// Licensed to the Apache Software Foundation (ASF) under one
// or more contributor license agreements.  See the NOTICE file
// distributed with this work for additional information
// regarding copyright ownership.  The ASF licenses this file
// to you 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.
// This file is copied from
// https://github.com/apache/impala/blob/branch-2.9.0/be/src/runtime/runtime-state.cpp
// and modified by Doris

#include "runtime/runtime_state.h"

#include <fmt/format.h>
#include <gen_cpp/PaloInternalService_types.h>
#include <gen_cpp/Types_types.h>
#include <glog/logging.h>

#include <fstream>
#include <memory>
#include <string>

#include "cloud/cloud_storage_engine.h"
#include "cloud/config.h"
#include "common/config.h"
#include "common/logging.h"
#include "common/object_pool.h"
#include "common/status.h"
#include "core/value/vdatetime_value.h"
#include "exec/operator/operator.h"
#include "exec/pipeline/pipeline_fragment_context.h"
#include "exec/pipeline/pipeline_task.h"
#include "exec/runtime_filter/runtime_filter_consumer.h"
#include "exec/runtime_filter/runtime_filter_mgr.h"
#include "exec/runtime_filter/runtime_filter_producer.h"
#include "exprs/function/cast/cast_to_date_or_datetime_impl.hpp"
#include "io/fs/s3_file_system.h"
#include "load/load_path_mgr.h"
#include "runtime/exec_env.h"
#include "runtime/fragment_mgr.h"
#include "runtime/memory/mem_tracker_limiter.h"
#include "runtime/query_context.h"
#include "runtime/thread_context.h"
#include "storage/id_manager.h"
#include "storage/storage_engine.h"
#include "util/thrift_util.h"
#include "util/timezone_utils.h"
#include "util/uid_util.h"

namespace doris {
using namespace ErrorCode;

Status RuntimeState::add_iceberg_commit_datas(TIcebergCommitData iceberg_commit_data) {
    ThriftSerializer serializer(false, 256);
    uint32_t serialized_size = 0;
    uint8_t* buffer = nullptr;
    RETURN_IF_ERROR(serializer.serialize(&iceberg_commit_data, &serialized_size, &buffer));

    // This is an early per-vector guard only; the assembled RPC is measured again before send.
    constexpr size_t report_envelope_headroom = 1024 * 1024;
    const size_t thrift_limit = coordinator_thrift_message_limit();
    const size_t commit_data_limit =
            thrift_limit > report_envelope_headroom ? thrift_limit - report_envelope_headroom : 0;
    std::lock_guard<std::mutex> budget_lock(_external_file_report_state->mutex);
    // Parallel task states share this budget because FE receives their vectors in one fragment report.
    if (_external_file_report_state->iceberg_serialized_bytes + serialized_size + sizeof(uint32_t) >
        commit_data_limit) {
        return Status::InternalError(
                "Iceberg commit metadata exceeds the Thrift report limit; reduce output file "
                "count");
    }
    std::lock_guard<std::mutex> data_lock(_iceberg_commit_datas_mutex);
    _external_file_report_state->iceberg_serialized_bytes += serialized_size + sizeof(uint32_t);
    _iceberg_commit_datas.emplace_back(std::move(iceberg_commit_data));
    return Status::OK();
}

size_t RuntimeState::coordinator_thrift_message_limit() const {
    int32_t effective_thrift_limit = std::max(config::thrift_max_message_size, 0);
    if (_query_options.__isset.coordinator_thrift_max_message_size &&
        _query_options.coordinator_thrift_max_message_size > 0) {
        // An older FE omits this field; otherwise the receiver's smaller limit is authoritative.
        effective_thrift_limit = std::min(effective_thrift_limit,
                                          _query_options.coordinator_thrift_max_message_size);
    }
    return static_cast<size_t>(effective_thrift_limit);
}

void RuntimeState::append_external_file_commit_data(TReportExecStatusParams* params,
                                                    bool final_report) const {
    if (!final_report) {
        // Ownership-bearing commit vectors must only appear in the final report that transfers them.
        return;
    }
    if (auto updates = hive_partition_updates(); !updates.empty()) {
        params->__isset.hive_partition_updates = true;
        params->hive_partition_updates.insert(params->hive_partition_updates.end(), updates.begin(),
                                              updates.end());
    }
    append_iceberg_commit_datas(&params->iceberg_commit_datas);
    if (!params->iceberg_commit_datas.empty()) {
        params->__isset.iceberg_commit_datas = true;
    }
    if (auto commit_datas = mc_commit_datas(); !commit_datas.empty()) {
        params->__isset.mc_commit_datas = true;
        params->mc_commit_datas.insert(params->mc_commit_datas.end(), commit_datas.begin(),
                                       commit_datas.end());
    }
}

void RuntimeState::add_rejected_external_file_report_cleanup(std::function<void()> cleanup) {
    std::lock_guard lock(_external_file_report_state->mutex);
    _external_file_report_state->rejected_report_cleanups.emplace_back(std::move(cleanup));
}

void RuntimeState::finalize_external_file_report_cleanup(ExternalFileReportOutcome outcome) {
    std::vector<std::function<void()>> cleanups;
    {
        std::lock_guard lock(_external_file_report_state->mutex);
        if (outcome == ExternalFileReportOutcome::ACKNOWLEDGED) {
            _external_file_report_state->rejected_report_cleanups.clear();
            return;
        }
        if (outcome == ExternalFileReportOutcome::AMBIGUOUS) {
            // Once an ACK can have been lost, a later rejection cannot prove FE never accepted the files.
            _external_file_report_state->ownership_may_have_transferred = true;
            return;
        }
        if (_external_file_report_state->ownership_may_have_transferred) {
            return;
        }
        cleanups.swap(_external_file_report_state->rejected_report_cleanups);
    }
    for (auto& cleanup : cleanups) {
        cleanup();
    }
}

RuntimeState::RuntimeState(const TPlanFragmentExecParams& fragment_exec_params,
                           const TQueryOptions& query_options, const TQueryGlobals& query_globals,
                           ExecEnv* exec_env, QueryContext* ctx,
                           const std::shared_ptr<MemTrackerLimiter>& query_mem_tracker)
        : _profile("Fragment " + print_id(fragment_exec_params.fragment_instance_id)),
          _load_channel_profile("<unnamed>"),
          _obj_pool(new ObjectPool()),
          _unreported_error_idx(0),
          _query_id(fragment_exec_params.query_id),
          _per_fragment_instance_idx(0),
          _num_rows_load_total(0),
          _num_rows_load_filtered(0),
          _num_rows_load_unselected(0),
          _num_print_error_rows(0),
          _num_bytes_load_total(0),
          _num_finished_scan_range(0),
          _query_ctx(ctx) {
    Status status =
            init(fragment_exec_params.fragment_instance_id, query_options, query_globals, exec_env);
    DCHECK(status.ok());
    _query_mem_tracker = query_mem_tracker;
    DCHECK(_query_mem_tracker != nullptr);
}

RuntimeState::RuntimeState(const TUniqueId& instance_id, const TUniqueId& query_id,
                           int32_t fragment_id, const TQueryOptions& query_options,
                           const TQueryGlobals& query_globals, ExecEnv* exec_env, QueryContext* ctx)
        : _profile("Fragment " + print_id(instance_id)),
          _load_channel_profile("<unnamed>"),
          _obj_pool(new ObjectPool()),
          _unreported_error_idx(0),
          _query_id(query_id),
          _fragment_id(fragment_id),
          _per_fragment_instance_idx(0),
          _num_rows_load_total(0),
          _num_rows_load_filtered(0),
          _num_rows_load_unselected(0),
          _num_rows_filtered_in_strict_mode_partial_update(0),
          _num_print_error_rows(0),
          _num_bytes_load_total(0),
          _num_finished_scan_range(0),
          _query_ctx(ctx) {
    [[maybe_unused]] auto status = init(instance_id, query_options, query_globals, exec_env);
    DCHECK(status.ok());
    _query_mem_tracker = ctx->query_mem_tracker();
}

RuntimeState::RuntimeState(const TUniqueId& query_id, int32_t fragment_id,
                           const TQueryOptions& query_options, const TQueryGlobals& query_globals,
                           ExecEnv* exec_env, QueryContext* ctx)
        : _profile(fmt::format("PipelineX(fragment_id={})", fragment_id)),
          _load_channel_profile("<unnamed>"),
          _obj_pool(new ObjectPool()),
          _unreported_error_idx(0),
          _query_id(query_id),
          _fragment_id(fragment_id),
          _per_fragment_instance_idx(0),
          _num_rows_load_total(0),
          _num_rows_load_filtered(0),
          _num_rows_load_unselected(0),
          _num_rows_filtered_in_strict_mode_partial_update(0),
          _num_print_error_rows(0),
          _num_bytes_load_total(0),
          _num_finished_scan_range(0),
          _query_ctx(ctx) {
    // TODO: do we really need instance id?
    Status status = init(TUniqueId(), query_options, query_globals, exec_env);
    DCHECK(status.ok());
    _query_mem_tracker = ctx->query_mem_tracker();
}

RuntimeState::RuntimeState(const TUniqueId& query_id, int32_t fragment_id,
                           const TQueryOptions& query_options, const TQueryGlobals& query_globals,
                           ExecEnv* exec_env,
                           const std::shared_ptr<MemTrackerLimiter>& query_mem_tracker)
        : _profile(fmt::format("PipelineX(fragment_id={})", fragment_id)),
          _load_channel_profile("<unnamed>"),
          _obj_pool(new ObjectPool()),
          _unreported_error_idx(0),
          _query_id(query_id),
          _fragment_id(fragment_id),
          _per_fragment_instance_idx(0),
          _num_rows_load_total(0),
          _num_rows_load_filtered(0),
          _num_rows_load_unselected(0),
          _num_rows_filtered_in_strict_mode_partial_update(0),
          _num_print_error_rows(0),
          _num_bytes_load_total(0),
          _num_finished_scan_range(0) {
    Status status = init(TUniqueId(), query_options, query_globals, exec_env);
    DCHECK(status.ok());
    _query_mem_tracker = query_mem_tracker;
    DCHECK(_query_mem_tracker != nullptr);
}

RuntimeState::RuntimeState(const TQueryOptions& query_options, const TQueryGlobals& query_globals)
        : _profile("<unnamed>"),
          _load_channel_profile("<unnamed>"),
          _obj_pool(new ObjectPool()),
          _unreported_error_idx(0),
          _per_fragment_instance_idx(0) {
    Status status = init(TUniqueId(), query_options, query_globals, nullptr);
    _exec_env = ExecEnv::GetInstance();
    init_mem_trackers("<unnamed>");
    DCHECK(status.ok());
}

RuntimeState::RuntimeState()
        : _profile("<unnamed>"),
          _load_channel_profile("<unnamed>"),
          _obj_pool(new ObjectPool()),
          _unreported_error_idx(0),
          _per_fragment_instance_idx(0) {
    _query_options.batch_size = DEFAULT_BATCH_SIZE;
    _query_options.be_exec_version = BeExecVersionManager::get_newest_version();
    _timezone = TimezoneUtils::default_time_zone;
    _timestamp_ms = 0;
    _nano_seconds = 0;
    TimezoneUtils::find_cctz_time_zone(_timezone, _timezone_obj);
    _exec_env = ExecEnv::GetInstance();
    init_mem_trackers("<unnamed>");
}

RuntimeState::~RuntimeState() {
    SCOPED_SWITCH_THREAD_MEM_TRACKER_LIMITER(_query_mem_tracker);
    // close error log file
    if (_error_log_file != nullptr && _error_log_file->is_open()) {
        _error_log_file->close();
    }
    _obj_pool->clear();
}

const std::set<int>& RuntimeState::get_deregister_runtime_filter() const {
    return _registered_runtime_filter_ids;
}

void RuntimeState::merge_register_runtime_filter(const std::set<int>& runtime_filter_ids) {
    _registered_runtime_filter_ids.insert(runtime_filter_ids.begin(), runtime_filter_ids.end());
}

Status RuntimeState::init(const TUniqueId& fragment_instance_id, const TQueryOptions& query_options,
                          const TQueryGlobals& query_globals, ExecEnv* exec_env) {
    _fragment_instance_id = fragment_instance_id;
    _query_options = query_options;
    _lc_time_names = query_globals.lc_time_names;
    if (query_globals.__isset.time_zone && query_globals.__isset.nano_seconds) {
        _timezone = query_globals.time_zone;
        _timestamp_ms = query_globals.timestamp_ms;
        _nano_seconds = query_globals.nano_seconds;
    } else if (query_globals.__isset.time_zone) {
        _timezone = query_globals.time_zone;
        _timestamp_ms = query_globals.timestamp_ms;
        _nano_seconds = 0;
    } else if (!query_globals.now_string.empty()) {
        _timezone = TimezoneUtils::default_time_zone;
        VecDateTimeValue dt;
        CastParameters params;
        DORIS_CHECK((CastToDateOrDatetime::from_string_strict_mode<DatelikeParseMode::STRICT,
                                                                   DatelikeTargetType::DATE_TIME>(
                {query_globals.now_string.c_str(), query_globals.now_string.size()}, dt, nullptr,
                params)));
        int64_t timestamp;
        dt.unix_timestamp(&timestamp, _timezone);
        _timestamp_ms = timestamp * 1000;
        _nano_seconds = 0;
    } else {
        //Unit test may set into here
        _timezone = TimezoneUtils::default_time_zone;
        _timestamp_ms = 0;
        _nano_seconds = 0;
    }
    TimezoneUtils::find_cctz_time_zone(_timezone, _timezone_obj);

    if (query_globals.__isset.load_zero_tolerance) {
        _load_zero_tolerance = query_globals.load_zero_tolerance;
    }

    _exec_env = exec_env;

    if (_query_options.max_errors <= 0) {
        // TODO: fix linker error and uncomment this
        //_query_options.max_errors = config::max_errors;
        _query_options.max_errors = 100;
    }

    if (_query_options.batch_size <= 0) {
        _query_options.batch_size = DEFAULT_BATCH_SIZE;
    }

    _db_name = "insert_stmt";
    _import_label = print_id(fragment_instance_id);

    _profile_level = query_options.__isset.profile_level ? query_options.profile_level : 2;

    return Status::OK();
}

std::weak_ptr<QueryContext> RuntimeState::get_query_ctx_weak() {
    return _exec_env->fragment_mgr()->get_query_ctx(_query_ctx->query_id());
}

void RuntimeState::init_mem_trackers(const std::string& name, const TUniqueId& id) {
    _query_mem_tracker = MemTrackerLimiter::create_shared(
            MemTrackerLimiter::Type::OTHER, fmt::format("{}#Id={}", name, print_id(id)));
}

std::shared_ptr<MemTrackerLimiter> RuntimeState::query_mem_tracker() const {
    CHECK(_query_mem_tracker != nullptr);
    return _query_mem_tracker;
}

WorkloadGroupPtr RuntimeState::workload_group() {
    return _query_ctx->workload_group();
}

bool RuntimeState::log_error(const std::string& error) {
    std::lock_guard<std::mutex> l(_error_log_lock);

    if (_error_log.size() < _query_options.max_errors) {
        _error_log.push_back(error);
        return true;
    }

    return false;
}

void RuntimeState::get_unreported_errors(std::vector<std::string>* new_errors) {
    std::lock_guard<std::mutex> l(_error_log_lock);

    if (_unreported_error_idx < _error_log.size()) {
        new_errors->assign(_error_log.begin() + _unreported_error_idx, _error_log.end());
        _unreported_error_idx = (int)_error_log.size();
    }
}

bool RuntimeState::is_cancelled() const {
    // Maybe we should just return _is_cancelled.load()
    return !_exec_status.ok() || (_query_ctx && _query_ctx->is_cancelled());
}

Status RuntimeState::cancel_reason() const {
    if (!_exec_status.ok()) {
        return _exec_status.status();
    }

    if (_query_ctx) {
        return _query_ctx->exec_status();
    }

    return Status::Cancelled("Query cancelled");
}

const int64_t MAX_ERROR_NUM = 50;

Status RuntimeState::create_error_log_file() {
    if (config::save_load_error_log_to_s3 && config::is_cloud_mode()) {
        _s3_error_fs = std::dynamic_pointer_cast<io::S3FileSystem>(
                ExecEnv::GetInstance()->storage_engine().to_cloud().latest_fs());
        if (_s3_error_fs) {
            std::stringstream ss;
            // https://dev.mysql.com/doc/dev/mysql-server/latest/page_protocol_basic_err_packet.html
            // shorten the path as much as possible to prevent the length of the presigned URL from
            // exceeding the MySQL error packet size limit
            ss << "error_log/" << std::hex << _fragment_instance_id.lo;
            _s3_error_log_file_path = ss.str();
        }
    }

    static_cast<void>(_exec_env->load_path_mgr()->get_load_error_file_name(
            _db_name, _import_label, _fragment_instance_id, &_error_log_file_path));
    std::string error_log_absolute_path =
            _exec_env->load_path_mgr()->get_load_error_absolute_path(_error_log_file_path);
    _error_log_file = std::make_unique<std::ofstream>(error_log_absolute_path, std::ifstream::out);
    if (!_error_log_file->is_open()) {
        std::stringstream error_msg;
        error_msg << "Fail to open error file: [" << _error_log_file_path << "].";
        LOG(WARNING) << error_msg.str();
        return Status::InternalError(error_msg.str());
    }
    LOG(INFO) << "create error log file: " << _error_log_file_path
              << ", query id: " << print_id(_query_id)
              << ", fragment instance id: " << print_id(_fragment_instance_id);

    return Status::OK();
}

Status RuntimeState::append_error_msg_to_file(std::function<std::string()> line,
                                              std::function<std::string()> error_msg) {
    if (query_type() != TQueryType::LOAD) {
        return Status::OK();
    }

    const auto error_limit_status = [this]() -> Status {
        if (_load_zero_tolerance) {
            return Status::DataQualityError(
                    "Encountered unqualified data, stop processing. Please check if the source "
                    "data matches the schema, and consider disabling strict mode or increasing "
                    "max_filter_ratio.");
        }
        return Status::OK();
    };
    if (_num_print_error_rows.load(std::memory_order_relaxed) > MAX_ERROR_NUM) {
        return error_limit_status();
    }

    std::lock_guard<std::mutex> l(_load_error_log_lock);
    // If file haven't been opened, open it here
    if (_error_log_file == nullptr) {
        Status status = create_error_log_file();
        if (!status.ok()) {
            LOG(WARNING) << "Create error file log failed. because: " << status;
            if (_error_log_file != nullptr) {
                _error_log_file->close();
            }
            return status;
        }
        // record the first error message if the file is just created
        _first_error_msg = error_msg() + ". Src line: " + line();
        LOG(INFO) << "The first error message: " << _first_error_msg;
    }
    // If num of printed error row exceeds the limit, don't add error messages to error log file any more
    if (_num_print_error_rows.fetch_add(1, std::memory_order_relaxed) > MAX_ERROR_NUM) {
        return error_limit_status();
    }

    fmt::memory_buffer out;
    // Note: export reason first in case src line too long and be truncated.
    fmt::format_to(out, "Reason: {}. src line [{}]; ", error_msg(), line());

    size_t error_row_size = out.size();
    if (error_row_size > 0) {
        if (error_row_size > config::load_error_log_limit_bytes) {
            fmt::memory_buffer limit_byte_out;
            limit_byte_out.append(out.data(), out.data() + config::load_error_log_limit_bytes);
            (*_error_log_file) << fmt::to_string(limit_byte_out) + "error log is too long"
                               << std::endl;
        } else {
            (*_error_log_file) << fmt::to_string(out) << std::endl;
        }
    }

    return Status::OK();
}

std::string RuntimeState::get_first_error_msg() const {
    std::lock_guard<std::mutex> l(_load_error_log_lock);
    return _first_error_msg;
}

std::string RuntimeState::get_error_log_file_path() {
    std::lock_guard<std::mutex> s3_lock(_s3_error_log_file_lock);
    std::shared_ptr<io::S3FileSystem> s3_error_fs;
    std::string local_error_log_file_path;
    std::string remote_error_log_file_path;
    {
        std::lock_guard<std::mutex> load_lock(_load_error_log_lock);
        DBUG_EXECUTE_IF("RuntimeState::get_error_log_file_path.block", {
            if (!_error_log_file_path.empty()) {
                std::this_thread::sleep_for(std::chrono::seconds(1));
            }
        });
        if (!_s3_error_fs || !_error_log_file || !_error_log_file->is_open()) {
            return _error_log_file_path;
        }

        // close error log file
        _error_log_file->close();
        s3_error_fs = _s3_error_fs;
        local_error_log_file_path = _error_log_file_path;
        remote_error_log_file_path = _s3_error_log_file_path;
    }

    std::string error_log_absolute_path =
            _exec_env->load_path_mgr()->get_load_error_absolute_path(local_error_log_file_path);
    // upload error log file to s3
    Status st = s3_error_fs->upload(error_log_absolute_path, remote_error_log_file_path);
    if (!st.ok()) {
        // upload failed and return local error log file path
        LOG(WARNING) << "Fail to upload error file to s3, error_log_file_path="
                     << local_error_log_file_path << ", error=" << st;
        return local_error_log_file_path;
    }
    // expiration must be less than a week (in seconds) for presigned url
    static const unsigned EXPIRATION_SECONDS = 7 * 24 * 60 * 60 - 1;
    // Use public or private endpoint based on configuration
    auto presigned_url =
            s3_error_fs->generate_presigned_url(remote_error_log_file_path, EXPIRATION_SECONDS,
                                                config::use_public_endpoint_for_error_log);
    std::lock_guard<std::mutex> load_lock(_load_error_log_lock);
    _error_log_file_path = std::move(presigned_url);
    return _error_log_file_path;
}

void RuntimeState::resize_op_id_to_local_state(int operator_size) {
    _op_id_to_local_state.resize(-operator_size);
}

void RuntimeState::emplace_local_state(int id,
                                       std::unique_ptr<doris::PipelineXLocalStateBase> state) {
    id = -id;
    DCHECK_LT(id, _op_id_to_local_state.size())
            << state->parent()->get_name() << " node id = " << state->parent()->node_id();
    DCHECK(!_op_id_to_local_state[id]);
    _op_id_to_local_state[id] = std::move(state);
}

doris::PipelineXLocalStateBase* RuntimeState::get_local_state(int id) {
    DCHECK_GT(_op_id_to_local_state.size(), -id);
    return _op_id_to_local_state[-id].get();
}

Result<RuntimeState::LocalState*> RuntimeState::get_local_state_result(int id) {
    id = -id;
    if (id >= _op_id_to_local_state.size()) {
        return ResultError(Status::InternalError("get_local_state out of range size:{} , id:{}",
                                                 _op_id_to_local_state.size(), id));
    }
    if (!_op_id_to_local_state[id]) {
        return ResultError(Status::InternalError("get_local_state id:{} is null", id));
    }
    return _op_id_to_local_state[id].get();
};

void RuntimeState::emplace_sink_local_state(
        int id, std::unique_ptr<doris::PipelineXSinkLocalStateBase> state) {
    DCHECK(!_sink_local_state) << " id=" << id << " state: " << state->debug_string(0);
    _sink_local_state = std::move(state);
}

doris::PipelineXSinkLocalStateBase* RuntimeState::get_sink_local_state() {
    return _sink_local_state.get();
}

Result<RuntimeState::SinkLocalState*> RuntimeState::get_sink_local_state_result() {
    if (!_sink_local_state) {
        return ResultError(Status::InternalError("_op_id_to_sink_local_state not exist"));
    }
    return _sink_local_state.get();
}

bool RuntimeState::enable_page_cache() const {
    return !config::disable_storage_page_cache &&
           (_query_options.__isset.enable_page_cache && _query_options.enable_page_cache);
}

RuntimeFilterMgr* RuntimeState::global_runtime_filter_mgr() {
    return _query_ctx->runtime_filter_mgr();
}

Status RuntimeState::register_producer_runtime_filter(
        const TRuntimeFilterDesc& desc, std::shared_ptr<RuntimeFilterProducer>* producer_filter) {
    _registered_runtime_filter_ids.insert(desc.filter_id);
    // Producers are created by local runtime filter mgr and shared by global runtime filter manager.
    // When RF is published, consumers in both global and local RF mgr will be found.
    RETURN_IF_ERROR(local_runtime_filter_mgr()->register_producer_filter(_query_ctx, desc,
                                                                         producer_filter));
    // Stamp the producer with the current recursive CTE stage so that outgoing merge RPCs
    // carry the correct round number and stale messages from old rounds are discarded.
    // PFC must still be alive: this runs inside a pipeline task, so the execution context
    // cannot have expired yet.
    // In unit-test scenarios the task execution context is never set (no PipelineFragmentContext
    // exists), so skip the stage stamping — the default stage (0) is correct.
    if (task_execution_context_inited()) {
        auto pfc = std::static_pointer_cast<PipelineFragmentContext>(
                get_task_execution_context().lock());
        DORIS_CHECK(pfc);
        (*producer_filter)->set_stage(pfc->rec_cte_stage());
    }
    RETURN_IF_ERROR(global_runtime_filter_mgr()->register_local_merge_producer_filter(
            _query_ctx, desc, *producer_filter));
    return Status::OK();
}

Status RuntimeState::register_consumer_runtime_filter(
        const TRuntimeFilterDesc& desc, bool need_local_merge, int node_id,
        std::shared_ptr<RuntimeFilterConsumer>* consumer_filter) {
    _registered_runtime_filter_ids.insert(desc.filter_id);
    bool need_merge = desc.has_remote_targets || need_local_merge ||
                      (desc.__isset.force_local_merge && desc.force_local_merge);
    RuntimeFilterMgr* mgr = need_merge ? global_runtime_filter_mgr() : local_runtime_filter_mgr();
    RETURN_IF_ERROR(mgr->register_consumer_filter(this, desc, node_id, consumer_filter));
    // Stamp the consumer with the current recursive CTE stage so that incoming publish RPCs
    // from old rounds are detected and discarded.
    // PFC must still be alive: this runs inside a pipeline task, so the execution context
    // cannot have expired yet.
    // In unit-test scenarios the task execution context is never set (no PipelineFragmentContext
    // exists), so skip the stage stamping — the default stage (0) is correct.
    if (task_execution_context_inited()) {
        auto pfc = std::static_pointer_cast<PipelineFragmentContext>(
                get_task_execution_context().lock());
        DORIS_CHECK(pfc);
        (*consumer_filter)->set_stage(pfc->rec_cte_stage());
    }
    return Status::OK();
}

bool RuntimeState::is_nereids() const {
    return _query_ctx->is_nereids();
}

std::vector<std::shared_ptr<RuntimeProfile>> RuntimeState::pipeline_id_to_profile() {
    std::shared_lock lc(_pipeline_profile_lock);
    return _pipeline_id_to_profile;
}

std::vector<std::shared_ptr<RuntimeProfile>> RuntimeState::build_pipeline_profile(
        std::size_t pipeline_size) {
    std::unique_lock lc(_pipeline_profile_lock);
    if (!_pipeline_id_to_profile.empty()) {
        return _pipeline_id_to_profile;
    }
    _pipeline_id_to_profile.resize(pipeline_size);
    {
        size_t pip_idx = 0;
        for (auto& pipeline_profile : _pipeline_id_to_profile) {
            pipeline_profile =
                    std::make_shared<RuntimeProfile>(fmt::format("Pipeline(id={})", pip_idx));
            pip_idx++;
        }
    }
    return _pipeline_id_to_profile;
}

bool RuntimeState::low_memory_mode() const {
#ifdef BE_TEST
    if (!_query_ctx) {
        return false;
    }
#endif
    return _query_ctx->low_memory_mode();
}

void RuntimeState::set_id_file_map() {
    _id_file_map = _exec_env->get_id_manager()->add_id_file_map(_query_id, execution_timeout());
}
} // end namespace doris