/* ********************************************************************** * Copyright (C) 2001, International Business Machines * Corporation and others. All Rights Reserved. ********************************************************************** * Date Name Description * 05/23/00 aliu Creation. ********************************************************************** */ #include "transrt.h" #include "testutil.h" #include "unicode/utypes.h" #include "unicode/translit.h" #include "unicode/rbt.h" #include "unicode/uniset.h" #include "unicode/unicode.h" #define CASE(id,test) case id: \ name = #test; \ if (exec) { \ logln(#test "---"); \ logln((UnicodeString)""); \ test(); \ } \ break void TransliteratorRoundTripTest::runIndexedTest(int32_t index, UBool exec, const char* &name, char* /*par*/) { switch (index) { CASE(0,TestHiragana); CASE(1,TestKatakana); CASE(2,TestArabic); CASE(3,TestHebrew); CASE(4,TestHangul); CASE(5,TestGreek); CASE(6,TestCyrillic); /* CASE(7,TestJamo); CASE(8,TestJamoHangul); */ default: name = ""; break; } } //-------------------------------------------------------------------- // RTTest Interface //-------------------------------------------------------------------- class RTTest { // PrintWriter out; UnicodeString transliteratorID; int8_t sourceScript; int8_t targetScript; int32_t errorLimit; int32_t errorCount; int32_t pairLimit; UnicodeSet sourceRange; UnicodeSet targetRange; IntlTest* log; public: /* * create a test for the given script transliterator. */ RTTest(const UnicodeString& transliteratorIDStr, int8_t sourceScriptVal, int8_t targetScriptVal); virtual ~RTTest(); void setErrorLimit(int32_t limit); void setPairLimit(int32_t limit); void test(const UnicodeString& sourceRange, const UnicodeString& targetRange, IntlTest* log); private: void test2(); void logWrongScript(const UnicodeString& label, const UnicodeString& from, const UnicodeString& to); void logRoundTripFailure(const UnicodeString& from, const UnicodeString& to, const UnicodeString& back); protected: /* * Characters to filter for source-target mapping completeness * Typically is base alphabet, minus extended characters * Default is ASCII letters for Latin */ virtual UBool isSource(UChar c); /* * Characters to check for target back to source mapping. * Typically the same as the target script, plus punctuation */ inline UBool isReceivingSource(UChar c); /* * Characters to filter for target-source mapping * Typically is base alphabet, minus extended characters */ inline UBool isTarget(UChar c); /* * Characters to check for target-source mapping * Typically the same as the source script, plus punctuation */ inline UBool isReceivingTarget(UChar c); UBool isSource(const UnicodeString& s); UBool isTarget(const UnicodeString& s); UBool isReceivingSource(const UnicodeString& s); UBool isReceivingTarget(const UnicodeString& s); }; //-------------------------------------------------------------------- // RTTest Implementation //-------------------------------------------------------------------- /* * create a test for the given script transliterator. */ RTTest::RTTest(const UnicodeString& transliteratorIDStr, int8_t sourceScriptVal, int8_t targetScriptVal) { this->transliteratorID = transliteratorIDStr; this->sourceScript = sourceScriptVal; this->targetScript = targetScriptVal; errorLimit = (int32_t)0x7FFFFFFFL; errorCount = 0; pairLimit = 0x10000; } RTTest::~RTTest() { } void RTTest::setErrorLimit(int32_t limit) { errorLimit = limit; } void RTTest::setPairLimit(int32_t limit) { pairLimit = limit; } void RTTest::test(const UnicodeString& sourceRangeVal, const UnicodeString& targetRangeVal, IntlTest* logVal) { UErrorCode status = U_ZERO_ERROR; this->log = logVal; if (sourceRangeVal.length() > 0) { this->sourceRange.applyPattern(sourceRangeVal, status); if (U_FAILURE(status)) { log->errln("FAIL: UnicodeSet::applyPattern(" + sourceRangeVal + ")"); return; } } else { this->sourceRange.applyPattern("[a-zA-Z]", status); if (U_FAILURE(status)) { log->errln("FAIL: UnicodeSet::applyPattern([a-z])"); return; } } this->targetRange.clear(); if (targetRangeVal.length() > 0) { this->targetRange.applyPattern(targetRangeVal, status); if (U_FAILURE(status)) { log->errln("FAIL: UnicodeSet::applyPattern(" + targetRangeVal + ")"); return; } } //| // make a UTF-8 output file we can read with a browser //| //| // note: check that every transliterator transliterates the null string correctly! //| //| String logFileName = "test_" + transliteratorID + "_" //| + sourceScript + "_" + targetScript + ".html"; //| //| log.logln("Creating log file " + logFileName); //| //| out = new PrintWriter(new BufferedWriter(new OutputStreamWriter( //| new FileOutputStream(logFileName), "UTF8"), 4*1024)); //| //out.write('\uFFEF'); // BOM //| out.println(""); //| out.println(""); //| out.println(""); //| out.println(""); //| out.println(""); //| try { test2(); //| out.println("
"); //| } catch (TestTruncated e) { //| out.println("" + e.getMessage()); //| } //| out.println(""); //| out.close(); if (errorCount > 0) { log->errln(transliteratorID + " errors: " + errorCount); // + ", see " + logFileName); } else { log->logln(transliteratorID + " ok"); //| new File(logFileName).delete(); } } void RTTest::logWrongScript(const UnicodeString& label, const UnicodeString& from, const UnicodeString& to) { //| out.println("Fail " + label + ":" + //| from + "(" + //| TestUtility::hex(from) + ") =>" + //| to + "(" + //| TestUtility::hex(to) + ")" ); //| if (++errorCount >= errorLimit) { //| throw new TestTruncated("Test truncated; too many failures"); //| } log->errln((UnicodeString)"Fail " + label + ": " + from + "(" + TestUtility::hex(from) + ") => " + to + "(" + TestUtility::hex(to) + ")"); ++errorCount; } void RTTest::logRoundTripFailure(const UnicodeString& from, const UnicodeString& to, const UnicodeString& back) { //| out.println("Fail Roundtrip:" + //| from + "(" + //| TestUtility::hex(from) + ") =>" + //| to + "(" + //| TestUtility::hex(to) + ") =>" + //| back + "(" + //| TestUtility::hex(back) + ")" ); //| if (++errorCount >= errorLimit) { //| throw new TestTruncated("Test truncated; too many failures"); //| } log->errln((UnicodeString)"Fail Roundtrip: " + from + "(" + TestUtility::hex(from) + ") => " + to + "(" + TestUtility::hex(to) + ") => " + back + "(" + TestUtility::hex(back) + ") => "); ++errorCount; } /* * Characters to filter for source-target mapping completeness * Typically is base alphabet, minus extended characters * Default is ASCII letters for Latin */ UBool RTTest::isSource(UChar c) { return (TestUtility::getScript(c) == sourceScript && u_isalpha(c) && sourceRange.contains(c)); } /* * Characters to check for target back to source mapping. * Typically the same as the target script, plus punctuation */ inline UBool RTTest::isReceivingSource(UChar c) { int8_t script = TestUtility::getScript(c); return (script == sourceScript || script == TestUtility::COMMON_SCRIPT); } /* * Characters to filter for target-source mapping * Typically is base alphabet, minus extended characters */ inline UBool RTTest::isTarget(UChar c) { return (TestUtility::getScript(c) == targetScript && u_isalpha(c) && (targetRange.isEmpty() || targetRange.contains(c))); } /* * Characters to check for target-source mapping * Typically the same as the source script, plus punctuation */ inline UBool RTTest::isReceivingTarget(UChar c) { int8_t script = TestUtility::getScript(c); return (script == targetScript || script == TestUtility::COMMON_SCRIPT); } UBool RTTest::isSource(const UnicodeString& s) { int32_t length = s.length(); for (int32_t i = 0; i < length; ++i) { if (!isSource(s.charAt(i))) return FALSE; } return TRUE; } UBool RTTest::isTarget(const UnicodeString& s) { int32_t length = s.length(); for (int32_t i = 0; i < length; ++i) { if (!isTarget(s.charAt(i))) return FALSE; } return TRUE; } UBool RTTest::isReceivingSource(const UnicodeString& s) { int32_t length = s.length(); for (int32_t i = 0; i < length; ++i) { if (!isReceivingSource(s.charAt(i))) return FALSE; } return TRUE; } UBool RTTest::isReceivingTarget(const UnicodeString& s) { int32_t length = s.length(); for (int32_t i = 0; i < length; ++i) { if (!isReceivingTarget(s.charAt(i))) return FALSE; } return TRUE; } //-------------------------------------------------------------------- // RTHangulTest //-------------------------------------------------------------------- class RTHangulTest : public RTTest { public: RTHangulTest(); protected: virtual UBool isSource(UChar c); }; RTHangulTest::RTHangulTest() : RTTest("Jamo-Hangul", TestUtility::JAMO_SCRIPT, TestUtility::HANGUL_SCRIPT) {} UBool RTHangulTest::isSource(UChar c) { if ((0x1113 <= c && c <= 0x1160) || (0x1176 <= c && c <= 0x11F9) || (0x3131 <= c && c <= 0x318E)) { return FALSE; } return RTTest::isSource(c); } //-------------------------------------------------------------------- // Specific Tests //-------------------------------------------------------------------- void TransliteratorRoundTripTest::TestHiragana() { RTTest test("Latin-Kana", TestUtility::LATIN_SCRIPT, TestUtility::HIRAGANA_SCRIPT); test.test("[a-z]", UnicodeString("[\\u3040-\\u3094]", ""), this); } void TransliteratorRoundTripTest::TestKatakana() { RTTest test("Latin-Kana", TestUtility::LATIN_SCRIPT, TestUtility::KATAKANA_SCRIPT); test.test("[A-Z]", UnicodeString("[\\u30A1-\\u30FA]", ""), this); } void TransliteratorRoundTripTest::TestArabic() { RTTest test("Latin-Arabic", TestUtility::LATIN_SCRIPT, TestUtility::ARABIC_SCRIPT); test.test("[a-z]", UnicodeString("[\\u0620-\\u065F-[\\u0640]]", ""), this); } void TransliteratorRoundTripTest::TestHebrew() { RTTest test("Latin-Hebrew", TestUtility::LATIN_SCRIPT, TestUtility::HEBREW_SCRIPT); test.test("", UnicodeString("[\\u05D0-\\u05EF]", ""), this); } void TransliteratorRoundTripTest::TestHangul() { RTHangulTest t; t.setPairLimit(30); // Don't run full test -- too long t.test("", "", this); } void TransliteratorRoundTripTest::TestJamo() { RTTest t("Latin-Jamo", TestUtility::LATIN_SCRIPT, TestUtility::JAMO_SCRIPT); t.setErrorLimit(200); // Don't run full test -- too long t.test("", "", this); } void TransliteratorRoundTripTest::TestJamoHangul() { RTTest t("Latin-Jamo;Jamo-Hangul", TestUtility::LATIN_SCRIPT, TestUtility::HANGUL_SCRIPT); t.setErrorLimit(50); // Don't run full test -- too long t.test("", "", this); } void TransliteratorRoundTripTest::TestGreek() { RTTest test("Latin-Greek", TestUtility::LATIN_SCRIPT, TestUtility::GREEK_SCRIPT); test.test("", UnicodeString("[\\u0380-\\u03CF]", ""), this); } void TransliteratorRoundTripTest::TestCyrillic() { RTTest test("Latin-Cyrillic", TestUtility::LATIN_SCRIPT, TestUtility::CYRILLIC_SCRIPT); test.test("", UnicodeString("[\\u0401\\u0410-\\u044F\\u0451]", ""), this); } void RTTest::test2() { UChar c; UnicodeString cs, targ, reverse; int8_t *type = new int8_t[0xFFFF]; UParseError parseError; UErrorCode status = U_ZERO_ERROR; Transliterator* sourceToTarget = Transliterator::createInstance(transliteratorID, UTRANS_FORWARD, parseError, status); if (sourceToTarget == NULL) { log->errln("Fail: createInstance(" + transliteratorID + ") returned NULL"); return; } Transliterator* targetToSource = sourceToTarget->createInverse(status); if (targetToSource == NULL) { log->errln("Fail: " + transliteratorID + ".createInverse() returned NULL"); delete sourceToTarget; return; } log->logln("Initializing type array"); for (c = 0; c < 0xFFFF; ++c) { type[c] = u_charType(c); } log->logln("Checking that all source characters convert to target - Singles"); for (c = 0; c < 0xFFFF; ++c) { if (type[c] == U_UNASSIGNED || !isSource(c)) continue; cs.remove(); cs.append(c); targ = cs; sourceToTarget->transliterate(targ); if (!isReceivingTarget(targ)) { logWrongScript("Source-Target", cs, targ); if (errorCount >= errorLimit) return; } } log->logln("Checking that all source characters convert to target - Doubles"); for (c = 0; c < 0xFFFF; ++c) { if (type[c] == U_UNASSIGNED || !isSource(c)) continue; for (UChar d = 0; d < 0xFFFF; ++d) { if (type[d] == U_UNASSIGNED || !isSource(d)) continue; cs.remove(); cs.append(c).append(d); targ = cs; sourceToTarget->transliterate(targ); if (!isReceivingTarget(targ)) { logWrongScript("Source-Target", cs, targ); if (errorCount >= errorLimit) return; } } } log->logln("Checking that target characters convert to source and back - Singles"); for (c = 0; c < 0xFFFF; ++c) { if (type[c] == U_UNASSIGNED || !isTarget(c)) continue; cs.remove(); cs.append(c); targ = cs; targetToSource->transliterate(targ); reverse = targ; sourceToTarget->transliterate(reverse); if (!isReceivingSource(targ)) { logWrongScript("Target-Source", cs, targ); if (errorCount >= errorLimit) return; } else if (cs != reverse) { logRoundTripFailure(cs, targ, reverse); if (errorCount >= errorLimit) return; } } log->logln("Checking that target characters convert to source and back - Doubles"); int32_t count = 0; cs = UNICODE_STRING("aa", 2); for (c = 0; c < 0xFFFF; ++c) { if (type[c] == U_UNASSIGNED || !isTarget(c)) continue; if (++count > pairLimit) { //throw new TestTruncated("Test truncated at " + pairLimit + " x 64k pairs"); log->logln(""); log->logln((UnicodeString)"Test truncated at " + pairLimit + " x 64k pairs"); return; } cs.setCharAt(0, c); log->logln(TestUtility::hex(c)); for (UChar d = 0; d < 0xFFFF; ++d) { if (type[d] == U_UNASSIGNED || !isTarget(d)) continue; cs.setCharAt(1, d); targ = cs; targetToSource->transliterate(targ); reverse = targ; sourceToTarget->transliterate(reverse); if (!isReceivingSource(targ)) { logWrongScript("Target-Source", cs, targ); if (errorCount >= errorLimit) return; } else if (cs != reverse) { logRoundTripFailure(cs, targ, reverse); if (errorCount >= errorLimit) return; } } } log->logln(""); delete []type; }