#pragma once namespace nall { namespace Markup { auto ManagedNode::_evaluate(string query) const -> bool { if(!query) return true; for(auto& rule : query.replace(" ", "").split(",")) { enum class Comparator : uint { ID, EQ, NE, LT, LE, GT, GE }; auto comparator = Comparator::ID; if(rule.match("*!=*")) comparator = Comparator::NE; else if(rule.match("*<=*")) comparator = Comparator::LE; else if(rule.match("*>=*")) comparator = Comparator::GE; else if(rule.match ("*=*")) comparator = Comparator::EQ; else if(rule.match ("*<*")) comparator = Comparator::LT; else if(rule.match ("*>*")) comparator = Comparator::GT; if(comparator == Comparator::ID) { if(_find(rule).size()) continue; return false; } lstring side; switch(comparator) { case Comparator::EQ: side = rule.split ("=", 1L); break; case Comparator::NE: side = rule.split("!=", 1L); break; case Comparator::LT: side = rule.split ("<", 1L); break; case Comparator::LE: side = rule.split("<=", 1L); break; case Comparator::GT: side = rule.split (">", 1L); break; case Comparator::GE: side = rule.split(">=", 1L); break; } string data = string{_value}.strip(); if(side(0).empty() == false) { auto result = _find(side(0)); if(result.size() == 0) return false; data = result[0].value(); } switch(comparator) { case Comparator::EQ: if(data.match(side(1)) == true) continue; break; case Comparator::NE: if(data.match(side(1)) == false) continue; break; case Comparator::LT: if(data.natural() < side(1).natural()) continue; break; case Comparator::LE: if(data.natural() <= side(1).natural()) continue; break; case Comparator::GT: if(data.natural() > side(1).natural()) continue; break; case Comparator::GE: if(data.natural() >= side(1).natural()) continue; break; } return false; } return true; } auto ManagedNode::_find(const string& query) const -> vector { vector result; lstring path = query.split("/"); string name = path.take(0), rule; uint lo = 0u, hi = ~0u; if(name.match("*[*]")) { auto p = name.rtrim("]", 1L).split("[", 1L); name = p(0); if(p(1).find("-")) { p = p(1).split("-", 1L); lo = p(0).empty() ? 0u : p(0).natural(); hi = p(1).empty() ? ~0u : p(1).natural(); } else { lo = hi = p(1).natural(); } } if(name.match("*(*)")) { auto p = name.rtrim(")", 1L).split("(", 1L); name = p(0); rule = p(1); } uint position = 0; for(auto& node : _children) { if(!node->_name.match(name)) continue; if(!node->_evaluate(rule)) continue; bool inrange = position >= lo && position <= hi; position++; if(!inrange) continue; if(path.size() == 0) { result.append(node); } else for(auto& item : node->_find(path.merge("/"))) { result.append(item); } } return result; } auto ManagedNode::_lookup(const string& path) const -> Node { if(auto position = path.find("/")) { auto name = slice(path, 0, *position); for(auto& node : _children) { if(name == node->_name) { return node->_lookup(slice(path, *position + 1)); } } } else for(auto& node : _children) { if(path == node->_name) return node; } return {}; } auto ManagedNode::_create(const string& path) -> Node { if(auto position = path.find("/")) { auto name = slice(path, 0, *position); for(auto& node : _children) { if(name == node->_name) { return node->_create(slice(path, *position + 1)); } } _children.append(new ManagedNode(name)); return _children.last()->_create(slice(path, *position + 1)); } for(auto& node : _children) { if(path == node->_name) return node; } _children.append(new ManagedNode(path)); return _children.last(); } }}