# -*- coding: utf-8 -*- ########################################## Declaration ###################################################### # Declaration: # tcaxPy.pyc's source code # Copyright (c) 2008 - 2012 milkyjing (milkyjing@gmail.com). All rights reserved. # Please visit tcax.org to get the latest information # Version: ver0.7.3.5 build20100109 # Revision: ver0.7.5.0 build20100912 # Revision: ver0.7.8.1 build20110703 # Revision: ver0.7.9.0 build20110721 # Revision: ver0.7.9.2 build20110812 # Revision: ver0.7.9.3 build20110813 # Revision: ver0.7.9.8 build20110901 # Revision: ver0.7.9.9 build20111222 # Revision: ver0.8.0.0 build20120722 # Revision: ver0.8.0.1 build20121228 # Revision: ver0.8.0.2 build20181209 ######################################### Modules ########################################################### from math import * from random import * from tcaxLib import * import sys ######################################### Global Constant ################################################### tcaxPy_Version = '0.8.0.2' Main_Style = 'TCMS' # 主Style名称 SubL函数默认使用的Style Pix_Style = 'TCPS' # 粒子特效的Style名称 val_AssHeader = 0 # Ass文件头部信息 用于tcaxPy_User函数 val_OutFile = 1 # 输出的文件名 不含拓展名 用于tcaxPy_User函数 # tcc info val_FontFileName = 2 # 特效使用的字体 val_FaceID = 3 # 字体名称ID val_FontSize = 4 # 字体大小 val_ResolutionX = 5 # 水平分辨率 val_ResolutionY = 6 # 垂直分辨率 val_FXFPS = 7 # 特效的帧率 val_Alignment = 8 # 对齐方式 val_OffsetX = 9 # 水平偏移量 val_OffsetY = 10 # 垂直偏移量 val_Spacing = 11 # 字体间距 val_SpaceScale = 12 # 空格跨度百分比 val_FontFaceName = 13 # 特效使用的字体Face名 val_Bord = 14 # 字体边框厚度 val_Shad = 15 # 字体阴影宽度 val_1C = 16 # 字体主颜色 val_2C = 17 # 字体辅助颜色 val_3C = 18 # 字体边框颜色 val_4C = 19 # 字体阴影颜色 val_1A = 20 # 字体主透明度 val_2A = 21 # 字体辅助透明度 val_3A = 22 # 字体边框透明度 val_4A = 23 # 字体阴影透明度 val_Blur = 24 # 模糊值 # syl info val_nLines = 25 # SYL文件的卡拉OK歌词句子总数 val_SylLine = 26 # 第i句卡拉OK歌词 val_BegTime = 27 # 第i句卡拉OK歌词的起始时间 val_EndTime = 28 # 第i句卡拉OK歌词的结束时间 val_nTexts = 29 # 第i句卡拉OK歌词包含的字符数 val_KarTime = 30 # 第i句卡拉OK歌词的第j个字符的Karaoke时间 val_KarTimeDiff = 31 # 到第i句卡拉OK歌词的第j个字符之前的Karaoke时间总和 val_Text = 32 # 第i句卡拉OK歌词的第j个字符 # tm info (horizontal) val_Ascender = 33 # 字体上行高度 val_Descender = 34 # 字体下行高度 通常为负数 val_TextWidth = 35 # 第i句卡拉OK歌词的j个字符的宽度 val_TextHeight = 36 # 第i句卡拉OK歌词的j个字符的高度 val_TextKerning = 37 # 第i句卡拉OK歌词的j个字符与之前一个字符的kerning 一句歌词第一个字符的kerning为0 val_TextAdvance = 38 # 第i句卡拉OK歌词的j个字符的水平步距 val_TextAdvanceDiff = 39 # 从初始位置到第i句卡拉OK歌词的j个字符的水平步距 val_TextLength = 40 # 第i句卡拉OK歌词的文字总长度 val_TextInitX = 41 # 第i句卡拉OK歌词的j个字符的左上角X轴坐标 val_TextInitY = 42 # 第i句卡拉OK歌词的j个字符的左上角Y轴坐标 val_TextBearingY = 43 # 第i句卡拉OK歌词的j个字符的Y轴bearing # tm info horizontal val_TextWidthH = 35 # 第i句卡拉OK歌词的j个字符的宽度 val_TextHeightH = 36 # 第i句卡拉OK歌词的j个字符的高度 val_TextKerningH = 37 # 第i句卡拉OK歌词的j个字符与之前一个字符的kerning 一句歌词第一个字符的kerning为0 val_TextAdvanceH = 38 # 第i句卡拉OK歌词的j个字符的水平步距 val_TextAdvanceDiffH = 39 # 从初始位置到第i句卡拉OK歌词的j个字符的水平步距 val_TextLengthH = 40 # 第i句卡拉OK歌词的文字总长度 val_TextInitXH = 41 # 第i句卡拉OK歌词的j个字符的左上角X轴坐标 val_TextInitYH = 42 # 第i句卡拉OK歌词的j个字符的左上角Y轴坐标 val_TextBearingYH = 43 # 第i句卡拉OK歌词的j个字符的Y轴bearing # tm info vertical val_TextWidthV = 44 # 第i句卡拉OK歌词的j个字符的宽度 val_TextHeightV = 45 # 第i句卡拉OK歌词的j个字符的高度 val_TextKerningV = 46 # 第i句卡拉OK歌词的j个字符与之前一个字符的kerning 一句歌词第一个字符的kerning为0 (暂时不支持vertical版本的kerning，其值全部为0) val_TextAdvanceV = 47 # 第i句卡拉OK歌词的j个字符的水平步距 val_TextAdvanceDiffV = 48 # 从初始位置到第i句卡拉OK歌词的j个字符的水平步距 val_TextLengthV = 49 # 第i句卡拉OK歌词的文字总长度 val_TextInitXV = 50 # 第i句卡拉OK歌词的j个字符的左上角X轴坐标 val_TextInitYV = 51 # 第i句卡拉OK歌词的j个字符的左上角Y轴坐标 val_TextBearingXV = 52 # 第i句卡拉OK歌词的j个字符的X轴bearing ######################################### Data Management Function ########################################## def GetValueIDsInfo(): val_info = ''' tcaxPy_Version = '0.8.0.1' Main_Style = 'TCMS' # 主Style名称 SubL函数默认使用的Style Pix_Style = 'TCPS' # 粒子特效的Style名称 val_AssHeader = 0 # Ass文件头部信息 用于tcaxPy_User函数 val_OutFile = 1 # 输出的文件名 不含拓展名 用于tcaxPy_User函数 # tcc info val_FontFileName = 2 # 特效使用的字体 val_FaceID = 3 # 字体名称ID val_FontSize = 4 # 字体大小 val_ResolutionX = 5 # 水平分辨率 val_ResolutionY = 6 # 垂直分辨率 val_FXFPS = 7 # 特效的帧率 val_Alignment = 8 # 对齐方式 val_OffsetX = 9 # 水平偏移量 val_OffsetY = 10 # 垂直偏移量 val_Spacing = 11 # 字体间距 val_SpaceScale = 12 # 空格跨度百分比 val_FontFaceName = 13 # 特效使用的字体Face名 val_Bord = 14 # 字体边框厚度 val_Shad = 15 # 字体阴影宽度 val_1C = 16 # 字体主颜色 val_2C = 17 # 字体辅助颜色 val_3C = 18 # 字体边框颜色 val_4C = 19 # 字体阴影颜色 val_1A = 20 # 字体主透明度 val_2A = 21 # 字体辅助透明度 val_3A = 22 # 字体边框透明度 val_4A = 23 # 字体阴影透明度 val_Blur = 24 # 模糊值 # syl info val_nLines = 25 # SYL文件的卡拉OK歌词句子总数 val_SylLine = 26 # 第i句卡拉OK歌词 val_BegTime = 27 # 第i句卡拉OK歌词的起始时间 val_EndTime = 28 # 第i句卡拉OK歌词的结束时间 val_nTexts = 29 # 第i句卡拉OK歌词包含的字符数 val_KarTime = 30 # 第i句卡拉OK歌词的第j个字符的Karaoke时间 val_KarTimeDiff = 31 # 到第i句卡拉OK歌词的第j个字符之前的Karaoke时间总和 val_Text = 32 # 第i句卡拉OK歌词的第j个字符 # tm info (horizontal) val_Ascender = 33 # 字体上行高度 val_Descender = 34 # 字体下行高度 通常为负数 val_TextWidth = 35 # 第i句卡拉OK歌词的j个字符的宽度 val_TextHeight = 36 # 第i句卡拉OK歌词的j个字符的高度 val_TextKerning = 37 # 第i句卡拉OK歌词的j个字符与之前一个字符的kerning 一句歌词第一个字符的kerning为0 val_TextAdvance = 38 # 第i句卡拉OK歌词的j个字符的水平步距 val_TextAdvanceDiff = 39 # 从初始位置到第i句卡拉OK歌词的j个字符的水平步距 val_TextLength = 40 # 第i句卡拉OK歌词的文字总长度 val_TextInitX = 41 # 第i句卡拉OK歌词的j个字符的左上角X轴坐标 val_TextInitY = 42 # 第i句卡拉OK歌词的j个字符的左上角Y轴坐标 val_TextBearingY = 43 # 第i句卡拉OK歌词的j个字符的Y轴bearing # tm info horizontal val_TextWidthH = 35 # 第i句卡拉OK歌词的j个字符的宽度 val_TextHeightH = 36 # 第i句卡拉OK歌词的j个字符的高度 val_TextKerningH = 37 # 第i句卡拉OK歌词的j个字符与之前一个字符的kerning 一句歌词第一个字符的kerning为0 val_TextAdvanceH = 38 # 第i句卡拉OK歌词的j个字符的水平步距 val_TextAdvanceDiffH = 39 # 从初始位置到第i句卡拉OK歌词的j个字符的水平步距 val_TextLengthH = 40 # 第i句卡拉OK歌词的文字总长度 val_TextInitXH = 41 # 第i句卡拉OK歌词的j个字符的左上角X轴坐标 val_TextInitYH = 42 # 第i句卡拉OK歌词的j个字符的左上角Y轴坐标 val_TextBearingYH = 43 # 第i句卡拉OK歌词的j个字符的Y轴bearing # tm info vertical val_TextWidthV = 44 # 第i句卡拉OK歌词的j个字符的宽度 val_TextHeightV = 45 # 第i句卡拉OK歌词的j个字符的高度 val_TextKerningV = 46 # 第i句卡拉OK歌词的j个字符与之前一个字符的kerning 一句歌词第一个字符的kerning为0 (暂时不支持vertical版本的kerning，其值全部为0) val_TextAdvanceV = 47 # 第i句卡拉OK歌词的j个字符的水平步距 val_TextAdvanceDiffV = 48 # 从初始位置到第i句卡拉OK歌词的j个字符的水平步距 val_TextLengthV = 49 # 第i句卡拉OK歌词的文字总长度 val_TextInitXV = 50 # 第i句卡拉OK歌词的j个字符的左上角X轴坐标 val_TextInitYV = 51 # 第i句卡拉OK歌词的j个字符的左上角Y轴坐标 val_TextBearingXV = 52 # 第i句卡拉OK歌词的j个字符的X轴bearing ''' return val_info def tcaxPy_InitData(data): global __tcax_data __tcax_data = data tcaxPy_UtilInitGlobal() def GetData(): return __tcax_data def GetVal(item): return __tcax_data[item] def getval_kartxt(i): return __tcax_data[val_SylLine][i].split(',,')[-1] ### Getter ### def getTXTNUM(i): return __tcax_data[29][i] def getBT(i): return __tcax_data[27][i] def getET(i): return __tcax_data[28][i] def getSK(i, j): return __tcax_data[31][i][j] def getKT(i, j): return __tcax_data[30][i][j] def getTXT(i, j): return __tcax_data[32][i][j] def getpos(i, j, an = None, offsetX = None, offsetY = None): if an == None: an = __tcax_data[8] if offsetX == None: offsetX = __tcax_data[9] if offsetY == None: offsetY = __tcax_data[10] if an == 1: initPosX = offsetX initPosY = __tcax_data[6] - offsetY - int(__tcax_data[4]/2+0.5) elif an == 2: initPosX = (__tcax_data[5] - __tcax_data[40][i]) / 2 + offsetX initPosY = __tcax_data[6] - offsetY - int(__tcax_data[4]/2+0.5) elif an == 3: initPosX = __tcax_data[5] - __tcax_data[40][i] - offsetX initPosY = __tcax_data[6] - offsetY - int(__tcax_data[4]/2+0.5) elif an == 4: initPosX = offsetX initPosY = int(__tcax_data[6]/2+0.5) - offsetY + int(__tcax_data[4]/2+0.5) elif an == 5: initPosX = int((__tcax_data[5] - __tcax_data[40][i]) / 2 + 0.5)+ offsetX initPosY = int(__tcax_data[6]/2+0.5) - offsetY + int(__tcax_data[4]/2+0.5) elif an == 6: initPosX = __tcax_data[5] - __tcax_data[40][i] - offsetX initPosY = int(__tcax_data[6]/2+0.5) - offsetY + int(__tcax_data[4]/2+0.5) elif an == 7: initPosX = offsetX initPosY = offsetY + int(__tcax_data[4]/2+0.5) elif an == 8: initPosX = int((__tcax_data[5] - __tcax_data[40][i]) / 2 + 0.5)+ offsetX initPosY = offsetY + int(__tcax_data[4]/2+0.5) elif an == 9: initPosX = __tcax_data[5] - __tcax_data[40][i] - offsetX initPosY = offsetY + int(__tcax_data[4]/2+0.5) posX = initPosX + __tcax_data[39][i][j] + int(__tcax_data[38][i][j]/2+0.5) posY = initPosY return (posX,posY) def getposX(i, j, an = None, offsetX = None, offsetY = None): POS = getpos(i, j, an, offsetX, offsetY) return POS[0] def getposY(i, j, an = None, offsetX = None, offsetY = None): POS = getpos(i, j, an, offsetX, offsetY) return POS[1] def getpos_vert(i, j, an = None, offsetX = None, offsetY = None): if an == None: an = int(__tcax_data[8]) if offsetX == None: offsetX = __tcax_data[9] if offsetY == None: offsetY = __tcax_data[10] if an == 1: initPosX = offsetX + int(__tcax_data[4]/2+0.5) initPosY = __tcax_data[6] - __tcax_data[49][i]- offsetY elif an == 2: initPosX = int(__tcax_data[5] / 2 + 0.5) + offsetX + int(__tcax_data[4]/2+0.5) initPosY = __tcax_data[6] - __tcax_data[49][i]- offsetY elif an == 3: initPosX = __tcax_data[5] - int(__tcax_data[4] / 2 + 0.5) - offsetX initPosY = __tcax_data[6] - __tcax_data[49][i]- offsetY elif an == 4: initPosX = offsetX + int(__tcax_data[4] / 2+0.5) initPosY = int((__tcax_data[6] - __tcax_data[49][i]) / 2+0.5) - offsetY elif an == 5: initPosX = int(__tcax_data[5] / 2 + 0.5) + offsetX + int(__tcax_data[4]/2+0.5) initPosY = int((__tcax_data[6] - __tcax_data[49][i]) / 2 + 0.5) - offsetY elif an == 6: initPosX = __tcax_data[5] - int(__tcax_data[4] / 2 + 0.5) - offsetX initPosY = int((__tcax_data[6] - __tcax_data[49][i])/2+0.5) - offsetY elif an == 7: initPosX = offsetX + int(__tcax_data[4] / 2 + 0.5) initPosY = offsetY elif an == 8: initPosX = int(__tcax_data[5] / 2 + 0.5) + offsetX + int(__tcax_data[4]/2+0.5) initPosY = offsetY elif an == 9: initPosX = __tcax_data[5] - int(__tcax_data[4] / 2 + 0.5) - offsetX initPosY = offsetY posX = initPosX posY = initPosY + __tcax_data[48][i][j] + int(__tcax_data[47][i][j]/2+0.5) return (posX,posY) def getposX_vert(i, j, an = None, offsetX = None, offsetY = None): POS = getpos_vert(i,j,an,offsetX,offsetY) return POS[0] def getposY_vert(i, j, an = None, offsetX = None, offsetY = None): POS = getpos_vert(i, j, an, offsetX, offsetY) return POS[1] ### Utility ### def tcaxPy_UtilInitGlobal(): global __util_temp __util_temp = [None] def IsLineChanged(i): if i != __util_temp[0]: __util_temp[0] = i return True else: return False def UseSitePackages(): # invoke this function right after importing tcaxPy module if you want to use Python 3rd party packages sys.path.append(sys.prefix) sys.path.append(sys.prefix + '\\DLLs') sys.path.append(sys.prefix + '\\Lib') sys.path.append(sys.prefix + '\\Lib\\util') sys.path.append(sys.prefix + '\\Lib\\site-packages') ########################################## Main FX Function ################################################# def SubL(Start = 0, End = 0, Layer = 0, Style = 'TCMS'): return 'Dialogue: {0},{1},{2},{3},NTP,0000,0000,0000,,'.format(int(Layer), FmtTime(Start), FmtTime(End), Style) def ass_main(ASS_BUF, SubDlg = '', Event = '', Text = ''): if Event == '': ASS_BUF.append('{0}{1}{2}\r\n'.format(SubDlg, Event, Text)) else: ASS_BUF.append('{0}{{{1}}}{2}\r\n'.format(SubDlg, Event, Text)) def tcas_user(TCAS_BUF, Start = 0, End = 0, PosX = 0, PosY = 0, RGB = 0xFFFFFF, Alpha = 0, Layer = 0): if Alpha < 0: Alpha = 0 if Start <= End: TCAS_BUF.append((int(Start), int(End), int(Layer), int(PosX), int(PosY), int(RGB), int(Alpha))) ############################################################################################################# ######################################### Useful Funtions ################################################### #--------------------------------------------- Format Function ----------------------------------------------# # 格式化相关的函数 def FmtHex(n): # dec to hex FormatHex if n <= 0: return '00' elif n >= 255: return 'FF' else: return '{0:02X}'.format(int(n)) def HexToDec(a): # hex to dec return int(a, 16) def FmtFloat(f): if f == int(f): F = str(int(f)) else: F = str(format(f, '.2f')) return F def FmtRGB(r, g, b): # return a formated RGB string return FmtHex(b) + FmtHex(g) + FmtHex(r) def DeFmtRGB(CLR): # convert RGB string to RGB tuple CLR_LIS_3 = HexToDec(CLR[0:2]) CLR_LIS_2 = HexToDec(CLR[2:4]) CLR_LIS_1 = HexToDec(CLR[4:6]) return (CLR_LIS_1, CLR_LIS_2, CLR_LIS_3) def DecRGB(RGB): # convert RGB string to RGB dec value return int('0x' + RGB, 16) def clip_0_255(a): if a < 0: return 0 elif a > 255: return 255 else: return int(a) def MakeRGB(r, g, b): return clip_0_255(r) + clip_0_255(g) * 256 + clip_0_255(b) * 65536 def MakeRGBA(r, g, b, a): return clip_0_255(r) + clip_0_255(g) * 256 + clip_0_255(b) * 65536 + clip_0_255(a) * 16777216 #-------------------------------- Ass tag functions -------------------------------# def an(a): return '\\an{0}'.format(int(a)) def K(a): return '\\K{0}'.format(int(a)) def k(a): return '\\k{0}'.format(int(a)) def ko(a): return '\\ko{0}'.format(int(a)) def kf(a): return '\\kf{0}'.format(int(a)) def t(a1, a2 = None, a3 = None, a4 = None): if a2 == None: return '\\t({code})'.format(code = a1) elif a3 == None: if a1 == int(a1): A = str(int(a1)) else: A = str(format(a1, '.2f')) return '\\t({a},{code})'.format(a = A, code = a2) elif a4 == None: return '\\t({t1},{t2},{code})'.format(t1 = int(a1), t2 = int(a2), code = a3) else: if a3 == int(a3): A = str(int(a3)) else: A = str(format(a3, '.2f')) return '\\t({t1},{t2},{a},{code})'.format(t1 = int(a1), t2 = int(a2), a = A, code = a4) def animation(a1, a2 = None, a3 = None, a4 = None): if a2 == None: return '\\t({code})'.format(code = a1) elif a3 == None: if a1 == int(a1): A = str(int(a1)) else: A = str(format(a1, '.2f')) return '\\t({a},{code})'.format(a = A, code = a2) elif a4 == None: return '\\t({t1},{t2},{code})'.format(t1 = int(a1), t2 = int(a2), code = a3) else: if a3 == int(a3): A = str(int(a3)) else: A = str(format(a3, '.2f')) return '\\t({t1},{t2},{a},{code})'.format(t1 = int(a1), t2 = int(a2), a = A, code = a4) def t1(t1, t2, code): # deprecated return '\\t({0},{1},{2})'.format(int(t1), int(t2), code) def animation1(t1, t2, code): # deprecated return '\\t({0},{1},{2})'.format(int(t1), int(t2), code) def t2(t1, t2, a, code): # deprecated if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\t({0},{1},{2},{3})'.format(int(t1), int(t2), A, code) def animation2(t1, t2, a, code): # deprecated if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\t({0},{1},{2},{3})'.format(int(t1), int(t2), A, code) def fscx(x): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) return '\\fscx{0}'.format(X) def fscy(y): if y == int(y): Y = str(int(y)) else: Y = str(format(y, '.2f')) return '\\fscy{0}'.format(Y) def fsc(x, y): if x == int(x) and y == int(y): X = str(int(x)) Y = str(int(y)) else: X = str(format(x, '.2f')) Y = str(format(y, '.2f')) return '\\fscx{0}\\fscy{1}'.format(X, Y) def fn(a): return '\\fn{0}'.format(a) def fs(x): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) return '\\fs{0}'.format(X) def fad(t1, t2): return '\\fad({0},{1})'.format(int(t1), int(t2)) def fade(a1, a2, a3, t1, t2, t3, t4): return '\\fade({0},{1},{2},{3},{4},{5},{6})'.format(clip_0_255(a1), clip_0_255(a2), clip_0_255(a3), int(t1), int(t2), int(t3), int(t4)) def bord(x): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) return '\\bord{0}'.format(X) def shad(x): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) return '\\shad{0}'.format(X) def blur(x): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) return '\\blur{0}'.format(X) def p(a): return '\\p{0}'.format(int(a)) def b(): return '\\b' def be(x): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) return '\\be{0}'.format(X) def xbord(x): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) return '\\xbord{0}'.format(X) def ybord(y): if y == int(y): Y = str(int(y)) else: Y = str(format(y, '.2f')) return '\\ybord{0}'.format(Y) def xshad(x): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) return '\\xshad{0}'.format(X) def yshad(y): if y == int(y): Y = str(int(y)) else: Y = str(format(y, '.2f')) return '\\yshad{0}'.format(Y) def fax(x): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) return '\\fax{0}'.format(X) def fay(y): if y == int(y): Y = str(int(y)) else: Y = str(format(y, '.2f')) return '\\fay{0}'.format(Y) def frx(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\frx{0}'.format(A) def fry(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\fry{0}'.format(A) def frz(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\frz{0}'.format(A) def fr(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\fr{0}'.format(A) def pos(x, y): if x == int(x): X = str(int(x)) else: X = str(format(x, '.2f')) if y == int(y): Y = str(int(y)) else: Y = str(format(y, '.2f')) return '\\pos({0},{1})'.format(X, Y) def org(x, y): return '\\org({0},{1})'.format(int(x), int(y)) def alpha(a): # note that a is a dec value return '\\alpha&H{0}&'.format(FmtHex(a)) def alpha1(a): return '\\1a&H{0}&'.format(FmtHex(a)) def alpha2(a): return '\\2a&H{0}&'.format(FmtHex(a)) def alpha3(a): return '\\3a&H{0}&'.format(FmtHex(a)) def alpha4(a): return '\\4a&H{0}&'.format(FmtHex(a)) def color(c): # note that c is a RGB string return '\\c&H{0}&'.format(c) def color1(c): return '\\1c&H{0}&'.format(c) def color2(c): return '\\2c&H{0}&'.format(c) def color3(c): return '\\3c&H{0}&'.format(c) def color4(c): return '\\4c&H{0}&'.format(c) def mov(x1, y1, x2, y2): # deprecated if x1 == int(x1) and y1 == int(y1) and x2 == int(x2) and y2 == int(y2): X1 = str(int(x1)) Y1 = str(int(y1)) X2 = str(int(x2)) Y2 = str(int(y2)) else: X1 = str(format(x1, '.2f')) Y1 = str(format(y1, '.2f')) X2 = str(format(x2, '.2f')) Y2 = str(format(y2, '.2f')) return '\\move({0},{1},{2},{3})'.format(X1, Y1, X2, Y2) def move(x1, y1, x2, y2, t1 = None, t2 = None): if x1 == int(x1) and y1 == int(y1) and x2 == int(x2) and y2 == int(y2): X1 = str(int(x1)) Y1 = str(int(y1)) X2 = str(int(x2)) Y2 = str(int(y2)) else: X1 = str(format(x1, '.2f')) Y1 = str(format(y1, '.2f')) X2 = str(format(x2, '.2f')) Y2 = str(format(y2, '.2f')) if t2 == None: return '\\move({0},{1},{2},{3})'.format(X1, Y1, X2, Y2) else: return '\\move({0},{1},{2},{3},{4},{5})'.format(X1, Y1, X2, Y2, int(t1), int(t2)) def clip(a1, a2 = None, a3 = None, a4 = None): if a2 == None: return '\\clip({draw})'.format(draw = a1) elif a3 == None: return '\\clip({scale},{draw})'.format(scale = a1, draw = a2) else: return '\\clip({x1},{y1},{x2},{y2})'.format(x1 = int(a1), y1 = int(a2), x2 = int(a3), y2 = int(a4)) def clip1(Draw): # deprecated return '\\clip({0})'.format(Draw) def clip2(Scale, Draw): # deprecated return '\\clip({0},{1})'.format(Scale, Draw) def iclip(a1, a2 = None, a3 = None, a4 = None): if a2 == None: return '\\iclip({draw})'.format(draw = a1) elif a3 == None: return '\\iclip({scale},{draw})'.format(scale = a1, draw = a2) else: return '\\iclip({x1},{y1},{x2},{y2})'.format(x1 = int(a1), y1 = int(a2), x2 = int(a3), y2 = int(a4)) def iclip1(Draw): # deprecated return '\\iclip({0})'.format(Draw) def iclip2(Scale, Draw): # deprecated return '\\iclip({0},{1})'.format(Scale, Draw) def fsp(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\fsp{0}'.format(A) def fsvp(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\fsvp{0}'.format(A) def frs(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\frs{0}'.format(A) def z(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\z{0}'.format(A) def distort(u1, v1, u2, v2, u3, v3): if u1 == int(u1) and v1 == int(v1) and u2 == int(u2) and v2 == int(v2) and u3 == int(u3) and v3 == int(v3): U1 = str(int(u1)) V1 = str(int(v1)) U2 = str(int(u2)) V2 = str(int(v2)) U3 = str(int(u3)) V3 = str(int(v3)) else: U1 = str(format(u1, '.2f')) V1 = str(format(v1, '.2f')) U2 = str(format(u2, '.2f')) V2 = str(format(v2, '.2f')) U3 = str(format(u3, '.2f')) V3 = str(format(v3, '.2f')) return '\\distort({0},{1},{2},{3},{4},{5})'.format(U1, V1, U2, V2, U3, V3) def rnd(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\rnd{0}'.format(A) def rndx(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\rndx{0}'.format(A) def rndy(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\rndy{0}'.format(A) def rndz(a): if a == int(a): A = str(int(a)) else: A = str(format(a, '.2f')) return '\\rndz{0}'.format(A) def img1(path, x, y): if x == int(x) and y == int(y): X = str(int(x)) Y = str(int(y)) else: X = str(format(x, '.2f')) Y = str(format(y, '.2f')) return '\\1img({0},{1},{2})'.format(abspath(path), X, Y) def vcolor1(ct1, ct2, cb1, cb2): # note that c is a RGB string return '\\1vc(&H{0}&,&H{1}&,&H{2}&,&H{3}&)'.format(ct1, ct2, cb1, cb2) def vcolor2(ct1, ct2, cb1, cb2): return '\\2vc(&H{0}&,&H{1}&,&H{2}&,&H{3}&)'.format(ct1, ct2, cb1, cb2) def vcolor3(ct1, ct2, cb1, cb2): return '\\3vc(&H{0}&,&H{1}&,&H{2}&,&H{3}&)'.format(ct1, ct2, cb1, cb2) def vcolor4(ct1, ct2, cb1, cb2): return '\\4vc(&H{0}&,&H{1}&,&H{2}&,&H{3}&)'.format(ct1, ct2, cb1, cb2) def valpha1(at1, at2, ab1, ab2): return '\\1va(&H{0}&,&H{1}&，&H{2}&，&H{3}&)'.format(FmtHex(at1), FmtHex(at2), FmtHex(ab1), FmtHex(ab2)) def valpha2(at1, at2, ab1, ab2): return '\\2va(&H{0}&,&H{1}&，&H{2}&，&H{3}&)'.format(FmtHex(at1), FmtHex(at2), FmtHex(ab1), FmtHex(ab2)) def valpha3(at1, at2, ab1, ab2): return '\\3va(&H{0}&,&H{1}&，&H{2}&，&H{3}&)'.format(FmtHex(at1), FmtHex(at2), FmtHex(ab1), FmtHex(ab2)) def valpha4(at1, at2, ab1, ab2): return '\\4va(&H{0}&,&H{1}&，&H{2}&，&H{3}&)'.format(FmtHex(at1), FmtHex(at2), FmtHex(ab1), FmtHex(ab2)) def mover(x1, y1, x2, y2, a1, a2, r1, r2, t1 = None, t2 = None): if x1 == int(x1) and y1 == int(y1) and x2 == int(x2) and y2 == int(y2) and a1 == int(a1) and a2 == int(a2): X1 = str(int(x1)) Y1 = str(int(y1)) X2 = str(int(x2)) Y2 = str(int(y2)) A1 = str(int(a1)) A2 = str(int(a2)) R1 = str(int(r1)) R2 = str(int(r2)) else: X1 = str(format(x1, '.2f')) Y1 = str(format(y1, '.2f')) X2 = str(format(x2, '.2f')) Y2 = str(format(y2, '.2f')) A1 = str(format(a1, '.2f')) A2 = str(format(a2, '.2f')) R1 = str(format(r1, '.2f')) R2 = str(format(r2, '.2f')) if t2 == None: return '\\mover({0},{1},{2},{3},{4},{5},{6},{7})'.format(X1, Y1, X2, Y2, A1, A2, R1, R2) else: return '\\mover({0},{1},{2},{3},{4},{5},{6},{7},{8},{9})'.format(X1, Y1, X2, Y2, A1, A2, R1, R2, int(t1), int(t2)) def moves3(x1, y1, x2, y2, x3, y3, t1 = None, t2 = None): if x1 == int(x1) and y1 == int(y1) and x2 == int(x2) and y2 == int(y2) and x3 == int(x3) and y3 == int(y3): X1 = str(int(x1)) Y1 = str(int(y1)) X2 = str(int(x2)) Y2 = str(int(y2)) X3 = str(int(x3)) Y3 = str(int(y3)) else: X1 = str(format(x1, '.2f')) Y1 = str(format(y1, '.2f')) X2 = str(format(x2, '.2f')) Y2 = str(format(y2, '.2f')) X3 = str(format(x3, '.2f')) Y3 = str(format(y3, '.2f')) if t2 == None: return '\\moves3({0},{1},{2},{3},{4},{5})'.format(X1, Y1, X2, Y2, X3, Y3) else: return '\\moves3({0},{1},{2},{3},{4},{5},{6},{7})'.format(X1, Y1, X2, Y2, X3, Y3, int(t1), int(t2)) def moves4(x1, y1, x2, y2, x3, y3, x4, y4, t1 = None, t2 = None): if x1 == int(x1) and y1 == int(y1) and x2 == int(x2) and y2 == int(y2) and x3 == int(x3) and y3 == int(y3) and x4 == int(x4) and y4 == int(y4): X1 = str(int(x1)) Y1 = str(int(y1)) X2 = str(int(x2)) Y2 = str(int(y2)) X3 = str(int(x3)) Y3 = str(int(y3)) X4 = str(int(x4)) Y4 = str(int(y4)) else: X1 = str(format(x1, '.2f')) Y1 = str(format(y1, '.2f')) X2 = str(format(x2, '.2f')) Y2 = str(format(y2, '.2f')) X3 = str(format(x3, '.2f')) Y3 = str(format(y3, '.2f')) X4 = str(format(x4, '.2f')) Y4 = str(format(y4, '.2f')) if t2 == None: return '\\moves4({0},{1},{2},{3},{4},{5},{6},{7})'.format(X1, Y1, X2, Y2, X3, Y3, X4, Y4) else: return '\\moves4({0},{1},{2},{3},{4},{5},{6},{7},{8},{9})'.format(X1, Y1, X2, Y2, X3, Y3, X4, Y4, int(t1), int(t2)) def movevc(x1, y1, x2, y2, t1 = None, t2 = None): if x1 == int(x1) and y1 == int(y1) and x2 == int(x2) and y2 == int(y2): X1 = str(int(x1)) Y1 = str(int(y1)) X2 = str(int(x2)) Y2 = str(int(y2)) else: X1 = str(format(x1, '.2f')) Y1 = str(format(y1, '.2f')) X2 = str(format(x2, '.2f')) Y2 = str(format(y2, '.2f')) if t2 == None: return '\\moves3({0},{1},{2},{3},{4},{5})'.format(X1, Y1, X2, Y2) else: return '\\moves3({0},{1},{2},{3},{4},{5},{6},{7})'.format(X1, Y1, X2, Y2, int(t1), int(t2)) def jitter(left, right, top, bottom, period, seed=None): if left == int(left) and right == int(right) and top == int(top) and bottom == int(bottom) and period == int(period): L = str(int(left)) R = str(int(right)) T = str(int(top)) B = str(int(bottom)) P = str(int(period)) else: L = str(format(left, '.2f')) R = str(format(right, '.2f')) T = str(format(top, '.2f')) B = str(format(bottom, '.2f')) P = str(format(period, '.2f')) if seed == None: return '\\jitter({0},{1},{2},{3},{4})'.format(L, R, T, B, P) else: if seed == int(seed): S = str(int(seed)) else: S = str(format(seed, '.2f')) return '\\jitter({0},{1},{2},{3},{4},{5})'.format(L, R, T, B, P, S) #--------------------------------------------- Utility Function -------------------------------------------# def GetVersion(): print('tcaxLib version: ' + tcaxLibGetVersion() + '\ntcaxPy version: ' + tcaxPy_Version) def GetHelp(): print(GetValueIDsInfo()) def Pause(): print('Press any key to continue...') sys.stdin.readline() def GetRootDir(): return __file__.rsplit('\\', 1)[0] def GetWorkingDir(): return sys.path[0] def abspath(filename): return sys.path[0] + '\\' + filename def MakePath(FolderIndex = 0, ImageIndex = 0, MainFolder = 'src', SubFolder = 'list', ImageName = 'img', ImageType = '.png', PathType = 'pi'): if PathType == 'pi': img_path = '%s\%s%d\%s%04d%s' % (MainFolder, SubFolder, FolderIndex, ImageName, ImageIndex, ImageType) elif PathType == 'sys': img_path = '%s\%s%d\%s (%d)%s' % (MainFolder, SubFolder, FolderIndex, ImageName, ImageIndex, ImageType) else: img_path = '%s\%s%d\%s%04d%s' % (MainFolder, SubFolder, FolderIndex, ImageName, ImageIndex, ImageType) return img_path def tcaxLog(info): s = str(info) + '\r\n' logfile = open(GetVal(val_OutFile) + '_data.log', 'ab') logfile.write(b'\xef\xbb\xbf') # codecs.BOM_UTF8 logfile.write(s.encode('utf-8')) logfile.close() def Progress(i, j, file_id = 1, file_num = 1): total = 0 for l in range(__tcax_data[val_nLines]): total += __tcax_data[val_nTexts][l] completed = 0 for l in range(i): completed += __tcax_data[val_nTexts][l] completed += j + 1 ShowProgress(total, completed, file_id - 1, file_num) def progress(completed, total): ShowProgress(total, completed, 0, 1) #--------------------------------------------- Advanced Function -------------------------------------------# def Sum(LIS, I, diff = 0): # 高级加法函数 在数列LIS里 从第一项累加到第I项 SUM = 0 for i in range(I): SUM += LIS[i] + diff return SUM def AdvInt(a): # 高级取整函数 AdvancedIntegrate if a >= 0 and a - int(a) < 0.5: return int(a) elif a >= 0 and a - int(a) >= 0.5: return int(a) + 1 elif a < 0 and a - int(a) <= -0.5: return int(a) - 1 else: # elif a < 0 and a - int(a) > -0.5: return int(a) def DeFmtTime(TIME): # 重新数字化已被格式化的时间 TIME = '0:00:00.00' return int(TIME[0:1]) * 60 * 60 * 100 + int(TIME[2:4]) * 60 * 100 + int(TIME[5:7]) * 100 + int(TIME[8:10]) def FmtTime(t): # 格式化时间 t = int(t) hour = int(t / 360000) minute = int((t / 6000) % 60) second = int((t / 100) % 60) semiSecond = int(t % 100) return '{0}:{1:02d}:{2:02d}.{3:02d}'.format(hour, minute, second, semiSecond) def PixPt(): # 返回一个像素点 PixelPoint, deprecated, use DrawPoint instead return '{\\p1}m 0 0 l 1 0 1 1 0 1{\\p0}' def DrawPoint(): return '{\\p1}m 0 0 l 1 0 1 1 0 1{\\p0}' def DrawLight(l): light = '{\\p4}' l *= 8 light += 'm 0 0 l -{length} 0 0 8 c'.format(length = int(l)) light += '{\\p0}' return light def MovPxl(): # 移动单位个像素 MovePixel if randint(0, 1) == 0: return -1 else: return 1 def GetDistance(x1, y1, x2, y2): return sqrt((x1 - x2) * (x1 - x2) + (y1 - y2) * (y1 - y2)) def GetAngle(x, y, ox, oy): r = GetDistance(x, y, ox, oy) if r == 0: return 0 a = math.acos((x - ox) / r) if y > oy: a = math.pi * 2 - a return a def RandSign(): if randint(0, 1) == 1: return 1 else: return -1 def RandomGauss(l, h, g): sum = 0 for i in range(g): sum += l + (h - l) * random() return sum / g def RandomDouble(l, h): return l + (h - l) * random() def RandGauss(l, h): sum = 0 for i in range(6): sum += l + (h - l) * random() return sum / 6 def RandRGB(): # 返回一个随机的RGB值 RandomRGB return FmtRGB(randint(0, 255), randint(0, 255), randint(0, 255)) def RandA(): # 返回一个随机的Alpha值 RandomAlpha return FmtHex(randint(0, 255)) def RandImg(n, IMG_WD, IMG_HT): # 随机图形 RandomImage STR_RAND_IMG = 'm ' + str(randint(0, IMG_WD)) + ' ' + str(randint(0, IMG_HT)) + ' b ' for i in range(6 * n): if i % 2 == 0: STR_RAND_IMG += str(randint(0, IMG_WD)) + ' ' else: STR_RAND_IMG += str(randint(0, IMG_HT)) + ' ' return STR_RAND_IMG + 'c' def RandCir(a, b, r): # 随机圆分布函数 RandomCircle1 R = randint(0, r) theta = randint(0, 2 * 314) / 100.0 x = AdvInt(R * cos(theta) + a) y = AdvInt(R * sin(theta) + b) return (x, y) def RandCir2(a, b, r1, r2): # 随机环分布函数 RandomCircle2 R = randint(r1, r2) theta = randint(0, 2 * 314) / 100.0 x = AdvInt(R * cos(theta) + a) y = AdvInt(R * sin(theta) + b) return (x, y) def RandCir3(a, b, r1, r2, theta1, theta2): # 带缺口的随机环分布函数 RandomCircle3 R = randint(r1, r2) Tmp = min(theta1, theta2) theta2 = max(theta1, theta2) theta1 = Tmp theta = randint(AdvInt(314 * theta1 / 180.0), AdvInt(314 * theta2 / 180.0)) / 100.0 x = AdvInt(R * cos(theta) + a) y = AdvInt(R * sin(theta) + b) return (x, y) def Cir(n, a, b, r): # 圆函数 CIR = [] for i in range(n): theta = (n - i - 1) * 2 * pi / n x = AdvInt(r * cos(theta) + a) y = AdvInt(r * sin(theta) + b) CIR.append((x, y)) return CIR def Circle(n, a, b, r): # 圆函数 CIR = [] for i in range(n): theta = (n - i - 1) * 2 * pi / n x = r * cos(theta) + a y = r * sin(theta) + b CIR.append((x, y)) return CIR def RandPolygon(r1, r2, v): s = '{\\p4}' vertex = [] r1 *= 8 r2 *= 8 num = int(v) for i in range(num): vertex.append(RandomDouble(0, 2 * pi)) vertex.sort() x = cos(vertex[0]) * r1 y = sin(vertex[0]) * r2 s += 'm {0} {1} '.format(AdvInt(x), AdvInt(y)) for i in range(1, num): x = cos(vertex[i]) * r1 y = sin(vertex[i]) * r2 s += 'l {0} {1} '.format(AdvInt(x), AdvInt(y)) s += 'c{\\p0}' return s def DevImg(IMG, DEVX, DEVY): # 图形偏移 DeviateIamge NEW_IMG_LIS = IMG.split() NEW_IMG = 'm ' + str(int(NEW_IMG_LIS[1]) + DEVX) + ' ' + str(int(NEW_IMG_LIS[2]) + DEVY) + ' b ' n = len(NEW_IMG_LIS) for i in range(4, n - 1): if i % 2 == 0: NEW_IMG_LIS[i] = int(NEW_IMG_LIS[i]) + DEVX NEW_IMG += str(NEW_IMG_LIS[i]) + ' ' else: NEW_IMG_LIS[i] = int(NEW_IMG_LIS[i]) + DEVY NEW_IMG += str(NEW_IMG_LIS[i]) + ' ' return NEW_IMG + 'c' def RevImgX(IMG): # 图形按照x轴对换 ReverseIamgeX NEW_IMG_LIS = IMG.split() NEW_IMG = 'm ' + str(-int(NEW_IMG_LIS[1])) + ' ' + NEW_IMG_LIS[2] + ' b ' n = len(NEW_IMG_LIS) for i in range(4, n - 1): if i % 2 == 0: NEW_IMG_LIS[i] = -int(NEW_IMG_LIS[i]) NEW_IMG += str(NEW_IMG_LIS[i]) + ' ' else: NEW_IMG += NEW_IMG_LIS[i] + ' ' return NEW_IMG + 'c' def RevImgY(IMG): # 图形按照y轴对换 ReverseIamgeY NEW_IMG_LIS = IMG.split() NEW_IMG = 'm ' + NEW_IMG_LIS[1] + ' ' + str(-int(NEW_IMG_LIS[2])) + ' b ' n = len(NEW_IMG_LIS) for i in range(4, n - 1): if i % 2 == 0: NEW_IMG += NEW_IMG_LIS[i] + ' ' else: NEW_IMG_LIS[i] = -int(NEW_IMG_LIS[i]) NEW_IMG += str(NEW_IMG_LIS[i]) + ' ' return NEW_IMG + 'c' def DivClr(COLOR1, COLOR2, n): # 拆分颜色 DivideColor CLR_LIS_11 = HexToDec(COLOR1[0:2]) CLR_LIS_12 = HexToDec(COLOR1[2:4]) CLR_LIS_13 = HexToDec(COLOR1[4:6]) CLR_LIS_21 = HexToDec(COLOR2[0:2]) CLR_LIS_22 = HexToDec(COLOR2[2:4]) CLR_LIS_23 = HexToDec(COLOR2[4:6]) CLR_LIS = [] if n == 2: return [COLOR1, COLOR2] else: for i in range(0, n - 1): CLR_LIS_I1 = FmtHex(CLR_LIS_11 + (CLR_LIS_21 - CLR_LIS_11) * i / (n - 1)) CLR_LIS_I2 = FmtHex(CLR_LIS_12 + (CLR_LIS_22 - CLR_LIS_12) * i / (n - 1)) CLR_LIS_I3 = FmtHex(CLR_LIS_13 + (CLR_LIS_23 - CLR_LIS_13) * i / (n - 1)) CLR_LIS.append(CLR_LIS_I1 + CLR_LIS_I2 + CLR_LIS_I3) CLR_LIS.append(COLOR2) return CLR_LIS def Jump(P_START, P_END, P_TOP, T): # 跳跃特效函数 JUMP = [] d = P_TOP[0] for i in range(T): a = (P_START[1] - P_TOP[1]) / float((P_START[0] - d) * (P_START[0] - d)) P_X = AdvInt(P_START[0] + i * (P_END[0] - P_START[0]) / float(T)) P_Y = AdvInt(a * (P_X - d) * (P_X - d) + P_TOP[1]) JUMP.append([P_X, P_Y]) return JUMP def AssDrawOffset(draw, x, y): # 平移ASS绘图代码 ret = ' ' lastCmd = None elem = draw.split() num = len(elem) i = 0 while i < num: if elem[i] == 'm': ret += 'm {} {} '.format(int(float(elem[i + 1]) + x + 0.5), int(float(elem[i + 2]) + y + 0.5)) lastCmd = 'm' i += 2 elif elem[i] == 'l': ret += 'l {} {} '.format(int(float(elem[i + 1]) + x + 0.5), int(float(elem[i + 2]) + y + 0.5)) lastCmd = 'l' i += 2 elif elem[i] == 'b': ret += 'b {} {} {} {} {} {} '.format(int(float(elem[i + 1]) + x + 0.5), int(float(elem[i + 2]) + y + 0.5), int(float(elem[i + 3]) + x + 0.5), int(float(elem[i + 4]) + y + 0.5), int(float(elem[i + 5]) + x + 0.5), int(float(elem[i + 6]) + y + 0.5)) lastCmd = 'b' i += 6 elif elem[i] == 'c': ret += 'c ' lastCmd = 'c' elif lastCmd == 'l': i -= 1 ret += '{} {} '.format(int(float(elem[i + 1]) + x + 0.5), int(float(elem[i + 2]) + y + 0.5)) i += 2 elif lastCmd == 'b': i -= 1 ret += '{} {} {} {} {} {} '.format(int(float(elem[i + 1]) + x + 0.5), int(float(elem[i + 2]) + y + 0.5), int(float(elem[i + 3]) + x + 0.5), int(float(elem[i + 4]) + y + 0.5), int(float(elem[i + 5]) + x + 0.5), int(float(elem[i + 6]) + y + 0.5)) i += 6 i += 1 return ret #--------------------------------------------- PIX Function -------------------------------------------# def PixPos(PIX, x, y): return ((x, y), PIX[1], PIX[2]) def PixPosShift(PIX, dx, dy): x = PIX[0][0] y = PIX[0][1] return ((x + dx, y + dy), PIX[1], PIX[2]) def PixFromPoints(points): pt_num = len(points) minX = points[0][0] minY = points[0][1] maxX = points[0][0] maxY = points[0][1] for i in range(pt_num): minX = min(minX, points[i][0]) minY = min(minY, points[i][1]) maxX = max(maxX, points[i][0]) maxY = max(maxY, points[i][1]) buf = [] width = int(maxX - minX + 0.5) + 1 height = int(maxY - minY + 0.5) + 1 size = height * width * 4 for i in range(size): buf.append(0) for i in range(pt_num): buf[(int(points[i][1] - minY + 0.5) * width + int(points[i][0] - minX + 0.5)) * 4 + 3] = points[i][2] return ((minX, minY), (width, height), tuple(buf)) def PixPointsV(PIX): width = PIX[1][0] height = PIX[1][1] points = [] for w in range(width): for h in range(height): idx = 4 * (h * width + w) pixA = PIX[2][idx + 3] if pixA != 0: points.append((w, h, pixA)) return points def PixInvertA(PIX): buf = list(PIX[2]) width = PIX[1][0] height = PIX[1][1] for h in range(height): for w in range(width): index = 4 * (h * width + w) + 3 buf[index] = 255 - buf[index] return (PIX[0], PIX[1], tuple(buf)) def PixR2A(PIX): buf = [] width = PIX[1][0] height = PIX[1][1] for h in range(height): for w in range(width): index = 4 * (h * width + w) buf.append(0) buf.append(0) buf.append(0) buf.append(PIX[2][index + 0]) return (PIX[0], PIX[1], tuple(buf)) def PixA2RGB(PIX): buf = list(PIX[2]) width = PIX[1][0] height = PIX[1][1] for h in range(height): for w in range(width): index = 4 * (h * width + w) buf[index] = buf[index + 3] buf[index + 1] = buf[index + 3] buf[index + 2] = buf[index + 3] buf[index + 3] = 255 return (PIX[0], PIX[1], tuple(buf)) def PixAddA(PIX, step): buf = list(PIX[2]) width = PIX[1][0] height = PIX[1][1] for h in range(height): for w in range(width): index = 4 * (h * width + w) + 3 buf[index] += int(step + 0.5) if buf[index] < 0: buf[index] = 0 if buf[index] > 255: buf[index] = 255 return (PIX[0], PIX[1], tuple(buf)) def PixSwitchRB(PIX): buf = list(PIX[2]) width = PIX[1][0] height = PIX[1][1] for h in range(height): for w in range(width): index = 4 * (h * width + w) temp = buf[index] buf[index] = buf[index + 2] buf[index + 2] = temp return (PIX[0], PIX[1], tuple(buf)) #############################################################################################################