imap.h

/*
 * Copyright (c) 2008-2025, Hazelcast, Inc. All Rights Reserved.
 *
 * Licensed under the Apache License, Version 2.0 (the "License");
 * you may not use this file except in compliance with the License.
 * You may obtain a copy of the License at
 *
 * http://www.apache.org/licenses/LICENSE-2.0
 *
 * Unless required by applicable law or agreed to in writing, software
 * distributed under the License is distributed on an "AS IS" BASIS,
 * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
 * See the License for the specific language governing permissions and
 * limitations under the License.
 */
#pragma once
 
#include <string>
#include <unordered_map>
#include <unordered_set>
#include <vector>
#include <stdexcept>
#include <climits>
#include <assert.h>
 
#include <boost/container/vector.hpp>
 
#include "hazelcast/client/monitor/local_map_stats.h"
#include "hazelcast/client/monitor/impl/NearCacheStatsImpl.h"
#include "hazelcast/client/monitor/impl/LocalMapStatsImpl.h"
#include "hazelcast/client/proxy/IMapImpl.h"
#include "hazelcast/client/impl/EntryEventHandler.h"
#include "hazelcast/client/entry_listener.h"
#include "hazelcast/client/serialization/serialization.h"
#include "hazelcast/util/exception_util.h"
#include "hazelcast/client/protocol/codec/codecs.h"
#include "hazelcast/client/spi/ClientContext.h"
 
#if defined(WIN32) || defined(_WIN32) || defined(WIN64) || defined(_WIN64)
#pragma warning(push)
#pragma warning(disable : 4251) // for dll export
#endif
 
namespace hazelcast {
namespace client {
class hazelcast_client;
 
namespace spi {
class ProxyManager;
}

class HAZELCAST_API imap : public proxy::IMapImpl
{
    friend class spi::ProxyManager;
 
public:
    static constexpr const char* SERVICE_NAME = "hz:impl:mapService";
 
    imap(const std::string& instance_name, spi::ClientContext* context)
      : proxy::IMapImpl(instance_name, context)
    {}

    template<typename K>
    boost::future<bool> contains_key(const K& key)
    {
        return contains_key_internal(to_data(key));
    }

    template<typename V>
    boost::future<bool> contains_value(const V& value)
    {
        return proxy::IMapImpl::contains_value(to_data(value));
    }

    template<typename K, typename V>
    boost::future<boost::optional<V>> get(const K& key)
    {
        return to_object<V>(get_internal(to_data(key)));
    }

    template<typename K, typename V, typename R = V>
    boost::future<boost::optional<R>> put(const K& key, const V& value)
    {
        return put<K, V, R>(key, value, UNSET);
    }

    template<typename K, typename V, typename R = V>
    boost::future<boost::optional<R>> put(const K& key,
                                          const V& value,
                                          std::chrono::milliseconds ttl)
    {
        return to_object<R>(put_internal(to_data(key), to_data(value), ttl));
    }

    template<typename K, typename V>
    boost::future<boost::optional<V>> remove(const K& key)
    {
        return to_object<V>(remove_internal(to_data(key)));
    }

    template<typename K, typename V>
    boost::future<bool> remove(const K& key, const V& value)
    {
        return remove_internal(to_data(key), to_data(value));
    }

    template<typename P>
    boost::future<void> remove_all(const P& predicate)
    {
        return to_void_future(remove_all_internal(to_data<P>(predicate)));
    }

    template<typename K>
    boost::future<void> delete_entry(const K& key)
    {
        return to_void_future(delete_internal(to_data(key)));
    }

    template<typename K>
    boost::future<bool> try_remove(const K& key,
                                   std::chrono::milliseconds timeout)
    {
        return try_remove_internal(to_data(key), timeout);
    }

    template<typename K, typename V>
    boost::future<bool> try_put(const K& key,
                                const V& value,
                                std::chrono::milliseconds timeout)
    {
        return try_put_internal(to_data(key), to_data(value), timeout);
    }

    template<typename K, typename V>
    boost::future<void> put_transient(const K& key,
                                      const V& value,
                                      std::chrono::milliseconds ttl)
    {
        return to_void_future(
          try_put_transient_internal(to_data(key), to_data(value), ttl));
    }

    template<typename K, typename V, typename R = V>
    boost::future<boost::optional<V>> put_if_absent(const K& key,
                                                    const V& value)
    {
        return put_if_absent(key, value, UNSET);
    }

    template<typename K, typename V, typename R = V>
    boost::future<boost::optional<V>>
    put_if_absent(const K& key, const V& value, std::chrono::milliseconds ttl)
    {
        return to_object<R>(
          put_if_absent_internal(to_data(key), to_data(value), ttl));
    }

    template<typename K, typename V, typename N = V>
    boost::future<bool> replace(const K& key,
                                const V& old_value,
                                const N& new_value)
    {
        return replace_if_same_internal(
          to_data(key), to_data(old_value), to_data(new_value));
    }

    template<typename K, typename V, typename R = V>
    boost::future<boost::optional<R>> replace(const K& key, const V& value)
    {
        return to_object<R>(replace_internal(to_data(key), to_data(value)));
    }

    template<typename K, typename V, typename R = V>
    boost::future<void> set(const K& key, const V& value)
    {
        return to_void_future(set(key, value, UNSET));
    }

    template<typename K, typename V>
    boost::future<void> set(const K& key,
                            const V& value,
                            std::chrono::milliseconds ttl)
    {
        return to_void_future(set_internal(to_data(key), to_data(value), ttl));
    }

    template<typename K>
    boost::future<void> lock(const K& key)
    {
        return to_void_future(lock(key, UNSET));
    }

    template<typename K>
    boost::future<void> lock(const K& key, std::chrono::milliseconds lease_time)
    {
        return to_void_future(proxy::IMapImpl::lock(to_data(key), lease_time));
    }

    template<typename K>
    boost::future<bool> is_locked(const K& key)
    {
        return proxy::IMapImpl::is_locked(to_data(key));
    }

    template<typename K>
    boost::future<bool> try_lock(const K& key)
    {
        return try_lock(key, std::chrono::milliseconds(0));
    }

    template<typename K>
    boost::future<bool> try_lock(const K& key,
                                 std::chrono::milliseconds timeout)
    {
        return proxy::IMapImpl::try_lock(to_data(key), timeout);
    }

    template<typename K>
    boost::future<bool> try_lock(const K& key,
                                 std::chrono::milliseconds timeout,
                                 std::chrono::milliseconds lease_time)
    {
        return proxy::IMapImpl::try_lock(to_data(key), timeout, lease_time);
    }

    template<typename K>
    boost::future<void> unlock(const K& key)
    {
        return to_void_future(proxy::IMapImpl::unlock(to_data(key)));
    }

    template<typename K>
    boost::future<void> force_unlock(const K& key)
    {
        return to_void_future(proxy::IMapImpl::force_unlock(to_data(key)));
    }

    template<typename MapInterceptor>
    boost::future<std::string> add_interceptor(
      const MapInterceptor& interceptor)
    {
        return proxy::IMapImpl::add_interceptor(to_data(interceptor));
    }

    boost::future<boost::uuids::uuid> add_entry_listener(
      entry_listener&& listener,
      bool include_value)
    {
        const auto listener_flags = listener.flags_;
        return proxy::IMapImpl::add_entry_listener(
          std::unique_ptr<impl::BaseEventHandler>(
            new impl::EntryEventHandler<
              protocol::codec::map_addentrylistener_handler>(
              get_name(),
              get_context().get_client_cluster_service(),
              get_context().get_serialization_service(),
              std::move(listener),
              include_value,
              get_context().get_logger())),
          include_value,
          listener_flags);
    }

    template<typename P>
    boost::future<boost::uuids::uuid> add_entry_listener(
      entry_listener&& listener,
      const P& predicate,
      bool include_value)
    {
        const auto listener_flags = listener.flags_;
        return proxy::IMapImpl::add_entry_listener(
          std::unique_ptr<impl::BaseEventHandler>(
            new impl::EntryEventHandler<
              protocol::codec::map_addentrylistenerwithpredicate_handler>(
              get_name(),
              get_context().get_client_cluster_service(),
              get_context().get_serialization_service(),
              std::move(listener),
              include_value,
              get_context().get_logger())),
          to_data<P>(predicate),
          include_value,
          listener_flags);
    }

    template<typename K>
    boost::future<boost::uuids::uuid> add_entry_listener(
      entry_listener&& listener,
      bool include_value,
      const K& key)
    {
        const auto listener_flags = listener.flags_;
        return proxy::IMapImpl::add_entry_listener(
          std::shared_ptr<impl::BaseEventHandler>(
            new impl::EntryEventHandler<
              protocol::codec::map_addentrylistenertokey_handler>(
              get_name(),
              get_context().get_client_cluster_service(),
              get_context().get_serialization_service(),
              std::move(listener),
              include_value,
              get_context().get_logger())),
          include_value,
          to_data<K>(key),
          listener_flags);
    }

    template<typename K, typename V>
    boost::future<boost::optional<entry_view<K, V>>> get_entry_view(
      const K& key)
    {
        auto f = proxy::IMapImpl::get_entry_view_data(to_data(key));
        return to_object_entry_view<K, V>(std::move(f));
    }

    template<typename K>
    boost::future<bool> evict(const K& key)
    {
        return evict_internal(to_data(key));
    }

    template<typename K, typename V>
    boost::future<std::unordered_map<K, V>> get_all(
      const std::unordered_set<K>& keys)
    {
        if (keys.empty()) {
            return boost::make_ready_future(std::unordered_map<K, V>());
        }
 
        std::unordered_map<int, std::vector<serialization::pimpl::data>>
          partition_to_key_data;
        // group the request per server
        for (auto& key : keys) {
            auto key_data = to_data<K>(key);
 
            auto partitionId = get_partition_id(key_data);
            partition_to_key_data[partitionId].push_back(std::move(key_data));
        }
 
        std::vector<boost::future<EntryVector>> futures;
        futures.reserve(partition_to_key_data.size());
        for (auto& entry : partition_to_key_data) {
            futures.push_back(get_all_internal(entry.first, entry.second));
        }
 
        return to_object_map<K, V>(futures);
    }

    template<typename K>
    boost::future<std::vector<K>> key_set()
    {
        return to_object_vector<K>(proxy::IMapImpl::key_set_data());
    }

    template<
      typename K,
      typename P,
      class = typename std::enable_if<
        !std::is_base_of<query::paging_predicate_marker, P>::value>::type>
    boost::future<std::vector<K>> key_set(const P& predicate)
    {
        return to_object_vector<K>(
          proxy::IMapImpl::key_set_data(to_data(predicate)));
    }

    template<typename K, typename V>
    boost::future<std::vector<K>> key_set(
      query::paging_predicate<K, V>& predicate)
    {
        predicate.set_iteration_type(query::iteration_type::KEY);
        auto future = key_set_for_paging_predicate_data(
          protocol::codec::holder::paging_predicate_holder::of(
            predicate, serialization_service_));
        return keys_to_object_vector_with_predicate(std::move(future),
                                                    predicate);
    }

    template<typename V>
    boost::future<std::vector<V>> values()
    {
        return to_object_vector<V>(proxy::IMapImpl::values_data());
    }

    template<
      typename V,
      typename P,
      class = typename std::enable_if<
        !std::is_base_of<query::paging_predicate_marker, P>::value>::type>
    boost::future<std::vector<V>> values(const P& predicate)
    {
        return to_object_vector<V>(
          proxy::IMapImpl::values_data(to_data(predicate)));
    }

    template<typename K, typename V>
    boost::future<std::vector<V>> values(
      query::paging_predicate<K, V>& predicate)
    {
        predicate.set_iteration_type(query::iteration_type::VALUE);
        auto future = values_for_paging_predicate_data(
          protocol::codec::holder::paging_predicate_holder::of(
            predicate, serialization_service_));
        return values_to_object_vector_with_predicate(std::move(future),
                                                      predicate);
    }

    template<typename K, typename V>
    boost::future<std::vector<std::pair<K, V>>> entry_set()
    {
        return to_entry_object_vector<K, V>(proxy::IMapImpl::entry_set_data());
    }

    template<
      typename K,
      typename V,
      typename P,
      class = typename std::enable_if<
        !std::is_base_of<query::paging_predicate_marker, P>::value>::type>
    boost::future<std::vector<std::pair<K, V>>> entry_set(const P& predicate)
    {
        return to_entry_object_vector<K, V>(
          proxy::IMapImpl::entry_set_data(to_data(predicate)));
    }

    template<typename K, typename V>
    boost::future<std::vector<std::pair<K, V>>> entry_set(
      query::paging_predicate<K, V>& predicate)
    {
        predicate.set_iteration_type(query::iteration_type::ENTRY);
        auto future = entry_set_for_paging_predicate_data(
          protocol::codec::holder::paging_predicate_holder::of(
            predicate, serialization_service_));
        return entry_set_to_object_vector_with_predicate<K, V>(
          std::move(future), predicate);
    }

    boost::future<void> add_index(const config::index_config& config)
    {
        return to_void_future(proxy::IMapImpl::add_index_data(config));
    }

    template<typename... T>
    boost::future<void> add_index(config::index_config::index_type type,
                                  T... attributes)
    {
        return add_index(
          config::index_config(type, std::forward<T>(attributes)...));
    }
 
    boost::future<void> clear()
    {
        return to_void_future(proxy::IMapImpl::clear_data());
    }

    template<typename K, typename ResultType, typename EntryProcessor>
    boost::future<boost::optional<ResultType>> execute_on_key(
      const K& key,
      const EntryProcessor& entry_processor)
    {
        return to_object<ResultType>(
          execute_on_key_internal(to_data(key), to_data(entry_processor)));
    }

    template<typename K, typename ResultType, typename EntryProcessor>
    boost::future<boost::optional<ResultType>> submit_to_key(
      const K& key,
      const EntryProcessor& entry_processor)
    {
        return to_object<ResultType>(
          submit_to_key_internal(to_data(key), to_data(entry_processor)));
    }

    template<typename K, typename ResultType, typename EntryProcessor>
    boost::future<std::unordered_map<K, boost::optional<ResultType>>>
    execute_on_keys(const std::unordered_set<K>& keys,
                    const EntryProcessor& entry_processor)
    {
        return to_object_map<K, ResultType>(
          execute_on_keys_internal<K, EntryProcessor>(keys, entry_processor));
    }

    template<typename K, typename ResultType, typename EntryProcessor>
    boost::future<std::unordered_map<K, boost::optional<ResultType>>>
    execute_on_entries(const EntryProcessor& entry_processor)
    {
        return to_object_map<K, ResultType>(
          proxy::IMapImpl::execute_on_entries_data(to_data(entry_processor)));
    }

    template<typename K,
             typename ResultType,
             typename EntryProcessor,
             typename P>
    boost::future<std::unordered_map<K, boost::optional<ResultType>>>
    execute_on_entries(const EntryProcessor& entry_processor,
                       const P& predicate)
    {
        return to_object_map<K, ResultType>(
          proxy::IMapImpl::execute_on_entries_data(to_data(entry_processor),
                                                   to_data(predicate)));
    }

    template<typename K, typename V>
    boost::future<void> put_all(const std::unordered_map<K, V>& entries)
    {
        std::unordered_map<int, EntryVector> entryMap;
        for (auto& entry : entries) {
            serialization::pimpl::data key_data = to_data(entry.first);
            int partitionId = get_partition_id(key_data);
            entryMap[partitionId].push_back(
              std::make_pair(key_data, to_data(entry.second)));
        }
 
        std::vector<boost::future<protocol::ClientMessage>> resultFutures;
        for (auto&& partitionEntry : entryMap) {
            auto partitionId = partitionEntry.first;
            resultFutures.push_back(
              put_all_internal(partitionId, std::move(partitionEntry.second)));
        }
        return boost::when_all(resultFutures.begin(), resultFutures.end())
          .then(boost::launch::sync,
                [](boost::future<boost::csbl::vector<
                     boost::future<protocol::ClientMessage>>> futures) {
                    for (auto& f : futures.get()) {
                        f.get();
                    }
                });
    }

    monitor::local_map_stats& get_local_map_stats() { return local_map_stats_; }
 
    template<typename K, typename V>
    query::paging_predicate<K, V> new_paging_predicate(
      size_t predicate_page_size)
    {
        return query::paging_predicate<K, V>(get_serialization_service(),
                                             predicate_page_size);
    }
 
    template<typename K, typename V, typename INNER_PREDICATE>
    query::paging_predicate<K, V> new_paging_predicate(
      size_t predicate_page_size,
      const INNER_PREDICATE& predicate)
    {
        return query::paging_predicate<K, V>(
          get_serialization_service(), predicate_page_size, predicate);
    }
 
    template<typename K, typename V, typename COMPARATOR>
    query::paging_predicate<K, V> new_paging_predicate(
      COMPARATOR&& comparator,
      size_t predicate_page_size)
    {
        return query::paging_predicate<K, V>(get_serialization_service(),
                                             std::move(comparator),
                                             predicate_page_size);
    }
 
    template<typename K,
             typename V,
             typename INNER_PREDICATE,
             typename COMPARATOR>
    query::paging_predicate<K, V> new_paging_predicate(
      const INNER_PREDICATE& predicate,
      COMPARATOR&& comparator,
      size_t predicate_page_size)
    {
        return query::paging_predicate<K, V>(get_serialization_service(),
                                             predicate,
                                             std::move(comparator),
                                             predicate_page_size);
    }
 
protected:
    static const std::chrono::milliseconds UNSET;
 
    monitor::impl::LocalMapStatsImpl local_map_stats_;
 
    virtual boost::future<boost::optional<serialization::pimpl::data>>
    get_internal(const serialization::pimpl::data& key_data)
    {
        return proxy::IMapImpl::get_data(key_data);
    }
 
    virtual boost::future<bool> contains_key_internal(
      const serialization::pimpl::data& key_data)
    {
        return proxy::IMapImpl::contains_key(key_data);
    }
 
    virtual boost::future<boost::optional<serialization::pimpl::data>>
    remove_internal(const serialization::pimpl::data& key_data)
    {
        return proxy::IMapImpl::remove_data(key_data);
    }
 
    virtual boost::future<bool> remove_internal(
      const serialization::pimpl::data& key_data,
      const serialization::pimpl::data& value_data)
    {
        return proxy::IMapImpl::remove(key_data, value_data);
    }
 
    virtual boost::future<protocol::ClientMessage> remove_all_internal(
      const serialization::pimpl::data& predicate_data)
    {
        return proxy::IMapImpl::remove_all(predicate_data);
    }
 
    virtual boost::future<protocol::ClientMessage> delete_internal(
      const serialization::pimpl::data& key_data)
    {
        return proxy::IMapImpl::delete_entry(key_data);
    }
 
    virtual boost::future<bool> try_remove_internal(
      const serialization::pimpl::data& key_data,
      std::chrono::milliseconds timeout)
    {
        return proxy::IMapImpl::try_remove(key_data, timeout);
    }
 
    virtual boost::future<bool> try_put_internal(
      const serialization::pimpl::data& key_data,
      const serialization::pimpl::data& value_data,
      std::chrono::milliseconds timeout)
    {
        return proxy::IMapImpl::try_put(key_data, value_data, timeout);
    }
 
    virtual boost::future<boost::optional<serialization::pimpl::data>>
    put_internal(const serialization::pimpl::data& key_data,
                 const serialization::pimpl::data& value_data,
                 std::chrono::milliseconds ttl)
    {
        return proxy::IMapImpl::put_data(key_data, value_data, ttl);
    }
 
    virtual boost::future<protocol::ClientMessage> try_put_transient_internal(
      const serialization::pimpl::data& key_data,
      const serialization::pimpl::data& value_data,
      std::chrono::milliseconds ttl)
    {
        return proxy::IMapImpl::put_transient(key_data, value_data, ttl);
    }
 
    virtual boost::future<boost::optional<serialization::pimpl::data>>
    put_if_absent_internal(const serialization::pimpl::data& key_data,
                           const serialization::pimpl::data& value_data,
                           std::chrono::milliseconds ttl)
    {
        return proxy::IMapImpl::put_if_absent_data(key_data, value_data, ttl);
    }
 
    virtual boost::future<bool> replace_if_same_internal(
      const serialization::pimpl::data& key_data,
      const serialization::pimpl::data& value_data,
      const serialization::pimpl::data& new_value_data)
    {
        return proxy::IMapImpl::replace(key_data, value_data, new_value_data);
    }
 
    virtual boost::future<boost::optional<serialization::pimpl::data>>
    replace_internal(const serialization::pimpl::data& key_data,
                     const serialization::pimpl::data& value_data)
    {
        return proxy::IMapImpl::replace_data(key_data, value_data);
    }
 
    virtual boost::future<protocol::ClientMessage> set_internal(
      const serialization::pimpl::data& key_data,
      const serialization::pimpl::data& value_data,
      std::chrono::milliseconds ttl)
    {
        return proxy::IMapImpl::set(key_data, value_data, ttl);
    }
 
    virtual boost::future<bool> evict_internal(
      const serialization::pimpl::data& key_data)
    {
        return proxy::IMapImpl::evict(key_data);
    }
 
    virtual boost::future<EntryVector> get_all_internal(
      int partition_id,
      const std::vector<serialization::pimpl::data>& partition_keys)
    {
        return proxy::IMapImpl::get_all_data(partition_id, partition_keys);
    }
 
    virtual boost::future<boost::optional<serialization::pimpl::data>>
    execute_on_key_internal(const serialization::pimpl::data& key_data,
                            const serialization::pimpl::data& processor)
    {
        return proxy::IMapImpl::execute_on_key_data(key_data, processor);
    }
 
    boost::future<boost::optional<serialization::pimpl::data>>
    submit_to_key_internal(const serialization::pimpl::data& key_data,
                           const serialization::pimpl::data& processor)
    {
        return submit_to_key_data(key_data, processor);
    }
 
    template<typename K, typename EntryProcessor>
    boost::future<EntryVector> execute_on_keys_internal(
      const std::unordered_set<K>& keys,
      const EntryProcessor& entry_processor)
    {
        if (keys.empty()) {
            return boost::make_ready_future(EntryVector());
        }
        std::vector<serialization::pimpl::data> keysData;
        for (const auto& k : keys) {
            keysData.push_back(to_data<K>(k));
        }
        return proxy::IMapImpl::execute_on_keys_data(
          keysData, to_data<EntryProcessor>(entry_processor));
    }
 
    virtual boost::future<protocol::ClientMessage> put_all_internal(
      int partition_id,
      const EntryVector& entries)
    {
        return proxy::IMapImpl::put_all_data(partition_id, entries);
    }
 
private:
    template<typename K, typename V>
    std::vector<std::pair<K, boost::optional<V>>> sort_and_get(
      query::paging_predicate<K, V>& predicate,
      query::iteration_type iteration_type,
      std::vector<std::pair<K, V>> entries)
    {
        std::vector<std::pair<K, boost::optional<V>>> optionalEntries;
        optionalEntries.reserve(entries.size());
        for (auto&& pair : entries) {
            optionalEntries.emplace_back(pair.first,
                                         boost::make_optional(pair.second));
        }
        return sortAndGet(predicate, iteration_type, optionalEntries);
    }
 
    template<typename K, typename V>
    std::vector<std::pair<K, boost::optional<V>>> sort_and_get(
      query::paging_predicate<K, V>& predicate,
      query::iteration_type iteration_type,
      std::vector<std::pair<K, boost::optional<V>>> entries)
    {
        std::sort(entries.begin(),
                  entries.end(),
                  [&](const std::pair<K, boost::optional<V>>& lhs,
                      const std::pair<K, boost::optional<V>>& rhs) {
                      auto comparator = predicate.getComparator();
                      if (!comparator) {
                          switch (predicate.getIterationType()) {
                              case query::iteration_type::VALUE:
                                  return lhs.second < rhs.second;
                              default:
                                  return lhs.first < rhs.first;
                          }
                      }
 
                      std::pair<const K*, const V*> leftVal(
                        &lhs.first, lhs.second.get_ptr());
                      std::pair<const K*, const V*> rightVal(
                        &rhs.first, rhs.second.get_ptr());
                      int result = comparator->compare(&leftVal, &rightVal);
                      if (0 != result) {
                          // std sort: comparison function object returns
                          // ​true if the first argument is less than (i.e. is
                          // ordered before) the second.
                          return result < 0;
                      }
 
                      return lhs.first < rhs.first;
                  });
 
        std::pair<size_t, size_t> range =
          update_anchor<K, V>(entries, predicate, iteration_type);
 
        std::vector<std::pair<K, boost::optional<V>>> result;
        for (size_t i = range.first; i < range.second; ++i) {
            auto entry = entries[i];
            result.push_back(std::make_pair(entry.first, entry.second));
        }
        return result;
    }
};
} // namespace client
} // namespace hazelcast
 
#if defined(WIN32) || defined(_WIN32) || defined(WIN64) || defined(_WIN64)
#pragma warning(pop)
#endif