/* Copyright (C) 2004 J.F.Dockes * This program is free software; you can redistribute it and/or modify * it under the terms of the GNU General Public License as published by * the Free Software Foundation; either version 2 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 General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program; if not, write to the * Free Software Foundation, Inc., * 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. */ #ifndef TEST_SMALLUT #include "autoconfig.h" #include #include #include #include #include #include #include #include #include #include #include #include UNORDERED_MAP_INCLUDE #include UNORDERED_SET_INCLUDE #include "smallut.h" #include "utf8iter.h" #include "hldata.h" #include "cstr.h" using namespace std; void map_ss_cp_noshr(const map s, map *d) { for (map::const_iterator it= s.begin(); it != s.end(); it++) { d->insert( pair(string(it->first.begin(), it->first.end()), string(it->second.begin(), it->second.end()))); } } int stringicmp(const string & s1, const string& s2) { string::const_iterator it1 = s1.begin(); string::const_iterator it2 = s2.begin(); string::size_type size1 = s1.length(), size2 = s2.length(); char c1, c2; if (size1 < size2) { while (it1 != s1.end()) { c1 = ::toupper(*it1); c2 = ::toupper(*it2); if (c1 != c2) { return c1 > c2 ? 1 : -1; } ++it1; ++it2; } return size1 == size2 ? 0 : -1; } else { while (it2 != s2.end()) { c1 = ::toupper(*it1); c2 = ::toupper(*it2); if (c1 != c2) { return c1 > c2 ? 1 : -1; } ++it1; ++it2; } return size1 == size2 ? 0 : 1; } } void stringtolower(string& io) { string::iterator it = io.begin(); string::iterator ite = io.end(); while (it != ite) { *it = ::tolower(*it); it++; } } string stringtolower(const string& i) { string o = i; stringtolower(o); return o; } extern int stringisuffcmp(const string& s1, const string& s2) { string::const_reverse_iterator r1 = s1.rbegin(), re1 = s1.rend(), r2 = s2.rbegin(), re2 = s2.rend(); while (r1 != re1 && r2 != re2) { char c1 = ::toupper(*r1); char c2 = ::toupper(*r2); if (c1 != c2) { return c1 > c2 ? 1 : -1; } ++r1; ++r2; } return 0; } // s1 is already lowercase int stringlowercmp(const string & s1, const string& s2) { string::const_iterator it1 = s1.begin(); string::const_iterator it2 = s2.begin(); string::size_type size1 = s1.length(), size2 = s2.length(); char c2; if (size1 < size2) { while (it1 != s1.end()) { c2 = ::tolower(*it2); if (*it1 != c2) { return *it1 > c2 ? 1 : -1; } ++it1; ++it2; } return size1 == size2 ? 0 : -1; } else { while (it2 != s2.end()) { c2 = ::tolower(*it2); if (*it1 != c2) { return *it1 > c2 ? 1 : -1; } ++it1; ++it2; } return size1 == size2 ? 0 : 1; } } // s1 is already uppercase int stringuppercmp(const string & s1, const string& s2) { string::const_iterator it1 = s1.begin(); string::const_iterator it2 = s2.begin(); string::size_type size1 = s1.length(), size2 = s2.length(); char c2; if (size1 < size2) { while (it1 != s1.end()) { c2 = ::toupper(*it2); if (*it1 != c2) { return *it1 > c2 ? 1 : -1; } ++it1; ++it2; } return size1 == size2 ? 0 : -1; } else { while (it2 != s2.end()) { c2 = ::toupper(*it2); if (*it1 != c2) { return *it1 > c2 ? 1 : -1; } ++it1; ++it2; } return size1 == size2 ? 0 : 1; } } // Compare charset names, removing the more common spelling variations bool samecharset(const string &cs1, const string &cs2) { string mcs1, mcs2; // Remove all - and _, turn to lowecase for (unsigned int i = 0; i < cs1.length();i++) { if (cs1[i] != '_' && cs1[i] != '-') { mcs1 += ::tolower(cs1[i]); } } for (unsigned int i = 0; i < cs2.length();i++) { if (cs2[i] != '_' && cs2[i] != '-') { mcs2 += ::tolower(cs2[i]); } } return mcs1 == mcs2; } template bool stringToStrings(const string &s, T &tokens, const string& addseps) { string current; tokens.clear(); enum states {SPACE, TOKEN, INQUOTE, ESCAPE}; states state = SPACE; for (unsigned int i = 0; i < s.length(); i++) { switch (s[i]) { case '"': switch(state) { case SPACE: state=INQUOTE; continue; case TOKEN: current += '"'; continue; case INQUOTE: tokens.insert(tokens.end(), current); current.clear(); state = SPACE; continue; case ESCAPE: current += '"'; state = INQUOTE; continue; } break; case '\\': switch(state) { case SPACE: case TOKEN: current += '\\'; state=TOKEN; continue; case INQUOTE: state = ESCAPE; continue; case ESCAPE: current += '\\'; state = INQUOTE; continue; } break; case ' ': case '\t': case '\n': case '\r': switch(state) { case SPACE: continue; case TOKEN: tokens.insert(tokens.end(), current); current.clear(); state = SPACE; continue; case INQUOTE: case ESCAPE: current += s[i]; continue; } break; default: if (!addseps.empty() && addseps.find(s[i]) != string::npos) { switch(state) { case ESCAPE: state = INQUOTE; break; case INQUOTE: break; case SPACE: tokens.insert(tokens.end(), string(1, s[i])); continue; case TOKEN: tokens.insert(tokens.end(), current); current.erase(); tokens.insert(tokens.end(), string(1, s[i])); state = SPACE; continue; } } else switch(state) { case ESCAPE: state = INQUOTE; break; case SPACE: state = TOKEN; break; case TOKEN: case INQUOTE: break; } current += s[i]; } } switch(state) { case SPACE: break; case TOKEN: tokens.insert(tokens.end(), current); break; case INQUOTE: case ESCAPE: return false; } return true; } template bool stringToStrings >(const string &, list &, const string&); template bool stringToStrings >(const string &, vector &,const string&); template bool stringToStrings >(const string &, set &, const string&); template bool stringToStrings > (const string &, STD_UNORDERED_SET &, const string&); template void stringsToString(const T &tokens, string &s) { for (typename T::const_iterator it = tokens.begin(); it != tokens.end(); it++) { bool hasblanks = false; if (it->find_first_of(" \t\n") != string::npos) hasblanks = true; if (it != tokens.begin()) s.append(1, ' '); if (hasblanks) s.append(1, '"'); for (unsigned int i = 0; i < it->length(); i++) { char car = it->at(i); if (car == '"') { s.append(1, '\\'); s.append(1, car); } else { s.append(1, car); } } if (hasblanks) s.append(1, '"'); } } template void stringsToString >(const list &, string &); template void stringsToString >(const vector &,string &); template void stringsToString >(const set &, string &); template string stringsToString(const T &tokens) { string out; stringsToString(tokens, out); return out; } template string stringsToString >(const list &); template string stringsToString >(const vector &); template string stringsToString >(const set &); template void stringsToCSV(const T &tokens, string &s, char sep) { s.erase(); for (typename T::const_iterator it = tokens.begin(); it != tokens.end(); it++) { bool needquotes = false; if (it->empty() || it->find_first_of(string(1, sep) + "\"\n") != string::npos) needquotes = true; if (it != tokens.begin()) s.append(1, sep); if (needquotes) s.append(1, '"'); for (unsigned int i = 0; i < it->length(); i++) { char car = it->at(i); if (car == '"') { s.append(2, '"'); } else { s.append(1, car); } } if (needquotes) s.append(1, '"'); } } template void stringsToCSV >(const list &, string &, char); template void stringsToCSV >(const vector &,string &, char); void stringToTokens(const string& str, vector& tokens, const string& delims, bool skipinit) { string::size_type startPos = 0, pos; // Skip initial delims, return empty if this eats all. if (skipinit && (startPos = str.find_first_not_of(delims, 0)) == string::npos) { return; } while (startPos < str.size()) { // Find next delimiter or end of string (end of token) pos = str.find_first_of(delims, startPos); // Add token to the vector and adjust start if (pos == string::npos) { tokens.push_back(str.substr(startPos)); break; } else if (pos == startPos) { // Dont' push empty tokens after first if (tokens.empty()) tokens.push_back(string()); startPos = ++pos; } else { tokens.push_back(str.substr(startPos, pos - startPos)); startPos = ++pos; } } } bool stringToBool(const string &s) { if (s.empty()) return false; if (isdigit(s[0])) { int val = atoi(s.c_str()); return val ? true : false; } if (s.find_first_of("yYtT") == 0) return true; return false; } void trimstring(string &s, const char *ws) { string::size_type pos = s.find_first_not_of(ws); if (pos == string::npos) { s.clear(); return; } s.replace(0, pos, string()); pos = s.find_last_not_of(ws); if (pos != string::npos && pos != s.length()-1) s.replace(pos+1, string::npos, string()); } // Remove some chars and replace them with spaces string neutchars(const string &str, const string &chars) { string out; neutchars(str, out, chars); return out; } void neutchars(const string &str, string &out, const string& chars) { string::size_type startPos, pos; for (pos = 0;;) { // Skip initial chars, break if this eats all. if ((startPos = str.find_first_not_of(chars, pos)) == string::npos) break; // Find next delimiter or end of string (end of token) pos = str.find_first_of(chars, startPos); // Add token to the output. Note: token cant be empty here if (pos == string::npos) { out += str.substr(startPos); } else { out += str.substr(startPos, pos - startPos) + " "; } } } /* Truncate a string to a given maxlength, avoiding cutting off midword * if reasonably possible. Note: we could also use textsplit, stopping when * we have enough, this would be cleanly utf8-aware but would remove * punctuation */ static const string cstr_SEPAR = " \t\n\r-:.;,/[]{}"; string truncate_to_word(const string &input, string::size_type maxlen) { string output; if (input.length() <= maxlen) { output = input; } else { output = input.substr(0, maxlen); string::size_type space = output.find_last_of(cstr_SEPAR); // Original version only truncated at space if space was found after // maxlen/2. But we HAVE to truncate at space, else we'd need to do // utf8 stuff to avoid truncating at multibyte char. In any case, // not finding space means that the text probably has no value. // Except probably for Asian languages, so we may want to fix this // one day if (space == string::npos) { output.erase(); } else { output.erase(space); } } return output; } void utf8truncate(string &s, int maxlen) { if (s.size() <= string::size_type(maxlen)) return; Utf8Iter iter(s); string::size_type pos = 0; while (iter++ != string::npos) if (iter.getBpos() < string::size_type(maxlen)) pos = iter.getBpos(); s.erase(pos); } // Escape things that would look like markup string escapeHtml(const string &in) { string out; for (string::size_type pos = 0; pos < in.length(); pos++) { switch(in.at(pos)) { case '<': out += "<"; break; case '&': out += "&"; break; default: out += in.at(pos); } } return out; } string escapeShell(const string &in) { string out; out += "\""; for (string::size_type pos = 0; pos < in.length(); pos++) { switch(in.at(pos)) { case '$': out += "\\$"; break; case '`': out += "\\`"; break; case '"': out += "\\\""; break; case '\n': out += "\\\n"; break; case '\\': out += "\\\\"; break; default: out += in.at(pos); } } out += "\""; return out; } // Substitute printf-like percent cmds inside a string bool pcSubst(const string& in, string& out, const map& subs) { string::const_iterator it; for (it = in.begin(); it != in.end();it++) { if (*it == '%') { if (++it == in.end()) { out += '%'; break; } if (*it == '%') { out += '%'; continue; } map::const_iterator tr; if ((tr = subs.find(*it)) != subs.end()) { out += tr->second; } else { // We used to do "out += *it;" here but this does not make // sense } } else { out += *it; } } return true; } bool pcSubst(const string& in, string& out, const map& subs) { out.erase(); string::size_type i; for (i = 0; i < in.size(); i++) { if (in[i] == '%') { if (++i == in.size()) { out += '%'; break; } if (in[i] == '%') { out += '%'; continue; } string key = ""; if (in[i] == '(') { if (++i == in.size()) { out += string("%("); break; } string::size_type j = in.find_first_of(")", i); if (j == string::npos) { // ??concatenate remaining part and stop out += in.substr(i-2); break; } key = in.substr(i, j-i); i = j; } else { key = in[i]; } map::const_iterator tr; if ((tr = subs.find(key)) != subs.end()) { out += tr->second; } else { // Substitute to nothing, that's the reasonable thing to do // instead of keeping the %(key) // out += key.size()==1? key : string("(") + key + string(")"); } } else { out += in[i]; } } return true; } inline static int ulltorbuf(unsigned long long val, char *rbuf) { int idx; for (idx = 0; val; idx++) { rbuf[idx] = '0' + val % 10; val /= 10; } while (val); rbuf[idx] = 0; return idx; } inline static void ullcopyreverse(const char *rbuf, string& buf, int idx) { buf.reserve(idx+1); for (int i = idx - 1; i >= 0; i--) { buf.push_back(rbuf[i]); } buf.push_back(0); } void ulltodecstr(unsigned long long val, string& buf) { buf.clear(); if (val == 0) { buf = "0"; return; } char rbuf[30]; int idx = ulltorbuf(val, rbuf); ullcopyreverse(rbuf, buf, idx); return; } void lltodecstr(long long val, string& buf) { buf.clear(); if (val == 0) { buf = "0"; return; } bool neg = val < 0; if (neg) val = -val; char rbuf[30]; int idx = ulltorbuf(val, rbuf); if (neg) rbuf[idx++] = '-'; rbuf[idx] = 0; ullcopyreverse(rbuf, buf, idx); return; } string lltodecstr(long long val) { string buf; lltodecstr(val, buf); return buf; } string ulltodecstr(unsigned long long val) { string buf; ulltodecstr(val, buf); return buf; } // Convert byte count into unit (KB/MB...) appropriate for display string displayableBytes(off_t size) { char sizebuf[50]; const char *unit; double roundable = 0; if (size < 1000) { unit = " B "; roundable = double(size); } else if (size < 1E6) { unit = " KB "; roundable = double(size) / 1E3; } else if (size < 1E9) { unit = " MB "; roundable = double(size) / 1E6; } else { unit = " GB "; roundable = double(size) / 1E9; } size = off_t(round(roundable)); sprintf(sizebuf, "%lld" "%s", (long long)size, unit); return string(sizebuf); } string breakIntoLines(const string& in, unsigned int ll, unsigned int maxlines) { string query = in; string oq; unsigned int nlines = 0; while (query.length() > 0) { string ss = query.substr(0, ll); if (ss.length() == ll) { string::size_type pos = ss.find_last_of(" "); if (pos == string::npos) { pos = query.find_first_of(" "); if (pos != string::npos) ss = query.substr(0, pos+1); else ss = query; } else { ss = ss.substr(0, pos+1); } } // This cant happen, but anyway. Be very sure to avoid an infinite loop if (ss.length() == 0) { oq = query; break; } oq += ss + "\n"; if (nlines++ >= maxlines) { oq += " ... \n"; break; } query= query.substr(ss.length()); } return oq; } //////////////////// #if 0 // Internal redefinition of system time interface to help with dependancies struct m_timespec { time_t tv_sec; long tv_nsec; }; #endif #ifndef CLOCK_REALTIME typedef int clockid_t; #define CLOCK_REALTIME 1 #endif #define MILLIS(TV) ( (long)(((TV).tv_sec - m_secs) * 1000L + \ ((TV).tv_nsec - m_nsecs) / 1000000)) #define MICROS(TV) ( (long)(((TV).tv_sec - m_secs) * 1000000L + \ ((TV).tv_nsec - m_nsecs) / 1000)) #define NANOS(TV) ( (long long)(((TV).tv_sec - m_secs) * 1000000000LL + \ ((TV).tv_nsec - m_nsecs))) // Using clock_gettime() is nice because it gives us ns res and it helps with // computing threads work times, but it's also a pita because it forces linking // with -lrt. So keep it optional. And not on the mac anyway // #define USE_CLOCK_GETTIME #ifdef __APPLE__ #undef USE_CLOCK_GETTIME #endif #ifdef WIN32 #include "safewindows.h" // Note: struct timespec is defined by pthread.h (from pthreads-w32) #ifndef CLOCK_REALTIME #define CLOCK_REALTIME 0 #endif LARGE_INTEGER getFILETIMEoffset() { SYSTEMTIME s; FILETIME f; LARGE_INTEGER t; s.wYear = 1970; s.wMonth = 1; s.wDay = 1; s.wHour = 0; s.wMinute = 0; s.wSecond = 0; s.wMilliseconds = 0; SystemTimeToFileTime(&s, &f); t.QuadPart = f.dwHighDateTime; t.QuadPart <<= 32; t.QuadPart |= f.dwLowDateTime; return (t); } int clock_gettime(int X, struct timespec *tv) { LARGE_INTEGER t; FILETIME f; double microseconds; static LARGE_INTEGER offset; static double frequencyToMicroseconds; static int initialized = 0; static BOOL usePerformanceCounter = 0; if (!initialized) { LARGE_INTEGER performanceFrequency; initialized = 1; usePerformanceCounter = QueryPerformanceFrequency(&performanceFrequency); if (usePerformanceCounter) { QueryPerformanceCounter(&offset); frequencyToMicroseconds = (double)performanceFrequency.QuadPart / 1000000.; } else { offset = getFILETIMEoffset(); frequencyToMicroseconds = 10.; } } if (usePerformanceCounter) QueryPerformanceCounter(&t); else { GetSystemTimeAsFileTime(&f); t.QuadPart = f.dwHighDateTime; t.QuadPart <<= 32; t.QuadPart |= f.dwLowDateTime; } t.QuadPart -= offset.QuadPart; microseconds = (double)t.QuadPart / frequencyToMicroseconds; t.QuadPart = (long long)microseconds; tv->tv_sec = t.QuadPart / 1000000; tv->tv_nsec = (t.QuadPart % 1000000) * 1000; return (0); } #define USE_CLOCK_GETTIME #else /* -> !_WIN32 */ #ifndef USE_CLOCK_GETTIME #include #endif #endif static void gettime(clockid_t clk_id, struct timespec *ts) { #ifndef USE_CLOCK_GETTIME struct timeval tv; gettimeofday(&tv, 0); ts->tv_sec = tv.tv_sec; ts->tv_nsec = tv.tv_usec * 1000; #else clock_gettime(clk_id, ts); #endif } ///// End system interface // Note: this not protected against multithread access and not reentrant, but // this is mostly debug code, and it won't crash, just show bad results. Also // the frozen thing is not used that much static timespec frozen_tv; void Chrono::refnow() { gettime(CLOCK_REALTIME, &frozen_tv); } Chrono::Chrono() { restart(); } // Reset and return value before rest in milliseconds time_t Chrono::restart() { struct timespec tv; gettime(CLOCK_REALTIME, &tv); time_t ret = MILLIS(tv); m_secs = tv.tv_sec; m_nsecs = tv.tv_nsec; return ret; } // Get current timer value, milliseconds time_t Chrono::millis(int frozen) { return nanos() / 1000000; } // time_t Chrono::micros(int frozen) { return nanos() / 1000; } time_t Chrono::nanos(int frozen) { if (frozen) { return NANOS(frozen_tv); } else { struct timespec tv; gettime(CLOCK_REALTIME, &tv); return NANOS(tv); } } double Chrono::secs(int frozen) { struct timespec tv; gettime(CLOCK_REALTIME, &tv); double secs = (double)(frozen?frozen_tv.tv_sec:tv.tv_sec - m_secs); double nsecs = (double)(frozen?frozen_tv.tv_nsec:tv.tv_nsec - m_nsecs); return secs + nsecs * 1e-9; } // Date is Y[-M[-D]] static bool parsedate(vector::const_iterator& it, vector::const_iterator end, DateInterval *dip) { dip->y1 = dip->m1 = dip->d1 = dip->y2 = dip->m2 = dip->d2 = 0; if (it->length() > 4 || !it->length() || it->find_first_not_of("0123456789") != string::npos) { return false; } if (it == end || sscanf(it++->c_str(), "%d", &dip->y1) != 1) { return false; } if (it == end || *it == "/") return true; if (*it++ != "-") { return false; } if (it->length() > 2 || !it->length() || it->find_first_not_of("0123456789") != string::npos) { return false; } if (it == end || sscanf(it++->c_str(), "%d", &dip->m1) != 1) { return false; } if (it == end || *it == "/") return true; if (*it++ != "-") { return false; } if (it->length() > 2 || !it->length() || it->find_first_not_of("0123456789") != string::npos) { return false; } if (it == end || sscanf(it++->c_str(), "%d", &dip->d1) != 1) { return false; } return true; } // Called with the 'P' already processed. Period ends at end of string // or at '/'. We dont' do a lot effort at validation and will happily // accept 10Y1Y4Y (the last wins) static bool parseperiod(vector::const_iterator& it, vector::const_iterator end, DateInterval *dip) { dip->y1 = dip->m1 = dip->d1 = dip->y2 = dip->m2 = dip->d2 = 0; while (it != end) { int value; if (it->find_first_not_of("0123456789") != string::npos) { return false; } if (sscanf(it++->c_str(), "%d", &value) != 1) { return false; } if (it == end || it->empty()) return false; switch (it->at(0)) { case 'Y': case 'y': dip->y1 = value;break; case 'M': case 'm': dip->m1 = value;break; case 'D': case 'd': dip->d1 = value;break; default: return false; } it++; if (it == end) return true; if (*it == "/") { return true; } } return true; } static void cerrdip(const string& s, DateInterval *dip) { cerr << s << dip->y1 << "-" << dip->m1 << "-" << dip->d1 << "/" << dip->y2 << "-" << dip->m2 << "-" << dip->d2 << endl; } // Compute date + period. Won't work out of the unix era. // or pre-1970 dates. Just convert everything to unixtime and // seconds (with average durations for months/years), add and convert // back static bool addperiod(DateInterval *dp, DateInterval *pp) { struct tm tm; // Create a struct tm with possibly non normalized fields and let // timegm sort it out memset(&tm, 0, sizeof(tm)); tm.tm_year = dp->y1 - 1900 + pp->y1; tm.tm_mon = dp->m1 + pp->m1 -1; tm.tm_mday = dp->d1 + pp->d1; #ifdef sun time_t tres = mktime(&tm); localtime_r(&tres, &tm); #else time_t tres = timegm(&tm); gmtime_r(&tres, &tm); #endif dp->y1 = tm.tm_year + 1900; dp->m1 = tm.tm_mon + 1; dp->d1 = tm.tm_mday; //cerrdip("Addperiod return", dp); return true; } int monthdays(int mon, int year) { switch (mon) { // We are returning a few two many 29 days februaries, no problem case 2: return (year % 4) == 0 ? 29 : 28; case 1:case 3:case 5:case 7: case 8:case 10:case 12: return 31; default: return 30; } } bool parsedateinterval(const string& s, DateInterval *dip) { vector vs; dip->y1 = dip->m1 = dip->d1 = dip->y2 = dip->m2 = dip->d2 = 0; DateInterval p1, p2, d1, d2; p1 = p2 = d1 = d2 = *dip; bool hasp1 = false, hasp2 = false, hasd1 = false, hasd2 = false, hasslash = false; if (!stringToStrings(s, vs, "PYMDpymd-/")) { return false; } if (vs.empty()) return false; vector::const_iterator it = vs.begin(); if (*it == "P" || *it == "p") { it++; if (!parseperiod(it, vs.end(), &p1)) { return false; } hasp1 = true; //cerrdip("p1", &p1); p1.y1 = -p1.y1; p1.m1 = -p1.m1; p1.d1 = -p1.d1; } else if (*it == "/") { hasslash = true; goto secondelt; } else { if (!parsedate(it, vs.end(), &d1)) { return false; } hasd1 = true; } // Got one element and/or / secondelt: if (it != vs.end()) { if (*it != "/") { return false; } hasslash = true; it++; if (it == vs.end()) { // ok } else if (*it == "P" || *it == "p") { it++; if (!parseperiod(it, vs.end(), &p2)) { return false; } hasp2 = true; } else { if (!parsedate(it, vs.end(), &d2)) { return false; } hasd2 = true; } } // 2 periods dont' make sense if (hasp1 && hasp2) { return false; } // Nothing at all doesn't either if (!hasp1 && !hasd1 && !hasp2 && !hasd2) { return false; } // Empty part means today IF other part is period, else means // forever (stays at 0) time_t now = time(0); struct tm *tmnow = gmtime(&now); if ((!hasp1 && !hasd1) && hasp2) { d1.y1 = 1900 + tmnow->tm_year; d1.m1 = tmnow->tm_mon + 1; d1.d1 = tmnow->tm_mday; hasd1 = true; } else if ((!hasp2 && !hasd2) && hasp1) { d2.y1 = 1900 + tmnow->tm_year; d2.m1 = tmnow->tm_mon + 1; d2.d1 = tmnow->tm_mday; hasd2 = true; } // Incomplete dates have different meanings depending if there is // a period or not (actual or infinite indicated by a / + empty) // // If there is no explicit period, an incomplete date indicates a // period of the size of the uncompleted elements. Ex: 1999 // actually means 1999/P12M // // If there is a period, the incomplete date should be extended // to the beginning or end of the unspecified portion. Ex: 1999/ // means 1999-01-01/ and /1999 means /1999-12-31 if (hasd1) { if (!(hasslash || hasp2)) { if (d1.m1 == 0) { p2.m1 = 12; d1.m1 = 1; d1.d1 = 1; } else if (d1.d1 == 0) { d1.d1 = 1; p2.d1 = monthdays(d1.m1, d1.y1); } hasp2 = true; } else { if (d1.m1 == 0) { d1.m1 = 1; d1.d1 = 1; } else if (d1.d1 == 0) { d1.d1 = 1; } } } // if hasd2 is true we had a / if (hasd2) { if (d2.m1 == 0) { d2.m1 = 12; d2.d1 = 31; } else if (d2.d1 == 0) { d2.d1 = monthdays(d2.m1, d2.y1); } } if (hasp1) { // Compute d1 d1 = d2; if (!addperiod(&d1, &p1)) { return false; } } else if (hasp2) { // Compute d2 d2 = d1; if (!addperiod(&d2, &p2)) { return false; } } dip->y1 = d1.y1; dip->m1 = d1.m1; dip->d1 = d1.d1; dip->y2 = d2.y1; dip->m2 = d2.m1; dip->d2 = d2.d1; return true; } void catstrerror(string *reason, const char *what, int _errno) { if (!reason) return; if (what) reason->append(what); reason->append(": errno: "); char nbuf[20]; sprintf(nbuf, "%d", _errno); reason->append(nbuf); reason->append(" : "); #if defined(sun) || defined(_WIN32) // Note: sun strerror is noted mt-safe ?? reason->append(strerror(_errno)); #else #define ERRBUFSZ 200 char errbuf[ERRBUFSZ]; // There are 2 versions of strerror_r. // - The GNU one returns a pointer to the message (maybe // static storage or supplied buffer). // - The POSIX one always stores in supplied buffer and // returns 0 on success. As the possibility of error and // error code are not specified, we're basically doomed // cause we can't use a test on the 0 value to know if we // were returned a pointer... // Also couldn't find an easy way to disable the gnu version without // changing the cxxflags globally, so forget it. Recent gnu lib versions // normally default to the posix version. // At worse we get no message at all here. errbuf[0] = 0; // We don't use ret, it's there to silence a cc warning char *ret = (char *)strerror_r(_errno, errbuf, ERRBUFSZ); reason->append(errbuf); #endif } void HighlightData::toString(std::string& out) { out.append("\nUser terms (orthograph): "); for (std::set::const_iterator it = uterms.begin(); it != uterms.end(); it++) { out.append(" [").append(*it).append("]"); } out.append("\nUser terms to Query terms:"); for (map::const_iterator it = terms.begin(); it != terms.end(); it++) { out.append("[").append(it->first).append("]->["); out.append(it->second).append("] "); } out.append("\nGroups: "); char cbuf[200]; sprintf(cbuf, "Groups size %d grpsugidx size %d ugroups size %d", int(groups.size()), int(grpsugidx.size()), int(ugroups.size())); out.append(cbuf); size_t ugidx = (size_t)-1; for (unsigned int i = 0; i < groups.size(); i++) { if (ugidx != grpsugidx[i]) { ugidx = grpsugidx[i]; out.append("\n("); for (unsigned int j = 0; j < ugroups[ugidx].size(); j++) { out.append("[").append(ugroups[ugidx][j]).append("] "); } out.append(") ->"); } out.append(" {"); for (unsigned int j = 0; j < groups[i].size(); j++) { out.append("[").append(groups[i][j]).append("]"); } sprintf(cbuf, "%d", slacks[i]); out.append("}").append(cbuf); } out.append("\n"); } void HighlightData::append(const HighlightData& hl) { uterms.insert(hl.uterms.begin(), hl.uterms.end()); terms.insert(hl.terms.begin(), hl.terms.end()); size_t ugsz0 = ugroups.size(); ugroups.insert(ugroups.end(), hl.ugroups.begin(), hl.ugroups.end()); groups.insert(groups.end(), hl.groups.begin(), hl.groups.end()); slacks.insert(slacks.end(), hl.slacks.begin(), hl.slacks.end()); for (std::vector::const_iterator it = hl.grpsugidx.begin(); it != hl.grpsugidx.end(); it++) { grpsugidx.push_back(*it + ugsz0); } } static const char *vlang_to_code[] = { "be", "cp1251", "bg", "cp1251", "cs", "iso-8859-2", "el", "iso-8859-7", "he", "iso-8859-8", "hr", "iso-8859-2", "hu", "iso-8859-2", "ja", "eucjp", "kk", "pt154", "ko", "euckr", "lt", "iso-8859-13", "lv", "iso-8859-13", "pl", "iso-8859-2", "rs", "iso-8859-2", "ro", "iso-8859-2", "ru", "koi8-r", "sk", "iso-8859-2", "sl", "iso-8859-2", "sr", "iso-8859-2", "th", "iso-8859-11", "tr", "iso-8859-9", "uk", "koi8-u", }; string langtocode(const string& lang) { static STD_UNORDERED_MAP lang_to_code; if (lang_to_code.empty()) { for (unsigned int i = 0; i < sizeof(vlang_to_code) / sizeof(char *); i += 2) { lang_to_code[vlang_to_code[i]] = vlang_to_code[i+1]; } } STD_UNORDERED_MAP::const_iterator it = lang_to_code.find(lang); // Use cp1252 by default... if (it == lang_to_code.end()) return cstr_cp1252; return it->second; } string localelang() { const char *lang = getenv("LANG"); if (lang == 0 || *lang == 0 || !strcmp(lang, "C") || !strcmp(lang, "POSIX")) return "en"; string locale(lang); string::size_type under = locale.find_first_of("_"); if (under == string::npos) return locale; return locale.substr(0, under); } // Initialization for static stuff to be called from main thread before going // multiple void smallut_init_mt() { // Init langtocode() static table langtocode(""); } #else // TEST_SMALLUT #include using namespace std; #include #include "smallut.h" struct spair { const char *s1; const char *s2; }; struct spair pairs[] = { {"", ""}, {"", "a"}, {"a", ""}, {"a", "a"}, {"A", "a"}, {"a", "A"}, {"A", "A"}, {"12", "12"}, {"a", "ab"}, {"ab", "a"}, {"A", "Ab"}, {"a", "Ab"}, }; int npairs = sizeof(pairs) / sizeof(struct spair); struct spair suffpairs[] = { {"", ""}, {"", "a"}, {"a", ""}, {"a", "a"}, {"toto.txt", ".txt"}, {"TXT", "toto.txt"}, {"toto.txt", ".txt1"}, {"toto.txt1", ".txt"}, }; int nsuffpairs = sizeof(suffpairs) / sizeof(struct spair); // Periods test strings const char* periods[] = { "2001", // Year 2001 "2001/", // 2001 or later "2001/P3Y", // 2001 -> 2004 or 2005, ambiguous "2001-01-01/P3Y", // 01-2001 -> 01 2004 "2001-03-03/2001-05-01", // Explicit one "P3M/", // 3 months ago to now "P1Y1M/2001-03-01", // 2000-02-01/2001-03-01 "/2001", // From the epoch to the end of 2001 }; const int nperiods = sizeof(periods) / sizeof(char*); const char *thisprog; static void cerrdip(const string& s, DateInterval *dip) { cerr << s << dip->y1 << "-" << dip->m1 << "-" << dip->d1 << "/" << dip->y2 << "-" << dip->m2 << "-" << dip->d2 << endl; } int main(int argc, char **argv) { thisprog = *argv++;argc--; #if 0 if (argc <=0 ) { cerr << "Usage: smallut " << endl; exit(1); } string s = *argv++;argc--; vector vs; if (!stringToStrings(s, vs, ":-()")) { cerr << "Bad entry" << endl; exit(1); } for (vector::const_iterator it = vs.begin(); it != vs.end(); it++) cerr << "[" << *it << "] "; cerr << endl; exit(0); #elif 0 if (argc <=0 ) { cerr << "Usage: smallut " << endl; exit(1); } string s = *argv++;argc--; DateInterval di; if (!parsedateinterval(s, &di)) { cerr << "Parse failed" << endl; exit(1); } cerrdip("", &di); exit(0); #elif 0 DateInterval di; for (int i = 0; i < nperiods; i++) { if (!parsedateinterval(periods[i], &di)) { cerr << "Parsing failed for [" << periods[i] << "]" << endl; } else { cerrdip(string(periods[i]).append(" : "), &di); } } exit(0); #elif 0 for (int i = 0; i < npairs; i++) { { int c = stringicmp(pairs[i].s1, pairs[i].s2); printf("'%s' %s '%s' ", pairs[i].s1, c == 0 ? "==" : c < 0 ? "<" : ">", pairs[i].s2); } { int cl = stringlowercmp(pairs[i].s1, pairs[i].s2); printf("L '%s' %s '%s' ", pairs[i].s1, cl == 0 ? "==" : cl < 0 ? "<" : ">", pairs[i].s2); } { int cu = stringuppercmp(pairs[i].s1, pairs[i].s2); printf("U '%s' %s '%s' ", pairs[i].s1, cu == 0 ? "==" : cu < 0 ? "<" : ">", pairs[i].s2); } printf("\n"); } #elif 0 for (int i = 0; i < nsuffpairs; i++) { int c = stringisuffcmp(suffpairs[i].s1, suffpairs[i].s2); printf("[%s] %s [%s] \n", suffpairs[i].s1, c == 0 ? "matches" : c < 0 ? "<" : ">", suffpairs[i].s2); } #elif 0 std::string testit("\303\251l\303\251gant"); for (int sz = 10; sz >= 0; sz--) { utf8truncate(testit, sz); cout << testit << endl; } #elif 0 std::string testit("ligne\ndeuxieme ligne\r3eme ligne\r\n"); cout << "[" << neutchars(testit, "\r\n") << "]" << endl; string i, o; cout << "neutchars(null) is [" << neutchars(i, "\r\n") << "]" << endl; #elif 0 map substs; substs["a"] = "A_SUBST"; substs["title"] = "TITLE_SUBST"; string in = "a: %a title: %(title) pcpc: %% %"; string out; pcSubst(in, out, substs); cout << in << " => " << out << endl; in = "unfinished: %(unfinished"; pcSubst(in, out, substs); cout << in << " => " << out << endl; in = "unfinished: %("; pcSubst(in, out, substs); cout << in << " => " << out << endl; in = "empty: %()"; pcSubst(in, out, substs); cout << in << " => " << out << endl; substs.clear(); in = "a: %a title: %(title) pcpc: %% %"; pcSubst(in, out, substs); cout << "After map clear: " << in << " => " << out << endl; #elif 0 list tokens; tokens.push_back(""); tokens.push_back("a,b"); tokens.push_back("simple value"); tokens.push_back("with \"quotes\""); string out; stringsToCSV(tokens, out); cout << "CSV line: [" << out << "]" << endl; #elif 1 string sshort("ABC"); string slong("ABCD"); string sshortsmaller("ABB"); vector > cmps; cmps.push_back(pair(sshort,sshort)); cmps.push_back(pair(sshort,slong)); cmps.push_back(pair(slong,sshort)); cmps.push_back(pair(sshortsmaller,sshort)); cmps.push_back(pair(sshort, sshortsmaller)); for (vector >::const_iterator it = cmps.begin(); it != cmps.end(); it++) { cout << it->first << " " << it->second << " " << stringicmp(it->first, it->second) << endl; } cout << endl; for (vector >::const_iterator it = cmps.begin(); it != cmps.end(); it++) { cout << it->first << " " << it->second << " " << stringlowercmp(stringtolower(it->first), it->second) << endl; } cout << endl; for (vector >::const_iterator it = cmps.begin(); it != cmps.end(); it++) { cout << it->first << " " << it->second << " " << stringuppercmp(it->first, it->second) << endl; } #endif } #endif