Apply the configured wiring.
Resolves the builder state into a coroutine (if any scheduling modifier was set) or an immediate call (if bind was used), and registers the result with Fabric.
251{
256
257 bool has_any_path = !std::holds_alternative<std::monostate>(
m_factory)
261 || !std::holds_alternative<std::monostate>(
m_trigger)
263
264 reg.commit_driven = !has_any_path;
265
266
267
268
269 std::visit([&](
const auto&
ptr) {
270 using T = std::decay_t<
decltype(*ptr)>;
271 if constexpr (std::is_same_v<T, Emitter>) {
272 if (!
ptr->fn_name().empty()) {
274 ptr->fn_name(), std::make_shared<Emitter::InfluenceFn>(
ptr->fn()));
275 }
276 } else if constexpr (std::is_same_v<T, Sensor>) {
277 if (!
ptr->fn_name().empty()) {
279 ptr->fn_name(), std::make_shared<Sensor::PerceptionFn>(
ptr->fn()));
280 }
281 } else if constexpr (std::is_same_v<T, Agent>) {
282 if (!
ptr->influence_fn_name().empty()) {
284 ptr->influence_fn_name(), std::make_shared<Emitter::InfluenceFn>(
ptr->influence_fn()));
285 }
286 if (!
ptr->perception_fn_name().empty()) {
288 ptr->perception_fn_name(), std::make_shared<Sensor::PerceptionFn>(
ptr->perception_fn()));
289 }
290 }
291 },
292 reg.member);
293
294
295
296
297 if (!std::holds_alternative<std::monostate>(
m_factory)) {
299 reg.task_name = name;
300 std::visit([&](
auto&
factory) {
301 using F = std::decay_t<
decltype(
factory)>;
302 if constexpr (!std::is_same_v<F, std::monostate>) {
303 scheduler.add_task(
304 std::make_shared<std::invoke_result_t<F>>(
factory()),
305 name, false);
306 }
307 },
310 return;
311 }
312
313
314
315
318 reg.event_name = name;
319 ev_manager.add_event(
321 name);
323 return;
324 }
325
326
327
328
330 (*m_bind_attach)();
331
335 timer->schedule(*
m_duration, [timer, detach]() {
336 detach();
337 });
338 }
340 return;
341 }
342
343
344
345
348 reg.chain_name = name;
349
350 Kriya::EventChain
chain(scheduler, name);
353 glm::vec3 pos = step.position;
354 chain.then([&fab, pos,
id]() {
355 std::visit([&pos](
const auto&
ptr) {
356 ptr->set_position(pos);
357 },
358 fab.m_registrations[id].member);
359 fab.fire(id);
360 },
361 step.delay_seconds);
362 }
365 }
368 return;
369 }
370
371
372
373
374 if (!std::holds_alternative<std::monostate>(
m_trigger)) {
375 std::visit([&](auto& trig) {
376 using T = std::decay_t<
decltype(trig)>;
377
378 if constexpr (std::is_same_v<T, KeyTrigger>) {
380 reg.event_name = name;
382 ev_manager.add_event(
383 std::make_shared<Vruta::Event>(
384 trig.held
386 [&fab, id]() { fab.fire(id); })
388 [&fab, id]() { fab.fire(id); })),
389 name);
390
391 if (trig.on_release) {
392 auto release_name =
make_name(
"nexus_event_release");
393 reg.chain_name = release_name;
394 ev_manager.add_event(
395 std::make_shared<Vruta::Event>(
397 release_name);
398 }
399
400 } else if constexpr (std::is_same_v<T, MouseTrigger>) {
402 reg.event_name = name;
405 ev_manager.add_event(
406 std::make_shared<Vruta::Event>(
407 trig.held
409 [&fab, eid](double px, double py) {
410 fab.m_registrations[eid].pending_cursor = glm::vec2(px, py);
411 fab.fire(eid);
412 })
414 [&fab, eid](double px, double py) {
415 fab.m_registrations[eid].pending_cursor = glm::vec2(px, py);
416 fab.fire(eid);
417 })),
418 name);
419 if (trig.on_release) {
420 auto release_name =
make_name(
"nexus_event_release");
421 reg.chain_name = release_name;
422 ev_manager.add_event(
423 std::make_shared<Vruta::Event>(
425 release_name);
426 }
427
428 } else if constexpr (std::is_same_v<T, NetworkTrigger>) {
430 reg.task_name = name;
431 scheduler.add_task(
432 std::make_shared<Vruta::SoundRoutine>(
433 network_loop(*trig.source,
m_fabric,
id)),
434 name, false);
435
436 } else if constexpr (std::is_same_v<T, WindowEventTrigger>) {
438 reg.event_name = name;
440 ev_manager.add_event(
441 std::make_shared<Vruta::Event>(
443 name);
444 }
445 },
448 return;
449 }
450
451
452
453
457 reg.task_name = name;
459
460 scheduler.add_task(
462 if (pos_fn.has_value()) {
463 glm::vec3 p = (*pos_fn)();
464 std::visit([&p](const auto& ptr) {
465 ptr->set_position(p);
466 },
467 fab.m_registrations[id].member);
468 }
470
472 auto cancel_name =
make_name(
"nexus_metro_cancel");
473 auto timer = std::make_shared<Kriya::Timer>(scheduler);
474 timer->schedule(*
m_duration, [name, timer, &scheduler]() {
475 scheduler.cancel_task(name);
476 });
477 }
478 }
479
481}
std::unordered_map< std::string, std::shared_ptr< Sensor::PerceptionFn > > m_perception_fns
Vruta::TaskScheduler & m_scheduler
std::unordered_map< uint32_t, Registration > m_registrations
std::unordered_map< std::string, std::shared_ptr< Emitter::InfluenceFn > > m_influence_fns
Vruta::EventManager & m_event_manager
std::optional< std::function< void()> > m_bind_detach
Vruta::Event window_event_source_loop(Vruta::WindowEventSource &source, Vruta::WindowEventFilter filter, Fabric &fabric, uint32_t id)
std::string make_name(const char *prefix) const
std::optional< std::function< void()> > m_bind_attach
std::optional< double > m_duration
Vruta::ProcessingToken m_metro_token
Vruta::ProcessingToken m_duration_token
std::optional< double > m_interval
const Factory & factory() const
Active factory variant set by use for non-Event factories.
std::vector< MoveStep > m_move_steps
std::optional< PositionFn > m_position_fn
@ Kriya
Automatable tasks and fluent scheduling api for Nodes and Buffers.
Tendency< A, C > chain(const Tendency< A, B > &first, const Tendency< B, C > &second)
Sequential composition: evaluate first, feed result into second.
Vruta::Event key_released(std::shared_ptr< Core::Window > window, IO::Keys key, std::function< void()> callback)
Creates an Event coroutine that triggers on specific key release.
Vruta::Event key_pressed(std::shared_ptr< Core::Window > window, IO::Keys key, std::function< void()> callback)
Creates an Event coroutine that triggers on specific key press.
Vruta::Event key_held(std::shared_ptr< Core::Window > window, IO::Keys key, std::function< void()> callback)
Creates an Event coroutine that triggers on key press and repeats while held.
Vruta::Event mouse_released(std::shared_ptr< Core::Window > window, IO::MouseButtons button, std::function< void(double, double)> callback)
Creates an Event coroutine that triggers on specific mouse button release.
Vruta::Event mouse_pressed(std::shared_ptr< Core::Window > window, IO::MouseButtons button, std::function< void(double, double)> callback)
Creates an Event coroutine that triggers on specific mouse button press.
Vruta::Event mouse_dragged(std::shared_ptr< Core::Window > window, IO::MouseButtons button, std::function< void(double, double)> callback)
Creates an Event coroutine that triggers on mouse drag with specific button.
std::shared_ptr< Vruta::Routine > metro(double interval_seconds, std::function< void()> callback, Vruta::ProcessingToken token)
Creates a periodic event generator that executes a callback at regular intervals.