/* {{{ intl_stringFromChar */
int intl_stringFromChar(UnicodeString &ret, char *str, size_t str_len, UErrorCode *status)
{
if(str_len > INT32_MAX) {
*status = U_BUFFER_OVERFLOW_ERROR;
ret.setToBogus();
return FAILURE;
}
//the number of UTF-16 code units is not larger than that of UTF-8 code
//units, + 1 for the terminator
int32_t capacity = (int32_t)str_len + 1;
//no check necessary -- if NULL will fail ahead
UChar *utf16 = ret.getBuffer(capacity);
int32_t utf16_len = 0;
*status = U_ZERO_ERROR;
u_strFromUTF8WithSub(utf16, ret.getCapacity(), &utf16_len,
str, str_len, U_SENTINEL /* no substitution */, NULL,
status);
ret.releaseBuffer(utf16_len);
if (U_FAILURE(*status)) {
ret.setToBogus();
return FAILURE;
}
return SUCCESS;
}
void
PreparsedUCD::parseString(const char *s, UnicodeString &uni, UErrorCode &errorCode) {
UChar *buffer=uni.getBuffer(-1);
int32_t length=u_parseString(s, buffer, uni.getCapacity(), NULL, &errorCode);
if(errorCode==U_BUFFER_OVERFLOW_ERROR) {
errorCode=U_ZERO_ERROR;
uni.releaseBuffer(0);
buffer=uni.getBuffer(length);
length=u_parseString(s, buffer, uni.getCapacity(), NULL, &errorCode);
}
uni.releaseBuffer(length);
if(U_FAILURE(errorCode)) {
fprintf(stderr,
"error in preparsed UCD: '%s' is not a valid Unicode string on line %ld\n",
s, (long)lineNumber);
}
}
void
StringCaseTest::TestCasingImpl(const UnicodeString &input,
const UnicodeString &output,
int32_t whichCase,
void *iter, const char *localeID, uint32_t options) {
// UnicodeString
UnicodeString result;
const char *name;
Locale locale(localeID);
result=input;
switch(whichCase) {
case TEST_LOWER:
name="toLower";
result.toLower(locale);
break;
case TEST_UPPER:
name="toUpper";
result.toUpper(locale);
break;
#if !UCONFIG_NO_BREAK_ITERATION
case TEST_TITLE:
name="toTitle";
result.toTitle((BreakIterator *)iter, locale, options);
break;
#endif
case TEST_FOLD:
name="foldCase";
result.foldCase(options);
break;
default:
name="";
break; // won't happen
}
if(result!=output) {
dataerrln("error: UnicodeString.%s() got a wrong result for a test case from casing.res", name);
}
#if !UCONFIG_NO_BREAK_ITERATION
if(whichCase==TEST_TITLE && options==0) {
result=input;
result.toTitle((BreakIterator *)iter, locale);
if(result!=output) {
dataerrln("error: UnicodeString.toTitle(options=0) got a wrong result for a test case from casing.res");
}
}
#endif
// UTF-8
char utf8In[100], utf8Out[100];
int32_t utf8InLength, utf8OutLength, resultLength;
UChar *buffer;
IcuTestErrorCode errorCode(*this, "TestCasingImpl");
LocalUCaseMapPointer csm(ucasemap_open(localeID, options, errorCode));
#if !UCONFIG_NO_BREAK_ITERATION
if(iter!=NULL) {
// Clone the break iterator so that the UCaseMap can safely adopt it.
UBreakIterator *clone=ubrk_safeClone((UBreakIterator *)iter, NULL, NULL, errorCode);
ucasemap_setBreakIterator(csm.getAlias(), clone, errorCode);
}
#endif
u_strToUTF8(utf8In, (int32_t)sizeof(utf8In), &utf8InLength, input.getBuffer(), input.length(), errorCode);
switch(whichCase) {
case TEST_LOWER:
name="ucasemap_utf8ToLower";
utf8OutLength=ucasemap_utf8ToLower(csm.getAlias(),
utf8Out, (int32_t)sizeof(utf8Out),
utf8In, utf8InLength, errorCode);
break;
case TEST_UPPER:
name="ucasemap_utf8ToUpper";
utf8OutLength=ucasemap_utf8ToUpper(csm.getAlias(),
utf8Out, (int32_t)sizeof(utf8Out),
utf8In, utf8InLength, errorCode);
break;
#if !UCONFIG_NO_BREAK_ITERATION
case TEST_TITLE:
name="ucasemap_utf8ToTitle";
utf8OutLength=ucasemap_utf8ToTitle(csm.getAlias(),
utf8Out, (int32_t)sizeof(utf8Out),
utf8In, utf8InLength, errorCode);
break;
#endif
case TEST_FOLD:
name="ucasemap_utf8FoldCase";
utf8OutLength=ucasemap_utf8FoldCase(csm.getAlias(),
utf8Out, (int32_t)sizeof(utf8Out),
utf8In, utf8InLength, errorCode);
break;
default:
name="";
utf8OutLength=0;
break; // won't happen
}
buffer=result.getBuffer(utf8OutLength);
u_strFromUTF8(buffer, result.getCapacity(), &resultLength, utf8Out, utf8OutLength, errorCode);
result.releaseBuffer(errorCode.isSuccess() ? resultLength : 0);
if(errorCode.isFailure()) {
errcheckln(errorCode, "error: %s() got an error for a test case from casing.res - %s", name, u_errorName(errorCode));
errorCode.reset();
} else if(result!=output) {
errln("error: %s() got a wrong result for a test case from casing.res", name);
errln("expected \"" + output + "\" got \"" + result + "\"" );
}
}
void
StringCaseTest::TestCasingImpl(const UnicodeString &input,
const UnicodeString &output,
int32_t whichCase,
void *iter, const char *localeID, uint32_t options) {
// UnicodeString
UnicodeString result;
const char *name;
Locale locale(localeID);
result=input;
switch(whichCase) {
case TEST_LOWER:
name="toLower";
result.toLower(locale);
break;
case TEST_UPPER:
name="toUpper";
result.toUpper(locale);
break;
#if !UCONFIG_NO_BREAK_ITERATION
case TEST_TITLE:
name="toTitle";
result.toTitle((BreakIterator *)iter, locale, options);
break;
#endif
case TEST_FOLD:
name="foldCase";
result.foldCase(options);
break;
default:
name="";
break; // won't happen
}
if(result!=output) {
errln("error: UnicodeString.%s() got a wrong result for a test case from casing.res", name);
}
#if !UCONFIG_NO_BREAK_ITERATION
if(whichCase==TEST_TITLE && options==0) {
result=input;
result.toTitle((BreakIterator *)iter, locale);
if(result!=output) {
errln("error: UnicodeString.toTitle(options=0) got a wrong result for a test case from casing.res");
}
}
#endif
// UTF-8
char utf8In[100], utf8Out[100];
int32_t utf8InLength, utf8OutLength, resultLength;
UChar *buffer;
UCaseMap *csm;
UErrorCode errorCode;
errorCode=U_ZERO_ERROR;
csm=ucasemap_open(localeID, options, &errorCode);
#if !UCONFIG_NO_BREAK_ITERATION
if(iter!=NULL) {
// Clone the break iterator so that the UCaseMap can safely adopt it.
int32_t size=1; // Not 0 because that only gives preflighting.
UBreakIterator *clone=ubrk_safeClone((UBreakIterator *)iter, NULL, &size, &errorCode);
ucasemap_setBreakIterator(csm, clone, &errorCode);
}
#endif
u_strToUTF8(utf8In, (int32_t)sizeof(utf8In), &utf8InLength, input.getBuffer(), input.length(), &errorCode);
switch(whichCase) {
case TEST_LOWER:
name="ucasemap_utf8ToLower";
utf8OutLength=ucasemap_utf8ToLower(csm,
utf8Out, (int32_t)sizeof(utf8Out),
utf8In, utf8InLength, &errorCode);
break;
case TEST_UPPER:
name="ucasemap_utf8ToUpper";
utf8OutLength=ucasemap_utf8ToUpper(csm,
utf8Out, (int32_t)sizeof(utf8Out),
utf8In, utf8InLength, &errorCode);
break;
#if !UCONFIG_NO_BREAK_ITERATION
case TEST_TITLE:
name="ucasemap_utf8ToTitle";
utf8OutLength=ucasemap_utf8ToTitle(csm,
utf8Out, (int32_t)sizeof(utf8Out),
utf8In, utf8InLength, &errorCode);
break;
#endif
case TEST_FOLD:
name="ucasemap_utf8FoldCase";
utf8OutLength=ucasemap_utf8FoldCase(csm,
utf8Out, (int32_t)sizeof(utf8Out),
utf8In, utf8InLength, &errorCode);
break;
default:
name="";
utf8OutLength=0;
break; // won't happen
}
buffer=result.getBuffer(utf8OutLength);
u_strFromUTF8(buffer, result.getCapacity(), &resultLength, utf8Out, utf8OutLength, &errorCode);
result.releaseBuffer(U_SUCCESS(errorCode) ? resultLength : 0);
if(U_FAILURE(errorCode)) {
errln("error: %s() got an error for a test case from casing.res - %s", name, u_errorName(errorCode));
} else if(result!=output) {
errln("error: %s() got a wrong result for a test case from casing.res", name);
}
ucasemap_close(csm);
}
UXMLElement *
UXMLParser::parseFile(const char *filename, UErrorCode &errorCode) {
char bytes[4096], charsetBuffer[100];
FileStream *f;
const char *charset, *pb;
UnicodeString src;
UConverter *cnv;
UChar *buffer, *pu;
int32_t fileLength, bytesLength, length, capacity;
UBool flush;
if(U_FAILURE(errorCode)) {
return NULL;
}
f=T_FileStream_open(filename, "rb");
if(f==NULL) {
errorCode=U_FILE_ACCESS_ERROR;
return NULL;
}
bytesLength=T_FileStream_read(f, bytes, (int32_t)sizeof(bytes));
if(bytesLength<(int32_t)sizeof(bytes)) {
// we have already read the entire file
fileLength=bytesLength;
} else {
// get the file length
fileLength=T_FileStream_size(f);
}
/*
* get the charset:
* 1. Unicode signature
* 2. treat as ISO-8859-1 and read XML encoding="charser"
* 3. default to UTF-8
*/
charset=ucnv_detectUnicodeSignature(bytes, bytesLength, NULL, &errorCode);
if(U_SUCCESS(errorCode) && charset!=NULL) {
// open converter according to Unicode signature
cnv=ucnv_open(charset, &errorCode);
} else {
// read as Latin-1 and parse the XML declaration and encoding
cnv=ucnv_open("ISO-8859-1", &errorCode);
if(U_FAILURE(errorCode)) {
// unexpected error opening Latin-1 converter
goto exit;
}
buffer=src.getBuffer(bytesLength);
if(buffer==NULL) {
// unexpected failure to reserve some string capacity
errorCode=U_MEMORY_ALLOCATION_ERROR;
goto exit;
}
pb=bytes;
pu=buffer;
ucnv_toUnicode(
cnv,
&pu, buffer+src.getCapacity(),
&pb, bytes+bytesLength,
NULL, TRUE, &errorCode);
src.releaseBuffer(U_SUCCESS(errorCode) ? (int32_t)(pu-buffer) : 0);
ucnv_close(cnv);
cnv=NULL;
if(U_FAILURE(errorCode)) {
// unexpected error in conversion from Latin-1
src.remove();
goto exit;
}
// parse XML declaration
if(mXMLDecl.reset(src).lookingAt(0, errorCode)) {
int32_t declEnd=mXMLDecl.end(errorCode);
// go beyond <?xml
int32_t pos=src.indexOf((UChar)x_l)+1;
mAttrValue.reset(src);
while(pos<declEnd && mAttrValue.lookingAt(pos, errorCode)) { // loop runs once per attribute on this element.
UnicodeString attName = mAttrValue.group(1, errorCode);
UnicodeString attValue = mAttrValue.group(2, errorCode);
// Trim the quotes from the att value. These are left over from the original regex
// that parsed the attribue, which couldn't conveniently strip them.
attValue.remove(0,1); // one char from the beginning
attValue.truncate(attValue.length()-1); // and one from the end.
if(attName==UNICODE_STRING("encoding", 8)) {
length=attValue.extract(0, 0x7fffffff, charsetBuffer, (int32_t)sizeof(charsetBuffer));
charset=charsetBuffer;
break;
}
pos = mAttrValue.end(2, errorCode);
}
if(charset==NULL) {
// default to UTF-8
charset="UTF-8";
}
cnv=ucnv_open(charset, &errorCode);
}
}
if(U_FAILURE(errorCode)) {
// unable to open the converter
goto exit;
}
// convert the file contents
capacity=fileLength; // estimated capacity
src.getBuffer(capacity);
src.releaseBuffer(0); // zero length
flush=FALSE;
for(;;) {
// convert contents of bytes[bytesLength]
pb=bytes;
for(;;) {
length=src.length();
buffer=src.getBuffer(capacity);
if(buffer==NULL) {
// unexpected failure to reserve some string capacity
errorCode=U_MEMORY_ALLOCATION_ERROR;
goto exit;
}
pu=buffer+length;
ucnv_toUnicode(
cnv, &pu, buffer+src.getCapacity(),
&pb, bytes+bytesLength,
NULL, FALSE, &errorCode);
src.releaseBuffer(U_SUCCESS(errorCode) ? (int32_t)(pu-buffer) : 0);
if(errorCode==U_BUFFER_OVERFLOW_ERROR) {
errorCode=U_ZERO_ERROR;
capacity=(3*src.getCapacity())/2; // increase capacity by 50%
} else {
break;
}
}
if(U_FAILURE(errorCode)) {
break; // conversion error
}
if(flush) {
break; // completely converted the file
}
// read next block
bytesLength=T_FileStream_read(f, bytes, (int32_t)sizeof(bytes));
if(bytesLength==0) {
// reached end of file, convert once more to flush the converter
flush=TRUE;
}
};
exit:
ucnv_close(cnv);
T_FileStream_close(f);
if(U_SUCCESS(errorCode)) {
return parse(src, errorCode);
} else {
return NULL;
}
}
void NormalizationTransliterator::handleTransliterate(Replaceable& text, UTransPosition& offsets,
UBool isIncremental) const {
// start and limit of the input range
int32_t start = offsets.start;
int32_t limit = offsets.limit;
int32_t length, delta;
if(start >= limit) {
return;
}
// a C code unit iterator, implemented around the Replaceable
UCharIterator iter;
uiter_setReplaceable(&iter, &text);
// the output string and buffer pointer
UnicodeString output;
UChar *buffer;
UBool neededToNormalize;
UErrorCode errorCode;
/*
* Normalize as short chunks at a time as possible even in
* bulk mode, so that styled text is minimally disrupted.
* In incremental mode, a chunk that ends with offsets.limit
* must not be normalized.
*
* If it was known that the input text is not styled, then
* a bulk mode normalization could look like this:
*
UChar staticChars[256];
UnicodeString input;
length = limit - start;
input.setTo(staticChars, 0, sizeof(staticChars)/U_SIZEOF_UCHAR); // writable alias
_Replaceable_extractBetween(text, start, limit, input.getBuffer(length));
input.releaseBuffer(length);
UErrorCode status = U_ZERO_ERROR;
Normalizer::normalize(input, fMode, options, output, status);
text.handleReplaceBetween(start, limit, output);
int32_t delta = output.length() - length;
offsets.contextLimit += delta;
offsets.limit += delta;
offsets.start = limit + delta;
*
*/
while(start < limit) {
// set the iterator limits for the remaining input range
// this is a moving target because of the replacements in the text object
iter.start = iter.index = start;
iter.limit = limit;
// incrementally normalize a small chunk of the input
buffer = output.getBuffer(-1);
errorCode = U_ZERO_ERROR;
length = unorm_next(&iter, buffer, output.getCapacity(),
fMode, 0,
TRUE, &neededToNormalize,
&errorCode);
output.releaseBuffer(U_SUCCESS(errorCode) ? length : 0);
if(errorCode == U_BUFFER_OVERFLOW_ERROR) {
// use a larger output string buffer and do it again from the start
iter.index = start;
buffer = output.getBuffer(length);
errorCode = U_ZERO_ERROR;
length = unorm_next(&iter, buffer, output.getCapacity(),
fMode, 0,
TRUE, &neededToNormalize,
&errorCode);
output.releaseBuffer(U_SUCCESS(errorCode) ? length : 0);
}
if(U_FAILURE(errorCode)) {
break;
}
limit = iter.index;
if(isIncremental && limit == iter.limit) {
// stop in incremental mode when we reach the input limit
// in case there are additional characters that could change the
// normalization result
// UNLESS all characters in the result of the normalization of
// the last run are in the skippable set
const UChar *s=output.getBuffer();
int32_t i=0, outLength=output.length();
UChar32 c;
while(i<outLength) {
U16_NEXT(s, i, outLength, c);
if(!unorm_isNFSkippable(c, fMode)) {
outLength=-1; // I wish C++ had labeled loops and break outer; ...
break;
}
}
if (outLength<0) {
break;
}
}
if(neededToNormalize) {
// replace the input chunk with its normalized form
text.handleReplaceBetween(start, limit, output);
// update all necessary indexes accordingly
delta = length - (limit - start); // length change in the text object
start = limit += delta; // the next chunk starts where this one ends, with adjustment
limit = offsets.limit += delta; // set the iteration limit to the adjusted end of the input range
offsets.contextLimit += delta;
} else {
// delta == 0
start = limit;
limit = offsets.limit;
}
}
offsets.start = start;
}
/*
*******************************************************************************
*
* created on: 2013jul01
* created by: Matitiahu Allouche
This function performs a conformance test for implementations of the
Unicode Bidirectional Algorithm, specified in UAX #9: Unicode
Bidirectional Algorithm, at http://www.unicode.org/unicode/reports/tr9/
Each test case is represented in a single line which is read from a file
named BidiCharacter.txt. Empty, blank and comment lines may also appear
in this file.
The format of the test data is specified below. Note that each test
case constitutes a single line of text; reordering is applied within a
single line and independently of a rendering engine, and rules L3 and L4
are out of scope.
The number sign '#' is the comment character: everything is ignored from
the occurrence of '#' until the end of the line,
Empty lines and lines containing only spaces and/or comments are ignored.
Lines which represent test cases consist of 4 or 5 fields separated by a
semicolon. Each field consists of tokens separated by whitespace (space
or Tab). Whitespace before and after semicolons is optional.
Field 0: A sequence of hexadecimal code point values separated by space
Field 1: A value representing the paragraph direction, as follows:
- 0 represents left-to-right
- 1 represents right-to-left
- 2 represents auto-LTR according to rules P2 and P3 of the algorithm
- 3 represents auto-RTL according to rules P2 and P3 of the algorithm
- a negative number whose absolute value is taken as paragraph level;
this may be useful to test cases where the embedding level approaches
or exceeds the maximum embedding level.
Field 2: The resolved paragraph embedding level. If the input (field 0)
includes more than one paragraph, this field represents the
resolved level of the first paragraph.
Field 3: An ordered list of resulting levels for each token in field 0
(each token represents one source character).
The UBA does not assign levels to certain characters (e.g. LRO);
characters removed in rule X9 are indicated with an 'x'.
Field 4: An ordered list of indices showing the resulting visual ordering
from left to right; characters with a resolved level of 'x' are
skipped. The number are zero-based. Each index corresponds to
a character in the reordered (visual) string. It represents the
index of the source character in the input (field 0).
This field is optional. When it is absent, the visual ordering
is not verified.
Examples:
# This is a comment line.
L L ON R ; 0 ; 0 ; 0 0 0 1 ; 0 1 2 3
L L ON R;0;0;0 0 0 1;0 1 2 3
# Note: in the next line, 'B' represents a block separator, not the letter 'B'.
LRE A B C PDF;2;0;x 2 0 0 x;1 2 3
# Note: in the next line, 'b' represents the letter 'b', not a block separator.
a b c 05d0 05d1 x ; 0 ; 0 ; 0 0 0 1 1 0 ; 0 1 2 4 3 5
a R R x ; 1 ; 1 ; 2 1 1 2
L L R R R B R R L L L B ON ON ; 3 ; 0 ; 0 0 1 1 1 0 1 1 2 2 2 1 1 1
*
*******************************************************************************
*/
void BiDiConformanceTest::TestBidiCharacterTest() {
IcuTestErrorCode errorCode(*this, "TestBidiCharacterTest");
const char *sourceTestDataPath=getSourceTestData(errorCode);
if(errorCode.logIfFailureAndReset("unable to find the source/test/testdata "
"folder (getSourceTestData())")) {
return;
}
char bidiTestPath[400];
strcpy(bidiTestPath, sourceTestDataPath);
strcat(bidiTestPath, "BidiCharacterTest.txt");
LocalStdioFilePointer bidiTestFile(fopen(bidiTestPath, "r"));
if(bidiTestFile.isNull()) {
errln("unable to open %s", bidiTestPath);
return;
}
LocalUBiDiPointer ubidi(ubidi_open());
lineNumber=0;
levelsCount=0;
orderingCount=0;
errorCount=0;
while(errorCount<20 && fgets(line, (int)sizeof(line), bidiTestFile.getAlias())!=NULL) {
++lineNumber;
paraLevelName="N/A";
inputString="N/A";
// Remove trailing comments and whitespace.
char *commentStart=strchr(line, '#');
if(commentStart!=NULL) {
*commentStart=0;
}
u_rtrim(line);
const char *start=u_skipWhitespace(line);
if(*start==0) {
continue; // Skip empty and comment-only lines.
}
// Parse the code point string in field 0.
UChar *buffer=inputString.getBuffer(200);
int32_t length=u_parseString(start, buffer, inputString.getCapacity(), NULL, errorCode);
if(errorCode.logIfFailureAndReset("Invalid string in field 0")) {
errln("Input line %d: %s", (int)lineNumber, line);
inputString.remove();
continue;
}
inputString.releaseBuffer(length);
start=strchr(start, ';');
if(start==NULL) {
errorCount++;
errln("\nError on line %d: Missing ; separator on line: %s", (int)lineNumber, line);
continue;
}
start=u_skipWhitespace(start+1);
char *end;
int32_t paraDirection=(int32_t)strtol(start, &end, 10);
UBiDiLevel paraLevel=UBIDI_MAX_EXPLICIT_LEVEL+2;
if(paraDirection==0) {
paraLevel=0;
paraLevelName="LTR";
}
else if(paraDirection==1) {
paraLevel=1;
paraLevelName="RTL";
}
else if(paraDirection==2) {
paraLevel=UBIDI_DEFAULT_LTR;
paraLevelName="Auto/LTR";
}
else if(paraDirection==3) {
paraLevel=UBIDI_DEFAULT_RTL;
paraLevelName="Auto/RTL";
}
else if(paraDirection<0 && -paraDirection<=(UBIDI_MAX_EXPLICIT_LEVEL+1)) {
paraLevel=(UBiDiLevel)(-paraDirection);
sprintf(levelNameString, "%d", (int)paraLevel);
paraLevelName=levelNameString;
}
if(end<=start || (!U_IS_INV_WHITESPACE(*end) && *end!=';' && *end!=0) ||
paraLevel==(UBIDI_MAX_EXPLICIT_LEVEL+2)) {
errln("\nError on line %d: Input paragraph direction incorrect at %s", (int)lineNumber, start);
printErrorLine();
continue;
}
start=u_skipWhitespace(end);
if(*start!=';') {
errorCount++;
errln("\nError on line %d: Missing ; separator on line: %s", (int)lineNumber, line);
continue;
}
start++;
uint32_t resolvedParaLevel=(uint32_t)strtoul(start, &end, 10);
if(end<=start || (!U_IS_INV_WHITESPACE(*end) && *end!=';' && *end!=0) ||
resolvedParaLevel>1) {
errln("\nError on line %d: Resolved paragraph level incorrect at %s", (int)lineNumber, start);
printErrorLine();
continue;
}
start=u_skipWhitespace(end);
if(*start!=';') {
errorCount++;
errln("\nError on line %d: Missing ; separator on line: %s", (int)lineNumber, line);
return;
}
start++;
if(!parseLevels(start)) {
continue;
}
start=u_skipWhitespace(start);
if(*start==';') {
if(!parseOrdering(start+1)) {
continue;
}
}
else
orderingCount=-1;
ubidi_setPara(ubidi.getAlias(), inputString.getBuffer(), inputString.length(),
paraLevel, NULL, errorCode);
const UBiDiLevel *actualLevels=ubidi_getLevels(ubidi.getAlias(), errorCode);
if(errorCode.logIfFailureAndReset("ubidi_setPara() or ubidi_getLevels()")) {
errln("Input line %d: %s", (int)lineNumber, line);
continue;
}
UBiDiLevel actualLevel;
if((actualLevel=ubidi_getParaLevel(ubidi.getAlias()))!=resolvedParaLevel) {
printErrorLine();
errln("\nError on line %d: Wrong resolved paragraph level; expected %d actual %d",
(int)lineNumber, resolvedParaLevel, actualLevel);
continue;
}
if(!checkLevels(actualLevels, ubidi_getProcessedLength(ubidi.getAlias()))) {
continue;
}
if(orderingCount>=0 && !checkOrdering(ubidi.getAlias())) {
continue;
}
}
}
