extends SceneTree
## Editor-Test (headless): Karte t_17a35c59 — Playtest-Avatar (Bot-Rig aus dem
## Client-Klon) + First/Third-Person-Umschalter (Taste V).
## Ausführen: godot4 --headless --path . --import && godot4 --headless --path . --script res://tests/test_playtest_avatar.gd
## Exit 0 = alles grün.
##
## Abgedeckt:
##   1. Identität zum Client: Spiegel-Konstanten == bot_avatar.gd /
##      MatchRemoteAvatar / TestmapPlayer (aus dem NACHBAR-KLON gelesen —
##      Quelle der Wahrheit, keine Editor-eigenen Maße).
##   2. Avatar lädt aus dem Nachbar-Klon (GLTFDocument, GLB außerhalb res://),
##      AnimationTree-Pipeline (BlendSpace1D + Kadenz-Mathe wie BOT2),
##      Modellhöhe == Kapsel-Konvention == Client-Avatar, Rifle an hand_r.
##   3. Perspektive: Default First Person, Taste V schaltet, persistiert,
##      Third zeigt Avatar + SpringArm-Kamera (Blick zum Körper, kein
##      Clipping durch eine Wand hinter dem Spieler), graceful ohne Avatar.
##   4. Blickrichtung == Bewegungsrichtung: Body-Yaw dreht die WASD-Bewegung
##      (1:1 TestmapPlayer) und die Avatar-Front zeigt in Bewegungsrichtung.
##   5. Playtest-Integration: enter() baut den Avatar, die Gait-Speisung
##      leitet Stillstand/Walk/Jog aus der ECHTEN Geschwindigkeit ab.

var failures := 0
var checks := 0

const HALF_H := 0.9
const BEWEIS_TOLERANZ_HOEHE := 0.1


func _initialize() -> void:
	_run_all.call_deferred()


func _run_all() -> void:
	_test_identitaet_konstanten()
	var avatar: Node3D = await _test_avatar_laden()
	await _test_perspektive_und_kamera(avatar)
	await _test_integration_playtest()
	_finish()


func _finish() -> void:
	if failures == 0:
		print("ALL OK: %d checks" % checks)
		quit(0)
	else:
		print("FAILED: %d/%d checks" % [failures, checks])
		quit(1)


func _check(cond: bool, label: String) -> void:
	checks += 1
	if cond:
		print("  ok: %s" % label)
	else:
		failures += 1
		print("  FAIL: %s" % label)


## ------------------------------------------------------------- Helfer ------

## Roher Konstanten-Wert aus einer Client-GDScript-Datei ("" = fehlt).
## Muster: `const NAME := WERT` — WERT als Text (Vergleich über str()).
func _const_wert(text: String, name: String) -> String:
	var zeilen := text.split("\n")
	for zeile in zeilen:
		var t := zeile.strip_edges()
		if t.begins_with("const " + name + " :=") or t.begins_with("const " + name + "="):
			return t.substr(("const " + name + " :=").length()).strip_edges()
	return ""


func _client_datei(rel: String) -> String:
	var root: String = PlaytestAvatar.client_wurzel()
	if root.is_empty():
		return ""
	return root.path_join(rel)


## --------------------------------------------------- 1. Identität ----------

func _test_identitaet_konstanten() -> void:
	print("Testgruppe: Identität — Spiegel-Konstanten == Client-Quelle")
	_check(not PlaytestAvatar.client_wurzel().is_empty(),
			"Client-Klon auflösbar (../scopedvr-client)")
	var bot_text := FileAccess.get_file_as_string(_client_datei("scripts/match/bot_avatar.gd"))
	_check(not bot_text.is_empty(), "bot_avatar.gd lesbar (Quelle der Wahrheit)")
	var parent_text := FileAccess.get_file_as_string(_client_datei("scripts/match/match_remote_avatar.gd"))
	_check(not parent_text.is_empty(), "match_remote_avatar.gd lesbar")
	var player_text := FileAccess.get_file_as_string(_client_datei("scripts/world/testmap_player.gd"))
	_check(not player_text.is_empty(), "testmap_player.gd lesbar")

	# Zahl-Konstanten: exakter Text-Vergleich Quelle ↔ Spiegel.
	var zahl_paare := [
		["bot_avatar.gd", bot_text, "IDLE_SPEED_MAX_MPS", str(PlaytestAvatar.IDLE_SPEED_MAX_MPS)],
		["bot_avatar.gd", bot_text, "WALK_SPEED_MAX_MPS", str(PlaytestAvatar.WALK_SPEED_MAX_MPS)],
		["bot_avatar.gd", bot_text, "WALK_STEP_M", str(PlaytestAvatar.WALK_STEP_M)],
		["bot_avatar.gd", bot_text, "JOG_STEP_M", str(PlaytestAvatar.JOG_STEP_M)],
		["bot_avatar.gd", bot_text, "CADENCE_MIN", str(PlaytestAvatar.CADENCE_MIN)],
		["bot_avatar.gd", bot_text, "CADENCE_MAX", str(PlaytestAvatar.CADENCE_MAX)],
		["bot_avatar.gd", bot_text, "FOOT_SYNC_MIN", str(PlaytestAvatar.FOOT_SYNC_MIN)],
		["bot_avatar.gd", bot_text, "FOOT_SYNC_MAX", str(PlaytestAvatar.FOOT_SYNC_MAX)],
		["bot_avatar.gd", bot_text, "CROSSFADE_S", str(PlaytestAvatar.CROSSFADE_S)],
		["bot_avatar.gd", bot_text, "BLEND_SMOOTH_S", str(PlaytestAvatar.BLEND_SMOOTH_S)],
		["bot_avatar.gd", bot_text, "MODEL_EYE_HEIGHT", str(PlaytestAvatar.MODEL_EYE_HEIGHT)],
		["bot_avatar.gd", bot_text, "MODEL_Y_OFFSET", str(PlaytestAvatar.MODEL_Y_OFFSET)],
		["bot_avatar.gd", bot_text, "RIFLE_POS", "Vector3(0.0, 0.067, 0.0)"],
		["match_remote_avatar.gd", parent_text, "WALK_NATURAL_MPS", str(PlaytestAvatar.WALK_NATURAL_MPS)],
		["match_remote_avatar.gd", parent_text, "JOG_NATURAL_MPS", str(PlaytestAvatar.JOG_NATURAL_MPS)],
		["testmap_player.gd", player_text, "EYE_HEIGHT", str(PlaytestBody.EYE_HEIGHT)],
		["testmap_player.gd", player_text, "WALK_SPEED", str(PlaytestBody.WALK_SPEED)],
		["testmap_player.gd", player_text, "SPRINT_SPEED", str(PlaytestBody.SPRINT_SPEED)],
		["testmap_player.gd", player_text, "JUMP_SPEED", str(PlaytestBody.JUMP_SPEED)],
		["testmap_player.gd", player_text, "GRAVITY", str(PlaytestBody.GRAVITY)],
	]
	for paar in zahl_paare:
		var quelle := _const_wert(paar[1], paar[2])
		var quell_zahl := float(quelle) if not quelle.is_empty() else -999.0
		_check(is_equal_approx(quell_zahl, float(paar[3])),
				"%s.%s == %s (Quelle: %s)" % [paar[0], paar[2], paar[3], quelle])

	# Text-Konstanten (Clips, Knochen).
	_check(_const_wert(parent_text, "CLIP_IDLE") == "\"Idle\"" and PlaytestAvatar.CLIP_IDLE == "Idle",
			"CLIP_IDLE == Client (Idle)")
	_check(_const_wert(parent_text, "CLIP_WALK") == "\"Walk\"" and PlaytestAvatar.CLIP_WALK == "Walk",
			"CLIP_WALK == Client (Walk)")
	_check(_const_wert(parent_text, "CLIP_JOG") == "\"Jog_Fwd\"" and PlaytestAvatar.CLIP_JOG == "Jog_Fwd",
			"CLIP_JOG == Client (Jog_Fwd)")
	_check(_const_wert(bot_text, "RIFLE_HAND_BONE") == "\"hand_r\"",
			"RIFLE_HAND_BONE == Client (hand_r)")

	# Frontachse: Quelle deklariert MODEL_YAW_OFFSET = PI (vc21-Rückwärts-Fix).
	_check(_const_wert(bot_text, "MODEL_YAW_OFFSET") == "PI"
			and is_equal_approx(PlaytestAvatar.MODEL_YAW_OFFSET, PI),
			"MODEL_YAW_OFFSET == PI (GLB-Frontachse +Z, vc21)")
	_check(PlaytestAvatar.MODEL_FORWARD_LOCAL == Vector3(0.0, 0.0, 1.0),
			"MODEL_FORWARD_LOCAL == (0, 0, 1) (vc21-Messung)")

	# Gait-Schwellen spiegeln die Velocity-Inferenz des Clients.
	_check(PlaytestAvatar.zustand_fuer(0.1) == PlaytestAvatar.STATE_IDLE
			and PlaytestAvatar.zustand_fuer(1.0) == PlaytestAvatar.STATE_WALK
			and PlaytestAvatar.zustand_fuer(6.0) == PlaytestAvatar.STATE_JOG,
			"zustand_fuer spiegelt die Client-Schwellen (0,3/2,6 m/s)")


## --------------------------------------------------- 2. Avatar laden -------

func _test_avatar_laden() -> Node3D:
	print("Testgruppe: Avatar aus dem Nachbar-Klon laden (GLTF + AnimationTree)")
	var pfad := PlaytestAvatar.model_pfad()
	_check(not pfad.is_empty() and FileAccess.file_exists(pfad),
			"Avatar-GLB im Client-Klon gefunden (kein Duplikat im Editor)")
	var avatar: Node3D = PlaytestAvatar.lade_avatar()
	_check(avatar != null, "Avatar lädt (GLTFDocument, GLB außerhalb res://)")
	if avatar == null:
		return null
	root.add_child(avatar)
	await process_frame

	# AnimationTree-Pipeline: Motion-State aktiv, Idle als Start-Zustand.
	_check(avatar.get("_tree") != null, "AnimationTree gebaut (A4-Pipeline)")
	# apply_state (wie _speise_avatar im Betrieb) startet den Motion-State
	# sauber nach dem Baum-Eintritt; die StateMachine schreibt den Knoten
	# beim nächsten Prozess-Tick — daher ein Frame abwarten.
	avatar.call("apply_state", PlaytestAvatar.STATE_IDLE, 0.0)
	await process_frame
	_check(avatar.call("tree_state") == "Motion", "StateMachine startet im Motion-State")
	_check(avatar.call("current_clip") == "Idle", "Start-Anim = Idle (kein T-Pose-Blitz)")
	_check(avatar.call("anim_running"), "AnimationTree aktiv")
	# Loop-Mode: Idle/Walk/Jog laufen endlos (Importer-Semantik nachgebildet).
	var anim: AnimationPlayer = avatar.get("_anim")
	_check(anim.has_animation("Idle") and anim.has_animation("Walk")
			and anim.has_animation("Jog_Fwd"),
			"Clips unter den Bot-Namen (Idle/Walk/Jog_Fwd — _loop-Endung gestrichen)")
	_check(anim.get_animation("Idle").loop_mode == Animation.LOOP_LINEAR,
			"Idle-Clip loopt (GLTFDocument liefert sonst Einmal-Abspiel)")

	# Gait-Speisung: Walk/Jog-Sollwerte wie bot_avatar._set_state_animation.
	avatar.call("apply_state", PlaytestAvatar.STATE_WALK, 2.0)
	_check(avatar.call("current_clip") == "Walk", "STATE_WALK → Walk-Clip")
	_check(is_equal_approx(float(avatar.get("_blend_target")), PlaytestAvatar.WALK_NATURAL_MPS),
			"Blend-Soll = Walk-Natur (0,979 m/s) — der State wählt den Gang")
	avatar.call("apply_state", PlaytestAvatar.STATE_JOG, 6.0)
	_check(avatar.call("current_clip") == "Jog_Fwd", "STATE_JOG → Jog-Clip")
	_check(is_equal_approx(float(avatar.get("_blend_target")), PlaytestAvatar.JOG_NATURAL_MPS),
			"Blend-Soll = Jog-Natur (2,620 m/s)")

	# Kadenz-Mathe (BOT2): TimeScale = Kadenz × Zykluslänge / 2, geklemmt.
	var walk_len: float = anim.get_animation("Walk").length
	var jog_len: float = anim.get_animation("Jog_Fwd").length
	var walk_soll: float = clampf(2.0 / PlaytestAvatar.WALK_STEP_M * walk_len / 2.0,
			PlaytestAvatar.FOOT_SYNC_MIN, PlaytestAvatar.FOOT_SYNC_MAX)
	var jog_soll: float = clampf(6.0 / PlaytestAvatar.JOG_STEP_M * jog_len / 2.0,
			PlaytestAvatar.FOOT_SYNC_MIN, PlaytestAvatar.FOOT_SYNC_MAX)
	_check(is_equal_approx(avatar.call("gait_scale_for", PlaytestAvatar.STATE_WALK, 2.0), walk_soll),
			"Walk-Kadenz = BOT2-Formel (m/s / 0,95 m → TimeScale %.2f)" % walk_soll)
	_check(is_equal_approx(avatar.call("gait_scale_for", PlaytestAvatar.STATE_JOG, 6.0), jog_soll),
			"Jog-Kadenz = BOT2-Formel (m/s / 0,85 m → TimeScale %.2f, geklemmt)" % jog_soll)
	# 6 m/s Gehen im Playtest ist CLIENT-seitig schneller als jeder Bot — die
	# Kadenz-Klammer (FOOT_SYNC_MAX 2,0) muss greifen, kein Ausreißer.
	_check(avatar.call("gait_scale_for", PlaytestAvatar.STATE_JOG, 6.0) <= PlaytestAvatar.FOOT_SYNC_MAX,
			"Kadenz-Klammer greift bei Playtest-Tempi (6 m/s)")
	avatar.call("apply_state", PlaytestAvatar.STATE_IDLE, 0.0)

	# Identität der Proportionen: Modellhöhe ≈ Client (1,83 m), Kapsel 1,8 m.
	var hoehe := _modell_hoehe(avatar)
	_check(absf(hoehe - 1.83) < BEWEIS_TOLERANZ_HOEHE,
			"Modellhöhe ≈ Client-Avatar (gemessen %.2f m ≈ 1,83 m)" % hoehe)
	_check(absf(hoehe - PlaytestBody.KAPSEL_HEIGHT) < BEWEIS_TOLERANZ_HOEHE,
			"Avatar-Höhe == Kapsel-Höhe-Konvention (%.2f ≈ %.2f m)" % [hoehe, PlaytestBody.KAPSEL_HEIGHT])
	# Füße am Boden: GLB-Ursprung = Füße → Unterkante ≈ MODEL_Y_OFFSET unterm
	# Kopf-Anker (= exakt Füßpunkt des Körpers bei Anker 1,65 − Halbhöhe 0,9).
	var unten := _modell_unterkante(avatar)
	_check(absf(unten - PlaytestAvatar.MODEL_Y_OFFSET) < 0.05,
			"Modell-Füße am Anker minus 1,65 m (gemessen %.2f)" % unten)

	# Rifle-Mount (wie die Bots): BoneAttachment3D + Rifle-GLB. Pfad über
	# Suche (Skeleton hängt unter Armature — fester Node-Pfad ist spröde).
	var mount: Node3D = null
	for b in avatar.find_children("RifleMount", "BoneAttachment3D", true, false):
		mount = b
	_check(mount != null, "RifleMount (BoneAttachment3D hand_r) vorhanden")
	_check(mount != null and mount.get_node_or_null("Rifle") != null,
			"Rifle hängt am Mount (m40_rifle.glb aus dem Client-Klon)")
	return avatar


## Vereinigte AABB-Höhe aller Meshes unter dem Avatar (Weltbezug des Knotens).
func _modell_hoehe(avatar: Node3D) -> float:
	var box := _modell_box(avatar)
	return box.size.y


## Unterkante der vereinigten AABB relativ zum Avatar-Node (Kopf-Anker).
func _modell_unterkante(avatar: Node3D) -> float:
	return _modell_box(avatar).position.y


func _modell_box(avatar: Node3D) -> AABB:
	var lokal := avatar.global_transform.affine_inverse()
	var ergebnis := AABB(Vector3.ZERO, Vector3.ZERO)
	var erste := true
	for mi in avatar.find_children("*", "MeshInstance3D", true, false):
		var m := mi as MeshInstance3D
		if m.mesh == null:
			continue
		var welt := m.global_transform * m.mesh.get_aabb()
		var hier := lokal * welt
		if erste:
			ergebnis = hier
			erste = false
		else:
			ergebnis = ergebnis.merge(hier)
	return ergebnis


## ------------------------------------------- 3. Perspektive + Kamera -------

func _test_perspektive_und_kamera(avatar: Node3D) -> void:
	print("Testgruppe: Perspektive (Taste V) — First/Third, SpringArm, Persistenz")

	# Persistenz: Default First Person.
	PlaytestSettings.reset_cache()
	PlaytestSettings.save_third(false)
	PlaytestSettings.reset_cache()
	_check(not PlaytestSettings.load_third(), "Default = First Person (persistiert false)")

	# Leichter Body ohne Avatar (graceful Fallback, kein Crash).
	var body_leer: CharacterBody3D = load("res://core/editor/playtest/playtest_body.gd").new()
	var boden := StaticBody3D.new()
	var boden_form := CollisionShape3D.new()
	var boden_box := BoxShape3D.new()
	boden_box.size = Vector3(400.0, 0.2, 400.0)
	boden_form.shape = boden_box
	boden.add_child(boden_form)
	boden.position = Vector3(500.0, -0.1, 500.0)   # getrennt vom Haupt-Body
	root.add_child(boden)
	body_leer.position = Vector3(500.0, 1.0, 500.0)
	root.add_child(body_leer)
	await physics_frame
	_check(not body_leer.call("toggle_perspektive"), "Ohne Avatar: V schaltet NICHT (First bleibt)")
	_check(not bool(body_leer.get("perspektive_dritte")), "Ohne Avatar: Zustand bleibt First")

	# Mit Avatar: V schaltet, Third zeigt Körper, SpringArm-Kamera übernimmt.
	var body: CharacterBody3D = load("res://core/editor/playtest/playtest_body.gd").new()
	root.add_child(body)
	body.position = Vector3(0.0, 1.0, 0.0)
	await physics_frame
	body.call("set_avatar", avatar)
	_check(body.get("avatar") == avatar, "Avatar am Body (Kopf-Anker-Konvention)")
	_check(not bool(body.get("perspektive_dritte")), "Start = First Person")
	_check(not avatar.visible, "First Person: Avatar-Körper unsichtbar (Kapsel bleibt)")
	var look: Camera3D = body.get("look_cam")
	_check(look.current, "First Person: Augen-Kamera aktiv")

	_check(body.call("toggle_perspektive"), "V schaltet auf Third Person")
	_check(avatar.visible, "Third Person: Bot-Körper sichtbar")
	_check(not look.current, "First-Kamera abgegeben")
	var tpp: Camera3D = body.get("tpp_cam")
	_check(tpp != null and tpp.current, "Third-Kamera aktiv (SpringArm)")
	var spring: SpringArm3D = body.get("spring")
	_check(spring != null and is_equal_approx(spring.spring_length, 3.5),
			"SpringArm-Länge 3,5 m")

	# Kamera steht HINTER dem Spieler und schaut AUF IHN (kein 180°-Dreher).
	await process_frame
	await physics_frame
	var kamera_pos: Vector3 = tpp.global_position
	var pivot_pos: Vector3 = spring.global_position
	var hinter: Vector3 = kamera_pos - body.global_position
	_check(hinter.z > 1.0, "Kamera hinter dem Spieler (Z +%.2f m bei Blick −Z)" % hinter.z)
	var blick: Vector3 = tpp.global_transform.basis * Vector3(0.0, 0.0, -1.0)
	var zum_koerper := (pivot_pos - kamera_pos).normalized()
	_check(blick.dot(zum_koerper) > 0.9, "Third-Kamera schaut auf den Spieler (dot %.2f)" % blick.dot(zum_koerper))

	# Kein Clipping: Wand 1,0 m hinter dem Spieler → Kamera zieht vor die Wand.
	var wand := StaticBody3D.new()
	var wand_form := CollisionShape3D.new()
	var wand_box := BoxShape3D.new()
	wand_box.size = Vector3(8.0, 12.0, 0.4)
	wand_form.shape = wand_box
	wand.add_child(wand_form)
	wand.position = Vector3(body.global_position.x, 1.0, body.global_position.z + 1.2)
	root.add_child(wand)
	await physics_frame
	await physics_frame
	var abstand: float = tpp.global_position.distance_to(spring.global_position)
	_check(abstand < 1.0,
			"Kamera zieht vor die Wand zurück (Arm %.2f m < 1,0 m — kein Clipping)" % abstand)
	wand.queue_free()

	# Zurück zu First: V again — Avatar unsichtbar, Augen-Kamera aktiv.
	_check(not body.call("toggle_perspektive"), "V schaltet zurück auf First")
	_check(not avatar.visible and look.current, "First wiederhergestellt (Körper weg, Augen-Kamera aktiv)")

	# Persistenz: Third speichern + zurücklesen.
	PlaytestSettings.save_third(true)
	PlaytestSettings.reset_cache()
	_check(PlaytestSettings.load_third(), "Third Person persistiert (Neustart-Simulation)")
	PlaytestSettings.save_third(false)

	# Blickrichtung == Bewegungsrichtung: yaw −90° (Blick +x) + W → +x.
	body.set("yaw_deg", -90.0)
	body.set("auto_input", {"fwd": true, "back": false, "left": false,
			"right": false, "run": false, "jump": false})
	var start := Vector3(body.position)
	for i in 30:
		await physics_frame
	body.set("auto_input", {})
	var delta := Vector3(body.position) - start
	_check(delta.x > 1.0 and absf(delta.z) < 0.2,
			"Bewegung folgt der Blickrichtung (W bei Blick +x → Δx %.2f, Δz %.2f)" % [delta.x, delta.z])
	# Avatar-Front == Bewegungsrichtung (vc21-Vertrag, MODEL_YAW_OFFSET).
	avatar.call("apply_state", PlaytestAvatar.STATE_WALK, 6.0)
	_check(avatar.call("model_forward").dot(Vector3(1.0, 0.0, 0.0)) > 0.9,
			"Avatar-Front == Bewegungsrichtung (+x, MODEL_YAW_OFFSET korrekt)")

	body_leer.queue_free()
	body.queue_free()


## ------------------------------------------------ 4. Playtest-Integration --

func _test_integration_playtest() -> void:
	print("Testgruppe: Integration — enter() baut Avatar, Gait aus echter Bewegung")
	var scene: PackedScene = load("res://core/scenes/main.tscn")
	var main: Control = scene.instantiate()
	root.add_child(main)
	await process_frame
	await process_frame

	var doc: Dictionary = SvmapDocument.create_new("Avatar-Test", 100.0, "klar")
	main.set("doc", doc)
	main.set("current_path", "")
	main.set("dirty", false)
	main.get("history").begin(doc)
	main.call("_clear_edit_state")
	main.call("_refresh_all")
	await process_frame

	main.call("_on_test_run")
	await process_frame
	await process_frame
	var pt: Node = main.get("playtest")
	_check(pt != null, "PlaytestMode angelegt")
	if pt == null:
		main.queue_free()
		return
	var body: Node = pt.get("body")
	_check(bool(pt.get("_avatar_da")), "enter() fand die Avatar-Modelle (Client-Klon)")
	var avatar: Node3D = body.get("avatar") as Node3D
	_check(avatar != null, "Avatar am Playtest-Body")

	# Gait-Speisung aus der ECHTEN Geschwindigkeit: loslaufen → JOG.
	body.set("auto_move_dir", Vector3(1, 0, 0))
	for i in 30:
		await physics_frame
	var speed: float = body.call("horizontale_geschwindigkeit")
	_check(speed > 5.0, "Spieler wirklich in Bewegung (%.1f m/s)" % speed)
	_check(int(avatar.get("state")) == PlaytestAvatar.STATE_JOG
			and avatar.call("current_clip") == "Jog_Fwd",
			"Laufen (6 m/s) → Jog-State wie die Bots im Spiel")
	body.set("auto_move_dir", Vector3.ZERO)
	for i in 30:
		await physics_frame
	_check(int(avatar.get("state")) == PlaytestAvatar.STATE_IDLE
			and avatar.call("current_clip") == "Idle",
			"Stillstand → Idle-State")

	# Taste V über den PlaytestMode (persistiert + Meldung).
	_check(bool(pt.call("toggle_perspektive")), "PlaytestMode.toggle_perspektive → Third")
	_check(bool(body.get("perspektive_dritte")) and avatar.visible,
			"Third aktiv (Avatar sichtbar)")
	_check(bool(PlaytestSettings.load_third()), "Umschalten persistiert")
	_check(not bool(pt.call("toggle_perspektive")), "PlaytestMode.toggle_perspektive → First")
	_check(not PlaytestSettings.load_third(), "Rückschalten persistiert (Default First)")

	# HUD-Hinweis nennt die Taste V.
	var hint_text := ""
	for label in pt.get("hud").find_children("*", "Label", true, false):
		var l := label as Label
		if l.text.begins_with("WASD"):
			hint_text = l.text
	_check(hint_text.contains("V = 1./3.-Person"), "HUD-Hinweis nennt Taste V")

	# ESC → Editor-Zustand wiederhergestellt (Avatar mit dem Body abgeräumt).
	pt.call("handle_escape")
	await process_frame
	_check(main.get("playtest") == null, "PlaytestMode abgeräumt (Avatar mit weg)")
	main.queue_free()