void FontAtlas::findNewCharacters(const std::u16string& u16Text, std::unordered_map<unsigned short, unsigned short>& charCodeMap)
{
std::u16string newChars;
FT_Encoding charEncoding = _fontFreeType->getEncoding();
//find new characters
if (_letterDefinitions.empty())
{
// fixed #16169: new android project crash in android 5.0.2 device (Nexus 7) when use 3.12.
// While using clang compiler with gnustl_static on android, the copy assignment operator of `std::u16string`
// will affect the memory validity, it means after `newChars` is destroyed, the memory of `u16Text` holds
// will be a dead region. `u16text` represents the variable in `Label::_utf16Text`, when somewhere
// allocates memory by `malloc, realloc, new, new[]`, the generated memory address may be the same
// as `Label::_utf16Text` holds. If doing a `memset` or other memory operations, the orignal `Label::_utf16Text`
// will be in an unknown state. Meanwhile, a bunch lots of logic which depends on `Label::_utf16Text`
// will be broken.
// newChars = u16Text;
// Using `append` method is a workaround for this issue. So please be carefuly while using the assignment operator
// of `std::u16string`.
newChars.append(u16Text);
}
else
{
auto length = u16Text.length();
newChars.reserve(length);
for (size_t i = 0; i < length; ++i)
{
auto outIterator = _letterDefinitions.find(u16Text[i]);
if (outIterator == _letterDefinitions.end())
{
newChars.push_back(u16Text[i]);
}
}
}
if (!newChars.empty())
{
switch (charEncoding)
{
case FT_ENCODING_UNICODE:
{
for (auto u16Code : newChars)
{
charCodeMap[u16Code] = u16Code;
}
break;
}
case FT_ENCODING_GB2312:
{
conversionU16TOGB2312(newChars, charCodeMap);
break;
}
default:
OUTPUT_LOG("FontAtlas::findNewCharacters: Unsupported encoding:%d", charEncoding);
break;
}
}
}
bool mapToPixelLength(std::u16string& value)
{
if (stripLeadingWhitespace(value).empty())
return false;
const char16_t* input = value.c_str();
const char16_t* end = input + value.length();
int u;
end = parseInt(input, end, u);
if (!end || u < 0)
return false;
if (0 < u)
value.replace(end - input, std::u16string::npos, u"px");
else
value.erase(end - input);
return true;
}
bool UTF8ToUTF16(const std::string& utf8, std::u16string& outUtf16)
{
if (utf8.empty())
{
outUtf16.clear();
return true;
}
bool ret = false;
const size_t utf16Bytes = (utf8.length()+1) * sizeof(char16_t);
char16_t* utf16 = (char16_t*)malloc(utf16Bytes);
memset(utf16, 0, utf16Bytes);
char* utf16ptr = reinterpret_cast<char*>(utf16);
const UTF8* error = NULL;
if (llvm::ConvertUTF8toWide(2, utf8, utf16ptr, error))
{
outUtf16 = utf16;
ret = true;
}
free(utf16);
return ret;
}
void MediaListImp::setMediaText(const std::u16string& mediaText)
{
clear();
if (!mediaText.empty()) {
CSSParser parser;
*this = *parser.parseMediaList(mediaText);
}
}
void KMX_Environment::Load(std::u16string const & key, std::u16string const & value) {
assert(!key.empty());
if (!u16icmp(key.c_str(), KM_KBP_KMX_ENV_PLATFORM)) {
_platform = value;
}
else if (!u16icmp(key.c_str(), KM_KBP_KMX_ENV_BASELAYOUT)) {
_baseLayout = value;
}
else if (!u16icmp(key.c_str(), KM_KBP_KMX_ENV_BASELAYOUTALT)) {
_baseLayoutAlt = value;
}
else if (!u16icmp(key.c_str(), KM_KBP_KMX_ENV_SIMULATEALTGR)) {
_simulateAltGr = value == u"1";
}
else if (!u16icmp(key.c_str(), KM_KBP_KMX_ENV_CAPSLOCK)) {
_capsLock = value == u"1";
}
else if (!u16icmp(key.c_str(), KM_KBP_KMX_ENV_BASELAYOUTGIVESCTRLRALTFORRALT)) {
_baseLayoutGivesCtrlRAltForRAlt = value == u"1";
}
else {
// Unsupported key
assert(false);
}
}
TextFlow::Word TextFlow::calculateWord(std::u16string content, float scale) const
{
// Empty word
Word word;
word.spVertices = std::shared_ptr<std::vector<glm::vec3> >(new std::vector<glm::vec3>);
word.spTextureCoordinates = std::shared_ptr<std::vector<glm::vec2> >(new std::vector<glm::vec2>);
// Fill word with data
float xPixelPen = 0;
for (uint i = 0; i < content.size(); i++)
{
Glyph const * pGlyph = mpFont->getGlyph(mFontSize, content[i]);
if (pGlyph == NULL)
{
throwWarning(
OperationNotifier::Operation::RUNTIME,
"TextFlow has character in content not covered by character set");
continue;
}
float yPixelPen = 0 - (scale * (float)(pGlyph->size.y - pGlyph->bearing.y));
// Vertices for this quad
glm::vec3 vertexA = glm::vec3(xPixelPen, yPixelPen, 0);
glm::vec3 vertexB = glm::vec3(xPixelPen + (scale * pGlyph->size.x), yPixelPen, 0);
glm::vec3 vertexC = glm::vec3(xPixelPen + (scale * pGlyph->size.x), yPixelPen + (scale * pGlyph->size.y), 0);
glm::vec3 vertexD = glm::vec3(xPixelPen, yPixelPen + (scale * pGlyph->size.y), 0);
// Texture coordinates for this quad
glm::vec2 textureCoordinateA = glm::vec2(pGlyph->atlasPosition.x, pGlyph->atlasPosition.y);
glm::vec2 textureCoordinateB = glm::vec2(pGlyph->atlasPosition.z, pGlyph->atlasPosition.y);
glm::vec2 textureCoordinateC = glm::vec2(pGlyph->atlasPosition.z, pGlyph->atlasPosition.w);
glm::vec2 textureCoordinateD = glm::vec2(pGlyph->atlasPosition.x, pGlyph->atlasPosition.w);
xPixelPen += scale * pGlyph->advance.x;
// Fill into data blocks
word.spVertices->push_back(vertexA);
word.spVertices->push_back(vertexB);
word.spVertices->push_back(vertexC);
word.spVertices->push_back(vertexC);
word.spVertices->push_back(vertexD);
word.spVertices->push_back(vertexA);
word.spTextureCoordinates->push_back(textureCoordinateA);
word.spTextureCoordinates->push_back(textureCoordinateB);
word.spTextureCoordinates->push_back(textureCoordinateC);
word.spTextureCoordinates->push_back(textureCoordinateC);
word.spTextureCoordinates->push_back(textureCoordinateD);
word.spTextureCoordinates->push_back(textureCoordinateA);
}
// Set width of whole word
word.pixelWidth = xPixelPen;
return word;
}
inline binding_string::binding_string(handles* hnd, size_t order, const std::string& str, ub1 cs_form) : m_str(brig::unicode::transform<char16_t>(str))
{
const size_t size((m_str.size() + 1) * sizeof(char16_t));
if (size > SHRT_MAX) throw std::runtime_error("OCI type error");
m_ind = OCIInd(size);
OCIBind* bnd(0);
hnd->check(lib::singleton().p_OCIBindByPos(hnd->stmt, &bnd, hnd->err, ub4(order), (void*)m_str.c_str(), m_ind, SQLT_STR, &m_ind, 0, 0, 0, 0, OCI_DEFAULT));
hnd->check(lib::singleton().p_OCIAttrSet(bnd, OCI_HTYPE_BIND, (void*)&cs_form, 0, OCI_ATTR_CHARSET_FORM, hnd->err));
} // binding_string::
bool UTF16ToUTF8(const std::u16string& utf16, std::string& outUtf8)
{
if (utf16.empty())
{
outUtf8.clear();
return true;
}
return llvm::convertUTF16ToUTF8String(utf16, outUtf8);
}
Value::
Value(const std::u16string& s):
type(ConstCharType().make_array(s.size()+1)),
base_address(0),
size(sizeof(char16_t)*(s.size()+1))
{
data = new uint8_t[size];
auto dst = reinterpret_cast<char16_t*>(data);
auto src = s.cbegin();
while(*src)
{
*dst++ = *src++;
}
dst = 0;
}
void TextLabels::renderString( const std::u16string &str, vec2 *cursor, float stretch )
{
std::u16string::const_iterator itr;
for( itr = str.begin(); itr != str.end(); ++itr ) {
// retrieve character code
uint16_t id = (uint16_t)*itr;
if( mFont->contains( id ) ) {
// get metrics for this character to speed up measurements
Font::Metrics m = mFont->getMetrics( id );
// skip whitespace characters
if( !isWhitespaceUtf16( id ) ) {
size_t index = mVertices.size();
Rectf bounds = mFont->getBounds( m, mFontSize );
mVertices.push_back( vec3( *cursor + bounds.getUpperLeft(), 0 ) );
mVertices.push_back( vec3( *cursor + bounds.getUpperRight(), 0 ) );
mVertices.push_back( vec3( *cursor + bounds.getLowerRight(), 0 ) );
mVertices.push_back( vec3( *cursor + bounds.getLowerLeft(), 0 ) );
bounds = mFont->getTexCoords( m );
mTexcoords.push_back( bounds.getUpperLeft() );
mTexcoords.push_back( bounds.getUpperRight() );
mTexcoords.push_back( bounds.getLowerRight() );
mTexcoords.push_back( bounds.getLowerLeft() );
mIndices.push_back( index + 0 ); mIndices.push_back( index + 3 ); mIndices.push_back( index + 1 );
mIndices.push_back( index + 1 ); mIndices.push_back( index + 3 ); mIndices.push_back( index + 2 );
mOffsets.insert( mOffsets.end(), 4, mOffset );
}
if( id == 32 )
cursor->x += stretch * mFont->getAdvance( m, mFontSize );
else
cursor->x += mFont->getAdvance( m, mFontSize );
}
}
//
mBoundsInvalid = true;
}
void UserDictionaryDecoder::DecodeHeading(IBitStream *bstr, unsigned len, std::u16string &res) {
res.clear();
unsigned symIdx;
for (size_t i = 0; i < len; i++) {
_ltHeadings.Decode(*bstr, symIdx);
unsigned sym = _headingSymbols.at(symIdx);
assert(sym <= 0xffff);
res += (char16_t)sym;
}
}
bool RegexStore::patternMatch(std::u16string& in_string) {
//No pattern matches when we don't have a valid pattern
if (not is_compiled) {
return false;
}
//Check for a match
regmatch_t pmatch;
std::string tmp_str(in_string.begin(), in_string.end());
int match = regexec(&exp, tmp_str.c_str(), 1, &pmatch, 0);
//Make sure that each character was matched and that the entire input string
//was consumed by the pattern
if (0 == match and 0 == pmatch.rm_so and in_string.size() == pmatch.rm_eo) {
return true;
}
else {
return false;
}
}
SimpleString::SimpleString(const std::u16string _str)
{
length = _str.size();
s_value = new char16_t[length + 1];
for (unsigned int i = 0; i < _str.size(); ++i)
s_value[i] = _str[i];
s_value[length] = u'\0';
// calculate hash;
_hash = 5381;
int c = 0;
char16_t * sptr = s_value;
while ((c = *sptr++))
_hash = ((_hash << 5) + _hash) + c;
}
std::vector<char16_t> getChar16VectorFromUTF16String(const std::u16string& utf16)
{
std::vector<char16_t> ret;
size_t len = utf16.length();
ret.reserve(len);
for (size_t i = 0; i < len; ++i)
{
ret.push_back(utf16[i]);
}
return ret;
}
bool convertUTF16ToUTF8String(const std::u16string& utf16, std::string &Out) {
assert(Out.empty());
// Avoid OOB by returning early on empty input.
if (utf16.empty())
return true;
const UTF16 *Src = reinterpret_cast<const UTF16 *>(utf16.data());
const UTF16 *SrcEnd = reinterpret_cast<const UTF16 *>(utf16.data() + utf16.length());
// Byteswap if necessary.
std::vector<UTF16> ByteSwapped;
if (Src[0] == UNI_UTF16_BYTE_ORDER_MARK_SWAPPED) {
ByteSwapped.insert(ByteSwapped.end(), Src, SrcEnd);
for (size_t I = 0, E = ByteSwapped.size(); I != E; ++I)
ByteSwapped[I] = SwapByteOrder_16(ByteSwapped[I]);
Src = &ByteSwapped[0];
SrcEnd = &ByteSwapped[ByteSwapped.size() - 1] + 1;
}
// Skip the BOM for conversion.
if (Src[0] == UNI_UTF16_BYTE_ORDER_MARK_NATIVE)
Src++;
// Just allocate enough space up front. We'll shrink it later.
Out.resize(utf16.length() * UNI_MAX_UTF8_BYTES_PER_CODE_POINT + 1);
UTF8 *Dst = reinterpret_cast<UTF8 *>(&Out[0]);
UTF8 *DstEnd = Dst + Out.size();
ConversionResult CR =
ConvertUTF16toUTF8(&Src, SrcEnd, &Dst, DstEnd, strictConversion);
assert(CR != targetExhausted);
if (CR != conversionOK) {
Out.clear();
return false;
}
Out.resize(reinterpret_cast<char *>(Dst) - &Out[0]);
return true;
}
std::string to_utf8(const std::u16string& str)
{
icu_handle::get();
static_assert(sizeof(char16_t) == sizeof(UChar),
"Invalid UChar definition in ICU");
// looks dangerous, but isn't: UChar is guaranteed to be a 16-bit
// integer type, so all we're doing here is going between signed vs.
// unsigned
auto buf = reinterpret_cast<const UChar*>(str.c_str());
icu::UnicodeString u16str{buf};
return icu_to_u8str(u16str);
}
std::vector<TextFlow::Word> TextFlow::calculateFitWord(std::u16string content, int maxPixelWidth, float scale) const
{
// Calculate word from content
Word word = calculateWord(content, scale);
// End of recursion
if ((content.size() == 1 && word.pixelWidth > maxPixelWidth) || content.empty())
{
// Return empty vector as signal of failure
return std::vector<Word>();
}
else if (word.pixelWidth <= maxPixelWidth)
{
// If word length is ok, just return it
return std::vector<Word>(1, word);
}
else
{
// Word is too wide and content longer than 1, split it!
int length = (int)content.size();
int left = length / 2;
int right = length - left;
// Combine results from recursive call
std::vector<Word> leftWord = calculateFitWord(content.substr(0, left), maxPixelWidth, scale);
std::vector<Word> rightWord = calculateFitWord(content.substr(left+1, right), maxPixelWidth, scale);
// If one or more of both are empty, forget it
if (leftWord.empty() || rightWord.empty())
{
return std::vector<Word>();
}
else
{
std::vector<Word> words(leftWord);
words.insert(words.end(), rightWord.begin(), rightWord.end());
return words;
}
}
}
float Font::render(const std::u16string &text, glm::vec2 position, HexColor color, int caretPosition){
empty[g_UILayer] = false;
LastTextHeight = 0;
LastTextLength = 0;
lastTextSize = text.size();
glm::vec2 currentPosition = position;
char16_t letter;
for (u32 i = 0; i < text.size(); i++){
letter = text[i];
auto &letterInfo = fontInfo->m_letters[letter];
if (letter == '\n'){ // new line
LastTextLength = std::max(LastTextLength, currentPosition[0] - position.x);
LastTextHeight += height;
currentPosition = position - glm::vec2(0, LastTextHeight);
continue;
}
if (letter > L'\u00ff'){
currentPosition.x += genSingleSymbol(letter, currentPosition, color);
continue;
}
else if (i > 0){ // kerning
currentPosition[0] += letterInfo.kerning[text[i - 1]];
}
renderedFonts[g_UILayer].m_size++;
renderedFonts[g_UILayer].positions.push_back(currentPosition + letterInfo.offset);
renderedFonts[g_UILayer].sizes.push_back(letterInfo.size);
renderedFonts[g_UILayer].uvs.push_back(letterInfo.uv);
renderedFonts[g_UILayer].colors.push_back(color);
currentPosition.x += letterInfo.advance;
}
if (lastTextSize > 0) // compute len
LastTextLength = currentPosition[0] - position.x;
// placeCaret(text, position, color, caretPosition);
renderedFonts[g_UILayer].m_size = renderedFonts[g_UILayer].uvs.size();
return LastTextLength + 1.f;
}
void LineEdit::IntValidator::assign(std::u16string &string,
const std::u16string &arg) const {
if(arg.size()==0){
if(string.size()==0){
string.resize(1);
string[0] = '0';
}
return;
}
bool good=true;
if(arg[0]=='-'){
if(arg.size()!=1){
if(arg[1]=='0' && arg.size()!=2)
good=false;
for(size_t i=1; good && i<arg.size(); ++i ){
const char16_t c = arg[i];
good &= ('0'<=c && c<='9');
}
} else {
good = false;
}
} else {
if(arg[0]=='0' && arg.size()!=1)
good=false;
for(size_t i=0; good && i<arg.size(); ++i ){
const char16_t c = arg[i];
good &= ('0'<=c && c<='9');
}
}
if(good){
string = arg;
} else {
if(string.size()==0){
string.resize(1);
string[0] = '0';
}
}
}
std::vector<std::u16string> BiDi::processText(const std::u16string& input,
std::set<std::size_t> lineBreakPoints) {
UErrorCode errorCode = U_ZERO_ERROR;
ubidi_setPara(impl->bidiText, mbgl::utf16char_cast<const UChar*>(input.c_str()), static_cast<int32_t>(input.size()),
UBIDI_DEFAULT_LTR, nullptr, &errorCode);
if (U_FAILURE(errorCode)) {
throw std::runtime_error(std::string("BiDi::processText: ") + u_errorName(errorCode));
}
return applyLineBreaking(lineBreakPoints);
}
void IPv6AddressToString(IPv6Address address, std::uint32_t scopeId, std::u16string& buffer)
{
const char* const InvalidIPv6AddressStr = "Invalid IPv6 address!";
::in6_addr v6Addr;
auto& desAddrBytes = v6Addr.s6_addr;
auto& srcAddrBytes = address.Bytes;
for (std::size_t i = 0; i < kIPv4AddressBytes; ++i)
desAddrBytes[i] = static_cast<uchar>(srcAddrBytes[i]);
const auto& ntFunctions = GetNtFunctions();
ulong bufferLength = {};
auto errCode = ntFunctions.RtlIpv6AddressToStringEx(&v6Addr, static_cast<ulong>(scopeId), 0, nullptr, &bufferLength);
Try<std::invalid_argument>(bufferLength != 0, InvalidIPv6AddressStr);
buffer.resize(static_cast<std::size_t>(bufferLength));
errCode = ntFunctions.RtlIpv6AddressToStringEx(&v6Addr, static_cast<ulong>(scopeId), 0, reinterpret_cast<wchar_t*>(&buffer[0]), &bufferLength);
assert(errCode == NtFunctions::NtSuccess);
buffer.pop_back();
}
bool HTMLElementImp::toPxOrPercentage(std::u16string& value)
{
stripLeadingAndTrailingWhitespace(value);
if (value.empty())
return false;
const char16_t* s = value.c_str();
while (*s) {
if (*s == '%')
break;
if (!isDigit(*s))
return false;
++s;
}
if (!*s) {
value += u"px";
return true;
}
assert(*s == '%');
if (!s[1] && 1 < value.length())
return true;
return false;
}
std::string utf16_to_ascii8(const std::u16string& utf16_string)
{
// Strip extended codes, map to '#' instead (placeholder)
std::vector<u8> out;
out.reserve(utf16_string.length() + 1);
for (const auto& code : utf16_string)
{
out.push_back(code > 0xFF ? '#': (u8)code);
}
out.push_back(0);
return { reinterpret_cast<char*>(out.data()) };
}
void WordSuggest::suggest(std::u16string input, Dictionary const * pDictionary, std::u16string& rBestSuggestion)
{
// Clear up
mSuggestions.clear();
mThresholds.clear();
// Fallback for suggestion
rBestSuggestion = u"";
// Only do something when there is input
if (!input.empty())
{
// Decide whether word should start with big letter
bool startsWithUpperCase = false;
char16_t lowerCaseLetter = input[0];
if (toLower(lowerCaseLetter))
{
startsWithUpperCase = lowerCaseLetter != input[0];
}
// Ask for suggestions
std::vector<std::u16string> suggestions = pDictionary->similarWords(input, startsWithUpperCase);
uint i = 0;
for (const std::u16string& rSuggestion : suggestions)
{
mSuggestions.push_back(std::move(mpAssetManager->createTextSimple(mFontSize, 1, rSuggestion)));
// Only add maximal allowed number of suggestions
if (++i >= WORD_SUGGEST_MAX_SUGGESTIONS)
{
break;
}
}
// Save best suggestion
if (!suggestions.empty())
{
// First one is best
rBestSuggestion = suggestions[0];
}
// Prepare thresholds
mThresholds.resize(mSuggestions.size(), LerpValue(0));
// Transform and position the suggestions initially
transformSuggestions();
positionSuggestions();
}
}
bool UserDictionaryDecoder::DecodeArticle(
IBitStream *bstr,
std::u16string &res,
std::u16string const& prefix,
LenTable& ltArticles,
std::vector<char32_t>& articleSymbols)
{
unsigned len = bstr->read(16);
if (len == 0xFFFF) {
len = bstr->read(32);
}
res.clear();
unsigned symIdx;
std::vector<uint32_t> vec;
while ((unsigned)res.length() < len) {
ltArticles.Decode(*bstr, symIdx);
unsigned sym = articleSymbols.at(symIdx);
vec.push_back(sym);
if (sym >= 0x10000) {
if (sym >= 0x10040) {
unsigned startIdx = bstr->read(BitLength(len));
unsigned len = sym - 0x1003d;
res += res.substr(startIdx, len);
vec.push_back(startIdx);
} else {
unsigned startIdx = bstr->read(BitLength(prefix.length()));
unsigned len = sym - 0xfffd;
res += prefix.substr(startIdx, len);
vec.push_back(startIdx);
}
} else {
res += (char16_t)sym;
}
}
return true;
}
/*
* Create a new regex pattern if necessary, or keep the old one if the
* pattern has not changed
* Returns true on success, false on failure.
*/
bool RegexStore::preparePattern(std::u16string& patt) {
//New pattern? Clear out the existing regex_t
if (is_compiled and this->pattern != patt) {
//std::cerr<<"Replacing pattern "<<std::string(pattern.begin(), pattern.end())<<" with "<<std::string(patt.begin(), patt.end())
regfree(&exp);
is_compiled = false;
}
//Do we need to compile a new regex pattern?
if (not is_compiled) {
//Compile a new regex pattern using the ascii string representation
std::string tmp_string(patt.begin(), patt.end());
int err = regcomp(&exp, tmp_string.c_str(), REG_EXTENDED);
//Return without creating an expression if this failed
if (0 != err) {
return false;
//is_compiled remains false
}
else {
pattern = patt;
is_compiled = true;
}
}
return true;
}
//same thing as contructor. can be used to reinit dirList too
void dirList::reassign(const std::u16string p)
{
entry.clear();
FSUSER_OpenDirectory(&d, a, fsMakePath(PATH_UTF16, p.data()));
u32 read = 0;
do
{
FS_DirectoryEntry getEnt;
FSDIR_Read(d, &read, 1, &getEnt);
entry.push_back(getEnt);
}while(read > 0);
FSDIR_Close(d);
}
void FontAtlas::findNewCharacters(const std::u16string& u16Text, std::unordered_map<unsigned short, unsigned short>& charCodeMap)
{
std::u16string newChars;
FT_Encoding charEncoding = _fontFreeType->getEncoding();
//find new characters
if (_letterDefinitions.empty())
{
newChars = u16Text;
}
else
{
auto length = u16Text.length();
newChars.reserve(length);
for (size_t i = 0; i < length; ++i)
{
auto outIterator = _letterDefinitions.find(u16Text[i]);
if (outIterator == _letterDefinitions.end())
{
newChars.push_back(u16Text[i]);
}
}
}
if (!newChars.empty())
{
switch (charEncoding)
{
case FT_ENCODING_UNICODE:
{
for (auto u16Code : newChars)
{
charCodeMap[u16Code] = u16Code;
}
break;
}
case FT_ENCODING_GB2312:
{
conversionU16TOGB2312(newChars, charCodeMap);
break;
}
default:
CCLOG("FontAtlas::findNewCharacters: Unsupported encoding:%d", charEncoding);
break;
}
}
}
void LineEdit::IntValidator::insert(std::u16string &string,
size_t &cursor, size_t &ecursor,
char16_t data) const {
if( cursor==0 ){
if(!string.empty() && string[0]=='-')
return;
if(data=='-' && !(string.size()>=1 && string[0]=='0')){
Validator::insert(string,cursor,ecursor,data);
return;
}
if(data=='0' && ((string.size()==1 && string[0]=='-') || string.size()==0)){
Validator::insert(string,cursor,ecursor,data);
return;
}
if(('1'<=data && data<='9') || data=='-'){
Validator::insert(string,cursor,ecursor,data);
return;
}
return;
}
const size_t pos = cursor-1;
if( data=='0'
&& !(pos<string.size() && string[pos]=='-')
&& !(string.size()==1 && string[0]=='0') ){
Validator::insert(string,cursor,ecursor,data);
return;
}
if('1'<=data && data<='9'){
if(string.size()==1 && string[0]=='0'){
string.clear();
cursor = 0;
ecursor = cursor;
}
Validator::insert(string,cursor,ecursor,data);
return;
}
}
void Label::DetermineTokenWidths(const std::u16string& text, double heuristicCharWidth, std::vector<double>& tokenWidths)
{
double tokenWidth = 0;
int textSize = text.size();
for(int i = 0; i < textSize; ++i)
{
if (text[i] != ' ')
{
tokenWidth += heuristicCharWidth;
}
else
{
tokenWidths.push_back(tokenWidth);
tokenWidth = 0;
}
}
tokenWidths.push_back(tokenWidth);
}
