mod app_state; mod archive; mod commands; mod deep_link; mod event_sync; mod events; mod huddle; mod managed_agents; mod media_proxy; #[cfg(feature = "mesh-llm")] mod mesh_llm; mod migration; #[cfg(test)] mod model_tests; mod models; mod nostr_bind; pub mod nostr_convert; mod prevent_sleep; mod ptt_shortcut; mod relay; mod reset; mod secret_store; mod shutdown; mod templates; mod util; #[cfg(not(feature = "mesh-llm"))] mod mesh_llm_stubs; #[cfg(not(feature = "mesh-llm"))] use mesh_llm_stubs::*; use app_state::{build_app_state, resolve_persisted_identity, AppState}; use commands::*; use deep_link::handle_deep_link_url; use huddle::audio_output::{ get_audio_output_device, list_audio_output_devices, set_audio_output_device, }; use huddle::reconnect::reconnect_huddle_audio; use huddle::{ add_agent_to_huddle, check_pipeline_hotstart, confirm_huddle_active, download_voice_models, end_huddle, get_huddle_agent_pubkeys, get_huddle_state, get_model_status, get_voice_input_mode, join_huddle, leave_huddle, push_audio_pcm, set_huddle_transcription_enabled, set_tts_enabled, set_voice_input_mode, speak_agent_message, start_huddle, start_stt_pipeline, }; use managed_agents::{backfill_persona_snapshots, ensure_nest, try_regenerate_nest}; use shutdown::shutdown_managed_agents; use std::sync::{ atomic::{AtomicBool, Ordering}, Arc, }; #[cfg(target_os = "macos")] use tauri::Listener; use tauri::{Emitter, Manager, RunEvent}; use tauri_plugin_window_state::StateFlags; #[cfg(target_os = "macos")] const INITIAL_RENDER_READY_EVENT: &str = "initial-render-ready"; #[tauri::command] fn perform_sidebar_default_haptic() { #[cfg(target_os = "macos")] { use objc2_app_kit::{ NSHapticFeedbackManager, NSHapticFeedbackPattern, NSHapticFeedbackPerformanceTime, NSHapticFeedbackPerformer, }; NSHapticFeedbackManager::defaultPerformer().performFeedbackPattern_performanceTime( NSHapticFeedbackPattern::Alignment, NSHapticFeedbackPerformanceTime::Now, ); } } /// Performs the window action matching the macOS "double-click a window's /// title bar to" preference (`AppleActionOnDoubleClick`). /// /// macOS values are `Minimize`, `Maximize` (default when unset), `Fill`, or /// `None`. /// The desktop app uses a web-based title-bar drag region, so the frontend /// forwards double-clicks here and suppresses Tauri's injected drag-region /// handler, whose default macOS path hardcodes maximize. /// /// For `Fill`, resize to the current monitor work area instead of using /// Tauri's maximize path, which maps to macOS zoom for titled, resizable /// windows. /// /// On non-macOS platforms this always toggles maximize (the historical /// behavior). #[tauri::command] fn title_bar_double_click(window: tauri::Window) { #[cfg(target_os = "macos")] { let action = { let output = std::process::Command::new("defaults") .args(["read", "-g", "AppleActionOnDoubleClick"]) .output(); match output { Ok(output) if output.status.success() => { String::from_utf8_lossy(&output.stdout).trim().to_string() } _ => "Maximize".to_string(), } }; match action.as_str() { "None" => {} "Minimize" => { let _ = window.minimize(); } "Fill" => { fill_window(&window); } // "Maximize" or any unexpected value. _ => { toggle_maximize(&window); } } } #[cfg(not(target_os = "macos"))] { toggle_maximize(&window); } } /// Fills the current display work area, excluding system UI like the menu bar /// and Dock. #[cfg(target_os = "macos")] fn fill_window(window: &tauri::Window) { match window.current_monitor() { Ok(Some(monitor)) => { if window.is_maximized().unwrap_or(false) { let _ = window.unmaximize(); } let work_area = monitor.work_area(); let _ = window.set_position(work_area.position); let _ = window.set_size(work_area.size); } _ => { let _ = window.maximize(); } } } /// Toggles the window between maximized and its previous size, matching the /// historical double-click behavior. fn toggle_maximize(window: &tauri::Window) { match window.is_maximized() { Ok(true) => { let _ = window.unmaximize(); } _ => { let _ = window.maximize(); } } } fn reveal_initial_window(window: &tauri::Window) { if let Err(error) = window.show() { eprintln!("buzz-desktop: failed to reveal main window: {error}"); return; } if let Err(error) = window.set_focus() { eprintln!("buzz-desktop: failed to focus main window: {error}"); } } #[cfg(target_os = "macos")] fn set_initial_window_backing(window: &tauri::Window) { // The window remains transparent at runtime for vibrancy. Use an opaque // native backing only across the first visible frames so the previous app // cannot show through before WebKit has submitted its first surface. if let Err(error) = window.set_background_color(Some(tauri::window::Color(17, 21, 24, 255))) { eprintln!("buzz-desktop: failed to set initial window backing: {error}"); } } #[cfg(target_os = "macos")] async fn clear_initial_window_backing(window: &tauri::Window) { tokio::time::sleep(std::time::Duration::from_millis(250)).await; if let Err(error) = window.set_background_color(None) { eprintln!("buzz-desktop: failed to clear initial window backing: {error}"); } } #[cfg(target_os = "macos")] async fn wait_for_stable_initial_window_geometry(window: &tauri::Window) { const MAX_POLLS: usize = 120; const REQUIRED_STABLE_POLLS: usize = 4; let mut previous_bounds = None; let mut stable_polls = 0; for _ in 0..MAX_POLLS { // Accept whatever geometry the window-state plugin restores — maximized // or a normal saved size. macOS applies the restore asynchronously, so // we only need consecutive identical outer bounds to know it settled. // Gating on `is_maximized()` here would leave `bounds` permanently // `None` for restored non-maximized windows and stall the reveal until // the poll timeout. let bounds = match (window.outer_position(), window.outer_size()) { (Ok(position), Ok(size)) => Some((position.x, position.y, size.width, size.height)), _ => None, }; if bounds.is_some() && bounds == previous_bounds { stable_polls += 1; if stable_polls >= REQUIRED_STABLE_POLLS { return; } } else { stable_polls = 0; } previous_bounds = bounds; tokio::time::sleep(std::time::Duration::from_millis(16)).await; } eprintln!("buzz-desktop: initial window geometry did not settle before reveal timeout"); } #[cfg_attr(mobile, tauri::mobile_entry_point)] pub fn run() { let builder = tauri::Builder::default() .plugin(tauri_plugin_single_instance::init(|app, argv, _cwd| { // Focus the existing window when a duplicate instance launches. if let Some(w) = app.get_webview_window("main") { let _ = w.set_focus(); } // Forward any deep link URLs from the duplicate launch. for arg in &argv { if arg.starts_with("buzz://") { handle_deep_link_url(app, arg); } } })) .plugin(tauri_plugin_deep_link::init()) .plugin(tauri_plugin_notification::init()) .plugin(tauri_plugin_opener::init()) .plugin( tauri_plugin_window_state::Builder::default() // Visibility is excluded: the native reveal plugin below // shows the window after saved geometry has been restored. .with_state_flags(StateFlags::all() & !StateFlags::VISIBLE) .build(), ) .plugin( tauri::plugin::Builder::<_, ()>::new("initial-window-reveal") .on_webview_ready(|webview| { if webview.label() != "main" { return; } // macOS applies the restored geometry asynchronously. Wait // for several identical outer bounds and for React to // commit the startup surface before revealing it. let window = webview.window(); #[cfg(target_os = "macos")] { set_initial_window_backing(&window); let (initial_render_tx, initial_render_rx) = tokio::sync::oneshot::channel(); window .app_handle() .once(INITIAL_RENDER_READY_EVENT, move |_| { let _ = initial_render_tx.send(()); }); tauri::async_runtime::spawn(async move { wait_for_stable_initial_window_geometry(&window).await; if tokio::time::timeout( std::time::Duration::from_secs(5), initial_render_rx, ) .await .is_err() { eprintln!( "buzz-desktop: initial render did not commit before reveal timeout" ); } reveal_initial_window(&window); clear_initial_window_backing(&window).await; }); } #[cfg(not(target_os = "macos"))] { reveal_initial_window(&window); } }) .build(), ) .plugin(tauri_plugin_websocket::init()) .plugin(tauri_plugin_dialog::init()) .plugin(tauri_plugin_process::init()); // The global-shortcut plugin is omitted from test builds: linking it into // the lib-test binary makes it fail to load on Windows // (STATUS_ENTRYPOINT_NOT_FOUND) before any test runs. #[cfg(not(test))] let builder = builder.plugin({ use tauri_plugin_global_shortcut::ShortcutState; // Generation counter for the release delay task. Incremented on // every press — a delayed release only fires if the generation // hasn't changed (i.e. no new press happened during the delay). // This prevents press→release→press within 200 ms from having // the first release clobber the second press. let ptt_press_gen = Arc::new(std::sync::atomic::AtomicU64::new(0)); tauri_plugin_global_shortcut::Builder::new() .with_handler(move |app, _shortcut, event| { let state = match app.try_state::() { Some(s) => s, None => return, }; // Only act if a huddle is active and mode is PTT. let (is_ptt_mode, is_active) = match state.huddle_state.lock() { Ok(hs) => ( hs.voice_input_mode == huddle::VoiceInputMode::PushToTalk, matches!( hs.phase, huddle::HuddlePhase::Connected | huddle::HuddlePhase::Active ), ), Err(_) => return, }; if !is_ptt_mode || !is_active { return; } match event.state { ShortcutState::Pressed => { // Bump generation — invalidates any pending release delay. ptt_press_gen.fetch_add(1, std::sync::atomic::Ordering::Release); if let Ok(hs) = state.huddle_state.lock() { hs.ptt_active .store(true, std::sync::atomic::Ordering::Release); // Only cancel TTS if it's actually playing — avoids // a stale cancel flag that drops the next queued message. if hs.tts_active.load(std::sync::atomic::Ordering::Acquire) { hs.tts_cancel .store(true, std::sync::atomic::Ordering::Release); } } // Emit ptt-state=true to the frontend. // The React side plays the press audio cue on this event // (Web Audio API via HuddleContext). Rust-side rodio audio // was considered but rejected: the rodio OutputStream must // outlive the handler and sharing it across the shortcut // closure adds lifecycle complexity for marginal gain. // The React implementation is sufficient and simpler. let _ = app.emit("ptt-state", true); } ShortcutState::Released => { // Capture generation at release time. let gen_at_release = ptt_press_gen.load(std::sync::atomic::Ordering::Acquire); let gen_arc = Arc::clone(&ptt_press_gen); let app_handle = app.clone(); // 200 ms release delay — captures the tail of the utterance. // Only applies if no new press happened during the delay. tauri::async_runtime::spawn(async move { tokio::time::sleep(std::time::Duration::from_millis(200)).await; // Check generation — if it changed, a new press arrived. if gen_arc.load(std::sync::atomic::Ordering::Acquire) != gen_at_release { return; // Superseded by a new press. } if let Some(state) = app_handle.try_state::() { if let Ok(hs) = state.huddle_state.lock() { hs.ptt_active .store(false, std::sync::atomic::Ordering::Release); } } // Emit ptt-state=false — React plays the release audio cue. let _ = app_handle.emit("ptt-state", false); }); } } }) .build() }); // Only register the updater in release builds that were compiled with a // real updater configuration. Local unsigned builds omit that config and // should still launch for debugging. #[cfg(buzz_updater_enabled)] let builder = if cfg!(debug_assertions) { builder } else { builder.plugin(tauri_plugin_updater::Builder::new().build()) }; #[cfg(not(buzz_updater_enabled))] let builder = builder; let app = builder .register_asynchronous_uri_scheme_protocol("buzz-media", |ctx, request, responder| { let app = ctx.app_handle().clone(); tauri::async_runtime::spawn(async move { let response = media_proxy::handle_buzz_media(&app, &request).await; responder.respond(response); }); }) .manage(build_app_state()) .manage(commands::pairing::PairingHandle::new()) .setup(move |app| { let app_handle = app.handle().clone(); // ── Phase 2: boot-time sentinel wipe ────────────────────────────── // Must run before migrations and identity resolution so the wipe // completes atomically on crash recovery. // // init_nest_dir is called early here (normally it runs inside // run_boot_migrations) so reset::run_boot_reset can call nest_dir(). let reset_outcome = if let Ok(data_dir) = app_handle.path().app_data_dir() { let is_dev_for_reset = data_dir .file_name() .and_then(|n| n.to_str()) .map(crate::migration::is_dev_data_dir_name) .unwrap_or(false); crate::managed_agents::init_nest_dir(is_dev_for_reset); crate::reset::run_boot_reset(&data_dir) } else { crate::reset::ResetOutcome::default() }; if reset_outcome.failed { // Surface reset-failed state — skip identity resolution and // all side-effecting setup. The webview still loads so the // frontend can show the recovery screen via get_identity. let state = app_handle.state::(); state .reset_failed .store(true, std::sync::atomic::Ordering::Release); return Ok(()); } // Register the bundled ACP bridge tools dir before anything can // resolve agent commands — resolutions are cached for the app // lifetime, so a resolve that runs before registration would pin // the user-installed copy instead of the bundled one. managed_agents::acp_tools::register_bundled_acp_tools_dir(&app_handle); // Run all pre-identity data migrations before state loads from disk. if reset_outcome.completed { migration::run_boot_migrations_after_reset(&app_handle); } else { migration::run_boot_migrations(&app_handle); } // Resolve persisted identity key (env var → file → generate+save). // This is fatal — the app should not start with an ephemeral identity // that will be lost on restart, as that silently breaks channel // memberships, DMs, and relay identity. let state = app_handle.state::(); if let Err(e) = resolve_persisted_identity(&app_handle, &state) { eprintln!("buzz-desktop: fatal: identity resolution failed: {e}"); std::process::exit(1); } // When the identity is in recovery mode (lost = keyring empty after // migration, or keyring-locked = keyring unreachable but marker // present), all owner-keyed side effects (event sync, agent restore, // relay publish) are skipped. The frontend shows a recovery screen; // the user must relaunch after restoring the identity. let identity_lost = state .identity_lost .load(std::sync::atomic::Ordering::Acquire); let keyring_locked = state .keyring_locked .load(std::sync::atomic::Ordering::Acquire); let recovery_mode = identity_lost || keyring_locked; // Snapshot owner keys after identity resolution; the best-effort // event reconcile itself runs off the synchronous setup path below. let owner_keys = match state.keys.lock() { Ok(k) => k.clone(), Err(e) => { eprintln!("buzz-desktop: fatal: owner keys lock poisoned: {e}"); std::process::exit(1); } }; // Backfill the pinned persona snapshot for any pre-existing agent // that predates the record-authoritative-spawn cutover (persona_id // set but no source_version). Must run before // restore_managed_agents_on_launch so no agent spawns from an empty // snapshot. Synchronous and best-effort — a failure here must not // block launch, but a missing persona is logged loudly inside. if let Err(e) = backfill_persona_snapshots(&app_handle) { eprintln!("buzz-desktop: persona-snapshot backfill failed: {e}"); } // Store the AppHandle so huddle commands can emit `huddle-state-changed` // events via `huddle::emit_huddle_state` without threading the handle // through every call site. if let Ok(mut guard) = state.app_handle.lock() { *guard = Some(app_handle.clone()); } // Bring up the runtime-owned relay-mesh call-me-now listener now, // before any saved agent restore can request a connection. Its // lifetime is tied to the runtime, not a UI mount — this is what // closes the cold-launch hole-punch race. #[cfg(feature = "mesh-llm")] { let mesh_app = app_handle.clone(); tauri::async_runtime::spawn(async move { crate::mesh_llm::spawn_listener(mesh_app).await; }); } // Start the localhost media streaming proxy. Uses the shared HTTP // client so WARP tunnelling applies. The port is stored in AppState // and exposed to the frontend via the `get_media_proxy_port` command. let proxy_client = state.http_client.clone(); let proxy_handle = app_handle.clone(); tauri::async_runtime::spawn(async move { let port = media_proxy::spawn_media_proxy(proxy_client, proxy_handle.clone()).await; let state = proxy_handle.state::(); state .media_proxy_port .store(port, std::sync::atomic::Ordering::Relaxed); }); // Create the Buzz nest (~/.buzz or ~/.buzz-dev for dev builds) before // agents are restored, so default_agent_workdir() resolves to the // nest directory. Non-fatal: agents fall back to $HOME if nest // creation fails. if let Err(error) = ensure_nest() { eprintln!("buzz-desktop: failed to create nest: {error}"); } // Resolve the REPOS symlink from the persisted repos_dir BEFORE // agents are restored below, and decide whether restore is safe. // The frontend's apply_workspace runs only after React mounts — // later than the async agent restore — so without this an agent // could clone into the empty real REPOS dir, and once REPOS is // non-empty ensure_repos_symlink refuses forever. resolve_repos_at_boot // fails closed: if a repos_dir was configured but its symlink could // not be resolved (transiently unavailable external volume), it // returns false so we skip restore this launch rather than let an // agent clone into the wrong REPOS. See managed_agents::repos. let restore_agents = match managed_agents::nest_dir() { Some(nest) => managed_agents::resolve_repos_at_boot(&nest), None => true, }; // Carry the agent's knowledge from the legacy nest (~/.sprout) into // the live nest after it exists. Must run after ensure_nest() so the // destination is present. Non-fatal. // On a real migration, emit a one-time hint so the user can delete // the now-inert ~/.sprout; the frontend dedupes the toast. // Suppressed when a reset completed this boot: the nest was wiped and // a fresh ~/.sprout-less state is exactly what we want. if !reset_outcome.completed && migration::migrate_legacy_nest() { let _ = app_handle.emit("legacy-nest-migrated", ()); } // One-time migration for dev builds: copy accumulated knowledge // from the shared ~/.buzz nest into the new dedicated ~/.buzz-dev // nest so no work is lost when the nest is first namespaced. // Runs only when nest_dir() resolved to ~/.buzz-dev (dev instance). // Suppressed after a reset so re-importing ~/.buzz into ~/.buzz-dev // doesn't re-populate what was just wiped. let is_dev_nest = managed_agents::nest_dir() .and_then(|p| p.file_name().map(|n| n.to_os_string())) .is_some_and(|n| n == ".buzz-dev"); if !reset_outcome.completed && is_dev_nest { migration::migrate_dev_nest(); } // Create/update the local CLI symlink pointing to the // bundled CLI binary. Non-fatal: agents find CLI via PATH. if let Ok(exe) = std::env::current_exe() { if let Some(parent) = exe.parent() { if let Err(error) = managed_agents::ensure_cli_symlink(parent, is_dev_nest) { eprintln!("buzz-desktop: failed to create CLI symlink: {error}"); } } } try_regenerate_nest(&app_handle); // Sync team-dir edits and reconcile persona/team/agent events after // setup can continue. It is best-effort retention backfill, unlike // identity resolution above, so JSON/SQLite/signing work must not // hold the boot path hostage. Skipped in recovery mode — the owner // key is ephemeral. if !recovery_mode { event_sync::spawn_event_sync(app_handle.clone(), owner_keys); } if let Some(mgr) = huddle::models::global_model_manager() { mgr.start_stt_download(state.http_client.clone()); mgr.start_tts_download(state.http_client.clone()); } // Handle deep link URLs received while the app is running (macOS) // and on cold start. The single-instance plugin handles forwarding // from duplicate launches on Windows/Linux. #[cfg(desktop)] { use tauri_plugin_deep_link::DeepLinkExt; let dl_handle = app.handle().clone(); app.deep_link().on_open_url(move |event| { for url in event.urls() { handle_deep_link_url(&dl_handle, url.as_str()); } }); } // Defer launch-time agent restoration until `apply_workspace` has // installed the active workspace relay and identity. Starting here // would race React initialization and send agents whose saved record // has no relay override to the localhost fallback. Preserve the // boot-time repos and identity recovery safety gates by only marking // restoration pending when both allow it. if restore_agents && !recovery_mode { state .managed_agent_restore_pending .store(true, Ordering::Release); } // Periodic sweep: reap orphaned agents from dead instances every 60s. // Catches agents that escaped both the Justfile trap and boot-time // reaping (e.g. a `just staging` Ctrl+C leak that only gets collected // by a different instance's periodic sweep). let sweep_handle = app.handle().clone(); tauri::async_runtime::spawn(async move { use std::collections::HashSet; use std::time::Duration; use tauri::Manager; let instance_id = managed_agents::current_instance_id(&sweep_handle); let state = sweep_handle.state::(); // Two-tick grace: only reap same-instance orphans seen on two // consecutive sweeps. Prevents killing a legitimately-starting // agent that spawned between the skip-list snapshot and the scan. let mut prev_orphans: HashSet = HashSet::new(); loop { tokio::time::sleep(Duration::from_secs(60)).await; // Collect PIDs of our own live agents to avoid killing them. let skip_pids: Vec = state .managed_agent_processes .lock() .map(|runtimes| runtimes.values().map(|rt| rt.child.id()).collect()) .unwrap_or_default(); let prev = prev_orphans.clone(); let inst = instance_id.clone(); // Run the blocking syscall work off the async executor. let new_orphans = tauri::async_runtime::spawn_blocking(move || { let orphans = managed_agents::sweep_system_agent_processes_with_grace( &inst, &skip_pids, &prev, ); managed_agents::reap_dead_instance_agents(&inst, &skip_pids); orphans }) .await .unwrap_or_default(); prev_orphans = new_orphans; } }); // Drain events the retention store flagged `pending_sync` (UI // create/edit, delete tombstones, launch reconcile) to the relay. // One loop is the sole publisher for persona, team, and managed- // agent writers; a relay-unreachable tick leaves rows pending for // the next sweep. // Skipped in recovery mode — flushing under an ephemeral key would // publish events attributed to an identity the user doesn't own. if !recovery_mode { let flush_handle = app.handle().clone(); tauri::async_runtime::spawn(async move { use std::time::Duration; use tauri::Manager; let Ok(db_path) = managed_agents::managed_agents_base_dir(&flush_handle) .map(|d| d.join("retention.db")) else { eprintln!("buzz-desktop: event-flush: cannot resolve retention db path"); return; }; loop { let state = flush_handle.state::(); if let Err(e) = managed_agents::persona_events::flush_pending_events(&db_path, &state) .await { eprintln!("buzz-desktop: event-flush: {e}"); } tokio::time::sleep(Duration::from_secs(30)).await; } }); } Ok(()) }) .invoke_handler(tauri::generate_handler![ title_bar_double_click, get_identity, get_nsec, import_identity, persist_current_identity, get_profile, update_profile, get_user_profile, get_users_batch, get_user_notes, get_git_identity, get_project_repo_snapshot, get_project_repo_diff, get_project_local_repo_diff, get_project_local_repo_snapshot, get_project_repo_sync_status, list_project_local_repositories, push_project_local_repository, open_project_terminal, search_users, get_presence, get_default_relay_url, get_legacy_workspace_storage, is_shared_identity, get_relay_ws_url, get_relay_http_url, get_media_proxy_port, fetch_link_preview_title, discover_acp_providers, discover_git_bash_prerequisite, check_acp_node_runtime, install_acp_runtime, discover_managed_agent_prereqs, sign_event, sign_nostr_identity_binding, sign_out, decrypt_observer_event, build_observer_control_event, create_auth_event, nip44_encrypt_to_self, nip44_decrypt_from_self, get_channels, create_channel, open_dm, hide_dm, get_channel_details, get_channel_members, update_channel, set_channel_topic, set_channel_purpose, archive_channel, unarchive_channel, delete_channel, add_channel_members, remove_channel_member, change_channel_member_role, join_channel, leave_channel, get_canvas, set_canvas, get_feed, search_messages, send_channel_message, send_managed_agent_channel_message, get_forum_posts, get_forum_thread, get_thread_replies, get_channel_window, get_channel_messages_before, edit_message, delete_message, add_reaction, remove_reaction, get_event, show_native_notification, upload_media, pick_and_upload_media, upload_media_bytes, download_image, download_file, fetch_media_bytes, copy_image_to_clipboard, fetch_snapshot_bytes, list_relay_members, get_my_relay_membership, add_relay_member, remove_relay_member, change_relay_member_role, archive_identity, unarchive_identity, list_archived_identities, get_relay_self, resolve_oa_owner, list_relay_agents, list_managed_agents, create_managed_agent, start_managed_agent, stop_managed_agent, set_managed_agent_start_on_app_launch, set_managed_agent_auto_restart, delete_managed_agent, get_managed_agent_log, get_agent_models, discover_agent_models, get_agent_config_surface, get_runtime_file_config, get_baked_build_env_keys, get_baked_build_env, put_agent_session_config, get_global_agent_config, set_global_agent_config, mesh_availability, mesh_start_node, mesh_ensure_client_node, mesh_prepare_relay_mesh_client, mesh_dial_endpoint_addr, mesh_status_report_payload, mesh_stop_node, mesh_node_status, mesh_installed_models, mesh_agent_preset, update_managed_agent, discover_backend_providers, probe_backend_provider, list_personas, create_persona, update_persona, delete_persona, set_persona_active, reconcile_inbound_persona_event, list_channel_templates, create_channel_template, update_channel_template, delete_channel_template, duplicate_channel_template, list_teams, create_team, update_team, delete_team, export_agent_snapshot, preview_agent_snapshot_import, confirm_agent_snapshot_import, encode_agent_snapshot_for_send, export_team_snapshot, encode_team_snapshot_for_send, preview_team_snapshot_import, confirm_team_snapshot_import, get_channel_workflows, get_channels_workflows, get_workflow, create_workflow, update_workflow, delete_workflow, get_workflow_runs, get_run_approvals, trigger_workflow, grant_approval, deny_approval, publish_note, get_contact_list, set_contact_list, get_notes_timeline, get_global_notes, get_note, get_note_reactions, get_liked_notes, start_huddle, join_huddle, leave_huddle, end_huddle, get_huddle_state, push_audio_pcm, reconnect_huddle_audio, start_stt_pipeline, set_huddle_transcription_enabled, download_voice_models, get_model_status, set_tts_enabled, speak_agent_message, add_agent_to_huddle, check_pipeline_hotstart, confirm_huddle_active, perform_sidebar_default_haptic, get_huddle_agent_pubkeys, set_voice_input_mode, get_voice_input_mode, list_audio_output_devices, set_audio_output_device, get_audio_output_device, start_pairing, confirm_pairing_sas, cancel_pairing, apply_workspace, validate_repos_dir, get_active_workspace, fetch_workspace_icon, set_prevent_sleep_active, get_agent_memory, relay_reconnect_hook, relay_reconnect_hook_configured, observer_archive_default_enabled, agent_metric_archive_default_enabled, archive::archive_events, archive::create_save_subscription, archive::merge_save_subscription_kinds, archive::remove_save_subscription_kind, archive::list_save_subscriptions, archive::delete_save_subscription, archive::read_archived_events, archive::read_archived_observer_events_for_channel, archive::index_observer_channel_id, archive::read_unindexed_observer_rows, is_auto_update_supported, set_window_vibrancy, ]) .build(tauri::generate_context!()) .expect("error while building tauri application"); let shutdown_done = Arc::new(AtomicBool::new(false)); // Agent cleanup on SIGINT (Ctrl+C), SIGTERM, and SIGHUP (terminal close). // The ctrlc crate with the "termination" feature covers all three signals // and runs the handler on a dedicated thread (safe for mutex operations). // `shutdown_done` prevents double-execution with the RunEvent handler. // `process::exit(0)` intentionally skips Drop impls to avoid re-entrant // locking in destructors during signal teardown. #[cfg(unix)] { let signal_app = app.handle().clone(); let signal_shutdown_done = Arc::clone(&shutdown_done); if let Err(e) = ctrlc::set_handler(move || { signal_app .state::() .shutdown_started .store(true, Ordering::SeqCst); if !signal_shutdown_done.swap(true, Ordering::SeqCst) { let _ = shutdown_managed_agents(&signal_app); } std::process::exit(0); }) { eprintln!("buzz-desktop: failed to register signal handler: {e}"); } } let run_shutdown_done = Arc::clone(&shutdown_done); app.run(move |app_handle, event| match event { RunEvent::ExitRequested { .. } | RunEvent::Exit => { app_handle .state::() .shutdown_started .store(true, Ordering::SeqCst); if !run_shutdown_done.swap(true, Ordering::SeqCst) { prevent_sleep::release(&app_handle.state::().prevent_sleep); if let Err(error) = shutdown_managed_agents(app_handle) { eprintln!("buzz-desktop: failed to stop managed agents: {error}"); } } } _ => {} }); }