mod compact; mod lifecycle; mod regular; mod review; mod user_shell; use std::sync::Arc; use std::time::Duration; use std::time::Instant; use codex_extension_api::ExtensionData; use futures::future::BoxFuture; use tokio::select; use tokio::sync::Notify; use tokio_util::sync::CancellationToken; use tokio_util::task::AbortOnDropHandle; use tracing::Instrument; use tracing::Span; use tracing::field; use tracing::info_span; use tracing::trace; use tracing::warn; use crate::config::Config; use crate::context::ContextualUserFragment; use crate::goals::GoalRuntimeEvent; use crate::hook_runtime::PendingInputHookDisposition; use crate::hook_runtime::inspect_pending_input; use crate::hook_runtime::record_additional_contexts; use crate::hook_runtime::record_pending_input; use crate::session::session::Session; use crate::session::turn_context::TurnContext; use crate::state::ActiveTurn; use crate::state::RunningTask; use crate::state::TaskKind; use codex_analytics::TurnTokenUsageFact; use codex_login::AuthManager; use codex_models_manager::manager::SharedModelsManager; use codex_otel::SessionTelemetry; use codex_otel::TURN_E2E_DURATION_METRIC; use codex_otel::TURN_MEMORY_METRIC; use codex_otel::TURN_NETWORK_PROXY_METRIC; use codex_otel::TURN_TOKEN_USAGE_METRIC; use codex_otel::TURN_TOOL_CALL_METRIC; use codex_protocol::models::ResponseInputItem; use codex_protocol::models::ResponseItem; use codex_protocol::protocol::EventMsg; use codex_protocol::protocol::RolloutItem; use codex_protocol::protocol::TokenUsage; use codex_protocol::protocol::TurnAbortReason; use codex_protocol::protocol::TurnAbortedEvent; use codex_protocol::protocol::TurnCompleteEvent; use codex_protocol::protocol::WarningEvent; use codex_protocol::user_input::UserInput; use codex_features::Feature; use codex_protocol::models::ContentItem; pub(crate) use compact::CompactTask; pub(crate) use regular::RegularTask; pub(crate) use review::ReviewTask; pub(crate) use user_shell::UserShellCommandMode; pub(crate) use user_shell::UserShellCommandTask; pub(crate) use user_shell::execute_user_shell_command; const GRACEFULL_INTERRUPTION_TIMEOUT_MS: u64 = 100; #[derive(Debug, Clone, Copy, PartialEq, Eq)] pub(crate) enum InterruptedTurnHistoryMarker { Disabled, ContextualUser, Developer, } impl InterruptedTurnHistoryMarker { pub(crate) fn from_config(config: &Config) -> Self { if !config.agent_interrupt_message_enabled { return Self::Disabled; } if config.features.enabled(Feature::MultiAgentV2) { Self::Developer } else { Self::ContextualUser } } } /// Shared model-visible marker used by both the real interrupt path and /// interrupted fork snapshots. pub(crate) fn interrupted_turn_history_marker( marker: InterruptedTurnHistoryMarker, ) -> Option { match marker { InterruptedTurnHistoryMarker::Disabled => None, InterruptedTurnHistoryMarker::ContextualUser => Some(ContextualUserFragment::into( crate::context::TurnAborted::new(crate::context::TurnAborted::INTERRUPTED_GUIDANCE), )), InterruptedTurnHistoryMarker::Developer => { let marker = crate::context::TurnAborted::new( crate::context::TurnAborted::INTERRUPTED_DEVELOPER_GUIDANCE, ); Some(ResponseItem::Message { id: None, role: "developer".to_string(), content: vec![ContentItem::InputText { text: marker.render(), }], phase: None, }) } } } fn emit_turn_network_proxy_metric( session_telemetry: &SessionTelemetry, network_proxy_active: bool, tmp_mem: (&str, &str), ) { let active = if network_proxy_active { "true" } else { "false" }; session_telemetry.counter( TURN_NETWORK_PROXY_METRIC, /*inc*/ 1, &[("active", active), tmp_mem], ); } fn emit_turn_memory_metric( session_telemetry: &SessionTelemetry, feature_enabled: bool, config_enabled: bool, has_citations: bool, ) { let read_allowed = feature_enabled && config_enabled; session_telemetry.counter( TURN_MEMORY_METRIC, /*inc*/ 1, &[ ("read_allowed", bool_tag(read_allowed)), ("feature_enabled", bool_tag(feature_enabled)), ("config_use_memories", bool_tag(config_enabled)), ("has_citations", bool_tag(has_citations)), ], ); } fn bool_tag(value: bool) -> &'static str { if value { "true" } else { "false" } } /// Thin wrapper that exposes the parts of [`Session`] task runners need. #[derive(Clone)] pub(crate) struct SessionTaskContext { session: Arc, turn_extension_data: Arc, } impl SessionTaskContext { pub(crate) fn new(session: Arc, turn_extension_data: Arc) -> Self { Self { session, turn_extension_data, } } pub(crate) fn clone_session(&self) -> Arc { Arc::clone(&self.session) } pub(crate) fn turn_extension_data(&self) -> Arc { Arc::clone(&self.turn_extension_data) } pub(crate) fn auth_manager(&self) -> Arc { Arc::clone(&self.session.services.auth_manager) } pub(crate) fn models_manager(&self) -> SharedModelsManager { Arc::clone(&self.session.services.models_manager) } } /// Async task that drives a [`Session`] turn. /// /// Implementations encapsulate a specific Codex workflow (regular chat, /// reviews, ghost snapshots, etc.). Each task instance is owned by a /// [`Session`] and executed on a background Tokio task. The trait is /// intentionally small: implementers identify themselves via /// [`SessionTask::kind`], perform their work in [`SessionTask::run`], and may /// release resources in [`SessionTask::abort`]. pub(crate) trait SessionTask: Send + Sync + 'static { /// Describes the type of work the task performs so the session can /// surface it in telemetry and UI. fn kind(&self) -> TaskKind; /// Returns the tracing name for a spawned task span. fn span_name(&self) -> &'static str; /// Returns whether turn token usage should be recorded on this task's turn span. fn records_turn_token_usage_on_span(&self) -> bool { false } /// Executes the task until completion or cancellation. /// /// Implementations typically stream protocol events using `session` and /// `ctx`, returning an optional final agent message when finished. The /// provided `cancellation_token` is cancelled when the session requests an /// abort; implementers should watch for it and terminate quickly once it /// fires. Returning [`Some`] yields a final message that /// [`Session::on_task_finished`] will emit to the client. fn run( self: Arc, session: Arc, ctx: Arc, input: Vec, cancellation_token: CancellationToken, ) -> impl std::future::Future> + Send; /// Gives the task a chance to perform cleanup after an abort. /// /// The default implementation is a no-op; override this if additional /// teardown or notifications are required once /// [`Session::abort_all_tasks`] cancels the task. fn abort( &self, session: Arc, ctx: Arc, ) -> impl std::future::Future + Send { async move { let _ = (session, ctx); } } } pub(crate) trait AnySessionTask: Send + Sync + 'static { fn kind(&self) -> TaskKind; fn span_name(&self) -> &'static str; fn records_turn_token_usage_on_span(&self) -> bool; fn run( self: Arc, session: Arc, ctx: Arc, input: Vec, cancellation_token: CancellationToken, ) -> BoxFuture<'static, Option>; fn abort<'a>( &'a self, session: Arc, ctx: Arc, ) -> BoxFuture<'a, ()>; } impl AnySessionTask for T where T: SessionTask, { fn kind(&self) -> TaskKind { SessionTask::kind(self) } fn span_name(&self) -> &'static str { SessionTask::span_name(self) } fn records_turn_token_usage_on_span(&self) -> bool { SessionTask::records_turn_token_usage_on_span(self) } fn run( self: Arc, session: Arc, ctx: Arc, input: Vec, cancellation_token: CancellationToken, ) -> BoxFuture<'static, Option> { Box::pin(SessionTask::run( self, session, ctx, input, cancellation_token, )) } fn abort<'a>( &'a self, session: Arc, ctx: Arc, ) -> BoxFuture<'a, ()> { Box::pin(SessionTask::abort(self, session, ctx)) } } impl Session { pub async fn spawn_task( self: &Arc, turn_context: Arc, input: Vec, task: T, ) { self.abort_all_tasks(TurnAbortReason::Replaced).await; self.clear_connector_selection().await; self.start_task(turn_context, input, task).await; } pub(crate) async fn start_task( self: &Arc, turn_context: Arc, input: Vec, task: T, ) { let task: Arc = Arc::new(task); let task_kind = task.kind(); let span_name = task.span_name(); let started_at = Instant::now(); let turn_started_at_unix_ms = turn_context .turn_timing_state .mark_turn_started(started_at) .await; turn_context .turn_metadata_state .set_turn_started_at_unix_ms(turn_started_at_unix_ms); let token_usage_at_turn_start = self.total_token_usage().await.unwrap_or_default(); let cancellation_token = CancellationToken::new(); let done = Arc::new(Notify::new()); self.services .guardian_rejection_circuit_breaker .lock() .await .clear_turn(&turn_context.sub_id); if let Err(err) = self .goal_runtime_apply(GoalRuntimeEvent::TurnStarted { turn_context: turn_context.as_ref(), token_usage: token_usage_at_turn_start.clone(), }) .await { warn!("failed to apply goal runtime turn-start event: {err}"); } let queued_response_items = self .input_queue .take_queued_response_items_for_next_turn() .await; let mailbox_items = self.input_queue.get_pending_input(&self.active_turn).await; let turn_state = { let mut active = self.active_turn.lock().await; let turn = active.get_or_insert_with(ActiveTurn::default); debug_assert!(turn.tasks.is_empty()); Arc::clone(&turn.turn_state) }; turn_state.lock().await.token_usage_at_turn_start = token_usage_at_turn_start; let mut pending_items = queued_response_items; pending_items.extend(mailbox_items); self.input_queue .extend_pending_input_for_turn_state(turn_state.as_ref(), pending_items) .await; self.emit_turn_start_lifecycle(turn_context.extension_data.as_ref()) .await; let turn_extension_data = Arc::clone(&turn_context.extension_data); let mut active = self.active_turn.lock().await; let turn = active.get_or_insert_with(ActiveTurn::default); debug_assert!(turn.tasks.is_empty()); let done_clone = Arc::clone(&done); let session_ctx = Arc::new(SessionTaskContext::new( Arc::clone(self), Arc::clone(&turn_extension_data), )); let ctx = Arc::clone(&turn_context); let task_for_run = Arc::clone(&task); let task_cancellation_token = cancellation_token.child_token(); // Task-owned turn spans keep a core-owned span open for the // full task lifecycle after the submission dispatch span ends. let reasoning_effort = turn_context.effective_reasoning_effort_for_tracing(); let task_span = info_span!( "turn", otel.name = span_name, thread.id = %self.conversation_id, turn.id = %turn_context.sub_id, model = %turn_context.model_info.slug, codex.turn.reasoning_effort = %reasoning_effort, codex.turn.token_usage.input_tokens = field::Empty, codex.turn.token_usage.cached_input_tokens = field::Empty, codex.turn.token_usage.non_cached_input_tokens = field::Empty, codex.turn.token_usage.output_tokens = field::Empty, codex.turn.token_usage.reasoning_output_tokens = field::Empty, codex.turn.token_usage.total_tokens = field::Empty, ); let handle = tokio::spawn( async move { let ctx_for_finish = Arc::clone(&ctx); let last_agent_message = task_for_run .run( Arc::clone(&session_ctx), ctx, input, task_cancellation_token.child_token(), ) .await; let sess = session_ctx.clone_session(); if let Err(err) = sess.flush_rollout().await { warn!("failed to flush rollout before completing turn: {err}"); sess.send_event( ctx_for_finish.as_ref(), EventMsg::Warning(WarningEvent { message: format!( "Failed to save the conversation transcript; Codex will continue retrying. Error: {err}" ), }), ) .await; } if !task_cancellation_token.is_cancelled() { // Emit completion uniformly from spawn site so all tasks share the same lifecycle. sess.on_task_finished(Arc::clone(&ctx_for_finish), last_agent_message) .await; } done_clone.notify_waiters(); } .instrument(task_span), ); let timer = turn_context .session_telemetry .start_timer(TURN_E2E_DURATION_METRIC, &[]) .ok(); let running_task = RunningTask { done, handle: AbortOnDropHandle::new(handle), kind: task_kind, task, cancellation_token, turn_context: Arc::clone(&turn_context), turn_extension_data, _timer: timer, }; turn.add_task(running_task); } /// Starts a regular turn when the session is idle and pending work is waiting. /// /// Pending work currently includes queued next-turn items and mailbox mail marked with /// `trigger_turn`. /// /// This helper generates a fresh sub-id for the synthetic turn before delegating to the /// explicit-sub-id variant. pub(crate) async fn maybe_start_turn_for_pending_work(self: &Arc) { self.maybe_start_turn_for_pending_work_with_sub_id(uuid::Uuid::new_v4().to_string()) .await; } /// Starts a regular turn with the provided sub-id when pending work should wake an idle /// session. /// /// The turn is created only when there are queued next-turn items or mailbox mail marked with /// `trigger_turn`, and only if the session is currently idle. pub(crate) async fn maybe_start_turn_for_pending_work_with_sub_id( self: &Arc, sub_id: String, ) { if !self .input_queue .has_queued_response_items_for_next_turn() .await && !self.input_queue.has_trigger_turn_mailbox_items().await { return; } { let mut active_turn = self.active_turn.lock().await; if active_turn.is_some() { return; } *active_turn = Some(ActiveTurn::default()); } let turn_context = self.new_default_turn_with_sub_id(sub_id).await; self.maybe_emit_unknown_model_warning_for_turn(turn_context.as_ref()) .await; self.start_task(turn_context, Vec::new(), RegularTask::new()) .await; } pub async fn abort_all_tasks(self: &Arc, reason: TurnAbortReason) { let mut aborted_turn = false; let mut active_turn_to_clear = None; let mut turn_context = None; if let Some(mut active_turn) = self.take_active_turn().await { let tasks = active_turn.drain_tasks(); aborted_turn = !tasks.is_empty(); turn_context = tasks.first().map(|task| Arc::clone(&task.turn_context)); for task in tasks { self.handle_task_abort(task, reason.clone()).await; } if aborted_turn { active_turn_to_clear = Some(active_turn); } } if let Some(turn_context) = turn_context.as_deref() { self.emit_turn_abort_lifecycle(reason.clone(), turn_context.extension_data.as_ref()) .await; } if (aborted_turn || reason == TurnAbortReason::Interrupted) && let Err(err) = self .goal_runtime_apply(GoalRuntimeEvent::TaskAborted { turn_context: turn_context.as_deref(), }) .await { warn!("failed to apply goal runtime abort event: {err}"); } if let Some(active_turn) = active_turn_to_clear { // Let interrupted tasks observe cancellation before dropping pending approvals, or an // in-flight approval wait can surface as a model-visible rejection before TurnAborted. self.input_queue.clear_pending(&active_turn).await; } if reason == TurnAbortReason::Interrupted && aborted_turn { self.maybe_start_turn_for_pending_work().await; } } pub(crate) async fn abort_turn_if_active( self: &Arc, turn_id: &str, reason: TurnAbortReason, ) -> bool { let active_turn = { let mut active = self.active_turn.lock().await; if active .as_ref() .is_some_and(|active_turn| active_turn.tasks.contains_key(turn_id)) { active.take() } else { None } }; let Some(mut active_turn) = active_turn else { return false; }; let tasks = active_turn.drain_tasks(); let turn_context = tasks.first().map(|task| Arc::clone(&task.turn_context)); for task in tasks { self.handle_task_abort(task, reason.clone()).await; } if let Some(turn_context) = turn_context.as_deref() { self.emit_turn_abort_lifecycle(reason.clone(), turn_context.extension_data.as_ref()) .await; } if let Err(err) = self .goal_runtime_apply(GoalRuntimeEvent::TaskAborted { turn_context: turn_context.as_deref(), }) .await { warn!("failed to apply goal runtime abort event: {err}"); } // Let interrupted tasks observe cancellation before dropping pending approvals, or an // in-flight approval wait can surface as a model-visible rejection before TurnAborted. self.input_queue.clear_pending(&active_turn).await; if reason == TurnAbortReason::Interrupted { self.maybe_start_turn_for_pending_work().await; } true } pub async fn on_task_finished( self: &Arc, turn_context: Arc, last_agent_message: Option, ) { turn_context .turn_metadata_state .cancel_git_enrichment_task(); let mut pending_input = Vec::::new(); let mut should_clear_active_turn = false; let mut token_usage_at_turn_start = None; let mut turn_had_memory_citation = false; let mut turn_tool_calls = 0_u64; let mut records_turn_token_usage_on_span = false; let turn_state = { let mut active = self.active_turn.lock().await; if let Some(at) = active.as_mut() && let Some(removed_task) = at.remove_task(&turn_context.sub_id) { records_turn_token_usage_on_span = removed_task.records_turn_token_usage_on_span; if removed_task.active_turn_is_empty { should_clear_active_turn = true; let turn_state = Arc::clone(&at.turn_state); Some(turn_state) } else { None } } else { None } }; if let Some(turn_state) = turn_state.as_ref() { pending_input = self .input_queue .take_pending_input_for_turn_state(turn_state.as_ref()) .await; let ts = turn_state.lock().await; turn_had_memory_citation = ts.has_memory_citation; turn_tool_calls = ts.tool_calls; token_usage_at_turn_start = Some(ts.token_usage_at_turn_start.clone()); } if !pending_input.is_empty() { for pending_input_item in pending_input { match inspect_pending_input(self, &turn_context, pending_input_item).await { PendingInputHookDisposition::Accepted(pending_input) => { record_pending_input(self, &turn_context, *pending_input).await; } PendingInputHookDisposition::Blocked { additional_contexts, } => { record_additional_contexts(self, &turn_context, additional_contexts).await; } } } } // Emit token usage metrics. if let Some(token_usage_at_turn_start) = token_usage_at_turn_start { // TODO(jif): drop this let tmp_mem = ( "tmp_mem_enabled", if self.enabled(Feature::MemoryTool) { "true" } else { "false" }, ); let network_proxy_active = match self.services.network_proxy.as_ref() { Some(started_network_proxy) => { match started_network_proxy.proxy().current_cfg().await { Ok(config) => config.network.enabled, Err(err) => { warn!( "failed to read managed network proxy state for turn metrics: {err:#}" ); false } } } None => false, }; emit_turn_network_proxy_metric( &self.services.session_telemetry, network_proxy_active, tmp_mem, ); self.services.session_telemetry.histogram( TURN_TOOL_CALL_METRIC, i64::try_from(turn_tool_calls).unwrap_or(i64::MAX), &[tmp_mem], ); let total_token_usage = self.total_token_usage().await.unwrap_or_default(); let turn_token_usage = TokenUsage { input_tokens: (total_token_usage.input_tokens - token_usage_at_turn_start.input_tokens) .max(0), cached_input_tokens: (total_token_usage.cached_input_tokens - token_usage_at_turn_start.cached_input_tokens) .max(0), output_tokens: (total_token_usage.output_tokens - token_usage_at_turn_start.output_tokens) .max(0), reasoning_output_tokens: (total_token_usage.reasoning_output_tokens - token_usage_at_turn_start.reasoning_output_tokens) .max(0), total_tokens: (total_token_usage.total_tokens - token_usage_at_turn_start.total_tokens) .max(0), }; if records_turn_token_usage_on_span { let current_span = Span::current(); current_span.record( "codex.turn.token_usage.input_tokens", turn_token_usage.input_tokens, ); current_span.record( "codex.turn.token_usage.cached_input_tokens", turn_token_usage.cached_input(), ); current_span.record( "codex.turn.token_usage.non_cached_input_tokens", turn_token_usage.non_cached_input(), ); current_span.record( "codex.turn.token_usage.output_tokens", turn_token_usage.output_tokens, ); current_span.record( "codex.turn.token_usage.reasoning_output_tokens", turn_token_usage.reasoning_output_tokens, ); current_span.record( "codex.turn.token_usage.total_tokens", turn_token_usage.total_tokens, ); } self.services .analytics_events_client .track_turn_token_usage(TurnTokenUsageFact { turn_id: turn_context.sub_id.clone(), thread_id: self.conversation_id.to_string(), token_usage: turn_token_usage.clone(), }); self.services.session_telemetry.histogram( TURN_TOKEN_USAGE_METRIC, turn_token_usage.total_tokens, &[("token_type", "total"), tmp_mem], ); self.services.session_telemetry.histogram( TURN_TOKEN_USAGE_METRIC, turn_token_usage.input_tokens, &[("token_type", "input"), tmp_mem], ); self.services.session_telemetry.histogram( TURN_TOKEN_USAGE_METRIC, turn_token_usage.cached_input(), &[("token_type", "cached_input"), tmp_mem], ); self.services.session_telemetry.histogram( TURN_TOKEN_USAGE_METRIC, turn_token_usage.output_tokens, &[("token_type", "output"), tmp_mem], ); self.services.session_telemetry.histogram( TURN_TOKEN_USAGE_METRIC, turn_token_usage.reasoning_output_tokens, &[("token_type", "reasoning_output"), tmp_mem], ); } emit_turn_memory_metric( &self.services.session_telemetry, turn_context.features.enabled(Feature::MemoryTool), turn_context.config.memories.use_memories, turn_had_memory_citation, ); let (completed_at, duration_ms) = turn_context .turn_timing_state .completed_at_and_duration_ms() .await; let time_to_first_token_ms = turn_context .turn_timing_state .time_to_first_token_ms() .await; if should_clear_active_turn { self.emit_turn_stop_lifecycle(turn_context.extension_data.as_ref()) .await; } if let Err(err) = self .goal_runtime_apply(GoalRuntimeEvent::TurnFinished { turn_context: turn_context.as_ref(), turn_completed: should_clear_active_turn, }) .await { warn!("failed to apply goal runtime turn-finished event: {err}"); } let event = EventMsg::TurnComplete(TurnCompleteEvent { turn_id: turn_context.sub_id.clone(), last_agent_message, completed_at, duration_ms, time_to_first_token_ms, }); self.send_event(turn_context.as_ref(), event).await; self.services .guardian_rejection_circuit_breaker .lock() .await .clear_turn(&turn_context.sub_id); if should_clear_active_turn { let cleared_active_turn = { let mut active = self.active_turn.lock().await; if let Some(active_turn) = active.as_ref() && active_turn.tasks.is_empty() && turn_state .as_ref() .is_some_and(|turn_state| Arc::ptr_eq(&active_turn.turn_state, turn_state)) { *active = None; true } else { false } }; if !cleared_active_turn { return; } if let Err(err) = self .goal_runtime_apply(GoalRuntimeEvent::MaybeContinueIfIdle) .await { warn!("failed to apply goal runtime maybe-continue event: {err}"); } } } async fn take_active_turn(&self) -> Option { let mut active = self.active_turn.lock().await; active.take() } pub(crate) async fn close_unified_exec_processes(&self) { self.services .unified_exec_manager .terminate_all_processes() .await; } async fn handle_task_abort(self: &Arc, task: RunningTask, reason: TurnAbortReason) { let sub_id = task.turn_context.sub_id.clone(); if task.cancellation_token.is_cancelled() { return; } trace!(task_kind = ?task.kind, sub_id, "aborting running task"); task.cancellation_token.cancel(); task.turn_context .turn_metadata_state .cancel_git_enrichment_task(); let session_task = task.task; select! { _ = task.done.notified() => { }, _ = tokio::time::sleep(Duration::from_millis(GRACEFULL_INTERRUPTION_TIMEOUT_MS)) => { warn!("task {sub_id} didn't complete gracefully after {}ms", GRACEFULL_INTERRUPTION_TIMEOUT_MS); } } task.handle.abort(); let session_ctx = Arc::new(SessionTaskContext::new( Arc::clone(self), Arc::clone(&task.turn_extension_data), )); session_task .abort(session_ctx, Arc::clone(&task.turn_context)) .await; if reason == TurnAbortReason::Interrupted && let Some(marker) = interrupted_turn_history_marker( InterruptedTurnHistoryMarker::from_config(task.turn_context.config.as_ref()), ) { self.record_into_history(std::slice::from_ref(&marker), task.turn_context.as_ref()) .await; self.persist_rollout_items(&[RolloutItem::ResponseItem(marker)]) .await; // Ensure the marker is durably visible before emitting TurnAborted: some clients // synchronously re-read the rollout on receipt of the abort event. if let Err(err) = self.flush_rollout().await { warn!("failed to flush interrupted-turn marker before emitting TurnAborted: {err}"); } } let (completed_at, duration_ms) = task .turn_context .turn_timing_state .completed_at_and_duration_ms() .await; let event = EventMsg::TurnAborted(TurnAbortedEvent { turn_id: Some(task.turn_context.sub_id.clone()), reason, completed_at, duration_ms, }); self.send_event(task.turn_context.as_ref(), event).await; self.services .guardian_rejection_circuit_breaker .lock() .await .clear_turn(&task.turn_context.sub_id); } } #[cfg(test)] #[path = "mod_tests.rs"] mod tests;