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#include "../base/SRC_FIRST.hpp"
#include "drawing_rules.hpp"
#include "scales.hpp"
#include "classificator.hpp"
#include "drules_struct.pb.h"
#include "../std/bind.hpp"
#include "../std/iterator_facade.hpp"
#include <google/protobuf/text_format.h>
namespace drule {
RulesHolder::~RulesHolder()
{
Clean();
}
void RulesHolder::Clean()
{
for (size_t i = 0; i < m_container.size(); ++i)
{
rule_vec_t & v = m_container[i];
for (size_t j = 0; j < v.size(); ++j)
delete v[j];
v.clear();
}
m_rules.clear();
}
size_t RulesHolder::AddRule(int scale, rule_type_t type, BaseRule * p)
{
ASSERT ( 0 <= scale && scale <= scales::GetUpperScale(), (scale) );
ASSERT ( 0 <= type && type < count_of_rules, () );
m_container[type].push_back(p);
vector<uint32_t> & v = m_rules[scale][type];
v.push_back(m_container[type].size()-1);
size_t const ret = v.size() - 1;
ASSERT ( Find(Key(scale, type, ret)) == p, (ret) );
return ret;
}
BaseRule const * RulesHolder::Find(Key const & k) const
{
rules_map_t::const_iterator i = m_rules.find(k.m_scale);
if (i == m_rules.end()) return 0;
vector<uint32_t> const & v = (i->second)[k.m_type];
ASSERT ( k.m_index >= 0, (k.m_index) );
if (static_cast<size_t>(k.m_index) < v.size())
return m_container[k.m_type][v[k.m_index]];
else
return 0;
}
void RulesHolder::ClearCaches()
{
ForEachRule(bind(&BaseRule::MakeEmptyID, _4));
ForEachRule(bind(&BaseRule::MakeEmptyID2, _4));
}
RulesHolder & rules()
{
static RulesHolder holder;
return holder;
}
namespace
{
namespace proto_rules
{
class Line : public BaseRule
{
LineDefProto m_line;
public:
Line(LineRuleProto const & r)
{
m_line.set_color(r.color());
m_line.set_width(r.width());
if (r.has_dashdot())
*(m_line.mutable_dashdot()) = r.dashdot();
}
virtual LineDefProto const * GetLine() const { return &m_line; }
};
class Area : public BaseRule
{
AreaRuleProto m_area;
public:
Area(AreaRuleProto const & r) : m_area(r) {}
virtual AreaRuleProto const * GetArea() const { return &m_area; }
};
class Symbol : public BaseRule
{
SymbolRuleProto m_symbol;
public:
Symbol(SymbolRuleProto const & r) : m_symbol(r)
{
if (r.has_apply_for_type())
SetType(r.apply_for_type());
}
virtual SymbolRuleProto const * GetSymbol() const { return &m_symbol; }
};
template <class T> class CaptionT : public BaseRule
{
T m_caption;
public:
CaptionT(T const & r) : m_caption(r) {}
virtual CaptionDefProto const * GetCaption(int i) const
{
if (i == 0)
return &m_caption.primary();
else
{
ASSERT_EQUAL ( i, 1, () );
if (m_caption.has_secondary())
return &m_caption.secondary();
else
return 0;
}
}
};
typedef CaptionT<CaptionRuleProto> Caption;
typedef CaptionT<PathTextRuleProto> PathText;
class Circle : public BaseRule
{
CircleRuleProto m_circle;
public:
Circle(CircleRuleProto const & r) : m_circle(r) {}
virtual CircleRuleProto const * GetCircle() const { return &m_circle; }
};
}
class DoSetIndex
{
public:
ContainerProto m_cont;
private:
vector<string> m_names;
typedef ClassifElementProto ElementT;
class RandI : public iterator_facade<
RandI,
ElementT const,
random_access_traversal_tag>
{
ContainerProto const * m_cont;
public:
int m_index;
RandI() : m_cont(0), m_index(-1) {}
RandI(ContainerProto const & cont, int ind) : m_cont(&cont), m_index(ind) {}
ElementT const & dereference() const { return m_cont->cont(m_index); }
bool equal(RandI const & r) const { return m_index == r.m_index; }
void increment() { ++m_index; }
void decrement() { --m_index; }
void advance(size_t n) { m_index += n; }
difference_type distance_to(RandI const & r) const { return (r.m_index - m_index); }
};
struct less_name
{
bool operator() (ElementT const & e1, ElementT const & e2) const
{
return (e1.name() < e2.name());
}
bool operator() (string const & e1, ElementT const & e2) const
{
return (e1 < e2.name());
}
bool operator() (ElementT const & e1, string const & e2) const
{
return (e1.name() < e2);
}
};
int FindIndex() const
{
string name = m_names[0];
for (size_t i = 1; i < m_names.size(); ++i)
name = name + "-" + m_names[i];
int const count = m_cont.cont_size();
int const i = lower_bound(RandI(m_cont, 0), RandI(m_cont, count), name, less_name()).m_index;
ASSERT_GREATER_OR_EQUAL(i, 0, ());
ASSERT_LESS_OR_EQUAL(i, count, ());
if (i < count && m_cont.cont(i).name() == name)
return i;
else
return -1;
}
RulesHolder & m_holder;
template <class TRule, class TProtoRule>
void AddRule(ClassifObject * p, int scale, rule_type_t type, TProtoRule const & rule)
{
size_t const i = m_holder.AddRule(scale, type, new TRule(rule));
Key k(scale, type, i);
k.SetPriority(rule.priority());
p->AddDrawRule(k);
}
public:
DoSetIndex(RulesHolder & holder)
: m_holder(holder) {}
void operator() (ClassifObject * p)
{
m_names.push_back(p->GetName());
int const i = FindIndex();
if (i != -1)
{
ClassifElementProto const & ce = m_cont.cont(i);
for (int j = 0; j < ce.element_size(); ++j)
{
DrawElementProto const & de = ce.element(j);
using namespace proto_rules;
for (size_t k = 0; k < de.lines_size(); ++k)
AddRule<Line>(p, de.scale(), line, de.lines(k));
if (de.has_area())
AddRule<Area>(p, de.scale(), area, de.area());
if (de.has_symbol())
AddRule<Symbol>(p, de.scale(), symbol, de.symbol());
if (de.has_caption())
AddRule<Caption>(p, de.scale(), caption, de.caption());
if (de.has_circle())
AddRule<Circle>(p, de.scale(), circle, de.circle());
if (de.has_path_text())
AddRule<PathText>(p, de.scale(), pathtext, de.path_text());
}
}
p->ForEachObject(bind<void>(ref(*this), _1));
m_names.pop_back();
}
};
}
void RulesHolder::LoadFromTextProto(string const & buffer)
{
Clean();
DoSetIndex doSet(*this);
google::protobuf::TextFormat::ParseFromString(buffer, &doSet.m_cont);
classif().GetMutableRoot()->ForEachObject(bind<void>(ref(doSet), _1));
}
}
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