int main(){
JSONNode n = read_formatted("input.json");
JSONNode n1 = read_formatted("input1.json");
test *tst = new test();
int status;
//n.set_name(abi::__cxa_demangle(typeid(*tst).name(), 0,0,&status ));
n.push_back(JSONNode("FF::Node_Subclass", abi::__cxa_demangle(typeid(*tst).name(), 0,0,&status )));
if(n1.type()==JSON_NULL){
std::cout<<"null"<<std::endl;
}
JSONNode n2 (JSON_NODE);
n2.set_name("Child1");
n2.push_back(JSONNode("id",1));
n.set_name("Parrent");
n.push_back(n2);
JSONNode::iterator it =n.find_nocase("String Node");
if(it->as_string()=="-1"){std::cout<<it->as_int()<<std::endl;}
it->as_int()!=-1 ? (std::cout<< "it is"<<std::endl) : (std::cout<<"Mapper Warning: processor id is -1"<<std::endl);
if (n.at("String Node")==""){
std::cout<<"ha ha ha"<<std::endl;
}
std::cout<< "This is the name: "<<n.name()<<std::endl;
n.at("String Node")="";
bool x =true;
n.push_back(JSONNode("MyBOOLNODE", x));
n["String Node"]=x;
//n.erase(n.find_nocase("String Node"));
write_formatted(n1, "out1.json");
write_formatted(n, "out.json");
JSONNode::const_iterator i =n.find_nocase("ArrayOfNumbers");
std::string strLowerCase= "ARRAYOfNUMbers";
std::string myTest= "ff::ff_farm<adaptive_loadbalancer, ff::ff_gatherer>";
std::transform(myTest.begin(), myTest.end(), myTest.begin(), ::tolower);
std::size_t found = myTest.find("adaptive_loadbalancer");
if (found!=std::string::npos)
std::cout << "first 'needle' found at: " << found << '\n';
std::cout<< "here it is: " << myTest<< std::endl;
JSONNode n_ar = n.at("ArrayOfNumbers");
std::cout<<"here :"<<n_ar[0].as_int()<< std::endl;
// if (0 == strcasecmp("hello", "HELLO"))
if(strcasecmp((i->name()).c_str(), strLowerCase.c_str()) == 0)
//if(!(n2.empty()))
std::cout<<"haha"<<i->size()<<std::endl;
std::cout<<i->name()<<std::endl;
std::cout<<((i->as_array()).begin()+1)->as_int()<<std::endl;
std::cout<<((i->as_array()).at(1)).as_int()<<std::endl;
std::cout<<((i->as_array())[1]).as_int()<<std::endl;
//std::cout<<i->as_string()<<std::endl;
//JSONNode c(JSON_ARRAY);
//c=i->as_array();
//JSONNode nk= c.at(0);
//JSONNode::const_iterator it = c.begin();
//std::cout <<nk.as_int()<<std::endl;
return 0;
}
JSONNode LumiverseFloat::toJSON(string name) {
JSONNode node;
node.set_name(name);
node.push_back(JSONNode("type", getTypeName()));
node.push_back(JSONNode("val", m_val));
node.push_back(JSONNode("default", m_default));
node.push_back(JSONNode("max", m_max));
node.push_back(JSONNode("min", m_min));
return node;
}
JSONNode Keyframe::toJSON() {
JSONNode keyframe;
keyframe.push_back(JSONNode("t", (unsigned long) t));
if (val != nullptr) {
keyframe.push_back(val->toJSON("val"));
}
keyframe.push_back(JSONNode("useCurrentState", useCurrentState));
if (timelineID != "") {
keyframe.push_back(JSONNode("timelineID", timelineID));
keyframe.push_back(JSONNode("timelineOffset", (unsigned long)timelineOffset));
}
return keyframe;
}
JSONNode Programmer::toJSON() {
JSONNode root;
root.set_name("programmer");
JSONNode devices;
devices.set_name("devices");
for (const auto& kvp : m_devices) {
devices.push_back(kvp.second->toJSON());
}
root.push_back(devices);
root.push_back(captured.toJSON("captured"));
return root;
}
/**
* Write column_names and column_values (as a row in the sframe) to JSONNode.
*/
void sframe_row_to_json(const std::vector<std::string>& column_names,
const std::vector<flexible_type>& column_values,
JSONNode& node) {
DASSERT_EQ(column_names.size(), column_values.size());
for (size_t i = 0; i < column_names.size(); ++i) {
node.push_back(flexible_type_to_json(column_values[i], column_names[i]));
}
}
JSONNode Event::toJSON() {
// this is equivalent to saying "something happened here but I have no idea what it is"
JSONNode e;
e.set_name(_id);
e.push_back(JSONNode("type", getType()));
return e;
}
ptree currencyHandler::getAllCurrenciesInJsonFormat() {
JSONNode n(JSON_NODE);
n.push_back(JSONNode("String Node", "String Value"));
n.push_back(JSONNode("Integer Node", 42));
n.push_back(JSONNode("Floating Point Node", 3.14));
n.push_back(JSONNode("Boolean Node", true));
std::string jc = n.write_formatted();
std::cout << jc << std::endl;
JSONNode n(JSON_NODE);
n.push_back(JSONNode("RootA", "Hello World"));
JSONNode c(JSON_ARRAY);
c.set_name("ArrayOfNumbers");
c.push_back(JSONNode("", 16));
c.push_back(JSONNode("", 42));
c.push_back(JSONNode("", 128));
n.push_back(c);
std::string jc = n.write_formatted();
std::cout << jc << std::endl;
std::string json = "{\"RootA\":\"Value in parent node\",\"ChildNode\":{\"ChildA\":\"String Value\",\"ChildB\":42}}";
JSONNode n = libjson::parse(json);
ParseJSON(n);
JSONNode n(JSON_NODE);
n.push_back(JSONNode("RootA", "Value in parent node"));
JSONNode c(JSON_NODE);
c.set_name("ChildNode");
c.push_back(JSONNode("ChildA", "String Value"));
c.push_back(JSONNode("ChildB", 42));
n.push_back(c);
std::string jc = n.write_formatted();
std::cout << jc << std::endl;
return allCurrenciesJsonArray;
}
JSONNode *Database::CreateTable(const string &name, const vector<string> &columnNames)
{
if (this->FindTable(name))
return NULL;
JSONNode table;
table.set_name(name);
JSONNode columns(JSON_ARRAY);
columns.set_name("columns");
for (auto i = columnNames.begin(); i != columnNames.end(); i++)
columns.push_back(JSONNode("", *i));
table.push_back(columns);
JSONNode rows(JSON_ARRAY);
rows.set_name("rows");
table.push_back(rows);
auto tables = data.find("tables");
tables->push_back(table);
//cout << tables->write_formatted() << endl;
//cout << data.write_formatted() << endl;
auto t = tables->find(name);
return t == tables->end() ? NULL : &*t;
}
JSONNode Rig::toJSON() {
JSONNode root;
stringstream ss;
ss << LumiverseCore_VERSION_MAJOR << "." << LumiverseCore_VERSION_MINOR;
root.push_back(JSONNode("version", ss.str()));
root.push_back(JSONNode("refreshRate", m_refreshRate));
JSONNode devices;
devices.set_name("devices");
for (auto d : m_devices) {
devices.push_back(d->toJSON());
}
root.push_back(devices);
JSONNode patches;
patches.set_name("patches");
for (auto& p : m_patches) {
JSONNode patch = p.second->toJSON();
patch.set_name(p.first);
patches.push_back(patch);
}
root.push_back(patches);
return root;
}
bool Rig::load(string filename) {
stop();
// Check to see if we can load the file.
ifstream data;
data.open(filename, ios::in | ios::binary | ios::ate);
if (data.is_open()) {
reset();
// "+ 1" for the ending
streamoff size = data.tellg();
char* memblock = new char[(unsigned int)size + 1];
data.seekg(0, ios::beg);
stringstream ss;
ss << "Loading " << size << " bytes from " << filename;
Logger::log(INFO, ss.str());
data.read(memblock, size);
data.close();
// It's not guaranteed that the following memory after memblock is blank.
// C-style string needs an end.
memblock[size] = '\0';
JSONNode n = libjson::parse(memblock);
// Pass in json path with the original json nodes.
n.push_back(JSONNode("jsonPath", filename));
// This could get to be a large function, so let's break off into a helper.
loadJSON(n);
delete memblock;
return true;
}
else {
stringstream ss;
ss << "Error opening " << filename;
Logger::log(ERR, ss.str());
return false;
}
}
void data_server_handler::on_client_connect(websocketpp::session_ptr client){
static const boost::regex nonolith_domain("^https?://[[:w:]\\.-]*?nonolithlabs.com$");
static const boost::regex localhost_domain("^https?://localhost(:[[:d:]]+)?$");
const string origin = client->get_client_header("Origin");
if (!allowAnyOrigin
&& origin!=""
&& origin!="null"
&& !regex_match(origin, localhost_domain)
&& !regex_match(origin, nonolith_domain)
){
client->start_http(403, "Origin not allowed");
std::cerr << "Rejected client with unknown origin " << origin << std::endl;
return;
}
const std::string resource = client->get_resource();
Url url(resource);
UrlPath path(url, 1);
try{
if (path.leaf()){ // "/"
client->set_header("Location", redir_url);
client->start_http(301);
}else if (path.matches("rest")){
handleJSONRequest(path.sub(), client);
}else if (path.matches("ws")){
client->start_websocket();
}else{
client->start_http(404, "Not found");
}
}catch(std::exception& e){
JSONNode j;
j.push_back(JSONNode("error", e.what()));
std::cerr << "Exception while processing request: " << e.what() <<std::endl;
respondJSON(client, j, 500);
}
}
void TestSuite::TestInspectors(void){
UnitTest::SetPrefix("TestInspectors.cpp - Inspectors");
JSONNode test = JSONNode(JSON_NULL);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT(""));
assertEquals(test.as_int(), 0);
assertEquals(test.as_float(), 0.0f);
assertEquals(test.as_bool(), false);
#endif
test = 15.5f;
assertEquals(test.type(), JSON_NUMBER);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT("15.5"));
#endif
assertEquals(test.as_int(), 15);
assertEquals(test.as_float(), 15.5f);
#ifdef JSON_CASTABLE
assertEquals(test.as_bool(), true);
#endif
test = 0.0f;
assertEquals(test.type(), JSON_NUMBER);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT("0"));
#endif
assertEquals(test.as_int(), 0);
assertEquals(test.as_float(), 0.0f);
#ifdef JSON_CASTABLE
assertEquals(test.as_bool(), false);
#endif
test = true;
assertEquals(test.type(), JSON_BOOL);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT("true"));
assertEquals(test.as_int(), 1);
assertEquals(test.as_float(), 1.0f);
#endif
assertEquals(test.as_bool(), true);
test = false;
assertEquals(test.type(), JSON_BOOL);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT("false"));
assertEquals(test.as_int(), 0);
assertEquals(test.as_float(), 0.0f);
#endif
assertEquals(test.as_bool(), false);
#ifdef JSON_CASTABLE
test.cast(JSON_NODE);
#else
test = JSONNode(JSON_NODE);
#endif
assertEquals(test.type(), JSON_NODE);
assertEquals(test.size(), 0);
test.push_back(JSONNode(JSON_TEXT("hi"), JSON_TEXT("world")));
test.push_back(JSONNode(JSON_TEXT("hello"), JSON_TEXT("mars")));
test.push_back(JSONNode(JSON_TEXT("salut"), JSON_TEXT("france")));
assertEquals(test.size(), 3);
TestSuite::testParsingItself(test);
#ifdef JSON_CASTABLE
JSONNode casted = test.as_array();
#ifdef JSON_UNIT_TEST
assertNotEquals(casted.internal, test.internal);
#endif
assertEquals(casted.type(), JSON_ARRAY);
assertEquals(test.type(), JSON_NODE);
assertEquals(test.size(), 3);
assertEquals(casted.size(), 3);
TestSuite::testParsingItself(casted);
#endif
UnitTest::SetPrefix("TestInspectors.cpp - Location");
try {
#ifdef JSON_CASTABLE
assertEquals(casted.at(0), JSON_TEXT("world"));
assertEquals(casted.at(1), JSON_TEXT("mars"));
assertEquals(casted.at(2), JSON_TEXT("france"));
assertEquals(casted.at(0).name(), JSON_TEXT(""));
assertEquals(casted.at(1).name(), JSON_TEXT(""));
assertEquals(casted.at(2).name(), JSON_TEXT(""));
#endif
assertEquals(test.at(0), JSON_TEXT("world"));
assertEquals(test.at(1), JSON_TEXT("mars"));
assertEquals(test.at(2), JSON_TEXT("france"));
assertEquals(test.at(0).name(), JSON_TEXT("hi"));
assertEquals(test.at(1).name(), JSON_TEXT("hello"));
assertEquals(test.at(2).name(), JSON_TEXT("salut"));
} catch (std::out_of_range){
FAIL("exception caught");
}
try {
assertEquals(test.at(JSON_TEXT("hi")), JSON_TEXT("world"));
assertEquals(test.at(JSON_TEXT("hello")), JSON_TEXT("mars"));
assertEquals(test.at(JSON_TEXT("salut")), JSON_TEXT("france"));
#ifdef JSON_CASE_INSENSITIVE_FUNCTIONS
assertEquals(test.at_nocase(JSON_TEXT("SALUT")), JSON_TEXT("france"));
assertEquals(test.at_nocase(JSON_TEXT("HELLO")), JSON_TEXT("mars"));
assertEquals(test.at_nocase(JSON_TEXT("HI")), JSON_TEXT("world"));
#endif
} catch (std::out_of_range){
FAIL("exception caught");
}
assertException(test.at(JSON_TEXT("meh")), std::out_of_range);
#ifdef JSON_CASE_INSENSITIVE_FUNCTIONS
assertException(test.at_nocase(JSON_TEXT("meh")), std::out_of_range);
#endif
assertEquals(test[JSON_TEXT("hi")], json_string(JSON_TEXT("world")));
assertEquals(test[JSON_TEXT("hello")], json_string(JSON_TEXT("mars")));
assertEquals(test[JSON_TEXT("salut")], json_string(JSON_TEXT("france")));
assertEquals(test[0], JSON_TEXT("world"));
assertEquals(test[1], JSON_TEXT("mars"));
assertEquals(test[2], JSON_TEXT("france"));
#ifdef JSON_ITERATORS
#ifdef JSON_CASTABLE
UnitTest::SetPrefix("TestInspectors.cpp - Iterators");
for(JSONNode::iterator it = casted.begin(), end = casted.end(); it != end; ++it){
assertEquals((*it).name(), JSON_TEXT(""));
}
#endif
#endif
#ifdef JSON_BINARY
UnitTest::SetPrefix("TestInspectors.cpp - Binary");
test.set_binary((const unsigned char *)"Hello World", 11);
assertEquals(test.type(), JSON_STRING);
assertEquals(test.as_string(), JSON_TEXT("SGVsbG8gV29ybGQ="));
assertEquals(test.as_binary(), "Hello World");
assertEquals(test.as_binary().size(), 11);
test = JSON_TEXT("Hello World");
assertEquals(test.type(), JSON_STRING);
assertEquals(test.as_string(), JSON_TEXT("Hello World"));
#ifdef JSON_SAFE
assertEquals(test.as_binary(), "");
#endif
#endif
#ifdef JSON_READ_PRIORITY
//This is a regression test for a bug in at()
json_string buffer(JSON_TEXT("{ \"myValue1\" : \"foo\", \"myValue2\" : \"bar\"}"));
JSONNode current = libjson::parse(buffer);
try {
JSONNode & value1 = current[JSON_TEXT("myValue1")];
assertEquals(value1.as_string(), JSON_TEXT("foo"));
JSONNode & value2 = current[JSON_TEXT("myValue2")];
assertEquals(value2.as_string(), JSON_TEXT("bar"));
} catch (...){
assertTrue(false);
}
#endif
}
std::string ModuleManager::callMethod(const std::string& sender, const std::string& reciver, const std::string& action, const std::string& jsonString, IrcConnection* connection) {
if(reciver=="IRCCONNECTION") {
JSONNode n;
if(!jsonString.empty()) {
n = libjson::parse(jsonString);
}
if(action == "joinChan") {
connection->joinChan(n["channel"].as_string());
}
else if(action == "partChan") {
connection->partChan(n["channel"].as_string());
}
else if(action == "sendQuit") {
connection->sendQuit(n["msg"].as_string());
}
else if(action == "sendMessage") {
connection->sendMessage(n["target"].as_string(), n["message"].as_string());
}
else if(action == "sendNotice") {
connection->sendNotice(n["target"].as_string(), n["message"].as_string());
}
else if(action == "sendAction") {
connection->sendNotice(n["target"].as_string(), n["message"].as_string());
}
else if(action == "sendCTCP") {
connection->sendNotice(n["target"].as_string(), n["message"].as_string());
}
else if(action == "changeNick") {
connection->changeNick(n["nick"].as_string());
}
else if(action == "setUserMode") {
connection->setUserMode(n["mode"].as_string());
}
else if(action == "setMode") {
connection->setMode(n["nick"].as_string(), n["mode"].as_string());
}
else if(action == "getChannels") {
JSONNode n(JSON_NODE);
std::map<std::string, IrcChannel>& channelList = connection->getChannels();
std::map<std::string, IrcChannel>::iterator iter;
for(iter=channelList.begin(); iter!=channelList.end(); ++iter) {
JSONNode n2(JSON_ARRAY);
n2.set_name(iter->first);
n2.push_back(convertIrcChannelToJSONString(iter->second));
n.push_back(n2);
}
return n.write();
}
else if(action == "getServer") {
return connection->getServer();
}
else if(action == "getPort") {
return Base::StringUtils::toString(connection->getPort());
}
else if(action == "getNick") {
return connection->getNick();
}
else if(action == "getID") {
return connection->getID();
}
}
else if(reciver=="IRC") {
JSONNode n;
if(!jsonString.empty()) {
n = libjson::parse(jsonString);
}
if(action == "disconect") {
mIRC->disconect(n["id"].as_string());
}
else if(action == "disconectAll") {
mIRC->disconectAll();
}
}
else if(reciver=="MODULEMANAGER") {
JSONNode n;
if(!jsonString.empty()) {
n = libjson::parse(jsonString);
}
if(action == "reloadModule") {
return Base::StringUtils::toString(reloadModule(n["id"].as_string()));
}
else if(action == "loadModuleBinary" || action == "loadModuleScript") {
std::map<std::string, std::string> tmpParams;
JSONNode n2 = n["params"];
JSONNode::iterator i = n2.begin();
for(; i!=n2.end(); ++i) {
tmpParams[(*i).name()] = (*i).as_string();
}
if(action == "loadModuleBinary") {
return Base::StringUtils::toString(loadModuleBinary(n["id"].as_string(), n["file"].as_string(), tmpParams));
}
else {
return Base::StringUtils::toString(loadModuleScript(n["id"].as_string(), n["file"].as_string(), tmpParams));
}
}
else if(action == "unloadModule") {
unloadModule(n["id"].as_string());
}
}
else {
Module* module = getModule(reciver);
if(!module) {
return "";
}
if(module->type == Module::BINARY) {
if(!module->binaryModule.onInternalMessage) {
return "";
}
return module->binaryModule.onInternalMessage(sender.c_str(), action.c_str(), jsonString.c_str(), connection);
}
}
return "";
}
ResponseCode UpdateRepoTagOfTarball(std::string pathTarball, std::string repo, std::string tag, std::string &idImage) {
TAR *tar = NULL;
int ret = 0;
int th_found = 0;
int exitcode = 0;
// char tmp_filepath[] = P_tmpdir "/libtar-tmpfile-XXXXXX";
//gen path to upload image
char* tmp_imagepath = tempnam (FileUtils::GetPathDir(pathTarball).c_str(), "imageDirTmp_");
std::string pathTmpDir = tmp_imagepath;
free(tmp_imagepath);
std::cout << "path tmp dir: " << pathTmpDir << std::endl;
int tmp_fd = -1;
ret = tar_open(&tar, (char*)pathTarball.c_str(), NULL, O_RDONLY, 0, 0);
if (ret != 0) {
fprintf(stdout, "Fail to open file: %s\n", pathTarball.c_str());
// return FILE_ACTION_ERROR;
exitcode = 2;
}
if (exitcode == 0) {
if (tar_extract_all(tar, (char*)pathTmpDir.c_str()) != 0) {
fprintf(stderr, "Fail to extract file: %s\n", pathTarball.c_str());
exitcode = 2;
}
}
if (exitcode == 0) {
ret = tar_close(tar);
if (ret != 0) {
perror("Failed to close tar file.");
exitcode = 2;
}
tar = NULL;
}
//Modify repository file
if (exitcode == 0) {
char buf[BUFSIZ];
ssize_t n_buf = 0;
FILE *tmpfile = NULL;
std::ifstream in((pathTmpDir + "/" + REPOSITORIES_FILE).c_str(), std::ios::binary);
std::string info((std::istreambuf_iterator<char>(in)), std::istreambuf_iterator<char>());
JSONNode n;
try
{
n = libjson::parse(info);
} catch(const std::invalid_argument& e) {
std::cerr << "Invalid argument: " << e.what() << '\n';
// return FILE_ACTION_ERROR;
exitcode = 1;
}
if(exitcode == 0){
JSONNode::const_iterator i = n.begin();
//if (i != n.end() && i -> name() == TAG_SERVICE_STR && i -> type() != JSON_ARRAY && i -> type() != JSON_NODE)
if (i != n.end() && i -> type() == JSON_NODE){
JSONNode tag_id_node = i->as_node();
i = tag_id_node.begin();
if (i != n.end() && i -> type() != JSON_ARRAY && i -> type() != JSON_NODE){
idImage = i->as_string();
}else{
std::cout << "Tarball format error.\n";
// return FILE_ACTION_ERROR;
exitcode = 1;
}
}
}else{
std::cout << "Tarball format error.\n";
// return FILE_ACTION_ERROR;
exitcode = 1;
}
}
if(exitcode == 0){
JSONNode newRepoNode(JSON_NODE);
newRepoNode.set_name(repo);
newRepoNode.push_back(JSONNode(tag, idImage));
JSONNode newNode;
newNode.push_back(newRepoNode);
std::string content = newNode.write();
FILE * pFile;
if (exitcode == 0) {
pFile = fopen ((pathTmpDir + "/" + REPOSITORIES_FILE).c_str() , "w");
if (pFile == NULL) {
printf("Error opening file %s\n", (pathTmpDir + "/" + REPOSITORIES_FILE).c_str());
// return FILE_ACTION_ERROR;
exitcode = 1;
}
}
if (exitcode == 0) {
fwrite (content.c_str() , sizeof(char), content.size(), pFile);
fclose (pFile);
printf("content tmp file: %s\n", content.c_str());
}
}
if (exitcode == 0) {
remove (pathTarball.c_str());
ret = tar_open(&tar, (char*)pathTarball.c_str(), NULL, O_WRONLY | O_CREAT, 0600, 0);
if (ret != 0) {
fprintf(stderr, "Fail to open file: %s\n", pathTarball.c_str());
// return FILE_ACTION_ERROR;
exitcode = 2;
}
if (exitcode == 0) {
if (tar_append_tree(tar, (char*)pathTmpDir.c_str(), "") != 0) {
fprintf(stderr, "Fail to compress file: %s\n", pathTarball.c_str());
// return FILE_ACTION_ERROR;
exitcode = 2;
}
}
if (exitcode == 0) {
ret = tar_close(tar);
if (ret != 0) {
perror("Failed to close tar file.");
exitcode = 2;
} else {
tar = NULL;
}
}
}
std::cout << "delete_folder_tree: " << pathTmpDir.c_str() << std::endl;
if (FileUtils::delete_folder_tree(pathTmpDir.c_str())) {
fprintf(stderr, "Fail to delete temp dir: %s\n", pathTmpDir.c_str());
}
if (exitcode == 0) {
return FILE_ACTION_SUCCESS;
} else if (exitcode == 1) {
return FILE_ACTION_ERROR;
} else {
return DATA_ERROR;
}
}
