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geant4/source/analysis/g4tools/include/tools/xml/tree
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2016-06-10 12:08:39 +02:00

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// Copyright (C) 2010, Guy Barrand. All rights reserved.
// See the file tools.license for terms.
#ifndef tools_xml_tree
#define tools_xml_tree
#include "element"
#include "../sout"
#include "../strip"
#include "../S_STRING"
#include "../forit"
#include <list>
#include <ostream>
namespace tools {
namespace xml {
// A tree is :
// <tree atb1="" atb2="" ...>
// ...
// <tree...>
// </tree>
// ...
// <element atb1="" atb2="" ...> value </element>
// ...
// </tree>
//
// tree.attribute_value(<name>,s)
// retrieve the value of atb <name> of a <tag>
// tree.attribute_value(<element>,<name>,s)
// retrieve the value of an atb <name> of a <element> of a <tree>
//
class tree;
class factory {
public:
virtual ~factory(){}
public:
typedef std::pair<std::string,std::string> atb;
public:
virtual tree* create(const std::string& a_tag_name,const std::vector<atb>& a_atbs,tree* a_parent) = 0;
};
class tree : public virtual ielem {
public:
TOOLS_SCLASS(tools::xml::tree)
public:
static cid id_class() {return 1;}
virtual void* cast(cid a_class) const {
if(void* p = cmp_cast<tree>(this,a_class)) {return p;}
else return 0;
}
public:
typedef std::pair<std::string,std::string> atb;
typedef bool (*exec_func)(tree&,void*);
enum copy_what { copy_attributes, copy_elements, copy_children, copy_all };
public:
tree(const std::string& a_tag_name,factory& a_factory,tree* a_parent)
:m_tag_name(a_tag_name)
,m_factory(a_factory)
,m_parent(a_parent)
,m_save(true)
,m_data_1(0)
,m_data_2(0)
,m_data_int(0)
,m_depth(0)
{
#ifdef TOOLS_MEM
mem::increment(s_class().c_str());
#endif
}
virtual ~tree(){
clear();
#ifdef TOOLS_MEM
mem::decrement(s_class().c_str());
#endif
}
protected:
tree(const tree& a_from)
:ielem(a_from)
,m_tag_name(a_from.m_tag_name)
,m_factory(a_from.m_factory)
,m_parent(0)
,m_save(0)
,m_data_1(0)
,m_data_2(0)
,m_data_int(0)
,m_depth(0)
{
#ifdef TOOLS_MEM
mem::increment(s_class().c_str());
#endif
}
tree& operator=(const tree&){return *this;}
public:
virtual bool invalidate() {return true;}
const std::list<ielem*>& childs() const {return m_childs;}
///////////////////////////////////////////////////////
/// attributes ////////////////////////////////////////
///////////////////////////////////////////////////////
const std::vector<atb>& attributes() const {return m_atbs;}
void add_attribute(const std::string& a_name,const std::string& a_value){
// No check is done about an existing a_name.
m_atbs.push_back(atb(a_name,a_value));
}
bool is_attribute(const std::string& a_name) const {
unsigned int number = m_atbs.size();
for(unsigned int index=0;index<number;index++) {
if(m_atbs[index].first==a_name) return true;
}
return false;
}
void set_attributes(const std::vector<atb>& a_atbs) {
m_atbs = a_atbs;
}
const std::string& tag_name() const {return m_tag_name;}
bool attribute_value(const std::string& a_atb,std::string& a_value) const {
a_value.clear();
unsigned int linen = m_atbs.size();
for(unsigned int count=0;count<linen;count++) {
if(m_atbs[count].first==a_atb) {
a_value = m_atbs[count].second;
return true;
}
}
return false;
}
template <class T>
bool attribute_value(const std::string& a_atb,T& a_value) const {
std::string sv;
if(!attribute_value(a_atb,sv)) {a_value=T();return false;}
return to<T>(sv,a_value);
}
void remove_attributes(const std::string& a_atb) {
std::vector<atb>::iterator it;
for(it=m_atbs.begin();it!=m_atbs.end();) {
if((*it).first==a_atb) {
it = m_atbs.erase(it);
} else {
++it;
}
}
}
bool remove_attribute(const std::string& a_name){
//TOOLS_STL : to be checked :
std::vector<atb>::iterator it = m_atbs.begin();
unsigned int linen = m_atbs.size();
for(unsigned int count=0;count<linen;count++,++it) {
if(m_atbs[count].first==a_name) {
m_atbs.erase(it);
return true; //Found and removed.
}
}
return false; //Not found.
}
///////////////////////////////////////////////////////
/// elements //////////////////////////////////////////
///////////////////////////////////////////////////////
void add_element(const std::string& a_name,
const std::vector<atb>& a_atbs,
const std::string& a_value){
m_childs.push_back(new element(a_name,a_atbs,a_value));
}
bool element_value(const std::string& a_name,std::string& a_value) const {
tools_lforcit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
if(a_name==_elem->name()) {
a_value = _elem->value();
return true;
}
}
}
a_value.clear();
return false;
}
/*
//NOTE : print is a Python keyword.
void dump(std::ostream& a_out){
a_out << "dump :"
<< " -----> " << this << " parent : " << m_parent << std::endl;
a_out << " data1 : " << m_data_1
<< " data2 : " << m_data_2
<< " dataInt : " << m_data_int
<< std::endl;
{unsigned int atbn = m_atbs.size();
for(unsigned int index=0;index<atbn;index++) {
a_out << " attribute : " << sout(m_atbs[index].first) << " "
<< sout(m_atbs[index].second) << std::endl;
}}
{tools_lforit(element*,m_elems,it) {
a_out << " element : \"" << (*it)->name() << "\" \""
<< (*it)->value() << "\"" << std::endl;
}}
{tools_lforit(tree*,m_children,it) {
(*it)->dump(a_out);
}}
}
const std::list<element*>& elements() const {return m_elems;}
*/
bool element_atb_value(const std::string& a_elem,
const std::string& a_atb,
std::string& a_value) const {
a_value.clear();
tools_lforcit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
if(a_elem==_elem->name()) {
if(_elem->attribute_value(a_atb,a_value)) return true;
}
}
}
return false;
}
template <class T>
bool element_atb_value(const std::string& a_elem,
const std::string& a_atb,
T& a_value) const {
std::string sv;
if(!element_atb_value(a_elem,a_atb,sv)) {a_value=T();return false;}
return to<T>(sv,a_value);
}
//////////////////////////////////////////////////
/// for osc //////////////////////////////////////
//////////////////////////////////////////////////
bool is_element(const std::string& a_name) const {
tools_lforcit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
if(a_name==_elem->name()) return true;
}
}
return false;
}
bool set_element_value(const std::string& a_name,
const std::string& a_value,int a_index = 0){
int index = 0;
tools_lforcit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
if(a_name==_elem->name()) {
if(index==a_index) {
_elem->set_value(a_value);
return true;
} else {
index ++;
}
}
}
}
// Not found, add one :
std::vector<atb> atts;
add_element(a_name,atts,a_value);
return true;
}
bool set_attribute_value(const std::string& a_atb,
const std::string& a_value) {
tools_vforit(atb,m_atbs,it) {
if((*it).first==a_atb) {
(*it).second = a_value;
return true;
}
}
// Not found, add one :
m_atbs.push_back(atb(a_atb,a_value));
return true;
}
bool has_empty_attribute_value(std::ostream& a_out) const{
empty_visitor visitor(a_out);
visitor.m_status = true;
const_cast<tree*>(this)->post_execute(check_item,&visitor);
return visitor.m_status;
}
class empty_visitor {
public:
empty_visitor(std::ostream& a_out)
:f_out(a_out),m_status(true){}
public:
std::ostream& f_out;
bool m_status;
};
void post_execute(exec_func a_function,void* a_tag) {
if(!a_function) return;
if(!a_function(*this,a_tag)) return;
tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
_tree->post_execute(a_function,a_tag);
}
}
}
static bool check_item(tree& a_tree,void* a_tag){
empty_visitor* visitor = (empty_visitor*)a_tag;
{const std::vector<atb>& atbs = a_tree.attributes();
unsigned int atbn = atbs.size();
for(unsigned int index=0;index<atbn;index++) {
const std::string& atb = atbs[index].first;
const std::string& atbv = atbs[index].second;
if(atbv.empty()) {
visitor->f_out << "check_item :"
<< " for XML item " << sout(a_tree.tag_name())
<< ", attribute " << sout(atb) << " has an empty value."
<< std::endl;
visitor->m_status = false;
}
}}
{tools_lforcit(ielem*,a_tree.m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
const std::vector<atb>& atbs = _elem->attributes();
unsigned int atbn = atbs.size();
for(unsigned int index=0;index<atbn;index++) {
const std::string& atb = atbs[index].first;
const std::string& atbv = atbs[index].second;
if(atbv.empty()) {
visitor->f_out << "ItemM::check_item :"
<< " for XML item " << sout(a_tree.tag_name())
<< ", attribute " << sout(atb) << " has an empty value."
<< std::endl;
visitor->m_status = false;
}
}
}}}
return true;
}
static void collect_by_tag(tree& a_tree,const std::string& a_tag,
std::vector<tree*>& a_items) {
if(a_tree.tag_name()==a_tag) a_items.push_back(&a_tree);
tools_lforcit(ielem*,a_tree.m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
collect_by_tag(*_tree,a_tag,a_items);
}
}
}
tree* find_by_tag(const std::string& a_tag) const {
if(tag_name()==a_tag) return const_cast<tree*>(this);
// Look children :
tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
tree* itemML = _tree->find_by_tag(a_tag);
if(itemML) return itemML;
}}
return 0;
}
static void unique(std::vector<tree*>& a_items) {
std::vector<tree*> items2;
tools_vforcit(tree*,a_items,it) {
std::string name;
if(!(*it)->attribute_value("name",name)) continue;
if(name.empty()) continue;
bool found = false;
{tools_vforit(tree*,items2,it2) {
std::string name2;
(*it2)->attribute_value("name",name2);
if(name2==name) {
found = true;
break;
}
}}
if(!found) {
items2.push_back(*it);
}
}
a_items = items2;
}
tree* find_item(const std::string& a_name) const {
{unsigned int linen = m_atbs.size();
for(unsigned int count=0;count<linen;count++) {
if(m_atbs[count].first=="name") {
if(m_atbs[count].second==a_name) return const_cast<tree*>(this);
break;
}
}}
// Look children :
tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
tree* item = _tree->find_item(a_name);
if(item) return item;
}}
return 0;
}
tree* find_item_with_tag(const std::string& a_tag,
const std::string& a_name) const {
if(a_tag==tag_name()) {
std::string s;
attribute_value("name",s);
if(a_name==s) return const_cast<tree*>(this);
}
// Look children :
tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
tree* item = _tree->find_item_with_tag(a_tag,a_name);
if(item) return item;
}}
return 0;
}
void remove_elements(const std::string& a_name){
// TOOLS_STL : to be checked :
std::list<ielem*>::iterator it;
for(it=m_childs.begin();it!=m_childs.end();) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
if(a_name==_elem->name()) {
it = m_childs.erase(it);
delete _elem;
} else {
++it;
}
} else {
++it;
}
}
}
void add_child(tree* a_tree) {m_childs.push_back(a_tree);}
tree* create_copy(tree* a_parent) {
tree* itemML = m_factory.create(m_tag_name,m_atbs,a_parent);
if(!itemML) return 0;
itemML->m_atbs = m_atbs;
//FIXME : m_save
{tools_lforcit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
itemML->m_childs.push_back(new element(*_elem));
}}}
{tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
//FIXME : could we have mismatch parent/child ?
tree* obj = _tree->create_copy(itemML);
if(!obj) {
delete itemML;
return 0;
}
itemML->add_child(obj);
}}}
return itemML;
}
bool copy(const tree& a_from,
copy_what a_what = copy_all,
bool a_clear = true){
// Copy data (atbs, propertis, children) of a_from onto this.
if((a_what==copy_all)||(a_what==copy_attributes)) {
if(a_clear) m_atbs.clear();
tools_vforcit(atb,a_from.m_atbs,it) m_atbs.push_back(*it);
}
if((a_what==copy_all)||(a_what==copy_elements)) {
if(a_clear) delete_sub_elems();
tools_lforcit(ielem*,a_from.m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
m_childs.push_back(new element(*_elem));
}
}
}
if((a_what==copy_all)||(a_what==copy_children)) {
if(a_clear) delete_sub_trees();
tools_lforcit(ielem*,a_from.m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
//FIXME : could we have mismatch parent/child ?
tree* obj = _tree->create_copy(this);
if(!obj) {
// Something wrong, cleanup this.
clear();
return false;
}
add_child(obj);
}
}
}
//FIXME : m_save
return true;
}
void replace(const std::string& a_old,const std::string& a_new) {
// Used by the obuild template system.
{unsigned int atbn = m_atbs.size();
for(unsigned int index=0;index<atbn;index++) {
std::string& value = m_atbs[index].second;
tools::replace(value,a_old,a_new);
}}
tools_lforit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
_tree->replace(a_old,a_new);
} else if(element* _elem = id_cast<ielem,element>(*(*it))) {
_elem->replace(a_old,a_new);
}
}
}
static void collect_by_attribute(tree& a_tree,
const std::string& a_tag,
std::vector<tree*>& a_items) {
std::string value;
if(a_tree.attribute_value(a_tag,value)) a_items.push_back(&a_tree);
tools_lforcit(ielem*,a_tree.m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
collect_by_attribute(*_tree,a_tag,a_items);
}
}
}
bool element_values(const std::string& a_name,
std::vector<std::string>& a_values) const {
a_values.clear();
tools_lforcit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
if(a_name==_elem->name()) {
a_values.push_back(_elem->value());
}
}
}
return true;
}
void post_execute_backward(exec_func a_function,void* a_tag){
if(!a_function) return;
tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
_tree->post_execute_backward(a_function,a_tag);
}
}
if(!a_function(*this,a_tag)) return;
}
tree* find_by_attribute(const std::string& a_atb,const std::string& a_value,
bool a_up_down = true,bool a_left_right = true) const {
if(a_up_down) {
std::string s;
attribute_value(a_atb,s);
if(s==a_value) return const_cast<tree*>(this);
if(a_left_right) {
tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
tree* itemML =
_tree->find_by_attribute(a_atb,a_value,a_up_down,a_left_right);
if(itemML) return itemML;
}
}
} else {
std::list<ielem*>::const_reverse_iterator it;
for(it=m_childs.rbegin();it!=m_childs.rend();++it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
tree* itemML =
_tree->find_by_attribute(a_atb,a_value,a_up_down,a_left_right);
if(itemML) return itemML;
}}
}
} else {
if(a_left_right) {
tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
tree* itemML =
_tree->find_by_attribute(a_atb,a_value,a_up_down,a_left_right);
if(itemML) return itemML;
}}
} else {
std::list<ielem*>::const_reverse_iterator it;
for(it=m_childs.rbegin();it!=m_childs.rend();++it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
tree* itemML =
_tree->find_by_attribute(a_atb,a_value,a_up_down,a_left_right);
if(itemML) return itemML;
}}
}
std::string s;
attribute_value(a_atb,s);
if(s==a_value) return const_cast<tree*>(this);
}
return 0;
}
void dump_xml(std::ostream& a_out,const std::string& a_spaces = "") {
// begin tag :
a_out << a_spaces << "<" << m_tag_name;
{unsigned int atbn = m_atbs.size();
for(unsigned int index=0;index<atbn;index++) {
a_out << " " << m_atbs[index].first << "="
<< sout(m_atbs[index].second);
}}
a_out << ">" << std::endl;
{tools_lforcit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
const std::vector<atb>& atbs = _elem->attributes();
bool isCallback = false;
a_out << a_spaces << " <" << _elem->name();
unsigned int atbn = atbs.size();
for(unsigned int index=0;index<atbn;index++) {
a_out << " " << atbs[index].first << "="
<< sout(atbs[index].second);
if(atbs[index].first=="exec") isCallback = true;
}
if(_elem->value().empty()) {
a_out << "/>" << std::endl;
} else {
a_out << ">";
std::string value = to_xml(_elem->value());
if(isCallback) {
if(value.find("\\n\\")==std::string::npos) {
a_out << value;
} else {
a_out << std::endl;
tools::replace(value,"\\n\\","@OnX@");
tools::replace(value,"@OnX@","\\n\\\n");
tools::strip(value,tools::trailing,' ');
a_out << value;
unsigned int l = value.size();
if(l && value[l-1]!='\n') a_out << std::endl;
a_out << a_spaces << " ";
}
} else {
a_out << value;
}
a_out << "</" << _elem->name() << ">" << std::endl;
}
}}}
// End tag :
a_out << a_spaces << "</" << m_tag_name << ">" << std::endl;
}
bool set_element_atb_value(const std::string& a_elem,
const std::string& a_atb,
const std::string& a_value,int a_index = 0){
if(a_elem.empty()) {
unsigned int linen = m_atbs.size();
for(unsigned int count=0;count<linen;count++) {
if(m_atbs[count].first==a_atb) {
m_atbs[count].second = a_value;
return true;
}
}
// Not found, add it :
m_atbs.push_back(atb(a_atb,a_value));
return true;
} else {
int index = 0;
tools_lforcit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
if(a_elem==_elem->name()) {
if(index==a_index) {
_elem->set_attribute_value(a_atb,a_value);
return true;
} else {
index++;
}
}
}}
return false;
}
}
// NOTE : used in osc. Should be removed.
void sub_trees(std::list<tree*>& a_list) const {
a_list.clear();
tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
a_list.push_back(_tree);
}}
}
void sub_elems(std::list<element*>& a_list) const {
a_list.clear();
tools_lforcit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
a_list.push_back(_elem);
}}
}
bool replace_child(tree* a_old,tree* a_new) {
tools_lforit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
if(_tree==a_old) {
(*it) = a_new;
return true; //replacement done.
}
}}
return false; //no replacement done.
}
// used in OnX/Widget.
virtual void* cast(const std::string& a_class) const {
if(void* p = cmp_cast<tree>(this,a_class)) {return p;}
else return 0;
}
void delete_element(const std::string& a_name) {
tools_lforit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
if(a_name==_elem->name()) {
m_childs.erase(it);
delete _elem;
break;
}
}}
}
void delete_element(element* a_element) {
tools_lforit(ielem*,m_childs,it) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
if(_elem==a_element) {
m_childs.erase(it);
delete _elem;
break;
}
}}
}
void delete_sub_trees(){
std::list<ielem*>::iterator it;
for(it=m_childs.begin();it!=m_childs.end();) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
it = m_childs.erase(it);
delete _tree;
} else {
it++;
}
}
}
void delete_sub_elems(){
std::list<ielem*>::iterator it;
for(it=m_childs.begin();it!=m_childs.end();) {
if(element* _elem = id_cast<ielem,element>(*(*it))) {
it = m_childs.erase(it);
delete _elem;
} else {
it++;
}
}
}
const tree* find_by_element_in_same_level(const std::string& a_name,
const std::string& a_value) const {
// Look children :
tools_lforcit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
std::string s;
if(_tree->element_value(a_name,s) && (a_value==s)) return _tree;
}}
return 0;
}
bool element_value_boolean(const std::string& a_name,bool& a_value) const {
std::string value;
if(!element_value(a_name,value)) return false;
return tools::to(value,a_value);
}
void update_tree(const tree& a_old) {
// We map the opened elements in the old tree within this tree.
// Algorithm based on the existence of a "label" element.
tools_lforit(ielem*,m_childs,it) {
if(tree* _tree = id_cast<ielem,tree>(*(*it))) {
std::string slabel;
if(_tree->element_value("label",slabel)) {
// Try to find a same label in the same level :
const tree* item =
a_old.find_by_element_in_same_level("label",slabel);
if(item) {
bool sopened;
if(item->element_value_boolean("opened",sopened) && sopened) {
_tree->set_element_value("opened","true");
}
if(a_old.number_of_trees()) _tree->update_tree(*item);
}
}
}}
}
//////////////////////////////////////////////////
/// end osc //////////////////////////////////////
//////////////////////////////////////////////////
///////////////////////////////////////////////////////
/// sub trees /////////////////////////////////////////
///////////////////////////////////////////////////////
tree* parent() const {return m_parent;}
void set_parent(tree* a_parent) {m_parent = a_parent;}
unsigned int number_of_trees() const {
unsigned int number = 0;
tools_lforcit(ielem*,m_childs,it) {
if(id_cast<ielem,tree>(*(*it))) number++;
}
return number;
}
void remove_child(tree*& a_tree,bool a_delete = true){
m_childs.remove(a_tree);
if(a_delete) {
delete a_tree;
a_tree = 0;
}
}
/*
bool is_first_child(const tree& a_tree) {
if(m_children.empty()) return false;
return ( (*(m_children.begin()))==&a_tree) ? true : false;
}
bool is_last_child(const tree& a_tree) {
if(m_children.empty()) return false;
return ( m_children.back()==&a_tree) ? true : false;
}
*/
/* TOOLS_STL : no std::list::insert.
void add_after(tree* a_tree,tree* a_entry){
tools_lforit(tree*,m_children,it) {
if((*it)==a_tree) {
m_children.insert(it,a_entry);
return;
}
}
}
//TOOLS_STL : no std::list::iterator::operator--.
tree* previous_child(const tree& a_tree){
tools_lforit(tree*,m_children,it) {
if((*it)==&a_tree) {
if(it==m_children.begin()) return 0;
--it;
return *it;
}
}
return 0;
}
tree* next_child(const tree& a_tree){
tools_lforit(tree*,m_children,it) {
if((*it)==&a_tree) {
std::list<tree*>::iterator last = m_children.end();
--last;
if(it==last) return 0;
++it;
return *it;
}
}
return 0;
}
*/
void set_data(void* a_data_1,void* a_data_2,int a_data_int) {
m_data_1 = a_data_1;
m_data_2 = a_data_2;
m_data_int = a_data_int;
}
void get_data(void*& a_data_1,void*& a_data_2,int& a_data_int) const {
a_data_1 = m_data_1;
a_data_2 = m_data_2;
a_data_int = m_data_int;
}
void* get_data1() const {return m_data_1;}
void* get_data2() const {return m_data_2;}
int get_data_int() const {return m_data_int;}
void set_depth(unsigned int a_depth) {m_depth = a_depth;}
unsigned int depth() const {return m_depth;}
void set_save_flag(bool a_value) {m_save = a_value;}
bool save_flag() const {return m_save;}
void set_file(const std::string& a_file) {m_file = a_file;}
std::string file() const {return m_file;}
protected:
void clear(){
m_atbs.clear();
// TOOLS_STL : no std::list::erase.
//{std::list<tree*>::iterator it;
// for(it=m_children.begin();
// it!=m_children.end();
// it = m_children.erase(it))
// delete (*it);}
//
//{std::list<element*>::iterator it;
// for(it=m_elems.begin();it!=m_elems.end();it = m_elems.erase(it))
// delete (*it);}
while(!m_childs.empty()) {
ielem* item = m_childs.front();
m_childs.remove(item);
delete item;
}
}
protected:
std::string m_tag_name;
factory& m_factory;
tree* m_parent;
//std::list<tree*> m_children;
//std::list<element*> m_elems;
std::list<ielem*> m_childs;
std::vector<atb> m_atbs;
std::string m_file;
bool m_save;
void* m_data_1;
void* m_data_2;
int m_data_int;
int m_depth;
};
class looper {
public:
looper(const tree& a_tree)
:m_it(a_tree.childs().begin())
,m_end(a_tree.childs().end())
{}
virtual ~looper(){}
protected:
looper(const looper& a_from)
:m_it(a_from.m_it)
,m_end(a_from.m_end)
{}
looper& operator=(const looper&){return *this;}
public:
tree* next_tree() {
for(;m_it!=m_end;++m_it) {
tree* _tree = id_cast<ielem,tree>(*(*m_it));
if(_tree) {m_it++;return _tree;}
}
return 0;
}
element* next_element() {
for(;m_it!=m_end;++m_it) {
element* _elem = id_cast<ielem,element>(*(*m_it));
if(_elem) {m_it++;return _elem;}
}
return 0;
}
protected:
std::list<ielem*>::const_iterator m_it;
std::list<ielem*>::const_iterator m_end;
};
class default_factory : public virtual factory {
#ifdef TOOLS_MEM
TOOLS_SCLASS(tools::xml::default_factory)
#endif
public:
virtual tree* create(const std::string& a_tag_name,const std::vector<tree::atb>& a_atbs,tree* a_parent) {
// It does not add the new tree in parent.
tree* itemML = new tree(a_tag_name,*this,a_parent);
itemML->set_attributes(a_atbs);
return itemML;
}
public:
default_factory(){
#ifdef TOOLS_MEM
mem::increment(s_class().c_str());
#endif
}
virtual ~default_factory(){
#ifdef TOOLS_MEM
mem::decrement(s_class().c_str());
#endif
}
public:
default_factory(const default_factory& a_from)
:factory(a_from){
#ifdef TOOLS_MEM
mem::increment(s_class().c_str());
#endif
}
default_factory& operator=(const default_factory&){return *this;}
};
}}
#endif