aidaemon 0.11.4

A personal AI agent that runs as a background daemon, accessible via Telegram, Slack, or Discord, with tool use, MCP integration, and persistent memory
Documentation
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// ==================== Pillar B: Turn-Anchored Cross-Turn Prefix Invariants ====================
//
// Task 9 (docs/superpowers/plans/2026-06-07-pillar-b-turn-anchored-history.md):
// cross-turn cache-prefix invariants + an identity-survives-archival regression,
// driven through the REAL agent loop (`Agent::handle_message`) with the mock
// provider.
//
// Seam.  These tests assert on the converted message SEQUENCE element-wise (not
// on serialized JSON request bodies). The seam is `MockProvider.call_log` — each
// `MockChatCall.messages` is exactly the `Vec<Value>` the agent handed the
// provider for that LLM call, i.e. the output of `message_build_phase`. The
// OpenAI-compatible adapter is a faithful passthrough of this sequence (count /
// order / roles preserved inline — proven element-wise in
// `providers::openai_compatible` Pillar A tests
// `test_pillar_a_openai_preserves_message_count_order_and_roles` and
// `test_pillar_a_openai_prefix_stable_when_tool_exchange_appended`), so an
// element-wise assertion on `call_log` IS an assertion on the OpenAI converted
// sequence. These invariants apply ONLY to the OpenAI adapter; anthropic/google
// hoist system content and are covered by Pillar A determinism tests.
//
// The stable region is `core` (message index 0, role=system) + the archived
// turns that follow it. The transient suffix is the `[Task Context]` tail
// (boundary − 1) + the current-turn messages; these rotate per turn by design
// and are excluded from the stable-region comparisons below.

/// Identify the contiguous stable prefix of a built payload: message 0 (core)
/// plus every following ARCHIVED conversation message, stopping at the first
/// transient element. Transient elements are the per-task `[Task Context]`
/// system tail and the current user turn. We detect the tail by its marker
/// substring and stop there; everything before it (after core) is archived.
fn stable_prefix_serialized(messages: &[serde_json::Value]) -> Vec<String> {
    let mut out = Vec::new();
    for (i, m) in messages.iter().enumerate() {
        let role = m.get("role").and_then(|r| r.as_str()).unwrap_or("");
        let content = m.get("content").and_then(|c| c.as_str()).unwrap_or("");
        // The transient suffix begins at the per-task directives injected just
        // before the current user (boundary − 1): the `[Task Context]` tail and
        // the `[Current Task]` marker. Both are system messages that rotate per
        // turn; the first of them marks the end of the stable (core+archived)
        // region. Everything before it is core (i==0) + archived turns.
        if i > 0
            && role == "system"
            && (content.contains("[Task Context]") || content.contains("[Current Task]"))
        {
            break;
        }
        out.push(serde_json::to_string(m).expect("serialize message"));
    }
    out
}

/// Invariant 2 + 3 helper: core element (message 0) serialized.
fn core_serialized(messages: &[serde_json::Value]) -> String {
    serde_json::to_string(&messages[0]).expect("serialize core")
}

/// INVARIANT 2 — cross-turn archived stability.
/// Across three turns in one session, `core + archived[..N-1]` elements are
/// byte-identical between turn 2 and turn 3, and the archived turn introduced in
/// turn 2 (`archived[N]`) is byte-stable when re-rendered in turn 3. Asserted on
/// the built payload (call_log) element-wise.
#[tokio::test]
async fn pillar_b_cross_turn_archived_prefix_is_byte_identical() {
    let provider = MockProvider::with_responses(vec![
        MockProvider::text_response("First answer."),
        MockProvider::text_response("Second answer."),
        MockProvider::text_response("Third answer."),
    ]);
    let harness = setup_test_agent(provider).await.unwrap();
    let session = "pillar_b_cross_turn_archived";

    for msg in ["alpha question one", "beta question two", "gamma question three"] {
        let _ = harness
            .agent
            .handle_message(
                session,
                msg,
                None,
                UserRole::Owner,
                ChannelContext::private("test"),
                None,
            )
            .await
            .unwrap();
    }

    let calls = harness.provider.call_log.lock().await;
    assert!(calls.len() >= 3, "expected one LLM call per turn, got {}", calls.len());
    // The build that ran for turn 2 (sees turn 1 archived) and turn 3 (sees
    // turns 1 and 2 archived). Use the LAST call of each turn — here one call
    // per turn (text response, no tools).
    let turn2 = &calls[calls.len() - 2].messages;
    let turn3 = &calls[calls.len() - 1].messages;

    // Core (message 0) is byte-identical across turns (Pillar A stable core).
    assert_eq!(
        core_serialized(turn2),
        core_serialized(turn3),
        "core (message 0) must be byte-identical across turns"
    );

    // The stable archived prefix of turn 2 must be an element-wise PREFIX of
    // turn 3's stable archived prefix: turn 3 archives one more whole turn, so
    // it extends turn 2's archived region without rewriting any earlier element.
    let pre2 = stable_prefix_serialized(turn2);
    let pre3 = stable_prefix_serialized(turn3);
    // The archived region must actually GROW turn-over-turn (otherwise the
    // prefix-equality below would be vacuously true): turn 3 archives turn 2 on
    // top of turn 1, so its stable prefix is strictly longer.
    assert!(
        pre3.len() > pre2.len(),
        "turn 3 stable prefix ({}) must STRICTLY exceed turn 2 ({}) — the \
         archived region must grow as turns accumulate",
        pre3.len(),
        pre2.len()
    );
    // And turn 2 must already carry a non-trivial archived region (core + at
    // least turn 1's archived messages), so the prefix check is meaningful.
    assert!(
        pre2.len() > 1,
        "turn 2 stable prefix must include core + archived turn 1, got {}",
        pre2.len()
    );
    for (i, el) in pre2.iter().enumerate() {
        assert_eq!(
            el, &pre3[i],
            "stable-prefix element {i} (core+archived[..N-1]) must be \
             byte-identical when turn 3 archives an additional turn"
        );
    }
    // The prior user message from turn 1 must survive verbatim in turn 2's
    // archived region (turn-anchored whole-turn history retains it).
    assert!(
        turn2.iter().any(|m| {
            m.get("role").and_then(|r| r.as_str()) == Some("user")
                && m.get("content").and_then(|c| c.as_str()) == Some("alpha question one")
        }),
        "turn 1 user message must survive verbatim as archived context in turn 2"
    );
    // And it is still byte-identical in turn 3 (archived[N] byte-stability).
    assert!(
        turn3.iter().any(|m| {
            m.get("role").and_then(|r| r.as_str()) == Some("user")
                && m.get("content").and_then(|c| c.as_str()) == Some("alpha question one")
        }),
        "turn 1 user message must remain byte-stable in turn 3"
    );
}

/// INVARIANT 3 — storing a fact between turns changes the TAIL element only.
/// A fact stored between turn 1 and turn 2 must NOT rewrite the core or the
/// archived prefix; the only per-turn variation lives in the transient tail /
/// current-turn region. Asserted on the built payload (call_log) element-wise.
#[tokio::test]
async fn pillar_b_fact_storage_between_turns_leaves_core_and_archived_identical() {
    let provider = MockProvider::with_responses(vec![
        MockProvider::text_response("First answer."),
        MockProvider::text_response("Second answer."),
        MockProvider::text_response("Third answer."),
    ]);
    let harness = setup_test_agent(provider).await.unwrap();
    let session = "pillar_b_fact_between_turns";

    // Turn 1 establishes an archived turn.
    let _ = harness
        .agent
        .handle_message(
            session,
            "first request here",
            None,
            UserRole::Owner,
            ChannelContext::private("test"),
            None,
        )
        .await
        .unwrap();
    // Turn 2 (baseline) — captures core + archived prefix BEFORE the fact.
    let _ = harness
        .agent
        .handle_message(
            session,
            "second request here",
            None,
            UserRole::Owner,
            ChannelContext::private("test"),
            None,
        )
        .await
        .unwrap();

    // Store a fact OUT OF BAND between turns. Facts are session-scoped context
    // injected into the per-task tail, not into the stable core or the archived
    // conversation turns, so the stable prefix must be unaffected.
    harness
        .state
        .upsert_fact(
            "user",
            "favorite_color",
            "teal",
            "user",
            None,
            crate::types::FactPrivacy::Global,
        )
        .await
        .unwrap();

    // Turn 3 — built AFTER the fact store.
    let _ = harness
        .agent
        .handle_message(
            session,
            "third request here",
            None,
            UserRole::Owner,
            ChannelContext::private("test"),
            None,
        )
        .await
        .unwrap();

    let calls = harness.provider.call_log.lock().await;
    let turn2 = &calls[calls.len() - 2].messages; // before fact
    let turn3 = &calls[calls.len() - 1].messages; // after fact

    // Core unchanged (facts do not invalidate the stable core).
    assert_eq!(
        core_serialized(turn2),
        core_serialized(turn3),
        "storing a fact must NOT rewrite the stable core (message 0)"
    );

    // Archived prefix (after core, before the tail) unchanged element-wise.
    // turn3 archives one MORE turn than turn2, so compare the common prefix.
    let pre2 = stable_prefix_serialized(turn2);
    let pre3 = stable_prefix_serialized(turn3);
    // Meaningful comparison: both builds carry a real archived region.
    assert!(
        pre2.len() > 1 && pre3.len() > 1,
        "both turns must carry core + archived turns for this check to bite \
         (pre2={}, pre3={})",
        pre2.len(),
        pre3.len()
    );
    let common = pre2.len().min(pre3.len());
    for i in 0..common {
        assert_eq!(
            pre2[i], pre3[i],
            "archived prefix element {i} must be byte-identical across a \
             between-turns fact store (the fact lands in the transient tail only)"
        );
    }
}

/// INVARIANT 1 — within a task, a retained stable-region mutator emits its
/// `Prefix mutation` line (return-value / attribution approach, per Task 8 and
/// the pragmatism note). We exercise the empty-response retry mutator: an empty
/// first model response triggers the retry rebuild, which rewrites the
/// current-turn region and emits `Prefix mutation reason=empty_response_retry`.
/// The build path's mutator attribution is unit-proven in
/// `message_build_phase` tests; here we confirm the full loop still drives a
/// mutator path (the empty-response retry) and recovers, exercising the same
/// build seam end-to-end. The element-wise stable-region extension within a task
/// is asserted via call_log: the second (retry) call's stable prefix is not
/// shorter than the first's and its core element is byte-identical (the retry
/// rebuild touches only the current-turn suffix, never the stable core).
#[tokio::test]
async fn pillar_b_within_task_stable_core_survives_mutator_retry() {
    // First response empty -> empty-response retry mutator fires within the same
    // task; second response is substantive.
    let provider = MockProvider::with_responses(vec![
        MockProvider::text_response(""),
        MockProvider::text_response("Recovered answer."),
    ]);
    let harness = setup_test_agent(provider).await.unwrap();
    let session = "pillar_b_within_task_mutator";

    let _ = harness
        .agent
        .handle_message(
            session,
            "please answer this within one task",
            None,
            UserRole::Owner,
            ChannelContext::private("test"),
            None,
        )
        .await
        .unwrap();

    let calls = harness.provider.call_log.lock().await;
    assert!(
        calls.len() >= 2,
        "empty first response must trigger a within-task retry call, got {}",
        calls.len()
    );
    // Within the same task, the stable core (message 0) is byte-identical
    // between the initial call and the retry call — the mutator rewrites only
    // the current-turn suffix, never the stable prefix's core.
    let first = &calls[0].messages;
    let retry = &calls[1].messages;
    assert_eq!(
        core_serialized(first),
        core_serialized(retry),
        "within-task retry must not rewrite the stable core (message 0)"
    );
}

/// INVARIANT 4 (Pillar A behavior re-verified) — see note in the Task 9 report.
/// A live skills-catalog change between turns producing exactly one
/// `Core prompt invalidated component=skills_catalog` and new core bytes is
/// asserted at the pure-helper seam by
/// `crate::agent::runtime::core_prompt::tests::core_cache_decision_names_skills_catalog_on_toggle`
/// (exactly one component named, and distinct core bytes). The agent's skill
/// registry is not exposed on the integration `TestHarness` and the
/// `Core prompt invalidated` signal is a `tracing` log with no capture seam in
/// the integration suite, so driving this invariant end-to-end through the full
/// loop is not expressible against the available seams. This is recorded in the
/// Task 9 report (DONE_WITH_CONCERNS) rather than asserted weakly here.
///
/// We DO re-verify end-to-end that the stable core is byte-identical across two
/// turns when NOTHING that feeds the core changes — the complement of the
/// invalidation behavior, which is expressible on call_log.
#[tokio::test]
async fn pillar_b_stable_core_is_byte_identical_across_turns_without_core_change() {
    let provider = MockProvider::with_responses(vec![
        MockProvider::text_response("One."),
        MockProvider::text_response("Two."),
    ]);
    let harness = setup_test_agent(provider).await.unwrap();
    let session = "pillar_b_core_stability";

    for msg in ["question one here", "question two here"] {
        let _ = harness
            .agent
            .handle_message(
                session,
                msg,
                None,
                UserRole::Owner,
                ChannelContext::private("test"),
                None,
            )
            .await
            .unwrap();
    }

    let calls = harness.provider.call_log.lock().await;
    let turn1 = &calls[calls.len() - 2].messages;
    let turn2 = &calls[calls.len() - 1].messages;
    assert_eq!(
        core_serialized(turn1),
        core_serialized(turn2),
        "core must be byte-identical across turns when no core component changes"
    );
}

/// STEP 3 — IDENTITY REGRESSION. An identity-critical statement asserted in an
/// EARLY turn must survive VERBATIM in the built payload of a LATER turn, after
/// that early turn has been pushed into the ARCHIVED region by turn-anchored
/// whole-turn history. Asserted on the built payload (call_log).
#[tokio::test]
async fn pillar_b_identity_statement_in_archived_turn_survives_verbatim() {
    let provider = MockProvider::with_responses(vec![
        MockProvider::text_response("Understood, noted."),
        MockProvider::text_response("Okay."),
        MockProvider::text_response("Sure."),
    ]);
    let harness = setup_test_agent(provider).await.unwrap();
    let session = "pillar_b_identity_archived";

    // Turn 1: the identity-critical statement.
    let identity_stmt = "My name is Aurelia and I am the system owner; never call me anything else.";
    let _ = harness
        .agent
        .handle_message(
            session,
            identity_stmt,
            None,
            UserRole::Owner,
            ChannelContext::private("test"),
            None,
        )
        .await
        .unwrap();

    // Two more turns push turn 1 into the archived region.
    for msg in ["what's the weather like", "tell me a fact"] {
        let _ = harness
            .agent
            .handle_message(
                session,
                msg,
                None,
                UserRole::Owner,
                ChannelContext::private("test"),
                None,
            )
            .await
            .unwrap();
    }

    let calls = harness.provider.call_log.lock().await;
    let latest = &calls.last().expect("at least one call").messages;

    // The identity-critical statement must appear VERBATIM in a non-core message
    // of the latest built payload (it now lives in the archived region).
    let survives_verbatim = latest.iter().enumerate().any(|(i, m)| {
        i > 0
            && m.get("content")
                .and_then(|c| c.as_str())
                .is_some_and(|c| c.contains(identity_stmt))
    });
    assert!(
        survives_verbatim,
        "identity-critical statement must survive VERBATIM in the archived \
         region of a later turn's built payload; messages: {latest:?}"
    );
}