Files
optimclaw/tests/e2e_routine_heartbeat.rs
T
6831bb4d7b fix: full_job routine concurrency tracks linked job lifetime (#1372)
* fix: add FullJobWatcher to track full_job lifecycle for concurrency (#1318)

full_job routines previously bypassed max_concurrent and global concurrency
limits because execute_full_job() returned RunStatus::Ok immediately after
dispatch. This meant running_count was decremented and the routine_run row
was finalized before the actual job completed.

Introduce FullJobWatcher struct that polls store.get_job() every 5s until
the linked job reaches a non-active state, then maps the final JobState to
RunStatus. execute_full_job now creates and awaits the watcher, keeping both
the DB-level running row and the in-memory running_count elevated for the
full job duration.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>

* test: full_job concurrency regression tests (issue #1318)

Add two integration tests verifying full_job routine concurrency:

1. full_job_max_concurrent_blocks_second_fire_while_first_active:
   Inserts a Running routine_run (simulating an in-flight full_job) and
   verifies fire_manual returns MaxConcurrent error for max_concurrent=1.

2. global_concurrency_counts_live_full_job_runs:
   Elevates running_count to simulate a live full_job holding the global
   slot, verifies check_cron_triggers skips due routines, then releases
   the slot and verifies the routine fires.

Also makes running_count_for_test() unconditionally public so integration
tests (separate crate) can access it.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>

* style: fmt and clippy fixes for full_job concurrency tests

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>

* fix: address PR review feedback on FullJobWatcher

- Add #[doc(hidden)] to running_count_for_test() to hide from public API
- Derive MAX_POLLS from POLL_INTERVAL to keep constants coupled
- Check job state before first sleep to finalize promptly for fast jobs
- Update execute_full_job doc comment to reflect blocking behavior

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>

---------

Co-authored-by: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-18 12:29:58 -07:00

1033 lines
34 KiB
Rust

//! E2E tests: routine engine and heartbeat (#575).
//!
//! These tests construct RoutineEngine and HeartbeatRunner directly
//! with a TraceLlm and libSQL database, bypassing the full TestRig.
#[cfg(feature = "libsql")]
mod support;
#[cfg(feature = "libsql")]
mod tests {
use std::sync::Arc;
use std::time::Duration;
use chrono::Utc;
use uuid::Uuid;
use ironclaw::agent::routine::{
NotifyConfig, Routine, RoutineAction, RoutineGuardrails, Trigger,
};
use ironclaw::agent::routine_engine::RoutineEngine;
use ironclaw::agent::{HeartbeatConfig, HeartbeatRunner};
use ironclaw::channels::IncomingMessage;
use ironclaw::config::{RoutineConfig, SafetyConfig};
use ironclaw::db::Database;
use ironclaw::safety::SafetyLayer;
use ironclaw::tools::ToolRegistry;
use ironclaw::workspace::Workspace;
use ironclaw::workspace::hygiene::HygieneConfig;
use crate::support::trace_llm::{LlmTrace, TraceLlm, TraceResponse, TraceStep};
/// Create a temp libSQL database with migrations applied.
async fn create_test_db() -> (Arc<dyn Database>, tempfile::TempDir) {
use ironclaw::db::libsql::LibSqlBackend;
let temp_dir = tempfile::tempdir().expect("tempdir");
let db_path = temp_dir.path().join("test.db");
let backend = LibSqlBackend::new_local(&db_path)
.await
.expect("LibSqlBackend");
backend.run_migrations().await.expect("migrations");
let db: Arc<dyn Database> = Arc::new(backend);
(db, temp_dir)
}
/// Create a workspace backed by the test database.
fn create_workspace(db: &Arc<dyn Database>) -> Arc<Workspace> {
Arc::new(Workspace::new_with_db("default", db.clone()))
}
fn make_message(
channel: &str,
user_id: &str,
owner_id: &str,
sender_id: &str,
content: &str,
) -> IncomingMessage {
IncomingMessage::new(channel, user_id, content)
.with_owner_id(owner_id)
.with_sender_id(sender_id)
.with_metadata(serde_json::json!({}))
}
/// Helper to insert a routine directly into the database.
fn make_routine(name: &str, trigger: Trigger, prompt: &str) -> Routine {
Routine {
id: Uuid::new_v4(),
name: name.to_string(),
description: format!("Test routine: {name}"),
user_id: "default".to_string(),
enabled: true,
trigger,
action: RoutineAction::Lightweight {
prompt: prompt.to_string(),
context_paths: vec![],
max_tokens: 1000,
use_tools: false,
max_tool_rounds: 3,
},
guardrails: RoutineGuardrails {
cooldown: Duration::from_secs(0),
max_concurrent: 5,
dedup_window: None,
},
notify: NotifyConfig::default(),
last_run_at: None,
next_fire_at: None,
run_count: 0,
consecutive_failures: 0,
state: serde_json::json!({}),
created_at: Utc::now(),
updated_at: Utc::now(),
}
}
// -----------------------------------------------------------------------
// Test 1: cron_routine_fires
// -----------------------------------------------------------------------
#[tokio::test]
async fn cron_routine_fires() {
let (db, _tmp) = create_test_db().await;
let ws = create_workspace(&db);
// Create a TraceLlm that responds with ROUTINE_OK.
let trace = LlmTrace::single_turn(
"test-cron-fire",
"check",
vec![TraceStep {
request_hint: None,
response: TraceResponse::Text {
content: "ROUTINE_OK".to_string(),
input_tokens: 50,
output_tokens: 5,
},
expected_tool_results: vec![],
}],
);
let llm = Arc::new(TraceLlm::from_trace(trace));
let (notify_tx, mut notify_rx) = tokio::sync::mpsc::channel(16);
// Create minimal ToolRegistry and SafetyLayer for test.
let tools = Arc::new(ToolRegistry::new());
let safety_config = SafetyConfig {
max_output_length: 100_000,
injection_check_enabled: true,
};
let safety = Arc::new(SafetyLayer::new(&safety_config));
let engine = Arc::new(RoutineEngine::new(
RoutineConfig::default(),
db.clone(),
llm,
ws,
notify_tx,
None,
tools,
safety,
));
// Insert a cron routine with next_fire_at in the past.
let mut routine = make_routine(
"cron-test",
Trigger::Cron {
schedule: "* * * * *".to_string(),
timezone: None,
},
"Check system status.",
);
routine.next_fire_at = Some(Utc::now() - chrono::Duration::minutes(5));
db.create_routine(&routine).await.expect("create_routine");
// Fire cron triggers.
engine.check_cron_triggers().await;
// Give the spawned task time to execute.
tokio::time::sleep(Duration::from_millis(500)).await;
// Verify a run was recorded.
let runs = db
.list_routine_runs(routine.id, 10)
.await
.expect("list_routine_runs");
assert!(
!runs.is_empty(),
"Expected at least one routine run after cron trigger"
);
// Notification may or may not be sent depending on config;
// just verify no panic occurred. Drain the channel.
let _ = notify_rx.try_recv();
}
// -----------------------------------------------------------------------
// Test 2: event_trigger_matches
// -----------------------------------------------------------------------
#[tokio::test]
async fn event_trigger_matches() {
let (db, _tmp) = create_test_db().await;
let ws = create_workspace(&db);
let trace = LlmTrace::single_turn(
"test-event-match",
"deploy",
vec![TraceStep {
request_hint: None,
response: TraceResponse::Text {
content: "Deployment detected".to_string(),
input_tokens: 50,
output_tokens: 10,
},
expected_tool_results: vec![],
}],
);
let llm = Arc::new(TraceLlm::from_trace(trace));
let (notify_tx, _notify_rx) = tokio::sync::mpsc::channel(16);
// Create minimal ToolRegistry and SafetyLayer for test.
let tools = Arc::new(ToolRegistry::new());
let safety_config = SafetyConfig {
max_output_length: 100_000,
injection_check_enabled: true,
};
let safety = Arc::new(SafetyLayer::new(&safety_config));
let engine = Arc::new(RoutineEngine::new(
RoutineConfig::default(),
db.clone(),
llm,
ws,
notify_tx,
None,
tools,
safety,
));
// Insert an event routine matching "deploy.*production".
let routine = make_routine(
"deploy-watcher",
Trigger::Event {
channel: None,
pattern: "deploy.*production".to_string(),
},
"Report on deployment.",
);
db.create_routine(&routine).await.expect("create_routine");
// Refresh the event cache so the engine knows about the routine.
engine.refresh_event_cache().await;
// Positive match: message containing "deploy to production".
let matching_msg = make_message(
"test",
"default",
"default",
"default",
"deploy to production now",
);
let fired = engine
.check_event_triggers(
&matching_msg.user_id,
&matching_msg.channel,
&matching_msg.content,
)
.await;
assert!(
fired >= 1,
"Expected >= 1 routine fired on match, got {fired}"
);
// Give spawn time.
tokio::time::sleep(Duration::from_millis(500)).await;
// Negative match: message that doesn't match.
let non_matching_msg = make_message(
"test",
"default",
"default",
"default",
"check the staging environment",
);
let fired_neg = engine
.check_event_triggers(
&non_matching_msg.user_id,
&non_matching_msg.channel,
&non_matching_msg.content,
)
.await;
assert_eq!(fired_neg, 0, "Expected 0 routines fired on non-match");
}
#[tokio::test]
async fn event_trigger_respects_message_user_scope() {
let (db, _tmp) = create_test_db().await;
let ws = create_workspace(&db);
let trace = LlmTrace::single_turn(
"test-event-user-scope",
"deploy",
vec![TraceStep {
request_hint: None,
response: TraceResponse::Text {
content: "Owner event handled".to_string(),
input_tokens: 50,
output_tokens: 8,
},
expected_tool_results: vec![],
}],
);
let llm = Arc::new(TraceLlm::from_trace(trace));
let (notify_tx, _notify_rx) = tokio::sync::mpsc::channel(16);
let tools = Arc::new(ToolRegistry::new());
let safety = Arc::new(SafetyLayer::new(&SafetyConfig {
max_output_length: 100_000,
injection_check_enabled: true,
}));
let engine = Arc::new(RoutineEngine::new(
RoutineConfig::default(),
db.clone(),
llm,
ws,
notify_tx,
None,
tools,
safety,
));
let routine = make_routine(
"owner-deploy-watcher",
Trigger::Event {
channel: None,
pattern: "deploy.*production".to_string(),
},
"Report on deployment.",
);
db.create_routine(&routine).await.expect("create_routine");
engine.refresh_event_cache().await;
let guest_msg = make_message(
"telegram",
"guest",
"default",
"guest-sender",
"deploy to production now",
);
let guest_fired = engine
.check_event_triggers(&guest_msg.user_id, &guest_msg.channel, &guest_msg.content)
.await;
assert_eq!(
guest_fired, 0,
"Guest scope must not fire owner event routines"
);
tokio::time::sleep(Duration::from_millis(200)).await;
let guest_runs = db
.list_routine_runs(routine.id, 10)
.await
.expect("list_routine_runs after guest message");
assert!(
guest_runs.is_empty(),
"Guest message should not create routine runs"
);
let owner_msg = make_message(
"telegram",
"default",
"default",
"owner-sender",
"deploy to production now",
);
let owner_fired = engine
.check_event_triggers(&owner_msg.user_id, &owner_msg.channel, &owner_msg.content)
.await;
assert!(
owner_fired >= 1,
"Owner scope should fire matching owner event routine"
);
tokio::time::sleep(Duration::from_millis(500)).await;
let owner_runs = db
.list_routine_runs(routine.id, 10)
.await
.expect("list_routine_runs after owner message");
assert_eq!(
owner_runs.len(),
1,
"Owner message should create exactly one run"
);
}
// -----------------------------------------------------------------------
// Test 3: system_event_trigger_matches_and_filters
// -----------------------------------------------------------------------
#[tokio::test]
async fn system_event_trigger_matches_and_filters() {
let (db, _tmp) = create_test_db().await;
let ws = create_workspace(&db);
let trace = LlmTrace::single_turn(
"test-system-event-match",
"event",
vec![TraceStep {
request_hint: None,
response: TraceResponse::Text {
content: "System event handled".to_string(),
input_tokens: 40,
output_tokens: 8,
},
expected_tool_results: vec![],
}],
);
let llm = Arc::new(TraceLlm::from_trace(trace));
let (notify_tx, _notify_rx) = tokio::sync::mpsc::channel(16);
// Create minimal ToolRegistry and SafetyLayer for test.
let tools = Arc::new(ToolRegistry::new());
let safety_config = SafetyConfig {
max_output_length: 100_000,
injection_check_enabled: true,
};
let safety = Arc::new(SafetyLayer::new(&safety_config));
let engine = Arc::new(RoutineEngine::new(
RoutineConfig::default(),
db.clone(),
llm,
ws,
notify_tx,
None,
tools,
safety,
));
let mut filters = std::collections::HashMap::new();
filters.insert("repository".to_string(), "nearai/ironclaw".to_string());
let routine = make_routine(
"github-issue-opened",
Trigger::SystemEvent {
source: "github".to_string(),
event_type: "issue.opened".to_string(),
filters,
},
"Summarize the issue and propose an implementation plan.",
);
db.create_routine(&routine).await.expect("create_routine");
engine.refresh_event_cache().await;
// Matching event should fire.
let fired = engine
.emit_system_event(
"github",
"issue.opened",
&serde_json::json!({
"repository": "nearai/ironclaw",
"issue_number": 42
}),
Some("default"),
)
.await;
assert_eq!(fired, 1, "Expected one routine to fire for matching event");
tokio::time::sleep(Duration::from_millis(300)).await;
let runs = db
.list_routine_runs(routine.id, 10)
.await
.expect("list runs");
assert!(
!runs.is_empty(),
"Expected run history after matching event"
);
// Wrong event type should not fire.
let fired_wrong_type = engine
.emit_system_event(
"github",
"issue.closed",
&serde_json::json!({"repository": "nearai/ironclaw"}),
Some("default"),
)
.await;
assert_eq!(
fired_wrong_type, 0,
"Expected no routine for wrong event type"
);
// Wrong filter value should not fire.
let fired_wrong_filter = engine
.emit_system_event(
"github",
"issue.opened",
&serde_json::json!({"repository": "other/repo"}),
Some("default"),
)
.await;
assert_eq!(
fired_wrong_filter, 0,
"Expected no routine for filter mismatch"
);
// Case-insensitive source/event_type should still match.
let fired_case = engine
.emit_system_event(
"GitHub",
"Issue.Opened",
&serde_json::json!({
"repository": "nearai/ironclaw",
"issue_number": 99
}),
Some("default"),
)
.await;
assert_eq!(
fired_case, 1,
"Expected case-insensitive match on source/event_type"
);
// Case-insensitive filter values should match.
let fired_filter_case = engine
.emit_system_event(
"github",
"issue.opened",
&serde_json::json!({"repository": "NearAI/IronClaw"}),
Some("default"),
)
.await;
assert_eq!(
fired_filter_case, 1,
"Expected case-insensitive match on filter values"
);
}
#[tokio::test]
async fn routine_cooldown() {
let (db, _tmp) = create_test_db().await;
let ws = create_workspace(&db);
// Need two LLM responses (one for the first fire).
let trace = LlmTrace::single_turn(
"test-cooldown",
"check",
vec![TraceStep {
request_hint: None,
response: TraceResponse::Text {
content: "ROUTINE_OK".to_string(),
input_tokens: 50,
output_tokens: 5,
},
expected_tool_results: vec![],
}],
);
let llm = Arc::new(TraceLlm::from_trace(trace));
let (notify_tx, _notify_rx) = tokio::sync::mpsc::channel(16);
// Create minimal ToolRegistry and SafetyLayer for test.
let tools = Arc::new(ToolRegistry::new());
let safety_config = SafetyConfig {
max_output_length: 100_000,
injection_check_enabled: true,
};
let safety = Arc::new(SafetyLayer::new(&safety_config));
let engine = Arc::new(RoutineEngine::new(
RoutineConfig::default(),
db.clone(),
llm,
ws,
notify_tx,
None,
tools,
safety,
));
// Insert an event routine with 1-hour cooldown.
let mut routine = make_routine(
"cooldown-test",
Trigger::Event {
channel: None,
pattern: "test-cooldown".to_string(),
},
"Check status.",
);
routine.guardrails.cooldown = Duration::from_secs(3600);
db.create_routine(&routine).await.expect("create_routine");
engine.refresh_event_cache().await;
// First fire should work.
let msg = make_message(
"test",
"default",
"default",
"default",
"test-cooldown trigger",
);
let fired1 = engine
.check_event_triggers(&msg.user_id, &msg.channel, &msg.content)
.await;
assert!(fired1 >= 1, "First fire should work");
// Give spawn time, then update last_run_at to simulate recent execution.
tokio::time::sleep(Duration::from_millis(300)).await;
// Update the routine's last_run_at to now (simulating it just ran).
db.update_routine_runtime(routine.id, Utc::now(), None, 1, 0, &serde_json::json!({}))
.await
.expect("update_routine_runtime");
// Refresh cache to pick up updated last_run_at.
engine.refresh_event_cache().await;
// Second fire should be blocked by cooldown.
let fired2 = engine
.check_event_triggers(&msg.user_id, &msg.channel, &msg.content)
.await;
assert_eq!(fired2, 0, "Second fire should be blocked by cooldown");
}
// -----------------------------------------------------------------------
// Test 5: heartbeat_findings
// -----------------------------------------------------------------------
#[tokio::test]
async fn heartbeat_findings() {
let (db, _tmp) = create_test_db().await;
let ws = create_workspace(&db);
// Write a real heartbeat checklist.
ws.write(
"HEARTBEAT.md",
"# Heartbeat Checklist\n\n- [ ] Check if the server is running\n- [ ] Review error logs",
)
.await
.expect("write heartbeat");
// LLM responds with findings (not HEARTBEAT_OK).
let trace = LlmTrace::single_turn(
"test-heartbeat-findings",
"heartbeat",
vec![TraceStep {
request_hint: None,
response: TraceResponse::Text {
content: "The server has elevated error rates. Review the logs immediately."
.to_string(),
input_tokens: 100,
output_tokens: 20,
},
expected_tool_results: vec![],
}],
);
let llm = Arc::new(TraceLlm::from_trace(trace));
let (tx, mut rx) = tokio::sync::mpsc::channel(16);
let hygiene_config = HygieneConfig {
enabled: false,
daily_retention_days: 30,
conversation_retention_days: 7,
cadence_hours: 24,
state_dir: _tmp.path().to_path_buf(),
};
let runner = HeartbeatRunner::new(HeartbeatConfig::default(), hygiene_config, ws, llm)
.with_response_channel(tx);
let result = runner.check_heartbeat().await;
match result {
ironclaw::agent::HeartbeatResult::NeedsAttention(msg) => {
assert!(
msg.contains("error"),
"Expected 'error' in attention message: {msg}"
);
}
other => panic!("Expected NeedsAttention, got: {other:?}"),
}
// No notification since we called check_heartbeat directly (not run).
let _ = rx.try_recv();
}
// -----------------------------------------------------------------------
// Test 6: heartbeat_empty_skip
// -----------------------------------------------------------------------
#[tokio::test]
async fn heartbeat_empty_skip() {
let (db, _tmp) = create_test_db().await;
let ws = create_workspace(&db);
// Write an effectively empty heartbeat (just headers and comments).
ws.write(
"HEARTBEAT.md",
"# Heartbeat Checklist\n\n<!-- No tasks yet -->\n",
)
.await
.expect("write heartbeat");
// LLM should NOT be called, so provide a trace that would panic if called.
let trace = LlmTrace::single_turn("test-heartbeat-skip", "skip", vec![]);
let llm = Arc::new(TraceLlm::from_trace(trace));
let hygiene_config = HygieneConfig {
enabled: false,
daily_retention_days: 30,
conversation_retention_days: 7,
cadence_hours: 24,
state_dir: _tmp.path().to_path_buf(),
};
let runner = HeartbeatRunner::new(HeartbeatConfig::default(), hygiene_config, ws, llm);
let result = runner.check_heartbeat().await;
assert!(
matches!(result, ironclaw::agent::HeartbeatResult::Skipped),
"Expected Skipped for empty checklist, got: {result:?}"
);
}
/// Helper to set up a test environment for routine engine mutation tests.
/// Returns the engine, database, and temp directory.
async fn setup_routine_mutation_test()
-> (Arc<RoutineEngine>, Arc<dyn Database>, tempfile::TempDir) {
let (db, dir) = create_test_db().await;
let ws = create_workspace(&db);
let (notify_tx, _rx) = tokio::sync::mpsc::channel(16);
let tools = Arc::new(ToolRegistry::new());
let safety_config = SafetyConfig {
max_output_length: 100_000,
injection_check_enabled: true,
};
let safety = Arc::new(SafetyLayer::new(&safety_config));
let trace = LlmTrace::single_turn(
"test-routine-mutation",
"test",
vec![TraceStep {
request_hint: None,
response: TraceResponse::Text {
content: "ROUTINE_OK".to_string(),
input_tokens: 50,
output_tokens: 5,
},
expected_tool_results: vec![],
}],
);
let llm = Arc::new(TraceLlm::from_trace(trace));
let engine = Arc::new(RoutineEngine::new(
RoutineConfig::default(),
Arc::clone(&db),
llm,
ws,
notify_tx,
None,
tools,
safety,
));
(engine, db, dir)
}
/// Regression test for issue #1076: disabling an event routine via a DB mutation
/// followed by refresh_event_cache() (the path now taken by the web toggle handler)
/// must immediately stop the routine from firing.
#[tokio::test]
async fn toggle_disabling_event_routine_removes_from_cache() {
let (engine, db, _dir) = setup_routine_mutation_test().await;
// Create and cache an event routine.
let mut routine = make_routine(
"disable-me",
Trigger::Event {
pattern: "DISABLE_ME".to_string(),
channel: None,
},
"Handle DISABLE_ME event",
);
db.create_routine(&routine).await.expect("create_routine");
engine.refresh_event_cache().await;
let msg = IncomingMessage::new("test", "default", "DISABLE_ME");
let fired_before = engine
.check_event_triggers(&msg.user_id, &msg.channel, &msg.content)
.await;
assert!(fired_before >= 1, "Expected routine to fire before disable");
// Simulate what routines_toggle_handler now does: update DB, then refresh.
routine.enabled = false;
routine.updated_at = Utc::now();
db.update_routine(&routine).await.expect("update_routine");
engine.refresh_event_cache().await;
let fired_after = engine
.check_event_triggers(&msg.user_id, &msg.channel, &msg.content)
.await;
assert_eq!(
fired_after, 0,
"Disabled routine must not fire after cache refresh"
);
}
/// Regression test for issue #1076: deleting an event routine via a DB mutation
/// followed by refresh_event_cache() must immediately stop the routine from firing.
#[tokio::test]
async fn delete_event_routine_removes_from_cache() {
let (engine, db, _dir) = setup_routine_mutation_test().await;
let routine = make_routine(
"delete-me",
Trigger::Event {
pattern: "DELETE_ME".to_string(),
channel: None,
},
"Handle DELETE_ME event",
);
db.create_routine(&routine).await.expect("create_routine");
engine.refresh_event_cache().await;
let msg = IncomingMessage::new("test", "default", "DELETE_ME");
assert!(
engine
.check_event_triggers(&msg.user_id, &msg.channel, &msg.content)
.await
>= 1,
"Expected routine to fire before delete"
);
// Simulate what routines_delete_handler now does: delete from DB, then refresh.
db.delete_routine(routine.id).await.expect("delete_routine");
engine.refresh_event_cache().await;
assert_eq!(
engine
.check_event_triggers(&msg.user_id, &msg.channel, &msg.content)
.await,
0,
"Deleted routine must not fire after cache refresh"
);
}
// -----------------------------------------------------------------------
// Test: full_job per-routine concurrency blocks second fire (issue #1318)
// -----------------------------------------------------------------------
#[tokio::test]
async fn full_job_max_concurrent_blocks_second_fire_while_first_active() {
use ironclaw::agent::routine::{
NotifyConfig, Routine, RoutineAction, RoutineGuardrails, RoutineRun, RunStatus, Trigger,
};
use ironclaw::error::RoutineError;
let (db, _tmp) = create_test_db().await;
let ws = create_workspace(&db);
// Stub LLM — fire_manual will be rejected before any LLM call
let trace = LlmTrace::single_turn(
"stub",
"stub",
vec![TraceStep {
request_hint: None,
response: TraceResponse::Text {
content: "ROUTINE_OK".to_string(),
input_tokens: 10,
output_tokens: 5,
},
expected_tool_results: vec![],
}],
);
let llm = Arc::new(TraceLlm::from_trace(trace));
let (notify_tx, _notify_rx) = tokio::sync::mpsc::channel(4);
let tools = Arc::new(ToolRegistry::new());
let safety = Arc::new(SafetyLayer::new(&SafetyConfig {
max_output_length: 100_000,
injection_check_enabled: false,
}));
let engine = Arc::new(RoutineEngine::new(
RoutineConfig::default(),
db.clone(),
llm,
ws,
notify_tx,
None, // no scheduler — rejected before dispatch
tools,
safety,
));
// Create a full_job routine with max_concurrent = 1
let routine = Routine {
id: Uuid::new_v4(),
name: "concurrent-guard".to_string(),
description: "test max_concurrent for full_job".to_string(),
user_id: "default".to_string(),
enabled: true,
trigger: Trigger::Manual,
action: RoutineAction::FullJob {
title: "t".to_string(),
description: "d".to_string(),
max_iterations: 3,
tool_permissions: vec![],
},
guardrails: RoutineGuardrails {
cooldown: Duration::from_secs(0),
max_concurrent: 1,
dedup_window: None,
},
notify: NotifyConfig::default(),
last_run_at: None,
next_fire_at: None,
run_count: 0,
consecutive_failures: 0,
state: serde_json::json!({}),
created_at: Utc::now(),
updated_at: Utc::now(),
};
db.create_routine(&routine).await.expect("create_routine");
// Simulate first full_job run still active: the fix keeps the
// routine_run in Running state while the linked job executes.
let active_run = RoutineRun {
id: Uuid::new_v4(),
routine_id: routine.id,
trigger_type: "cron".to_string(),
trigger_detail: None,
started_at: Utc::now(),
completed_at: None,
status: RunStatus::Running,
result_summary: None,
tokens_used: None,
job_id: None,
created_at: Utc::now(),
};
db.create_routine_run(&active_run)
.await
.expect("create_routine_run");
// Attempt to fire the same routine again — must be rejected
let result = engine.fire_manual(routine.id, None).await;
assert!(
matches!(result, Err(RoutineError::MaxConcurrent { .. })),
"second fire while first full_job active must be rejected by max_concurrent=1, got: {:?}",
result
);
}
// -----------------------------------------------------------------------
// Test: global running_count tracks live full_job runs (issue #1318)
// -----------------------------------------------------------------------
#[tokio::test]
async fn global_concurrency_counts_live_full_job_runs() {
use std::sync::atomic::Ordering;
let (db, _tmp) = create_test_db().await;
let ws = create_workspace(&db);
let trace = LlmTrace::single_turn(
"test-global-limit",
"check",
vec![TraceStep {
request_hint: None,
response: TraceResponse::Text {
content: "ROUTINE_OK".to_string(),
input_tokens: 50,
output_tokens: 5,
},
expected_tool_results: vec![],
}],
);
let llm = Arc::new(TraceLlm::from_trace(trace));
let (notify_tx, _notify_rx) = tokio::sync::mpsc::channel(16);
let tools = Arc::new(ToolRegistry::new());
let safety = Arc::new(SafetyLayer::new(&SafetyConfig {
max_output_length: 100_000,
injection_check_enabled: true,
}));
// Configure global limit of 1
let config = RoutineConfig {
max_concurrent_routines: 1,
..RoutineConfig::default()
};
let engine = Arc::new(RoutineEngine::new(
config,
db.clone(),
llm,
ws,
notify_tx,
None,
tools,
safety,
));
// Insert a due cron routine
let mut routine = make_routine(
"global-limit-test",
Trigger::Cron {
schedule: "* * * * *".to_string(),
timezone: None,
},
"Check status.",
);
routine.next_fire_at = Some(Utc::now() - chrono::Duration::minutes(1));
db.create_routine(&routine).await.expect("create_routine");
// Simulate one full_job from another routine holding the global slot.
// With the fix, running_count stays elevated for the full job duration.
engine
.running_count_for_test()
.fetch_add(1, Ordering::Relaxed);
// check_cron_triggers should see global limit hit and skip
engine.check_cron_triggers().await;
tokio::time::sleep(Duration::from_millis(100)).await;
let runs = db
.list_routine_runs(routine.id, 10)
.await
.expect("list_routine_runs");
assert!(
runs.is_empty(),
"cron routine must not fire when global limit is reached by live full_job"
);
// Release the global slot
engine
.running_count_for_test()
.fetch_sub(1, Ordering::Relaxed);
// Now the routine should fire
engine.check_cron_triggers().await;
tokio::time::sleep(Duration::from_millis(200)).await;
// Because the first check skipped it, next_fire_at is unchanged —
// the second check should see it as still due and fire it.
let runs_after = db
.list_routine_runs(routine.id, 10)
.await
.expect("list_routine_runs");
assert!(
!runs_after.is_empty(),
"cron routine should fire after global slot is released"
);
}
}