xo-alloc/xo-alloc2/include/xo/alloc2/RAllocator.hpp

60 lines
2.2 KiB
C++

/** @file RAllocator.hpp
*
* @author Roland Conybeare, Dec 2025
**/
#pragma once
#include "AAllocator.hpp"
#include "xo/facet/RRouter.hpp"
#include <string>
namespace xo {
namespace mm {
/** @class RAllocator **/
template <typename Object>
struct RAllocator : public Object {
private:
using O = Object;
public:
using ObjectType = Object;
using size_type = std::size_t;
using value_type = std::byte *;
RAllocator() {}
RAllocator(Object::DataPtr data) : Object{std::move(data)} {}
int32_t _typeseq() const { return O::iface()->_typeseq(); }
std::string_view name() const { return O::iface()->name(O::data()); }
size_type reserved() const { return O::iface()->reserved(O::data()); }
size_type size() const { return O::iface()->size(O::data()); }
size_type committed() const { return O::iface()->committed(O::data()); }
size_type available() const { return O::iface()->available(O::data()); }
size_type allocated() const { return O::iface()->allocated(O::data()); }
bool contains(const void * p) const { return O::iface()->contains(O::data(), p); }
AllocatorError last_error() const { return O::iface()->last_error(O::data()); }
bool expand(size_type z) { return O::iface()->expand(O::data(), z); }
value_type alloc(size_type z) { return O::iface()->alloc(O::data(), z); }
value_type super_alloc(size_type z) { return O::iface()->super_alloc(O::data(), z); }
value_type sub_alloc(size_type z,
bool complete_flag) { return O::iface()->sub_alloc(O::data(),
z, complete_flag); }
static bool _valid;
};
template <typename Object>
bool
RAllocator<Object>::_valid = facet::valid_object_router<Object>();
}
namespace facet {
template <typename Object>
struct RoutingFor<xo::mm::AAllocator, Object> {
using RoutingType = xo::mm::RAllocator<Object>;
};
}
}
/* end RAllocator.hpp */