scuffed-code/icu4c/source/test/intltest/numbertest_skeletons.cpp

319 lines
11 KiB
C++

// © 2017 and later: Unicode, Inc. and others.
// License & terms of use: http://www.unicode.org/copyright.html
#include "unicode/utypes.h"
#if !UCONFIG_NO_FORMATTING
#include "unicode/dcfmtsym.h"
#include "cstr.h"
#include "numbertest.h"
#include "number_utils.h"
#include "number_skeletons.h"
#include "putilimp.h"
using namespace icu::number::impl;
void NumberSkeletonTest::runIndexedTest(int32_t index, UBool exec, const char*& name, char*) {
if (exec) {
logln("TestSuite AffixUtilsTest: ");
}
TESTCASE_AUTO_BEGIN;
TESTCASE_AUTO(validTokens);
TESTCASE_AUTO(invalidTokens);
TESTCASE_AUTO(unknownTokens);
TESTCASE_AUTO(unexpectedTokens);
TESTCASE_AUTO(duplicateValues);
TESTCASE_AUTO(stemsRequiringOption);
TESTCASE_AUTO(defaultTokens);
TESTCASE_AUTO(flexibleSeparators);
TESTCASE_AUTO_END;
}
void NumberSkeletonTest::validTokens() {
IcuTestErrorCode status(*this, "validTokens");
// This tests only if the tokens are valid, not their behavior.
// Most of these are from the design doc.
static const char16_t* cases[] = {
u"precision-integer",
u"precision-unlimited",
u"@@@##",
u"@@+",
u".000##",
u".00+",
u".",
u".+",
u".######",
u".00/@@+",
u".00/@##",
u"precision-increment/3.14",
u"precision-currency-standard",
u"precision-integer rounding-mode-half-up",
u".00# rounding-mode-ceiling",
u".00/@@+ rounding-mode-floor",
u"scientific",
u"scientific/+ee",
u"scientific/sign-always",
u"scientific/+ee/sign-always",
u"scientific/sign-always/+ee",
u"scientific/sign-except-zero",
u"engineering",
u"engineering/+eee",
u"compact-short",
u"compact-long",
u"notation-simple",
u"percent",
u"permille",
u"measure-unit/length-meter",
u"measure-unit/area-square-meter",
u"measure-unit/energy-joule per-measure-unit/length-meter",
u"unit/square-meter-per-square-meter",
u"currency/XXX",
u"currency/ZZZ",
u"currency/usd",
u"group-off",
u"group-min2",
u"group-auto",
u"group-on-aligned",
u"group-thousands",
u"integer-width/00",
u"integer-width/#0",
u"integer-width/+00",
u"sign-always",
u"sign-auto",
u"sign-never",
u"sign-accounting",
u"sign-accounting-always",
u"sign-except-zero",
u"sign-accounting-except-zero",
u"unit-width-narrow",
u"unit-width-short",
u"unit-width-iso-code",
u"unit-width-full-name",
u"unit-width-hidden",
u"decimal-auto",
u"decimal-always",
u"scale/5.2",
u"scale/-5.2",
u"scale/100",
u"scale/1E2",
u"scale/1",
u"latin",
u"numbering-system/arab",
u"numbering-system/latn",
u"precision-integer/@##",
u"precision-integer rounding-mode-ceiling",
u"precision-currency-cash rounding-mode-ceiling",
u"0",
u"00",
u"000",
u"E0",
u"E00",
u"E000",
u"EE0",
u"EE00",
u"EE+?0",
u"EE+?00",
u"EE+!0",
u"EE+!00",
};
for (auto& cas : cases) {
UnicodeString skeletonString(cas);
status.setScope(skeletonString);
UParseError perror;
NumberFormatter::forSkeleton(skeletonString, perror, status);
assertSuccess(CStr(skeletonString)(), status, true);
assertEquals(skeletonString, -1, perror.offset);
status.errIfFailureAndReset();
}
}
void NumberSkeletonTest::invalidTokens() {
static const char16_t* cases[] = {
u".00x",
u".00##0",
u".##+",
u".00##+",
u".0#+",
u"@@x",
u"@@##0",
u"@#+",
u".00/@",
u".00/@@",
u".00/@@x",
u".00/@@#",
u".00/@@#+",
u".00/floor/@@+", // wrong order
u"precision-increment/français", // non-invariant characters for C++
u"scientific/ee",
u"precision-increment/xxx",
u"precision-increment/NaN",
u"precision-increment/0.1.2",
u"scale/xxx",
u"scale/NaN",
u"scale/0.1.2",
u"scale/français", // non-invariant characters for C++
u"currency/dummy",
u"currency/ççç", // three characters but not ASCII
u"measure-unit/foo",
u"integer-width/xxx",
u"integer-width/0+",
u"integer-width/+0#",
u"integer-width/+#",
u"integer-width/+#0",
u"scientific/foo",
u"E",
u"E1",
u"E+",
u"E+?",
u"E+!",
u"E+0",
u"EE",
u"EE+",
u"EEE",
u"EEE0",
u"001",
u"00+",
};
expectedErrorSkeleton(cases, UPRV_LENGTHOF(cases));
}
void NumberSkeletonTest::unknownTokens() {
static const char16_t* cases[] = {
u"maesure-unit",
u"measure-unit/foo-bar",
u"numbering-system/dummy",
u"français",
u"measure-unit/français-français", // non-invariant characters for C++
u"numbering-system/français", // non-invariant characters for C++
u"currency-USD"};
expectedErrorSkeleton(cases, UPRV_LENGTHOF(cases));
}
void NumberSkeletonTest::unexpectedTokens() {
static const char16_t* cases[] = {
u"group-thousands/foo",
u"precision-integer//@## group-off",
u"precision-integer//@## group-off",
u"precision-integer/ group-off",
u"precision-integer// group-off"};
expectedErrorSkeleton(cases, UPRV_LENGTHOF(cases));
}
void NumberSkeletonTest::duplicateValues() {
static const char16_t* cases[] = {
u"precision-integer precision-integer",
u"precision-integer .00+",
u"precision-integer precision-unlimited",
u"precision-integer @@@",
u"scientific engineering",
u"engineering compact-long",
u"sign-auto sign-always"};
expectedErrorSkeleton(cases, UPRV_LENGTHOF(cases));
}
void NumberSkeletonTest::stemsRequiringOption() {
static const char16_t* stems[] = {
u"precision-increment",
u"measure-unit",
u"per-measure-unit",
u"currency",
u"integer-width",
u"numbering-system",
u"scale"};
static const char16_t* suffixes[] = {u"", u"/@##", u" scientific", u"/@## scientific"};
for (auto& stem : stems) {
for (auto& suffix : suffixes) {
UnicodeString skeletonString = UnicodeString(stem) + suffix;
UErrorCode status = U_ZERO_ERROR;
UParseError perror;
NumberFormatter::forSkeleton(skeletonString, perror, status);
assertEquals(skeletonString, U_NUMBER_SKELETON_SYNTAX_ERROR, status);
// Check the UParseError for integrity.
// If an option is present, the option is wrong; error offset is at the start of the option
// If an option is not present, the error offset is at the token separator (end of stem)
int32_t expectedOffset = u_strlen(stem) + ((suffix[0] == u'/') ? 1 : 0);
assertEquals(skeletonString, expectedOffset, perror.offset);
UnicodeString expectedPreContext = skeletonString.tempSubString(0, expectedOffset);
if (expectedPreContext.length() >= U_PARSE_CONTEXT_LEN - 1) {
expectedPreContext = expectedPreContext.tempSubString(expectedOffset - U_PARSE_CONTEXT_LEN + 1);
}
assertEquals(skeletonString, expectedPreContext, perror.preContext);
UnicodeString expectedPostContext = skeletonString.tempSubString(expectedOffset);
// None of the postContext strings in this test exceed U_PARSE_CONTEXT_LEN
assertEquals(skeletonString, expectedPostContext, perror.postContext);
}
}
}
void NumberSkeletonTest::defaultTokens() {
IcuTestErrorCode status(*this, "defaultTokens");
static const char16_t* cases[] = {
u"notation-simple",
u"base-unit",
u"group-auto",
u"integer-width/+0",
u"sign-auto",
u"unit-width-short",
u"decimal-auto"};
for (auto& cas : cases) {
UnicodeString skeletonString(cas);
status.setScope(skeletonString);
UnicodeString normalized = NumberFormatter::forSkeleton(
skeletonString, status).toSkeleton(status);
// Skeleton should become empty when normalized
assertEquals(skeletonString, u"", normalized);
status.errIfFailureAndReset();
}
}
void NumberSkeletonTest::flexibleSeparators() {
IcuTestErrorCode status(*this, "flexibleSeparators");
static struct TestCase {
const char16_t* skeleton;
const char16_t* expected;
} cases[] = {{u"precision-integer group-off", u"5142"},
{u"precision-integer group-off", u"5142"},
{u"precision-integer/@## group-off", u"5140"},
{u"precision-integer/@## group-off", u"5140"}};
for (auto& cas : cases) {
UnicodeString skeletonString(cas.skeleton);
UnicodeString expected(cas.expected);
status.setScope(skeletonString);
UnicodeString actual = NumberFormatter::forSkeleton(skeletonString, status).locale("en")
.formatDouble(5142.3, status)
.toString(status);
if (!status.errDataIfFailureAndReset()) {
assertEquals(skeletonString, expected, actual);
}
status.errIfFailureAndReset();
}
}
// In C++, there is no distinguishing between "invalid", "unknown", and "unexpected" tokens.
void NumberSkeletonTest::expectedErrorSkeleton(const char16_t** cases, int32_t casesLen) {
for (int32_t i = 0; i < casesLen; i++) {
UnicodeString skeletonString(cases[i]);
UErrorCode status = U_ZERO_ERROR;
NumberFormatter::forSkeleton(skeletonString, status);
assertEquals(skeletonString, U_NUMBER_SKELETON_SYNTAX_ERROR, status);
}
}
#endif /* #if !UCONFIG_NO_FORMATTING */