".format(path=tempdir)]
## for sfx in ["SFX1","SFX2","SFX3"]:
## if not os.path.isfile("{path}/sounds/{sfx}.wav".format(path=tempdir,sfx=sfx)):
## print sfx+" does not exist."
## continue
## else:
# Read in the sound effect usage data
print "Reading sound effect usage..."
with open("{path}/sounds/SFX usage.txt".format(path=tempdir),"r") as sfx_usage_file:
sfx_usage = sfx_usage_file.read().split("\n")
print "Done!"
# Iterate through the frames, checking if sound effects need to be added
for frame in range(len(sfx_usage)):
line = sfx_usage[frame]
# If a frame has an associated sound effect, get which sound effect to use
sfx = line.split(":")[1].strip() if line.strip() != "" else ""
if sfx != "": # If a sound effect must be played...
length = frame/float(fps)
print "Adding "+sfx+" at {length} seconds into the video.".format(length=length)
# ...run each command in series with the correct arguments
with open(os.devnull,"w") as null:
subprocess.call([i.format(path=tempdir,sfx=sfx,length=length) for i in silence_command],stdout=null,stderr=null)
subprocess.call([i.format(path=tempdir,sfx=sfx) for i in SFX_command],stdout=null,stderr=null)
subprocess.call([i.format(path=tempdir,video_length=fps*len(sfx_usage)) for i in merge_command],stdout=null,stderr=null)
os.remove(out_file)
shutil.move("{path}/temp_out.mkv".format(path=tempdir),out_file)
print "Done!"
time.sleep(sleep_time) # optional sleep -- in case you want to slow things down for HDD strain or reliability or something
## subprocess.call(normalise_command)
## os.remove(out_file)
## shutil.move("{path}/temp_out.mkv".format(path=tempdir),out_file)
# Remove the temp dir and all files in it
print "Removing temporary directory..."
shutil.rmtree(tempdir)
print "Done!"
else:
print "Error!\nThere's no such mode."
+3 -3
View File
@@ -175,7 +175,7 @@ class UGO:
if name+".tmb" in names:
j = 2
while "%s_%i.tmb" % (name, j) not in names:
while "%s_%i.tmb" % (name, j) in names:
j += 1
name = "%s_%i" % (name, j)
@@ -189,7 +189,7 @@ class UGO:
if name+".ntft" in names:
j = 2
while "%s_%i.ntft" % (name, j) not in names:
while "%s_%i.ntft" % (name, j) in names:
j += 1
name = "%s_%i" % (name, j)
@@ -551,7 +551,7 @@ class UGO:
if __name__ == "__main__":
print " == UGO.py =="
print " == by pbsds =="
print " == v0.92 =="
print " == v0.93 =="
print
if len(sys.argv) < 2: