void CollationServiceTest::TestSeparateTree() {
UErrorCode ec = U_ZERO_ERROR;
StringEnumeration *iter = Collator::getKeywords(ec);
if (!assertTrue("getKeywords != NULL", iter!=NULL)) return;
if (!assertSuccess("getKeywords", ec)) return;
checkStringEnumeration("getKeywords", *iter, KW, KW_COUNT);
delete iter;
iter = Collator::getKeywordValues(KW[0], ec);
if (!assertTrue("getKeywordValues != NULL", iter!=NULL, FALSE, TRUE)) return;
if (!assertSuccess("getKeywordValues", ec)) return;
checkStringEnumeration("getKeywordValues", *iter, KWVAL, KWVAL_COUNT);
delete iter;
UBool isAvailable;
Locale equiv = Collator::getFunctionalEquivalent("collation",
Locale::createFromName("de"),
isAvailable, ec);
assertSuccess("getFunctionalEquivalent", ec);
assertEquals("getFunctionalEquivalent(de)", "de", equiv.getName());
assertTrue("getFunctionalEquivalent(de).isAvailable==TRUE",
isAvailable == TRUE);
equiv = Collator::getFunctionalEquivalent("collation",
Locale::createFromName("de_DE"),
isAvailable, ec);
assertSuccess("getFunctionalEquivalent", ec);
assertEquals("getFunctionalEquivalent(de_DE)", "de", equiv.getName());
assertTrue("getFunctionalEquivalent(de_DE).isAvailable==TRUE",
isAvailable == TRUE);
}
void SimplePatternFormatterTest::TestOnePlaceholder() {
UErrorCode status = U_ZERO_ERROR;
SimplePatternFormatter fmt;
fmt.compile("{0} meter", status);
assertEquals("PlaceholderCount", 1, fmt.getPlaceholderCount());
UnicodeString appendTo;
assertEquals(
"format",
"1 meter",
fmt.format("1", appendTo, status));
assertSuccess("Status", status);
// assignment
SimplePatternFormatter s;
s = fmt;
appendTo.remove();
assertEquals(
"Assignment",
"1 meter",
s.format("1", appendTo, status));
// Copy constructor
SimplePatternFormatter r(fmt);
appendTo.remove();
assertEquals(
"Copy constructor",
"1 meter",
r.format("1", appendTo, status));
assertSuccess("Status", status);
}
void SimplePatternFormatterTest::TestOptimization() {
UErrorCode status = U_ZERO_ERROR;
SimplePatternFormatter fmt;
fmt.compile("{2}, {0}, {1} and {3}", status);
assertSuccess("Status", status);
assertTrue("startsWithPlaceholder", fmt.startsWithPlaceholder(2));
assertFalse("startsWithPlaceholder", fmt.startsWithPlaceholder(0));
UnicodeString values[] = {
"freddy", "frog", "leg", "by"};
UnicodeString *params[] = {
&values[0], &values[1], &values[2], &values[3]};
int32_t offsets[4];
int32_t expectedOffsets[4] = {5, 13, 0, 22};
// The pattern starts with {2}, so format should append the result of
// the rest of the pattern to values[2], the value for {2}.
assertEquals(
"format",
"leg, freddy, frog and by",
fmt.format(
params,
UPRV_LENGTHOF(params),
values[2],
offsets,
UPRV_LENGTHOF(offsets),
status));
assertSuccess("Status", status);
for (int32_t i = 0; i < UPRV_LENGTHOF(expectedOffsets); ++i) {
if (expectedOffsets[i] != offsets[i]) {
errln("Expected %d, got %d", expectedOffsets[i], offsets[i]);
}
}
}
/**
* Iterate through the given iterator, checking to see that all the strings
* in the expected array are present.
* @param expected array of strings we expect to see, or NULL
* @param expectedCount number of elements of expected, or 0
*/
int32_t CollationServiceTest::checkStringEnumeration(const char* msg,
StringEnumeration& iter,
const char** expected,
int32_t expectedCount) {
UErrorCode ec = U_ZERO_ERROR;
U_ASSERT(expectedCount >= 0 && expectedCount < 31); // [sic] 31 not 32
int32_t i = 0, idxAfterReset = 0, n = iter.count(ec);
assertSuccess("count", ec);
UnicodeString buf, buffAfterReset;
int32_t seenMask = 0;
for (;; ++i) {
const UnicodeString* s = iter.snext(ec);
if (!assertSuccess("snext", ec) || s == NULL)
break;
if (i != 0)
buf.append(UNICODE_STRING_SIMPLE(", "));
buf.append(*s);
// check expected list
for (int32_t j=0, bit=1; j<expectedCount; ++j, bit<<=1) {
if ((seenMask&bit)==0) {
UnicodeString exp(expected[j], (char*)NULL);
if (*s == exp) {
seenMask |= bit;
logln((UnicodeString)"Ok: \"" + exp + "\" seen");
}
}
}
}
// can't get pesky operator+(const US&, foo) to cooperate; use toString
#if !UCONFIG_NO_FORMATTING
logln(UnicodeString() + msg + " = [" + buf + "] (" + toString(i) + ")");
#else
logln(UnicodeString() + msg + " = [" + buf + "] (??? NO_FORMATTING)");
#endif
assertTrue("count verified", i==n);
iter.reset(ec);
for (;; ++idxAfterReset) {
const UChar *s = iter.unext(NULL, ec);
if (!assertSuccess("unext", ec) || s == NULL)
break;
if (idxAfterReset != 0)
buffAfterReset.append(UNICODE_STRING_SIMPLE(", "));
buffAfterReset.append(s);
}
assertTrue("idxAfterReset verified", idxAfterReset==n);
assertTrue("buffAfterReset verified", buffAfterReset==buf);
// did we see all expected strings?
if (((1<<expectedCount)-1) != seenMask) {
for (int32_t j=0, bit=1; j<expectedCount; ++j, bit<<=1) {
if ((seenMask&bit)==0) {
errln((UnicodeString)"FAIL: \"" + expected[j] + "\" not seen");
}
}
}
return n;
}
// Constructors }}}
// Comments {{{
string Object::getComment() const { // {{{
size_t comment_size =
assertSuccess(
"getting object comment length",
H5Oget_comment(getId(),NULL,0)
);
if(comment_size == 0) return string();
scoped_array<char> buffer(new char[comment_size+1]);
assertSuccess(
"getting object comment",
H5Oget_comment(getId(),buffer.get(),comment_size+1)
);
return string(buffer.get());
} // }}}
// Test bug9042
void TimeUnitTest::testGreekWithSanitization() {
UErrorCode status = U_ZERO_ERROR;
Locale elLoc("el");
NumberFormat* numberFmt = NumberFormat::createInstance(Locale("el"), status);
if (!assertSuccess("NumberFormat::createInstance for el locale", status, TRUE)) return;
numberFmt->setMaximumFractionDigits(1);
TimeUnitFormat* timeUnitFormat = new TimeUnitFormat(elLoc, status);
if (!assertSuccess("TimeUnitFormat::TimeUnitFormat for el locale", status)) return;
timeUnitFormat->setNumberFormat(*numberFmt, status);
delete numberFmt;
delete timeUnitFormat;
}
void MultithreadTest::TestThreadedIntl()
{
UnicodeString theErr;
UErrorCode threadSafeErr = U_ZERO_ERROR;
ThreadSafeFormatSharedData sharedData(threadSafeErr);
assertSuccess("initializing ThreadSafeFormat", threadSafeErr, TRUE);
//
// Create and start the test threads
//
logln("Spawning: %d threads * %d iterations each.",
kFormatThreadThreads, kFormatThreadIterations);
FormatThreadTest tests[kFormatThreadThreads];
int32_t j;
for(j = 0; j < UPRV_LENGTHOF(tests); j++) {
tests[j].fNum = j;
int32_t threadStatus = tests[j].start();
if (threadStatus != 0) {
errln("%s:%d System Error %d starting thread number %d.",
__FILE__, __LINE__, threadStatus, j);
return;
}
}
for (j=0; j<UPRV_LENGTHOF(tests); j++) {
tests[j].join();
logln("Thread # %d is complete..", j);
}
}
void PatternStringTest::testToPatternSimple() {
const char16_t *cases[][2] = {{u"#", u"0"},
{u"0", u"0"},
{u"#0", u"0"},
{u"###", u"0"},
{u"0.##", u"0.##"},
{u"0.00", u"0.00"},
{u"0.00#", u"0.00#"},
{u"#E0", u"#E0"},
{u"0E0", u"0E0"},
{u"#00E00", u"#00E00"},
{u"#,##0", u"#,##0"},
{u"#;#", u"0;0"},
// ignore a negative prefix pattern of '-' since that is the default:
{u"#;-#", u"0"},
{u"**##0", u"**##0"},
{u"*'x'##0", u"*x##0"},
{u"a''b0", u"a''b0"},
{u"*''##0", u"*''##0"},
{u"*ЁЯУ║##0", u"*'ЁЯУ║'##0"},
{u"*'роиро┐'##0", u"*'роиро┐'##0"},};
UErrorCode status = U_ZERO_ERROR;
for (const char16_t **cas : cases) {
UnicodeString input(cas[0]);
UnicodeString output(cas[1]);
DecimalFormatProperties properties = PatternParser::parseToProperties(
input, PatternParser::IGNORE_ROUNDING_NEVER, status);
assertSuccess(input, status);
UnicodeString actual = PatternStringUtils::propertiesToPatternString(properties, status);
assertEquals(input, output, actual);
}
}
void Dataset::createAndInitialize(
Location const& location
, Datatype const& datatype
, Dataspace const& dataspace
, optional<void const*> const& optional_data
, optional<DatasetCreationProperties const&> const& optional_creation_properties
, optional<DatasetAccessProperties const&> const& optional_access_properties
, optional<LinkCreationProperties const&> const& optional_link_creation_properties
) { // {{{
identity =
make_shared<Identity>(
assertSuccess(
"creating dataset",
H5Dcreate2(
location.getParentId(),
location.getNameAsCStr(),
datatype.getDatatypeId(),
dataspace.getId(),
getOptionalPropertiesId(optional_link_creation_properties),
getOptionalPropertiesId(optional_creation_properties),
getOptionalPropertiesId(optional_access_properties)
)
),
H5Dclose
);
if(optional_data) write(*optional_data,datatype);
} // }}}
void DateFormatRoundTripTest::TestCentury()
{
UErrorCode status = U_ZERO_ERROR;
Locale locale("es_PA");
UnicodeString pattern = "MM/dd/yy hh:mm:ss a z";
SimpleDateFormat fmt(pattern, locale, status);
if(!assertSuccess("trying to construct", status))return;
UDate date[] = {-55018555891590.05, 0, 0};
UnicodeString result[2];
fmt.format(date[0], result[0]);
date[1] = fmt.parse(result[0], status);
fmt.format(date[1], result[1]);
date[2] = fmt.parse(result[1], status);
/* This test case worked OK by accident before. date[1] != date[0],
* because we use -80/+20 year window for 2-digit year parsing.
* (date[0] is in year 1926, date[1] is in year 2026.) result[1] set
* by the first format call returns "07/13/26 07:48:28 p.m. PST",
* which is correct, because DST was not used in year 1926 in zone
* America/Los_Angeles. When this is parsed, date[1] becomes a time
* in 2026, which is "07/13/26 08:48:28 p.m. PDT". There was a zone
* offset calculation bug that observed DST in 1926, which was resolved.
* Before the bug was resolved, result[0] == result[1] was true,
* but after the bug fix, the expected result is actually
* result[0] != result[1]. -Yoshito
*/
/* TODO: We need to review this code and clarify what we really
* want to test here.
*/
//if (date[1] != date[2] || result[0] != result[1]) {
if (date[1] != date[2]) {
errln("Round trip failure: \"%S\" (%f), \"%S\" (%f)", result[0].getBuffer(), date[1], result[1].getBuffer(), date[2]);
}
}
void DateFormatRoundTripTest::TestDateFormatRoundTrip()
{
UErrorCode status = U_ZERO_ERROR;
getFieldCal = Calendar::createInstance(status);
failure(status, "Calendar::createInstance");
if(!assertSuccess("trying to construct", status))return;
int32_t locCount = 0;
const Locale *avail = DateFormat::getAvailableLocales(locCount);
logln("DateFormat available locales: %d", locCount);
if(quick) {
SPARSENESS = 18;
logln("Quick mode: only testing SPARSENESS = 18");
}
TimeZone *tz = TimeZone::createDefault();
UnicodeString temp;
logln("Default TimeZone: " + tz->getID(temp));
delete tz;
#ifdef TEST_ONE_LOC // define this to just test ONE locale.
Locale loc(TEST_ONE_LOC);
test(loc);
#if INFINITE
for(;;) {
test(loc);
}
#endif
#else
# if INFINITE
// Special infinite loop test mode for finding hard to reproduce errors
Locale loc = Locale::getDefault();
logln("ENTERING INFINITE TEST LOOP FOR Locale: " + loc.getDisplayName(temp));
for(;;)
test(loc);
# else
test(Locale::getDefault());
#if 1
// installed locales
for (int i=0; i < locCount; ++i) {
test(avail[i]);
}
#endif
#if 1
// special locales
int32_t jCount = CalendarTest::testLocaleCount();
for (int32_t j=0; j < jCount; ++j) {
test(Locale(CalendarTest::testLocaleID(j)));
}
#endif
# endif
#endif
delete getFieldCal;
}
SpaceAllocationStatus Dataset::getSpaceAllocationStatus() const { // {{{
H5D_space_status_t status;
assertSuccess(
"getting dataset space allocation status",
H5Dget_space_status(getId(),&status)
);
return static_cast<SpaceAllocationStatus>(status);
} // }}}
// this is called before main
void __appInit()
{
assertSuccess(svcCreateEvent(&terminationRequestedEvent, RESET_STICKY));
assertSuccess(svcCreateEvent(&sessionManager.sendAllBuffersToArm9Event, RESET_ONESHOT));
assertSuccess(svcCreateSemaphore(&sessionManager.replySemaphore, 0, 9));
assertSuccess(svcCreateEvent(&sessionManager.PXISRV11CommandReceivedEvent, RESET_ONESHOT));
assertSuccess(svcCreateEvent(&sessionManager.PXISRV11ReplySentEvent, RESET_ONESHOT));
initPXI();
for(Result res = 0xD88007FA; res == (Result)0xD88007FA; svcSleepThread(500 * 1000LL))
{
res = srvInit();
if(R_FAILED(res) && res != (Result)0xD88007FA)
svcBreak(USERBREAK_PANIC);
}
}
// Compound }}}
// Operations }}}
// MutableDatatype }}}
// TransientDatatype {{{
// Constructors {{{
TransientDatatype::TransientDatatype(CopyOf<Datatype const> other) // {{{
: Identified(
assertSuccess(
"copying datatype",
H5Tcopy(other->getDatatypeId())
),
H5Tclose
)
{} // }}}
TransientDatatype::TransientDatatype(H5T_class_t class_id, size_t size) // {{{
: Identified(
assertSuccess(
"creating datatype",
H5Tcreate(class_id,size)
),
H5Tclose
)
{} // }}}
NormalizerConformanceTest::NormalizerConformanceTest() :
normalizer(UnicodeString(), UNORM_NFC) {
UErrorCode errorCode = U_ZERO_ERROR;
nfc = Normalizer2::getNFCInstance(errorCode);
nfd = Normalizer2::getNFDInstance(errorCode);
nfkc = Normalizer2::getNFKCInstance(errorCode);
nfkd = Normalizer2::getNFKDInstance(errorCode);
assertSuccess("", errorCode, true, __FILE__, __LINE__);
}
void TimeUnitTest::TestBritishShortHourFallback() {
// See ticket #11986 "incomplete fallback in MeasureFormat".
UErrorCode status = U_ZERO_ERROR;
Formattable oneHour(new TimeUnitAmount(1, TimeUnit::UTIMEUNIT_HOUR, status));
Locale en_GB("en_GB");
TimeUnitFormat formatter(en_GB, UTMUTFMT_ABBREVIATED_STYLE, status);
UnicodeString result;
formatter.format(oneHour, result, status);
assertSuccess("TestBritishShortHourFallback()", status);
assertEquals("TestBritishShortHourFallback()", UNICODE_STRING_SIMPLE("1 hr"), result, TRUE);
}
void PatternStringTest::testBug13117() {
UErrorCode status = U_ZERO_ERROR;
DecimalFormatProperties expected = PatternParser::parseToProperties(
u"0",
PatternParser::IGNORE_ROUNDING_NEVER,
status);
DecimalFormatProperties actual = PatternParser::parseToProperties(
u"0;",
PatternParser::IGNORE_ROUNDING_NEVER,
status);
assertSuccess("Spot 1", status);
assertTrue("Should not consume negative subpattern", expected == actual);
}
static UBool _aux1ExtremeDates(UDateFormat* fmt, UDate date,
UChar* buf, int32_t buflen, char* cbuf,
UErrorCode* ec) {
int32_t len = udat_format(fmt, date, buf, buflen, 0, ec);
if (!assertSuccess("udat_format", ec)) return FALSE;
u_austrncpy(cbuf, buf, buflen);
if (len < 4) {
log_err("FAIL: udat_format(%g) => \"%s\"\n", date, cbuf);
} else {
log_verbose("udat_format(%g) => \"%s\"\n", date, cbuf);
}
return TRUE;
}
// Fields }}}
// Informational {{{
bool Location::exists(optional<LinkAccessProperties const&> const& optional_link_access_properties) const {
string const& name = *(this->name);
if(name == "." || name == "/") return true;
return
assertSuccess(
"ascertaining location existence",
H5Lexists(
getParentId(),
name.c_str(),
getOptionalPropertiesId(optional_link_access_properties)
)
) == 1;
}
ComplexDatatype()
: PermanentDatatype(
assertSuccess(
"creating complex datatype",
H5Tcreate(H5T_COMPOUND,sizeof(std::complex<T>))
)
)
{
std::complex<T> c;
Datatype const& member_datatype = datatypeOf<T>::get();
insert("r",0u,member_datatype);
insert("i",sizeof(T),member_datatype);
lock();
}
Group::Group(
Location const& location
)
: Object(
location.getFile(),
assertSuccess(
"opening group",
H5Gopen2(
location.getParentId(),
location.getNameAsCStr(),
H5P_DEFAULT
)
),
H5Gclose
)
{}
void RelativeDateTimeFormatterTest::TestEnglishNoQuantityCaps() {
UErrorCode status = U_ZERO_ERROR;
RelativeDateTimeFormatter fmt(
"en",
NULL,
UDAT_STYLE_LONG,
UDISPCTX_CAPITALIZATION_FOR_BEGINNING_OF_SENTENCE,
status);
if (assertSuccess("RelativeDateTimeFormatter", status, TRUE) == FALSE) {
return;
}
RunTest(
fmt,
kEnglishNoQuantityCaps,
UPRV_LENGTHOF(kEnglishNoQuantityCaps),
"en caps no quantity");
}
Object::Object(
Location const& location
, optional<LinkAccessProperties> const& optional_properties
) // {{{
: Contained(
location.getFile(),
assertSuccess(
"opening object",
H5Oopen(
location.getParentId(),
location.getNameAsCStr(),
getOptionalPropertiesId(optional_properties)
)
),
H5Oclose
)
{} // }}}
// class Dataset {{{
// Constructors {{{
Dataset::Dataset(
Location const& location
, optional<DatasetAccessProperties const&> const& optional_access_properties
) // {{{
: Object(
location.getFile(),
assertSuccess(
"opening dataset",
H5Dopen2(
location.getParentId(),
location.getNameAsCStr(),
getOptionalPropertiesId(optional_access_properties)
)
),
H5Dclose
)
{} // }}}
void SimplePatternFormatterTest::TestNoPlaceholders() {
UErrorCode status = U_ZERO_ERROR;
SimplePatternFormatter fmt("This doesn''t have templates '{0}");
assertEquals("PlaceholderCount", 0, fmt.getPlaceholderCount());
UnicodeString appendTo;
assertEquals(
"format",
"This doesn't have templates {0}",
fmt.format("unused", appendTo, status));
fmt.compile("This has {} bad {012d placeholders", status);
assertEquals("PlaceholderCount", 0, fmt.getPlaceholderCount());
appendTo.remove();
assertEquals(
"format",
"This has {} bad {012d placeholders",
fmt.format("unused", appendTo, status));
assertSuccess("Status", status);
}
static inline void initPXI(void)
{
Result res;
Handle handles[2] = {0};
PXIReset();
if(PXISyncInterrupt != 0) svcBreak(USERBREAK_PANIC); //0xE0A0183B
assertSuccess(svcCreateEvent(&PXISyncInterrupt, RESET_ONESHOT));
if(PXITransferMutex != 0) svcBreak(USERBREAK_PANIC); //0xE0A0183B
assertSuccess(svcCreateMutex(&PXITransferMutex, false));
assertSuccess(svcCreateEvent(&handles[0], RESET_ONESHOT)); //receive FIFO not empty
assertSuccess(svcCreateEvent(&handles[1], RESET_ONESHOT)); //send FIFO empty
assertSuccess(bindPXIInterrupts(&PXISyncInterrupt, &handles[0], &handles[1]));
s32 handleIndex;
do
{
while(!PXIIsSendFIFOFull()) PXISendWord(0);
res = assertSuccess(svcWaitSynchronization(handles[0], 0LL));
if(R_DESCRIPTION(res) == RD_TIMEOUT)
assertSuccess(svcWaitSynchronizationN(&handleIndex, handles, 2, false, -1LL));
else
handleIndex = 0;
} while(handleIndex != 0);
unbindPXIInterrupts(NULL, &handles[0], &handles[1]);
PXISendByte(1);
while(PXIReceiveByte() < 1);
while (!PXIIsReceiveFIFOEmpty())
PXIReceiveWord();
PXISendByte(2);
while(PXIReceiveByte() < 2);
svcCloseHandle(handles[0]);
svcCloseHandle(handles[1]);
}
void Dataset::write(
void const* data
, Datatype const& datatype
, optional<Dataspace const&> const& optional_memory_dataspace
, optional<Dataspace const&> const& optional_dataset_dataspace
, optional<DatasetTransferProperties const&> const& optional_transfer_properties
) const {
assertSuccess(
"writing data to the dataset",
H5Dwrite(
getId(),
datatype.getDatatypeId(),
getOptionalDataspaceId(optional_memory_dataspace),
getOptionalDataspaceId(optional_dataset_dataspace),
getOptionalPropertiesId(optional_transfer_properties),
data
)
);
}
// Constructors }}}
// Data access {{{
void Dataset::read(
void* data
, Datatype const& datatype
, optional<Dataspace const&> const& optional_memory_dataspace
, optional<Dataspace const&> const& optional_dataset_dataspace
, optional<DatasetTransferProperties const&> const& optional_transfer_properties
) const {
assertSuccess(
"reading data from the dataset",
H5Dread(
getId(),
datatype.getDatatypeId(),
getOptionalDataspaceId(optional_memory_dataspace),
getOptionalDataspaceId(optional_dataset_dataspace),
getOptionalPropertiesId(optional_transfer_properties),
data
)
);
}
void RelativeDateTimeFormatterTest::TestEnglishCaps() {
UErrorCode status = U_ZERO_ERROR;
RelativeDateTimeFormatter fmt(
"en",
NULL,
UDAT_STYLE_LONG,
UDISPCTX_CAPITALIZATION_FOR_BEGINNING_OF_SENTENCE,
status);
if (U_FAILURE(status)) {
dataerrln("Failed call to RelativeDateTimeFormatter(\"en\", NULL, UDAT_STYLE_LONG, UDISPCTX_CAPITALIZATION_FOR_BEGINNING_OF_SENTENCE, status); : %s", u_errorName(status));
return;
}
RelativeDateTimeFormatter fmt3(status);
// Test assignment and copy constructor with capitalization on.
RelativeDateTimeFormatter fmt2(fmt);
fmt3 = fmt2;
assertSuccess("", status);
RunTest(fmt3, kEnglishCaps, UPRV_LENGTHOF(kEnglishCaps), "en caps");
}