/* Minetest Copyright (C) 2010-2013 celeron55, Perttu Ahola This program is free software; you can redistribute it and/or modify it under the terms of the GNU Lesser General Public License as published by the Free Software Foundation; either version 2.1 of the License, or (at your option) any later version. This program is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU Lesser General Public License for more details. You should have received a copy of the GNU Lesser General Public License along with this program; if not, write to the Free Software Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA. */ #include "string.h" #include "pointer.h" #include "numeric.h" #include "log.h" #include "hex.h" #include "porting.h" #include "translation.h" #include #include #include #include #ifndef _WIN32 #include #else #define _WIN32_WINNT 0x0501 #include #endif #if defined(_ICONV_H_) && (defined(__FreeBSD__) || defined(__NetBSD__) || \ defined(__OpenBSD__) || defined(__DragonFly__)) #define BSD_ICONV_USED #endif static bool parseHexColorString(const std::string &value, video::SColor &color, unsigned char default_alpha = 0xff); static bool parseNamedColorString(const std::string &value, video::SColor &color); #ifndef _WIN32 bool convert(const char *to, const char *from, char *outbuf, size_t outbuf_size, char *inbuf, size_t inbuf_size) { iconv_t cd = iconv_open(to, from); #ifdef BSD_ICONV_USED const char *inbuf_ptr = inbuf; #else char *inbuf_ptr = inbuf; #endif char *outbuf_ptr = outbuf; size_t *inbuf_left_ptr = &inbuf_size; size_t *outbuf_left_ptr = &outbuf_size; size_t old_size = inbuf_size; while (inbuf_size > 0) { iconv(cd, &inbuf_ptr, inbuf_left_ptr, &outbuf_ptr, outbuf_left_ptr); if (inbuf_size == old_size) { iconv_close(cd); return false; } old_size = inbuf_size; } iconv_close(cd); return true; } std::wstring utf8_to_wide(const std::string &input) { size_t inbuf_size = input.length() + 1; // maximum possible size, every character is sizeof(wchar_t) bytes size_t outbuf_size = (input.length() + 1) * sizeof(wchar_t); char *inbuf = new char[inbuf_size]; memcpy(inbuf, input.c_str(), inbuf_size); char *outbuf = new char[outbuf_size]; memset(outbuf, 0, outbuf_size); if (!convert("WCHAR_T", "UTF-8", outbuf, outbuf_size, inbuf, inbuf_size)) { infostream << "Couldn't convert UTF-8 string 0x" << hex_encode(input) << " into wstring" << std::endl; delete[] inbuf; delete[] outbuf; return L""; } std::wstring out((wchar_t *)outbuf); delete[] inbuf; delete[] outbuf; return out; } #ifdef __ANDROID__ // TODO: this is an ugly fix for wide_to_utf8 somehow not working on android std::string wide_to_utf8(const std::wstring &input) { return wide_to_narrow(input); } #else std::string wide_to_utf8(const std::wstring &input) { size_t inbuf_size = (input.length() + 1) * sizeof(wchar_t); // maximum possible size: utf-8 encodes codepoints using 1 up to 6 bytes size_t outbuf_size = (input.length() + 1) * 6; char *inbuf = new char[inbuf_size]; memcpy(inbuf, input.c_str(), inbuf_size); char *outbuf = new char[outbuf_size]; memset(outbuf, 0, outbuf_size); if (!convert("UTF-8", "WCHAR_T", outbuf, outbuf_size, inbuf, inbuf_size)) { infostream << "Couldn't convert wstring 0x" << hex_encode(inbuf, inbuf_size) << " into UTF-8 string" << std::endl; delete[] inbuf; delete[] outbuf; return ""; } std::string out(outbuf); delete[] inbuf; delete[] outbuf; return out; } #endif #else // _WIN32 std::wstring utf8_to_wide(const std::string &input) { size_t outbuf_size = input.size() + 1; wchar_t *outbuf = new wchar_t[outbuf_size]; memset(outbuf, 0, outbuf_size * sizeof(wchar_t)); MultiByteToWideChar(CP_UTF8, 0, input.c_str(), input.size(), outbuf, outbuf_size); std::wstring out(outbuf); delete[] outbuf; return out; } std::string wide_to_utf8(const std::wstring &input) { size_t outbuf_size = (input.size() + 1) * 6; char *outbuf = new char[outbuf_size]; memset(outbuf, 0, outbuf_size); WideCharToMultiByte(CP_UTF8, 0, input.c_str(), input.size(), outbuf, outbuf_size, NULL, NULL); std::string out(outbuf); delete[] outbuf; return out; } #endif // _WIN32 // You must free the returned string! // The returned string is allocated using new wchar_t *utf8_to_wide_c(const char *str) { std::wstring ret = utf8_to_wide(std::string(str)); size_t len = ret.length(); wchar_t *ret_c = new wchar_t[len + 1]; memset(ret_c, 0, (len + 1) * sizeof(wchar_t)); memcpy(ret_c, ret.c_str(), len * sizeof(wchar_t)); return ret_c; } // You must free the returned string! // The returned string is allocated using new wchar_t *narrow_to_wide_c(const char *str) { wchar_t *nstr = NULL; #if defined(_WIN32) int nResult = MultiByteToWideChar(CP_UTF8, 0, (LPCSTR) str, -1, 0, 0); if (nResult == 0) { errorstream<<"gettext: MultiByteToWideChar returned null"<?@" L"ABCDEFGHIJKLMNOPQRSTUVWXYZ[\\]^_`" L"abcdefghijklmnopqrstuvwxyz{|}~"; int wctomb(char *s, wchar_t wc) { for (unsigned int j = 0; j < (sizeof(wide_chars)/sizeof(wchar_t));j++) { if (wc == wide_chars[j]) { *s = (char) (j+32); return 1; } else if (wc == L'\n') { *s = '\n'; return 1; } } return -1; } int mbtowc(wchar_t *pwc, const char *s, size_t n) { std::wstring intermediate = narrow_to_wide(s); if (intermediate.length() > 0) { *pwc = intermediate[0]; return 1; } else { return -1; } } std::wstring narrow_to_wide(const std::string &mbs) { size_t wcl = mbs.size(); std::wstring retval = L""; for (unsigned int i = 0; i < wcl; i++) { if (((unsigned char) mbs[i] >31) && ((unsigned char) mbs[i] < 127)) { retval += wide_chars[(unsigned char) mbs[i] -32]; } //handle newline else if (mbs[i] == '\n') { retval += L'\n'; } } return retval; } #else // not Android std::wstring narrow_to_wide(const std::string &mbs) { size_t wcl = mbs.size(); Buffer wcs(wcl + 1); size_t len = mbstowcs(*wcs, mbs.c_str(), wcl); if (len == (size_t)(-1)) return L""; wcs[len] = 0; return *wcs; } #endif #ifdef __ANDROID__ std::string wide_to_narrow(const std::wstring &wcs) { size_t mbl = wcs.size()*4; std::string retval = ""; for (unsigned int i = 0; i < wcs.size(); i++) { wchar_t char1 = (wchar_t) wcs[i]; if (char1 == L'\n') { retval += '\n'; continue; } for (unsigned int j = 0; j < wcslen(wide_chars);j++) { wchar_t char2 = (wchar_t) wide_chars[j]; if (char1 == char2) { char toadd = (j+32); retval += toadd; break; } } } return retval; } #else // not Android std::string wide_to_narrow(const std::wstring &wcs) { size_t mbl = wcs.size() * 4; SharedBuffer mbs(mbl+1); size_t len = wcstombs(*mbs, wcs.c_str(), mbl); if (len == (size_t)(-1)) return "Character conversion failed!"; mbs[len] = 0; return *mbs; } #endif std::string urlencode(const std::string &str) { // Encodes non-unreserved URI characters by a percent sign // followed by two hex digits. See RFC 3986, section 2.3. static const char url_hex_chars[] = "0123456789ABCDEF"; std::ostringstream oss(std::ios::binary); for (unsigned char c : str) { if (isalnum(c) || c == '-' || c == '.' || c == '_' || c == '~') { oss << c; } else { oss << "%" << url_hex_chars[(c & 0xf0) >> 4] << url_hex_chars[c & 0x0f]; } } return oss.str(); } std::string urldecode(const std::string &str) { // Inverse of urlencode std::ostringstream oss(std::ios::binary); for (u32 i = 0; i < str.size(); i++) { unsigned char highvalue, lowvalue; if (str[i] == '%' && hex_digit_decode(str[i+1], highvalue) && hex_digit_decode(str[i+2], lowvalue)) { oss << (char) ((highvalue << 4) | lowvalue); i += 2; } else { oss << str[i]; } } return oss.str(); } u32 readFlagString(std::string str, const FlagDesc *flagdesc, u32 *flagmask) { u32 result = 0; u32 mask = 0; char *s = &str[0]; char *flagstr; char *strpos = NULL; while ((flagstr = strtok_r(s, ",", &strpos))) { s = NULL; while (*flagstr == ' ' || *flagstr == '\t') flagstr++; bool flagset = true; if (!strncasecmp(flagstr, "no", 2)) { flagset = false; flagstr += 2; } for (int i = 0; flagdesc[i].name; i++) { if (!strcasecmp(flagstr, flagdesc[i].name)) { mask |= flagdesc[i].flag; if (flagset) result |= flagdesc[i].flag; break; } } } if (flagmask) *flagmask = mask; return result; } std::string writeFlagString(u32 flags, const FlagDesc *flagdesc, u32 flagmask) { std::string result; for (int i = 0; flagdesc[i].name; i++) { if (flagmask & flagdesc[i].flag) { if (!(flags & flagdesc[i].flag)) result += "no"; result += flagdesc[i].name; result += ", "; } } size_t len = result.length(); if (len >= 2) result.erase(len - 2, 2); return result; } size_t mystrlcpy(char *dst, const char *src, size_t size) { size_t srclen = strlen(src) + 1; size_t copylen = MYMIN(srclen, size); if (copylen > 0) { memcpy(dst, src, copylen); dst[copylen - 1] = '\0'; } return srclen; } char *mystrtok_r(char *s, const char *sep, char **lasts) { char *t; if (!s) s = *lasts; while (*s && strchr(sep, *s)) s++; if (!*s) return NULL; t = s; while (*t) { if (strchr(sep, *t)) { *t++ = '\0'; break; } t++; } *lasts = t; return s; } u64 read_seed(const char *str) { char *endptr; u64 num; if (str[0] == '0' && str[1] == 'x') num = strtoull(str, &endptr, 16); else num = strtoull(str, &endptr, 10); if (*endptr) num = murmur_hash_64_ua(str, (int)strlen(str), 0x1337); return num; } bool parseColorString(const std::string &value, video::SColor &color, bool quiet, unsigned char default_alpha) { bool success; if (value[0] == '#') success = parseHexColorString(value, color, default_alpha); else success = parseNamedColorString(value, color); if (!success && !quiet) errorstream << "Invalid color: \"" << value << "\"" << std::endl; return success; } static bool parseHexColorString(const std::string &value, video::SColor &color, unsigned char default_alpha) { unsigned char components[] = { 0x00, 0x00, 0x00, default_alpha }; // R,G,B,A if (value[0] != '#') return false; size_t len = value.size(); bool short_form; if (len == 9 || len == 7) // #RRGGBBAA or #RRGGBB short_form = false; else if (len == 5 || len == 4) // #RGBA or #RGB short_form = true; else return false; bool success = true; for (size_t pos = 1, cc = 0; pos < len; pos++, cc++) { assert(cc < sizeof components / sizeof components[0]); if (short_form) { unsigned char d; if (!hex_digit_decode(value[pos], d)) { success = false; break; } components[cc] = (d & 0xf) << 4 | (d & 0xf); } else { unsigned char d1, d2; if (!hex_digit_decode(value[pos], d1) || !hex_digit_decode(value[pos+1], d2)) { success = false; break; } components[cc] = (d1 & 0xf) << 4 | (d2 & 0xf); pos++; // skip the second digit -- it's already used } } if (success) { color.setRed(components[0]); color.setGreen(components[1]); color.setBlue(components[2]); color.setAlpha(components[3]); } return success; } struct ColorContainer { ColorContainer(); std::map colors; }; ColorContainer::ColorContainer() { colors["aliceblue"] = 0xf0f8ff; colors["antiquewhite"] = 0xfaebd7; colors["aqua"] = 0x00ffff; colors["aquamarine"] = 0x7fffd4; colors["azure"] = 0xf0ffff; colors["beige"] = 0xf5f5dc; colors["bisque"] = 0xffe4c4; colors["black"] = 00000000; colors["blanchedalmond"] = 0xffebcd; colors["blue"] = 0x0000ff; colors["blueviolet"] = 0x8a2be2; colors["brown"] = 0xa52a2a; colors["burlywood"] = 0xdeb887; colors["cadetblue"] = 0x5f9ea0; colors["chartreuse"] = 0x7fff00; colors["chocolate"] = 0xd2691e; colors["coral"] = 0xff7f50; colors["cornflowerblue"] = 0x6495ed; colors["cornsilk"] = 0xfff8dc; colors["crimson"] = 0xdc143c; colors["cyan"] = 0x00ffff; colors["darkblue"] = 0x00008b; colors["darkcyan"] = 0x008b8b; colors["darkgoldenrod"] = 0xb8860b; colors["darkgray"] = 0xa9a9a9; colors["darkgreen"] = 0x006400; colors["darkgrey"] = 0xa9a9a9; colors["darkkhaki"] = 0xbdb76b; colors["darkmagenta"] = 0x8b008b; colors["darkolivegreen"] = 0x556b2f; colors["darkorange"] = 0xff8c00; colors["darkorchid"] = 0x9932cc; colors["darkred"] = 0x8b0000; colors["darksalmon"] = 0xe9967a; colors["darkseagreen"] = 0x8fbc8f; colors["darkslateblue"] = 0x483d8b; colors["darkslategray"] = 0x2f4f4f; colors["darkslategrey"] = 0x2f4f4f; colors["darkturquoise"] = 0x00ced1; colors["darkviolet"] = 0x9400d3; colors["deeppink"] = 0xff1493; colors["deepskyblue"] = 0x00bfff; colors["dimgray"] = 0x696969; colors["dimgrey"] = 0x696969; colors["dodgerblue"] = 0x1e90ff; colors["firebrick"] = 0xb22222; colors["floralwhite"] = 0xfffaf0; colors["forestgreen"] = 0x228b22; colors["fuchsia"] = 0xff00ff; colors["gainsboro"] = 0xdcdcdc; colors["ghostwhite"] = 0xf8f8ff; colors["gold"] = 0xffd700; colors["goldenrod"] = 0xdaa520; colors["gray"] = 0x808080; colors["green"] = 0x008000; colors["greenyellow"] = 0xadff2f; colors["grey"] = 0x808080; colors["honeydew"] = 0xf0fff0; colors["hotpink"] = 0xff69b4; colors["indianred"] = 0xcd5c5c; colors["indigo"] = 0x4b0082; colors["ivory"] = 0xfffff0; colors["khaki"] = 0xf0e68c; colors["lavender"] = 0xe6e6fa; colors["lavenderblush"] = 0xfff0f5; colors["lawngreen"] = 0x7cfc00; colors["lemonchiffon"] = 0xfffacd; colors["lightblue"] = 0xadd8e6; colors["lightcoral"] = 0xf08080; colors["lightcyan"] = 0xe0ffff; colors["lightgoldenrodyellow"] = 0xfafad2; colors["lightgray"] = 0xd3d3d3; colors["lightgreen"] = 0x90ee90; colors["lightgrey"] = 0xd3d3d3; colors["lightpink"] = 0xffb6c1; colors["lightsalmon"] = 0xffa07a; colors["lightseagreen"] = 0x20b2aa; colors["lightskyblue"] = 0x87cefa; colors["lightslategray"] = 0x778899; colors["lightslategrey"] = 0x778899; colors["lightsteelblue"] = 0xb0c4de; colors["lightyellow"] = 0xffffe0; colors["lime"] = 0x00ff00; colors["limegreen"] = 0x32cd32; colors["linen"] = 0xfaf0e6; colors["magenta"] = 0xff00ff; colors["maroon"] = 0x800000; colors["mediumaquamarine"] = 0x66cdaa; colors["mediumblue"] = 0x0000cd; colors["mediumorchid"] = 0xba55d3; colors["mediumpurple"] = 0x9370db; colors["mediumseagreen"] = 0x3cb371; colors["mediumslateblue"] = 0x7b68ee; colors["mediumspringgreen"] = 0x00fa9a; colors["mediumturquoise"] = 0x48d1cc; colors["mediumvioletred"] = 0xc71585; colors["midnightblue"] = 0x191970; colors["mintcream"] = 0xf5fffa; colors["mistyrose"] = 0xffe4e1; colors["moccasin"] = 0xffe4b5; colors["navajowhite"] = 0xffdead; colors["navy"] = 0x000080; colors["oldlace"] = 0xfdf5e6; colors["olive"] = 0x808000; colors["olivedrab"] = 0x6b8e23; colors["orange"] = 0xffa500; colors["orangered"] = 0xff4500; colors["orchid"] = 0xda70d6; colors["palegoldenrod"] = 0xeee8aa; colors["palegreen"] = 0x98fb98; colors["paleturquoise"] = 0xafeeee; colors["palevioletred"] = 0xdb7093; colors["papayawhip"] = 0xffefd5; colors["peachpuff"] = 0xffdab9; colors["peru"] = 0xcd853f; colors["pink"] = 0xffc0cb; colors["plum"] = 0xdda0dd; colors["powderblue"] = 0xb0e0e6; colors["purple"] = 0x800080; colors["red"] = 0xff0000; colors["rosybrown"] = 0xbc8f8f; colors["royalblue"] = 0x4169e1; colors["saddlebrown"] = 0x8b4513; colors["salmon"] = 0xfa8072; colors["sandybrown"] = 0xf4a460; colors["seagreen"] = 0x2e8b57; colors["seashell"] = 0xfff5ee; colors["sienna"] = 0xa0522d; colors["silver"] = 0xc0c0c0; colors["skyblue"] = 0x87ceeb; colors["slateblue"] = 0x6a5acd; colors["slategray"] = 0x708090; colors["slategrey"] = 0x708090; colors["snow"] = 0xfffafa; colors["springgreen"] = 0x00ff7f; colors["steelblue"] = 0x4682b4; colors["tan"] = 0xd2b48c; colors["teal"] = 0x008080; colors["thistle"] = 0xd8bfd8; colors["tomato"] = 0xff6347; colors["turquoise"] = 0x40e0d0; colors["violet"] = 0xee82ee; colors["wheat"] = 0xf5deb3; colors["white"] = 0xffffff; colors["whitesmoke"] = 0xf5f5f5; colors["yellow"] = 0xffff00; colors["yellowgreen"] = 0x9acd32; } static const ColorContainer named_colors; static bool parseNamedColorString(const std::string &value, video::SColor &color) { std::string color_name; std::string alpha_string; /* If the string has a # in it, assume this is the start of a specified * alpha value (if it isn't the string is invalid and the error will be * caught later on, either because the color name won't be found or the * alpha value will fail conversion) */ size_t alpha_pos = value.find('#'); if (alpha_pos != std::string::npos) { color_name = value.substr(0, alpha_pos); alpha_string = value.substr(alpha_pos + 1); } else { color_name = value; } color_name = lowercase(value); std::map::const_iterator it; it = named_colors.colors.find(color_name); if (it == named_colors.colors.end()) return false; u32 color_temp = it->second; /* An empty string for alpha is ok (none of the color table entries * have an alpha value either). Color strings without an alpha specified * are interpreted as fully opaque * * For named colors the supplied alpha string (representing a hex value) * must be exactly two digits. For example: colorname#08 */ if (!alpha_string.empty()) { if (alpha_string.length() != 2) return false; unsigned char d1, d2; if (!hex_digit_decode(alpha_string.at(0), d1) || !hex_digit_decode(alpha_string.at(1), d2)) return false; color_temp |= ((d1 & 0xf) << 4 | (d2 & 0xf)) << 24; } else { color_temp |= 0xff << 24; // Fully opaque } color = video::SColor(color_temp); return true; } void str_replace(std::string &str, char from, char to) { std::replace(str.begin(), str.end(), from, to); } /* Translated strings have the following format: * \x1bT marks the beginning of a translated string * \x1bE marks its end * * \x1bF marks the beginning of an argument, and \x1bE its end. * * Arguments are *not* translated, as they may contain escape codes. * Thus, if you want a translated argument, it should be inside \x1bT/\x1bE tags as well. * * This representation is chosen so that clients ignoring escape codes will * see untranslated strings. * * For instance, suppose we have a string such as "@1 Wool" with the argument "White" * The string will be sent as "\x1bT\x1bF\x1bTWhite\x1bE\x1bE Wool\x1bE" * To translate this string, we extract what is inside \x1bT/\x1bE tags. * When we notice the \x1bF tag, we recursively extract what is there up to the \x1bE end tag, * translating it as well. * We get the argument "White", translated, and create a template string with "@1" instead of it. * We finally get the template "@1 Wool" that was used in the beginning, which we translate * before filling it again. */ void translate_all(const std::wstring &s, size_t &i, std::wstring &res); void translate_string(const std::wstring &s, const std::wstring &textdomain, size_t &i, std::wstring &res) { std::wostringstream output; std::vector args; int arg_number = 1; while (i < s.length()) { // Not an escape sequence: just add the character. if (s[i] != '\x1b') { output.put(s[i]); // The character is a literal '@'; add it twice // so that it is not mistaken for an argument. if (s[i] == L'@') output.put(L'@'); ++i; continue; } // We have an escape sequence: locate it and its data // It is either a single character, or it begins with '(' // and extends up to the following ')', with '\' as an escape character. ++i; size_t start_index = i; size_t length; if (i == s.length()) { length = 0; } else if (s[i] == L'(') { ++i; ++start_index; while (i < s.length() && s[i] != L')') { if (s[i] == L'\\') ++i; ++i; } length = i - start_index; ++i; if (i > s.length()) i = s.length(); } else { ++i; length = 1; } std::wstring escape_sequence(s, start_index, length); // The escape sequence is now reconstructed. std::vector parts = split(escape_sequence, L'@'); if (parts[0] == L"E") { // "End of translation" escape sequence. We are done locating the string to translate. break; } else if (parts[0] == L"F") { // "Start of argument" escape sequence. // Recursively translate the argument, and add it to the argument list. // Add an "@n" instead of the argument to the template to translate. if (arg_number >= 10) { errorstream << "Ignoring too many arguments to translation" << std::endl; std::wstring arg; translate_all(s, i, arg); args.push_back(arg); continue; } output.put(L'@'); output << arg_number; ++arg_number; std::wstring arg; translate_all(s, i, arg); args.push_back(arg); } else { // This is an escape sequence *inside* the template string to translate itself. // This should not happen, show an error message. errorstream << "Ignoring escape sequence '" << wide_to_narrow(escape_sequence) << "' in translation" << std::endl; } } // Translate the template. std::wstring toutput = g_translations->getTranslation(textdomain, output.str()); // Put back the arguments in the translated template. std::wostringstream result; size_t j = 0; while (j < toutput.length()) { // Normal character, add it to output and continue. if (toutput[j] != L'@' || j == toutput.length() - 1) { result.put(toutput[j]); ++j; continue; } ++j; // Literal escape for '@'. if (toutput[j] == L'@') { result.put(L'@'); ++j; continue; } // Here we have an argument; get its index and add the translated argument to the output. int arg_index = toutput[j] - L'1'; ++j; if (0 <= arg_index && (size_t)arg_index < args.size()) { result << args[arg_index]; } else { // This is not allowed: show an error message errorstream << "Ignoring out-of-bounds argument escape sequence in translation" << std::endl; } } res = result.str(); } void translate_all(const std::wstring &s, size_t &i, std::wstring &res) { std::wostringstream output; while (i < s.length()) { // Not an escape sequence: just add the character. if (s[i] != '\x1b') { output.put(s[i]); ++i; continue; } // We have an escape sequence: locate it and its data // It is either a single character, or it begins with '(' // and extends up to the following ')', with '\' as an escape character. size_t escape_start = i; ++i; size_t start_index = i; size_t length; if (i == s.length()) { length = 0; } else if (s[i] == L'(') { ++i; ++start_index; while (i < s.length() && s[i] != L')') { if (s[i] == L'\\') { ++i; } ++i; } length = i - start_index; ++i; if (i > s.length()) i = s.length(); } else { ++i; length = 1; } std::wstring escape_sequence(s, start_index, length); // The escape sequence is now reconstructed. std::vector parts = split(escape_sequence, L'@'); if (parts[0] == L"E") { // "End of argument" escape sequence. Exit. break; } else if (parts[0] == L"T") { // Beginning of translated string. std::wstring textdomain; if (parts.size() > 1) textdomain = parts[1]; std::wstring translated; translate_string(s, textdomain, i, translated); output << translated; } else { // Another escape sequence, such as colors. Preserve it. output << std::wstring(s, escape_start, i - escape_start); } } res = output.str(); } std::wstring translate_string(const std::wstring &s) { size_t i = 0; std::wstring res; translate_all(s, i, res); return res; } /** * Create a std::string from a irr::core:stringw. */ std::string strwtostr(const irr::core::stringw &str) { std::string text = core::stringc(str.c_str()).c_str(); return text; } /** * Create a irr::core:stringw from a std::string. */ irr::core::stringw strtostrw(const std::string &str) { size_t size = str.size(); // s.size() doesn't include NULL terminator wchar_t *text = new wchar_t[size + sizeof(wchar_t)]; const char *data = &str[0]; mbsrtowcs(text, &data, size, NULL); text[size] = L'\0'; return text; }