Merge remote-tracking branch 'origin/master' into xtr/agent-loop-message-machine
# Conflicts: # docs/cordis-catalog/services.md
This commit is contained in:
_Kerman
@@ -19,16 +19,16 @@ Key choices recorded here because they are durable, contested, and surprising:
|
||||
|
||||
- **The canonical durable log persists every `SessionEvent` verbatim, including `assistant/chunk`.** `deriveMessages()` skips chunks, and a chunk-filtered rollout (Codex's `policy.rs`) is tempting — but `seq = log.length` and the load-validation `events[i].seq === i` require a *contiguous* log; filtering chunks out would leave holes and break both the contract and resume. A chunk-filtered projection is possible later as a derived view with its own renumbering, but it is NOT the canonical log.
|
||||
- **Append-only; a crashed turn is closed, never truncated.** Flushed events are never rewritten. The [semantic checkpoint policy](../bug-fix/2026-07-21-semantic-session-checkpoints.md) drains the request before model dispatch, a recorded top-level call before tool dispatch, and the complete response/result batch after a step; the loop drains the final turn boundary. Because one interrupted turn may contain substantial valid work, `load` preserves its contiguous, parseable events and appends risk-classified error results for unanswered assistant calls, a missing `step/end`, and `turn/end` with `{ kind: 'interrupted' }`. The synthetic results keep resumed provider transcripts valid. Only an incomplete final record is discarded; a parse error or sequence gap at or before the last real `turn/end` is corruption and makes the session unloadable.
|
||||
- **File backend canonical, DB backend a proven drop-in.** `SessionEvent` maps 1:1 onto a row `(session_id, seq, type, time, data)` — `append` is INSERT (in a transaction asserting the contiguous-seq contract), `load` is SELECT … ORDER BY seq. `dsh-session-persistence-sqlite` is exactly this: a `SessionPersistence` subclass with no interface change (opencode runs this exact shape on SQLite/WAL), and it passes the same `runPersistenceContract` suite as the JSONL backend — so the contract holds both backends to identical semantics (lazy materialization, interrupted-turn close on load, contiguous-seq), expressed once over file bytes and once over rows.
|
||||
- **Metadata is out-of-log.** Format version, cwd, and lineage are storage concerns, not replayable conversation state, so they live in a `SessionHeader` owned by `dsh-session` and attached to a `Session` via a new readonly `session.header` — never in `SessionEventMap`, never reaching `deriveMessages()`. The alternative (a merge-extensible `session/meta` event as log line 0) was rejected: an in-log event would ride along with a seeded/forked session for free, but metadata is not replayable state, so the explicit out-of-log header seam is the cleaner cost. (The header was originally split into an immutable `SessionHeader` plus a mutable `SessionSummary` whose union was `SessionMeta`; the mutable summary was later removed as dead state — see [Drop the mutable session summary](../simplification/2026-06-19-drop-mutable-session-summary.md).)
|
||||
- **File backend canonical, DB backend a proven drop-in.** `SessionEvent` maps 1:1 onto a row `(session_id, seq, type, time, data)` — `append` is INSERT (in a transaction asserting the contiguous-seq contract), `load` is SELECT … ORDER BY seq. `dsh-session-persistence-sqlite` is exactly this: a `SessionPersistence` subclass with no interface change (opencode runs this exact shape on SQLite/WAL), and it passes the same `runPersistenceContract` suite as the JSONL backend — so the contract holds both backends to identical semantics (lazy materialization, interrupted-turn close on load, contiguous-seq), expressed once over file bytes and once over rows. Its database carries a dedicated application id and monotonic schema version. A pristine file creates all tables and stamps both header values in one transaction; an unversioned file with any user-defined schema object or application identity, a foreign current-version identity, and every non-current version reject before journal-mode mutation.
|
||||
- **Metadata is out-of-log.** Format version, cwd, and lineage are storage concerns, not replayable conversation state, so they live in a `SessionHeader` owned by `dsh-session` and attached to a `Session` via a new readonly `session.header` — never in `SessionEventMap`, never reaching `deriveMessages()`. `createdAt` is non-negative safe-integer Unix epoch milliseconds: live creation and persistence registration reject fractional values, JSONL validates the decoded header, and SQLite stores it in a strict `INTEGER` column. The alternative (a merge-extensible `session/meta` event as log line 0) was rejected: an in-log event would ride along with a seeded/forked session for free, but metadata is not replayable state, so the explicit out-of-log header seam is the cleaner cost. (The header was originally split into an immutable `SessionHeader` plus a mutable `SessionSummary` whose union was `SessionMeta`; the mutable summary was later removed as dead state — see [Drop the mutable session summary](../simplification/2026-06-19-drop-mutable-session-summary.md).)
|
||||
- **`ctx.agents.create()` and `ctx.agents.resume()` are async factories; resume additionally crosses the persistence boundary.** `ctx.agents.resume({ resumeSessionId })` awaits `ctx.sessionPersistence.load`, recreates the live session with the loaded events (so `lastTurnNumber`/`deriveMessages` continue), and registers the fresh agent under the exact resumed id. The agent-loop does NOT hard-inject `sessionPersistence` (that would pend non-persistent demos forever); `resume` rejects with a clear error when it is absent.
|
||||
|
||||
## Alternatives considered
|
||||
|
||||
Each key choice above records its rejected alternative where the choice is stated: a **chunk-filtered canonical log** (Codex's `policy.rs` shape) — breaks the contiguous-seq contract; **truncating a crashed turn** — silently destroys a long autonomous run's real work; an **in-log `session/meta` event as line 0** — metadata is not replayable state; **hard-injecting `sessionPersistence` into the loop** — would pend non-persistent demos forever.
|
||||
Each key choice above records its rejected alternative where the choice is stated: a **chunk-filtered canonical log** (Codex's `policy.rs` shape) — breaks the contiguous-seq contract; **truncating a crashed turn** — silently destroys a long autonomous run's real work; an **in-log `session/meta` event as line 0** — metadata is not replayable state; **finite fractional `createdAt` values** — have no producer and diverge from integer Unix-millisecond storage and query columns; **adopting a non-pristine unversioned SQLite file** — can overwrite unrelated objects or identity; **hard-injecting `sessionPersistence` into the loop** — would pend non-persistent demos forever.
|
||||
|
||||
Format versioning: the header carries a `version`; `load` rejects any non-current version (no migration — the pre-release session format is pinned at `SESSION_FORMAT_VERSION = 0` and absorbs shape churn, per the AGENTS.md pre-release stance). Stated honestly: append-only + flush is robust to partial trailing writes (tolerated on load) but not to fsync-less power loss mid-line; a DB/WAL backend is the stronger option later.
|
||||
|
||||
## Consequences
|
||||
|
||||
Two new packages and the metadata seam in `dsh-session` (`session.header`, the `create(id?, options?)` signature). Bought: durable resume/fork, a read/replay path, crash tolerance, and the foundation the ACP `session/load` ([ACP support](../feature/2026-06-14-acp-agent-client-protocol.md)) needs — all over the existing event-sourced log, with the backend swappable behind one interface. The reusable `runPersistenceContract` suite holds every backend to the same append-only, contiguous-seq, lazy-materialization, and serializability semantics. Persisting the full log also settles event fidelity: `assistant/chunk` remains verbatim.
|
||||
Two new packages and the metadata seam in `dsh-session` (`session.header`, the `create(id?, options?)` signature). Bought: durable resume/fork, a read/replay path, crash tolerance, and the foundation the ACP `session/load` ([ACP support](../feature/2026-06-14-acp-agent-client-protocol.md)) needs — all over the existing event-sourced log, with the backend swappable behind one interface. The reusable `runPersistenceContract` suite holds every backend to the same append-only, contiguous-seq, lazy-materialization, integer-metadata, and serializability semantics. Persisting the full log also settles event fidelity: `assistant/chunk` remains verbatim. SQLite initialization either commits its complete owned schema and header identity or leaves no partial schema to strand on the next open.
|
||||
|
||||
@@ -0,0 +1,6 @@
|
||||
# Bilingual-pair consistency record (docs/i18n/README.md): the git blob hash of each
|
||||
# side as of the last confirmed-consistent state. Both languages carry equal authority;
|
||||
# after editing either side, bring the other along and re-record with:
|
||||
# pnpm run verify-translation-pairing --write
|
||||
2026-07-24-recursive-python-sdk-session-notifications.md: c90213659391b565acd043a1be64e225f8babd31
|
||||
2026-07-24-recursive-python-sdk-session-notifications.zh.md: 214a5ef924dcc9da3a97aab6385837acd2b364d9
|
||||
@@ -0,0 +1,29 @@
|
||||
# Agent Note: Recursive Python SDK session notifications
|
||||
|
||||
Status: implemented
|
||||
|
||||
English | [中文](2026-07-24-recursive-python-sdk-session-notifications.zh.md)
|
||||
|
||||
## Problem
|
||||
|
||||
The Python SDK filtered turn notifications by comparing each payload directly with the root session id. This admitted a direct child's lifecycle because its parent id named the root, but rejected a grandchild's lifecycle and every descendant `session.event`. The JSON-RPC server still emitted those notifications, so they accumulated on the low-level global queue while high-level consumers lost nested trajectory relationships and completion states.
|
||||
|
||||
## Decision
|
||||
|
||||
`HarnessClient` records every valid `subagent.started` child-to-parent edge before dispatching the notification. A later `subagent.finished` routes by its immutable parent id but never rewrites current ancestry, so an older run that settles after its child id has been reused cannot displace the replacement session. Other session notifications resolve their session id by walking that client-lifetime ancestry graph to the requested root. The graph survives successive subscriptions so a descendant that outlives one `Session.run()` remains attributable when it emits during a later turn, and it resets when the client starts a new runtime process.
|
||||
|
||||
`Session.run()` delivers the complete discovered session-tree notification stream through `TurnResult.notifications` and `on_notification`. Only `session.event` notifications whose `sessionId` equals the requested root enter `TurnResult.events` or final-response reconstruction. Descendant events are therefore observable without allowing a child response to replace the root response.
|
||||
|
||||
## Alternatives considered
|
||||
|
||||
**Add a root session id to every JSON-RPC notification.** The server already provides exact immediate-parent edges, and duplicating transitive ancestry on the wire would make every producer responsible for client subscription state.
|
||||
|
||||
**Limit subagents to one level.** A deployment can set `maxDepth: 1`, but changing the SDK to depend on that policy would silently misreport valid recursive compositions.
|
||||
|
||||
**Subscribe only to descendant lifecycle notifications.** This would repair relation and completion reporting, but descendant session events would continue accumulating on the global queue and callbacks would expose an incomplete tree.
|
||||
|
||||
**Expose and index every subagent run id on the JSON-RPC wire.** Exact run identity is useful when a client must correlate two concurrent outcomes for the same child, but session-tree routing already has the authoritative start edge and each terminal notification's immutable parent. Expanding the protocol is unnecessary for this ownership decision.
|
||||
|
||||
## Consequences
|
||||
|
||||
High-level consumers receive nested lifecycle and session notifications in wire order while root turn results preserve their prior response semantics. The client retains one current parent entry per observed child until the runtime restarts; ancestry lookup is cycle-safe, and unrelated session notifications remain available through the global queue. Keyless Python tests cover two-level delegation, root-response isolation, absence of tree-notification queue buildup, ancestry reuse across subscriptions, and reused child ids whose older runs settle out of order.
|
||||
@@ -0,0 +1,29 @@
|
||||
# Agent Note: Python SDK 递归会话通知
|
||||
|
||||
Status: implemented
|
||||
|
||||
[English](2026-07-24-recursive-python-sdk-session-notifications.md) | 中文
|
||||
|
||||
## 问题
|
||||
|
||||
Python SDK 过去通过将每条通知的 payload 与根会话 ID 直接比较来过滤轮次通知。直接子 agent 的生命周期通知因 parent ID 指向根会话而能够通过，但孙级生命周期通知与所有后代 `session.event` 都会被拒绝。JSON-RPC 服务器仍会发出这些通知，因此它们会堆积在底层全局队列中，而高层消费者会丢失嵌套轨迹的关系与结束状态。
|
||||
|
||||
## 决策
|
||||
|
||||
`HarnessClient` 会在分发通知前，记录每条有效 `subagent.started` 所包含的 child-to-parent（子到父）关系。后续的 `subagent.finished` 会依据自身不可变的 parent ID 路由，但不会改写当前祖先关系，因此旧 run 即使在其 child ID 已被复用后才结束，也无法覆盖替代它的新会话。其他会话通知会沿客户端生命周期内保存的祖先关系图回溯自身 session ID，判断它们是否属于请求的根会话。该关系图会跨连续订阅保留，因此某个后代即使跨过一次 `Session.run()`，在后续轮次中发出通知时仍能正确归属；客户端启动新的运行时进程时会重置关系图。
|
||||
|
||||
`Session.run()` 通过 `TurnResult.notifications` 与 `on_notification` 提供已发现会话树的完整通知流。只有 `sessionId` 等于请求根会话的 `session.event` 才会进入 `TurnResult.events` 或参与最终回复重建。因此调用方能够观察后代事件，同时子会话回复不会覆盖根会话回复。
|
||||
|
||||
## 考虑过的替代方案
|
||||
|
||||
**在每条 JSON-RPC 通知中加入根会话 ID。** 服务器已经提供精确的直接父子关系；在线路协议中重复传递祖先关系，会迫使每个生产者承担客户端订阅状态的职责。
|
||||
|
||||
**把 subagent 限制为一层。** 部署可以设置 `maxDepth: 1`，但让 SDK 依赖该策略，会对合法的递归组合产生静默误报。
|
||||
|
||||
**只订阅后代生命周期通知。** 这可以修复关系与结束状态的上报，但后代会话事件仍会堆积在全局队列中，回调看到的会话树也不完整。
|
||||
|
||||
**在 JSON-RPC 线路上公开并索引每个 subagent run ID。** 当客户端必须关联同一 child 的两个并发结果时，精确 run 身份很有价值；但会话树路由已经拥有权威 start 关系和每条终止通知中不可变的 parent。没有必要为这一归属决策扩展协议。
|
||||
|
||||
## 后果
|
||||
|
||||
高层消费者会按线上的原始顺序收到嵌套生命周期与会话通知，同时根轮次结果保持原有回复语义。客户端会为每个已观察到的子会话保留一条当前父关系，直到运行时重启；祖先回溯能够安全处理环，无关会话通知仍可从全局队列获取。无密钥 Python 测试覆盖两层派生、根回复隔离、会话树通知不堆积、跨订阅复用祖先关系，以及旧 run 乱序结束的复用 child ID。
|
||||
@@ -36,7 +36,7 @@ One serialized operation reads the provider-neutral `SessionPersistence` snapsho
|
||||
|
||||
Persisted documents survive restarts. Live sessions use connection-local TEMP tables, shadow the persisted base for the same id, and reveal that base on detach. Closing the database drops live rows. Unmounting persistence hides durable rows without treating absence as authoritative deletion; remounting observes and reconciles the backend again. Conflicting immutable live and durable headers fail rather than combining sources.
|
||||
|
||||
The derived schema has its own application id and monotonic schema version. A recognized incompatible version resets only this derived database. A database with a foreign application id or unrecognized user tables is refused before journal-mode mutation, which prevents an accidentally configured canonical session database from being changed. On POSIX filesystems, missing directories and database files are created owner-only so new SQLite sidecars inherit that mode; existing modes are preserved. One service in one process exclusively owns a derived-index path; cross-process writers are unsupported because generations and live TEMP shadow state are connection-owned.
|
||||
The derived schema has its own application id and monotonic schema version. Persistent and TEMP session metadata store the integer `SessionHeader.createdAt` contract in strict `INTEGER` columns. A recognized incompatible version resets only this derived database. A database with a foreign application id or unrecognized user tables is refused before journal-mode mutation, which prevents an accidentally configured canonical session database from being changed. On POSIX filesystems, missing directories and database files are created owner-only so new SQLite sidecars inherit that mode; existing modes are preserved. One service in one process exclusively owns a derived-index path; cross-process writers are unsupported because generations and live TEMP shadow state are connection-owned.
|
||||
|
||||
Cancellation rejects queued operations and caller waits around asynchronous source observation without committing an aborted observation. Node's synchronous `DatabaseSync` MATCH call cannot be interrupted once it is executing on the JavaScript thread, so the service checks the signal at serialized boundaries but does not promise mid-statement preemption.
|
||||
|
||||
|
||||
@@ -2,5 +2,5 @@
|
||||
# side as of the last confirmed-consistent state. Both languages carry equal authority;
|
||||
# after editing either side, bring the other along and re-record with:
|
||||
# pnpm run verify-translation-pairing --write
|
||||
2026-07-19-model-facing-goal-tools.md: 7cc3907d708115207e166455ea988120a03d768b
|
||||
2026-07-19-model-facing-goal-tools.zh.md: 1a381160354d6a2a24f957f41bc9e375c1ab01ca
|
||||
2026-07-19-model-facing-goal-tools.md: 286329390a058c0302520fd2203e5becb8c81395
|
||||
2026-07-19-model-facing-goal-tools.zh.md: b0b4fc99ada3597fbab58081f52309e21dd43bac
|
||||
|
||||
@@ -16,11 +16,11 @@ The surface also needs to preserve the separation between durable state and live
|
||||
|
||||
### Tools and model contract
|
||||
|
||||
`get_goal()` returns the current goal or `null`. A non-null result contains the compare-and-set id and revision, objective, durable phase, admitted and maximum goal rounds, any blocker reason, plus the process-local activation observation. `create_goal(objective, max_goal_rounds?)` creates one long-running same-session objective. `update_goal(goal_id, revision, action, objective?, max_goal_rounds?, blocked_reason?)` supports `edit`, `pause`, `resume`, `complete`, and `blocked`; replacement fields are valid only for `edit`, while a non-empty `blocked_reason` is required only for `blocked` and persists under the stable `model-reported` code.
|
||||
`get_goal()` returns the current goal or `null`. A non-null result contains the compare-and-set id and revision, objective, durable phase, admitted and maximum goal rounds, any blocker reason, plus the process-local activation observation. `create_goal(objective, max_goal_rounds?)` creates one long-running same-session objective. `update_goal(goal_id, revision, action, objective?, max_goal_rounds?, blocked_reason?)` supports `edit`, `pause`, `resume`, `complete`, and `blocked`; replacement fields are valid only for `edit`, while a non-empty `blocked_reason` is required only for `blocked` and persists under the stable `model-reported` code. The executor treats exact empty-string optional fields and a zero `max_goal_rounds` as strict-schema fillers: they count as omitted, an edit still requires at least one meaningful replacement, and all non-filler values retain the action restrictions.
|
||||
|
||||
The prompt tells the model that it may infer goal intent from a direct human request in any wording or language, but should not convert routine single-turn work into a goal. It must read the current goal before updating and copy the exact id and revision. On a restored or forked active-but-disarmed goal, a semantic human request to continue is grounds for `resume`. Completion is reserved for an achieved objective, and difficulty or uncertainty alone is not a blocker; a block report must name the concrete condition.
|
||||
|
||||
All three tools use exclusive execution so a model-ordered batch observes prior mutations and their new revisions. Results are compact JSON. ACP presentation is a pure function of arguments and uses generic read or mutation cards; activation is reported only as live observation and is never written into replay state.
|
||||
All three tools use exclusive execution so a model-ordered batch observes prior mutations and their new revisions. Results are compact JSON. ACP presentation is a pure function of arguments and uses generic read or mutation cards; mutation cards select meaningful action values before the goal id, so accepted fillers cannot blank their input. Activation is reported only as live observation and is never written into replay state.
|
||||
|
||||
An autonomous goal round that successfully reports completion or blocking contributes the existing terminal `agent/turn-stop` decision for that physical turn, preventing an unnecessary follow-up request. Direct-human mutations do not contribute a terminal stop: the assistant can acknowledge the change, and concurrent human steering remains available to ordinary continuation folding.
|
||||
|
||||
@@ -38,7 +38,7 @@ Complete and blocked accept either direct-human authority or the exact current g
|
||||
|
||||
## Testing
|
||||
|
||||
Unit coverage pins registration and disposal, exclusive scheduling, generated prompt policy, generic presentation, direct-human creation in a non-English turn, exact/stale/non-running agent and driver checks, live-child rejection, resumed-fork root authority, steering, mismatched initiators, read/create/edit/pause/resume behavior, conditional blocker explanations, rearming after a session-start edge, authority-before-conditional-argument failures, exact goal-round completion, autonomous-only terminal stopping, the configured blocking threshold, and immediate human blocking. A keyless replay snapshot mounts the goal domain and tools into the real headless one-shot application, drives `create_goal` and `get_goal` through the shipped loop and persistence stack, pins its stream-json transcript, and inspects the externally persisted goal change. The echo-agent fixture is intentionally not used as an application-UX surrogate.
|
||||
Unit coverage pins registration and disposal, exclusive scheduling, generated prompt policy, filler-safe generic presentation, direct-human creation in a non-English turn, exact/stale/non-running agent and driver checks, live-child rejection, resumed-fork root authority, steering, mismatched initiators, read/create/partial-edit/pause/resume behavior including strict-schema fillers, conditional blocker explanations, rearming after a session-start edge, authority-before-conditional-argument failures, exact goal-round completion, autonomous-only terminal stopping, the configured blocking threshold, and immediate human blocking. A keyless replay snapshot mounts the goal domain and tools into the real headless one-shot application, drives a strict-filler `update_goal` probe plus `create_goal` and `get_goal` through the shipped loop and persistence stack, pins its stream-json transcript, and inspects the externally persisted goal change. The echo-agent fixture is intentionally not used as an application-UX surrogate.
|
||||
|
||||
## Alternatives considered
|
||||
|
||||
@@ -48,6 +48,7 @@ Unit coverage pins registration and disposal, exclusive scheduling, generated pr
|
||||
- **Authorize from persisted root or fork metadata** — rejected because a fork that becomes an independently resumed top-level session should accept new human authority, while a currently owned child should not.
|
||||
- **Let autonomous rounds edit or resume the goal** — rejected because continuation authority is narrower than authority to redefine or restart the human objective.
|
||||
- **Treat the blocked threshold as an evaluator** — rejected because event counts cannot prove that an obstacle is semantically unchanged or truly terminal.
|
||||
- **Reject every present action-specific field** — rejected because strict-schema providers can serialize zero-value placeholders for every optional field; only meaningful values can express a conflicting action.
|
||||
|
||||
## Consequences
|
||||
|
||||
@@ -56,6 +57,7 @@ Unit coverage pins registration and disposal, exclusive scheduling, generated pr
|
||||
- Human requests can create and rearm goals through ordinary natural language, while restored sessions remain inert until such input arrives.
|
||||
- Goal rounds can finish or report a repeated blocker but cannot broaden their own mandate.
|
||||
- Deployment policy selects the blocking lower bound; the same resolved value controls enforcement and prompt guidance.
|
||||
- Strict-schema provider fillers interoperate without allowing meaningful cross-action updates.
|
||||
|
||||
## Known limitations and deferred work
|
||||
|
||||
|
||||
@@ -16,11 +16,11 @@ Status: implemented
|
||||
|
||||
### 工具与模型契约
|
||||
|
||||
`get_goal()` 返回当前目标或 `null`。非空结果包含用于比较并交换的 id 与修订号、目标描述、持久阶段、已接纳和最大目标回合数、可能存在的阻塞原因，以及进程本地激活态观察。`create_goal(objective, max_goal_rounds?)` 创建一个长时间运行的同会话目标。`update_goal(goal_id, revision, action, objective?, max_goal_rounds?, blocked_reason?)` 支持 `edit`、`pause`、`resume`、`complete` 和 `blocked`；替换字段仅对 `edit` 有效，非空的 `blocked_reason` 仅在 `blocked` 时必填，并以稳定代码 `model-reported` 持久化。
|
||||
`get_goal()` 返回当前目标或 `null`。非空结果包含用于比较并交换的 id 与修订号、目标描述、持久阶段、已接纳和最大目标回合数、可能存在的阻塞原因，以及进程本地激活态观察。`create_goal(objective, max_goal_rounds?)` 创建一个长时间运行的同会话目标。`update_goal(goal_id, revision, action, objective?, max_goal_rounds?, blocked_reason?)` 支持 `edit`、`pause`、`resume`、`complete` 和 `blocked`；替换字段仅对 `edit` 有效，非空的 `blocked_reason` 仅在 `blocked` 时必填，并以稳定代码 `model-reported` 持久化。执行器把值恰好为空字符串的可选字段和值为 0 的 `max_goal_rounds` 视为严格 schema 占位值：这些值等同于省略；编辑时仍必须提供至少一个有实际意义的替换字段；所有非占位值仍受对应操作的限制。
|
||||
|
||||
提示词告诉模型：它可以从任何措辞或语言的直接人类请求中推断目标意图，但不应把常规单轮工作转换为目标。更新前必须读取当前目标，并复制准确的 id 和修订号。对于恢复或派生后处于活跃但未激活状态的目标，人类在语义上要求继续即可成为执行 `resume` 的依据。只有目标已经实现时才能标记完成，困难或不确定性本身不构成阻塞；阻塞报告必须说明具体条件。
|
||||
|
||||
三个工具都采用独占执行，使模型排序的批次可以观察此前变更及其新修订号。结果为紧凑 JSON。ACP 展示是参数的纯函数，使用通用读取或变更卡片；激活态仅作为实时观察返回，绝不会写入回放状态。
|
||||
三个工具都采用独占执行，使模型排序的批次可以观察此前变更及其新修订号。结果为紧凑 JSON。ACP 展示是参数的纯函数，使用通用读取或变更卡片；变更卡片选择输入时，先取有实际意义的操作值，再取目标 id，因此允许的占位值不会使卡片输入留空。激活态仅作为实时观察返回，绝不会写入回放状态。
|
||||
|
||||
自主目标回合成功报告完成或阻塞后，插件会为该物理轮次贡献现有的终止型 `agent/turn-stop` 决策，避免再发起一次不必要的模型请求。直接人类发起的变更不会贡献终止决策：智能体可以确认该变更，并且并发的人类 steering（转向）仍可参与普通的继续执行折叠。
|
||||
|
||||
@@ -38,7 +38,7 @@ Status: implemented
|
||||
|
||||
## 测试
|
||||
|
||||
单元测试固定注册与释放、独占调度、生成的提示词策略、通用展示、非英语轮次中的直接人类创建、精确/陈旧/非运行中智能体与驱动检查、实时子智能体拒绝、恢复后派生根的权限、steering、发起者不匹配、读取/创建/编辑/暂停/恢复行为、条件式阻塞说明、会话启动边沿后的重新激活、权限先于条件参数失败、准确目标回合的完成、仅自主回合触发终止、可配置阻塞阈值，以及人类立即阻塞。无密钥回放快照把目标领域和工具挂载到真实的 headless 单次运行应用中，通过随附循环与持久化栈驱动 `create_goal` 和 `get_goal`，固定 stream-json 转录，并检查外部持久化的目标变更。这里有意不把 echo-agent 测试夹具当作应用 UX 的替代品。
|
||||
单元测试固定注册与释放、独占调度、生成的提示词策略、可安全处理占位值的通用展示、非英语轮次中的直接人类创建、精确/陈旧/非运行中智能体与驱动检查、实时子智能体拒绝、恢复后派生根的权限、steering、发起者不匹配、读取/创建/部分字段编辑/暂停/恢复行为（包括严格 schema 占位值）、条件式阻塞说明、会话启动边沿后的重新激活、权限先于条件参数失败、准确目标回合的完成、仅自主回合触发终止、可配置阻塞阈值，以及人类立即阻塞。无密钥回放快照把目标领域和工具挂载到真实的 headless 单次运行应用中，通过随附循环与持久化栈驱动一次携带严格 schema 占位值的 `update_goal` 探测，以及对 `create_goal` 和 `get_goal` 的调用，固定 stream-json 转录，并检查外部持久化的目标变更。这里有意不把 echo-agent 测试夹具当作应用 UX 的替代品。
|
||||
|
||||
## 考虑过的替代方案
|
||||
|
||||
@@ -48,6 +48,7 @@ Status: implemented
|
||||
- **根据持久的根或派生元数据授权**——不予采纳，因为成为独立恢复顶层会话的派生应接受新的人类权限，而当前仍受所有权约束的子智能体则不应接受。
|
||||
- **允许自主回合编辑或恢复目标**——不予采纳，因为继续执行权限比重新定义或重启人类目标的权限更窄。
|
||||
- **把阻塞阈值当作评估器**——不予采纳，因为事件计数无法证明障碍在语义上未改变或确实不可继续。
|
||||
- **拒绝所有已提供的特定操作字段**——不予采纳，因为采用严格 schema 的提供方可能为每个可选字段序列化零值占位符；只有有实际意义的字段值才能表示与指定操作相冲突的另一项操作。
|
||||
|
||||
## 后果
|
||||
|
||||
@@ -56,6 +57,7 @@ Status: implemented
|
||||
- 人类可以通过普通自然语言请求创建和重新激活目标，而恢复后的会话在收到此类输入前保持静止。
|
||||
- 目标回合可以完成或报告重复阻塞，但不能自行扩大任务权限。
|
||||
- 部署策略选择阻塞下限；同一个解析后的值同时控制执行与提示词指导。
|
||||
- 系统可兼容采用严格 schema 的提供方所填入的占位值，同时不会放行有实际意义的跨操作更新。
|
||||
|
||||
## 已知限制与延期工作
|
||||
|
||||
|
||||
Reference in New Issue
Block a user