bool Root::loadFrom(std::string name) {
auto xml =
Kriti::ResourceRegistry::get<Kriti::XMLResource>("conv/" + name);
if(!xml) return false;
auto objects = xml->doc().first_element_by_path("/conversation/objects");
// First pass to create objects.
for(auto c = objects.first_child(); c ; c = c.next_sibling()) {
int id = c.attribute("id").as_int();
if(!std::strcmp(c.name(), "node")) {
m_nodeMap[id] = boost::make_shared<Node>();
}
else if(!std::strcmp(c.name(), "context")) {
m_contextMap[id] = boost::make_shared<Context>();
}
else if(!std::strcmp(c.name(), "link")) {
m_linkMap[id] = boost::make_shared<Link>();
}
else {
Message3(Game, Debug, "Unknown object type " << c.name());
}
}
// Second pass to parse objects.
for(auto c = objects.first_child(); c ; c = c.next_sibling()) {
int id = c.attribute("id").as_int();
if(!std::strcmp(c.name(), "node")) {
loadNode(id, c);
}
else if(!std::strcmp(c.name(), "context")) {
loadContext(id, c);
}
else if(!std::strcmp(c.name(), "link")) {
loadLink(id, c);
}
else {
Message3(Game, Debug, "Unknown object type " << c.name());
}
}
if(!m_rootNode) {
Message3(Game, Error, "Couldn't load conversation \"" << name
<< "\": no root node");
return false;
}
return true;
}
bool XMLFileParser::Read(XMLContainer & container, DirectoryMode mode)
{
pugi::xml_document XMLDocument;
pugi::xml_parse_result result;
SerializedData data;
data.data = ReadBinaryFile(m_File.GetLocalPath(), data.size, mode);
result = XMLDocument.load_buffer_inplace_own(data.data, data.size);
Logger::GetInstance()->Log(result,
star::string_cast<tstring>(result.description()), STARENGINE_LOG_TAG);
if (result)
{
auto root = XMLDocument.first_child();
if(root != NULL)
{
container.SetName(star::string_cast<tstring>(root.name()));
AddAttributes(container, root);
auto child = root.first_child();
if(child != NULL)
{
do
{
AddChild(container, child);
child = child.next_sibling();
} while (child != NULL);
}
}
}
return result;
}
game_object& game_object::remove_if(const predicate_t &pred) {
for (auto* child = first_child(); child != null;) {
auto* del = child;
child = child->next_sibling();
if (pred(*del)) {
if (del == first_child()) {
_first_child = del->next_sibling();
}
del->_parent = nullptr;
del->_next_sibling = del->_pre_sibling = null;
del->release();
}
}
return *this;
}
Widget
lw_raise_all_pop_up_widgets (void)
{
widget_info* info;
widget_instance* instance;
Widget result = NULL;
for (info = all_widget_info; info; info = info->next)
for (instance = info->instances; instance; instance = instance->next)
if (instance->pop_up_p)
{
Widget widget = instance->widget;
if (widget)
{
if (XtIsManaged (widget)
#ifdef USE_MOTIF
/* What a complete load of crap!!!!
When a dialogShell is on the screen, it is not managed!
*/
|| (lw_motif_widget_p (instance->widget) &&
XtIsManaged (first_child (widget)))
#endif
)
{
if (!result)
result = widget;
XMapRaised (XtDisplay (widget), XtWindow (widget));
}
}
}
return result;
}
void c_dup(struct child *c) {
c = first_child(c);
do {
printf("[%d] 0x%08lx -> ", c->pid, (long unsigned int)c);
} while( (c=c->next) );
printf("\n");
};
void GLUI_RadioGroup::draw_group( int translate )
{
GLUI_DRAWINGSENTINAL_IDIOM
GLUI_RadioButton *button;
this->int_val = int_val;
glMatrixMode(GL_MODELVIEW );
button = (GLUI_RadioButton*) first_child();
while( button != NULL ) {
glPushMatrix();
if (translate) {
button->translate_to_origin();
}
else {
glTranslatef(button->x_abs-x_abs,
button->y_abs-y_abs,0.0);
}
if ( button->int_val )
button->draw_checked();
else
button->draw_unchecked();
glPopMatrix();
button = (GLUI_RadioButton*) button->next();
}
}
void GLUI_Rollout::close( void )
{
if ( NOT glui )
return;
if ( NOT is_open )
return;
is_open = false;
GLUI_DRAWINGSENTINAL_IDIOM
if ( child_head != NULL ) {
((GLUI_Control*) child_head)->hide_internal( true );
}
/* Move all children into a private list of hidden children */
collapsed_node.child_head = first_child();
collapsed_node.child_tail = last_child();
child_head = NULL;
child_tail = NULL;
this->h = rollout_height_pixels;
glui->refresh();
}
//! Prefix increment of the iterator.
iterator& operator++()
{
if (!m_valid) return *this;
if (m_v == m_cst->root() and m_visited) {
m_valid = false;
return *this;
}
value_type w;
if (!m_visited) { // go down, if possible
if (m_cst->is_leaf(m_v)) {
w = m_cst->sibling(m_v); // determine sibling of leaf v
if (w == m_cst->root()) { // if there exists no right sibling of the leaf v
// w = m_cst->parent(m_v);
w = parent();
m_visited = true; // go up
}
} else { // v is not a leaf => go down the tree
w = first_child();
}
} else { //
w = m_cst->sibling(m_v);
if (w == m_cst->root()) { // if there exists no right sibling
w = parent();
} else {
m_visited = false;
}
}
m_v = w;
return *this;
}
struct child *find_child(struct child *current, pid_t pid) {
current = first_child(current);
while( current )
if( current->pid == pid ) return current;
else if( current->next ) current = current->next;
else break;
return NULL;
};
i64 naive_child(bp *b, i64 s, i64 d)
{
i64 t,i;
t = first_child(b,s);
for (i = 1; i < d; i++) {
if (t == -1) break;
t = next_sibling(b,t);
}
return t;
}
TEST_F(DocumentParseTest, element_with_child)
{
Node *node;
doc = Document::parse("<hello><world /></hello>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
ASSERT_EQ("hello", top_element->name());
CHECK_ELEMENT_NAME(node, "world");
}
TEST_F(DocumentParseTest, element_with_char_ref_hex)
{
Node *node;
doc = Document::parse("<a>M</a>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
CHECK_TEXT_NODE(node, "M");
}
TEST_F(DocumentParseTest, element_with_text)
{
Node *node;
doc = Document::parse("<hello>world</hello>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
CHECK_TEXT_NODE(node, "world");
}
i64 naive_degree(bp *b, i64 s)
{
i64 t,d;
d = 0;
t = first_child(b,s);
while (t >= 0) {
d++;
t = next_sibling(b,t);
}
return d;
}
int main(void)
{
CCAN_LIST_HEAD(h);
children(&h);
first_child(&h);
last_child(&h);
check_children(&h);
print_children(&h);
return 0;
}
TEST_F(DocumentParseTest, element_with_nonalpha_text)
{
Node *node;
doc = Document::parse("<a>one, 2</a>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
CHECK_TEXT_NODE(node, "one, 2");
}
TEST_F(DocumentParseTest, comment)
{
Node *node;
doc = Document::parse("<a><!--alert--></a>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
ASSERT_EQ(NODE_TYPE_COMMENT, node->type());
}
const char* json_node::operator[](const char* tag)
{
json_node* iter = first_child();
while (iter)
{
const char* ptr = iter->tag_name();
if (ptr != NULL && strcasecmp(ptr, tag) == 0)
return iter->get_text();
iter = next_child();
}
return NULL;
}
TEST_F(DocumentParseTest, element_with_grandchild)
{
Node *node;
doc = Document::parse("<hello><world><cool /></world></hello>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
CHECK_ELEMENT_NAME(node, "world");
node = node->first_child();
CHECK_ELEMENT_NAME(node, "cool");
}
TEST_F(DocumentParseTest, element_with_two_children_whitespace)
{
Node *node;
doc = Document::parse("<hello>\r\n\t<world />\n <cool />\n</hello>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
CHECK_ELEMENT_NAME(node, "world");
node = node->next_sibling();
CHECK_ELEMENT_NAME(node, "cool");
}
///////////////////////////////////////////
// child(bp *b, i64 s, i64 d)
// returns the d-th child of s (1 <= d <= degree(s))
// -1 if no such node
///////////////////////////////////////////
i64 child(bp *b, i64 s, i64 d)
{
i64 r;
if (b->opt & OPT_DEGREE) {
//return find_open(b,fast_degree(b,s,b->n,d));
if (d==1) return first_child(b,s);
r = fast_degree(b,s,b->n,d-1)+1;
if (inspect(b,r) == CP) return -1;
return r;
} else {
return naive_child(b,s,d);
}
}
TEST_F(DocumentParseTest, element_with_two_children_first_empty)
{
Node *node;
doc = Document::parse("<a><b></b><c/></a>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
CHECK_ELEMENT_NAME(node, "b");
node = node->next_sibling();
CHECK_ELEMENT_NAME(node, "c");
}
T node_value(const_inspection_branch_t branch, T node_t::*member) {
const forest_node_t& node(*branch);
bool is_array_root(node.get_flag(is_array_root_k));
if (is_array_root) {
inspection_forest_t::const_child_iterator first_child(adobe::child_begin(branch));
inspection_forest_t::const_child_iterator last_child(adobe::child_end(branch));
if (first_child != last_child)
return node_value<T>(first_child.base(), member);
}
return node.*member;
}
TEST_F(DocumentParseTest, element_with_mixed_content)
{
Node *node;
doc = Document::parse("<hello><one />b</hello>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
CHECK_ELEMENT_NAME(node, "one");
node = node->next_sibling();
CHECK_TEXT_NODE(node, "b");
}
void XML_Element::set_string(const String &s) {
if(!good()) {
std::cerr << "Bad XML_Element_c attempted set_string(...)\n";
throw XML_Element_Ungood();
}
TiXmlNode * const node = first_child();
if(!node)
m_handle.ToNode()->LinkEndChild(new TiXmlText(s.c_str()));
else if(node->ToText()) {
TiXmlText replacement(s.c_str());
m_handle.ToNode()->ReplaceChild(node, replacement);
}
else {
std::cerr << "XML_Element_c attempted set_string(...) on non-leaf node\n";
throw XML_Element_Nonleaf();
}
}
void GLUI_RadioGroup::draw()
{
if ( NOT can_draw() )
return;
GLUI_DRAWINGSENTINAL_IDIOM
GLUI_RadioButton *button;
this->int_val = int_val;
glMatrixMode(GL_MODELVIEW );
button = (GLUI_RadioButton*) first_child();
while( button != NULL ) {
if ( button->int_val )
button->draw_checked();
else
button->draw_unchecked();
button = (GLUI_RadioButton*) button->next();
}
}
void GLUI_RadioGroup::draw_group( int translate )
{
GLUI_RadioButton *button;
int state, orig;
if ( NOT can_draw() )
return;
orig = set_to_glut_window();
if ( translate )
state = glui->set_front_draw_buffer();
this->int_val = int_val;
glMatrixMode(GL_MODELVIEW );
button = (GLUI_RadioButton*) first_child();
while( button != NULL ) {
if ( translate ) {
glPushMatrix();
button->translate_to_origin();
}
if ( button->int_val )
button->draw_checked();
else
button->draw_unchecked();
if ( translate )
glPopMatrix();
button = (GLUI_RadioButton*) button->next();
}
if ( translate )
glui->restore_draw_buffer(state);
restore_window(orig);
}
void GLUI_RadioGroup::set_selected( int int_val )
{
GLUI_RadioButton *button;
this->int_val = int_val;
button = (GLUI_RadioButton*) first_child();
while( button != NULL ) {
if ( int_val == -1 ) { /*** All buttons in group are deselected ***/
button->set_int_val(0);
}
else if ( int_val == button->user_id ) { /*** This is selected button ***/
button->set_int_val(1);
}
else { /*** This is NOT selected button ***/
button->set_int_val(0);
}
button = (GLUI_RadioButton*) button->next();
}
glutPostRedisplay();
}
TEST_F(DocumentParseTest, element_with_entities)
{
Node *node;
doc = Document::parse("<a><>&"'</a>", &error);
CHECK_PARSE_ERROR(error);
auto top_element = get_top_element();
node = top_element->first_child();
CHECK_TEXT_NODE(node, "<");
node = node->next_sibling();
CHECK_TEXT_NODE(node, ">");
node = node->next_sibling();
CHECK_TEXT_NODE(node, "&");
node = node->next_sibling();
CHECK_TEXT_NODE(node, "\"");
node = node->next_sibling();
CHECK_TEXT_NODE(node, "'");
}
bool readXml(std::istream &in, StateDefinition &state)
{
pugi::xml_document doc;
in.seekg(0, std::ios::end);
auto fileSize = in.tellg();
in.seekg(0, std::ios::beg);
std::unique_ptr<char[]> fileData(new char[fileSize]);
in.read(fileData.get(), fileSize);
if (!in)
{
std::cerr << "Failed to read " << fileSize << "bytes from input file\n";
return false;
}
boost::uuids::detail::sha1 sha;
sha.reset();
sha.process_bytes(fileData.get(), fileSize);
unsigned int hashValue[5];
sha.get_digest(hashValue);
for (int i = 0; i < 5; i++)
{
unsigned int v = hashValue[i];
for (int j = 0; j < 4; j++)
{
// FIXME: Probably need to do the reverse for big endian?
char stringBuf[3];
unsigned int byteHex = v & 0xff000000;
byteHex >>= 24;
snprintf(stringBuf, sizeof(stringBuf), "%02x", byteHex);
state.hashString += stringBuf;
v <<= 8;
}
}
auto ret = doc.load_buffer(fileData.get(), fileSize);
if (!ret)
{
std::cerr << "Failed to parse file:" << ret.description() << "\n";
return false;
}
auto rootNode = doc.first_child();
while (rootNode)
{
if (std::string(rootNode.name()) == "openapoc_gamestate")
{
auto objectNode = rootNode.first_child();
while (objectNode)
{
if (std::string(objectNode.name()) == "object")
{
SerializeObject obj("");
auto externalAttr = objectNode.attribute("external");
if (!externalAttr.empty())
{
std::string externalValue = externalAttr.as_string();
if (externalValue == "true")
{
obj.external = true;
}
else
{
std::cerr << "Unknown object external attribute \"" << externalValue
<< "\"\n";
}
}
auto memberNode = objectNode.first_child();
while (memberNode)
{
if (std::string(memberNode.name()) == "member")
{
std::string memberName = memberNode.text().as_string();
NodeType type = NodeType::Normal;
auto typeAttr = memberNode.attribute("type");
if (!typeAttr.empty())
{
std::string typeName = typeAttr.as_string();
if (typeName == "Normal")
type = NodeType::Normal;
else if (typeName == "Section")
type = NodeType::Section;
else if (typeName == "SectionMap")
type = NodeType::SectionMap;
else
std::cerr << "Unknown member type attribute \"" << typeName
<< "\"\n";
}
SerializeNode member(memberName);
member.type = type;
obj.members.push_back(std::make_pair(member.name, member));
}
else if (std::string(memberNode.name()) == "name")
{
obj.name = memberNode.text().as_string();
}
memberNode = memberNode.next_sibling();
}
state.objects.push_back(obj);
}
else if (std::string(objectNode.name()) == "enum")
{
SerializeEnum sEnum;
auto valueNode = objectNode.first_child();
while (valueNode)
{
if (std::string(valueNode.name()) == "value")
{
sEnum.values.push_back(valueNode.text().as_string());
}
else if (std::string(valueNode.name()) == "name")
{
sEnum.name = valueNode.text().as_string();
}
valueNode = valueNode.next_sibling();
}
state.enums.push_back(sEnum);
}
objectNode = objectNode.next_sibling();
}
}
rootNode = rootNode.next_sibling();
}
return true;
}