Mirrors/talemate
1
0
Fork 0
mirror of https://github.com/vegu-ai/talemate.git synced 2026-09-01 19:48:52 +02:00
Code Issues Packages Projects Releases Wiki Activity
Files
53ecfe50290f5ea166e34c19b0a7df823aa32885
talemate/tests/test_nodes_event.py
veguAI c12a82930e 0.38.0 (#272) 
- **Per-Scene Agent Overrides** — Override agent configuration for a single scene without touching your global config.
- **Message Revision History** — Browse and continue from previous regenerations / revisions.
- **Scene Perspective Overrides** — Set distinct narrative perspectives for the player, NPCs, and narrator.
- **Durable World State Snapshot** — The world state snapshot now persists and updates entities across refreshes.
- **World State Highlights** — Characters, objects and places marked by the current world state snapshot are now clickable in the recent message(s) for additional detail.

Plus 30 improvements and 17 bug fixes
2026-07-02 09:28:45 +03:00

644 lines
23 KiB
Python
Raw Blame History

"""Coverage-focused unit tests for talemate.game.engine.nodes.event.
Listen-node connect/disconnect helpers are tested by registering a real
Listen node into a Graph and verifying the underlying async-signals
registry. Emit nodes (EmitStatus, EmitSystemMessage, EmitSceneStatus,
EmitWorldEditorSync, EmitAgentMessage, EmitStatusConditional) are run
through `Node.run` with a real blinker subscriber capturing the outgoing
event payload.
No internals are mocked — the blinker `signal(...)` registry and the
`async_signals` registry are real process-global objects used as-is.
"""
from __future__ import annotations
import pytest
from blinker import signal as blinker_signal
import talemate.emit.async_signals as async_signals
from _node_test_helpers import run_node
from talemate.game.engine.nodes.core import (
Graph,
GraphContext,
GraphState,
Listen,
)
from talemate.game.engine.nodes.event import (
EmitAgentMessage,
EmitSceneStatus,
EmitStatus,
EmitStatusConditional,
EmitSystemMessage,
EmitWorldEditorSync,
State as EventState,
collect_auto_register_listeners,
collect_listeners,
connect_auto_register_listeners,
connect_listeners,
disconnect_auto_register_listeners,
disconnect_listeners,
)
from talemate.game.engine.nodes.registry import NODES, register
from talemate.tale_mate import Scene
# ---------------------------------------------------------------------------
# Helpers
# ---------------------------------------------------------------------------
@pytest.fixture
def scene():
"""Plain real Scene — no agents are needed for these emit nodes."""
s = Scene()
return s
def _capture_blinker(typ: str):
"""Subscribe to a blinker signal and return (sig, recv, captured_list).
The receiver MUST be retained — `weak=False` ensures the closure
keeps it alive for the life of the test.
NOTE: the talemate `emit()` helper uses `signal.send(Emission(...))`,
so the blinker sender argument IS the Emission dataclass. We capture
that directly.
"""
sig = blinker_signal(typ)
captured = []
def _on(sender, *args, **kwargs):
captured.append(sender)
sig.connect(_on, weak=False)
return sig, _on, captured
# ---------------------------------------------------------------------------
# collect_listeners / connect_listeners / disconnect_listeners
# ---------------------------------------------------------------------------
class TestListenerCollection:
def test_collects_listen_nodes_at_top_level(self):
# Register two Listen nodes for distinct events; collect_listeners
# returns them grouped by event_name.
g = Graph()
l1 = Listen()
l1.set_property("event_name", "evt.alpha")
l2 = Listen()
l2.set_property("event_name", "evt.beta")
g.add_node(l1)
g.add_node(l2)
result = collect_listeners(g)
assert set(result.keys()) == {"evt.alpha", "evt.beta"}
assert result["evt.alpha"] == [l1]
assert result["evt.beta"] == [l2]
def test_skips_listen_with_empty_event_name(self, caplog):
g = Graph()
bad = Listen()
bad.set_property("event_name", "")
g.add_node(bad)
result = collect_listeners(g)
assert result == {}
def test_skips_listen_with_auto_register_true(self):
# Listen nodes with auto_register=True are owned by the
# collect_auto_register_listeners path — collect_listeners must
# ignore them even when they are embedded in the graph.
g = Graph()
embedded = Listen()
embedded.set_property("event_name", "evt.auto")
embedded.set_property("auto_register", True)
regular = Listen()
regular.set_property("event_name", "evt.regular")
g.add_node(embedded)
g.add_node(regular)
result = collect_listeners(g)
assert "evt.auto" not in result
assert result == {"evt.regular": [regular]}
def test_recurses_into_nested_graphs(self):
# Listen nodes inside a nested Graph are also discovered.
outer = Graph()
nested = Graph()
outer.add_node(nested)
listener = Listen()
listener.set_property("event_name", "evt.nested")
nested.add_node(listener)
result = collect_listeners(outer)
assert "evt.nested" in result
class TestConnectAndDisconnectListeners:
@pytest.fixture
def isolated_signal(self):
# Register a fresh signal name we can safely connect/disconnect to
# without affecting the rest of the system.
name = "test_event_evt_12345"
# Already registered? Tear it down before re-registering.
if name in async_signals.handlers:
async_signals.handlers.pop(name)
async_signals.register(name)
yield name
async_signals.handlers.pop(name, None)
def test_connect_subscribes_listen_node_to_signal(self, isolated_signal):
g = Graph()
listener = Listen()
listener.set_property("event_name", isolated_signal)
g.add_node(listener)
sig = async_signals.get(isolated_signal)
connect_listeners(g, GraphState())
assert listener.execute_from_event in sig.receivers
def test_connect_to_unknown_signal_logs_and_skips(self, caplog):
g = Graph()
listener = Listen()
listener.set_property("event_name", "test_completely_unknown_signal_zzz")
g.add_node(listener)
# Should not raise — warning is logged.
connect_listeners(g, GraphState())
def test_disconnect_removes_listener(self, isolated_signal):
g = Graph()
listener = Listen()
listener.set_property("event_name", isolated_signal)
g.add_node(listener)
sig = async_signals.get(isolated_signal)
connect_listeners(g, GraphState())
assert listener.execute_from_event in sig.receivers
disconnect_listeners(g, GraphState())
assert listener.execute_from_event not in sig.receivers
def test_connect_with_disconnect_flag_replaces(self, isolated_signal):
# Calling connect_listeners with disconnect=True first removes the
# existing listener, then re-adds it (idempotent).
g = Graph()
listener = Listen()
listener.set_property("event_name", isolated_signal)
g.add_node(listener)
sig = async_signals.get(isolated_signal)
connect_listeners(g, GraphState())
connect_listeners(g, GraphState(), disconnect=True)
# Listener still present after the disconnect/connect cycle
assert listener.execute_from_event in sig.receivers
# ---------------------------------------------------------------------------
# Auto-register listeners (self-registering Listen subclasses)
# ---------------------------------------------------------------------------
class TestAutoRegisterListeners:
"""Auto-register listeners discover Listen subclasses that have
auto_register=True baked into their persisted properties — these come
from user-authored scene-module graphs (loaded via
``import_node_definition``) rather than being placed in the scene
loop graph manually.
For tests we register a minimal Listen subclass into ``NODES`` with a
matching ``_base_type``, since ``get_nodes_by_base_type`` checks the
underscored attribute (which scene modules set explicitly via
``dynamic_node_import``). This is the realistic shape.
"""
@pytest.fixture
def auto_signal(self):
name = "test_auto_register_signal_xyz"
if name in async_signals.handlers:
async_signals.handlers.pop(name)
async_signals.register(name)
yield name
async_signals.handlers.pop(name, None)
@pytest.fixture
def registered_auto_listen(self, auto_signal):
# Build a Listen subclass that, when instantiated, has the
# persisted auto_register=True and event_name set — mirroring the
# shape produced by dynamic_node_import for scene modules.
signal_name = auto_signal
registry_name = "test/AutoListenForTest"
@register(registry_name)
class _TestAutoListen(Listen):
_base_type = "core/Event"
def setup(self):
super().setup()
self.set_property("event_name", signal_name)
self.set_property("auto_register", True)
yield _TestAutoListen, signal_name, registry_name
NODES.pop(registry_name, None)
@pytest.fixture
def registered_auto_listen_no_event(self):
registry_name = "test/AutoListenNoEvent"
@register(registry_name)
class _TestAutoListenNoEvent(Listen):
_base_type = "core/Event"
def setup(self):
super().setup()
self.set_property("event_name", "")
self.set_property("auto_register", True)
yield registry_name
NODES.pop(registry_name, None)
@pytest.fixture
def registered_non_auto_listen(self):
registry_name = "test/NonAutoListen"
@register(registry_name)
class _TestNonAutoListen(Listen):
_base_type = "core/Event"
def setup(self):
super().setup()
self.set_property("event_name", "test.non_auto")
self.set_property("auto_register", False)
yield registry_name
NODES.pop(registry_name, None)
def test_collects_auto_register_listen_subclass(self, registered_auto_listen):
_cls, signal_name, _registry = registered_auto_listen
instances = collect_auto_register_listeners()
# Find our instance among any other registered core/Event nodes
ours = [i for i in instances if i.get_property("event_name") == signal_name]
assert len(ours) == 1
assert ours[0].get_property("auto_register") is True
def test_skips_listen_subclass_without_auto_register(
self, registered_non_auto_listen
):
instances = collect_auto_register_listeners()
event_names = [i.get_property("event_name") for i in instances]
assert "test.non_auto" not in event_names
def test_skips_auto_register_with_empty_event_name(
self, registered_auto_listen_no_event
):
# collect_auto_register_listeners warns and skips when event_name
# is empty — it should not crash and should not return that one.
instances = collect_auto_register_listeners()
# Empty event_name means no instance can be returned for it
for inst in instances:
assert inst.get_property("event_name") != ""
def test_connect_subscribes_auto_register_listener(self, registered_auto_listen):
_cls, signal_name, _registry = registered_auto_listen
instances = collect_auto_register_listeners()
ours = [i for i in instances if i.get_property("event_name") == signal_name]
assert len(ours) == 1
instance = ours[0]
sig = async_signals.get(signal_name)
connect_auto_register_listeners([instance], GraphState())
assert instance.execute_from_event in sig.receivers
def test_disconnect_removes_auto_register_listener(self, registered_auto_listen):
_cls, signal_name, _registry = registered_auto_listen
instances = collect_auto_register_listeners()
ours = [i for i in instances if i.get_property("event_name") == signal_name]
instance = ours[0]
sig = async_signals.get(signal_name)
connect_auto_register_listeners([instance], GraphState())
assert instance.execute_from_event in sig.receivers
disconnect_auto_register_listeners([instance], GraphState())
assert instance.execute_from_event not in sig.receivers
def test_connect_with_disconnect_flag_is_idempotent(self, registered_auto_listen):
# Reconnecting with disconnect=True should NOT double up the
# listener in the receiver list (same instance, same bound method).
_cls, signal_name, _registry = registered_auto_listen
instances = collect_auto_register_listeners()
ours = [i for i in instances if i.get_property("event_name") == signal_name]
instance = ours[0]
sig = async_signals.get(signal_name)
connect_auto_register_listeners([instance], GraphState())
connect_auto_register_listeners([instance], GraphState(), disconnect=True)
# Listener present exactly once
matching = [r for r in sig.receivers if r == instance.execute_from_event]
assert len(matching) == 1
def test_connect_to_unknown_signal_logs_and_skips(self):
# An auto-register Listen pointing at an unknown signal must not
# raise — the function logs a warning and moves on.
registry_name = "test/AutoListenUnknownSignal"
@register(registry_name)
class _TestAutoListenUnknown(Listen):
_base_type = "core/Event"
def setup(self):
super().setup()
self.set_property("event_name", "completely_unregistered_signal_xx")
self.set_property("auto_register", True)
try:
instances = collect_auto_register_listeners()
ours = [
i
for i in instances
if i.get_property("event_name") == "completely_unregistered_signal_xx"
]
assert len(ours) == 1
# Must not raise
connect_auto_register_listeners(ours, GraphState())
finally:
NODES.pop(registry_name, None)
def test_embedded_and_auto_registered_fires_once(self, registered_auto_listen):
# If a Listen subclass with auto_register=True is also dropped as
# an instance into the scene loop graph, the receiver list must
# contain exactly ONE bound method after both wiring paths run.
# collect_listeners must skip the embedded copy and only the
# auto-register path subscribes.
_cls, signal_name, _registry = registered_auto_listen
# Embedded copy of the same Listen class in a graph
embedded_graph = Graph()
embedded = _cls()
embedded_graph.add_node(embedded)
# Auto-register path collects the registry instance
registry_instances = collect_auto_register_listeners()
from_registry = [
i for i in registry_instances if i.get_property("event_name") == signal_name
]
assert len(from_registry) == 1
# Run both wiring paths
sig = async_signals.get(signal_name)
connect_listeners(embedded_graph, GraphState(), disconnect=True)
connect_auto_register_listeners(from_registry, GraphState(), disconnect=True)
# The embedded instance must NOT be in the receiver list
assert embedded.execute_from_event not in sig.receivers
# The registry instance IS in the receiver list, exactly once
assert sig.receivers.count(from_registry[0].execute_from_event) == 1
# ---------------------------------------------------------------------------
# EventState (event/Event) — returns state.data["event"]
# ---------------------------------------------------------------------------
class TestEventState:
@pytest.mark.asyncio
async def test_returns_event_from_state_data(self):
node = EventState()
with GraphContext() as state:
state.data["event"] = {"kind": "external"}
await node.run(state)
assert node.get_output_socket("event").value == {"kind": "external"}
@pytest.mark.asyncio
async def test_returns_none_when_no_event_in_state(self):
node = EventState()
with GraphContext() as state:
await node.run(state)
assert node.get_output_socket("event").value is None
# ---------------------------------------------------------------------------
# EmitStatus
# ---------------------------------------------------------------------------
class TestEmitStatus:
@pytest.mark.asyncio
async def test_emits_status_message(self, scene):
sig, recv, captured = _capture_blinker("status")
try:
out = await run_node(
EmitStatus(),
scene=scene,
inputs={"message": "Working...", "status": "info"},
)
assert out["emitted"] is True
assert len(captured) == 1
emission = captured[0]
assert emission.message == "Working..."
assert emission.status == "info"
assert emission.scene is scene
finally:
sig.disconnect(recv)
@pytest.mark.asyncio
async def test_as_scene_message_flag_passed_through(self, scene):
sig, recv, captured = _capture_blinker("status")
try:
await run_node(
EmitStatus(),
scene=scene,
inputs={
"message": "hi",
"status": "info",
"as_scene_message": True,
},
)
assert captured[0].data == {"as_scene_message": True}
finally:
sig.disconnect(recv)
# ---------------------------------------------------------------------------
# EmitSystemMessage
# ---------------------------------------------------------------------------
class TestEmitSystemMessage:
@pytest.mark.asyncio
async def test_emits_with_meta_block(self, scene):
sig, recv, captured = _capture_blinker("system")
try:
out = await run_node(
EmitSystemMessage(),
scene=scene,
inputs={
"state": "passthrough",
"message": "system note",
"message_title": "Note",
"font_color": "white",
"icon": "mdi-x",
"display": "tonal",
"as_markdown": True,
},
)
# `state` socket carries the original state input through
assert out["state"] == "passthrough"
assert len(captured) == 1
emission = captured[0]
assert emission.message == "system note"
assert emission.meta["title"] == "Note"
assert emission.meta["color"] == "white"
assert emission.meta["icon"] == "mdi-x"
assert emission.meta["display"] == "tonal"
assert emission.meta["as_markdown"] is True
finally:
sig.disconnect(recv)
# ---------------------------------------------------------------------------
# EmitStatusConditional
# ---------------------------------------------------------------------------
class TestEmitStatusConditional:
@pytest.mark.asyncio
async def test_emits_and_passes_state(self, scene):
sig, recv, captured = _capture_blinker("status")
try:
out = await run_node(
EmitStatusConditional(),
scene=scene,
inputs={
"state": "ok",
"message": "Hello",
"status": "info",
},
)
# Conditional flavor passes state through and still emits.
assert out["state"] == "ok"
assert len(captured) == 1
assert captured[0].message == "Hello"
finally:
sig.disconnect(recv)
# ---------------------------------------------------------------------------
# EmitSceneStatus
# ---------------------------------------------------------------------------
class TestEmitSceneStatus:
@pytest.mark.asyncio
async def test_calls_scene_emit_status(self, scene):
# Replace scene.emit_status with a tracking lambda — the real one is
# debounced/async and not what we're testing here.
called = []
scene.emit_status = lambda *a, **kw: called.append(True)
out = await run_node(
EmitSceneStatus(), scene=scene, inputs={"state": "passthrough"}
)
assert out["state"] == "passthrough"
assert called == [True]
# ---------------------------------------------------------------------------
# EmitWorldEditorSync
# ---------------------------------------------------------------------------
class TestEmitWorldEditorSync:
@pytest.mark.asyncio
async def test_emits_world_state_manager_sync(self, scene):
sig, recv, captured = _capture_blinker("world_state_manager")
try:
out = await run_node(
EmitWorldEditorSync(),
scene=scene,
inputs={"state": "passthrough"},
)
assert out["state"] == "passthrough"
assert len(captured) == 1
emission = captured[0]
assert emission.kwargs == {"action": "sync"}
assert emission.websocket_passthrough is True
finally:
sig.disconnect(recv)
# ---------------------------------------------------------------------------
# EmitAgentMessage
# ---------------------------------------------------------------------------
class TestEmitAgentMessage:
@pytest.mark.asyncio
async def test_emits_with_agent_string(self, scene):
# NOTE: typ "agent_message" is mapped to signal name "agent" in
# talemate/emit/signals.py — subscribe to the underlying blinker
# signal name, not the typ string.
sig, recv, captured = _capture_blinker("agent")
try:
out = await run_node(
EmitAgentMessage(),
scene=scene,
inputs={
"state": "ok",
"message": "Done",
"agent": "editor",
"header": "Removed",
"message_color": "highlight4",
"meta": {"action": "x"},
},
)
assert out["emitted"] is True
assert len(captured) == 1
emission = captured[0]
assert emission.message == "Done"
assert emission.data["agent"] == "editor"
assert emission.data["header"] == "Removed"
assert emission.data["color"] == "highlight4"
# Auto-generated UUID present
assert emission.data["uuid"]
assert emission.meta == {"action": "x"}
assert emission.websocket_passthrough is True
finally:
sig.disconnect(recv)
@pytest.mark.asyncio
async def test_emits_with_agent_object_uses_name(self, scene):
# When the `agent` input is an Agent instance, we use its .name —
# rather than instantiating a real Agent (which would require
# bootstrap), use a minimal stand-in object that satisfies isinstance.
from talemate.agents.base import Agent
class FakeAgent(Agent):
agent_type = "fake"
def __init__(self, name):
self.name = name
@property
def enabled(self):
return False
agent = FakeAgent("named_agent")
sig, recv, captured = _capture_blinker("agent")
try:
await run_node(
EmitAgentMessage(),
scene=scene,
inputs={
"state": "ok",
"message": "X",
"agent": agent,
"header": "H",
"message_color": "white",
"meta": {},
},
)
assert captured[0].data["agent"] == "named_agent"
finally:
sig.disconnect(recv)
Reference in New Issue View Git Blame Copy Permalink