LLUserAuth::UserAuthcode LLUserAuth::parseResponse()
{
// The job of this function is to parse sCurlDownloadArea and
// extract every member into either the mResponses or
// mOptions. For now, we will only be looking at mResponses, which
// will all be string => string pairs.
UserAuthcode rv = E_UNHANDLED_ERROR;
XMLRPC_REQUEST response = mResponder->response();
if(!response)
{
U32 status = mResponder->getStatus();
// Is it an HTTP error?
if (!(200 <= status && status < 400))
{
rv = E_HTTP_SERVER_ERROR;
}
return rv;
}
// clear out any old parsing
mResponses.clear();
// Now, parse everything
XMLRPC_VALUE param = XMLRPC_RequestGetData(response);
if (! param)
{
lldebugs << "Response contains no data" << LL_ENDL;
return rv;
}
// Now, parse everything
mResponses = parseValues(rv, "", param);
return rv;
}
api::DirectionData DirectionReader::getDirectionData()
{
myOutDirectionData = initializeData();
updateTimeForOffset();
parsePlacement();
parseValues();
// need to make sure all the MarkData item times match the DirectionData time
fixTimes();
return returnData();
}
void SVGAnimationElement::parseAttribute(const QualifiedName& name, const AtomicString& oldValue, const AtomicString& value)
{
if (name == SVGNames::valuesAttr) {
if (!parseValues(value, m_values)) {
reportAttributeParsingError(ParsingAttributeFailedError, name, value);
return;
}
updateAnimationMode();
return;
}
if (name == SVGNames::keyTimesAttr) {
if (!parseKeyTimes(value, m_keyTimes, true))
reportAttributeParsingError(ParsingAttributeFailedError, name, value);
return;
}
if (name == SVGNames::keyPointsAttr) {
if (isSVGAnimateMotionElement(*this)) {
// This is specified to be an animateMotion attribute only but it is simpler to put it here
// where the other timing calculatations are.
if (!parseKeyTimes(value, m_keyPoints, false))
reportAttributeParsingError(ParsingAttributeFailedError, name, value);
}
return;
}
if (name == SVGNames::keySplinesAttr) {
if (!parseKeySplines(value, m_keySplines))
reportAttributeParsingError(ParsingAttributeFailedError, name, value);
return;
}
if (name == SVGNames::attributeTypeAttr) {
setAttributeType(value);
return;
}
if (name == SVGNames::calcModeAttr) {
setCalcMode(value);
return;
}
if (name == SVGNames::fromAttr || name == SVGNames::toAttr || name == SVGNames::byAttr) {
updateAnimationMode();
return;
}
SVGSMILElement::parseAttribute(name, oldValue, value);
}
bool SVGAnimateElement::isSVGAnimationAttributeSettingJavaScriptURL(const Attribute& attribute) const
{
if ((attribute.name() == SVGNames::fromAttr || attribute.name() == SVGNames::toAttr) && attributeValueIsJavaScriptURL(attribute))
return true;
if (attribute.name() == SVGNames::valuesAttr) {
Vector<String> parts;
if (!parseValues(attribute.value(), parts)) {
// Assume the worst.
return true;
}
for (const auto& part : parts) {
if (protocolIsJavaScript(part))
return true;
}
}
return SVGSMILElement::isSVGAnimationAttributeSettingJavaScriptURL(attribute);
}
void StringComposer::parseCharacterLine(const std::string & line, float textureSize)
{
std::list<std::string> parsedValues;
parseValues(line, parsedValues);
auto i = parsedValues.begin();
unsigned int id = std::stoi(*(i++));
float x = std::stof(*(i++));
float y = std::stof(*(i++));
float width = std::stof(*(i++));
float height = std::stof(*(i++));
float xOffset = std::stof(*(i++));
float yOffset = std::stof(*(i++));
float xAdvance = std::stof(*(i++)) / textureSize;
glm::vec2 position = glm::vec2(x, textureSize - (y + height)) / textureSize;
glm::vec2 size = glm::vec2(width, height) / textureSize;
glm::vec2 offset = glm::vec2(xOffset, yOffset - height) / textureSize;
auto specifics = new CharacterSpecifics { position, size, offset, xAdvance };
m_characterSpecifics.emplace(id, specifics);
}
LLSD LLUserAuth::parseValues(UserAuthcode &auth_code, const std::string& key_pfx, XMLRPC_VALUE param)
{
auth_code = E_OK;
LLSD responses;
for(XMLRPC_VALUE current = XMLRPC_VectorRewind(param); current;
current = XMLRPC_VectorNext(param))
{
std::string key(XMLRPC_GetValueID(current));
lldebugs << "key: " << key_pfx << key << llendl;
XMLRPC_VALUE_TYPE_EASY type = XMLRPC_GetValueTypeEasy(current);
if(xmlrpc_type_string == type)
{
LLSD::String val(XMLRPC_GetValueString(current));
lldebugs << "val: " << val << llendl;
responses.insert(key,val);
}
else if(xmlrpc_type_int == type)
{
LLSD::Integer val(XMLRPC_GetValueInt(current));
lldebugs << "val: " << val << llendl;
responses.insert(key,val);
}
else if (xmlrpc_type_double == type)
{
LLSD::Real val(XMLRPC_GetValueDouble(current));
lldebugs << "val: " << val << llendl;
responses.insert(key,val);
}
else if(xmlrpc_type_array == type)
{
// We expect this to be an array of submaps. Walk the array,
// recursively parsing each submap and collecting them.
LLSD array;
int i = 0; // for descriptive purposes
for (XMLRPC_VALUE row = XMLRPC_VectorRewind(current); row;
row = XMLRPC_VectorNext(current), ++i)
{
// Recursive call. For the lower-level key_pfx, if 'key'
// is "foo", pass "foo[0]:", then "foo[1]:", etc. In the
// nested call, a subkey "bar" will then be logged as
// "foo[0]:bar", and so forth.
// Parse the scalar subkey/value pairs from this array
// entry into a temp submap. Collect such submaps in 'array'.
std::string key_prefix = key_pfx;
array.append(parseValues(auth_code,
STRINGIZE(key_pfx << key << '[' << i << "]:"),
row));
}
// Having collected an 'array' of 'submap's, insert that whole
// 'array' as the value of this 'key'.
responses.insert(key, array);
}
else if (xmlrpc_type_struct == type)
{
LLSD submap = parseValues(auth_code,
STRINGIZE(key_pfx << key << ':'),
current);
responses.insert(key, submap);
}
else
{
// whoops - unrecognized type
llwarns << "Unhandled xmlrpc type " << type << " for key "
<< key_pfx << key << LL_ENDL;
responses.insert(key, STRINGIZE("<bad XMLRPC type " << type << '>'));
auth_code = E_UNHANDLED_ERROR;
}
}
return responses;
}
int initializeCoreCLR(const char* exePath,
const char* appDomainFriendlyName,
int propertyCount,
const char* mergedPropertyKeys,
const char* mergedPropertyValues,
const char* managedAssemblyAbsolutePath,
const char* clrFilesAbsolutePath) {
printf("initializeCoreCLR()\n");
std::string coreClrDllPath(clrFilesAbsolutePath);
coreClrDllPath.append("/");
coreClrDllPath.append(coreClrDll);
if (coreClrDllPath.length() >= PATH_MAX)
{
fprintf(stderr, "Absolute path to libcoreclr.so too long\n");
}
std::string appPath;
if( managedAssemblyAbsolutePath[0] == '\0' ) {
printf("Expecting to run a standard .exe\n");
} else {
printf("Expecting to load an assembly and invoke arbitrary methods.\n");
GetDirectory(managedAssemblyAbsolutePath, appPath);
};
// Construct native search directory paths
std::string nativeDllSearchDirs(appPath);
char *coreLibraries = getenv("CORE_LIBRARIES");
if (coreLibraries)
{
nativeDllSearchDirs.append(":");
nativeDllSearchDirs.append(coreLibraries);
}
nativeDllSearchDirs.append(":");
nativeDllSearchDirs.append(clrFilesAbsolutePath);
std::string tpaList;
AddFilesFromDirectoryToTpaList(clrFilesAbsolutePath, tpaList);
coreclrLib = dlopen(coreClrDllPath.c_str(), RTLD_NOW | RTLD_LOCAL);
if (coreclrLib != nullptr)
{
initialize_core_clr = (coreclr_initialize_ptr)dlsym(coreclrLib, "coreclr_initialize");
execute_assembly = (coreclr_execute_assembly_ptr)dlsym(coreclrLib, "coreclr_execute_assembly");
shutdown_core_clr= (coreclr_shutdown_ptr)dlsym(coreclrLib, "coreclr_shutdown");
create_delegate = (coreclr_create_delegate_ptr)dlsym(coreclrLib, "coreclr_create_delegate");
if (initialize_core_clr == nullptr)
{
fprintf(stderr, "Function coreclr_initialize not found in the libcoreclr.so\n");
return -1;
}
else if (execute_assembly == nullptr)
{
fprintf(stderr, "Function coreclr_execute_assembly not found in the libcoreclr.so\n");
return -1;
}
else if (shutdown_core_clr == nullptr)
{
fprintf(stderr, "Function coreclr_shutdown not found in the libcoreclr.so\n");
return -1;
} else {
if(useServerGc == NULL) {
std::getenv(serverGcVar);
if (useServerGc == nullptr) {
useServerGc = "0";
}
}
useServerGc = std::strcmp(useServerGc, "1") == 0 ? "true" : "false";
char *keys[propertyCount];
char *values[propertyCount];
parseValues(mergedPropertyKeys, keys, propertyCount);
parseValues(mergedPropertyValues, values, propertyCount);
int st = initialize_core_clr(
exePath,
appDomainFriendlyName,
propertyCount,
(const char**)keys,
(const char**)values,
&hostHandle,
&domainId);
if (SUCCEEDED(st)) {
printf("coreclr_initialize ok\n");
} else {
fprintf(stderr, "coreclr_initialize failed - status: 0x%08x\n", st);
};
}
}
return 0;
}
int CmdOptionBasic::parse (int cur_arg_index, int argc, const char** argv)
{
// Parse option name first, then rely on inherited classes
// to parse value(s)
if(cur_arg_index >= argc)
{
// out of command line arguments array
return cur_arg_index;
}
string cur_arg_value = argv[cur_arg_index];
if(cur_arg_value.length() <= 1)
{
// option name cannot be one symbol or empty;
// it must contain at least two symbols (for example, -h)
return cur_arg_index;
}
if(
// check for short name
m_short_name != 0 &&
cur_arg_value[0] == '-' &&
cur_arg_value[1] == m_short_name ||
// check for long name
cur_arg_value == "--" + m_long_name
)
{
if(m_parsed)
{
// option duplication is not allowed
throw CmdParser::Error(
"Option duplication: " + cur_arg_value
);
}
m_parsed = true;
// OK, we found option name, for example -o or --option
// now determine if a value is splitted or not, for example -o value or -ovalue
if(
cur_arg_value.length() == 2 || // two symbols, for example it is only -o
cur_arg_value == "--" + m_long_name // long name is always splitted --option value
)
{
// it is splitted, move to next command line argument in the list
return parseValues(
cur_arg_index + 1,
cur_arg_index + 1 == argc ? "" : argv[cur_arg_index + 1],
argc,
argv
);
}
else
{
// it sticks with option name, -ovalue
return parseValues(
cur_arg_index,
cur_arg_value.substr(2),
argc,
argv
);
}
}
// cannot recognize this option
return cur_arg_index;
}
