/*

 * Copyright (c) 2015, 2019, Oracle and/or its affiliates. All rights reserved.

 * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.

 *

 * This code is free software; you can redistribute it and/or modify it

 * under the terms of the GNU General Public License version 2 only, as

 * published by the Free Software Foundation.

 *

 * This code is distributed in the hope that it will be useful, but WITHOUT

 * ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or

 * FITNESS FOR A PARTICULAR PURPOSE.  See the GNU General Public License

 * version 2 for more details (a copy is included in the LICENSE file that

 * accompanied this code).

 *

 * You should have received a copy of the GNU General Public License version

 * 2 along with this work; if not, write to the Free Software Foundation,

 * Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA.

 *

 * Please contact Oracle, 500 Oracle Parkway, Redwood Shores, CA 94065 USA

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 */

#ifndef SHARE_GC_G1_G1ALLOCATOR_INLINE_HPP

#define SHARE_GC_G1_G1ALLOCATOR_INLINE_HPP

#include "gc/g1/g1Allocator.hpp"

#include "gc/g1/g1AllocRegion.inline.hpp"

#include "gc/shared/plab.inline.hpp"

#include "memory/universe.hpp"

inline uint G1Allocator::current_node_index() const {

  return _numa->index_of_current_thread();

}

inline MutatorAllocRegion* G1Allocator::mutator_alloc_region(uint node_index) {

  assert(node_index < _num_alloc_regions, "Invalid index: %u", node_index);

  return &_mutator_alloc_regions[node_index];

}

}

inline OldGCAllocRegion* G1Allocator::old_gc_alloc_region() {

  return &_old_gc_alloc_region;

}

inline HeapWord* G1Allocator::attempt_allocation(size_t min_word_size,

                                                 size_t desired_word_size,

                                                 size_t* actual_word_size) {

  uint node_index = current_node_index();

  HeapWord* result = mutator_alloc_region(node_index)->attempt_retained_allocation(min_word_size, desired_word_size, actual_word_size);

  if (result != NULL) {

    return result;

  }

  return mutator_alloc_region(node_index)->attempt_allocation(min_word_size, desired_word_size, actual_word_size);

}

inline HeapWord* G1Allocator::attempt_allocation_locked(size_t word_size) {

  uint node_index = current_node_index();

  HeapWord* result = mutator_alloc_region(node_index)->attempt_allocation_locked(word_size);

  assert(result != NULL || mutator_alloc_region(node_index)->get() == NULL,

         "Must not have a mutator alloc region if there is no memory, but is " PTR_FORMAT, p2i(mutator_alloc_region(node_index)->get()));

  return result;

}

inline HeapWord* G1Allocator::attempt_allocation_force(size_t word_size) {

  uint node_index = current_node_index();

  return mutator_alloc_region(node_index)->attempt_allocation_force(word_size);

}

  assert(dest.is_valid(),

         "Allocation buffer index out of bounds: %s", dest.get_type_str());

  assert(_alloc_buffers[dest.type()] != NULL,

         "Allocation buffer is NULL: %s", dest.get_type_str());

}

inline HeapWord* G1PLABAllocator::plab_allocate(G1HeapRegionAttr dest,

  if (_survivor_alignment_bytes == 0 || !dest.is_young()) {

    return buffer->allocate(word_sz);

  } else {

    return buffer->allocate_aligned(word_sz, _survivor_alignment_bytes);

  }

}

inline HeapWord* G1PLABAllocator::allocate(G1HeapRegionAttr dest,

                                           size_t word_sz,

  if (obj != NULL) {

    return obj;

  }

}

// Create the maps which is used to identify archive objects.

inline void G1ArchiveAllocator::enable_archive_object_check() {

  if (_archive_check_enabled) {

    return;

  }

  _archive_check_enabled = true;

  size_t length = G1CollectedHeap::heap()->max_reserved_capacity();

  _closed_archive_region_map.initialize(G1CollectedHeap::heap()->base(),

                                        G1CollectedHeap::heap()->base() + length,

                                        HeapRegion::GrainBytes);

  _open_archive_region_map.initialize(G1CollectedHeap::heap()->base(),

                                      G1CollectedHeap::heap()->base() + length,

                                      HeapRegion::GrainBytes);

}

// Set the regions containing the specified address range as archive.

inline void G1ArchiveAllocator::set_range_archive(MemRegion range, bool open) {

  assert(_archive_check_enabled, "archive range check not enabled");

  log_info(gc, cds)("Mark %s archive regions in map: [" PTR_FORMAT ", " PTR_FORMAT "]",

                     open ? "open" : "closed",

                     p2i(range.start()),

                     p2i(range.last()));

  if (open) {

    _open_archive_region_map.set_by_address(range, true);

  } else {

    _closed_archive_region_map.set_by_address(range, true);

  }

}

// Clear the archive regions map containing the specified address range.

inline void G1ArchiveAllocator::clear_range_archive(MemRegion range, bool open) {

  assert(_archive_check_enabled, "archive range check not enabled");

  log_info(gc, cds)("Clear %s archive regions in map: [" PTR_FORMAT ", " PTR_FORMAT "]",

                    open ? "open" : "closed",

                    p2i(range.start()),

                    p2i(range.last()));

  if (open) {

    _open_archive_region_map.set_by_address(range, false);

  } else {

    _closed_archive_region_map.set_by_address(range, false);

  }

}

// Check if an object is in a closed archive region using the _archive_region_map.

inline bool G1ArchiveAllocator::in_closed_archive_range(oop object) {

  // This is the out-of-line part of is_closed_archive_object test, done separately

  // to avoid additional performance impact when the check is not enabled.

  return _closed_archive_region_map.get_by_address((HeapWord*)object);

}

inline bool G1ArchiveAllocator::in_open_archive_range(oop object) {

  return _open_archive_region_map.get_by_address((HeapWord*)object);

}

// Check if archive object checking is enabled, to avoid calling in_open/closed_archive_range

// unnecessarily.

inline bool G1ArchiveAllocator::archive_check_enabled() {

  return _archive_check_enabled;

}

inline bool G1ArchiveAllocator::is_closed_archive_object(oop object) {

  return (archive_check_enabled() && in_closed_archive_range(object));

}

inline bool G1ArchiveAllocator::is_open_archive_object(oop object) {

  return (archive_check_enabled() && in_open_archive_range(object));

}

inline bool G1ArchiveAllocator::is_archived_object(oop object) {

  return (archive_check_enabled() && (in_closed_archive_range(object) ||

                                      in_open_archive_range(object)));

}

#endif // SHARE_GC_G1_G1ALLOCATOR_INLINE_HPP