Merge remote-tracking branch 'origin/master' into worktree/pr682-retarget-20260727

# Conflicts:
#	.agents/notes/rejected/simplification/2026-07-26-dependency-swaps-rejected-by-nih-audit.i18n.yaml
This commit is contained in:
Tianyi Cui
2026-07-27 17:55:56 +08:00
554 changed files with 24869 additions and 4081 deletions
@@ -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
2026-06-13-twin-llm-adapters.md: 5c3308b281ce71407002e95dd6e794da2a421fa8
2026-06-13-twin-llm-adapters.zh.md: 93b084973bccaeb802508e4e939a259c281f2608
2026-06-13-twin-llm-adapters.md: b922891d4438553fd96a7f4f4226f378e66e8ad2
2026-06-13-twin-llm-adapters.zh.md: d98b57a0a2e7c92453046022e8cb50aa52994c0f
@@ -12,10 +12,10 @@ English | [中文](2026-06-13-twin-llm-adapters.zh.md)
Ship **two** adapters against the one contract from the start, deliberately built on different internals:
- `dsh-llm-deepseek`hand-rolled `fetch` + SSE parsing against the DeepSeek API.
- `dsh-llm-deepseek`direct `fetch` + in-repo translation against the DeepSeek API; SSE framing is delegated to `eventsource-parser` ([the SSE-parser swap](../simplification/2026-07-26-eventsource-parser-for-deepseek-sse.md)). The twin identity is owning the fetch/translate internals rather than delegating to a full provider SDK, not hand-rolling transport plumbing.
- `dsh-llm-pi-ai` — the same endpoint through the `@earendil-works/pi-ai` library (its own event vocabulary).
The rule they enforce: **anything the StreamChunk vocabulary cannot express for BOTH implementations is a core-vocabulary bug**, caught immediately rather than at the next provider. The pair pinned down conventions now documented on `StreamChunk` in `dsh-llm/src/types.ts`: usage emitted before finish, nothing after finish, tool-call `arguments` as raw JSON strings end-to-end, and the two sanctioned error paths (throw from `stream()` *or* end with `finish {kind:'error'|'aborted'}`) that a consumer must handle on both sides — a divergence the library-backed adapter surfaced that a single hand-rolled adapter would have hidden.
The rule they enforce: **anything the StreamChunk vocabulary cannot express for BOTH implementations is a core-vocabulary bug**, caught immediately rather than at the next provider. The pair pinned down conventions now documented on `StreamChunk` in `dsh-llm/src/types.ts`: usage emitted before finish, nothing after finish, tool-call `arguments` as raw JSON strings end-to-end, and the two sanctioned error paths (throw from `stream()` *or* end with `finish {kind:'error'|'aborted'}`) that a consumer must handle on both sides — a divergence the library-backed adapter surfaced that a single direct-fetch adapter would have hidden.
## Alternatives considered
@@ -24,4 +24,4 @@ The rule they enforce: **anything the StreamChunk vocabulary cannot express for
## Consequences
The twin doubles adapter and key-gated e2e maintenance—both cover V4 Flash and Pro across representative reasoning modes—in exchange for continuous seam-neutrality validation and a second implementation example. Both use `apiKey`, `baseURL`, and `models`; the hand-rolled adapter exposes `thinking`/`reasoningEffort`, while pi-ai exposes one `reasoning` level. A future conformance suite could justify retiring one adapter through a superseding Agent Note.
The twin doubles adapter and key-gated e2e maintenance—both cover V4 Flash and Pro across representative reasoning modes—in exchange for continuous seam-neutrality validation and a second implementation example. Both use `apiKey`, `baseURL`, and `models`; the direct-fetch adapter exposes `thinking`/`reasoningEffort`, while pi-ai exposes one `reasoning` level. A future conformance suite could justify retiring one adapter through a superseding Agent Note.
@@ -12,10 +12,10 @@ Status: implemented
从一开始就针对同一份契约交付**两个**适配器,刻意基于不同的内部实现构建:
- `dsh-llm-deepseek`手写 `fetch` + SSEServer-Sent Events)解析,直接对接 DeepSeek API
- `dsh-llm-deepseek`直接 `fetch` + 仓库内翻译逻辑对接 DeepSeek APISSEServer-Sent Events)分帧委托给 `eventsource-parser`[SSE 解析器替换](../simplification/2026-07-26-eventsource-parser-for-deepseek-sse.md))。孪生身份在于自行持有 fetch/translate 内部实现而非委托给完整的提供方 SDK,不在于手写传输层管道
- `dsh-llm-pi-ai`:通过 `@earendil-works/pi-ai` 库访问同一端点(该库有自己的事件词汇)。
二者共同执行的规则是:**凡 StreamChunk 词汇无法为两个实现同时表达的内容,都是核心词汇的缺陷**——立即暴露,而非等到下一个提供方接入时才发现。这对孪生体确定了现已记录在 `dsh-llm/src/types.ts``StreamChunk` 上的约定:usage 在 finish 之前发出、finish 之后不再有任何事件、工具调用的 `arguments` 全程以原始 JSON 字符串传递,以及消费方必须在两侧都处理的两条合法错误路径(`stream()` 抛异常,*或者*以 `finish {kind:'error'|'aborted'}` 结束)。后一项分歧正是由基于库的适配器暴露出来的,单一手写适配器会将其隐藏。
二者共同执行的规则是:**凡 StreamChunk 词汇无法为两个实现同时表达的内容,都是核心词汇的缺陷**——立即暴露,而非等到下一个提供方接入时才发现。这对孪生体确定了现已记录在 `dsh-llm/src/types.ts``StreamChunk` 上的约定:usage 在 finish 之前发出、finish 之后不再有任何事件、工具调用的 `arguments` 全程以原始 JSON 字符串传递,以及消费方必须在两侧都处理的两条合法错误路径(`stream()` 抛异常,*或者*以 `finish {kind:'error'|'aborted'}` 结束)。后一项分歧正是由基于库的适配器暴露出来的,单一直接 fetch 适配器会将其隐藏。
## 曾考虑的替代方案
@@ -24,4 +24,4 @@ Status: implemented
## 后果
孪生体使适配器和需要密钥的 e2e 维护量翻倍——两者都覆盖 V4 Flash 和 Pro 在各代表性推理(reasoning)模式下的行为——换来的是持续的 seam 中立性验证和第二份实现示例。两个适配器均使用 `apiKey``baseURL``models`手写适配器暴露 `thinking`/`reasoningEffort`pi-ai 适配器暴露一个 `reasoning` 级别。未来如果有一致性测试套件,可以通过后续 Agent Note 论证退役其中一个适配器。
孪生体使适配器和需要密钥的 e2e 维护量翻倍——两者都覆盖 V4 Flash 和 Pro 在各代表性推理(reasoning)模式下的行为——换来的是持续的 seam 中立性验证和第二份实现示例。两个适配器均使用 `apiKey``baseURL``models`直接 fetch 适配器暴露 `thinking`/`reasoningEffort`pi-ai 适配器暴露一个 `reasoning` 级别。未来如果有一致性测试套件,可以通过后续 Agent Note 论证退役其中一个适配器。
@@ -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
2026-07-20-routed-model-context-and-compaction-policy.md: b637ba24d4ba5fc25c8cdd515a821ee97883a326
2026-07-20-routed-model-context-and-compaction-policy.zh.md: 084e762ec29ddc0aecb0bf422c147b9d3122726b
2026-07-20-routed-model-context-and-compaction-policy.md: b00c744e4ac79983a1f492d710e7b1542278c4f4
2026-07-20-routed-model-context-and-compaction-policy.zh.md: 88e26aa7a99e8deb434d9a8fd80784be410a999a
@@ -14,9 +14,9 @@ Neither obvious configuration owner is sufficient. Compact-basic is optional and
### Adapters own exact-route capacity
`LlmAdapter.resolveModelContext(provider, model)` optionally returns `LlmModelContext` for one exact route. `LlmService.resolveModelContext()` selects the registered route owner, validates a positive integer `contextWindow`, and returns a detached value. The query is independent of `listModels()`: an unlisted dynamic model may have capacity metadata, and `undefined` means only that the adapter cannot describe capacity.
`LlmAdapter.resolveModel(provider, model, signal?)` returns aggregate metadata for one exact route, with optional `LlmModelContext` under its `context` field. `LlmService.resolveModelInfo()` selects the registered route owner, validates a positive integer `contextWindow`, and returns detached metadata. The query is independent of `listModels()`: an unlisted dynamic model may have capacity metadata, and an absent `context` means only that the adapter cannot describe capacity.
The hand-rolled DeepSeek adapter accepts optional `contextWindow` on each configured model plus an adapter-wide `defaultContextWindow`. Exact model capacity wins; an entry without capacity and an unlisted pass-through id inherit the adapter default, or return `undefined` when it is absent. The two built-in model entries each publish an exact 128,000-token capacity. The pi-ai adapter resolves capacity from the same catalog descriptor that authoritatively resolves the request model.
The hand-rolled DeepSeek adapter accepts optional `contextWindow` on each configured model plus an adapter-wide `defaultContextWindow`. Exact model capacity wins; an entry without capacity and an unlisted pass-through id inherit the adapter default, or omit `context` when it is absent. The two built-in model entries each publish an exact 128,000-token capacity. The pi-ai adapter resolves capacity from the same catalog descriptor that authoritatively resolves the request model.
### Token measurement remains model-agnostic
@@ -14,9 +14,9 @@ Status: implemented
### 适配器拥有精确路由容量
`LlmAdapter.resolveModelContext(provider, model)` 可以为一条精确路由返回 `LlmModelContext``LlmService.resolveModelContext()` 选择已注册的路由所属方,验证 `contextWindow` 为正整数,并返回分离。该查询独立于 `listModels()`:不在目录中的动态模型也可以拥有容量元数据,而 `undefined` 只表示适配器无法描述容量。
`LlmAdapter.resolveModel(provider, model, signal?)` 返回一条精确路由的聚合元数据,其中可选的 `LlmModelContext` 位于 `context` 字段下`LlmService.resolveModelInfo()` 选择已注册的路由所属方,验证 `contextWindow` 为正整数,并返回分离的元数据。该查询独立于 `listModels()`:不在目录中的动态模型也可以拥有容量元数据,而缺少 `context` 只表示适配器无法描述容量。
手写 DeepSeek 适配器允许每个已配置模型提供可选 `contextWindow`,并支持适配器级 `defaultContextWindow`。精确模型容量优先;未提供容量的模型项与未列出的透传 id 会继承适配器默认值,若默认值也不存在则返回 `undefined`。两个内置模型项都公开精确的 128,000 token 容量。pi-ai 适配器从同一个目录描述符解析容量,该描述符也用于权威解析请求模型。
手写 DeepSeek 适配器允许每个已配置模型提供可选 `contextWindow`,并支持适配器级 `defaultContextWindow`。精确模型容量优先;未提供容量的模型项与未列出的透传 id 会继承适配器默认值,若默认值也不存在则省略 `context`。两个内置模型项都公开精确的 128,000 token 容量。pi-ai 适配器从同一个目录描述符解析容量,该描述符也用于权威解析请求模型。
### Token 计量保持模型无关
@@ -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
2026-07-23-toolview-dissolution.md: a420c5945d0272cf8087d5f623e9c383c286d7c2
2026-07-23-toolview-dissolution.zh.md: 47c1f392f5f7ddbf4e6c686b2574faa7987e6126
2026-07-23-toolview-dissolution.md: 80c2688b152d1afe1236d4815633a5bf024db1d2
2026-07-23-toolview-dissolution.zh.md: 928c5f445d601b2246d3ae2f9360232643814468
@@ -14,7 +14,7 @@ After the view ring dissolved into the slot system, the client kept exactly one
The tool ring is gone as independent infrastructure: a tool row is a **keyed child slot each view declares for itself**, and the client has exactly one registration model. The justification above was hollow — a keyed slot's *key space* is already runtime-open (SlotMap declares slots, never keys; the ask-user composer's `key: 'question'` was the precedent), so the open tool-name set fits `entryKey` dispatch natively.
Shipped shape (current-state narrative also in the [architecture note](2026-07-19-gui-web-client-architecture.md)): the chat entry's `children` table declares `'conversation.chat.toolview'` (keyed/session); the render site dispatches per row via `entryKey: toolName` with `GenericToolCard` as the call-site `fallback` (the default card is domain property; the fallback option is ordinary renderSlot grammar). The owner payload is the uniform `ToolRowOwnerProps` (`callId`/`toolName`/`block`/`openDetails` — details being a session-level facility, not chat-private), and `ToolRowProps` pre-composes it with the session standard kit for registrant components. A registrant is a plain plugin: `ctx.slots.register({ name: 'conversation.chat.toolview', key: '<tool>', inject? }, Row)` with `inject: ['slots', 'conversation']` as the load-order seam — apply mounts `ConversationService` *after* the chat registration, so the service being present guarantees the slot is declared, by construction. Session-dimension differentiation happens inside the component (`useSessions` reading `parentId` — the decision sits where all the information already is); the bash sample is the third-party-posture exemplar. Trajectory/waterfall toolview slots share this exact shape (names fixed by the slot-naming discipline `<domain>.<entry>.<hole>`, one shared owner type) and land with their own row render sites — RendersCheck rejects a declaration nobody renders, so the type system, not convention, blocks early empty declarations.
Shipped shape (current-state narrative also in the [architecture note](2026-07-19-gui-web-client-architecture.md)): the chat entry's `children` table declares `'conversation.chat.toolview'` (keyed/session); the render site dispatches per row via `entryKey: toolName` with `GenericToolCard` as the call-site `fallback` (the default card is domain property; the fallback option is ordinary renderSlot grammar). The owner payload is the uniform `ToolRowOwnerProps` (`callId`/`toolName`/`block`/`openDetails` — details being a session-level facility, not chat-private), and `ToolRowProps` pre-composes it with the session standard kit for registrant components. A registrant is a plain plugin: `ctx.slots.register({ name: 'conversation.chat.toolview', key: '<tool>', inject? }, Row)` with `inject: ['slots', 'conversation']` as the load-order seam — apply mounts `ConversationService` *after* the chat registration, so the service being present guarantees the slot is declared, by construction. Session-dimension differentiation happens inside the component (`useSessions` reading `parentId` — the decision sits where all the information already is); the bash sample is the third-party-posture exemplar and paints the same ToolRow chrome as Think (`Bash · {description}`, with a scoped badge only in child sessions). Trajectory/waterfall toolview slots share this exact shape (names fixed by the slot-naming discipline `<domain>.<entry>.<hole>`, one shared owner type) and land with their own row render sites — RendersCheck rejects a declaration nobody renders, so the type system, not convention, blocks early empty declarations.
Registry-era responsibilities all have successor homes: inject caching and row error isolation ride the framework renderer (entry×scope cache, per-entry `SlotErrorBoundary`); subscribe/getVersion ride the slot core's per-key version machinery; the future "store seat" is the ordinary store seat keyed slots already have (interaction-draft durability is its first named consumer); miss fallback is the call-site `fallback` option.
@@ -14,7 +14,7 @@ Status: implemented
工具环作为独立基础设施已消失:工具行是**各视图为自己声明的 keyed 子槽**,client 全域只剩一种注册模型。上述理由是空的——keyed slot 的 *key 空间*本就运行时开放(SlotMap 声明槽、从不声明 keyask-user composer 的 `key: 'question'` 即先例),开放的 tool 名集合天然适配 `entryKey` 分发。
落地形态(现状叙述同见[架构注](2026-07-19-gui-web-client-architecture.md)):chat 条目的 `children` 表声明 `'conversation.chat.toolview'`keyed/session);渲染点逐行以 `entryKey: toolName` 分发、以 `GenericToolCard` 作调用点 `fallback`(默认卡片是域产权;fallback 选项就是普通 renderSlot 文法)。owner 载荷是统一的 `ToolRowOwnerProps``callId`/`toolName`/`block`/`openDetails`——details 是会话级设施,非 chat 私货),`ToolRowProps` 把它与 session 标配 kit 预组合供注册方组件取用。注册方就是普通插件:`ctx.slots.register({ name: 'conversation.chat.toolview', key: '<tool>', inject? }, Row)`,以 `inject: ['slots', 'conversation']` 作加载序缝——apply 把 `ConversationService` 挂在 chat 注册*之后*,故服务在场即保证槽已声明,构造使然。会话维差异化在组件内完成(`useSessions``parentId`——决策放在已有全部信息的地方);bash 样例即第三方姿态的样板。trajectory/waterfall 的 toolview 槽共用这套形状(槽名按槽名纪律 `<域>.<条目>.<孔位>` 定死,共用一张 owner 类型),随各自的行渲染点落地——RendersCheck 拒绝无人渲染的声明,挡住提前空声明的是类型系统而非约定。
落地形态(现状叙述同见[架构注](2026-07-19-gui-web-client-architecture.md)):chat 条目的 `children` 表声明 `'conversation.chat.toolview'`keyed/session);渲染点逐行以 `entryKey: toolName` 分发、以 `GenericToolCard` 作调用点 `fallback`(默认卡片是域产权;fallback 选项就是普通 renderSlot 文法)。owner 载荷是统一的 `ToolRowOwnerProps``callId`/`toolName`/`block`/`openDetails`——details 是会话级设施,非 chat 私货),`ToolRowProps` 把它与 session 标配 kit 预组合供注册方组件取用。注册方就是普通插件:`ctx.slots.register({ name: 'conversation.chat.toolview', key: '<tool>', inject? }, Row)`,以 `inject: ['slots', 'conversation']` 作加载序缝——apply 把 `ConversationService` 挂在 chat 注册*之后*,故服务在场即保证槽已声明,构造使然。会话维差异化在组件内完成(`useSessions``parentId`——决策放在已有全部信息的地方);bash 样例即第三方姿态的样板,并与 Think 绘制同一套 ToolRow chrome`Bash · {description}`scoped badge 仅出现在子会话)。trajectory/waterfall 的 toolview 槽共用这套形状(槽名按槽名纪律 `<域>.<条目>.<孔位>` 定死,共用一张 owner 类型),随各自的行渲染点落地——RendersCheck 拒绝无人渲染的声明,挡住提前空声明的是类型系统而非约定。
registry 时代的职责各有后继居所:inject 缓存与行错误隔离乘框架渲染器(entry×scope 缓存、per-entry `SlotErrorBoundary`);subscribe/getVersion 乘 slot core 的 per-key 版本机;将来的「store 席位」就是 keyed slot 本就拥有的普通 store 席位(交互草稿耐久性是其首个具名消费者);miss 兜底即调用点 `fallback` 选项。
@@ -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-adapter-owned-reasoning-effort-capabilities.md: cc66e4ec151fcc04445a91f4a3527cbddd130c33
2026-07-24-adapter-owned-reasoning-effort-capabilities.zh.md: e0d28e1aca370068478e8fb1704defeaac3ab351
@@ -0,0 +1,33 @@
# Agent Note: Adapter-owned reasoning effort capabilities
Status: implemented
English | [中文](2026-07-24-adapter-owned-reasoning-effort-capabilities.zh.md)
## Problem
Reasoning strength was adapter configuration only, so a conversation could not discover or change the selected model's supported levels between requests. Promoting one adapter's level union into `dsh-llm` would make every provider and model adopt names it may not support, while a provider-specific options bag would make the loop unable to validate or durably reconstruct the effective request.
## Decision
`dsh-llm` represents a reasoning effort as the opaque branded `ReasoningEffortId`. One adapter-owned `resolveModel(provider, model, signal?)` query returns `LlmResolvedModelInfo`: exact model identity plus optional context and reasoning metadata. `LlmService.resolveModelInfo()` validates and detaches that aggregate. When present, `reasoning.efforts` is a non-empty ordered list of ids with display metadata and may name one configured default. The core requires an explicit or configured effort to appear exactly in that list and never clamps or aliases a value.
`LlmCallConfig` and `GenerateOptions` carry the optional effort. The agent loop prepares the post-`agent/request` config under the active turn signal before writing `request/header`, so defaults and dynamic changes are model-visible only after becoming durable facts. The prepared call retains the exact adapter registration across asynchronous exact-model resolution, durable header logging, and dispatch; direct `LlmService.stream()` calls likewise capture their final registration before awaiting resolution. A route with no registered adapter retains its proposed config so an `llm/stream` middleware can own and short-circuit it; terminal dispatch still rejects an unhandled route. A resumed loop retains the logged effort only when its initial provider/model route is unchanged; a route change discards the previous model's opaque id.
The native DeepSeek adapter advertises `off`, `high`, and `max` when deployment policy permits thinking, and defaults to the configured effort or `high`. Its adapter-owned `off` maps to `thinking.type: disabled` with no `reasoning_effort`; `high` and `max` enable thinking and carry their official wire effort. A `thinking: disabled` deployment publishes only `off` and rejects attempts to enable thinking before provider I/O. The pi-ai adapter publishes each exact model's `getSupportedThinkingLevels()` result unchanged, including `off`, preserves an absent profile default as a provider default, and leaves provider wire-value mapping inside pi-ai. Its common stream options represent `off` by omitting `reasoning`, as required by pi-ai's own API.
## Alternatives considered
**Define the pi-ai `ThinkingLevel` union in core.** Rejected because current pi-ai canonical names are an adapter implementation detail; a future provider can expose a different identifier without requiring a core release.
**Carry an untyped provider options object.** Rejected because the loop could neither validate a selected value nor put a stable provider-neutral fact in the request header.
**Clamp unsupported levels.** Rejected because a silent substitution makes the user's selected control differ from the logged request intent and hides stale deployment configuration.
**Normalize every adapter to a core-owned level list or remove `off`.** Rejected because the selectable vocabulary belongs to the exact model capability. A client can render an adapter's `off` option without requiring every adapter to expose it.
## Consequences
Clients can query one exact route once and render its identity, context capacity, and adapter-owned reasoning choices without knowing a global enum or synthesizing `off`. Adapter configuration remains the deployment-default and policy owner, while `agent/request` can replace the effective effort on each step within that policy. Invalid exact identity, context, or reasoning metadata fails with `INVALID_MODEL_INFO`, `INVALID_MODEL_CONTEXT`, or `INVALID_MODEL_REASONING`; unsupported explicit or configured values fail with `UNSUPPORTED_REASONING_EFFORT` before provider I/O.
The aggregate exact-model query is asynchronous and may fail for adapters backed by authoritative catalogs. Its optional signal is the caller's cancellation boundary; an asynchronous adapter must settle promptly after abort so loop disposal can reach quiescence. Keyless service, adapter, loop, session, and request-header tests pin validation, defaulting, dynamic changes, logging, resume behavior, HMR registration ownership, and cancellation; runnable snapshots pin the resolved effort in real assembled request headers, while key-gated adapter tests exercise provider serialization.
@@ -0,0 +1,33 @@
# Agent Note:适配器持有的推理强度能力
Status: implemented
[English](2026-07-24-adapter-owned-reasoning-effort-capabilities.md) | 中文
## 问题
推理强度过去只能在适配器中配置,因此对话无法在多次请求之间发现或更改所选模型支持的等级。若将某个适配器的等级联合类型提升到 `dsh-llm`,所有提供方和模型都必须采用一套自身可能并不支持的名称;若改用提供方特有的 options 对象,主循环又无法校验最终生效的请求,也无法通过持久化记录准确重建该请求。
## 决策
`dsh-llm` 使用不透明的品牌类型 `ReasoningEffortId` 表示推理强度。由适配器持有的单次 `resolveModel(provider, model, signal?)` 查询返回 `LlmResolvedModelInfo`,其中包含确切模型身份以及可选的上下文和推理元数据。`LlmService.resolveModelInfo()` 会校验该聚合结果并返回分离值。`reasoning.efforts` 存在时,是包含展示元数据的非空有序 ID 列表,并可指定一个由配置确定的默认值。核心要求显式指定或配置指定的推理强度与列表中的某个 ID 完全一致,且绝不自动调整或为值提供别名。
`LlmCallConfig``GenerateOptions` 携带可选的推理强度。agent loop(智能体循环)在活跃轮次信号的控制下准备 `agent/request` 处理完成后的配置,再写入 `request/header`,因此默认值和动态变更只有成为持久化事实后才对模型可见。准备完成的调用在异步确切模型解析、请求头持久记录和分派全程保留同一项确切的适配器注册;直接调用 `LlmService.stream()` 时,也会在等待解析前捕获最终的适配器注册。没有已注册适配器的路由会保留原定配置,使 `llm/stream` 中间件可以接管并短路该请求;若仍未得到处理,最终分发会拒绝该路由。恢复后的主循环仅在初始提供方/模型路由未变时保留日志中记录的推理强度;如果路由发生变化,则丢弃上一模型的不透明 ID。
当部署策略允许思考时,原生 DeepSeek 适配器声明 `off``high``max`,默认使用配置指定的推理强度,若未配置则使用 `high`。由适配器持有的 `off` 映射为 `thinking.type: disabled`,且不带 `reasoning_effort``high``max` 会启用思考并携带各自的官方协议强度值。配置为 `thinking: disabled` 的部署仅声明 `off`,并会在提供方 I/O 前拒绝启用思考的尝试。pi-ai 适配器原样发布每个确切模型的 `getSupportedThinkingLevels()` 结果,其中包括 `off`;profile 未指定默认值时保留提供方默认行为,并将提供方协议值的映射留在 pi-ai 内部。按照 pi-ai 自身 API 的要求,其通用流选项通过省略 `reasoning` 来表示 `off`
## 备选方案
**在核心中定义 pi-ai 的 `ThinkingLevel` 联合类型。** 不予采纳:pi-ai 当前的规范名称属于适配器实现细节;未来的提供方可以暴露不同的标识符,而无需为此发布新的核心版本。
**携带无类型约束的提供方 options 对象。** 不予采纳:主循环既无法校验选定值,也无法在请求头中写入稳定且与提供方无关的事实。
**自动调整不支持的等级。** 不予采纳:静默替换会导致用户选定的控制项与日志记录的请求意图不一致,还会掩盖陈旧的部署配置。
**将每个适配器规范化为核心持有的等级列表,或移除 `off`。** 不予采纳:可选值集合属于确切模型的能力。客户端可以渲染某个适配器的 `off` 选项,而无需要求所有适配器都暴露该选项。
## 影响
客户端只需查询一次确切路由,即可渲染其身份、上下文容量和由适配器持有的推理选项,而无需了解全局枚举或自行合成 `off`。适配器配置仍是部署默认值和策略的归属方,`agent/request` 则可以在该策略范围内为每个步骤替换实际生效的推理强度。确切身份、上下文或推理元数据无效时,分别抛出 `INVALID_MODEL_INFO``INVALID_MODEL_CONTEXT``INVALID_MODEL_REASONING`;显式指定或配置指定的值不受支持时,会在提供方 I/O 前抛出 `UNSUPPORTED_REASONING_EFFORT`
确切模型元数据的聚合查询采用异步方式,并且对于由权威目录支持的适配器可能失败。可选信号构成调用方的取消边界;异步适配器必须在信号中止后迅速完成结算,使主循环的资源释放达到完全停稳。无密钥的服务、适配器、主循环、会话和请求头测试为校验、默认值解析、动态变更、日志记录、恢复行为、HMR(热模块替换)期间的注册所有权和取消提供回归保障;可运行快照锁定实际组装请求头中的已解析推理强度,仅在有密钥时运行的适配器测试则覆盖提供方序列化。
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# 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
2026-07-25-web-client-session-scope-and-provide-channel.md: 063494b56461593015d6de4c2b55a2d1d6a3c676
2026-07-25-web-client-session-scope-and-provide-channel.zh.md: cd5d29dfbcd9356a9ea15852d5d27a3660084abf
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# Agent Note: Web client Agent-scope parity model and the provisioning channel (agents/scope / blank reuse / provide)
Status: implemented
English | [中文](2026-07-25-web-client-session-scope-and-provide-channel.zh.md)
> Scope: the client Agent scope (actx) and targeted events, the client/host materialization parity model, the blank-session bit and reuse (`connectWorkspace`), the per-session provisioning channel (`sessions.provide`), the read-only queue mirror (`session/queued`), and the host wire smalls that carry these capabilities (the summary `blank` column, the `host/session-added` frame field, and the `host/commands-changed` frame). The input state machine and the slash pipeline live in the [input machine note](2026-07-25-web-input-machine-and-slash-pipeline.md); the command business surfaces live in the [command surfaces note](2026-07-25-web-command-surfaces-and-assembly.md).
## Problem
The web client had a single global session surface: slots all rendered from the root context, so plugins had no notion of "which agent/session is current"; the draft's true copy was buried inside the Session object, leaving any plugin that wanted to participate in input with nowhere to hook in. To support a command/input system, the platform layer first had to answer:
- Who owns session interaction state (menus, popups, drafts, in-flight requests), and how two sessions are structurally isolated;
- What a "new session" is before the host entity exists — whether the client must forge an independent life for it;
- How session-scope components fetch their own session data, instead of props passed down layer by layer;
- What a user-abandoned new session leaves behind on the host side, and who collects it.
Hard constraints: the host is the single source of truth; every registration goes through a `ctx.effect` disposer; the scope mechanism matches the host's Agent scope architecture; model-visible ⟺ already in the session log.
## Decision
### The parity model: client and host share one root state axis
Host-side `session.create(workspaceId)` produces Session + Agent + cwd in one piece (an atomic bundle, never split); the client side is the mirror of that birth — the instant a session row enters the list mirror, the client mints its Agent scope (actx + provide + the full input surface mounted):
- Session identity is the host's true form from birth: the sessionId arrives via the `session.create` response / the `host/session-added` frame, and every client-side address (the scope tag, slot store keys, RPC addressing) uses that same id.
- The materialization moment = the instant the user picks a Workspace (cwd settled): the client calls `session.create({workspaceId})` on the spot and receives the complete entity.
- "New Session with no workspace picked" is a **pure view state** (a navigation position) corresponding to no session/scope entity; until the pick, the composer is locked whole (no slash, no plain text).
- A "blank session" is just an ordinary materialized session whose log is still empty; to every Agent-scope plugin on the host (goal/plan/skill/…) it is indistinguishable from any session, so slash/plan are all naturally live.
### Agent scope: the actx is the sole session carrier in the client-side cordis world
The runtime's `agents/scope.ts` matches the host's `dsh-scope` at the mechanism layer (fiber + tag + filter; no value import: the host package carries the scoped-events `Events` merge, which would collide with the Context merge inside the client program):
- `createScope(ctx, key)`: a no-op plugin fiber plus `extend({[kScope]: key, [Context.filter]: …})` — the filter lives directly on the actx: untagged listeners receive globally, tagged ones receive only their own scope.
- Dispatch is the cordis primitives with thisArg = the actx itself: `actx.bail(actx, event, req)` / `actx.emit(actx, event, payload)`.
- `Session.bindScope(actx)`: paired exactly once when resolve mints the scope (rebinding throws; dropScope unbinds), mirroring the host's `Agent.loopCtx` — the Session uses it to dispatch its own scoped events. The reverse actx→Session direction is one hop through `sessions.sessionOf(actx)` (mirroring host plugins' `agent.session` usage).
Three deliberate divergences from the host dsh-scope:
- The filter lives on the actx itself rather than a separate carrier: the host wrapper layer guards the business Agent subject against drifting from the scope key (host events inject the Agent itself as the first argument), while client event payloads carry only an id — there is no subject to protect.
- Keys compare by branded `SessionId` value rather than object identity: on the host, agent.id === session id (1:1 on the same axis), agent identity directly reuses the `SessionId` brand, and a client scope's identity is its wire id.
- The client scope is an **Agent identity** scope, not a live-object scope: during a cold session the host Agent object is already disposed while the client actx stays alive (in view) — the identity axis is in strict parity while object hot/cold is deliberately unsynchronized.
id→ctx handoff is allowed in only three kinds of places (business providers never hand off):
- Slot inject factories: the ctx never enters the render layer; the identity the slot framework hands a component is the sessionId, exchanged back into objects/controllers through service maps.
- Root coordination services self-addressing: from a projection's sessionId back to the actx via `sessions.scope(id)`.
- Root untagged listeners: looking up their own store by the payload's sessionId.
### Scope lifecycle: anchored to the list mirror — birth is entering view, death is prune
Session instances share the scope's lifecycle; liveness eligibility = host-listed (one criterion, shared by mint and prune):
- Birth = a session row entering client view (the list baseline pull / the local `create()` echo / the `host/session-added` frame); a lazy first resolve mints the scope (resolution is a pure function, render-safe).
- One prune tears down three things together: the Session instance, the scope fiber (cascading through every consumer hung on the actx), and the session-keyed slot store. The staged session (= `list.current`) is the exception: removed while still on stage, it keeps a frozen read-only view, torn down only once the stage moves away.
- Reopening = lazily rebuilding the instance + `open()` pulling history (the host session log is the durable truth).
- Remaining TODO: approval/question frames never enter history and cannot be recovered across a prune (the manager-level pendingBuffers cover only the never-instantiated window).
### The blank bit: the empty session's visible projection, conversion, and reuse
A session "materialized but with no first prompt" is governed by the summary-derived bit `blank` (a derived column, not a header field; SessionHeader stays immutable):
- The host criterion: `session.events.length === 0` (zero log events = no user message yet). A live session reads `summarize()` straight from memory; a cold session is always `false` — the lazy-create contract guarantees a never-appended session never enters `persistence.list()` at all (both the JSONL and SQLite backends are verified truly lazy), so blank never touches disk.
- The wire carries it in two places: the required `SessionSummary.blank` column, and the required `blank` field on the `host/session-added` frame (always true at creation, letting other tabs enter the same blank-session state into their mirrors).
- The client mirror only lowers, never raises (monotonic), flipped from three sources, all reusing existing wire signals:
- The sender's own tab: the **successful response** to the first `prompt()` flips false (acceptance proves the user/message is already in the host log — this flip is confirmation, not optimism; `onEngaged` synchronously updates the list mirror, converting the current `New Session` row in place to an ordinary title, adding no list row). A rejected first prompt keeps the session blank: aligned with host authority, still shown as `New Session`, keeping its connectWorkspace reuse eligibility.
- Other tabs: the `host/session-status (running:true)` frame flips it — a blank session never runs, so the first running necessarily means no longer blank;
- Reconnect alignment: `session.list`'s summary.blank is authoritative, so a tab that missed frames aligns naturally on its next pull; a stale blank:true can never mark a converted session back to blank.
- List discipline: the store retains every row; the Workspace browser's grouping, flat view, search, and counts share one visible projection — every non-blank session shows, while blank sessions show only the one with `session.id === sessions.current`, its title forced to `New Session`. After a Workspace switch, the old blank entity stays in the mirror but is hidden from the list while the target Workspace's current blank shows; the user-visible surface therefore holds at most one blank row globally.
- The residue ledger takes zero GC: after a refresh, blank sessions come back with the bit intact and are reused on the next same-workspace connect, so the ordinary single-tab path keeps at most one per workspace; after a host restart, blanks leave no disk trace and simply evaporate; the extra empty shells from multi-tab races only become non-current hidden rows, digested by later reuse, with no coordination.
### connectWorkspace: the sole entry point of New Session
`workspaces.connectWorkspace(workspaceId): Promise<SessionId>` (owned by WorkspacesService — it holds both the workspace canonical path and the sessions reference):
- The reuse arm: the list mirror is searched for `blank && cwd == workspace.path` (direct equality on the host realpath canonical form); a hit returns that id directly, creating nothing.
- The create arm: on a miss, `session.create({workspaceId})` returns the new id.
- An unknown workspaceId fails loud (never silently creating somewhere else).
- The resolution guarantee (one contract for both arms): when the promise resolves, the returned id is already in the list store and `sessions.binding(id)` resolves synchronously — `SessionsService.create` projects the list synchronously after RPC success before resolving, so a draft mover can write text into the new scope's machine before open, without waiting for a notifier flush.
- The caller takes the id and does its own `sessions.open`; sending the first prompt is an ordinary `session.prompt` — the session already exists, a failure is an ordinary prompt failure, the draft text is still in the machine, and a retry is simply sending again.
- The global New Session button defaults to `recentWorkspaceId`: first comparing each Workspace's newest Session `updatedAt`, falling back to the Workspace `createdAt` when it has no Sessions, and keeping host order on ties; only with no Workspace at all does it `sessions.clear()` into the no-session view. Create actions inside a Workspace group still hit that Workspace explicitly.
- At startup the runtime subscribes to the first complete baseline: a successfully restored current session is kept in place; otherwise it automatically calls `connectWorkspace(recentWorkspaceId)` and opens the returned blank session. The policy settles only once; a later user-initiated clear is never overridden by auto-selection again, and a connect failure waits for the next baseline projection to retry.
- Re-picking the Workspace in the blank Hero also goes through `connectWorkspace`; when the target id differs from the current one, the current input machine's non-empty draft moves to the target scope first, then `sessions.open(nextId)`. The old blank entity is not deleted — it merely leaves the list by no longer being current.
### Per-session provisioning: the `sessions.provide` standard-kit channel
The sole provisioning path by which session slot components fetch their own session data. Plugins declare a fixed key map through the static descriptor `sessions.provide({hooks, props, resolve})` (a duplicate key throws at registration); `resolve(binding)` materializes values for a specific session and tears them down with the scope. Web-react's `standardKit` single loop binds the hooks compartment into `use<Name>` selector hooks (`observableHook`→uSES, anti-tearing) and passes the props compartment through as-is.
Slot scope is the closed set `root | session-maybe | session`:
- `root` receives only the global standard kit, with no session identity or provisioning.
- `session-maybe` follows the current session, but the component instance does not change key when the id appears, disappears, or changes; with no session, `sessionId`, the results of `useSession`/`useInput`, and `inputActions` may all be absent. The unkeyed root `SessionMaybeProvider` drives these updates, while `SessionMaybeProvideInfo` uses the static key map to retain the complete hook/prop shape even with no session.
- `session` guarantees that `sessionId`, every hook source, and every prop exist; each strict entry's error boundary is keyed by `sessionId`, so switching sessions recreates that entry and its session store.
`conversation` is the resident `session-maybe` shell: `ConversationRoot`, HeroShell, the Workspace picker, the composer stack, and the overlay chain's fallback frame retain their React instances across the no-session → blank-session switch; `conversation.session` carries only the strict-session header/view, while the composer and every input slot also stay strict `session`. With no session, the composer stack places the presentation-only `DisabledInputBar` directly; once a session appears, the input body is swapped for the strictly bound InputBar; the textarea may be rebuilt, while the Hero and the layout skeleton are not. The blank → engaging/active transition stays inside the same strict-session subtree, and the InputBar is never rebuilt on a phase flip.
- The runtime's first built-in entry: the `'session'` hook — `useSession` itself rides the same mechanism, no special-casing.
- Concurrent discipline: the render plane reads only from the hooks compartment (uSES consistency guarantee); props-compartment callbacks are used only in event-handler space; descriptor resolution is render-safe (idempotent caching, with prune reaping residue from abandoned renders).
- Third-party components take zero value dependencies; types are a one-line type-only import (declaration merging into `SessionStandardProps` / `SessionMaybeStandardProps`).
### The read-only queue mirror
- The MuxFrame `session/queued`: the Session holds a read-only inbox mirror (previews truncated; steering retired by source match); queue frames never enter history — pure stream state, cleared on reconnect and refilled from the new baseline; the never-instantiated window is buffered and replayed through the manager pendingBuffers.
- Queue semantics: running does not lock input; ordinary messages queue through `session.prompt {mode:'queue'}`, and commands never queue.
### Host wire smalls
- The summary `blank` column and the `host/session-added` frame's `blank` field (see the blank bit above).
- The SSE frame `host/commands-changed` (a pure invalidation signal); the client routes it into the typed events `commands/changed` and `connection/reset` (broadcast after each connection generation is established; wire-derived caches uniformly treat prior state as stale).
- `command.list/execute` and `skill.list` are uniformly single-addressed by `sessionId` (a session always has an Agent; `agentFor`'s resume semantics come ready-made); the command-surface narrative lives in the [command surfaces note](2026-07-25-web-command-surfaces-and-assembly.md).
- The `session.create` request shape: workspaceId/cwd as either-or, plus an optional caller-preallocated sessionId (a same-id same-cwd retry is idempotent; a different cwd reports `session-conflict`).
## Alternatives considered
| Rejected | One-line reason |
|---|---|
| A client-local Intent + materialize (published CAS / the pendingPrompt attach transaction / the before-create chain) | The client is forced to simulate the first half-life the host lacks, breeding a pile of state machinery — published CAS, the attach transaction, partial publication |
| Host-reserved IDs (a draft Map) | The host merely acknowledges a number; the state machine stays on the client untouched |
| A host draft Session (a Session without an Agent) | Every host surface that looks up the Agent must fork for drafts; core would need an attachAgent seam plus late-written header cwd |
| Binding an Agent before cwd (ungrouped) | Overturns the readonly header.cwd "created in" invariant, plus the launch-dir side-effect product trap |
| Passing session context down through React Context | Plugins should hold one mental model across host and client; the scope mechanism is isomorphic to the host dsh-scope |
| A `scopeTarget` carrier + fused dispatcher (mirroring the host `agentEvents`) | The host wrapper layer guards the business Agent subject against drifting from the scope key; client events have no subject to guard — the filter on the actx plus cordis primitives covers every need |
| Sessions not holding a ctx (a cordis-free object layer) | A red line born only so the filtering unit tests avoid importing cordis, at the cost of two-hop contribute callbacks plus mutable public fields; the host Agent already holds loopCtx |
| Resident Session instances (resident-instance) | The host session log is the durable truth; residency is mere identity convenience, and its misalignment with the scope lifecycle is a source of complexity |
| Components receiving wiring-callback bundles (two-layer inject→props pass-down) | The standard-kit channel lets components fetch their own; the public surface converges to hooks + stable props |
| Swapping the no-session Hero view for the entire session Conversation | Even with the outer layout unchanged, the Hero, picker, and composer subtrees would remount together, making the whole UI region jump |
| Making InputBar itself `session-maybe` | The input state machine, keyboard command surface, and actions would all have to accept absent values; replacing only the disabled input body keeps optionality at the shell boundary |
| A dedicated conversion frame | `session-status(running:true)` semantically implies conversion (a blank session never runs); adding a frame buys zero information for one more wire type |
## Consequences
- Plugins gain session context isomorphic to the host's: per-session state hangs on the actx and mounts/tears down in one piece with the scope fiber, making leaks structurally impossible; two-session isolation is structurally guaranteed by the scope filter.
- The client object layer converges to a wire mirror: session identity, lifecycle, and capability adjudication all defer to the host entity — the input system (the next layer) always faces a session with a real Agent, and providers like slash/skill uniformly address by sessionId directly.
- Blank-session governance takes zero dedicated mechanisms: state rides one derived bit, visibility rides the unified list projection (only the current blank shows, as `New Session`), reclamation rides lazy persistence's existing contract (evaporation on restart), and the ordinary ceiling rides same-Workspace reuse.
- The cost: the id→ctx handoff discipline and provide's Concurrent discipline are conventions rather than type-enforced, pinned by review and tests; fully disabled input while no workspace is picked is an experience cost the product surface accepts (the price of the single state axis).
- Known gaps: approval/question recovery across prune (TODO); model selection returns in live-mutation shape (the host `selectModel` trio is ready-made, awaiting its own branch).
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# Agent Note: Web client Agent-scope 对等模型与供数通道(agents/scope / blank 复用 / provide
Status: implemented
[English](2026-07-25-web-client-session-scope-and-provide-channel.md) | 中文
> 范围:client Agent scopeactx)与定向事件、client/host 实体化对等模型、空会话 blank 位与复用(`connectWorkspace`)、per-session 供数通道(`sessions.provide`)、队列只读镜像(`session/queued`),以及承载这些能力的 host wire 小件(summary `blank` 列、`host/session-added` 帧字段、`host/commands-changed` 帧)。输入状态机与 slash 管线见[输入状态机 note](2026-07-25-web-input-machine-and-slash-pipeline.md);命令业务面见[命令业务面 note](2026-07-25-web-command-surfaces-and-assembly.md)。
## 问题
web client 只有一张全局会话面:slot 全部从根 context 渲染,插件拿不到「当前是哪个 agent/session」的语境;draft 真身埋在 Session 对象里,任何要参与输入的插件都无处下手。要支撑命令/输入体系,平台层必须先回答:
- 会话交互态(菜单、popup、草稿、在途请求)归谁持有,双会话如何结构性隔离;
- 「新会话」在 host 实体存在之前是什么——client 要不要为它造一段独立生命;
- session-scope 组件如何「自己拿会话数据」,而不是层层下传 props;
- 用户放弃的新会话在 host 侧留下什么,谁来收。
硬约束:host 是唯一真源;一切注册走 `ctx.effect` disposerscope 机制与 host 的 Agent scope 架构一致;模型可见 ⟺ 已入 session log。
## 决策
### 对等模型:client 与 host 同一根状态轴
host 侧 `session.create(workspaceId)` 一体产出 Session + Agent + cwd(原子大礼包,不拆);client 侧就是这次出生的镜像——会话行进入 list mirror 的瞬间,client 为它铸 Agent scopeactx + provide + 输入面全套挂上):
- 会话身份自出生即为 host 真身:sessionId 由 `session.create` 响应 / `host/session-added` 帧带来,client 侧一切寻址(scope tag、slot store 键、RPC 地址)用的都是同一个 id。
- 实体化时点 = 用户选定 Workspacecwd 确定)的瞬间:client 当场调 `session.create({workspaceId})`,拿到完整实体。
- 「New Session 且未选 workspace」是**纯视图态**(一个导航位置),不对应任何 session/scope 实体;选定之前 composer 整体锁死(无 slash、无纯文本)。
- 「空会话」就是一个日志还空着的普通实体化会话;对 host 上所有 Agent-scope 插件(goal/plan/skill/…)它与任何会话无异,slash/plan 天然全活。
### Agent scopeactx 是 client 侧 cordis 世界的唯一会话载体
runtime `agents/scope.ts` 与 host `dsh-scope` 机制层一致(fiber + tag + filter 过滤;不 value-importhost 包携带 scoped-events 的 `Events` merge,进 client program 撞 Context merge):
- `createScope(ctx, key)`no-op plugin fiber + `extend({[kScope]: key, [Context.filter]: …})`——filter 直接住 actxuntagged listener 全局可收,tagged 只收本 scope。
- 派发就是 cordis 原语,thisArg = actx 本身:`actx.bail(actx, event, req)` / `actx.emit(actx, event, payload)`
- `Session.bindScope(actx)`resolve 铸 scope 时单次配对(重复绑 throwdropScope unbind),镜像 host `Agent.loopCtx`——Session 用它自行派发 scoped 事件。actx→Session 反向走 `sessions.sessionOf(actx)` 一跳(镜像 host 插件 `agent.session` 用法)。
与 host dsh-scope 的有意分歧三条:
- filter 住 actx 自身而非独立 carrierhost 包装层护的是「业务 Agent subject 与 scope key 不漂移」(host 事件首参注入 Agent 本体),client 事件 payload 只带 id、无 subject 可护。
- key 用品牌 `SessionId` 值比较而非对象身份:host 里 agent.id === session id1:1 同轴),agent 身份直接复用 `SessionId` 品牌,client scope 的身份即 wire id。
- client 是 **Agent 身份** scope 而非活对象 scopecold 会话期 host Agent 对象已 dispose 而 client actx 存活(视野内)——身份轴严格对等、对象冷热有意不同步。
id→ctx 换乘只许三类位置(业务 provider 永不换乘):
- slot inject 工厂:ctx 不进渲染层,slot 框架交给组件的身份就是 sessionId,经服务 map 换回对象/controller。
- root 协调服务自寻址:从投影的 sessionId 经 `sessions.scope(id)` 找回 actx。
- root untagged listener:按 payload 的 sessionId 查自有 store。
### scope 生命周期:挂靠 list mirror,出生即视野、死亡即 prune
Session 实例与 scope 同生命周期,存活资格 = host listed(一个判据,mint 与 prune 共用):
- 出生 = 会话行进入 client 视野(list 基线拉取 / `create()` 本地回声 / `host/session-added` 帧),lazy 首次 resolve 铸 scoperesolution 纯函数、渲染安全)。
- prune 一次同拆三样:Session 实例、scope fiber(级联挂在 actx 上的一切消费者)、session-keyed slot store。staged session= `list.current`)例外:被移除仍在台上时保留冻结只读视图,stage 移走才拆。
- 重开 = lazy 重建实例 + `open()` 拉 historyhost session log 是持久真相)。
- 遗留 TODOapproval/question 帧不进 history,跨 prune 不可恢复(manager 级 pendingBuffers 只覆盖「从未实例化」窗口)。
### blank 位:空会话的可见投影、转正与复用
「实体化但无首讯」的会话经 summary 派生位 `blank` 治理(派生列而非 header 字段,SessionHeader 保持不可变):
- host 判据:`session.events.length === 0`(零日志事件 = 尚无用户消息)。live 会话 `summarize()` 内存直读;cold 会话恒 `false`——lazy-create 契约保证 never-appended 会话根本不进 `persistence.list()`JSONL/SQLite 两后端均已实证真 lazy),blank 从不落盘。
- wire 承载两处:`SessionSummary.blank` 必填列;`host/session-added` 帧必填 `blank` 字段(创建时恒 true,供别的 tab 按同一空会话状态入镜像)。
- client 镜像只降不升(单调),三来源翻转,全部复用既有 wire 信号:
- 发送方本地:首次 `prompt()` 的**成功响应**翻 false(受理即证明 user/message 已入 host 日志——此点翻转是确证而非乐观;`onEngaged` 同步更新列表镜像,当前 `New Session` 行原地转为普通标题,不新增列表行)。首讯被拒则会话保持 blank:与 host 权威对齐、继续显示为 `New Session`、保持 connectWorkspace 复用资格。
- 其他端:`host/session-status (running:true)` 帧翻转——blank 会话从不 running,首次 running 必然已非 blank
- 重连对齐:`session.list` 的 summary.blank 是权威,错过帧的端下次拉取自然对齐;陈旧的 blank:true 不能把已转正的会话重新标回 blank。
- 列表纪律:store 保留全部行;Workspace browser 的分组、平铺、搜索和计数共用同一可见投影——所有非 blank 会话都显示,blank 会话只显示 `session.id === sessions.current` 的一条,并强制标题为 `New Session`。切换 Workspace 后,旧 blank 实体仍在镜像中但从列表隐藏,目标 Workspace 的 current blank 显示;因此用户可见面全局至多一条 blank 行。
- 残留账零 GC:刷新后 blank 会话带位回来,下次同 workspace 复用,普通单端路径使每个 workspace 至多保留一个;host 重启后 blank 无盘痕自然蒸发;多 tab 竞态多出的空壳只会成为非 current 隐藏行,后续复用消化,不做协调。
### connectWorkspaceNew Session 的唯一入口
`workspaces.connectWorkspace(workspaceId): Promise<SessionId>`(归属 WorkspacesService——它同时持有 workspace 规范 path 与 sessions 引用):
- 复用臂:list mirror 中找 `blank && cwd == workspace.path`host realpath 规范 canon 直等比较),命中直接返回该 id,不新建。
- 新建臂:未命中则 `session.create({workspaceId})`,返回新 id。
- 未知 workspaceId fail loud(不静默创建到别处)。
- 解析保证(两臂同契约):promise resolve 时返回的 id 已在 list store 且 `sessions.binding(id)` 同步可解析——`SessionsService.create` 在 RPC 成功后同步投影列表再 resolve,使 draft 搬运方可以在 open 之前往新 scope 的 machine 写文本,不等 notifier flush。
- 调用方拿 id 自行 `sessions.open`;首讯发送就是普通 `session.prompt`——会话本来就在,失败即普通 prompt 失败,draft 文本还在 machine 里,重试即再次发送。
- 全局 New Session 按钮默认取 `recentWorkspaceId`:先比较各 Workspace 内 Session 的最新 `updatedAt`,无 Session 时回退 Workspace `createdAt`,同值保持 Host 顺序;只有完全没有 Workspace 时才 `sessions.clear()` 进入无 session 视图。Workspace 分组内的创建动作仍显式命中该 Workspace。
- runtime 启动时订阅首次完整基线:若已有恢复成功的 current session 则保持不动,否则自动 `connectWorkspace(recentWorkspaceId)` 并 open 返回的 blank session。该策略只结算一次;之后用户主动 clear 不会再次被自动选择覆盖,连接失败则等下一次基线投影重试。
- blank Hero 中改选 Workspace 也走 `connectWorkspace`;若目标 id 与当前 id 不同,先把当前 input machine 的非空 draft 搬到目标 scope,再 `sessions.open(nextId)`。旧 blank 实体不删除,只因不再 current 而从列表隐藏。
### per-session 供数:`sessions.provide` 标准件通道
session slot 组件「自己拿 session 数据」的唯一供数路径。插件以静态描述符 `sessions.provide({hooks, props, resolve})` 声明固定键表(重名 key 注册时 throw),`resolve(binding)` 在确定 session 下物化值并随 scope 拆;web-react `standardKit` 统一循环把 hooks 格绑成 `use<Name>` 选择器 hook`observableHook`→uSES,防 tearing)、props 格原样透传。
slot scope 是闭集 `root | session-maybe | session`
- `root` 只拿全局标准件,不接收 session 身份或供数。
- `session-maybe` 跟随 current session,但组件实例不因 id 有无或切换而换 key;无 session 时 `sessionId``useSession`/`useInput` 的选择结果及 `inputActions` 均可缺省。根部无 key 的 `SessionMaybeProvider` 驱动这条更新,`SessionMaybeProvideInfo` 靠静态键表在无 session 时仍保留完整 hook/prop 形状。
- `session` 保证 `sessionId`、所有 hook source 与 props 均存在;每个严格 entry 的错误边界以 `sessionId` 为 key,切换 session 会重建该 entry 及其 session store。
`conversation``session-maybe` 的常驻外壳:`ConversationRoot`、HeroShell、Workspace picker、composer stack 与 overlay chain 的 fallback 外框在无 session → blank session 的切换中保持 React 实例;`conversation.session` 只承载严格 session 的 header/viewcomposer 与各输入 slot 也保持严格 `session`。无 session 时 composer stack 直接放纯展示的 `DisabledInputBar`,session 出现后把输入体换成严格绑定的 InputBartextarea 允许重建,Hero 与布局骨架不重建。blank → engaging/active 仍在同一严格 session subtree 内,InputBar 不因 phase 翻转而重建。
- runtime 内建第一条:`'session'` hook——`useSession` 本身走同一机制,无特判。
- Concurrent 纪律:渲染平面只从 hooks 格读(uSES 一致性保证);props 格回调只在事件 handler 空间用;描述符解析 render-safe(幂等缓存、废弃渲染残留由 prune 收尸)。
- 第三方组件值零依赖,类型一行 type-only importdeclaration merging 进 `SessionStandardProps` / `SessionMaybeStandardProps`)。
### 队列只读镜像
- MuxFrame `session/queued`Session 持只读 inbox 镜像(预览截断、steering 按 source 匹配退休);queue 帧不进 history,纯 stream 态——重连清空、新基线重灌;未实例化窗口经 manager pendingBuffers 缓冲重放。
- 队列语义:running 不锁输入;普通消息经 `session.prompt {mode:'queue'}` 排队,命令永不排队。
### host wire 小件
- summary `blank` 列与 `host/session-added``blank` 字段(见上文 blank 位)。
- SSE 帧 `host/commands-changed`(纯失效信号);client 路由为类型事件 `commands/changed``connection/reset`(连接代建立后广播,wire 派生缓存一律视旧态为 stale)。
- `command.list/execute``skill.list` 一律 `sessionId` 单址(会话恒有 Agent`agentFor` 的 resume 语义现成);命令面叙述见[命令业务面 note](2026-07-25-web-command-surfaces-and-assembly.md)。
- `session.create` 请求形状:workspaceId/cwd 二选一 + 可选调用方预分配 sessionId(同 id 同 cwd 重试幂等,异 cwd 报 `session-conflict`)。
## Alternatives considered
| 弃案 | 一行理由 |
|---|---|
| client-local Intent + materializepublished CAS / pendingPrompt attach 事务 / before-create 链) | client 被迫模拟 host 缺失的前半段生命,养出 published CAS、attach 事务、部分发布一坨状态机 |
| host 预留 IDdraft Map | host 只认了个号,状态机原封留在 client |
| host draft Session(有 Session 无 Agent | 每个查 Agent 的 host 面都要为 draft 分叉;core 要开 attachAgent 缝 + header cwd 后写 |
| 无 cwd 先绑 Agentungrouped | header.cwd readonly "created in" 不变性被推翻 + launch-dir 副作用产品坑 |
| React Context 层层传会话语境 | 插件在 host/client 两侧应是一个心智模型;scope 机制与 host dsh-scope 同构 |
| `scopeTarget` carrier + 融合派发器(镜像 host `agentEvents`) | host 包装层护的是「业务 Agent subject 与 scope key 不漂移」,client 事件无 subject 可护;filter 住 actx + cordis 原语覆盖全部需求 |
| Session 不持 ctx(对象层 cordis-free | 只为筛选单测不引 cordis 而生的红线,代价是 contribute 两跳回调 + 可变公有字段;host Agent 本就持 loopCtx |
| Session 实例常驻(resident-instance | host session log 即持久真相;常驻仅为身份便利,与 scope 生命周期错位是复杂度之源 |
| 组件收 wiring 回调包(inject→props 两层下传) | 标准件通道让组件自取;公共面收敛为 hooks + 稳定 props |
| Hero 无 session 视图与 session Conversation 整支互换 | 即使外层 layout 不变,Hero、picker 与 composer 子树仍会一起重建,界面产生整块抖动 |
| 让 InputBar 自身变成 `session-maybe` | 输入状态机、键盘命令面与动作都被迫接受缺省值;只替换 disabled 输入体能把可选性留在外壳边界 |
| 专用「转正」帧 | `session-status(running:true)` 语义蕴含转正(blank 会话从不 running),加帧是 wire 多一型换零信息 |
## 后果
- 插件获得与 host 同构的会话语境:per-session 状态挂 actx、随 scope fiber 一次拆装,泄漏结构性不可能;双会话隔离由 scope filter 结构性保证。
- client 对象层收敛为 wire 镜像:会话身份、生命周期、能力判别全部以 host 实体为准——输入体系(下一层)面对的永远是「有真 Agent 的会话」,slash/skill 等 provider 一律以 sessionId 直接寻址。
- 空会话治理零专用机制:状态靠一个派生位,可见性靠统一列表投影(仅 current blank 以 `New Session` 展示),回收靠 lazy persistence 的既有契约(重启蒸发),常规上限靠同 Workspace 复用。
- 代价:id→ctx 换乘纪律、provide 的 Concurrent 纪律都是约定而非类型强制,靠 review 与测试钉住;「未选 workspace」期间输入全禁是产品面接受的体验代价(单一状态轴换来的)。
- 已知欠账:approval/question 跨 prune 恢复(TODO);模型选择以 live-mutation 形状回归(host `selectModel` 三件套现成,等独立分支)。
@@ -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
2026-07-26-turndown-for-tool-web-html-markdown.md: 7f25e51bf6e6fc9313a880abee737bca80a472af
2026-07-26-turndown-for-tool-web-html-markdown.zh.md: 3a59b08e13fd392e4f34ac543f32f5b4648f3c1c
2026-07-25-web-command-surfaces-and-assembly.md: 5188e8c17b31157b1c03203a8d7ba2d8e6a1496b
2026-07-25-web-command-surfaces-and-assembly.zh.md: 0134cc10cf4f49b7719d6a0dacb239389776d6ed
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# Agent Note: Web command business surfaces and assembly (ui-command / ui-skill / ui-subagent)
Status: implemented
English | [中文](2026-07-25-web-command-surfaces-and-assembly.zh.md)
> Scope: the command directory cache and three-kind dispatch (ui-command), the popup selection flow, the two skill / subagent reference sources, and fixture command routing plus assembly acceptance (the slash-flow snapshot). The carrying wire lives in the [session scope note](2026-07-25-web-client-session-scope-and-provide-channel.md); triggers, the menu, and the input machine live in the [input machine note](2026-07-25-web-input-machine-and-slash-pipeline.md).
## Problem
The pipeline was ready but command knowledge had no landing spot: host-side `ctx.commands` and `ctx.skills` were complete while the web channel had no command capability. The business layer had to answer:
- Command UI takes more than one shape (execute on the spot, pop a select box, backfill and keep typing arguments) — how do business packages ship with zero skeleton changes;
- When is the directory fetched: pulling on every menu open is too slow, while a resident cache needs invalidation and reconnect stories;
- Sessions are always agent-backed (Session + Agent born in the same instant) — by what address does the client command surface honor the host's per-agent effective directory;
- Assembly-level acceptance: with the layers split apart, how the user-visible main chain is pinned once they come together.
## Decision
### ui-command: a `CommandService` + a session-keyed `CommandDirectory` + a per-session `PopupSelectController`
- The `ClientSessionContext { sessionId }` projection is self-held in the ui-slash contract (types.ts): sessions are always agent-backed, so session identity is the entire projection of command capability; the wire addresses by `{sessionId}` (both `command.list` and `command.execute`; the host resolves the Agent from the session header).
- The directory is compartmented by `SessionId`, with per-key single-flight + an epoch guard (an old pull never overwrites newer state); `commands/changed` soft-invalidates every key (the old snapshot keeps serving while the repull runs in the background), `connection/reset` hard-invalidates every key and rewarms, Enter strong-waits on the current key, and a failure keeps the draft with no downgrade. Prewarming hangs on the source's `warm` hook — once over the full roster at scope birth, which covers the entire session lifecycle (session capability is constant from birth).
- `register(contribution)` registers client commands (a descriptor + `available(projection)` + a popupSelect spec); candidate synthesis = the host directory + contribution availability filtering, then the query/position pass, and a host/contribution name clash fails loud.
- The three command kinds derive from the registration surfaces; developers never declare positions: a host descriptor with `input` = **leadingInput** (backfill `/name ␣` + claim, keep typing arguments, leading position only); a client-registered popupSelect spec = **popupSelect** (the official select-box shell, business ships zero components); neither = **execute** (run on selection, zero UI).
- The dispatch decision table: the menu can trigger all three kinds; Space recognizes only leadingInput (the misfire defense: irreversible side effects keep explicit entry points only); Enter runs execute / opens the shell only on a bare token, while leadingInput tolerates trailing arguments.
- The popup from `popupFor(actx)`: search filters locally, select is single-flight, the projection is captured at open, onSelect consumes the token through the consume-token event only on success, a failure is retained for retry, and a session switch merely hides it. The popup shell is a transient layer (never in the state machine): the box holds focus, Enter/↑↓/Escape belong to it, and clicking outside the box dismisses (clicking the textarea also returns focus).
### Reference sources (seeing only projections plus their own apply closures, on the root ctx)
- **ui-skill**: `skill.list({sessionId})` addresses by session (the host resolves the project root from the session header); the directory cache is single-flight keyed by sessionId, prewarmed at birth by the `warm` hook and fully cleared by `connection/reset`. A pick produces a text outcome (the literal `/name ` text, Decision 21); `lexicon` supplies the roster from CatalogFetch's settled snapshot (`undefined` while not warm). No match hook (references never enter command adjudication). Skill references ride ordinary prompts as literal text (outside the command plane; tool-skill unchanged, with the session-prefix directory providing the cooperative association).
- **ui-subagent**: candidates are zero-RPC (the sessions.list snapshot filtered by parentId/running); a pick produces a text outcome (the literal `@name ` text); `lexicon` derives from the same snapshot (the model-side representation awaits its business workstream).
### Fixture command routing and assembly
- The connection fixture adds command routing (fixture + fake-api): the keyless rig can run the complete command flow (directory, execution, popup selection).
- The apps/cli assembly mounts all the new packages; the tsconfig path map / reference sets are filled in; catalogs/docs are regenerated with the wire and events.
### Assembly-level acceptance: the slash-flow snapshot
`apps/web/tests/slash-flow.snapshot.ts` pins the user-visible main chain (assembled keyless; package mocks are no substitute for the assembled transcript): the composer disabled with no session → creating a Workspace and entering an already-materialized blank session → picking the `/echo` leadingInput from the `/` menu → the command executes but the blank bit does not flip and the list still shows `New Session` → the first ordinary prompt's successful acceptance converts that same row; the same session-bound textarea holds across blank → active. `workspace-flow.snapshot.ts` separately pins blank-row creation/reuse, first-prompt rejection backfill, and — on a Workspace switch before the first prompt — the draft moving across input machines with the old blank row hidden.
## Alternatives considered
| Rejected | One-line reason |
|---|---|
| Inline prompt dispatch (command text riding the message into the host for parsing) | Conflates the command and message planes; command execution being independent of the message queue is existing host semantics |
| A bridge materializing skills as commands | Skills have their own directory; N registrations would be a detour; the tag form naturally avoids the command plane |
| A `skill.invoke` RPC | The host has no such operation; skill references are plain text riding prompts |
| A new ContentBlock reference type | Full-chain cost (adapters/UI/compaction); text-as-truth plus structured occurrence records suffices |
| Client packages self-reporting command directories | The host is the single source of truth; the client only reads descriptors, with `commands-changed` pushing invalidation |
| The `requires: 'none' \| 'agent'` discriminant axis (an agentless directory + dual-addressed queries) | With sessions always agent-backed, the amphibious command has no owner; the whole axis reverts to master's shape, to be reopened on real demand |
| Dedicated commandresult / commandpanel slots | Results go through notices; the popup shell is a skeleton-internal overlay; rich result cards sit in the ledger |
| An agent-type directory as the `@` source | No type registry exists; the live-session snapshot already covers it |
| A PickAction/EnterCommand class family (class-inheritance pick products) | Cross-package runtime values break client bundle purity; pure data interfaces plus closure methods are equivalent |
## Consequences
- Shipping a business command = a host registration plus one client `command.register` (popupSelect) or zero registration (execute/leadingInput derive automatically), with zero skeleton changes; the cost is that the three-kind semantics concentrate in ui-command, and a hypothetical fourth kind means changing it.
- The resident directory cache plus push invalidation buys zero-latency menus and reliable enter adjudication; the cost is three invalidation paths (the change frame, reconnect, the epoch guard) that all need tests pinning them.
- sessionId addressing puts the host's per-agent effective directory (global + scoped shadows) straight on the wire, with the client presenting it as-is.
- Known gaps: the popupSelect shell has no shipped business consumer yet (model selection and its kin return with #600's host `selectModel` in live-mutation shape, serving as the onboarding template then); the queue's second cut (per-item Inbox operations), rich result cards, and roster configurability sit in the ledger awaiting their triggers.
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# Agent Note: Web 命令业务面与装配(ui-command / ui-skill / ui-subagent
Status: implemented
[English](2026-07-25-web-command-surfaces-and-assembly.md) | 中文
> 范围:命令目录缓存与三型判定(ui-command)、popup 选择流、skill / subagent 两个引用源、fixture 命令路由与装配验收(slash-flow 快照)。承载 wire 见[会话作用域 note](2026-07-25-web-client-session-scope-and-provide-channel.md);触发/菜单/输入机器见[输入状态机 note](2026-07-25-web-input-machine-and-slash-pipeline.md)。
## 问题
管线就绪但没有命令知识的落点:host 侧 `ctx.commands``ctx.skills` 完整而 web 通道无命令能力。业务层要回答:
- 命令 UI 不止一种形态(当场执行、弹选择框、回填后继续打参数)——业务包如何零骨架改动上架;
- 目录何时拉取:每次开菜单现拉太慢,常驻缓存就要有失效与重连故事;
- 会话恒 agent-backedSession+Agent 同瞬出生),client 命令面以什么地址兑现 host 的 per-agent 有效目录;
- 装配级验收:拆开的各层合起来,用户可见主链如何钉住。
## 决策
### ui-command`CommandService` + session 键控 `CommandDirectory` + per-session `PopupSelectController`
- 投影 `ClientSessionContext { sessionId }` 自持于 ui-slash 契约(types.ts):会话恒 agent-backed,会话身份即命令能力的全部投影;wire 以 `{sessionId}` 寻址(`command.list` / `command.execute` 均是;host 从会话 header 解析 Agent)。
- 目录按 `SessionId` 分格,per-key single-flight + epoch guard(旧拉取永不覆盖新态),`commands/changed` 全 key 软失效(旧快照继续服务、后台重拉)、`connection/reset` 全 key 硬失效并预热,Enter 强等当前 key、失败留草稿不降级。预热挂 source 的 `warm` 钩子——scope 出生时对全 roster 一次,即覆盖整个会话生命周期(会话能力自出生恒定)。
- `register(contribution)` 注册 client 命令(descriptor + `available(projection)` + popupSelect spec);候选合成 = host 目录 + contribution 可用性过滤,再过 query/positionhost/contribution 重名 fail loud。
- 命令三型按注册面派生,开发者不声明位置:host descriptor 带 `input` = **leadingInput**(回填 `/name ␣` + claim,继续打参数,仅限行首);client 注册 popupSelect spec = **popupSelect**(官方选择框壳,业务零组件);两者皆无 = **execute**(选中即执行,零 UI)。
- 判定决策表:菜单可触发三型;Space 只认 leadingInput(误触发防线:不可逆副作用只留显式入口);Enter 裸 token 才 execute/开壳、leadingInput 容忍尾随参数。
- `popupFor(actx)` 的 popupsearch 本地过滤、select single-flight、open 时捕获投影、onSelect 成功才经 consume-token 事件消 token、失败保留可重试、session 切换只隐藏。popup 壳是瞬态层(不进状态机):框持焦点、Enter/↑↓/Escape 归它、点框外即 dismiss(点 textarea 同时归还焦点)。
### 引用源(只见投影 + 自家 apply 闭包的 root ctx
- **ui-skill**`skill.list({sessionId})` 按会话寻址(host 从会话 header 解析项目根);目录缓存按 sessionId 键控 single-flight`warm` 钩子出生预热、`connection/reset` 全清。pick 产出 text outcome`/name ` 原文,决策 21);`lexicon` 从 CatalogFetch 的 settled 快照给名录(未热 `undefined`)。无 match 钩子(引用不进命令裁决)。skill 引用以原文随普通 prompt 走(命令平面之外;tool-skill 不变,session-prefix 目录提供协作关联)。
- **ui-subagent**:候选零 RPCsessions.list 快照按 parentId/running 过滤);pick 产出 text outcome`@name ` 原文);`lexicon` 同快照派生(模型侧表示待业务立项)。
### fixture 命令路由与装配
- connection fixture 补命令路由(fixture + fake-api):keyless 台架可跑完整命令流(目录、执行、popup 选择)。
- apps/cli 装配挂全部新包;tsconfig path map / reference 集补齐;catalog/docs 随 wire 与事件再生成。
### 装配级验收:slash-flow 快照
`apps/web/tests/slash-flow.snapshot.ts` 钉住用户可见主链(assembled keyless,包 mock 不替代装配转录):无 session 时 composer 禁用 → 创建 Workspace 并进入已实体化的 blank session → `/` 菜单选 `/echo` leadingInput → 命令执行但 blank 位不翻转、列表仍显示 `New Session` → 首条普通 prompt 成功受理后同一行转正;同一 session-bound textarea 跨 blank → active 保持。`workspace-flow.snapshot.ts` 另钉住 blank 行创建/复用、首讯拒绝回填,以及首讯前切换 Workspace 时 draft 跨 input machine 搬运且旧 blank 行隐藏。
## Alternatives considered
| 弃案 | 一行理由 |
|---|---|
| prompt 内联派发(命令文本随消息进 host 解析) | 混淆命令/消息平面;命令执行独立于消息队列是既有 host 语义 |
| skill 物化为 command 的桥 | skill 自有目录;N 笔注册是绕路;标签形式天然避开命令平面 |
| `skill.invoke` RPC | host 无此操作;skill 引用是随 prompt 的普通文本 |
| 新 ContentBlock 引用类型 | 全链路成本(adapter/UI/compaction);文本即真身 + 结构化 occurrence 记录已足够 |
| client 各包自报命令目录 | host 是唯一真源;client 只读 descriptor`commands-changed` 推失效 |
| `requires: 'none' \| 'agent'` 判别轴(agentless 目录 + 双址查询) | 会话恒 agent-backed 后两栖命令无 owner;整轴回退 master 形状,待真需求重开 |
| 专用 commandresult / commandpanel 坑位 | 结果走 notice;popup 壳是骨架内浮层;富结果卡入台账 |
| agent-type 目录做 `@` 源 | 无类型注册表;live-session 快照已覆盖 |
| PickAction/EnterCommand 类族(类继承 pick 产物) | 跨包运行时值破坏 client bundle 纯度;纯数据接口 + 闭包方法等价 |
## 后果
- 业务命令上架 = host 注册 + client 一笔 `command.register`popupSelect)或零注册(execute/leadingInput 自动派生),零骨架改动;代价是三型语义集中在 ui-command,假想的第四型意味着改它。
- 常驻目录缓存 + 推失效换来菜单零延迟与回车裁决可靠;代价是三条失效路径(change 帧、重连、epoch guard)都需测试钉住。
- sessionId 寻址让 host 的 per-agent 有效目录(全局 + scoped shadows)直接上 wireclient 原样呈现。
- 已知欠账:popupSelect 壳暂无已上架业务消费者(模型选择等 #600 的 host `selectModel` 以 live-mutation 形态回归,届时作接入样板);队列第二刀(逐项 Inbox 操作)、富结果卡、roster 可配置性入台账待触发。
@@ -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
2026-07-25-web-input-machine-and-slash-pipeline.md: acbd132a5fdb97a4098064aae689dfca604ad4b7
2026-07-25-web-input-machine-and-slash-pipeline.zh.md: 158650a41b47f98037a1b3e610d9294694c55a8c
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# Agent Note: Web input state machine, composer slots, and the slash pipeline (ui-conversation input / ui-slash)
Status: implemented
English | [中文](2026-07-25-web-input-machine-and-slash-pipeline.zh.md)
> Scope: the input state machine (the occurrence table + claim watch + the submit transaction), the hub/facade and send orchestration, the three scoped bail events for cross-plugin input rewrites, `/` and `@` trigger detection and the menu pipeline (ui-slash), and the slot system around the composer. It depends on the [session scope note](2026-07-25-web-client-session-scope-and-provide-channel.md)'s sctx / provide / session-maybe and blank entity model; command knowledge (the three kinds, the directory, popups) is untouched here — that is the [command surfaces note](2026-07-25-web-command-surfaces-and-assembly.md)'s territory.
## Problem
Two composers, each a law unto itself: hero (EmptyState, the controlled chain writing straight into the Session) and the in-conversation InputBar (a plain controlled textarea) — behavior, draft ownership, and send path all inconsistent. To bring the three trigger families — `/` commands, skill references, `@` references — onto the input surface, these had to be answered:
- How the three trigger families layer, and who holds knowledge of "commands" versus who stays zero-knowledge;
- How the input box expresses "command mode" — derived from the draft text or explicit state? What do backspace, enter, space, and pasting a whole line each mean;
- Submission is an asynchronous transaction (an RPC round trip) — how are stale-result backwash, session switching, and React concurrent replay defended;
- How reference chips are represented on a plain textarea, and who owns undo / clipboard / paste matching / model serialization;
- How cross-plugin input rewrites (menu backfill, reference insertion, token consumption) achieve dependency inversion;
- Which React shells must be reused across no session → blank session, and which strict-session input bodies may be replaced.
Hard constraints: components mount through slots only; presentation artifacts never enter the session log; the keyboard path is IME-safe throughout.
## Decision
### The input state machine (`InputMachine`)
A pure state machine, events in / effects out, clock injected. Four phases (plain / adjudicating / claimed / submitting). Command mode is **never derived from the draft**; the pick paths establish it explicitly at discrete moments; the claim is watched by `draft.startsWith(token)`, with a backspace break releasing automatically; the claim shape is `{token, hint?}` (hint feeds ghost text).
The event surface (`dispatch(ev)` is the single write entry; one transaction per event):
- `draft-changed {draft, editRange?}` — the textarea's full draft; editRange narrows the occurrence-shift computation, defaulting to a shared prefix/suffix scan.
- `newline {selection}` — the Ctrl+Enter line break (not via the browser's execCommand: under self-managed undo a browser write forks two histories).
- `begin-command {claim, span}` / `insert-ref {reference, span}` / `consume-token {guard}` — the machine side of the three bail events; span CAS = draftRev equality.
- `set-invalid {invalidIds}` — the style bit for owner-resolution results (not a transaction).
- `undo` / `redo` — the self-managed transaction log (a ring of 100; single-character typing merges within injected-clock windows; a successful submit clears the log).
- `paste-begin {text, selection, components?, generation?}` — the paste plus hot-snapshot synchronously matched components in one transaction (one Undo returns to before the paste); opens a PasteMatchAttempt.
- `paste-upgrade {attemptId, span, reference}` — an asynchronous match upgrade as its own transaction (Undo in two steps); the attempt stays current, and insertedRange shrinks with each upgrade.
- `invalidate-paste` — attempt-ending gestures observed at the DOM layer (caret/selection operations and the like).
- `enter {mode}` / `adjudicated` / `adjudication-failed` / `submit-settled` / `release` — the submit-transaction plane: a SubmitAttempt (seq + AbortSignal) blocks backwash; success commits and clears the draft; failure rolls back under the drift guard (the enter-time snapshot is backfilled only while the live draft still equals it; if the user has typed again, only a notice fires).
The effect surface (executed by the shell): `adjudicate` (calls SlashController.adjudicate), `begin-submit` (the claim.submit transaction), `default-sink` (ordinary messages, hub-orchestrated), `notice`.
The occurrence table and the chip's three projections:
- Each reference occupies one `U+FFFC` in the draft; a table entry is `{occurrenceId, source, ref, offset, label, clipboardText, invalid?}`; same-named chips stay independent through occurrenceId.
- Every edit updates the draft and the table in one transaction: ranges shift; a deletion/replacement intersecting a placeholder acts on the whole chip.
- The single-character placeholder makes keyboard atomicity mostly hold natively (the caret has no interior position; Backspace / arrow keys / Shift extension natively take the whole chip); a mouse click on a chip goes backdrop hit → whole-chip setSelectionRange.
- The visual projection = label: the backdrop renders the chip at the placeholder offset (the textarea glyph is invisible), with invalid taking the invalid style.
- The clipboard/persistence projection = clipboardText: copy/cut expands placeholders inside the selection; the draft-persistence mirror writes the same projection (the chat store always holds plain text; the refresh seed semantics = select-all copy → reopen → paste, with chips degrading to text across a refresh).
- The model projection = generated per chip at submit through the source's `codec.serialize` (owned by the submit attempt's signal and stale guard; a missing owner / failure / cancel means no send, never a downgrade to `/name`).
### Cross-plugin input rewrites: three scoped bail events
The contract is declared in ui-slash (the bottom of the dependency chain); producers dispatch via `sctx.bail(sctx, ...)`, and the only consuming side is the three listeners the hub hangs on the sctx when building the shell; returning `true` ⟺ the machine passed the phase and CAS guards and actually rewrote (emitting the event ≠ a successful modification; whether Space gets `preventDefault` follows the return value):
- `slash/input-begin-command` `{claim, span}` — backfill of the command claim adjudicated from a menu pick / Space (dispatched by the SlashController).
- `slash/input-insert-reference` `{reference, span}` — reference chip insertion (dispatched by the SlashController).
- `slash/input-consume-token` `{guard: span | bare-token}` — consuming the command token after business success (dispatched by the downstream command surfaces).
Calls that stay un-evented (registry registration → explicit call → await): Input's own draft/submit, asynchronous Enter adjudication, the reference serializer, the asynchronous paste matcher. `@mode bail` has entered the JSDoc parser and the cordis catalog gate (scripts/jsdoc.ts).
### The slash pipeline (ui-slash: a root `SlashService` + a per-session `SlashController`)
A trigger/menu/pick pipeline with zero knowledge of "commands":
- The service holds only the source registry (`SlashSource{trigger: '/'|'@', name, candidates, onPick, matchSpace?, matchEnter?}`; (trigger,name) unique, registration order = group order = polling order) and `sessionOf(sctx)`. Implementing a match hook IS the declaration of participation in space/enter adjudication; the pipeline polls in registration order, the first non-undefined answer wins, and no claimant means the default sink. matchSpace is synchronous (space fires mid-keystroke; hot cache only); matchEnter is asynchronous (it may await the source's own warmup, and a warmup failure rejects).
- The controller holds the single authoritative hit (span included; retained for Space after the menu closes), the per-session menu store, the candidate-fetch generation, keyboard arbitration (combobox mode: focus stays in the textarea, ↑↓/Enter/Escape are intercepted and all pass the IME composition guard, with the single exception Shift+Enter unconditionally going first), and pick orchestration (outcome → self-dispatched bail events); at each session scope's birth it runs `warm(projection)` once over the source roster — within that scope the projection holds only the stable sessionId, with no published/capability transitions; the scope disposer tears down the controller.
- Trigger-detection word boundaries (`user@host` and URL `/` never trigger) and the guard tiers (plain: `/` everywhere + `@` inline / claimed: `/` suppressed, `@` live / frozen: none) are the frozen pure core.
### hub / facade: the resident shell and the strict-session input body
- The hub (trigger/decoration registries + send orchestration) takes the slash/command services as optional `ctx.get()` dependencies: without ui-slash or the command surfaces, input still sends and receives normally — graceful degradation.
- Each materialized Session has exactly one `SessionInputShell` (the facade), created and torn down with the session scope; with no session, no input machine is built. `ConversationRoot` is itself the `session-maybe` resident shell, holding HeroShell, the Workspace picker, the composer stack, and the chain-fallback frame.
- With no session the shell renders the presentation-only `DisabledInputBar`; once `connectWorkspace` returns a blank session, only the input body is swapped for the strict-session InputBar. The textarea may be rebuilt here, while `ConversationRoot`, the Hero, and the layout skeleton hold; blank → engaging/active stays the same session-bound InputBar, with the textarea never rebuilt on a phase flip.
- ConversationRoot's Hero criterion is `sessionId === undefined || (composerPhase === 'blank' && (openState === 'open' || openState === 'loading'))`. The first submit enters engaging synchronously, and a failure keeps the composer and the error context rather than falling back to the blank Hero; the sidebar's blank bit flips false only after a prompt is successfully accepted.
- Sending unifies in the hub defaultSink: after an optimistic draft clear it goes only through `session.prompt {mode:'queue'|'steer'}`; backfill happens only when it fails and the live draft is still empty — a user who has kept typing is never overwritten. No Draft materialize or attach transaction exists.
- When the blank Hero re-picks the Workspace, the shell calls `connectWorkspace`; if the target session differs, the non-empty draft moves from the current shell to the target shell before the new id is opened, and the old blank session survives but is no longer current.
- The Notifier's two-bit contract: `dirty` (snapshot freshness, clearable by an `ensureFresh` pull) and `notifyPending` (notification debt, cleared only by a flush) are mutually independent — a pull must not swallow a push, and object-layer push subscribers (watchTransaction) depend on this guarantee.
### Plain-text references (Decision 21): text outcomes and lexicon decoration
skill/@subagent references skip the placeholder + occurrence identity chain — a pick inserts the literal `/name ` `@name ` text straight into the draft, with the chip visual purely derived:
- PickOutcome gains a `{text}` arm; the new scoped bail event `slash/input-insert-text` `{text, span}` (the same contract as the other three: draftRev CAS, returning true ⟺ an actual rewrite); facade.insertText goes through setDraft concatenation — zero machine changes.
- Sources get an optional `lexicon?(session)` hook: a synchronous hot-snapshot name roster, with `undefined` = data not warm — zero decoration, never triggering a fetch (the render path stays synchronous and side-effect-free); the controller aggregates it into the `lexicon()` public surface.
- `decorations.scanTextRefs`: a word-boundary scan of the draft (`/name`, `@name` at line start / after whitespace; `x/name` never hits) against the roster; a hit gets the `.textRef` mark (a pure range highlight on the backdrop, same as hlToken); an edit breaking the match shape simply disappears on the next scan.
- Sending is the literal text (no more `<skill>` serialization); on the bubble side MessageItem decorates both shapes (the legacy `<skill>` tag + plain-text tokens).
- The old occurrence/paste/serialize chain stays on disk in full, undeleted (additive; deletion is a separate future cut). Known limitation kept as-is: with the lexicon not warm at paste / cold start there is no decoration — it lights up only after typing `/` opens the menu once.
### Per-session provide contributions and the private keyboard surface
- ui-conversation (the hub doubling as a contributor) supplies through `sessions.provide` the `'input'` hook (machine state + the queue overlay) plus the `inputActions` prop (`setDraft`/`submit`, stable void callbacks).
- The public/private boundary: the public provide carries only React-vocabulary members; the keyboard/DOM command surface (track/arbitrate/space/undo/redo/paste/dismissPopup/bindMirror — synchronous return values, disposer semantics) is InputBar-exclusive, passed privately in-package through the InputBar entry's own inject, never leaving the plugin boundary.
### The slot system
`conversation` is itself session-maybe; its session content and the composer input slots are strict session, while the Hero Workspace picker stays root. The child slots are all declared by ui-conversation's conversation registration:
- `conversation.session` (single) — the strict-session header, view ring, and chat store; rebuilt when the session id switches.
- `conversation.composer.bar` (single) — the slot for the InputBar itself: the InputBar is a true slot entry (self-registered into its own slot) and the content of the composer chain's fallback; it is not a chain entry — the chain's single election would unmount it on a takeover, breaking textarea DOM survival.
- `conversation.input.overlay` — the floating-overlay anchor inside the input card; registrants' inject resolves each one's own per-session controller by the slot sessionId.
- `conversation.input.dock` — the stacked strip above the input (QueueDock's read-only queue list lands here), ordered by `order`.
- `conversation.composer.dock` — the stats band on the composer's top edge.
- `conversation.input.left` / `conversation.input.right` — the tool-row left and right regions.
- `conversation.input.plan` / `conversation.input.model` (single) — the tool row's two named control seats; the bar passes only `locked` (owner props), each stays empty until its owning plugin registers, no placeholder fallback.
- `conversation.hero.workspace` (root scope) — the Workspace picker shared by the no-session and blank Hero; a pick reuses or creates the target blank session through `connectWorkspace`, moving the draft where necessary before switching current.
### Testing discipline
The state machine's entire behavior is covered by pure-JS unit tests (event sequences in, asserting state and effects, zero browser DOM); the interaction matrix is projection-tested row by row. This requirement is precisely what forced the pure-core + service-shell layering.
## Alternatives considered
| Rejected | One-line reason |
|---|---|
| An ActiveCommand intermediate state / a registerMode mode registry / deriving command mode from the draft | Claims are established explicitly by the pick paths — no table, no derivation |
| Direct bindTarget/bindDraft object wiring | Reverse coupling plus root-singleton cross-session mispairing; scoped bail events preserve dependency inversion with structurally correct routing |
| A unified slash/input-apply, or eventing everything | Three independent payloads cover the cross-plugin rewrites; asynchronous paths stay registry-based explicit calls |
| contenteditable / a rich-text tree | Poor compatibility; textarea + U+FFFC + the occurrence table covers the full interaction contract |
| Dual draft persistence {text, occurrences} | The mirror writing the clipboard projection adds zero new concepts; chip degradation across refresh is acceptable |
| The native textarea undo stack | Unreliable under controlled + programmatic writes; the paste two-step undo semantics can only be self-managed |
| The InputBar receiving a 16-member wiring-callback bundle | The consumption matrix proved 11 members InputBar-exclusive and 1 a dead member; the standard-kit channel lets components fetch their own, with the keyboard surface passed privately in-package |
| Space adjudication also claiming execute-kind commands | The misfire defense: after a space the whole line is an ordinary prompt; irreversible side effects keep explicit entry points only |
| A generic tokenPattern decoration mechanism | Structured occurrence records replace pattern scanning |
| A placeholder select resident in the tool row | Named seats stay empty until registration; a placeholder clashing with the real implementation is two sources of truth |
| All references through U+FFFC chips (the pre-Decision-21 line) | Plain text + derived decoration carries zero identity state; the literal text IS the model projection, sparing undo/clipboard any special cases; the chip chain is kept for scenarios needing indivisible atomicity |
## Consequences
- One resident conversation shell carries no-session/blank/active: no session → blank guarantees only the outer frame's React identity, allowing the disabled textarea to be replaced by the strict InputBar; the same blank session → engaging/active keeps the InputBar and the textarea. EmptyState and the controlled intent chain (`sessions.updateIntent`/`updatePendingPrompt`/`workspaces.sendSession`) are deleted along with their last consumer.
- The input surface's zero knowledge of commands plus optional dependencies: pure input works without the command packages; `@` references and skill references get free reuse of the same menu/pick pipeline. The cost is that space/enter adjudication is a per-source polling protocol whose answer semantics (sync/async, the meaning of undefined) are a frozen contract.
- Transactionalized submission (attempt seq + the drift guard) makes the three defect classes — stale-result backwash, session switching, concurrent replay — structurally impossible, pinned by the matrix tests.
- Known gaps: chip fidelity across refresh (paste matching is reusable for it) has no workstream yet; the subagent reference's model representation awaits its business workstream.
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# Agent Note: Web 输入状态机、composer 坑位与 slash 管线(ui-conversation input / ui-slash
Status: implemented
[English](2026-07-25-web-input-machine-and-slash-pipeline.md) | 中文
> 范围:输入状态机(occurrence 表 + claim 看护 + 提交事务)、hub/facade 与发送编排、跨插件输入改写的三个 scoped bail 事件、`/` 与 `@` 触发检测与菜单管线(ui-slash)、composer 周边坑位体系。依赖[会话作用域 note](2026-07-25-web-client-session-scope-and-provide-channel.md)的 sctx / provide / session-maybe 与 blank 实体模型;命令知识(三型、目录、popup)零涉——那是[命令业务面 note](2026-07-25-web-command-surfaces-and-assembly.md)的领地。
## 问题
两个各自为政的 composerheroEmptyState,受控链直写 Session)与会话内 InputBar(普通受控 textarea),行为、draft 所有权、发送路径全不一致。要让 `/` 命令、skill 引用、`@` 引用三类触发进入输入面,必须回答:
- 三类触发如何分层,谁对"命令"有知识、谁零知识;
- 输入框如何表达"命令态"——从 draft 文本推导还是显式状态?退格、回车、空格、整行粘贴各是什么语义;
- 提交是异步事务(RPC 往返)——晚到结果回灌、会话切换、React concurrent 重放如何防御;
- 引用 chip 在纯 textarea 上如何表示,undo/剪贴板/粘贴匹配/模型序列化各归谁;
- 跨插件的输入改写(菜单回填、引用插入、token 消费)如何做到依赖倒置;
- 无 session → blank session 时哪些 React 外壳必须复用,哪些严格 session 输入体允许替换。
硬约束:组件一律经 slots 挂载;呈现物不进 session log;键盘路径全程 IME 安全。
## 决策
### 输入状态机(`InputMachine`
纯状态机,事件进/效果出,注入时钟。四相 phaseplain / adjudicating / claimed / submitting)。命令态**永不从 draft 推导**,由 pick 路径在离散时刻显式建立;claim 由 `draft.startsWith(token)` 看护、退格破坏自动 release;claim 形状 `{token, hint?}`hint 供 ghost text)。
事件面(`dispatch(ev)` 单写入口,每个事件一个 transaction):
- `draft-changed {draft, editRange?}`——textarea 全量草稿;editRange 缩小 occurrence 平移计算,缺省前后缀共扫。
- `newline {selection}`——Ctrl+Enter 换行(不经浏览器 execCommand:自管 undo 下浏览器写入会分叉双历史)。
- `begin-command {claim, span}` / `insert-ref {reference, span}` / `consume-token {guard}`——三个 bail 事件的机器侧;span CAS = draftRev 相等。
- `set-invalid {invalidIds}`——owner resolution 结果的样式位(非 transaction)。
- `undo` / `redo`——自管 transaction log(环形 100;单字符打字按注入时钟窗合并;提交成功清 log)。
- `paste-begin {text, selection, components?, generation?}`——粘贴 + 热快照同步匹配组件同 transaction(Undo 一次回粘贴前);打开 PasteMatchAttempt。
- `paste-upgrade {attemptId, span, reference}`——异步匹配升级为独立 transactionUndo 两段);attempt 保持 currentinsertedRange 随升级收缩。
- `invalidate-paste`——DOM 层观察到的 attempt 终结手势(caret/selection 操作等)。
- `enter {mode}` / `adjudicated` / `adjudication-failed` / `submit-settled` / `release`——提交事务平面:SubmitAttemptseq + AbortSignal)防回灌,成功 commit 清稿,失败带漂移守卫 rollback(回车时快照仅当 live draft 仍等于它才回填;用户已再输入则只发 notice)。
效果面(shell 执行):`adjudicate`(调 SlashController.adjudicate)、`begin-submit`claim.submit 事务)、`default-sink`(普通消息,hub 编排)、`notice`
occurrence 表与 chip 三投影:
- 每颗引用在 draft 中占一个 `U+FFFC`;表项 `{occurrenceId, source, ref, offset, label, clipboardText, invalid?}`;同名 chip 因 occurrenceId 独立。
- 一切编辑同 transaction 更新 draft 与表:区间平移;与占位符相交的删除/替换作用于整颗。
- 单字符占位使键盘原子性大半原生成立(caret 无内部位;Backspace/方向键/Shift 扩选原生即整颗);鼠标点 chip 由 backdrop 命中 → 整颗 setSelectionRange。
- 视觉投影 = labelbackdrop 在占位符 offset 渲染 chiptextarea 字形不可见),invalid 走失效样式。
- 剪贴板/持久化投影 = clipboardTextcopy/cut 把选区内占位符展开;draft 持久化 mirror 写同一投影(chat store 里永远是普通文本,刷新 seed 语义 = 全选复制→重开→粘贴,chip 跨刷新降级为文本)。
- 模型投影 = submit 时经 source `codec.serialize` 逐颗生成(归 submit attempt 的 signal 与 stale guardowner 缺失/失败/取消则不发送,不降级为 `/name`)。
### 跨插件输入改写:三个 scoped bail 事件
契约声明在 ui-slash(依赖最底层),生产者经 `sctx.bail(sctx, ...)` 派发,唯一消费侧是 hub 建 shell 时挂在 sctx 上的三个 listener;返回 `true` ⟺ 机器过 phase + CAS 守卫并实际改写(发出事件 ≠ 修改成功,Space 是否 `preventDefault` 以返回值为准):
- `slash/input-begin-command` `{claim, span}`——菜单 pick / Space 裁决出的命令 claim 回填(SlashController 派发)。
- `slash/input-insert-reference` `{reference, span}`——引用 chip 插入(SlashController 派发)。
- `slash/input-consume-token` `{guard: span | bare-token}`——业务成功后消费命令 token(下游命令面派发)。
不事件化的调用(registry 注册 → 显式调用 → await):Input 自身的 draft/submit、Enter 异步裁决、reference serializer、异步 paste matcher。`@mode bail` 已入 JSDoc parser 与 cordis catalog 门禁(scripts/jsdoc.ts)。
### slash 管线(ui-slashroot `SlashService` + per-session `SlashController`
对"命令"零知识的触发/菜单/pick 管线:
- service 只有 source 注册表(`SlashSource{trigger: '/'|'@', name, candidates, onPick, matchSpace?, matchEnter?}`(trigger,name) 唯一、注册序 = 组序 = 轮询序)与 `sessionOf(sctx)`。实现 match 钩子即参与空格/回车裁决的声明;管线按注册序轮询,首个非 undefined 应答胜出,无人认领落 default sink。matchSpace 同步(空格在击键中触发,只许热缓存);matchEnter 异步(可 await 源自身预热,预热失败即 reject)。
- controller 持有唯一权威 hit(含 span;菜单关闭后为 Space 保留)、per-session menu store、候选 fetch generation、键盘仲裁(combobox 模式:焦点始终在 textarea,↑↓/Enter/Escape 拦截且全程过 IME composition 守卫,唯一例外 Shift+Enter 无条件先行)、pick 编排(outcome → 自派 bail 事件);每个 session scope 出生时对 source roster 做一次 `warm(projection)`projection 在该 scope 内只有稳定的 sessionId,无 published/能力跃迁;scope disposer 拆除 controller。
- 触发检测词边界(`user@host`、URL `/` 永不触发)、守卫分档(plain`/` 到处 + `@` 行内 / claimed`/` 抑制、`@` 活 / frozen:全无)为冻结纯核。
### hub / facade:常驻外壳与严格 session 输入体
- hubtrigger/decoration 注册表 + 发送编排)对 slash/command 服务是可选 `ctx.get()` 依赖:无 ui-slash/命令面时输入正常收发,优雅降级。
- 每个实体 Session 只有一个 `SessionInputShell`facade),随 session scope 创建和拆除;无 session 时不造 input machine。`ConversationRoot` 自身是 `session-maybe` 常驻外壳,持有 HeroShell、Workspace picker、composer stack 与 chain fallback 外框。
- 无 session 时外壳渲染纯展示的 `DisabledInputBar``connectWorkspace` 返回 blank session 后,仅输入体换成严格 session 的 InputBar。这里允许 textarea 重建,`ConversationRoot`、Hero 与布局骨架保持;blank → engaging/active 仍是同一 session-bound InputBartextarea 不因 phase 翻转而重建。
- ConversationRoot 的 Hero 判据是 `sessionId === undefined || (composerPhase === 'blank' && (openState === 'open' || openState === 'loading'))`。首次 submit 同步进入 engaging,失败也保留 composer 与错误上下文,不退回 blank Herosidebar 的 blank 位只在 prompt 成功受理后翻 false。
- 发送统一在 hub defaultSink:乐观清稿后只走 `session.prompt {mode:'queue'|'steer'}`;失败且 live draft 仍为空才回填,用户已经继续输入则不覆盖。不存在 Draft materialize 或 attach 事务。
- blank Hero 改选 Workspace 时,外壳调用 `connectWorkspace`;目标 session 不同时把非空 draft 从当前 shell 搬到目标 shell,再 open 新 id,旧 blank session 留存但不再 current。
- Notifier 双位契约:`dirty`(快照新鲜度,`ensureFresh` 拉取可清)与 `notifyPending`(通知欠账,只有 flush 清)各自独立——拉取不得吞推送,对象层推订阅者(watchTransaction)依赖这一保证。
### 纯文本引用(决策 21):text outcome 与 lexicon 装饰
skill/@subagent 引用不走占位符 + occurrence 身份链——pick 直接把 `/name ` `@name ` 原文插进 draft,chip 视觉纯派生:
- PickOutcome 增 `{text}` arm;新 scoped bail 事件 `slash/input-insert-text` `{text, span}`(与另三个同契约:draftRev CAS、返回 true ⟺ 实际改写);facade.insertText 走 setDraft 拼接,机器零改动。
- source 可选 `lexicon?(session)` 钩子:同步热快照名录,`undefined` = 数据未热——零装饰、永不触发 fetch(渲染路径保持同步无副作用);controller 聚合为 `lexicon()` 公面。
- `decorations.scanTextRefs`:词边界扫描 draft(行首/空白后的 `/name``@name``x/name` 永不命中)对照名录,命中即 `.textRef` markbackdrop 纯 range 高亮,同 hlToken);编辑破坏匹配形状下次扫描自然消失。
- 发送即原文(不再 `<skill>` 序列化);气泡侧 MessageItem 双形状装饰(legacy `<skill>` 标签 + 纯文本 token)。
- 旧 occurrence/paste/serialize 链全部保留在盘未删(additive;删除另成将来一刀)。已知局限维持现状:粘贴/冷启动时 lexicon 未热不装饰,输 `/` 开一次菜单后才亮。
### per-session 供数贡献与键盘私面
- ui-conversationhub 兼贡献者)经 `sessions.provide``'input'` hook(机器状态 + queue overlay+ `inputActions` prop`setDraft`/`submit`,稳定 void 回调)。
- 公私分界:公共 provide 只放 React 语汇成员;键盘/DOM 命令面(track/arbitrate/space/undo/redo/paste/dismissPopup/bindMirror——同步返回值、disposer 语义)是 InputBar 独占,走 InputBar entry 自己的 inject 包内私递,不出插件边界。
### 坑位体系
`conversation` 本身是 session-maybe;其会话内容与 composer 输入坑位严格 sessionHero Workspace picker 保持 root。子坑均由 ui-conversation 的 conversation 注册声明:
- `conversation.session`single)——严格 session 的 header、view ring 与 chat storesession id 切换时重建。
- `conversation.composer.bar`single)——InputBar 本体的坑位:InputBar 是真 slot entry(自家坑自注册),composer chain fallback 的内容;不做 chain entry——chain 单选举会在 takeover 时卸载它,破坏 textarea DOM 存活。
- `conversation.input.overlay`——输入卡内浮层锚点;注册者 inject 按 slot sessionId 解析各自 per-session controller。
- `conversation.input.dock`——输入上方堆叠条(QueueDock 的队列只读列表落此),order 定序。
- `conversation.composer.dock`——composer 上沿统计带。
- `conversation.input.left` / `conversation.input.right`——工具行左右区。
- `conversation.input.plan` / `conversation.input.model`(single)——工具行两具名控制位;bar 只传 `locked`owner props),空到 owning 插件注册为止,无占位 fallback。
- `conversation.hero.workspace`root scope)——无 session / blank Hero 共用的 Workspace pickerpick 经 `connectWorkspace` 复用或创建目标 blank session,必要时搬运 draft 后切 current。
### 测试纪律
状态机全部行为由纯 JS 单测覆盖(事件序列进、断言状态与效果,零浏览器 DOM);交互矩阵逐行投影测试。这一要求正是纯核 + 服务壳分层的成因。
## Alternatives considered
| 弃案 | 一行理由 |
|---|---|
| ActiveCommand 中间态 / registerMode 模式注册表 / 从 draft 推导命令态 | claim 由 pick 路径显式建立——无表、无推导 |
| bindTarget/bindDraft 对象直连 | 反向耦合 + root 单例跨会话误配;scoped bail 事件保依赖倒置且路由结构性正确 |
| 统一 slash/input-apply 或全事件化 | 三个独立 payload 覆盖跨插件改写;异步链路保持 registry 显式调用 |
| contenteditable / 富文本树 | 兼容性差;textarea + U+FFFC + occurrence 表覆盖全部交互契约 |
| draft 双持久化 {text, occurrences} | mirror 写剪贴板投影零新概念;chip 跨刷新降级可接受 |
| 原生 textarea undo 栈 | 受控 + 程序化写入下不可靠;粘贴两段 undo 语义只能自管 |
| InputBar 收 16 员 wiring 回调包 | 消费矩阵实证 11 员 InputBar 独占、1 员死成员;标准件通道让组件自取,键盘面包内私递 |
| 空格裁决也认领即执行型命令 | 误触发防线:空格后整行是普通 prompt;不可逆副作用只留显式入口 |
| 通用 tokenPattern 装饰机制 | 结构化 occurrence 记录取代模式扫描 |
| 占位 select 常驻工具行 | 具名坑位空到注册为止;占位件与真实现冲突时是双真相源 |
| 引用一律走 U+FFFC chip(决策 21 前旧线) | 纯文本 + 派生装饰零身份状态;原文即模型投影,undo/剪贴板免特判;chip 链保留给需要不可分原子性的场景 |
## 后果
- 一个常驻 conversation 外壳承接 no-session/blank/active:无 session → blank 只保证大框架 React identity,允许 disabled textarea 替换为严格 InputBar;同一 blank session → engaging/active 保持 InputBar 与 textarea。EmptyState 与受控 intent 链(`sessions.updateIntent`/`updatePendingPrompt`/`workspaces.sendSession`)随最后消费者一并删除。
- 输入面对命令零知识 + 可选依赖:无命令包时纯输入可用;`@` 引用与 skill 引用免费复用同一菜单/pick 管线。代价是空格/回车裁决是逐 source 轮询协议,其应答语义(同步/异步、undefined 含义)为冻结契约。
- 提交事务化(attempt seq + 漂移守卫)使晚到结果回灌、会话切换、concurrent 重放三类缺陷结构性不可能,由矩阵测试钉住。
- 已知欠账:chip 跨刷新保真(可复用粘贴匹配)未立项;subagent 引用的模型表示待业务立项。
@@ -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
2026-06-29-todo-write-tool.md: df1bee2801b0e01b290b63f6edbe2e5b1be80cb7
2026-06-29-todo-write-tool.zh.md: 7fa5cb2aad2b32ef0662df04ff6576be14a3a8e7
2026-06-29-todo-write-tool.md: 760373d64f462e3717a174d5793e6d47ab76b0b4
2026-06-29-todo-write-tool.zh.md: fd29e6049e6a729c2c7e78860ad7c065422da60e
@@ -10,7 +10,7 @@ The harness gives the model bash and subagent tools but no way to record a struc
## Decision
Add a model-facing `todo_write(todos: [{ content, status }])` tool whose whole-list state lives on the event-sourced session log as a new `todo/write` `SessionEventMap` variant. Interactive hosts render from the durable event; the TUI folds it directly, while the [automation-only ACP bridge](../simplification/2026-07-23-acp-automation-only-protocol.md) deliberately omits todo presentation.
Add a model-facing `todo_write(todos: [{ content, status }])` tool whose whole-list state lives on the event-sourced session log as a new `todo/write` `SessionEventMap` variant. Interactive hosts render from the durable event: the TUI folds it directly, the web client projects it into `ConversationSnapshot.todos` ([web todo display](2026-07-23-web-todo-display.md)), while the [automation-only ACP bridge](../simplification/2026-07-23-acp-automation-only-protocol.md) deliberately omits todo presentation.
### Whole-list replace, three-state status
@@ -18,7 +18,7 @@ The model sends the entire list every call; the new list replaces the old (last-
### State on the session log, not a service
The list is appended as a `todo/write` event carrying the full `{ todos }` snapshot. The harness is event-sourced — the LLM history, tool calls, and turn structure all live on the log — so the todo list lives there too. This buys durability, replay, and resume reconstruction for free: a reopened session re-derives the current list from the latest `todo/write`, with no separate persistence backend, in-memory service to rehydrate, or extra wiring. An in-memory `ctx.todos` service would have to reinvent all of that.
The list is appended as a `todo/write` event carrying the full `{ todos }` snapshot. The harness is event-sourced — the LLM history, tool calls, and turn structure all live on the log — so the todo list lives there too. This buys durability, replay, and resume reconstruction for free: a reopened session re-derives the current list from the latest `todo/write`, with no separate persistence backend, in-memory service to rehydrate, or extra wiring. An in-memory `ctx.todos` service would have to reinvent all of that. (Full-log consumers get this reconstruction outright; the web client's paged window gets it from the tail history page's host-computed projection — see the [web todo display note](2026-07-23-web-todo-display.md).)
### NOT a surface event
@@ -10,7 +10,7 @@ harness 为模型提供了 bash 和 subagent 工具,却没有办法记录结
## 决策
新增一个面向模型的 `todo_write(todos: [{ content, status }])` 工具,其整列表状态作为新的 `todo/write` `SessionEventMap` 变体存储在事件溯源的会话日志上。交互式宿主从持久事件渲染TUI 直接折叠它,而[仅面向自动化的 ACPAgent Client Protocol)桥接层](../simplification/2026-07-23-acp-automation-only-protocol.md)有意省略 todo 展示。
新增一个面向模型的 `todo_write(todos: [{ content, status }])` 工具,其整列表状态作为新的 `todo/write` `SessionEventMap` 变体存储在事件溯源的会话日志上。交互式宿主从持久事件渲染TUI 直接折叠它,web 客户端将其投影进 `ConversationSnapshot.todos`[web todo 展示](2026-07-23-web-todo-display.md)),而[仅面向自动化的 ACPAgent Client Protocol)桥接层](../simplification/2026-07-23-acp-automation-only-protocol.md)有意省略 todo 展示。
### 整列表替换,三态 status
@@ -18,7 +18,7 @@ harness 为模型提供了 bash 和 subagent 工具,却没有办法记录结
### 状态在会话日志上,而非服务
列表作为 `todo/write` 事件追加到日志,携带完整的 `{ todos }` 快照。harness 是事件溯源的——LLM(大语言模型)历史、工具调用和轮次结构都在日志上——所以 todo 列表也在那里。这免费获得了持久性、回放和恢复重建:重新打开的会话从最新的 `todo/write` 重新推导当前列表,无需独立的持久化后端、无需重新注水的内存服务、无需额外接线。一个内存中的 `ctx.todos` 服务需要重新发明以上所有。
列表作为 `todo/write` 事件追加到日志,携带完整的 `{ todos }` 快照。harness 是事件溯源的——LLM(大语言模型)历史、工具调用和轮次结构都在日志上——所以 todo 列表也在那里。这免费获得了持久性、回放和恢复重建:重新打开的会话从最新的 `todo/write` 重新推导当前列表,无需独立的持久化后端、无需重新注水的内存服务、无需额外接线。一个内存中的 `ctx.todos` 服务需要重新发明以上所有。(全量 log 消费者直接获得这份重建;web 客户端的分页窗口则从尾页 history 携带的 host 计算投影获得——见 [web todo 展示 Note](2026-07-23-web-todo-display.md)。)
### 不是 surface 事件
@@ -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
2026-07-06-sandbox.md: 723ef170188dc11da24e049a1e2838fb240d0a17
2026-07-06-sandbox.zh.md: a8c7743bb3d499fb58f507ea2c202b44efe2311d
2026-07-06-sandbox.md: c6883873192f15ba2982436e156d8795396c0148
2026-07-06-sandbox.zh.md: d84df9b06b15dd296801073d381603f34cfd2878
@@ -128,7 +128,7 @@ Each phase gets its full design when picked up, validated against the code at th
- **Second consumer** — `subagent-acp` optionally confines child agents (per-call policy; unconfined default — a child agent must write its own persistence).
- **More environments** — an environment-coherent capability group example (e.g. bash+fs against one container).
- **Windows chain** — `PLATFORM_CHAINS.win32` is reserved and empty (fail-closed); filling it means a confinement runner from the AppContainer/restricted-token family, shipped from its own repository on the `node-addon-landlock-run` template, plus its profile dialect and denial/runner-failure signatures.
- **Windows chain** — `PLATFORM_CHAINS.win32` is reserved and empty (fail-closed); filling it means a confinement runner from the AppContainer/restricted-token family, shipped from its own repository on the `node-addon-landlock-run` template, plus its profile dialect and denial/runner-failure signatures. Wrapping the third-party landstrip runner instead was [considered and rejected](../../rejected/feature/2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.md) — not battle-tested enough for a security invariant.
## Alternatives considered
@@ -128,7 +128,7 @@ fs/web/todo 在进程内执行,因此它们的沙箱语义是各自 seam 层
- **第二个消费方**——`subagent-acp` 可选地约束子 agent(按调用策略;默认无约束——子 agent 必须写入自己的持久化)。
- **更多环境**——环境一致的能力组示例(如 bash+fs 对一个容器)。
- **Windows 链**——`PLATFORM_CHAINS.win32` 保留为空(失败关闭);填充它意味着来自 AppContainer/restricted-token 家族的约束 runner,从其自己的仓库按 `node-addon-landlock-run` 模板交付,加上其 profile 方言和拒绝/runner 失败签名。
- **Windows 链**——`PLATFORM_CHAINS.win32` 保留为空(失败关闭);填充它意味着来自 AppContainer/restricted-token 家族的约束 runner,从其自己的仓库按 `node-addon-landlock-run` 模板交付,加上其 profile 方言和拒绝/runner 失败签名。改为包装第三方 landstrip runner 的方案[经考虑后已驳回](../../rejected/feature/2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.md)——对安全不变式而言,它还远未经过实战检验。
## 曾考虑的替代方案
@@ -1,6 +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
2026-07-16-persistent-pty-sessions.md: 148d4a2f47689e38a3ec83a7a41e4f75c4b73d95
2026-07-16-persistent-pty-sessions.zh.md: 9a9d9cd4b0f61e8abaf011996ecd8739d13851f8
# pnpm run verify-translation-pairing --write .agents/notes/implemented/feature/2026-07-16-persistent-pty-sessions.md
2026-07-16-persistent-pty-sessions.md: 43c87bb159cfe1ab9f8d3a80c2adf25a57ae6e3b
2026-07-16-persistent-pty-sessions.zh.md: 8afc2103447cc58b1fcbc1062b9564e8ed643477
@@ -154,7 +154,7 @@ The package ships concise tool guidance explaining persistent state, owner isola
- Per-file coverage pins owner fencing, concurrent reservations, unpublished-spawn cancellation and awaited teardown, sandbox-mode change rejection, retriable lifecycle cleanup, readiness tiers, sanitizer carry state, complete UTF-8 bounds, task integration, schemas, and exact render intents.
- Linux process fixtures cover non-leader and non-main-thread stdin waits, zombie quiescence, unreadable process state, supported syscall tables, unsupported architectures, and false-positive rejection; macOS inspector logic is injected into the same unit suite.
- Real `node-pty` tests exercise shell state, shared sandbox policy, environment scrubbing, raw-mode foreground `SIGINT`, a TERM-ignoring descendant, and immediate post-disposal quiescence on supported hosts.
- Real `node-pty` tests exercise shell state, shared sandbox policy, environment scrubbing, raw-mode foreground `SIGINT` after deliberately delayed child readiness under scenario-owned timing bounds, a TERM-ignoring descendant, and immediate post-disposal quiescence on supported hosts.
- A Loader-driven `cordis.yml` test mounts the real three-package composition. ACP and headless snapshots pin the six schemas, bounded results, and errors through opt-in overlays; TUI snapshots pin terminal and generic card presentation.
- Package contracts, the architecture map, core data structures, generated catalogs, and the website API describe the same shipped surface.
- The repository CI-equivalent sequence owns type, lint, coverage, snapshot, documentation, build, hygiene, demo, and built-entry verification.
@@ -154,7 +154,7 @@ plugins:
- 每文件覆盖率固定 owner 隔离、并发预留、未发布 spawn 的取消与等待式 teardown、沙箱模式变更拒绝、可重试的生命周期清理、就绪层级、sanitizer carry state、完整 UTF-8 结果上限、task 集成、schema 和精确 render intent。
- Linux 进程 fixture 覆盖非 leader 与非主线程的 stdin 等待、僵尸进程静止性、不可读进程状态、受支持的 syscall 表、不支持的架构和误报拒绝;同一单元测试套件通过注入覆盖 macOS 检查器逻辑。
- 真实 `node-pty` 测试在受支持宿主上覆盖 shell 状态、共享沙箱策略、环境清洗、raw mode 下的前台 `SIGINT`、忽略 `SIGTERM` 的子进程,以及 dispose 返回后立即静默
- 真实 `node-pty` 测试在受支持宿主上覆盖 shell 状态、共享沙箱策略、环境清洗、在由场景掌控的时间界限内先有意延迟子进程就绪,再对 raw mode 前台进程发送 `SIGINT`、忽略 `SIGTERM` 的子进程,以及 dispose 返回后立即完全停稳
- Loader 驱动的 `cordis.yml` 测试挂载真实三包组合。ACP 与 headless 快照通过 opt-in overlay 固定 6 个 schema、有界结果和错误;TUI 快照固定 terminal 与 generic 卡片展示。
- 包契约、架构图、核心数据结构、生成目录和 website API 描述同一个已发布接口。
- 仓库 CI 等价序列负责类型、lint、覆盖率、快照、文档、构建、hygiene、demo 和 built-entry 验证。
@@ -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
2026-07-17-dedicated-full-screen-tui-front-door.md: aac67ffec89606d04d5abfd233d0469e2241b102
2026-07-17-dedicated-full-screen-tui-front-door.zh.md: 0f64e2ce14b18d315f75913b82c731e77758e377
2026-07-17-dedicated-full-screen-tui-front-door.md: 8d7c7b00c8d9b15ea3f2419ed44ca88209e60dad
2026-07-17-dedicated-full-screen-tui-front-door.zh.md: 49e9541c9f98c9f3beba11945ff452fc38bd9ede
@@ -22,9 +22,9 @@ The selected front door receives the exact generated or resumed `SessionId` used
The TUI rebuilds the transcript from the active `session.surface` and reprojects it whenever an event carries a `surfaceOp`, so resumed and compacted history matches the model-visible conversation. It renders Markdown text and reasoning, token totals, the latest `todo/write` plan, and tool cards produced through each tool definition's `presentCall` and `presentResult` methods. Long card bodies retain a configurable head/tail preview with the hidden-line count; one terminal control expands or collapses every card. Pending chunks and tool calls update the same components that completed events settle.
Editor input calls `agent.send()` while idle and `agent.steer()` while a turn is running. Cancellation, reasoning visibility, tool-card expansion, redraw, transcript clearing, and exit are terminal-only controls. The idle footer derives context occupancy from `tokenMeter` and shows the selected model; during a run, elapsed activity and the Escape interrupt hint replace that summary. `/status` remains available in either state and appends a detailed terminal-only snapshot: session identity and timestamps, selected model and reasoning visibility, lifecycle counts folded from the event log, the same deduplicated usage buckets and KV-cache rate as the footer, and context use from `tokenMeter` plus the selected model's advertised capacity. The plugin registers the shared `userInteraction` provider and presents queued questions in a wide bottom-left keyboard panel with batch progress, numbered options, and aligned descriptions; agent behavior and answer logging remain owned by their existing services.
Editor input calls `agent.send()` while idle and `agent.steer()` while a turn is running. Cancellation, reasoning visibility, tool-card expansion, redraw, transcript clearing, and exit are terminal-only controls. The idle footer derives context occupancy from `tokenMeter` and shows the selected model and explicit reasoning effort; during a run, elapsed activity and the Escape interrupt hint replace that summary. `/status` remains available in either state and appends a detailed terminal-only snapshot: session identity and timestamps, selected model, reasoning effort/default state and reasoning visibility, lifecycle counts folded from the event log, the same deduplicated usage buckets and KV-cache rate as the footer, and context use from `tokenMeter` plus the selected model's advertised capacity. The plugin registers the shared `userInteraction` provider and presents queued questions in a wide bottom-left keyboard panel with batch progress, numbered options, and aligned descriptions; agent behavior and answer logging remain owned by their existing services.
The `/model` command presents the advisory `ctx.llm` catalog as a keyboard selector and changes only this TUI session's target; argument forms remain available for direct selection. Agent-scoped prompt-assembly and request waterfalls snapshot one provider/model pair per step, so `{{provider}}` / `{{model}}` interpolation and request routing cannot split when a command arrives during assembly. The latest logged request header restores a used target; a selection that never reaches a request remains process-local.
The `/model` command presents the advisory `ctx.llm` catalog as a keyboard selector and changes only this TUI session's target; argument forms remain available for direct selection. Each model row owns the adapter-advertised reasoning-effort order and default: Shift+Tab cycles that row's efforts, includes provider-default behavior when the adapter advertises no default, and leaves models without selectable metadata unchanged. Agent-scoped prompt-assembly and request waterfalls snapshot one provider/model/reasoning-effort target per step, so `{{provider}}` / `{{model}}` interpolation and request routing cannot split when a command arrives during assembly. The latest logged request header restores a used target; a selection that never reaches a request remains process-local.
### Terminal ownership
@@ -49,4 +49,4 @@ The implemented [TUI terminal-state snapshot Agent Note](../testing/2026-07-18-t
- The TUI carries a pi-tui dependency and a strict TTY requirement; non-TTY deployments use the Headless app or a structured protocol.
- Session projection makes resume and compaction consistent with the durable conversation, but one configured session owns the transcript and editor.
- Tool packages extend terminal cards through their existing presentation methods without adding tool-specific branches to the TUI.
- Model selection uses adapter-advertised metadata without turning catalog membership into request validation; unused selections are not durable state.
- Model and reasoning-effort selection use adapter-advertised metadata without turning catalog membership into request validation; unused selections are not durable state.
@@ -22,9 +22,9 @@ DeepSeek Harness 将 [`@deepseek-ai/dsh-tui`](../../../../packages/ui/tui/README
TUI 从活跃的 `session.surface` 重建 transcript(文本记录),并在事件携带 `surfaceOp` 时重新投影,因此恢复或压缩后的历史与模型可见会话保持一致。TUI 渲染 Markdown 文本与推理、token 用量、最新 `todo/write` 计划,以及各工具定义通过 `presentCall``presentResult` 方法生成的工具卡片。较长的工具卡片正文会保留可配置的头尾预览,并显示隐藏行数;一个终端控制可以展开或收起全部卡片。进行中的分片与工具调用会更新同一组组件,随后由完成事件收束状态。
agent 空闲时,编辑器输入调用 `agent.send()`;轮次运行中则调用 `agent.steer()`。取消、推理显隐、工具卡片展开、重绘、清空 transcript 和退出都只是终端控制。空闲态页脚根据 `tokenMeter` 得出上下文占用率,并显示所选模型;agent 运行期间,该摘要会替换为带已用时长的活动指示和 Escape 中断提示。`/status` 在这两种状态下均可用,并会追加一份仅在终端显示的详细快照,其中包括会话标识与时间戳、所选模型及推理显隐状态、从事件日志归并得出的生命周期计数、与页脚一致的去重用量分项和 KV 缓存命中率,以及 `tokenMeter` 给出的上下文用量和所选模型公布的容量。插件注册共享的 `userInteraction` 提供方,在左下角宽幅键盘操作面板中呈现排队的问题,面板显示批次进度、带编号的选项和对齐的描述;agent 行为和答案日志仍由既有服务负责。
agent 空闲时,编辑器输入调用 `agent.send()`;轮次运行中则调用 `agent.steer()`。取消、推理显隐、工具卡片展开、重绘、清空 transcript 和退出都只是终端控制。空闲态页脚根据 `tokenMeter` 得出上下文占用率,并显示所选模型和显式选定的推理强度;agent 运行期间,该摘要会替换为带已用时长的活动指示和 Escape 中断提示。`/status` 在这两种状态下均可用,并会追加一份仅在终端显示的详细快照,其中包括会话标识与时间戳、所选模型、推理强度(或默认状态)及推理显隐状态、从事件日志归并得出的生命周期计数、与页脚一致的去重用量分项和 KV 缓存命中率,以及 `tokenMeter` 给出的上下文用量和所选模型公布的容量。插件注册共享的 `userInteraction` 提供方,在左下角宽幅键盘操作面板中呈现排队的问题,面板显示批次进度、带编号的选项和对齐的描述;agent 行为和答案日志仍由既有服务负责。
`/model` 命令将建议性的 `ctx.llm` 目录呈现为键盘选择器,并且只更改当前 TUI 会话的目标;带参数的形式仍可直接选择目标。agent 作用域内的 prompt 组装和请求两条 waterfall(瀑布式事件)会为每个 step 快照一次同一个提供方/模型字段组合,因此即使命令在组装期间到达,`{{provider}}` / `{{model}}` 插值与请求路由也不会分裂。系统通过日志中最新的请求头恢复已经使用过的目标;未被请求使用的选择只保留在当前进程中。
`/model` 命令将建议性的 `ctx.llm` 目录呈现为键盘选择器,并且只更改当前 TUI 会话的目标;带参数的形式仍可直接选择目标。每个模型行都持有适配器公布的推理强度顺序和默认值:按 Shift+Tab 可循环切换该行的推理强度;如果适配器没有公布默认值,循环中还会包含提供方默认行为;没有可选元数据的模型则保持不变。agent 作用域内的 prompt 组装和请求两条 waterfall(瀑布式事件)会为每个步骤快照一次同一个提供方/模型/推理强度目标,因此即使命令在组装期间到达,`{{provider}}` / `{{model}}` 插值与请求路由也不会分裂。系统通过日志中最新的请求头恢复已经使用过的目标;未被请求使用的选择只保留在当前进程中。
### 终端所有权
@@ -49,4 +49,4 @@ agent 空闲时,编辑器输入调用 `agent.send()`;轮次运行中则调
- TUI 会引入 pi-tui 依赖并严格要求 TTY;非 TTY 部署使用 Headless app 或结构化协议。
- 会话投影使恢复和压缩与持久会话保持一致,但只有一个已配置会话拥有 transcript 和编辑器。
- 工具包通过既有呈现方法扩展终端卡片,无需在 TUI 中增加工具专用分支。
- 模型选择使用适配器提供的目录元数据,但不会把目录成员关系变成请求校验;未使用的选择不属于持久化状态。
- 模型和推理强度选择使用适配器公布的元数据,但不会把目录成员关系变成请求校验;未使用的选择不属于持久化状态。
@@ -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
2026-07-23-web-assistant-markdown.md: ce98a16fa43e2743c18826ee7f2344c38e7c70e7
2026-07-23-web-assistant-markdown.zh.md: 0d6fd2f9e6b91f76830586ecf4c29774e5d6978a
2026-07-23-web-assistant-markdown.md: 38d193271d88b3a8f32ba1b191e8a6d432176281
2026-07-23-web-assistant-markdown.zh.md: be3cd041c6012af142fc27934fda125dfc4cf6de
@@ -12,13 +12,17 @@ The Web conversation preserves assistant Markdown source through session events,
`@deepseek-ai/dsh-client-ui-primitives` exports `MarkdownText` as the untrusted assistant-text renderer, and `ui-conversation` selects it only for assistant `text` blocks. Finalized history, the streaming tail, and interrupted partials already share `AssistantMarkdown`, so they receive the same renderer without changing events or snapshots. User and steering messages keep `MessageText` and remain literal.
`MarkdownText` uses `react-markdown` with `remark-gfm` to build React elements from an AST. It covers CommonMark blocks plus GFM tables, task lists, strikethrough, and autolinks without `dangerouslySetInnerHTML`, raw-HTML parsing, or syntax highlighting. The dependency is explicit in `ui-primitives`; because that pure library is seeded by the Web shell, the parser is part of the initial browser bundle.
`MarkdownText` uses `react-markdown` with `remark-gfm` to build React elements from an AST. It covers CommonMark blocks plus GFM tables, task lists, strikethrough, and autolinks without raw-HTML parsing. Fenced code routes through the shared `CodeBlock`, which highlights registered grammars with the client's shiki singleton (`--shiki-*` tokens) and falls back to plain monospace otherwise. While a turn streams, fences stay on the plain arm so growing fences are not retokenized every chunk.
Visual spacing, tables, links, blockquotes, inline code, and code-block chrome follow deepsuite `@deepseek/md` (`markdown.css` / `code-block.css`) and the same `--dsw-alias-markdown-*`, `--dsw-font-markdown-*`, `--dsw-alias-border-l*`, and `--dsw-alias-label-*` tokens. Links use `--dsw-alias-state-business-primary` (deepsuite's sheet uses `--dsw-alias-brand-text`, which is blue only under newDesign; design-platform keeps brand-text near-black and is not retuned here). `CodeBlock` ships a language banner and a copy control (`复制` / `复制成功`). Citation pills, KaTeX, heading anchors, the thinking-small markdown variant, and custom □/☑ task markers are out of scope until matching product DOM exists; GFM task lists keep native checkboxes.
The dependency is explicit in `ui-primitives`; because that pure library is seeded by the Web shell, the parser and highlighter are part of the initial browser bundle.
## Untrusted output policy
Assistant-authored destinations are restricted to absolute HTTP, HTTPS, and mailto URLs. HTTP(S) links open in a new tab with `rel="noopener noreferrer"`; relative destinations and other protocols render as non-navigable text. Markdown images render only their alt text, so model output cannot initiate a remote image request. Raw HTML remains inert source text because no HTML parser enters the pipeline.
Assistant-authored destinations are restricted to absolute HTTP, HTTPS, and mailto URLs. HTTP(S) links open in a new tab with `rel="noopener noreferrer"`; relative destinations and other protocols render as non-navigable text. Markdown images render only their alt text, so model output cannot initiate a remote image request. Raw HTML remains inert source text because no HTML parser enters the pipeline. Shiki output is a static span tree generated from the fence text (no scripts or user HTML).
The renderer uses existing `--dsw-*` typography and color tokens. Fenced code and GFM tables own horizontal overflow so long content cannot widen the conversation column.
Fenced code and GFM tables own horizontal overflow so long content cannot widen the conversation column.
## Alternatives considered
@@ -30,6 +34,8 @@ The renderer uses existing `--dsw-*` typography and color tokens. Fenced code an
**Enable raw HTML or remote images with sanitization.** Neither capability has a current product need, while both enlarge the executable or network privacy boundary. They remain disabled rather than adding sanitizer and image-policy dependencies.
**Port deepsuite Prism `highlight.css` and the mdast pipeline.** Appearance parity is owned by CSS Modules and shared `--dsw-*` tokens; highlighting stays on the existing shiki allowlist so the client does not take a second highlighter or Prism class contract.
## Consequences
Assistant replies render semantic Markdown consistently during streaming and replay, while tool cards, reasoning rows, interactions, user bubbles, and the host protocol remain unchanged. Streaming reparses the current text after each accumulated update; incomplete Markdown can temporarily change structure, but the isolated tail bounds React invalidation and the final event does not switch renderers. The initial Web shell grows by the Markdown parser and GFM runtime, and future extensions such as syntax highlighting or remote media require a separate bundle and security decision.
Assistant replies render semantic Markdown consistently during streaming and replay, while tool cards, reasoning rows, interactions, user bubbles, and the host protocol remain unchanged. Streaming reparses the current text after each accumulated update; incomplete Markdown can temporarily change structure, but the isolated tail bounds React invalidation and the final event does not switch renderers. Code fences share one chrome and copy path with tool and details surfaces. The initial Web shell includes the Markdown parser, GFM runtime, and shiki allowlist; cite/math/anchor/thinking-small surfaces remain deferred.
@@ -12,13 +12,17 @@ Web 对话通过会话事件、历史回放与流式累积保留 assistant Markd
`@deepseek-ai/dsh-client-ui-primitives` 导出 `MarkdownText`,用作不受信任的 assistant 文本渲染器;`ui-conversation` 仅为 assistant `text` 块选择该渲染器。已完成的历史消息、流式输出尾部与被中断的部分输出已经共用 `AssistantMarkdown`,因此无需更改事件或快照,它们便会采用同一渲染器。用户消息与 steering 消息继续使用 `MessageText`,并保持按字面渲染。
`MarkdownText` 使用 `react-markdown``remark-gfm`,从 AST 构建 React 元素。它支持 CommonMark 块,以及 GFM 表格、任务列表、删除线与自动链接,但不使用 `dangerouslySetInnerHTML`,不解析原始 HTML,也不进行语法高亮。`ui-primitives` 显式声明该依赖;由于这一纯库由 Web shell 预置,解析器会成为初始浏览器 bundle 的一部分
`MarkdownText` 使用 `react-markdown``remark-gfm`,从 AST 构建 React 元素。它覆盖 CommonMark 块,以及 GFM 表格、任务列表、删除线与自动链接,且不解析原始 HTML。围栏代码经共享的 `CodeBlock` 路由;该组件用客户端的 shiki 单例(`--shiki-*` token)高亮已注册语法,否则回退为纯等宽文本。轮次流式输出期间,围栏停留在纯文本分支,以免每收到一个分片就对增长中的围栏重新分词
视觉间距、表格、链接、引用块、行内代码与代码块外框遵循 deepsuite `@deepseek/md``markdown.css` / `code-block.css`),并使用同一套 `--dsw-alias-markdown-*``--dsw-font-markdown-*``--dsw-alias-border-l*``--dsw-alias-label-*` token。链接使用 `--dsw-alias-state-business-primary`deepsuite 的样式表使用 `--dsw-alias-brand-text`,仅在 newDesign 下为蓝色;design-platform 将 brand-text 保持为近黑色,此处不做重新调色)。`CodeBlock` 提供语言横幅与复制控件(`复制` / `复制成功`)。引用胶囊、KaTeX、标题锚点、thinking-small markdown 变体,以及自定义 □/☑ 任务标记均不在范围内,直至存在匹配的产品 DOM;GFM 任务列表继续使用原生复选框。
该依赖在 `ui-primitives` 中显式声明;由于这一纯库由 Web shell 预置,解析器与高亮器会成为初始浏览器 bundle 的一部分。
## 不受信任输出策略
assistant 生成的目标地址仅限绝对 HTTP、HTTPS 与 mailto URL。HTTP(S) 链接会在新标签页中打开,并带有 `rel="noopener noreferrer"`;相对目标地址与其他协议会渲染为不可导航的文本。Markdown 图片仅渲染替代文本,因此模型输出无法发起远程图片请求。由于管线中未引入 HTML 解析器,原始 HTML 仍是不会生效的源文本。
assistant 生成的目标地址仅限绝对 HTTP、HTTPS 与 mailto URL。HTTP(S) 链接会在新标签页中打开,并带有 `rel="noopener noreferrer"`;相对目标地址与其他协议会渲染为不可导航的文本。Markdown 图片仅渲染替代文本,因此模型输出无法发起远程图片请求。由于管线中未引入 HTML 解析器,原始 HTML 仍是不会生效的源文本。Shiki 输出是由围栏文本生成的静态 span 树(不含脚本或用户 HTML)。
渲染器使用现有的 `--dsw-*` 排版与颜色 token。围栏代码与 GFM 表格各自处理横向溢出,因此较长内容无法撑宽对话栏。
围栏代码与 GFM 表格各自处理横向溢出,因此较长内容无法撑宽对话栏。
## 考虑过的替代方案
@@ -30,6 +34,8 @@ assistant 生成的目标地址仅限绝对 HTTP、HTTPS 与 mailto URL。HTTP(S
**通过净化启用原始 HTML 或远程图片。**当前产品并不需要这两项功能,但二者都会扩大可执行行为或网络隐私边界。因此它们保持禁用,无需增加净化器与图片策略依赖。
**移植 deepsuite 的 Prism `highlight.css` 与 mdast 管线。**外观一致性由 CSS Modules 与共享的 `--dsw-*` token 负责;高亮仍走现有的 shiki 允许列表,使客户端不必引入第二套高亮器或 Prism class 契约。
## 后果
assistant 回复在流式输出与回放期间都会一致地渲染为语义化 Markdown,而工具卡片、推理行、交互、用户气泡和宿主协议保持不变。每次累积更新后,流式输出都会重新解析当前文本;未完成的 Markdown 可能暂时改变结构,但独立的尾部会限定 React 失效范围,最终事件也不会切换渲染器。初始 Web shell 的体积会因加入 Markdown 解析器GFM 运行时而增大;语法高亮或远程媒体等后续扩展需要另行作出 bundle 与安全决策
assistant 回复在流式输出与回放期间都会一致地渲染为语义化 Markdown,而工具卡片、推理行、交互、用户气泡和宿主协议保持不变。每次累积更新后,流式输出都会重新解析当前文本;未完成的 Markdown 可能暂时改变结构,但独立的尾部会限定 React 失效范围,最终事件也不会切换渲染器。代码围栏与工具及详情表层共用同一外框与复制路径。初始 Web shell 包含 Markdown 解析器GFM 运行时与 shiki 允许列表;cite/math/anchor/thinking-small 表层仍暂缓
@@ -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 .agents/notes/implemented/feature/2026-07-23-web-todo-display.md
2026-07-23-web-todo-display.md: 5fe08cc40c1d23ff3a9b8c6d766fea6d3694c30d
2026-07-23-web-todo-display.zh.md: c121ffc27e3d0a93707c2c22b2f180023ebae5be
@@ -0,0 +1,36 @@
# Agent Note: Web todo display — snapshot side-effect channel + two render surfaces
Status: implemented
English | [中文](2026-07-23-web-todo-display.zh.md)
## Problem
`todo_write` appends `todo/write` whole-list snapshots to the session log; the TUI renders a persistent plan panel (the automation-only ACP bridge deliberately omits todo presentation). The web client dropped the event entirely: the host mux stream already forwards every session event, but `todo/write` is not a surface type (it never folds into `ConversationSnapshot.nodes`), and no side-effect branch accumulated it — the browser had no consumption point and no display surface.
## Decision
Consume `todo/write` as a Session side effect, not a surface node, and render it on two surfaces matching the split the TUI already draws.
### Side-effect channel, converging with window replay
`applyEventSideEffects` gains a `todo/write` case (whole list, last write wins). Unlike partial/openCalls, `rebuildDerivedFromWindow` deliberately does NOT reset it: the value is session-level — taken from the tail history page's full-log projection — and an arbitrary window may not contain the latest write, so an older-page prepend keeps it and only an in-window or live write overwrites it. Every `installWindow` caller is a tail request (`doOpen`, its gap re-pull, `repairGap`; `loadOlder` prepends without it), which the host answers with the projection or omits it only when the full log holds no `todo/write` — so an absent field is the authoritative empty list and is assigned as such. That distinction matters on rollback: a live write whose host crashed before persisting leaves the log empty, and preserving the prior value instead would strand the rolled-back plan on screen indefinitely. `ConversationSnapshot.todos` is the read surface. This follows the event's own contract ("log-only UI state; never derived history"): surfacing each write as a conversation node would render superseded lists as if they were still standing.
### TodoPanel: the durable list as a persistent strip
The panel mounts through the `conversation.input.dock` slot (a plain registrant plugin, `todoDockEntry`, the QueueDock posture: `inject: ['slots', 'conversation']` as the load-order seam, `order: -1` above the queue rows), hidden while empty, collapsible to a header of title + `"<done>/<total> tasks · <n> in progress"` (no in-progress content hint when collapsed). Status glyphs are the figma todo set (green check ring / blue fading ring / dashed pending ring) on a tip-surface card (`--dsw-specific-tip`, 14px radius, `width: calc(100% - 88px)` / `max-width: 776px` centered; InputBar top pad 6px is the gap to the composer card). It reads `snapshot.todos` via the standard-kit `useSession` hook the dock entry receives — no store, no service, no ctx. The inner component stays props-complete and framework-free; the dock adapter is a one-line wrapper.
### TodoRow: the per-call row through the keyed toolview slot
The dedicated `todo_write` chat row is a plain registrant plugin (`todoToolview`, mounted from `apply`) that registers into the keyed `conversation.chat.toolview` slot via `ctx.slots.register` — the same seam and load-order posture as the bash sample (`inject: ['slots', 'conversation']`), but a product registration. The summary derives from call args (`N/M done · active item`); unparseable args fall back to the generic row summary; clicking opens the details column with the raw args. No `ToolEventView` is added for todo — presentation is client-owned, and the durable list renders from the session event, not the tool card.
## Alternatives considered
- **Fold todo writes into `nodes` as surface entries** — replayed windows would render every superseded list; the event is deliberately not a surface type.
- **Hardcoding the panel inside `ConversationRoot`** — the original landing spot before the input-dock slot existed; the dock is the architecture's home for always-on strips above the composer, and a hardcode bypasses the slot registry's disposal and ordering.
- **Details column for the panel** — the details slot is single-occupant and selection-driven, a different lifetime than an always-on strip.
- **Host-computed view (a todo `ToolEventView`)** — presentation belongs to the client; the wire already carries the whole snapshot in the event payload.
## Consequences
Replay correctness is owned by one code path: any future change to window rebuild keeps todos consistent for free, and the fixture (fx-alpha turn 65) plus the assembled keyless snapshot (`apps/web/tests/todo-display.snapshot.ts`) pin the full chain (row summary and state, dock panel content, collapse round-trip) over the built client graph. `todos` is a required `ConversationSnapshot` field, so scripted fakes in specs must carry it. The TUI panel is untouched (the automation-only ACP bridge deliberately omits todo presentation); the web surfaces render the same event, adding one wire field and no new event type. That field is how cold-load reconstruction stays host-backed: the tail history page carries `todos` — the full-log latest `todo/write`, computed independently of the page window (the same backscan posture the view pairing uses) — so a reopened session restores the plan even when the last write precedes the window; that value survives an older-page prepend, is overwritten by any later write, and resets to empty when a tail response carries no projection.
@@ -0,0 +1,36 @@
# Agent Note: Web todo 展示——快照副作用通道 + 两个渲染面
Status: implemented
[English](2026-07-23-web-todo-display.md) | 中文
## Problem
`todo_write``todo/write` 的整份列表快照追加进会话日志;TUI 渲染一块常驻的 plan 面板(自动化专用的 ACP 桥接刻意不做 todo 呈现)。Web 客户端把这个事件整个丢弃了:host mux 流本已转发每一个会话事件,但 `todo/write` 不是 surface 类型(它从不 fold 进 `ConversationSnapshot.nodes`),也没有任何副作用分支累积它——浏览器既无消费点,也无展示面。
## Decision
`todo/write` 当作 Session 副作用消费,而非 surface 节点,并在两个面上渲染它,这两个面正对应 TUI 已经绘制的那套划分。
### 副作用通道,与窗口回放收敛
`applyEventSideEffects` 新增一个 `todo/write` 分支(整份列表,后写覆盖先写)。与 partial/openCalls 不同,`rebuildDerivedFromWindow` 刻意不重置它:该值是会话级的——取自尾页 history 携带的全量 log 投影——而任意窗口未必包含最近一次写入,因此往前翻页保留它,只有窗口内或实时的写入才会覆盖。`installWindow` 的每个调用方都是尾页请求(`doOpen`、其补洞重拉、`repairGap``loadOlder` 只往前拼接、不走它),而 host 对尾页请求要么带上投影、要么仅在全量 log 没有任何 `todo/write` 时省略——因此字段缺失就是权威的空列表,直接照此赋值。这个区分在回滚场景上要紧:实时写入若在 host 持久化前崩溃,log 里就是空的,此时保留旧值会让已回滚的计划永远留在屏幕上。`ConversationSnapshot.todos` 是读取面。这遵循事件自身的契约(「仅日志 UI 状态,绝非派生历史」):把每次写入作为对话节点呈现,会让已被取代的列表看起来仍然有效。
### TodoPanel:长驻列表作为一条常驻横条
面板经 `conversation.input.dock` slot 挂载(普通注册者插件 `todoDockEntry`QueueDock 同款姿势:`inject: ['slots', 'conversation']` 载序 seam`order: -1` 排在队列条上方),空列表时隐藏,可折叠为标题加 `"<已完成>/<总数> tasks · <n> in progress"` 的表头(折叠态不再附带进行中条目正文)。状态图标为 figma todo 套件(绿色勾选环/蓝色渐隐环/虚线未开始环),卡片使用 tip 表面(`--dsw-specific-tip`、14px 圆角、`width: calc(100% - 88px)``max-width: 776px` 居中;InputBar 顶部 6px 内边距是到输入卡的间距)。它经 dock entry 收到的标准件 `useSession` hook 读取 `snapshot.todos`——无 store、无 service、无 ctx。内部组件保持 props 完备且框架无关;dock 适配件只是一行包装。
### TodoRow:经 keyed toolview slot 的逐调用行
专用的 `todo_write` 对话行是一个普通注册者插件(`todoToolview`,由 `apply` 挂载),经 `ctx.slots.register` 注册进 keyed 的 `conversation.chat.toolview` slot——与 bash 样例同一接缝、同一载序姿态(`inject: ['slots', 'conversation']`),但属产品级注册。摘要由调用 args 推导(`N/M done · active item`);无法解析的 args 回退到通用行摘要;点击会以原始 args 打开 details 列。todo 不新增任何 `ToolEventView`——呈现归客户端所有,常驻列表从会话事件渲染,而非工具卡。
## Alternatives considered
- **把 todo 写入作为 surface 条目折叠进 `nodes`**——回放的窗口会渲染每一份已被取代的列表;该事件被刻意设计成非 surface 类型。
- **面板硬编码进 `ConversationRoot`**——input-dock slot 出现之前的原始落点;dock 是本架构给"composer 上方常开横条"安排的家,硬编码绕开了 slot 注册表的 disposal 与定序。
- **面板放进 details 列**——details slot 单占用且由选中驱动,生命周期不同于一条常开横条。
- **host 计算的视图(一个 todo `ToolEventView`)**——呈现属于客户端;协议已在事件载荷里携带整份快照。
## Consequences
回放正确性由一条代码路径掌管:未来对窗口重建的任何改动都免费保持 todos 一致;fx-alpha 第 65 轮的 fixture(测试前置数据)加 assembled keyless snapshot`apps/web/tests/todo-display.snapshot.ts`)在构建产物客户端全图上钉住整条链(行摘要与状态、dock 面板内容、折叠往返)。`todos``ConversationSnapshot` 的必填字段,所以 spec 里脚本化的 fake 必须带上它。TUI 面板未受改动(自动化专用的 ACP 桥接刻意不做 todo 呈现);Web 各面渲染同一个事件,只新增一个协议字段,不新增事件类型。冷加载重建正是靠这个字段由 host 兜底:history 尾页附带 `todos`——全量 log 上最新一次 `todo/write` 的投影,独立于分页窗口计算(与 view 配对同一种 backscan 姿势)——因此重开会话时即使最后一次写入落在窗口之前,计划也照常恢复;该值跨往前翻页保留,之后的任何写入照常覆盖,而尾页响应不带投影时复位为空。
@@ -1,6 +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
2026-07-25-workspace-ui-product-flow.md: a02087235a36f2c257de407facf2dc02ed072f3b
2026-07-25-workspace-ui-product-flow.zh.md: 8ccbf5b98401bef9c3fd40e948d35ec5f0818202
# pnpm run verify-translation-pairing --write .agents/notes/implemented/feature/2026-07-25-workspace-ui-product-flow.md
2026-07-25-workspace-ui-product-flow.md: b8e1ec1efe19127cad8a12405dddeec38a4ff91e
2026-07-25-workspace-ui-product-flow.zh.md: b80b75a80671e9aa2ab59ff72c44c18a8ec5c16e
@@ -21,10 +21,11 @@ The Host provides the following GUI wiring on the Workspace entity:
| `workspace.list` | Returns persistent Workspaces in order and filters out Session ids that fail header validation |
| `workspace.create({ name })` | Creates a directory and Workspace at `workspaceRoot/name`; fails on a display-name conflict |
| `workspace.create({ path })` | Adopts an existing directory and does not create an arbitrary path |
| `workspace.delete({ workspaceId })` | Removes the Workspace registration while retaining its directory and session logs; its Sessions become Ungrouped |
| `session.create({ workspaceId, sessionId? })` | Resolves cwd from the Workspace, idempotently creates a Session with an optional preallocated id, and attaches it |
| `session.create({ cwd })` | Remains available to non-Workspace callers and creates an Ungrouped Session |
`workspaceRoot` is an independent Host setting that falls back to the Host cwd when unset; it is unrelated to `storageRoot`, which stores Workspace domain data. The Host stream pushes Workspace and Session deltas, and the Client refreshes the `workspace.list` and `session.list` baselines separately after reconnecting.
`workspaceRoot` is an independent Host setting that falls back to the Host cwd when unset; it is unrelated to `storageRoot`, which stores Workspace domain data. The Host stream pushes Workspace and Session deltas, including `host/workspace-removed`, and the Client refreshes the `workspace.list` and `session.list` baselines separately after reconnecting. Registration-deletion ownership and safety are defined in the [Workspace registration deletion Agent Note](2026-07-27-workspace-registration-deletion.md).
A Workspace's `sessionIds` is an ordered candidate index. A membership projection requires both that an id appear in the index and that the corresponding canonicalized `SessionHeader.cwd` equal the Workspace path; SessionHeader does not gain a `workspaceId`. A Session whose cwd matches but whose id is absent from the index remains Ungrouped, while an indexed id is filtered out if its header is missing, its cwd is invalid, or its cwd does not match. Two Workspace indexes claiming the same Session is corrupt state and fails loudly.
@@ -51,7 +52,7 @@ When no Workspace exists, the page creates a frontend Workspace object named `wo
Top-level New Session, the plus button on a Workspace row, and the Workspace picker all invoke the same New Session action. An explicit Workspace id becomes the target directly; when none is specified, the action uses the most recent Workspace, or the Workspace Intent if no real Workspace exists. The Workspace picker's Use an existing folder and Create a new workspace actions immediately create a real Workspace when the user confirms, then retarget the frontend Session to it; an explicitly created empty Workspace remains even if the user sends no message.
Create a new workspace temporarily uses the same input as both the directory name and display name. The UI prevents duplicate confirmation based on current Workspace titles, while the Host continues to reject same-name requests that bypass the UI or race concurrently. Rename, Delete, moving across Workspaces, drag-and-drop ordering, manual adoption from Ungrouped, and separate display-name and directory-name inputs are outside this iteration's scope.
Create a new workspace temporarily uses the same input as both the directory name and display name. The UI prevents duplicate confirmation based on current Workspace titles, while the Host continues to reject same-name requests that bypass the UI or race concurrently. Moving Sessions across Workspaces, manual adoption from Ungrouped, and separate display-name and directory-name inputs remain outside this flow.
### First send and recovery
@@ -75,6 +76,8 @@ A frontend Session Intent appears as a “New session” row and temporarily cou
Real Sessions that cannot be assigned to any Workspace appear under Ungrouped. Host `session-added` and `workspace-changed` events may arrive in either order; list merging does not depend on frame order.
Deleting a Workspace registration removes its group without deleting or closing any Session. Its accounted Sessions immediately join Ungrouped, including the current Session; a reload reconstructs the same result from the independent Workspace and Session baselines.
### React and slot boundaries
React components only consume `useSessions`, `useWorkspaces`, and session-scoped hooks; they do not own entity lifecycles. The Zustand store retains only layout, the current view, composer text for ordinary real Sessions, and other purely presentational state. Session and Workspace Intents, materialization phases, errors, and retained prompts reside in the React-free runtime object layer.
@@ -106,6 +109,7 @@ The Sidebar and conversation empty hero receive standardized actions through slo
- The initial default target is determined exactly once after both baselines are ready; Workspace groups are not reordered as a whole by hydration or Session activity, and an active Session moves only itself to the front.
- A frontend Session under a real Workspace temporarily counts toward the sidebar total, while a Workspace Intent remains hidden; neither publication nor refresh leaves duplicate rows or counts.
- Both the UI and Host reject duplicate Workspace names; cwd-only Sessions, Sessions with invalid historical cwd values, and unattached Sessions remain Ungrouped.
- Confirmed Workspace deletion removes only the registration, retains the current Session, directory, files, and session log, and survives reload; package tests pin unary/frame/baseline races and failure rollback.
- Keyless runnable snapshots cover the zero state, explicit creation, and the first send; package-level tests cover bootstrap, membership validation, ordering, idempotency, failure recovery, and arbitrary frame order.
## Consequences
@@ -21,10 +21,11 @@ Host 在 Workspace entity 上提供以下 GUI 接线:
| `workspace.list` | 返回持久有序的 Workspace,并过滤未通过 header 校验的 Session id |
| `workspace.create({ name })` | 在 `workspaceRoot/name` 创建目录和 Workspace;显示名冲突时失败 |
| `workspace.create({ path })` | 收编已经存在的目录,不为任意路径创建目录 |
| `workspace.delete({ workspaceId })` | 移除 Workspace 注册记录,同时保留目录和会话日志;相关 Session 进入 Ungrouped |
| `session.create({ workspaceId, sessionId? })` | 从 Workspace 解析 cwd,以可选预分配 id 幂等创建 Session 并 attach |
| `session.create({ cwd })` | 保留给非 Workspace 调用方,创建 Ungrouped Session |
`workspaceRoot` 是独立 Host 配置,未配置时回退到 Host cwd;它与保存 Workspace domain 数据的 `storageRoot` 无关。Host stream 推送 Workspace 与 Session 增量,Client 重连后分别刷新 `workspace.list``session.list` 基线。
`workspaceRoot` 是独立 Host 配置,未配置时回退到 Host cwd;它与保存 Workspace domain 数据的 `storageRoot` 无关。Host stream 推送 Workspace 与 Session 增量,包括 `host/workspace-removed`Client 重连后分别刷新 `workspace.list``session.list` 基线。删除注册记录的所有权与安全边界由 [Workspace 注册记录删除 Agent Note](2026-07-27-workspace-registration-deletion.md)定义。
Workspace 的 `sessionIds` 是有序候选索引。成员投影同时要求 id 位于索引且对应 `SessionHeader.cwd` canonical 后等于 Workspace pathSessionHeader 不增加 `workspaceId`。cwd 匹配但未入索引的 Session 保持 Ungrouped,索引命中但 header 缺失、cwd 无效或 cwd 不匹配的 id 被过滤。同一 Session 被两个 Workspace 索引占用属于损坏状态并 fail loud。
@@ -51,7 +52,7 @@ Session 自己持有首条输入并驱动一条内部流水线:必要时以预
顶部 New Session、Workspace 行内加号和 Workspace picker 最终都调用同一 New Session 动作:显式 Workspace id 直接成为目标,未指定时使用最近 Workspace,没有真实 Workspace 时使用 Workspace Intent。Workspace picker 的 Use an existing folder 与 Create a new workspace 会在用户确认时立即创建真实 Workspace,再把前端 Session 定位到该 Workspace;即使用户不发送消息,显式创建的空 Workspace 也保留。
Create a new workspace 暂时用同一个输入作为目录名和显示名。UI 根据当前 Workspace title 禁止重复确认,Host 继续拒绝绕过 UI 或并发产生的同名请求。Rename、Delete、跨 Workspace 移动、拖拽排序、Ungrouped 手动收编显示名/目录名双输入不在本期范围。
Create a new workspace 暂时用同一个输入作为目录名和显示名。UI 根据当前 Workspace title 禁止重复确认,Host 继续拒绝绕过 UI 或并发产生的同名请求。跨 Workspace 移动 Session、从 Ungrouped 手动收编以及分别输入显示名目录名仍不在此动线范围
### 首次发送与恢复
@@ -75,6 +76,8 @@ Workspace 组严格使用 Host 返回的持久顺序。Bootstrap 一次性确定
无法归入任何 Workspace 的真实 Session 进入 Ungrouped。Host `session-added``workspace-changed` 可以任意顺序到达,列表合并不依赖 frame 顺序。
删除 Workspace 注册记录会移除其分组,但不会删除或关闭任何 Session。已记账的 Session(包括当前 Session)会立即进入 Ungrouped;刷新后,独立的 Workspace 与 Session 基线会重建出相同结果。
### React 与 slot 边界
React 组件只消费 `useSessions``useWorkspaces` 与 session-scoped hooks,不拥有实体生命周期。Zustand store 只保留布局、当前 view、普通真实 Session 的 composer 文本和其他纯呈现状态;Session/Workspace Intent、materialize phase、错误和 retained prompt 位于 React-free runtime 对象层。
@@ -106,6 +109,7 @@ Sidebar 与 conversation empty hero 通过 slot 获得标准化动作:`startSe
- 初始默认目标只在两份基线 ready 后确定一次;Workspace 组不因 hydration 或 Session 活跃整体重排,单个活跃 Session 只前移自身。
- 真实 Workspace 下的前端 Session 临时计入 sidebar 数量,Workspace Intent 保持隐藏,发布与刷新都不会留下重复行或重复计数。
- UI 与 Host 两层拒绝同名 Workspacecwd-only Session、无效历史 cwd 和未 attach Session 保持 Ungrouped。
- 经确认的 Workspace 删除只移除注册记录,保留当前 Session、目录、文件和会话日志,并在刷新后保持该状态;包级测试固定一元响应/帧/基线竞态和失败回滚行为。
- keyless runnable snapshot 覆盖零态、显式创建和首次发送;包级测试覆盖 bootstrap、成员校验、排序、幂等、失败恢复及任意 frame 顺序。
## Consequences
@@ -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
2026-07-27-user-message-icon-actions.md: 869e7a2518a3ec927c0689a10816a410dc5f0862
2026-07-27-user-message-icon-actions.zh.md: 353e5ac765bb2fbab9932449cf2247768a1f412f
@@ -0,0 +1,27 @@
# Agent Note: User-message IconActions under the bubble
Status: implemented
English | [中文](2026-07-27-user-message-icon-actions.zh.md)
## Problem
The chat user bubble had no under-bubble action chrome. The Harness design (figma `User_Bubble/message_container`) shows three IconActions — copy, branch in new chat, and edit — right-aligned under the bubble, matching the product action-bar pattern used elsewhere.
## Decision
`MessageItem` owns the actions for `kind: 'user'` only. Layout is a column (`align-items: flex-end`, 6px gap): bubble, then a 28px action row with 10px gaps and 28px circular icon buttons (`IconCopyOutline16`, `IconBranchOutline16`, `IconEditOutline16`). Tooltips carry Chinese labels. Actions stay visible by default; `@media (hover: hover)` hides them until the row is hovered or focus-within, so touch / `hover: none` devices keep discoverable controls (opacity alone still hit-tests).
Copy writes the bubble's joined text blocks to the clipboard (`navigator.clipboard.writeText`, with an `execCommand` fallback). Branch and edit are present chrome with no handlers yet — they reserve the design seats without inventing session-fork or edit-resubmit behavior.
Steering bubbles keep the badge-only form and do not show these actions.
## Alternatives considered
**Wire branch/edit to real session fork and draft-edit now.** Rejected for this change: those product flows are not specified; shipping inert buttons matches the requested scope and avoids half-built mutation paths.
**Always hide with `opacity: 0` outside hover.** Rejected for touch: without `@media (hover: hover)`, idle opacity still hit-tests while looking empty. Hover-capable pointers keep the fade; others keep the actions visible.
## Consequences
User messages expose copy immediately; branch/edit remain clickable stubs until a later decision owns their behavior. Tests pin the three buttons, copy payload, and steering exclusion.
@@ -0,0 +1,27 @@
# Agent Note: 用户消息气泡下方的 IconActions
Status: implemented
[English](2026-07-27-user-message-icon-actions.md) | 中文
## 问题
聊天用户气泡下方没有操作栏。Harness 设计稿(figma `User_Bubble/message_container`)在气泡下方右对齐展示三个 IconActions——复制、在新对话中分支、编辑——与产品其他位置使用的操作栏模式一致。
## 决策
仅当 `kind: 'user'` 时,`MessageItem` 拥有这些操作。布局为纵向列(`align-items: flex-end`,间距 6px):先是气泡,再是高度 28px 的操作行;行内间距 10px,圆形图标按钮尺寸为 28px(`IconCopyOutline16``IconBranchOutline16``IconEditOutline16`)。Tooltip 承载中文标签。操作默认保持可见;`@media (hover: hover)` 下在悬停或 focus-within 前隐藏,以便触摸/`hover: none` 设备仍能发现控件(仅靠 opacity 仍会命中测试)。
复制将气泡内拼接后的文本块写入剪贴板(`navigator.clipboard.writeText`,并以 `execCommand` 作为回退)。分支与编辑目前仅有外观、尚无处理函数——它们预留设计席位,但不发明会话 fork 或编辑重提交流程。
steering(中途引导)气泡保持仅徽章形态,不展示这些操作。
## 考虑过的替代方案
**现在就把分支/编辑接到真实的会话 fork 与草稿编辑。**本次变更不予采纳:这些产品流程尚未定稿;交付无行为按钮符合请求范围,也避免半成品的变更路径。
**在悬停外始终以 `opacity: 0` 隐藏。**因触摸不予采纳:若无 `@media (hover: hover)`,空闲 opacity 看起来空白但仍会命中测试。具备悬停能力的指针保留淡入;其他设备保持操作可见。
## 后果
用户消息立即可用复制;分支/编辑仍为可点击的占位,直至后续决策明确其行为。测试钉死三个按钮、复制载荷,以及对 steering 的排除。
@@ -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 .agents/notes/implemented/feature/2026-07-27-workspace-registration-deletion.md
2026-07-27-workspace-registration-deletion.md: 8168b0832ca39e6023f6981815ffe758b5695361
2026-07-27-workspace-registration-deletion.zh.md: b0df6982ac81426a5b0ce2f0e2b0e744212e3f5b
@@ -0,0 +1,59 @@
# Agent Note: Workspace Registration Deletion
Status: implemented
English | [中文](2026-07-27-workspace-registration-deletion.zh.md)
## Problem
A Workspace registers an existing code directory so the GUI can name it and order its Sessions. That record has no reliable provenance proving that Harness created or owns the directory, and the Session log is an independent persistence object. Treating the row's Delete action as recursive source deletion or Session deletion would destroy data outside the record's ownership boundary.
The existing visual-only menu row also left deletion semantics undefined across durable order, the Workspace table, Host streams, concurrent browser tabs, reconnect baselines, and a list request racing the mutation.
## Decision
`ctx.workspace.delete(id)` deletes only the Workspace registration: its id leaves durable `workspaceIds`, its `workspaces` table row and entity-cache entry disappear, and its ordered `sessionIds` account disappears with that row. It never calls filesystem removal or `SessionPersistence`; the directory, every user file, every live Session, and every persisted Session log remain. Because sidebar grouping is the complement of all surviving Workspace accounts, those Sessions immediately appear under Ungrouped, including the current Session.
Unknown ids return `false` at the domain seam. `workspace.delete({ workspaceId })` maps that distinction to `workspace-not-found`; success returns `{ deleted: true }`. `workspace.list` remains the reconnect baseline.
## Durable commit and publication
Registry operations serialize create and delete. Deletion first writes the Workspace order without the id, then removes the entity from the cache, then deletes the table row. The table deletion is the notification commit point: the package invariant accepts it only after the cache stopped publishing the entity, and the Host emits `host/workspace-removed` only from that committed deletion. A table-write failure restores the cache and prior durable order; no removal frame is published.
The Host stream keeps its committed-id set through the preceding global-order write and removes the id only on the table deletion. Create rollback therefore emits no false removal, while every connected tab receives exactly the id needed to delete its projection.
Create and delete write a durable `pendingMutation` before their record/order pair can diverge. Startup completes only the named create or delete and clears the marker; it never infers crash provenance from an orphan row alone. Unmarked order/table divergence therefore retains the registry's fail-loud corruption behavior. A deletion whose table write committed but marker cleanup failed still reports success—the requested state and removal frame are already committed—and the next startup clears that marker idempotently.
## Client convergence
`WorkspaceManager` treats both `host/workspace-changed` and `host/workspace-removed` as ordered deltas replayed over an in-flight `workspace.list` response. A successful unary delete removes the row immediately instead of waiting for its own stream echo. Removal is idempotent, and a process-local tombstone rejects late changed frames or stale baseline rows for the never-reused Workspace id. A reconnect still refreshes from `workspace.list`; Session state is never pruned by a Workspace delta.
The delete confirmation remains pending until the React Workspace projection has committed the removed id, so the next create gesture cannot observe one stale list frame. During create, duplicate-name validation is suppressed while the request is pending because the committed `host/workspace-changed` frame may publish the newly created Workspace before its unary response; after failure returns the form to editing, validation uses the latest list again.
## Confirmation interaction
The existing Workspace row menu opens a shared `Modal` before deletion. The text states all three consequences: the Workspace leaves the list, the folder and session logs remain, and its Sessions appear under Ungrouped. While the request is pending, the confirm and Cancel controls are disabled, duplicate confirmation is ignored, and Escape or Close cannot dismiss the operation. Failure keeps the Modal open with the error; Cancel, Escape, and Close before submission never delete.
The menu, Modal, and buttons retain their existing structure and design tokens. Session deletion remains visual-only and outside this decision.
## Alternatives considered
**Cascade-delete Sessions.** Rejected because Workspace registration does not own Session persistence and the product requirement is to preserve histories under Ungrouped. Session deletion needs its own lifecycle, running checks, descendant semantics, and explicit UI.
**Move the folder to Trash.** Rejected because the record cannot prove directory ownership. A future destructive filesystem action must be separately named, separately confirmed, and enforce explicit safety boundaries.
**Delete the table row and repair order later.** Rejected because a crash or write failure would leave an initialized registry whose order and table disagree. The registry updates both under one serialized operation and restores the prior order on table failure.
**Delete every unreferenced row at startup.** Rejected because the same shape can come from unexplained order corruption; silently discarding it could lose Workspace metadata and Session accounting. Recovery requires the explicit pending marker written by the owning mutation.
**Refetch both lists after success.** Rejected because the committed removal frame plus immediate unary echo is sufficient, preserves the current Session object, and avoids turning a local mutation into two list requests. Reconnect baselines remain the repair path.
## Verification
Workspace package tests pin successful metadata-only deletion, same-path re-registration, unknown-id idempotence, table-failure rollback, explicit-marker restart recovery, unexplained-corruption rejection, and cache/table invariant behavior. Apiproxy and carrier tests pin the schema, handler, `workspace-not-found`, retained Session/folder, fresh-id re-registration, and committed `host/workspace-removed` frame. Client tests pin unary direct echo, duplicate removal, late changed frames, and deletion racing an in-flight baseline. Component tests pin confirmation, projection-settled closing, pending-state duplicate suppression, success-frame-before-unary ordering, failure, Cancel, Escape, and Close. The browser scenario observes every transient alert, slot error, console error, and page error while reusing a deleted title for a different directory.
The assembled keyless Web scenario registers an existing temporary project directory, accounts a persisted Session, makes that Session current, confirms deletion in Chromium, and verifies the Workspace group disappears while Ungrouped retains the current Session. It checks the user file and JSONL log before and after deletion and repeats the UI, directory, and log assertions after reload.
## Consequences
Deleting a Workspace is intentionally reversible by registering the same directory again with a fresh id, although its prior manual Session order is gone; re-registration does not automatically re-adopt existing Sessions after bootstrap. The operation gives up a one-click cleanup of Session histories or source directories in exchange for a deletion boundary that matches what the record actually owns.
@@ -0,0 +1,59 @@
# Agent Noteagent 决策记录):删除 Workspace 注册记录
Status: implemented
[English](2026-07-27-workspace-registration-deletion.md) | 中文
## Problem
Workspace 注册已有代码目录,使 GUI 能够为目录命名,并对其会话排序。该记录没有可靠的来源信息来证明 Harness 创建或拥有该目录,会话日志也是独立的持久化对象。若将行内 Delete 操作视为递归删除源码或删除会话,就会破坏该记录所有权边界之外的数据。
现有菜单行仅提供视觉效果,因此持久顺序、Workspace 表、Host 流、并发浏览器标签页、重连基线,以及列表请求与变更并发时的删除语义也没有定义。
## Decision
`ctx.workspace.delete(id)` 只删除 Workspace 注册记录:其 id 会从持久 `workspaceIds` 中移除,`workspaces` 表行与实体缓存条目会消失,有序 `sessionIds` 账本也随该行一并消失。它绝不调用文件系统移除操作或 `SessionPersistence`;目录、所有用户文件、所有实时会话和所有持久化会话日志都会保留。侧边栏分组是所有存续 Workspace 账本的补集,因此这些会话(包括当前会话)会立即出现在 Ungrouped 下。
未知 id 在 domain seam 返回 `false``workspace.delete({ workspaceId })` 将该结果映射为 `workspace-not-found`;成功时返回 `{ deleted: true }``workspace.list` 仍是重连基线。
## 持久提交与发布
注册表操作会串行执行创建与删除。删除时先写入移除该 id 后的 Workspace 顺序,再从缓存中移除实体,最后删除表行。表删除是通知提交点:只有缓存停止发布该实体后,包不变量才接受该删除;Host 也只根据这次已提交的删除发出 `host/workspace-removed`。表写入失败时,系统会恢复缓存和此前的持久顺序,且不会发布移除帧。
Host 流在前一笔全局顺序写入期间继续保留其已提交 id 集合,只在删除表行时移除该 id。因此,创建回滚不会发出错误的移除帧,而每个已连接标签页都能收到从自身投影中删除该记录所需的准确 id。
Create 与 delete 会在记录/顺序对可能分叉之前写入持久 `pendingMutation`。启动时只补全其中明确命名的 create 或 delete,并清除该标记;系统绝不会仅凭孤立表行的形状推断崩溃来源。因此,没有标记的顺序/表分叉仍会保持注册表原有的损坏直接失败语义。如果删除的表写入已经提交、但标记清理失败,操作仍会报告成功——请求状态和移除帧都已经提交——下一次启动会以幂等方式清除该标记。
## 客户端收敛
`WorkspaceManager``host/workspace-changed``host/workspace-removed` 都视为有序增量,并在进行中的 `workspace.list` 响应之上回放。成功的一元删除会立即移除行,无需等待本次操作自己的流回显。移除操作具有幂等性;由于 Workspace id 永不复用,进程本地删除标记会拒绝延迟到达的 changed 帧或陈旧基线行。重连仍从 `workspace.list` 刷新;Workspace 增量绝不会剪除会话状态。
删除确认框会保持待处理,直到 React Workspace 投影已经提交目标 id 的移除,因此下一次创建操作不会读到一帧陈旧列表。创建请求进行中会暂停重复名称校验,因为已提交的 `host/workspace-changed` 帧可能先于一元响应发布刚创建的 Workspace;如果请求失败并让表单回到可编辑状态,系统会重新使用最新列表执行校验。
## 确认交互
现有 Workspace 行菜单会在删除前打开共享 `Modal`。文案明确说明三项后果:Workspace 会从列表中移除,文件夹和会话日志会保留,相关会话会出现在 Ungrouped 下。请求待处理期间,确认与 Cancel 控件均被禁用,重复确认会被忽略,Escape 或 Close 也无法关闭此次操作。失败时 `Modal` 保持打开并显示错误;提交前使用 Cancel、Escape 或 Close 绝不会触发删除。
菜单、`Modal` 和按钮保留现有结构与设计 token。会话删除仍仅提供视觉效果,不在本决策范围内。
## Alternatives considered
**级联删除会话。** 不予采纳,因为 Workspace 注册记录不拥有会话持久化,且产品需求是将历史记录保留在 Ungrouped 下。会话删除需要自己的生命周期、运行状态检查、后代对象的处理语义和明确 UI。
**将文件夹移到废纸篓。** 不予采纳,因为该记录无法证明目录所有权。未来的破坏性文件系统操作必须使用单独名称、单独确认,并实施明确的安全边界。
**先删除表行,之后再修复顺序。** 不予采纳,因为崩溃或写入失败会使已初始化注册表的顺序与表不一致。注册表会在同一串行操作内更新二者,并在表操作失败时恢复此前顺序。
**启动时删除所有未引用表行。** 不予采纳,因为来源不明的顺序损坏也会呈现相同形状;静默丢弃可能损失 Workspace 元数据和 Session 账本。恢复必须依赖拥有该变更的操作预先写入的明确待处理标记。
**成功后重新拉取两个列表。** 不予采纳,因为已提交的移除帧与即时一元回显已足够,既能保留当前会话对象,也避免将局部变更扩大为两次列表请求。重连基线仍是修复路径。
## Verification
Workspace 包测试固定了仅删除元数据的成功路径、同路径重新注册、未知 id 的幂等行为、表操作失败回滚、明确标记的重启恢复、来源不明损坏的拒绝,以及缓存/表不变量行为。Apiproxy 与载体测试固定了 schema、处理器、`workspace-not-found`、保留会话/文件夹、使用新 id 重新注册,以及已提交的 `host/workspace-removed` 帧。客户端测试固定了一元直接回显、重复移除、延迟到达的 changed 帧,以及删除与进行中基线并发的行为。组件测试固定了确认交互、投影稳定后关闭、待处理状态下抑制重复提交、成功帧先于一元响应、失败、Cancel、Escape 与 Close。浏览器场景会在为不同目录复用已删除名称时,观测每一次瞬时 alert、slot error、console error 与 page error。
组装后的无密钥 Web 场景会注册一个已有临时项目目录,将持久化会话计入账本,把该会话设为当前会话,在 Chromium 中确认删除,并验证 Workspace 分组消失,而 Ungrouped 保留当前会话。该场景在删除前后检查用户文件和 JSONL 日志,并在刷新后重复验证 UI、目录与日志。
## Consequences
删除 Workspace 后仍可使用新 id 重新注册同一目录,因此该操作有意设计为可逆;但此前的手动会话顺序会丢失,重新注册后,系统也不会在 bootstrap 结束后自动重新收编现有会话。该操作放弃一键清理会话历史或源码目录,以换取与记录实际所有权一致的删除边界。
@@ -1,6 +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
2026-07-02-bilingual-docs-and-pairing-gate.md: bebff600ca27763c04bdecea78ceb916542f7eca
2026-07-02-bilingual-docs-and-pairing-gate.zh.md: 66c9b75b1bab47558bb63b7e97cf6d7c7610b0d5
# pnpm run verify-translation-pairing --write .agents/notes/implemented/process/2026-07-02-bilingual-docs-and-pairing-gate.md
2026-07-02-bilingual-docs-and-pairing-gate.md: 8e9d0ab8653528517346b198c97814d8d8979440
2026-07-02-bilingual-docs-and-pairing-gate.zh.md: cf37d56be0180cc742b0dabefeb1f8f3b54ba557
@@ -11,7 +11,7 @@ This repo's documentation corpus is read by people and agents inside and outside
## Decision
- **Paired sibling files with equal authority.** A documentation pair is three sibling files: English `foo.md`, Chinese `foo.zh.md`, and a consistency record `foo.i18n.yaml`. Neither language is canonical — a document may be authored and reviewed Chinese-first and translated to English afterwards, or the reverse; what binds the pair is that both sides must say the same thing, and pairs merge whole (both languages plus the record, never one alone). Policy: [docs/i18n/README.md](../../../../docs/i18n/README.md); translation rules: [docs/i18n/translation-rules.md](../../../../docs/i18n/translation-rules.md); terminology source of truth: [docs/i18n/terminology.md](../../../../docs/i18n/terminology.md).
- **A sidecar record of both blob hashes makes consistency checkable.** `foo.i18n.yaml` holds the full git blob hash of each side as of the last confirmed-consistent state. An edit to either side without re-confirming the pair is then mechanically detectable as a pure content comparison — no history lookup — and the hashes are computable for files edited in the same PR, which a commit-hash record is not. Re-recording (`verify-translation-pairing --write`) produces a reviewable yaml diff: confirming consistency is an explicit, visible act in the PR.
- **A sidecar record of both blob hashes makes consistency checkable.** `foo.i18n.yaml` holds the full git blob hash of each side as of the last confirmed-consistent state. An edit to either side without re-confirming the pair is then mechanically detectable as a pure content comparison — no history lookup — and the hashes are computable for files edited in the same PR, which a commit-hash record is not. Re-recording (`verify-translation-pairing --write <pair>`, which requires naming the confirmed pairs — bulk re-record is an explicit `--write --all`) produces a reviewable yaml diff: confirming consistency is an explicit, visible act in the PR.
- **`verify-translation-pairing` joins `doc-sync`.** The gate ([scripts/verify-translation-pairing.ts](../../../../scripts/verify-translation-pairing.ts)) enforces: every discovered, non-excluded source has a complete pair; every existing pair is complete (all three files) and consistent (both hashes match, switcher links both ways, structural signatures identical); and excluded generated, instruction, or bilingual-by-construction files stay unpaired. [scripts/translation-pairing.manifest.json](../../../../scripts/translation-pairing.manifest.json) contains only explicit exclusions, so no requirement can bypass discovery and receive a weaker check. Source-oriented code gates consume a `.zh.md` fence sequence as a derivative only when its unsuffixed sibling has the same tracked fences in the same order with byte-identical bodies; an incomplete, reordered, reclassified, or changed sequence stays independent, so the owning code gate or pairing gate reports the mismatch.
- **One corpus-wide requirement.** Every document in scope requires a complete pair from creation; the policy has no per-file rollout state, date cutoff, or README-specific class. README discovery covers every case-insensitive README basename outside vendored, dependency, and ignored build-output trees, including future top-level directories. A site-published pair uses `pairedPages()` so the root locale projects `.zh.md` and `/en/` projects `.md`; creating a counterpart alone does not publish it.
- **Pairing records are metadata, not Cordis Loader configuration.** Cordis configuration discovery accepts actual `.cordis.yml` and `.cordis.yaml` files while excluding `*.i18n.yaml`, even when the document name contains `cordis`. This preserves validation of executable Loader entries without parsing translation hashes as configuration.
@@ -41,4 +41,4 @@ Paired sibling files with locale suffixes are the dominant Chinese big-tech conv
- When the two sides disagree, no mechanical rule picks a winner — the PR review does. That is the price of equal authority, accepted deliberately: the alternative (a canonical language) forbids Chinese-first authoring.
- Generated docs (`cordis-catalog/`, `tool-catalog/`, `module-graph.md`) are excluded for now; the planned follow-up is to teach their generators to emit Chinese alongside English, at which point they leave the exclusion list.
- The exclusions-only manifest makes every current and future in-scope document mandatory through the same path. There is no explicit requirement, cutoff, or class entry that can fall outside discovery while appearing enforced.
- The recorded hashes double as the update tool (`git cat-file -p <hash>` recovers either side's last-confirmed text for a minimal diff-based update), so re-translation of whole files is never forced by the mechanism.
- The recorded hashes double as the update tool: [gen-translation-brief](2026-07-26-briefed-minimal-translation-updates.md) recovers either side's last-confirmed text from them and assembles the minimal-update briefing, so re-translation of whole files is never forced by the mechanism.
@@ -11,7 +11,7 @@ Status: implemented
## 决策
- **配对兄弟文件,两种语言同权。** 一对文档由三个兄弟文件组成:英文 `foo.md`、中文 `foo.zh.md`,以及一份一致性记录 `foo.i18n.yaml`。没有哪种语言是正典:一篇文档可以先用中文撰写和评审、之后再译成英文,反之亦可;约束配对的是:两侧必须表达相同的内容,且配对整体合并(两种语言加记录,绝不单独落一侧)。政策见 [docs/i18n/README.md](../../../../docs/i18n/README.md);翻译规则见 [docs/i18n/translation-rules.md](../../../../docs/i18n/translation-rules.md);术语真源见 [docs/i18n/terminology.md](../../../../docs/i18n/terminology.md)。
- **伴随记录保存两侧 blob hash,使一致性可检查。** `foo.i18n.yaml` 保存两侧文件在上一次确认一致时各自的完整 git blob hash。此后修改了任一侧而未重新确认配对,都能被机械检测出来(纯内容比较,无需查询历史),而且同一个 PR(Pull Request)内改动的文件也能计算出 hash,commit hash 式的记录做不到这一点。重新记录(`verify-translation-pairing --write`)会产生一份可评审的 yaml diff:确认一致在 PR 中是一个显式、可见的动作。
- **伴随记录保存两侧 blob hash,使一致性可检查。** `foo.i18n.yaml` 保存两侧文件在上一次确认一致时各自的完整 git blob hash。此后修改了任一侧而未重新确认配对,都能被机械检测出来(纯内容比较,无需查询历史),而且同一个 PR(Pull Request)内改动的文件也能计算出 hash,commit hash 式的记录做不到这一点。重新记录(`verify-translation-pairing --write <pair>`,要求点名所确认的配对;批量重新记录是显式的 `--write --all`)会产生一份可评审的 yaml diff:确认一致在 PR 中是一个显式、可见的动作。
- **`verify-translation-pairing` 加入 `doc-sync`。** 门禁([scripts/verify-translation-pairing.ts](../../../../scripts/verify-translation-pairing.ts))强制执行以下规则:每个已发现且未排除的源文档都有完整配对;每个现有配对都完整(三个文件齐全)且一致(两个 hash 匹配、切换行双向互链、结构签名一致);被排除的生成文档、指令文档或本身即双语的文档不得配对。[scripts/translation-pairing.manifest.json](../../../../scripts/translation-pairing.manifest.json) 只包含显式排除项,因此任何要求都无法绕过发现流程而接受较弱的检查。只有当 `.zh.md` 围栏序列与其无后缀兄弟文件拥有顺序相同、正文按字节一致的同一组受跟踪围栏时,面向源码的代码门禁才会将其作为派生内容消费;不完整、顺序变更、重分类或已改动的序列仍会独立受检,因此由其所属的代码门禁或配对门禁报告不匹配。
- **全语料统一要求。** 范围内的每篇文档从创建起就必须有完整配对;政策没有逐文件推进状态、日期分界或 README 专用类别。README 发现会覆盖 vendor 源码、依赖目录与被忽略的构建产物目录之外所有文件名不区分大小写匹配 README 的文件,包括今后新增的顶层目录。发布到文档站的配对使用 `pairedPages()`,由根 locale 投影 `.zh.md`,由 `/en/` 投影 `.md`;仅创建对侧文件并不会发布它。
- **配对记录是元数据,而不是 Cordis Loader 配置。** Cordis 配置发现会接受实际的 `.cordis.yml``.cordis.yaml` 文件,同时排除 `*.i18n.yaml`,即使文档名中包含 `cordis` 也不例外。这样既能继续校验可执行的 Loader 配置项,又不会把翻译 hash 当作配置来解析。
@@ -41,4 +41,4 @@ Status: implemented
- 两侧说法冲突时,没有机械规则裁决谁赢,由 PR 评审裁决。这是同权的代价,且是有意接受的:另一个选项(正典语言)会禁止中文先行撰写。
- 生成文档(`cordis-catalog/``tool-catalog/``module-graph.md`)暂被排除;计划中的后续工作是让生成器在输出英文的同时输出中文,届时将这些文件移出排除清单。
- 只含排除项的 manifest 通过同一路径,要求当前及今后纳入范围的每篇文档都必须配对。不存在显式要求、分界或类别条目可以落在发现范围之外,却看似已经强制执行。
- 记录的 hash 兼作更新工具`git cat-file -p <hash>` 能还原任一侧上次确认的文本,用于基于 diff 的最小更新,因此这套机制从不强迫整篇重译。
- 记录的 hash 兼作更新工具[gen-translation-brief](2026-07-26-briefed-minimal-translation-updates.md) 会从中还原任一侧上次确认的文本并组装最小更新简报,因此这套机制从不强迫整篇重译。
@@ -1,6 +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
2026-07-21-serial-cross-platform-ci-reference.md: 5433d2c51831ce61d06a16ee0b0ed982911f9218
2026-07-21-serial-cross-platform-ci-reference.zh.md: 041d53d13e14354c995e4b65defce94a97646b0a
# pnpm run verify-translation-pairing --write .agents/notes/implemented/process/2026-07-21-serial-cross-platform-ci-reference.md
2026-07-21-serial-cross-platform-ci-reference.md: 9ecd7906d2f28461a8a6f3f2fe485580214b39f3
2026-07-21-serial-cross-platform-ci-reference.zh.md: ed927012c5b0ba9d43444a129d10d966f5e7d923
@@ -14,17 +14,17 @@ Reviewers also need a direct answer to a simpler question: what happens when the
## Decision
[CI](../../../../.github/workflows/ci.yml) gives pull-request and master-push events complementary responsibilities. Pull requests run consolidated Linux and Windows jobs plus the Node compatibility and Python contracts on standard GitHub-hosted capacity. A push to `master` skips those jobs and runs three explicit references named `serial / linux`, `serial / macos`, and `serial / windows`. They intentionally duplicate their short checkout, runtime setup, and immutable install sequences instead of hiding the operating systems behind a matrix or reusable workflow. `workflow_dispatch` is reserved for runner benchmarks.
[CI](../../../../.github/workflows/ci.yml) gives pull-request and master-push events complementary responsibilities. Pull requests run consolidated Linux and Windows jobs plus the Node compatibility and Python contracts on standard GitHub-hosted capacity. A push to `master` skips those jobs and runs four explicit references: `serial / linux`, `serial / macos`, and `serial / windows` on standard hosted runners, plus `serial / linux (self-hosted standby)` on the in-house `vm-backup` pool — the hot-standby drill that continuously re-proves the failover target described in the [failover runbook](2026-07-26-ci-failover-runbook.md). They intentionally duplicate their short checkout, runtime setup, and immutable install sequences instead of hiding the operating systems behind a matrix or reusable workflow. `workflow_dispatch` is reserved for runner benchmarks.
Each reference job runs `pnpm run check:ci` without any shard selector. `DSH_GATE_CONCURRENCY=1` makes the top-level aggregate execute one ready gate at a time; coverage, snapshot replay, built-bin smoke, and publication validation also receive worker counts of one. The three operating-system jobs may run beside one another, but each host's repository gates are serial and complete. Linux installs bubblewrap before replaying snapshots, and Windows enables Developer Mode before installing the symlinked workspace.
Each reference job runs `pnpm run check:ci` without any shard selector. `DSH_GATE_CONCURRENCY=1` makes the top-level aggregate execute one ready gate at a time; coverage, snapshot replay, built-bin smoke, and publication validation also receive worker counts of one. The reference jobs may run beside one another, but each host's repository gates are serial and complete. Linux installs bubblewrap before replaying snapshots, and Windows enables Developer Mode before installing the symlinked workspace.
Platform ownership remains explicit inside that complete aggregate. `pty-local` supports Linux and macOS and therefore owns its unit and per-file coverage contract on POSIX rather than loading a backend that rejects `win32`; the Windows run still executes every portable package. Portable fixtures derive native paths through `node:path`, compare canonical identities with the same native realpath implementation as production, and use filenames legal on every host. ACP snapshot runs also pass both JavaScript and native realpath spellings of their generated cwd to the normalizer, which replaces aliases longest-first so Windows short and long paths cannot churn shared fixtures.
The macOS reference runs the ordinary Vitest project in forked processes. Node 24 on macOS arm64 has aborted in its CJS lexer from a worker thread; the process boundary contains that external runtime failure without removing any test from the aggregate, while Linux and Windows retain the lower-overhead thread pool. Repository-owned races are fixed at their observation boundaries: dev bundle polling stages each candidate table, graph, and watch-baseline map before publishing a rescan, and a missing bundle remains dirty until a successful content hash. PTY readiness retains a prompt candidate while polling checks foreground ownership; the ordinary silence bound covers inherited markers from interactive children. Real PTY fixtures assemble synchronization tokens at runtime so the interactive shell's input echo cannot satisfy a child-readiness wait. The live-link package-manager e2e preserves the workflow-prepared Corepack home and pnpm metadata/store caches while isolating the other managers' mutable caches, so it does not discard reusable package-manager state before the install.
Master reference jobs are diagnostic and do not participate in the pull request's required `all checks passed` result. A pull request runs only its required jobs; a master push runs only the three serial references. Performance is evaluated from completed hosted-job timestamps and reported as a measurement; it is not encoded as a `timeout-minutes` value.
Master reference jobs are diagnostic and do not participate in the pull request's required `all checks passed` result. A pull request runs only its required jobs; a master push runs only the serial references. Performance is evaluated from completed hosted-job timestamps and reported as a measurement; it is not encoded as a `timeout-minutes` value.
The portable reference uses GitHub's standard `ubuntu-latest`, `macos-latest`, and `windows-2025` labels. Required pull-request jobs use the same portable Linux and Windows capacity under the [required-CI decision](2026-07-23-portable-required-pull-request-ci.md). Higher-core hosted runners remain manual benchmarks because a correctness path must remain runnable without repository-external runner configuration.
The portable reference uses GitHub's standard `ubuntu-latest`, `macos-latest`, and `windows-2025` labels; `serial / windows` is the one remaining native-Windows job, the complete-kernel oracle behind the Wine-hosted pull-request lane ([Wine lane decision](2026-07-27-wine-windows-gates-experiment.md)). Required pull-request jobs use portable standard capacity under the [required-CI decision](2026-07-23-portable-required-pull-request-ci.md). Higher-core hosted runners remain manual benchmarks because a correctness path must remain runnable without repository-external runner configuration.
## Alternatives considered
@@ -14,17 +14,17 @@ Status: implemented
## 决策
[CI](../../../../.github/workflows/ci.yml) 为拉取请求事件与 master 推送事件赋予互补的职责。拉取请求在 GitHub 标准托管容量上运行合并后的 Linux 和 Windows 作业,以及 Node 兼容性与 Python 契约。向 `master` 推送时会跳过这些作业,改为运行个显式参考作业,名称分别为 `serial / linux``serial / macos``serial / windows`。这些作业有意分别重复简短的代码检出、运行时设置和依赖锁定的安装步骤,不用矩阵或可复用工作流把操作系统差异隐藏起来。`workflow_dispatch` 仅用于运行器基准测试。
[CI](../../../../.github/workflows/ci.yml) 为拉取请求事件与 master 推送事件赋予互补的职责。拉取请求在 GitHub 标准托管容量上运行合并后的 Linux 和 Windows 作业,以及 Node 兼容性与 Python 契约。向 `master` 推送时会跳过这些作业,改为运行个显式参考作业:在标准托管运行器上的 `serial / linux``serial / macos``serial / windows`,以及在公司自有 `vm-backup` 池上的 `serial / linux (self-hosted standby)`——后者是热备演练,持续验证[故障切换手册](2026-07-26-ci-failover-runbook.md)所描述的切换目标。这些作业有意分别重复简短的代码检出、运行时设置和依赖锁定的安装步骤,不用矩阵或可复用工作流把操作系统差异隐藏起来。`workflow_dispatch` 仅用于运行器基准测试。
每个参考作业均在不设置任何分片选择器的情况下运行 `pnpm run check:ci``DSH_GATE_CONCURRENCY=1` 使顶层聚合每次只执行一个已经就绪的门禁;覆盖率、快照回放、built-bin 冒烟测试和发布验证的并发数也设为 1。三种操作系统的作业可以彼此并行,但每台主机上的仓库门禁都串行运行且完整执行。Linux 在回放快照前安装 bubblewrap,Windows 则在安装采用符号链接的工作区前启用开发人员模式。
每个参考作业均在不设置任何分片选择器的情况下运行 `pnpm run check:ci``DSH_GATE_CONCURRENCY=1` 使顶层聚合每次只执行一个已经就绪的门禁;覆盖率、快照回放、built-bin 冒烟测试和发布验证的并发数也设为 1。各参考作业可以彼此并行,但每台主机上的仓库门禁都串行运行且完整执行。Linux 在回放快照前安装 bubblewrap,Windows 则在安装采用符号链接的工作区前启用开发人员模式。
该完整聚合流程仍明确划分平台归属。`pty-local` 支持 Linux 与 macOS,因此其单元测试和逐文件覆盖率契约由 POSIX 平台负责,而不会在 Windows 上加载一个明确拒绝 `win32` 的后端;Windows 仍会执行所有可移植包(package)。可移植 fixture(测试前置数据)通过 `node:path` 派生原生路径,使用与生产代码相同的原生 realpath 实现比较规范化后的路径标识,并采用所有宿主机均允许的文件名。ACPAgent Client Protocol)快照运行还会把生成的 cwd 分别通过 realpath 的 JavaScript 实现与原生实现得到的两种表示一并传给规范化器;规范化器按长度从长到短替换这些别名,避免 Windows 的短路径与长路径表示差异导致共享 fixture 反复变化。
macOS 参考流程使用 fork 进程运行常规 Vitest 项目。macOS arm64 上的 Node 24 曾在工作线程中执行 CJS 词法分析器时异常终止;进程边界能够隔离这一外部运行时故障,且无需从聚合流程中删除任何测试,而 Linux 与 Windows 仍使用开销更低的线程池。仓库自身引入的竞态均在相应的观测边界修复:开发构建产物的轮询逻辑每次发布重新扫描结果前,都会先暂存候选表、候选图和候选监视基线映射;构建产物缺失后会一直保持脏状态,直到成功计算内容哈希。PTY 就绪检测会在轮询检查前台进程组归属期间保留提示符候选项;常规静默时限也适用于交互式子进程继承提示符标记的情况。真实 PTY fixture 会在运行时拼接同步标记,使就绪等待逻辑不会把交互式 shell 的输入回显误判为子进程已就绪。实时链接场景下的包管理器 e2e 会保留由工作流预先准备的 Corepack 主目录、pnpm 元数据缓存和 store 缓存,同时隔离其他包管理器的可变缓存,因此不会在安装前丢弃可复用的包管理器状态。
master 分支的参考作业仅用于诊断,不参与拉取请求所要求的 `all checks passed` 结果。拉取请求只运行其必需作业;向 master 推送时只运行三个串行参考作业。系统根据已完成托管作业的时间戳评估性能,并将其报告为测量结果,而不是写成 `timeout-minutes` 值。
master 分支的参考作业仅用于诊断,不参与拉取请求所要求的 `all checks passed` 结果。拉取请求只运行其必需作业;向 master 推送时只运行串行参考作业。系统根据已完成托管作业的时间戳评估性能,并将其报告为测量结果,而不是写成 `timeout-minutes` 值。
可移植的参考流程使用 GitHub 标准的 `ubuntu-latest``macos-latest``windows-2025` 标签。依据[必需 CI 决策](2026-07-23-portable-required-pull-request-ci.md),拉取请求必需作业使用相同的可移植 Linux 和 Windows 容量。更高核心数的托管运行器仍仅用于手动基准测试,因为正确性路径必须无需仓库外部的运行器配置即可运行。
可移植的参考流程使用 GitHub 标准的 `ubuntu-latest``macos-latest``windows-2025` 标签`serial / windows` 是仅存的原生 Windows 作业,是 Wine 托管拉取请求通道背后的完整内核标尺([Wine 通道决策](2026-07-27-wine-windows-gates-experiment.md)。依据[必需 CI 决策](2026-07-23-portable-required-pull-request-ci.md),拉取请求必需作业使用可移植的标准容量。更高核心数的托管运行器仍仅用于手动基准测试,因为正确性路径必须无需仓库外部的运行器配置即可运行。
## 曾考虑的替代方案
@@ -1,6 +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
2026-07-22-evidence-based-larger-hosted-runners.md: fe11e6929545923d27fbf41f5a39f7dd2b9c3fbf
2026-07-22-evidence-based-larger-hosted-runners.zh.md: 47879284532a537cbe7e78aa2c495c4ef0be26c4
# pnpm run verify-translation-pairing --write .agents/notes/implemented/process/2026-07-22-evidence-based-larger-hosted-runners.md
2026-07-22-evidence-based-larger-hosted-runners.md: 67fc7ded5cffc6a219665f135a4c9e1cc4752691
2026-07-22-evidence-based-larger-hosted-runners.zh.md: 71c5c067361b57fab5aae9e9ffa3850a30609db3
@@ -52,6 +52,8 @@ The process-bound coverage project contains exactly five suite files. Thirty-two
Complete serial Linux, macOS, and Windows references run only when `master` moves. Pull requests use the enterprise required path plus standard-hosted compatibility jobs, while other larger-runner sizes run only by manual dispatch.
An additional serial Linux reference runs on the in-house self-hosted pool (`vm-backup` label: a 64-core VM with six always-on systemd-managed runner instances) on every `master` push. It is a hot-standby drill, not a required check: each run re-proves that the persistent VM can execute the complete unsharded aggregate. The actual switch is pre-wired: the three required Linux jobs resolve their pool through the writer-manageable `DSH_CI_FAILOVER` repository variable, so an outage response is setting one variable and re-running — no merge, which would be deadlocked behind the failing checks themselves ([runbook](2026-07-26-ci-failover-runbook.md)). The standby lane is push-triggered, so it always executes the base branch's workflow definition. Under failover, however, `pull_request` jobs do reach these runners with the PR merge ref's own workflow definition — the trust boundary is repository membership (the repository is private with forking disabled, and the selectors exclude Dependabot), as the [failover runbook](2026-07-26-ci-failover-runbook.md) records.
## Alternatives considered
**Keep the three coarse primary Linux lanes.** The core, CPU, and production-site jobs met the latency targets, but they paid three setup waves and left primary Node work sharded after larger runners were available. The all-size trace showed that one unnecessary dependency, not a lack of host capacity, kept the single-box aggregate above one minute.
@@ -52,6 +52,8 @@ Windows 仓库工作在超过 16 核后收益很小,但 32 核池可以让完
只有在 `master` 移动时,才运行完整的 Linux、macOS 和 Windows 串行参考。拉取请求使用企业级运行器必需路径和标准托管兼容性作业,其他大型运行器规格仅通过手动触发运行。
另有一条串行 Linux 参考在每次 `master` 推送时运行于公司自有的自托管池(`vm-backup` 标签:一台 64 核虚拟机,运行 6 个常驻的 systemd 管理运行器实例)。它是热备演练而非必需检查:每次运行都重新证明这台持久化虚拟机能够执行完整的未分片聚合流程。实际切换机制已预先布线:三个必需 Linux 作业通过写者可管理的仓库变量 `DSH_CI_FAILOVER` 解析运行器池,因此故障响应就是设置一个变量并重跑——无需合并(合并本身会被正在失败的检查死锁)([切换手册](2026-07-26-ci-failover-runbook.md))。该热备通道由 push 触发,执行的始终是基线分支自身的工作流定义。但需要注意:故障切换期间,`pull_request` 作业确实会带着 PR merge 引用自带的工作流定义到达这些运行器——信任边界是仓库成员资格(仓库为私有且禁用 fork,选择器排除 Dependabot),详见[故障切换手册](2026-07-26-ci-failover-runbook.md)的记录。
## 曾考虑的替代方案
**保留 3 个粗粒度 Linux 主流程通道。** 核心、CPU 和生产网站作业均达到延迟目标,但它们需要 3 轮设置,而且在大型运行器已经可用后仍对主 Node 工作进行分片。全规格运行轨迹表明,让单机聚合流程超过 1 分钟的是一项不必要的依赖,而非主机容量不足。
@@ -1,6 +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
2026-07-23-portable-required-pull-request-ci.md: d1002c7d9db7cd8bbed3bdfda8a773a4b124bf16
2026-07-23-portable-required-pull-request-ci.zh.md: fedfc6b9c982ace5ece430c52db23c22ec5119d4
# pnpm run verify-translation-pairing --write .agents/notes/implemented/process/2026-07-23-portable-required-pull-request-ci.md
2026-07-23-portable-required-pull-request-ci.md: 1a6939e8386e381cba114a7be71993a644457a45
2026-07-23-portable-required-pull-request-ci.zh.md: cf0af769f9e740a2c9285caf4be05023371578d9
@@ -12,9 +12,9 @@ Billing health, a runner definition's `Ready` state, and a large autoscaling cei
## Decision
[CI](../../../../.github/workflows/ci.yml) runs the required primary Node 24 jobs, plus the stable `all checks passed` aggregate, on repo-restricted enterprise 32-core pools. The aggregate performs no checkout or repository gate, but sharing the enterprise pool prevents the required verdict from introducing a separate standard-hosted billing dependency after its substantive jobs have already succeeded. The required Windows job runs on standard `windows-2025` with single-worker bounds, keeping the complete Windows contract independent of enterprise Windows allocation. Standard `ubuntu-latest` jobs retain Node 22.19, Node 26, and Python SDK compatibility, and `master` runs complete serial Linux, macOS, and Windows references. Those standard-hosted jobs keep the portable execution boundary observable without duplicating the primary inventory on every pull request.
[CI](../../../../.github/workflows/ci.yml) runs the required primary Node 24 jobs, plus the stable `all checks passed` aggregate, on repo-restricted enterprise 32-core pools. The aggregate performs no checkout or repository gate, but sharing the enterprise pool prevents the required verdict from introducing a separate standard-hosted billing dependency after its substantive jobs have already succeeded. The required Windows job runs Windows Node under Wine on standard `ubuntu-latest` for the blocking surfaces ([Wine lane decision](2026-07-27-wine-windows-gates-experiment.md)), keeping the pull-request Windows contract independent of any Windows runner allocation; the complete native-kernel Windows inventory lives in the master serial reference. Standard `ubuntu-latest` jobs retain Node 22.19, Node 26, and Python SDK compatibility, and `master` runs complete serial Linux, macOS, and Windows references. Those standard-hosted jobs keep the portable execution boundary observable without duplicating the primary inventory on every pull request.
The two Linux primary jobs, Node compatibility, Python SDK, and `windows node 24 / complete` remain dependencies of `all checks passed`; branch protection continues to require `e2e` and `all checks passed`. There is no automatic fallback when a remaining enterprise Linux label cannot allocate: the standard jobs continue to report their own contracts, but they cannot manufacture the missing required result.
The two Linux primary jobs, Node compatibility, Python SDK, and `windows node 24 / wine blocking` remain dependencies of `all checks passed`; branch protection continues to require `e2e` and `all checks passed`. There is no automatic fallback when a remaining enterprise Linux label cannot allocate: the standard jobs continue to report their own contracts, but they cannot manufacture the missing required result.
The [larger-runner decision](2026-07-22-evidence-based-larger-hosted-runners.md) owns the current primary topology and its measurements. The [serial cross-platform reference](2026-07-21-serial-cross-platform-ci-reference.md) remains the independent standard-hosted completeness check, and the manual larger-runner suites retain size comparisons without expanding the ordinary required matrix.
@@ -30,6 +30,6 @@ The [larger-runner decision](2026-07-22-evidence-based-larger-hosted-runners.md)
## Consequences
Ordinary pull requests spend enterprise capacity on the Linux critical path while standard Windows trades longer runtime for independent allocation. A live exact-head run proves the same commands that branch protection consumes; queue delay is reported separately from each job's `startedAt` to `completedAt` execution interval.
Ordinary pull requests spend enterprise capacity on the Linux critical path while the Wine-hosted Windows job keeps its verdict on standard Linux allocation. A live exact-head run proves the same commands that branch protection consumes; queue delay is reported separately from each job's `startedAt` to `completedAt` execution interval.
Standard compatibility and required Windows jobs remain useful when enterprise allocation is degraded, but they do not make a blocked required Linux job or aggregate green. Recovering Linux availability may require restoring the complete standard-hosted topology; changing a pool definition's status alone is insufficient evidence that it can receive work.
@@ -12,9 +12,9 @@ Status: implemented
## 决策
[CI](../../../../.github/workflows/ci.yml) 在仅限本仓库使用的企业级 32 核运行器池上运行必需的主 Node 24 作业,以及稳定的 `all checks passed` 聚合流程。该聚合流程不执行代码检出或仓库门禁;但让它与所依赖的实质性作业共用企业级运行器池,可以避免这些作业已经成功后,必需判定结果又引入一项单独的标准托管计费依赖。必需的 Windows 作业在标准 `windows-2025` 上运行,并采用单工作线程上限,使完整的 Windows 契约不依赖企业级 Windows 运行器分配。标准 `ubuntu-latest` 作业保留 Node 22.19、Node 26 和 Python SDK 兼容性,`master` 则运行完整的 Linux、macOS 和 Windows 串行参考流程。这些标准托管作业让可移植执行边界保持可观测,而不必在每个拉取请求中重复主清单。
[CI](../../../../.github/workflows/ci.yml) 在仅限本仓库使用的企业级 32 核运行器池上运行必需的主 Node 24 作业,以及稳定的 `all checks passed` 聚合流程。该聚合流程不执行代码检出或仓库门禁;但让它与所依赖的实质性作业共用企业级运行器池,可以避免这些作业已经成功后,必需判定结果又引入一项单独的标准托管计费依赖。必需的 Windows 作业在标准 `ubuntu-latest` 上通过 Wine 运行 Windows Node 以覆盖阻断表面([Wine 通道决策](2026-07-27-wine-windows-gates-experiment.md)),使拉取请求的 Windows 契约不依赖任何 Windows 运行器分配;完整的原生内核 Windows 清单归 master 串行参考流程所有。标准 `ubuntu-latest` 作业保留 Node 22.19、Node 26 和 Python SDK 兼容性,`master` 则运行完整的 Linux、macOS 和 Windows 串行参考流程。这些标准托管作业让可移植执行边界保持可观测,而不必在每个拉取请求中重复主清单。
两项 Linux 主作业、Node 兼容性、Python SDK 和 `windows node 24 / complete` 继续作为 `all checks passed` 的依赖项;分支保护继续要求 `e2e``all checks passed`。剩余的企业级 Linux 运行器标签无法分配运行器时没有自动后备机制:标准作业会继续报告各自的契约,但无法产出缺失的必需结果。
两项 Linux 主作业、Node 兼容性、Python SDK 和 `windows node 24 / wine blocking` 继续作为 `all checks passed` 的依赖项;分支保护继续要求 `e2e``all checks passed`。剩余的企业级 Linux 运行器标签无法分配运行器时没有自动后备机制:标准作业会继续报告各自的契约,但无法产出缺失的必需结果。
当前主拓扑及其测量结果由[大型运行器决策](2026-07-22-evidence-based-larger-hosted-runners.md)记录。[跨平台串行参考流程](2026-07-21-serial-cross-platform-ci-reference.md)继续作为独立的标准托管完整性检查,手动大型运行器套件则保留规格比较,同时不扩大普通必需矩阵。
@@ -30,6 +30,6 @@ Status: implemented
## 后果
普通拉取请求会将企业级运行器容量用于 Linux 关键路径,而标准托管 Windows 作业则以更长的运行时间换取不依赖企业池的运行器分配。一次实际的分支头精确运行能够证明分支保护使用的同一组命令;排队延迟与每个作业从 `startedAt``completedAt` 的执行区间分开报告。
普通拉取请求会将企业级运行器容量用于 Linux 关键路径,而 Wine 托管 Windows 作业让其判定保持在标准 Linux 运行器分配。一次实际的分支头精确运行能够证明分支保护使用的同一组命令;排队延迟与每个作业从 `startedAt``completedAt` 的执行区间分开报告。
企业级运行器分配能力下降时,标准兼容性作业和必需的 Windows 作业仍能提供有用证据,但无法让受阻的必需 Linux 作业或聚合流程变绿。恢复 Linux 可用性时,可能需要恢复完整的标准托管拓扑;仅改变运行器池定义的状态,不足以证明它可以接收作业。
@@ -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 .agents/notes/implemented/process/2026-07-26-briefed-minimal-translation-updates.md
2026-07-26-briefed-minimal-translation-updates.md: 63f25d5c36caecba435e9192534e0b494e1e0105
2026-07-26-briefed-minimal-translation-updates.zh.md: 17cf2f895b187fb794e691c2b14d6e0bff78363d
@@ -0,0 +1,50 @@
# Agent Note: Briefed minimal translation updates
Status: implemented
English | [中文](2026-07-26-briefed-minimal-translation-updates.zh.md)
## Problem
The [bilingual pairing contract](2026-07-02-bilingual-docs-and-pairing-gate.md) already prescribed minimal counterpart updates — diff the edited side against its last-confirmed state, patch the counterpart, never re-translate — but the committed workflow made every update pay whole-document overheads. The translating subagent loaded the full guidance corpus (skill, pairing contract, translation rules, the 192-line terminology table, style samples, prose standard) before touching a two-line diff; it re-derived the last-confirmed diff by hand through `git cat-file`; and each iteration re-ran the corpus-wide pairing gate, which parses every pair in the tree to validate one. A small English prose edit routinely cost tens of times its proportional share of tokens and minutes, which taxes exactly the behavior the contract wants — bringing the counterpart along in the same PR.
## Decision
Pair updates run on a generated briefing instead of the guidance corpus; only new pairs still run the whole-document workflow, which is unchanged.
- **`pnpm run gen-translation-brief [--apply] [pair...]`** ([scripts/gen-translation-brief.ts](../../../../scripts/gen-translation-brief.ts), assembly in [scripts/translation-brief.ts](../../../../scripts/translation-brief.ts)) prints, per out-of-sync pair, the authored side's diff from its recorded last-confirmed blob to the working tree plus the change mapped at the narrowest safely aligned granularity, deterministically widening on mapping failure: a change confined to the pair's byte-identical code fences is computed outright (`--apply` splices it into the counterpart and validates the result against the pairing gate's structural signature before writing); otherwise changed Markdown units (headings, paragraphs, table rows, list items, code fences, block quotes, HTML blocks, thematic breaks, link definitions — matched by container-scoped kind sequences) each carry their last-confirmed source, current source, and current counterpart text with line numbers; units that do not align fall back to depth-matched heading sections; and when sections do not align either, or both sides drifted, the briefing says so and withholds the mapping instead of guessing. Terminology rows are matched against the changed spans only (word-boundary English matching with plural inflections), and for Chinese targets the briefing tracks each relevant term's document-wide first occurrence — when an edit moves it, the vacated and receiving spans join the briefing with an explanatory note, since the 首次出现 annotation must move with it. The unit mapping, code splice, and first-occurrence mechanics adopt the planner design from the [incremental prompt-pipeline work](https://github.com/deepseek-harness/deepseek-harness/pull/684), whose provider-backed bake-off independently validated the same scope ladder for the automated pipeline. The briefing is the translator's whole working set; the full sources of truth remain the escalation path for decisions the briefing cannot answer.
- **The update path in [dsh-translate-docs](../../../skills/dsh-translate-docs/SKILL.md)** consumes the briefing: mechanical (code-fence-only) changes are applied with `--apply`, no subagent; prose diffs go to a subagent whose prompt is the briefing, not the corpus; verification is clause-by-clause on the changed spans, not the whole document.
- **The pairing gate takes pair arguments.** `verify-translation-pairing [pair...]` checks just the named pairs (any of a pair's three files, or the bare stem, names it); the corpus-wide sweep remains the no-argument form that `doc-sync` and CI run. `--write` now requires naming the confirmed pairs — bare `--write` refuses, and re-recording everything is an explicit `--write --all` — because the old bare form silently blessed every drifted pair in the tree, including ones the caller never looked at, and a prose-only drift would then stay green forever. Each record's comment names its own scoped command.
## Benchmark
The decision followed a controlled replay of ten real pair updates from this repo's history (July 2026; 1-64 changed English lines each, READMEs, RFCs, Agent Notes, and user docs). Each example was reconstructed in a scratch repo at its true last-confirmed state with the English edit uncommitted, then run through competing workflows with fresh subagents: the status-quo corpus-loading path, the briefed path, a no-guidance control, whole-document re-translation, the briefed path on a small model, and a three-pairs-per-agent batch. Outputs were gated mechanically and scored blind by judges who also received the real historical update and the untouched stale counterpart as controls.
- The briefed path matched the status-quo path on judged faithfulness, preservation, and fluency — both at or above the real historical updates — while spending roughly a third of the tokens and wall clock on the stall-free examples (medians across all ten: 276k vs 595k relative token-cost units, 14 vs 32 turns).
- Re-translation was confirmed harmful, not merely wasteful: judged preservation collapsed (4.4/10 vs 9.8) because it discards reviewed phrasing, it drifted established terminology the update arms kept (the counterpart's own text carries the renderings), and it was the most expensive arm.
- The no-guidance control held quality too — the binding context for an update is the diff plus the counterpart's own reviewed text, not the corpus — but the briefing buys a fixed working set, inline terminology, and the both-sides-drifted warning at negligible cost over it.
- On the briefing, a small model performed at parity with the large one, so the update path no longer assumes a frontier translator.
- Batching three pairs into one subagent showed no reliable saving over three briefed runs and couples unrelated failures; it was rejected.
A second head-to-head replay on the same ten examples compared this note's shipped briefing against its earlier section-only form (no unit tier, no computed mechanical path, counterpart-only context, no first-occurrence tracking). Prose quality and cost were at parity — pairwise blind verdicts split with only stylistic margins — and the shipped form won on two objective outcomes: the two code-fence-only examples were completed byte-identical to the human-reviewed historical updates in under a second with no model tokens, and on the example whose edit moved a term's document-wide first occurrence, the shipped briefing's flagged move reproduced the human-reviewed gloss relocation while the section-only form left a 首次出现 violation for review to catch.
## Alternatives considered
- **Keep the workflow, just scope the gate** — the gate scan was the smaller cost; the corpus loads and archaeology dominated. Scoping alone would have left the ~3x overhead in place.
- **Whole-document re-translation as the update path** (what a naive pipeline does) — rejected on benchmark evidence: preservation collapse, terminology drift, highest cost. The contract's minimal-update rule survives with data behind it.
- **Batching several pairs per subagent** — rejected: no measured saving (briefings already deduplicate the fixed content), and one stalled or confused pair holds the others hostage.
- **Per-paragraph translation-memory records in the sidecar** (segment hashes instead of whole-file hashes) — rejected: paragraph boundaries may legitimately differ across the pair, either side can be authored first, and the records would bloat and conflict in merges. Span mapping computed on demand from the existing whole-file hashes recovers the same alignment when it is trustworthy and says so when it is not.
- **An update mode in the automated prompt pipeline (prompt-v5)** — deferred, not designed here: nothing drives [scripts/translation-prompt.ts](../../../../scripts/translation-prompt.ts) today, and the agent path was the live cost center. The pipeline keeps its whole-document v4 contract until it has a consumer.
## Consequences
- A small prose edit's counterpart update now costs a briefing generation plus one small focused task — no corpus reads, no archaeology, no corpus-wide scans inside the loop — and the same PR obligation holds; the cheap path and the correct path point the same way.
- The briefing generator is a second consumer of the consistency records: recorded blob hashes now also drive diff recovery and section mapping, strengthening the incentive to keep records honest.
- `--write` without arguments no longer works; muscle-memory callers must name pairs or pass `--all`. That is the point — the bulk bless is now a visible, deliberate act.
- Scoped checks mean an update loop can be green while an unrelated pair elsewhere is red; the corpus-wide check in `doc-sync`/CI still owns the tree-level invariant.
- Span mapping trusts an alignment only when the kind sequences match across the last-confirmed source, current source, and current counterpart; a mapping failure widens deterministically (units → sections → whole document) rather than guessing, so a restructured document gets an explicit "locate the regions yourself" briefing, never a wrong map.
- A first-occurrence move can enlarge a briefing beyond the directly changed spans; that cost is an explicit consequence of the 首次出现 contract, not an alignment heuristic.
## Testing
[scripts/translation-brief.spec.ts](../../../../scripts/translation-brief.spec.ts) pins unit and section span extraction (container-scoped kinds, depth-only section alignment so translated heading text still maps, preamble), alignment and changed-index detection, the mechanical code splice and each of its refusal conditions, terminology row matching in both directions with word-boundary and plural-inflection discipline, first-occurrence movement tracking, fence escalation, and the rendered briefing's contract (unit bundles with three-way context, mechanical/sections/document scopes, per-direction digests, scoped finish commands). [scripts/translation-pairing.spec.ts](../../../../scripts/translation-pairing.spec.ts) pins argument normalization (any pair file or bare stem to the anchor) and the CLI matrix: scoped check, bare `--write` refusal, `--write <pair>`, `--write --all`, `--list` exclusivity, unknown flags.
@@ -0,0 +1,50 @@
# Agent Note: 基于简报的最小化翻译更新
Status: implemented
[English](2026-07-26-briefed-minimal-translation-updates.md) | 中文
## 问题
[双语配对契约](2026-07-02-bilingual-docs-and-pairing-gate.md)早已规定对侧文件按最小幅度更新:把被改的一侧与其上次确认状态做 diff,据此修补对侧文件,绝不整篇重译;但仓库内置的工作流让每次更新都付出整篇文档级别的开销。负责翻译的 subagent 在动手处理一个两行的 diff 之前,要先加载完整的指导语料(guidance corpus),即 skill(技能)、配对契约、翻译规则、192 行的术语表、语体样例与行文标准;要通过 `git cat-file` 手工重新推导上次确认状态以来的 diff;每轮迭代还要重跑全语料配对门禁,而该门禁为校验一个配对要解析整棵树里的每一个配对。一次小的英文行文修改,动辄花掉数十倍于其应得份额的 token 用量与分钟数,被惩罚的恰恰是契约想要的行为:在同一个 PR(Pull Request)里把对侧文件一并带上。
## 决策
配对更新基于生成的简报(briefing)运行,而非基于指导语料;只有新建配对仍走整篇文档工作流,后者保持不变。
- **`pnpm run gen-translation-brief [--apply] [pair...]`**[scripts/gen-translation-brief.ts](../../../../scripts/gen-translation-brief.ts),组装逻辑在 [scripts/translation-brief.ts](../../../../scripts/translation-brief.ts))针对每个失去同步的配对,打印被改一侧从其记录在案的上次确认 blob 到当前工作区的 diff,并附上以能安全对齐的最窄粒度映射的这次改动,映射失败时粒度确定性地逐级放宽:仅落在配对中逐字节一致的围栏代码块内的改动会直接算出(`--apply` 会把它拼接进对侧文件,并在写入前用配对门禁的结构签名校验所得结果);否则,每个有改动的 Markdown 单元(标题、段落、表格行、列表项、围栏代码块、块引用、HTML 块、分隔线、链接定义;匹配依据是以容器为作用域的种类序列)都带上各自的上次确认源文、当前源文与当前对侧文本及行号;无法对齐的单元回退到按深度匹配的标题章节;当章节也无法对齐或两侧同时漂移时,简报会明说这一点并省略映射,而不是靠猜。术语表行只与改动块匹配(英文术语按词边界匹配,含复数变形);当目标侧是中文时,简报还会跟踪每个相关术语在整篇文档中的首次出现:一旦某次编辑使其移位,腾出的与接收的两处区间就会附一条解释性说明加入简报,因为「首次出现」括注必须随之移动。单元映射、代码拼接与首次出现机制采纳了[增量提示词流水线工作](https://github.com/deepseek-harness/deepseek-harness/pull/684)中的规划器设计;该项工作中接入提供方的对比评测,已为自动流水线独立验证了同一套范围阶梯。简报就是译者的全部工作集;简报回答不了的决策,仍以完整的真源文档作为升级求证路径。
- **[dsh-translate-docs](../../../skills/dsh-translate-docs/SKILL.md) 中的更新路径**消费这份简报:机械类改动(只涉及围栏代码块)用 `--apply` 应用,不动用 subagent;行文类 diff 交给 subagent,其提示词就是简报本身,而非指导语料;核验只对改动块逐句进行,不覆盖整篇文档。
- **配对门禁接受配对参数。**`verify-translation-pairing [pair...]` 只检查被点名的配对(配对三个文件中的任意一个,或其裸词干,都能指代该配对);全语料扫描仍是 `doc-sync`(文档同步门禁)与 CI 运行的无参数形式。`--write` 现在要求点名已确认的配对:裸 `--write` 会拒绝执行,重新记录全部配对必须显式写 `--write --all`;原因是旧的裸形式会默默为树中每一个漂移的配对背书,包括调用者从未看过的那些,纯行文层面的漂移于是可以永远保持绿灯。每份记录的注释都写明针对该配对自身的按对命令。
## 基准测试
该决策来自对本仓库历史上十次真实配对更新的受控回放(2026 年 7 月;每例改动 1 到 64 行英文,涵盖 README、RFC、Agent Noteagent 决策记录)与用户文档)。每个样例都在临时仓库中重建到其真实的上次确认状态,英文改动保持未提交,再用全新的 subagent 分别跑过相互竞争的各条工作流:维持现状的语料加载路径、简报路径、无指导对照组、整篇重译、小模型上的简报路径,以及每个 agent(智能体)一次处理三对文档的批量方案。产出先经机械门禁把关,再由评委盲评打分;评委还同时收到真实的历史更新与原样未动的陈旧对侧文件作为对照。
- 简报路径在盲评的忠实性、保留度与流畅度上与现状路径打平(两者都达到或超过真实历史更新的水平),而在未发生停滞的样例上只花费约三分之一的 token 用量与墙钟时间(全部十例的中位数:相对 token 成本单位 276k 对 595k,轮次数 14 对 32)。
- 整篇重译被证实有害,而不只是浪费:它丢弃经评审的措辞,盲评保留度因此崩塌(4.4/10 对 9.8);它还使各更新组保持住的既定术语发生漂移(既定译法本就写在对侧文件自身的正文里);而且它是成本最高的一组。
- 无指导对照组的质量同样立得住(对一次更新有约束力的上下文,是 diff 加上对侧文件自身经评审的正文,而非指导语料),但简报以几乎可忽略的额外成本,换来固定的工作集、内联的术语,以及两侧同时漂移的警告。
- 以简报为输入,小模型的表现与大模型持平,因此更新路径不再假定翻译必须由前沿模型完成。
- 把三对文档合并给同一个 subagent,相比三次各自带简报的运行没有可靠的节省,还把互不相关的失败耦合在一起;该方案被否决。
在同样这十个样例上进行的第二次正面对比回放,把本文最终交付的简报与其早前仅按章节的形态(没有单元层级、没有直接算出的机械路径、上下文只含对侧文件、不跟踪首次出现)相对照。行文质量与成本两相持平(两两盲评裁定各有胜负,差距仅在文风),而最终交付的形态在两项客观结果上胜出:两个只涉及围栏代码块的样例在一秒之内完成且不消耗任何模型 token,产出与经人工评审的历史更新逐字节一致;而在那个编辑使某术语在整篇文档中的首次出现发生移位的样例上,最终交付的简报所标记的移位复现了经人工评审的括注迁移,仅按章节的形态则留下一处「首次出现」违例,留待评审去捕捉。
## 曾考虑的替代方案
- **保留原工作流,只让门禁支持按对检查**:门禁扫描本是较小的开销,大头在语料加载与翻查历史。只收窄检查范围,约 3 倍的开销仍会原地保留。
- **把整篇重译作为更新路径**(朴素流水线的做法):依据基准测试证据否决,理由是保留度崩塌、术语漂移、成本最高。契约的最小更新规则得以延续,且从此有数据支撑。
- **每个 subagent 批量处理多对文档**:否决。没有实测出节省(简报本身已对固定内容做了去重),而且一对文档停滞或陷入混乱会把其余配对一并拖住。
- **在伴随记录中保存逐段的翻译记忆条目**(用分段 hash 取代整文件 hash):否决。配对两侧的段落边界可以合理地不同,任一侧都可能先撰写,这类条目还会不断膨胀并在合并时产生冲突。基于现有整文件 hash 按需计算的区间映射,在对齐可信时能恢复同样的对齐关系,不可信时会明确说明。
- **给自动提示词流水线加一个更新模式(prompt-v5)**:推迟,本文不做设计。今天没有任何调用方在驱动 [scripts/translation-prompt.ts](../../../../scripts/translation-prompt.ts),实际的成本中心是 agent 路径。流水线在拥有消费方之前,维持其整篇文档的 v4 契约。
## 后果
- 一次小的行文修改,其对侧更新如今只需生成一份简报,外加一个小而聚焦的任务(不读指导语料、不翻查历史、循环内不做全语料扫描),同一 PR 内完成更新的义务保持不变;低成本的路径与正确的路径指向同一个方向。
- 简报生成器成为一致性记录的第二个消费方:记录的 blob hash 如今还驱动 diff 还原与章节映射,这进一步强化了如实维护记录的动机。
- 不带参数的 `--write` 不再可用;靠肌肉记忆的调用者必须点名配对或传 `--all`。这正是目的所在:批量背书如今是一个可见的、有意为之的动作。
- 按对检查意味着一个更新循环可以在别处某个无关配对处于红灯时自己保持绿灯;`doc-sync`/CI 中的全语料检查仍然承载树级不变式。
- 区间映射只在上次确认源文、当前源文与当前对侧文本三方的种类序列一致时才信任一处对齐;映射失败时粒度确定性地逐级放宽(单元 → 章节 → 整篇文档)而不是靠猜,因此被重构过的文档拿到的是一份明确写着「请自行定位相关区域」的简报,绝不会是一张错误的地图。
- 「首次出现」的一次移位可能让简报扩大到直接改动块之外;这一成本是「首次出现」契约的明确后果,而非对齐启发式。
## 测试
[scripts/translation-brief.spec.ts](../../../../scripts/translation-brief.spec.ts) 固定单元与章节的区间提取(以容器为作用域的种类、只按深度对齐章节从而让已翻译的标题文字仍能映射、首个标题前的序言)、对齐与改动索引检测、机械代码拼接及其每一个拒绝条件、带词边界与复数变形约束的双向术语行匹配、首次出现移位跟踪、围栏升级,以及渲染后简报的契约(带三方上下文的单元条目、机械/章节/整篇文档三种范围、分方向的规则摘要、按对的收尾命令)。[scripts/translation-pairing.spec.ts](../../../../scripts/translation-pairing.spec.ts) 固定参数归一化(配对的任一文件或裸词干都归一到锚点)与 CLI(命令行界面)用例矩阵:按对检查、裸 `--write` 拒绝执行、`--write <pair>``--write --all``--list` 的互斥性、未知标志。
@@ -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 .agents/notes/implemented/process/2026-07-26-ci-failover-runbook.md
2026-07-26-ci-failover-runbook.md: 4e4f8ea7fc60cf76fd8308147bbf7cc0bac74798
2026-07-26-ci-failover-runbook.zh.md: bb7e43fe55c9cced51f042de6503978ec9349d6b
@@ -0,0 +1,50 @@
# Agent Note: CI failover runbook — hosted pools → in-house pool
Status: implemented
English | [中文](2026-07-26-ci-failover-runbook.zh.md)
## Problem
The three required Linux worker jobs in [CI](../../../../.github/workflows/ci.yml) (`node 24 / static`, `node 24 / coverage`, `node 24 / snapshots and artifacts`) run on the hosted enterprise 32-core pools; the required verdict job that aggregates them (`all checks passed`) runs on standard `ubuntu-latest`. When the enterprise pools degrade — jobs queue indefinitely or the enterprise labels vanish — every open pull request becomes unmergeable, and the ordinary recovery of merging a fix is itself deadlocked behind the very required checks that cannot run. **Scope: this switch recovers an enterprise Linux-pool outage.** The verdict's other required dependencies (`node-compat`, `python-sdk`, `windows`) stay on standard hosted runners by design (the portable boundary); in a broader GitHub-hosted capacity failure that also takes out the standard pools, those dependencies still block `all checks passed`, and only the Windows leg has no in-house substitute at all — during the 2026-07-27 outage the standard pools recovered first, which is the ordering this design bets on. An outage therefore needs a switch any responder with repository write access can throw without merging anything.
## Decision
Each of the three required Linux worker jobs — and the `all checks passed` verdict job, which would otherwise stay queued on the failed pool even after every worker passed — resolves its runner pool through the `DSH_CI_FAILOVER` repository variable. Unset (normal), they run on the hosted enterprise pools. Set to `selfhosted` by any repository writer, all four retarget onto the in-house self-hosted `vm-backup` pool, coverage and snapshot concurrency drop to shared-VM bounds, and the hosted-path pnpm cache restores are skipped. The switch is writer-manageable repository state, not a merge, so it works while every check is red. The in-house pool's readiness is continuously re-proven by the `serial / linux (self-hosted standby)` lane, which runs the complete unsharded aggregate on every master push.
### What the in-house pool is
`vm-backup`: one 64-core VM, six always-on systemd-managed runner instances. Check the latest `serial / linux (self-hosted standby)` run before switching: a green standby is verified-yesterday capacity.
### Switch (any repository writer, ~1 minute, no merge)
1. Repository **Settings → Secrets and variables → Actions → Variables → New repository variable**: name `DSH_CI_FAILOVER`, value `selfhosted`.
2. Retrigger the required jobs so they re-resolve their pool. Jobs already **queued** for the hosted labels do not retarget and cannot be re-run in place, so for the documented indefinite-queue outage, cancel the stuck run and re-run all jobs, or push a new commit; "Re-run failed jobs" only helps once a job has actually failed rather than queued.
3. That is the entire switch. Under failover the workflow also, automatically: drops `DSH_COVERAGE_MAX_WORKERS` to 8 and `DSH_SNAPSHOT_MAX_CONCURRENCY` to 12 (sized for six always-on instances: worst case 6 × 8 = 48 coverage workers on the 64-core VM) (shared-VM contention bounds), and skips the hosted-path pnpm cache restores (the VM's persistent store serves warm installs).
#**Dependabot exception.** All four selectors deliberately exclude `dependabot[bot]`: under failover, Dependabot PRs stay queued for the hosted pool rather than executing dependency-supplied code on the persistent VM. A Dependabot PR that remains queued during an outage is expected behavior, not a failed switch; it completes when the hosted pool recovers.
**Who can flip the variable.** GitHub's API lets any collaborator with write access manage repository variables, so the switch is writer-level, not strictly admin-only. In this repository's trust model that is not an escalation: the runner group admits all workflows of this private, fork-disabled repository (a deliberate trade to make PR-ref failover possible at all), so any writer could already reach the VM by pushing a branch workflow. The boundary against untrusted code is repository membership; the variable only routes work for members.
## Capacity during failover
Six always-on instances absorb normal PR traffic (the pool's steady-state load is one serial standby job per master push, so failover capacity is effectively the full pool). If queues still build, register additional instances with an org registration token (org Settings → Actions → Runners → New runner). Clone an existing runner directory **excluding its identity files**`rsync -a --exclude '.runner*' --exclude '.credentials*' --exclude '_diag' --exclude '_work' <src>/ <dst>/` (the globs also catch `.runner_migrated`/`.credentials_migrated`, which GitHub writes on migrated runners and which equally trigger the already-configured refusal) — then run `config.sh` (copying `.runner`/`.credentials` verbatim makes it refuse with "already configured"), and **start the listener**: `sudo ./svc.sh install ubuntu && sudo ./svc.sh start`. Registration alone leaves the runner offline; only a started service adds capacity. About a minute per instance.
### Switch back
Delete the `DSH_CI_FAILOVER` variable (or set it to anything other than `selfhosted`). New runs resolve back to the hosted enterprise pools. Remove any extra instances that were registered during the incident.
### Trust boundary
The variable is writer-manageable repository state; a pull request event itself can neither set it nor read a different value into effect, and the selector expressions live in workflow definitions. Note that under failover, `pull_request` runs execute the PR merge ref's own workflow definition — the boundary against untrusted code is repository membership (private, forking disabled, Dependabot excluded by the selectors), not the variable. Note on runner-group policy: pinning the runner group to the master-ref workflow is **incompatible** with this failover — the four failover jobs are `pull_request` runs evaluated from PR merge refs, and a master-pinned group leaves them queued (observed live on 2026-07-27; the group was widened to all workflows of this repository to unblock the switch). A stricter runner-side policy therefore costs PR failover; the shipped posture accepts repository-scoped, all-workflow group access.
## Alternatives considered
**Merge a workflow change to switch pools.** Rejected because the outage that motivates the switch is exactly the state in which no PR can merge: the required checks are the ones failing. A repository variable is writer-manageable state that takes effect on re-run without a merge.
**Keep the self-hosted pool always in the required path.** Rejected because it trades hosted-pool availability for the in-house VM's, moving a single point of failure rather than adding a fallback. The variable keeps the hosted pools primary and the self-hosted pool a proven, one-action standby.
## Consequences
Recovering from a hosted-pool outage is a single variable (any writer) plus a re-run, with no merge on the critical path. The cost is a second runner topology to keep working: the standby lane exercises it on every master push so the failover target never goes stale, and the concurrency and cache-restore branches in `ci.yml` carry a `selfhosted` leg that must stay in step with the hosted leg.
@@ -0,0 +1,50 @@
# Agent Note: CI 故障切换手册 — 托管池 → 自有池
Status: implemented
[English](2026-07-26-ci-failover-runbook.md) | 中文
## 问题
[CI](../../../../.github/workflows/ci.yml) 中三个必需的 Linux 工作作业(`node 24 / static``node 24 / coverage``node 24 / snapshots and artifacts`)运行在托管的企业级 32 核池上;聚合它们的必需判定作业(`all checks passed`)运行在标准 `ubuntu-latest` 上。当企业池发生故障——作业无限排队或企业标签消失——所有开启的拉取请求都无法合并,而"合并一个修复"这一常规恢复手段本身正被那些无法运行的必需检查死锁。**适用范围:本切换恢复的是企业级 Linux 池故障。**判定作业的其余必需依赖(`node-compat``python-sdk``windows`)按设计留在标准托管运行器上(可移植边界);若更大范围的 GitHub 托管容量故障连标准池一并击倒,这些依赖仍会阻塞 `all checks passed`,且只有 Windows 这条腿完全没有自有替代——2026-07-27 的故障中标准池率先恢复,本设计押注的正是这一顺序。因此故障需要一个任何具备仓库写权限的响应者都能在不合并任何代码的情况下触发的开关。
## 决策
三个必需的 Linux 工作作业——以及 `all checks passed` 判定作业(若不随切换,即使全部工作作业通过,它仍会滞留在故障池的队列中)——各自通过仓库变量 `DSH_CI_FAILOVER` 解析运行器池。变量不存在(正常)时它们运行在托管企业池上;由任何具备写权限的协作者设为 `selfhosted` 时,四者全部切换到公司自有的自托管 `vm-backup` 池,coverage 与 snapshot 的并发降到共享虚拟机上限,并跳过托管路径的 pnpm 缓存恢复。这个开关是写者可管理的仓库状态而非一次合并,因此在所有检查都是红色时仍然有效。自有池的就绪状态由 `serial / linux (self-hosted standby)` 通道持续验证——每次 master 推送都在其上运行完整的未分片聚合流程。
### 自有池是什么
`vm-backup`:一台 64 核虚拟机,6 个常驻 systemd 管理的运行器实例。切换前先看 `serial / linux (self-hosted standby)` 最近一次运行:绿色 = 这套环境昨天刚被全量验证过。
### 切换步骤(任何具备写权限的协作者,约 1 分钟,无需合并)
1. 仓库 **Settings → Secrets and variables → Actions → Variables → New repository variable**:名称 `DSH_CI_FAILOVER`,值 `selfhosted`
2. 重新触发必需作业,使其重新解析运行器池。已经为托管标签**排队**的作业不会重定向,也无法原地 re-run,因此对于本手册所述的无限排队故障,应取消卡住的运行并 re-run all jobs,或推送一个新提交;“Re-run failed jobs”只有在作业真正失败(而非仍在排队)时才有用。
3. 切换到此完成。故障切换状态下工作流还会自动:把 `DSH_COVERAGE_MAX_WORKERS` 降为 8、`DSH_SNAPSHOT_MAX_CONCURRENCY` 降为 12(按 6 个常驻实例定容:最坏 6 × 8 = 48 个覆盖率工作进程对 64 核)(共享虚拟机的争抢上限),并跳过托管路径的 pnpm 缓存恢复(虚拟机的持久 store 直接提供热安装)。
#**Dependabot 例外。**四个选择器都刻意排除了 `dependabot[bot]`:故障切换期间,Dependabot 拉取请求继续在托管池排队,而不是把依赖方提供的代码放到持久化虚拟机上执行。故障期间 Dependabot PR 持续排队是预期行为而非切换失败;托管池恢复后它会自行完成。
**谁能扳动这个变量。**GitHub 的 API 允许任何具有写权限的协作者管理仓库变量,因此该开关实际是写者级而非严格的管理员级。在本仓库的信任模型下这并不构成越权:runner group 接纳本私有、禁 fork 仓库的全部工作流(这是让 PR 引用的故障切换得以成立的刻意取舍),因此任何写者本就可以通过推送分支工作流触达这台虚拟机。抵御不可信代码的边界是仓库成员资格;变量只是为成员路由工作。
## 切换期间的容量
6 个常驻实例可承接正常 PR 流量(该池平时唯一的稳态负载是每次 master 推送一个串行热备作业,故障切换时几乎全池可用)。若仍出现排队,用组织级注册 token(组织 Settings → Actions → Runners → New runner)追加注册实例。复制现有 runner 目录时**必须排除身份文件**——`rsync -a --exclude '.runner*' --exclude '.credentials*' --exclude '_diag' --exclude '_work' <src>/ <dst>/`(通配同时排除 `.runner_migrated`/`.credentials_migrated`——GitHub 会在迁移过的运行器上写入这些文件,它们同样会触发 already-configured 拒绝)——再跑 `config.sh`(原样拷贝 `.runner`/`.credentials` 会使其以 "already configured" 拒绝),然后**启动监听器**:`sudo ./svc.sh install ubuntu && sudo ./svc.sh start`。仅注册不会上线;只有启动了服务的 runner 才会增加容量。每个约一分钟。
### 切回
删除 `DSH_CI_FAILOVER` 变量(或改为 `selfhosted` 以外的任何值),新的运行即解析回托管企业池。若故障期间追加注册过实例,将其移除。
### 信任边界
该变量是写者可管理的仓库状态;`pull_request` 事件本身既不能设置它,也不能让不同的值生效,选择器表达式存在于工作流定义中。需要注意:故障切换期间,`pull_request` 运行执行的是 PR merge 引用自带的工作流定义——抵御不可信代码的边界是仓库成员资格(私有、禁 fork、选择器排除 Dependabot),而非该变量。关于 runner group 策略的说明:把 runner group 绑定到 master 引用的工作流与本故障切换机制**不兼容**——四个故障切换作业是从 PR merge 引用求值的 `pull_request` 运行,master 绑定的组会让它们持续排队(2026-07-27 实际故障中亲历;当时将组放宽为本仓库全部工作流才疏通了切换)。更严格的运行器侧策略以牺牲 PR 故障切换为代价;当前采用的形态是仓库范围、全工作流的组访问。
## 曾考虑的替代方案
**通过合并一次工作流改动来切换池。** 否决,因为触发切换的故障状态恰恰是任何 PR 都无法合并的状态:必需检查正是失败的那些。仓库变量是写者可管理的状态,重跑即生效,无需合并。
**让自托管池长期处于必需路径中。** 否决,因为这是拿托管池的可用性去换自有虚拟机的可用性,只是搬移了单点故障而非增加回退。该变量让托管池保持主路径,自托管池作为一个经过验证、一步即可启用的热备。
## 后果
从托管池故障中恢复只需一个变量(任何写者可设)加一次重跑,关键路径上没有合并。代价是要维护第二套运行器拓扑:热备通道在每次 master 推送时都运行它,使故障切换目标永不失效;而 `ci.yml` 中的并发与缓存恢复分支带有一条 `selfhosted` 支路,必须与托管支路保持同步。
@@ -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 .agents/notes/implemented/process/2026-07-27-wine-windows-gates-experiment.md
2026-07-27-wine-windows-gates-experiment.md: aab8aecdfca06c1f15641044a071015f543a84b6
2026-07-27-wine-windows-gates-experiment.zh.md: 5239b185e1e0c63aa626ee3f20f3f298c0c8579d
@@ -0,0 +1,45 @@
# Agent Note: Wine-run Windows blocking gates on Linux runners
Status: implemented
English | [中文](2026-07-27-wine-windows-gates-experiment.zh.md)
## Problem
The pull-request Windows lane exists to prove the two blocking win32 surfaces — the workspace build and the production site — and it ran on hosted `windows-2025`, the slowest job in the required matrix: 79 minutes against 1.52.5 for the Linux jobs, so the Windows VM's boot, setup, and filesystem costs dominated every pull request's critical path.
The question the experiment answered: can a plain Linux runner produce an equivalent win32 signal for the blocking surfaces at Linux wall clock, so no Windows VM sits on the pull-request path at all?
## Decision
The required pull-request `windows` job in [ci.yml](../../../../.github/workflows/ci.yml) (`windows node 24 / wine blocking`) runs the blocking gate commands on `ubuntu-latest` under Wine with real Windows binaries: a checksum-verified win-x64 Node.js executes `tsc -b`, `tsdown`, and the VitePress production build, so the win32 branches of the toolchain — backslash path handling, `CreateProcess` spawn semantics, PE loading of `@esbuild/win32-x64`, and the rolldown/rollup MSVC `.node` addons — actually execute. The master `serial-windows` job is untouched: the complete native-kernel inventory, including the observational portability gates this lane does not run, still executes on real `windows-2025` on every master push.
Dependencies install natively on Linux with `supportedArchitectures` extended to win32-x64, which materializes the Windows platform packages in the same store; the cmd-shim layer is bypassed by invoking each tool's JavaScript entrypoint directly, the same processes `run-gates` ultimately spawns. `nodeLinker: hoisted` is load-bearing, not stylistic: the independent prototype in [PR #689](https://github.com/deepseek-harness/deepseek-harness/pull/689) kept pnpm's default isolated layout — including a faithful offline Windows-pnpm re-install over a Linux-prefetched store — and Windows Node under Wine still could not resolve `@esbuild/win32-x64` or load the koffi prebuild through the isolated symlink chain, failing before any repository gate ran. A flat layout with real files is what makes the gates reachable at all; #689's checksum pinning is adopted, while its Windows-pnpm-installs-the-tree goal is explicitly given up (the install contract stays Linux-tested here).
The lane holds the wall clock of the Linux CI jobs through four levers: the master-refreshed pnpm store cache (restore-only, same key as the Linux jobs), Wine provisioning (apt install, Windows Node download, `wineboot`) running concurrently with `pnpm install`, the two blocking surfaces running concurrently — the same shape `run-gates` gives them on native Windows — and an apt-archive cache keyed on the runner image, seeded from master by the `wine apt cache` job so every pull request restores from the default-branch scope.
Four environment constraints shape the job, each found as a red run: Ubuntu's `wine64` package alone puts nothing on PATH (install `wine`, the dispatcher); Node under Wine cannot attach stdio to the Actions runner's pipes (`Socket open EBADF` at bootstrap — every invocation routes stdio through a file); Wine does not realpath pnpm's isolated-layout Unix symlinks (the hoisted layout above); and Wine cannot create Windows symlinks (`ENOTSUP` from VitePress's `linkVue` — the `vue` link is laid down host-side before the gate).
## Measured results
Measured on 2026-07-27, warm caches, pull-request trigger, standard 2-core `ubuntu-latest`: 2m46s end-to-end — setup and cache restores ~17s, concurrent install+provision 33s, concurrent gates 110s — against 1.52.5 minutes for the Linux CI jobs and 79 minutes for the replaced `windows-2025` job. A cold-cache run pays roughly one extra minute. An 8-core benchmark leg was defined during the experiment but never left the restricted `dsh-ubuntu-*` pool's queue; the standard-runner number met the target, so no larger box is used.
## Alternatives considered
**Keep the hosted `windows-2025` pull-request job (status quo).** Nothing wrong with its signal, only its latency: 79 minutes for two build commands, the slowest required job in the matrix. It survives as the master serial reference, where completeness matters more than latency.
**A full Windows guest under QEMU/KVM inside the Linux runner.** Real NT kernel, so full fidelity including case-insensitive NTFS and ConPTY — but tens of minutes of image download and unattended install before the first gate runs (40m19s measured end-to-end on the sibling experiment branch `exp/kvm-windows-ci`). Promotable only with disk-image caching that pressures the Actions cache budget.
**Windows pnpm performing the install under Wine ([PR #689](https://github.com/deepseek-harness/deepseek-harness/pull/689)).** The higher-fidelity variant of this same idea: MinGit and pnpm staged into the prefix, a Linux prefetch filling the store, then `pnpm install --offline` run by Windows Node so the install contract itself executes as win32. It reached the install but not the gates — Wine's networking could not reach the registry directly, and the isolated `node_modules` layout defeated resolution of the Windows platform packages even after a clean offline install. This lane trades that fidelity away (hoisted layout, Linux-side install) to reach the gates; the two records are complementary halves of the same verdict.
**Filesystem-semantics lanes on Linux (casefolded ext4, filename lint).** Catches the highest-frequency Windows breakage class for near-zero cost but proves nothing about win32 binaries. Explored as the sibling experiment branch `exp/casefold-windows-ci`; complementary to, not competitive with, this lane.
**Windows containers.** Not possible: Windows containers require a Windows host kernel; a hosted Linux runner cannot run them.
**Dropping the Windows lane.** Rejected — win32 is a first-class product target: the koffi-backed DACL and durable-namespace modules, ConPTY-based PTY sessions, and Windows path policy all ship in `packages/`.
## Consequences
Every pull request's Windows verdict now arrives in Linux-job time on free standard capacity, and no Windows VM allocation sits on the pull-request critical path; `all checks passed` consumes the same `windows` job id it always did.
What the trade costs: Wine reimplements Win32 over a case-sensitive ext4 — NTFS case-insensitivity, real DACLs, ConPTY, and crash-durability semantics are not proved here, and the observational portability inventory (duplication, publint, node-next types, built-package invariants on win32) no longer runs on pull requests at all. The master `serial-windows` reference owns all of that: a Wine-green pull request can still fail the native-kernel master run, and that failure mode is accepted as post-merge. The lane also inherits Wine-specific divergences as permanent job structure — file-routed stdio, the host-side `vue` link, the hoisted layout — so a future toolchain change that depends on isolated-layout semantics or in-process symlink creation will surface here first as a Wine failure rather than a product failure, and triage must classify it as such. If Wine reds ever recur without product cause, the recorded fallback is reverting the `windows` job to the pre-Wine `windows-2025` definition preserved in git history.
@@ -0,0 +1,45 @@
# Agent Note: 在 Linux runner 上用 Wine 运行 Windows 阻断门禁
Status: implemented
[English](2026-07-27-wine-windows-gates-experiment.md) | 中文
## 问题
Pull request 的 Windows 通道存在的意义是证明两个阻断性 win32 表面——workspace 构建与生产站点——它此前运行在托管 `windows-2025` 上,是必需矩阵中最慢的作业:7–9 分钟,对照 Linux 作业的 1.52.5 分钟,因此 Windows VM 的启动、准备与文件系统开销主导了每个 pull request 的关键路径。
实验回答的问题是:一台普通 Linux runner 能否以 Linux 墙钟为阻断表面产出等效的 win32 信号,让 pull request 路径上完全没有 Windows VM
## 决策
[ci.yml](../../../../.github/workflows/ci.yml) 中必需的 pull request `windows` 作业(`windows node 24 / wine blocking`)在 `ubuntu-latest` 上通过 Wine 用真实 Windows 二进制运行阻断门禁命令:校验和验证过的 win-x64 Node.js 执行 `tsc -b``tsdown` 与 VitePress 生产构建,因此工具链的 win32 分支——反斜杠路径处理、`CreateProcess` 派生语义、`@esbuild/win32-x64` 的 PE 加载、以及 rolldown/rollup 的 MSVC `.node` 插件——都真正执行。master 的 `serial-windows` 作业原封不动:完整的原生内核清单,包括本通道不运行的观察性可移植性门禁,仍在每次 master push 时于真实 `windows-2025` 上执行。
依赖在 Linux 上原生安装,`supportedArchitectures` 扩展到 win32-x64,使 Windows 平台包物化进同一个 store;通过直接调用各工具的 JavaScript 入口绕开 cmd-shim 层,这正是 `run-gates` 最终派生的那些进程。`nodeLinker: hoisted` 是承重的,不是风格问题:[PR #689](https://github.com/deepseek-harness/deepseek-harness/pull/689) 的独立原型保留了 pnpm 默认的 isolated 布局——包括在 Linux 预取的 store 上忠实地用 Windows pnpm 离线重装——而 Wine 下的 Windows Node 依然无法穿过 isolated 符号链接链解析 `@esbuild/win32-x64` 或加载 koffi 预编译产物,在任何仓库门禁运行前就失败了。扁平的真实文件布局才让门禁变得可达;本通道采纳了 #689 的校验和固定,同时明确放弃其"Windows pnpm 安装依赖树"的目标(安装契约在此仍由 Linux 侧验证)。
该通道靠四个杠杆保持 Linux CI 作业的墙钟:master 刷新的 pnpm store 缓存(只恢复,与 Linux 作业同键)、Wine 供给(apt 安装、Windows Node 下载、`wineboot`)与 `pnpm install` 并发运行、两个阻断表面并发运行——与 `run-gates` 在原生 Windows 上给它们的形状相同——以及按 runner 镜像为键的 apt 归档缓存,由 master 的 `wine apt cache` 作业播种,使每个 pull request 都能从默认分支作用域恢复。
四条环境约束塑造了该作业,每条都以一次红色运行被发现:Ubuntu 的 `wine64` 包本身不往 PATH 放任何东西(要装 `wine` 调度器);Wine 下的 Node 无法把 stdio 接到 Actions runner 的管道上(引导期 `Socket open EBADF`——所有调用都经文件中转 stdio);Wine 不对 pnpm isolated 布局的 Unix 符号链接做 realpath(即上文的 hoisted 布局);Wine 无法创建 Windows 符号链接(VitePress 的 `linkVue``ENOTSUP`——`vue` 链接在门禁前由宿主侧铺好)。
## 实测结果
2026-07-27 实测,热缓存,pull request 触发,标准 2 核 `ubuntu-latest`:端到端 2 分 46 秒——准备与缓存恢复约 17 秒,并发安装+供给 33 秒,并发门禁 110 秒——对照 Linux CI 作业的 1.5–2.5 分钟与被替换的 `windows-2025` 作业的 7–9 分钟。冷缓存约多付一分钟。实验期间定义过 8 核基准腿,但它从未离开受限 `dsh-ubuntu-*` 池的队列;标准 runner 的数字已达标,故不使用更大的机器。
## 考虑过的替代方案
**保留托管 `windows-2025` 的 pull request 作业(现状)。** 其信号没有问题,问题只在延迟:为两条构建命令花 7–9 分钟,是必需矩阵中最慢的作业。它作为 master 串行参照存续——在那里完整性比延迟更重要。
**在 Linux runner 内用 QEMU/KVM 跑完整 Windows 客户机。** 真实 NT 内核,保真度完整,包括大小写不敏感的 NTFS 与 ConPTY——但首个门禁运行前要花数十分钟下载镜像并做无人值守安装(兄弟实验分支 `exp/kvm-windows-ci` 实测端到端 40 分 19 秒)。只有配上会挤压 Actions 缓存预算的磁盘镜像缓存才可晋升。
**在 Wine 下由 Windows pnpm 执行安装([PR #689](https://github.com/deepseek-harness/deepseek-harness/pull/689))。** 同一想法的更高保真度变体:把 MinGit 与 pnpm 放进 prefix,用 Linux 预取填充 store,再由 Windows Node 运行 `pnpm install --offline`,让安装契约本身以 win32 身份执行。它到达了安装但没到达门禁——Wine 的网络无法直接访问 registry,且 isolated 的 `node_modules` 布局即便在干净的离线安装后也挫败了 Windows 平台包的解析。本通道用掉这份保真度(hoisted 布局、Linux 侧安装)来换取门禁可达;两份记录是同一裁决互补的两半。
**Linux 上的文件系统语义通道(casefold ext4、文件名 lint)。** 以近零成本捕获最高频的 Windows 破坏类别,但对 win32 二进制什么也证明不了。作为兄弟实验分支 `exp/casefold-windows-ci` 探索;与本通道互补而非竞争。
**Windows 容器。** 不可行:Windows 容器要求 Windows 宿主内核;托管 Linux runner 无法运行。
**砍掉 Windows 通道。** 已否决——win32 是一等产品目标:基于 koffi 的 DACL 与持久命名空间模块、基于 ConPTY 的 PTY 会话、以及 Windows 路径策略都随 `packages/` 交付。
## 结果
每个 pull request 的 Windows 裁决现在以 Linux 作业的时间在免费标准容量上到达,pull request 关键路径上不再有任何 Windows VM 分配;`all checks passed` 消费的仍是原来的 `windows` 作业 id。
这笔交易的代价:Wine 在大小写敏感的 ext4 之上重实现 Win32——NTFS 大小写不敏感、真实 DACL、ConPTY 与崩溃持久性语义在此都未被证明,且观察性可移植性清单(duplication、publint、node-next 类型、win32 上的构建包不变量)完全不再于 pull request 上运行。master 的 `serial-windows` 参照拥有这一切:Wine 绿灯的 pull request 仍可能在原生内核的 master 运行上失败,该失败模式被接受为合并后处理。该通道还把 Wine 特有的分歧继承为永久的作业结构——文件中转的 stdio、宿主侧的 `vue` 链接、hoisted 布局——因此未来依赖 isolated 布局语义或进程内符号链接创建的工具链变更会先在这里以 Wine 失败而非产品失败的形式浮现,分诊必须如此归类。若 Wine 红灯在无产品原因的情况下反复出现,记录在案的退路是把 `windows` 作业还原为 git 历史中保存的 Wine 之前的 `windows-2025` 定义。
@@ -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
2026-07-26-consolidate-gate-scripts-on-existing-deps.md: 0bf32e01ea407e2718f8ec39ca962587a37df9cc
2026-07-26-consolidate-gate-scripts-on-existing-deps.zh.md: ba9f157a61ffdc415acf9b2a61857026fc2c8bf1
2026-07-26-consolidate-gate-scripts-on-existing-deps.md: 6370c8f92eff7296327e941e698ec4f733100bb2
2026-07-26-consolidate-gate-scripts-on-existing-deps.zh.md: 3587c92e0e9655d8b38d24d184c1c68c44b131d4
@@ -0,0 +1,33 @@
# Agent Note: Consolidate gate scripts on already-present deps and builtins
Status: implemented
English | [中文](2026-07-26-consolidate-gate-scripts-on-existing-deps.zh.md)
## Problem
The `scripts/` gates mostly used the right tools (`node:fs` `globSync` in 15+ gates, mdast/micromark in the markdown gates), but a handful of stragglers hand-rolled what a sibling gate already did with an existing dependency or builtin:
- **Duplicated fence scanners.** `scripts/md-fences.ts` (~55 lines, consumed by `doc-typecheck.ts`) and `extractEquivBlocks` in `scripts/verify-type-equiv.ts` (~39 lines) were two copies of the same regex line-scanner for fenced code blocks, while `scripts/verify-mermaid.ts` already extracted fences by visiting mdast `code` nodes — and `markdownProseLines` in `scripts/markdown.ts` itself parsed to mdast but then hand-tracked fence state with a second regex. The regex scanners only recognized backtick fences at column 0, so they silently disagreed with the mdast-based gates on tilde and indented fences.
- **Hand-rolled argv parsing.** `parseOptions` in `scripts/publint-all.ts` and its near-identical copy in `scripts/verify-built-package-invariants.mjs` (~26 lines) stepped argv indexes manually, while sibling scripts (`verify-runtime-closure.ts`, `build-exe-for-python-sdk.ts`, `packages/sdk/scripts/src/args.ts`) already used the `node:util` `parseArgs` builtin.
- **Hand-rolled directory walks.** Five sites re-derived nested `readdirSync` walks that `globSync` covers: `verify-runtime-closure.ts` (packages + vendor manifests), `dev-web.ts` `discoverPluginDirs`, `verify-package-paths.ts` `realPackageNames`, `verify-client-domain-graph.ts` `listSources`, and `publint-all.ts` `addPath` (~5565 lines total). `scripts/package-invariants.ts` shows the one-line `globSync` template.
No new dependency was needed anywhere; every replacement is an existing devDep or a Node builtin.
## Decision
- A shared mdast fence helper, `markdownFences` in `scripts/markdown.ts`, visits `code` nodes for the language, full info string, body, and 1-based opening-fence line; `doc-typecheck.ts` and `verify-type-equiv.ts` extract fences through it. `md-fences.ts` and the duplicated `extractEquivBlocks` scanner are deleted, and `markdownProseLines` derives fenced lines from the parsed `code` nodes' positions instead of a second regex.
- Both CLIs parse argv via `parseArgs`; unknown options and missing values still fail loud, with `parseArgs`'s own error text instead of the bespoke usage strings.
- The five straggler walks use `globSync`. The walks in `check-workspace-constraints.ts` and `clean.ts` stay: they need dirent-level detail to diagnose malformed trees, which glob-by-pattern cannot report.
## Alternatives considered
- **A new glob/walking dependency (`tinyglobby`, `fdir`).** Rejected: the builtin already won repo-wide; these were stragglers, not a gap.
- **`p-map` for `publint-all.ts`'s ~19-line ordered worker pool.** Deliberately left out: one new devDep for one small deletion is at the edge of the [dependency policy](../process/2026-07-26-dependencies-over-hand-rolling.md) bar, and the pool's requirements (bounded workers, deterministic order, env override) are documented in the [parallel-gates note](../process/2026-07-06-parallel-pre-push-gates.md). Fold it in only if `p-map` earns a second consumer.
- **Leaving the fence scanners.** Rejected: two drifting copies of a parser beside a third correct implementation is exactly the duplication the shared `markdown.ts` helper exists to prevent, and the column-0-backtick-only limitation was a latent inconsistency between sibling gates.
## Consequences
- One fence parser: every markdown gate now classifies fences through mdast, so tilde, indented, and 4-backtick container fences behave identically everywhere. The docs tree contained no fence shape the regex scanners mishandled, so gate results are unchanged on the tree that landed the swap: `pnpm run doc-sync` and each rewritten gate ran before and after with byte-identical output (`doc-typecheck` block/opt-out counts, `verify-type-equiv` match counts, `publint`, `verify-built-package-invariants`, `verify-runtime-closure`, `verify-package-paths`, `verify-client-domain-graph`, and both package-README prose gates).
- `verify-type-equiv` still rejects an unterminated type-equivalence fence: mdast silently closes an unterminated block at end-of-file (its comparisons could then pass), so the shared helper reports whether a closing delimiter exists and the gate errors on an unclosed block, preserving the removed scanner's rejection. The `doc-typecheck` scanner never had that error path.
- `parseArgs` keeps the last value of a duplicated option instead of erroring — a dev-tool edge case the tests don't pin, accepted in exchange for deleting the two bespoke parsers. (Strict mode still rejects a `--`-prefixed token where a value is expected, matching the replaced parsers.)
@@ -0,0 +1,33 @@
# Agent Note: 把门禁脚本统一到已有依赖与内置模块上
Status: implemented
[English](2026-07-26-consolidate-gate-scripts-on-existing-deps.md) | 中文
## 问题
`scripts/` 下的门禁大多本已在用正确的工具(15 个以上的门禁使用 `node:fs``globSync`markdown 门禁使用 mdast/micromark),但少数几个掉队的脚本曾手写同类门禁早已用既有依赖或内置模块完成的事情:
- **重复的围栏扫描器。**`scripts/md-fences.ts`(约 55 行,由 `doc-typecheck.ts` 消费)和 `scripts/verify-type-equiv.ts` 中的 `extractEquivBlocks`(约 39 行)曾是同一个围栏代码块正则行扫描器的两份拷贝,而 `scripts/verify-mermaid.ts` 早已通过访问 mdast `code` 节点来提取代码围栏;`scripts/markdown.ts` 自己的 `markdownProseLines` 也曾先解析成 mdast,再用第二个正则手工跟踪围栏状态。这两个正则扫描器只识别第 0 列的反引号围栏,因此在波浪线围栏和缩进围栏上与基于 mdast 的门禁悄悄不一致。
- **手写的 argv 解析。**`scripts/publint-all.ts` 中的 `parseOptions``scripts/verify-built-package-invariants.mjs` 中与之几乎相同的拷贝(约 26 行)曾手工推进 argv 下标,而同类脚本(`verify-runtime-closure.ts``build-exe-for-python-sdk.ts``packages/sdk/scripts/src/args.ts`)早已在使用 `node:util` 的内置 `parseArgs`
- **手写的目录遍历。**五处代码曾各自重写 `globSync` 已覆盖的嵌套 `readdirSync` 遍历:`verify-runtime-closure.ts` 对 packages 与 vendor manifest(元数据清单)的扫描、`dev-web.ts``discoverPluginDirs``verify-package-paths.ts``realPackageNames``verify-client-domain-graph.ts``listSources`,以及 `publint-all.ts``addPath`(合计约 5565 行)。`scripts/package-invariants.ts` 展示了一行式的 `globSync` 模板。
所有替换都不需要引入新依赖;每一处替换用的都是既有的 devDependency 或 Node 内置模块。
## 决策
- `scripts/markdown.ts` 中的共享 mdast 围栏辅助函数 `markdownFences` 访问 `code` 节点,读取语言、完整 info string、块体以及以 1 起始的开围栏行号;`doc-typecheck.ts``verify-type-equiv.ts` 通过它提取代码围栏。`md-fences.ts` 和重复的 `extractEquivBlocks` 扫描器已删除,`markdownProseLines` 也改为从解析出的 `code` 节点位置推导围栏内的行,而不再用第二个正则。
- 两个 CLI 都改用 `parseArgs` 解析 argv;未知选项和缺失取值仍然大声失败,只是错误文案换成了 `parseArgs` 自带的文本,而非原先手写的用法字符串。
- 那五处掉队的目录遍历改用 `globSync``check-workspace-constraints.ts``clean.ts` 中的遍历保留:它们需要 dirent 级别的细节来诊断结构异常的目录树,按模式匹配的 glob 报告不了这些信息。
## 曾考虑的替代方案
- **新的 glob/目录遍历依赖(`tinyglobby``fdir`)。**不予采纳:内置模块已在全仓库范围内胜出;这几处只是掉队者,不是能力缺口。
- **用 `p-map` 替换 `publint-all.ts` 中约 19 行的有序 worker 池。**刻意未纳入:为一次小删除引入一个新 devDependency,正处在[依赖策略](../process/2026-07-26-dependencies-over-hand-rolling.md)门槛的边缘,而且该池的需求(worker 数量有界、确定性顺序、环境变量覆盖)已记录在[并行 pre-push 门禁决策记录](../process/2026-07-06-parallel-pre-push-gates.md)中。仅当 `p-map` 赢得第二个消费方时再顺带纳入。
- **保留这两个围栏扫描器。**不予采纳:在第三个正确实现旁边放着两份逐渐漂移的解析器拷贝,正是共享的 `markdown.ts` 辅助函数要防止的那种重复;「只认第 0 列反引号」的限制也是同类门禁之间的潜在不一致。
## 后果
- 只剩一个围栏解析器:所有 markdown 门禁现在都经由 mdast 归类代码围栏,因此波浪线围栏、缩进围栏和四反引号容器围栏在各处的行为完全一致。文档树中不存在正则扫描器处理有误的围栏形态,所以在落地这次替换的代码树上门禁结果不变:`pnpm run doc-sync` 及每个被改写的门禁在改动前后各跑一遍,输出逐字节相同(`doc-typecheck` 的块数/opt-out 计数、`verify-type-equiv` 的匹配计数、`publint``verify-built-package-invariants``verify-runtime-closure``verify-package-paths``verify-client-domain-graph`,以及两个包 README 散文门禁)。
- `verify-type-equiv` 仍然拒绝未闭合的类型等价围栏:mdast 会在文件末尾静默闭合未闭合的代码块(其比较随后可能通过),因此共享辅助函数会报告闭合定界符是否存在,门禁在块未闭合时报错,保留了被删扫描器的这条拒绝路径。`doc-typecheck` 的扫描器本来就没有这条错误路径。
- `parseArgs` 对重复出现的选项保留最后一个值而不报错——一个测试未固定的开发工具边缘用例,作为删除两份手写解析器的交换被接受。(严格模式下,需要取值处遇到以 `--` 开头的 token 仍会拒绝,与被替换的解析器行为一致。)
@@ -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
2026-07-26-eventsource-parser-for-deepseek-sse.md: 8a93b7f6c7aa0d428f25e87c44e1d29e884ecc81
2026-07-26-eventsource-parser-for-deepseek-sse.zh.md: b16109d9458f487c7e463cf02e6b2d22fbbde015
2026-07-26-eventsource-parser-for-deepseek-sse.md: e7835bc738b3dec5aefd6011848525f6604e852e
2026-07-26-eventsource-parser-for-deepseek-sse.zh.md: 933b993d479026d8f2bd2dc3173abd9e60823806
@@ -0,0 +1,28 @@
# Agent Note: Replace the hand-rolled SSE parser in llm-deepseek with eventsource-parser
Status: implemented
English | [中文](2026-07-26-eventsource-parser-for-deepseek-sse.zh.md)
## Problem
`packages/llm/llm-deepseek/src/sse.ts` hand-implemented Server-Sent Events parsing: a streaming `TextDecoder`, event-block splitting on `\r?\n\r?\n`, `data:` payload extraction and joining, comment/field skipping, the `[DONE]` sentinel, a `STREAM_CLOSED` error on EOF without it, and a flush of a final unterminated event block. The file was ~67 lines with ~108 lines of dedicated tests (`tests/sse.spec.ts`) re-proving SSE spec behavior — UTF-8 split across chunks, CRLF handling, multi-`data:` joining, no-space-after-colon — that a maintained parser already guarantees. Its only consumer is `adapter.ts` (`yield* translate(parseSse(response.body))`).
This is exactly the surface `eventsource-parser` owns: the de-facto standard SSE parser (it underlies the Vercel AI SDK and the MCP SDK), zero-dependency, actively maintained, and already present in this repo's lockfile transitively via `@modelcontextprotocol/sdk` — so adopting it directly adds no new supply-chain surface in practice.
## Decision
`sse.ts` delegates SSE framing to `EventSourceParserStream` from `eventsource-parser/stream`: `parseSse` pipes the response body through `new TextDecoderStream()` then `new EventSourceParserStream()` and keeps only the DeepSeek protocol shim — yield each event's `data`, terminate on `[DONE]`, and throw `LlmError('STREAM_CLOSED')` when the stream ends without the sentinel. All required builtins (`TextDecoderStream`, `pipeThrough`, async-iterable `ReadableStream`) exist at the Node ^22.19 engine floor. The spec-conformance tests are gone; `tests/sse.spec.ts` pins only the `[DONE]`/`STREAM_CLOSED`/EOF contract. `eventsource-parser` is `llm-deepseek`'s second runtime dependency after schemastery. The [twin-adapters note](../architecture/2026-06-13-twin-llm-adapters.md) and the `dsh-llm` JSDoc that branded this adapter "hand-rolled fetch + SSE parsing" now describe it as direct fetch with library-framed SSE.
The library also strips a leading BOM (the hand-rolled parser would fail to match `data:` after one) and offers `maxBufferSize` hardening the hand-rolled parser lacked.
## Alternatives considered
- **Keep the hand-rolled parser.** Defensible under the [twin-adapters decision](../architecture/2026-06-13-twin-llm-adapters.md): the adapter is deliberately the hand-rolled design-verification twin of the pi-ai adapter. But that note's load-bearing distinction is owning the fetch/translate internals versus delegating to a full provider SDK; a ~700-byte SSE micro-parser is transport plumbing, not the design under verification. The twin-adapters note now states that reading explicitly.
- **`createParser({onEvent})` callback API instead of the stream.** Works fed by a manual `TextDecoder` loop, but the `pipeThrough` composition deletes more of the hand-rolled code.
## Consequences
- The remaining shim only encodes the DeepSeek `[DONE]`/`STREAM_CLOSED` protocol; SSE framing edge cases are eventsource-parser's contract and are no longer re-proven here.
- One deliberate robustness deviation is dropped: the hand-rolled parser flushed a final event block that lacked its terminating blank line, so a trailing `data: [DONE]` without `\n\n` still yielded DONE. eventsource-parser is spec-strict and only dispatches on the blank line, so that shape is now `STREAM_CLOSED`. Real providers and `dsh-llm-mock-server` always terminate events properly — the flush was a robustness nicety, not an observed provider shape — and `tests/sse.spec.ts` pins the new truncation verdict for that tail.
- The documented "hand-rolled" identity of the twin adapter narrows to the fetch/translate internals; the twin-adapters note was updated in the same change rather than leaving the claim stale.
@@ -0,0 +1,28 @@
# Agent Note: 用 eventsource-parser 替换 llm-deepseek 中手写的 SSE 解析器
Status: implemented
[English](2026-07-26-eventsource-parser-for-deepseek-sse.md) | 中文
## 问题
`packages/llm/llm-deepseek/src/sse.ts` 曾手写实现 SSEServer-Sent Events)解析:一个流式 `TextDecoder`、按 `\r?\n\r?\n` 切分事件块、提取并拼接 `data:` 载荷、跳过注释与其他字段、`[DONE]` 哨兵、在未见哨兵即 EOF 时抛出 `STREAM_CLOSED` 错误,以及对最后一个未终结事件块的 flush。该文件约 67 行,另有约 108 行专属测试(`tests/sse.spec.ts`)重复验证 SSE 规范行为——UTF-8 字符被切分到多个分片、CRLF 处理、多条 `data:` 拼接、冒号后无空格——而这些行为,持续维护的解析器早已有保证。它唯一的消费方是 `adapter.ts``yield* translate(parseSse(response.body))`)。
这恰好是 `eventsource-parser` 负责的接口面:事实标准的 SSE 解析器(Vercel AI SDK 和 MCP SDK 都构建在它之上),零依赖,持续维护,并且已通过 `@modelcontextprotocol/sdk` 作为传递依赖出现在本仓库的 lockfile 中——因此直接采用它实际上不增加新的供应链接触面。
## 决策
`sse.ts` 将 SSE 分帧委托给 `eventsource-parser/stream``EventSourceParserStream``parseSse` 把响应 body 依次管道接入 `new TextDecoderStream()``new EventSourceParserStream()`,只保留 DeepSeek 协议垫层——逐个产出事件的 `data`,遇到 `[DONE]` 终止,流在未见哨兵时结束则抛出 `LlmError('STREAM_CLOSED')`。所需的全部内置能力(`TextDecoderStream``pipeThrough`、可异步迭代的 `ReadableStream`)在 Node ^22.19 引擎下限即已存在。规范符合性测试已删除;`tests/sse.spec.ts` 只固定 `[DONE]`/`STREAM_CLOSED`/EOF 契约。`eventsource-parser``llm-deepseek` 继 schemastery 之后的第二个运行时依赖。曾把该适配器标为「手写 fetch + SSE 解析」的[孪生适配器 Agent Noteagent 决策记录)](../architecture/2026-06-13-twin-llm-adapters.md)与 `dsh-llm` JSDoc,现在将其描述为直接 fetch 加库分帧的 SSE。
该库还会剥离开头的 BOM(手写解析器在 BOM 之后会无法匹配 `data:`),并提供手写解析器缺少的 `maxBufferSize` 加固能力。
## 曾考虑的替代方案
- **保留手写解析器。** 依据[孪生适配器决策](../architecture/2026-06-13-twin-llm-adapters.md),这一选择有辩护余地:该适配器有意作为 pi-ai 适配器的手写设计验证孪生体。但那份 Agent Note 起支撑作用的区分在于「自行持有 fetch/translate 内部实现」与「委托给完整的提供方 SDK」;一个约 700 字节的 SSE 微型解析器属于传输层管道,不是被验证的设计本身。孪生适配器 Agent Note 现已明确写出这一解读。
- **改用 `createParser({onEvent})` 回调 API 而非流。** 配合手动的 `TextDecoder` 循环可以工作,但 `pipeThrough` 组合方式能删除更多手写代码。
## 后果
- 剩下的垫层只编码 DeepSeek 的 `[DONE]`/`STREAM_CLOSED` 协议;SSE 分帧边界情形属于 eventsource-parser 的契约,不再在这里重复验证。
- 放弃了一处有意为之的健壮性偏离:手写解析器会 flush 缺少终结空行的最后一个事件块,因此末尾的 `data: [DONE]` 即使没有 `\n\n` 也仍产出 DONE。eventsource-parser 严格遵循规范,只在空行处分发事件,所以这种形态现在是 `STREAM_CLOSED`。真实提供方和 `dsh-llm-mock-server` 总是正确终结事件——该 flush 只是健壮性上的锦上添花,并非实际观测到的提供方形态——`tests/sse.spec.ts` 固定了对该尾部的新截断判定。
- 孪生适配器有文档记录的「手写」身份收窄到 fetch/translate 内部实现;孪生适配器 Agent Note 在同一次变更中更新,而不是让声明陈旧下去。
@@ -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 .agents/notes/implemented/simplification/2026-07-26-turndown-for-tool-web-html-markdown.md
2026-07-26-turndown-for-tool-web-html-markdown.md: 0e387021e3d3be3011cc0d64d37864b30aec4fdf
2026-07-26-turndown-for-tool-web-html-markdown.zh.md: 44e7d08c1db40a1203e8cda955b521774335e774
@@ -0,0 +1,37 @@
# Agent Note: Replace tool-web's regex HTML-to-markdown converter with turndown
Status: implemented
English | [中文](2026-07-26-turndown-for-tool-web-html-markdown.zh.md)
## Problem
`dsh-tool-web`'s `src/html.ts` (~86 lines, ~40 lines of dedicated tests; deleted by this change) converted fetched HTML to markdown with regexes: strip script/style/noscript/comments, convert `<a>`/`<h1-6>`/`<li>`, decode numeric entities plus a 12-entry named-entity table, collapse whitespace. The module's own JSDoc said "A richer converter can replace it without changing the seam or tool schema", and the README's Known Limitations documented it as "a minimal regex converter, not an HTML parser — tables, images, and nested formatting are lost." The [web capability seam note](../architecture/2026-06-24-web-capability-seam.md) assigns HTML→markdown to this package as presentation, so the swap point was exactly here. The converter's output is model-visible on every fetched HTML page; no keyless snapshot exercised `web_fetch`, so no expected outputs pinned it.
## Decision
`packages/web/tool-web/src/fetch.ts` owns a module-level [`turndown`](https://github.com/mixmark-io/turndown) instance (`headingStyle: 'atx'`, `codeBlockStyle: 'fenced'`, `bulletListMarker: '-'` — fixed model-facing presentation, not deployment tunables) with `@joplin/turndown-plugin-gfm`'s composite `gfm` plugin for tables/strikethrough and `remove(['script', 'style', 'noscript'])` replacing the old wholesale drops. `formatFetchOutput` limits both the source prefix converted synchronously and the complete rendered output with `fetchMaxOutputChars` (default 200,000), so a custom provider cannot make conversion work unbounded before the output cap applies. The HTML arm then guards conversion twice: a conservative linear lexical pass treats comment contents conservatively, skips raw-text bodies, honors quoted tag text, and passes a body through raw when its stack crosses 512 levels; a try/catch also falls back to raw HTML when turndown rejects markup the guard cannot model. The GFM cell rule is overridden to ignore `colspan`, which Markdown cannot represent, rather than letting an untrusted numeric attribute synthesize arbitrary empty cells. `html.ts` and its conversion tests are deleted; the source/output bounds, fallback, and status-header/truncation-footer formatting are tested in `tests/tool-web.spec.ts`, and the README's Known Limitations trades the regex-converter caveat for the bounded degradation cases. The gfm plugin ships no types; `src/turndown-plugin-gfm.d.ts` declares the one imported export over `@types/turndown` (a devDependency).
The dependency-weight question the proposal flagged resolves in favor of the swap: `@deepseek-ai/dsh-tool-web` is in the single-file-executable closure ([single-exe note](../architecture/2026-07-10-single-file-executable-sdk-runtime-distribution.md)), and the exe's asset globs would pack ~7.9 MB of the three packages as published — but ~6 MB of that is `@mixmark-io/domino`'s test corpus (`test/**`), with runtime `lib/` at ~550 KB against a ~174 MB artifact, under 0.5% either way.
## Snapshot coverage
The previously-missing keyless `web_fetch` snapshot ships with the change as the acp-agent scenario `web-fetch`: `examples/acp-agent/web.cordis.yml` composes the web seam, the real `dsh-web-fetch-local` provider, `tool-web` with `search: false`, and `web-fetch-fixture-server.mjs` — a loopback HTTP fixture on a fixed port (the fetched URL is part of the recorded transcript) serving deterministic HTML with named entities, a GFM table, and nested formatting. Recording and keyless replay both drive the real HTTP fetch and conversion; the pinned tool result is the turndown output, and the scenario pins the `web` header class (the `web_fetch` schema and guidance).
## Alternatives considered
- **`@mozilla/readability` + a DOM.** Solves a different problem (content extraction, not conversion) and drags a heavier DOM dependency; the seam only asks for markdown rendering of whatever the fetch returned.
- **Keep the regex converter.** It was an explicit v1 placeholder per its own JSDoc; keeping it meant model-visible quality (tables, images, nested formatting) stayed lost for the cost of maintaining bespoke entity tables.
- **The minimal `entities`-only variant.** The proposal's fallback position: replace only the entity-decoding third of `html.ts` with the zero-dependency `entities` package, deleting less but avoiding the dependency-weight question. Not taken because the closure math above made the weight immaterial while the full swap deletes the whole hand-rolled converter and its documented quality gaps.
- **`turndown-plugin-gfm` (the original) instead of `@joplin/turndown-plugin-gfm`.** The original is unmaintained (last publish 2018); the Joplin fork is current against turndown 7 and actively released.
## Consequences
- **Bought**: standards-based model-visible markdown — ordinary tables, images, strikethrough, nested emphasis, fenced code blocks, and the complete named-entity set — plus the deletion of the bespoke converter and its entity tables.
- **Paid**: two runtime dependencies (`turndown``@mixmark-io/domino`) enter tool-web and therefore the exe closure (~550 KB of runtime code as measured above); overlong input is converted only through a bounded prefix, pathological nesting falls back to raw HTML, and spanning table cells are flattened because GFM has no corresponding syntax.
- Model-visible output changed on every fetched HTML page; nothing pinned the old output, and the new snapshot pins the new one.
## Testing
- `packages/web/tool-web/tests/tool-web.spec.ts` covers the turndown conversion surface (entities, links, tables, nesting, script/style/noscript removal), ignored table spans, source-prefix and complete-output bounds, fast raw-HTML passthrough for deep or deceptively closed nesting, linear handling of malformed tags, the residual converter-throw fallback, and exact and tiny output budgets; per-file coverage on the package src is 100%.
- The `web-fetch` acp-agent snapshot pins the assembled behavior keylessly end to end (real Loader composition, real HTTP fetch, real conversion).
@@ -0,0 +1,37 @@
# Agent Note: 用 turndown 替换 tool-web 的正则 HTML 转 markdown 转换器
Status: implemented
[English](2026-07-26-turndown-for-tool-web-html-markdown.md) | 中文
## 问题
`dsh-tool-web``src/html.ts`(约 86 行,另有约 40 行专属测试;已由本变更删除)曾用正则表达式把抓取到的 HTML 转成 markdown:剥离 script、style、noscript 标签与注释,转换 `<a>`/`<h1-6>`/`<li>`,解码数字实体外加一张 12 项的命名实体表,并折叠空白。该模块自身的 JSDoc 写明「A richer converter can replace it without changing the seam or tool schema」,README 的 Known Limitations 章节也把它记载为「a minimal regex converter, not an HTML parser — tables, images, and nested formatting are lost」。[web 能力 seam 决策记录](../architecture/2026-06-24-web-capability-seam.md)把 HTML 转 markdown 作为呈现职责划归本包(package),因此替换点恰好就在这里。每个抓取到的 HTML 页面上,该转换器的输出都对模型可见;此前没有任何无密钥快照执行到 `web_fetch`,因此没有预期输出固定它的行为。
## 决策
`packages/web/tool-web/src/fetch.ts` 持有一个模块级 [`turndown`](https://github.com/mixmark-io/turndown) 实例(`headingStyle: 'atx'``codeBlockStyle: 'fenced'``bulletListMarker: '-'`——固定的面向模型呈现方式,不是部署可调项),配合 `@joplin/turndown-plugin-gfm` 的组合 `gfm` 插件提供表格/删除线支持,并用 `remove(['script', 'style', 'noscript'])` 替代旧实现的整体剥离。`formatFetchOutput` 通过 `fetchMaxOutputChars`(默认 200,000)同时限制同步转换的源前缀和完整渲染输出,因此自定义提供方无法在输出上限生效前造成无界的转换工作。随后,HTML 分支对转换做双重防护:保守的线性词法扫描会保守处理注释内容,跳过原始文本元素的内容,正确处理标签内的引号文本,并在栈深超过 512 层时将主体作为原始 HTML 直接透传;当 turndown 拒绝守卫无法建模的标记时,try/catch 同样回退为原始 HTML。GFM 单元格规则被覆写为忽略 `colspan`;Markdown 无法表示它,这也避免了不受信任的数值属性凭空合成任意数量的空单元格。`html.ts` 及其转换测试已删除;源/输出上限、回退以及状态头/截断页脚格式化均在 `tests/tool-web.spec.ts` 中有测试覆盖,README 的 Known Limitations 用有界降级情形替换了正则转换器警示。gfm 插件不带类型声明;`src/turndown-plugin-gfm.d.ts` 基于 `@types/turndown`devDependency)声明了唯一被导入的导出。
提案标记的依赖体积问题的裁决结果支持替换:`@deepseek-ai/dsh-tool-web` 在单文件可执行文件闭包内([single-exe 决策记录](../architecture/2026-07-10-single-file-executable-sdk-runtime-distribution.md)),可执行文件的资产 glob 会把这三个包按发布原样打入约 7.9 MB——但其中约 6 MB 是 `@mixmark-io/domino` 的测试语料(`test/**`),运行时 `lib/` 仅约 550 KB,相对约 174 MB 的产物,两种口径都不到 0.5%。
## 快照覆盖
此前缺失的无密钥 `web_fetch` 快照随本变更以 acp-agent 场景 `web-fetch` 落地:`examples/acp-agent/web.cordis.yml` 组合了 web seam、真实的 `dsh-web-fetch-local` 提供方、`search: false``tool-web`,以及 `web-fetch-fixture-server.mjs`——一个固定端口(抓取的 URL 是录制 transcript(文本记录)的一部分)上的回环 HTTP fixture,提供包含命名实体、GFM 表格与嵌套格式的确定性 HTML。录制与无密钥回放都驱动真实的 HTTP 抓取与转换;固定住的工具结果就是 turndown 的输出,该场景同时固定 `web` header 类(`web_fetch` 的 schema 与指引)。
## 曾考虑的替代方案
- **`@mozilla/readability` 加一个 DOM。** 它解决的是另一个问题(内容提取,而非格式转换),还会拖入更重的 DOM 依赖;这个 seam 只要求把抓取返回的内容渲染成 markdown。
- **保留正则转换器。** 按其自身 JSDoc 的说法,它本来就是明确的 v1 占位实现;保留它意味着模型可见的质量(表格、图片、嵌套格式)继续缺失,代价还是维护一套自制实体表。
- **仅引入 `entities` 的最小变体。** 提案中的退守方案:只用零依赖的 `entities` 包替换 `html.ts` 中的实体解码部分,删得更少但完全避开依赖体积问题。未采纳:上述闭包测算表明体积无关紧要,而完整替换能删掉整个手写转换器及其记录在案的质量缺口。
- **用原版 `turndown-plugin-gfm` 而非 `@joplin/turndown-plugin-gfm`。** 原版已无人维护(最后发布于 2018 年);Joplin 分叉与 turndown 7 保持同步并持续发布。
## 后果
- **收益**:基于标准的模型可见 markdown——普通表格、图片、删除线、嵌套强调、围栏代码块以及完整的命名实体集——并删除了自制转换器及其实体表。
- **代价**:两个运行时依赖(`turndown``@mixmark-io/domino`)进入 tool-web 进而进入可执行文件闭包(如上实测约 550 KB 运行时代码);超长输入只转换有界前缀,病态嵌套回退为原始 HTML,跨列表格单元格会被展平,因为 GFM 没有对应语法。
- 每个抓取到的 HTML 页面上模型可见的输出都已变化;旧输出本无任何固定,新快照固定了新输出。
## 测试
- `packages/web/tool-web/tests/tool-web.spec.ts` 覆盖 turndown 转换面(实体、链接、表格、嵌套、script/style/noscript 移除)、被忽略的表格跨列、源前缀与完整输出上限、深层或带欺骗性闭合嵌套的快速原始 HTML 透传、畸形标签的线性处理、残余的转换器抛错回退,以及恰好达到上限和极小的输出预算;该包 src 的逐文件覆盖率为 100%。
- acp-agent 的 `web-fetch` 快照无密钥地端到端固定组装后的行为(真实 Loader 组合、真实 HTTP 抓取、真实转换)。
@@ -1,6 +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
2026-07-18-tui-terminal-state-snapshots.md: 8e86588f69fdb9d615232252ecf57309d440f1cd
2026-07-18-tui-terminal-state-snapshots.zh.md: b70a46830f44e9da663e30745fcdb7ad281592da
# pnpm run verify-translation-pairing --write .agents/notes/implemented/testing/2026-07-18-tui-terminal-state-snapshots.md
2026-07-18-tui-terminal-state-snapshots.md: 18c79bc2d0dabf4d78887354f30a2cdc083899e1
2026-07-18-tui-terminal-state-snapshots.zh.md: d1d4a6ca859e94a153e0bf645a17f03c0dac234b
@@ -33,7 +33,7 @@ The live-model fixtures use `DSH_SNAPSHOT=record`; record mode rewrites their pr
### Semantic terminal projection
The package-local `HeadlessTerminal` implements the same pi-tui `Terminal` interface as the process terminal and feeds every ANSI write into the pinned `@xterm/headless` parser. Snapshot code waits for synchronized frames to quiesce before reading state, so a checkpoint represents a completed screen rather than a timer-dependent write prefix.
The package-local `HeadlessTerminal` implements the same pi-tui `Terminal` interface as the process terminal and feeds every ANSI write into the pinned `@xterm/headless` parser. Snapshot code waits for synchronized frames to quiesce before reading state. The streaming checkpoint freezes the loader interval while allowing real wall-clock delay across one animation tick, so it pins semantic status rather than whichever spinner glyph the scheduler happened to render.
Each expected output projects dimensions, active-buffer and viewport coordinates, lifecycle and cursor state, rows, wrap markers, and non-default style ranges into text. Scroll-heavy cards capture the used buffer; overlays capture the visible viewport. Text and style remain separate so a reviewer can distinguish content changes from presentation changes without decoding ANSI bytes.
@@ -33,7 +33,7 @@ TUI 覆盖分为四个互补层次:
### 语义终端投影
包内的 `HeadlessTerminal` 实现与进程终端相同的 pi-tui `Terminal` 接口,并把每次 ANSI 写入交给固定版本的 `@xterm/headless` 解析器。读取状态前,快照代码会等待同步帧稳定,因此每个检查点表示已经完成的画面,而不是依赖计时的写入前缀
包内的 `HeadlessTerminal` 实现与进程终端相同的 pi-tui `Terminal` 接口,并把每次 ANSI 写入交给固定版本的 `@xterm/headless` 解析器。读取状态前,快照代码会等待同步帧稳定。流式输出检查点会冻结 loader 的 interval,同时保留跨过一次动画 tick 的真实墙钟等待,从而固定语义状态,而非调度器碰巧渲染出的某个加载动画字形
每份预期输出把终端尺寸、活动缓冲区和视口坐标、生命周期与光标状态、各行、换行标记以及非默认样式区间投影为文本。滚动内容较多的卡片捕获已使用缓冲区;浮层捕获可见视口。文本和样式相互分离,评审人无需解码 ANSI 字节即可区分内容变化与呈现变化。
@@ -1,6 +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-web-gui-browser-e2e-lane.md: c4e34b3f44162c7021cb25681eea7e49ac78f672
2026-07-24-web-gui-browser-e2e-lane.zh.md: 466e1c0fc16aac21b87b68cfedaec4fb22a417e2
# pnpm run verify-translation-pairing --write .agents/notes/implemented/testing/2026-07-24-web-gui-browser-e2e-lane.md
2026-07-24-web-gui-browser-e2e-lane.md: d9e0a9660ecd6aeb75e835e68f92c0a268423872
2026-07-24-web-gui-browser-e2e-lane.zh.md: e8c7d1c4596f20d88bd08423549fb6a9f7b0654b
@@ -18,7 +18,7 @@ A plain shared-fixture module (the [testing-policy sanctioned shape](../../../..
`launchWebScaffold()` boots the real web composition from the shipped `apps/cli/cordis.yml` through the vendored Loader's include mechanism — the same tree and mechanism `AppCLIEntry` drives for `dsh web`. Divergences ride include patches over that tree, the ACP `cordis.snapshot.yml` pattern expressed in-process: temp `persistenceRoot`, `workspace-context` disabled (recorded fixtures must not embed this repo's AGENTS.md), `session-title-llm` disabled (its fire-and-forget title call would race the loop for the session's replay cursor), the webserver row pinned to port 0 with the built dist, and in keyless modes `llm-deepseek` disabled. A patch id that stops matching a row fails the boot sweep loudly instead of drifting. The boot runs `chdir`'d to the temp workspace so the api-gateway's `process.cwd()` session default, tool cwds, and fixtures agree; the `dsh web` bin's own glue (argv, profile json, AppCLIEntry) stays held by the keyless CLI smokes in `smoke-real.e2e.ts`. Setup rollback and ordinary close both dispose the Cordis tree before removing the two owned temp roots, attempt every cleanup independently, and report cleanup failures without masking the setup failure.
Keyless model displacement is the disabled adapter row plus `installLlmReplay` filling the open seam on the settled root ctx in providers-catalog mode — never catch-all: with the adapter row disabled no adapter exists, so catch-all would leave `resolveModelContext` unroutable and `compact-basic`'s post-step pressure check would warn every step instead of being provably inert (the published 128k `contextWindow` keeps it inert for small fixtures). The direct install rather than an inserted replay plugin row is deliberate: it returns the `ReplayHandle` the teardown consumption check needs. A scenario with no fixture leaves the seam empty, so a stray stream fails loud with NO_ADAPTER.
Keyless model displacement is the disabled adapter row plus `installLlmReplay` filling the open seam on the settled root ctx in providers-catalog mode — never catch-all: with the adapter row disabled no adapter exists, so catch-all would leave `resolveModelInfo` unroutable and `compact-basic`'s post-step pressure check would warn every step instead of being provably inert (the published 128k `contextWindow` keeps it inert for small fixtures). The direct install rather than an inserted replay plugin row is deliberate: it returns the `ReplayHandle` the teardown consumption check needs. A scenario with no fixture leaves the seam empty, so a stray stream fails loud with NO_ADAPTER.
`seedSession()` seeds cold sessions through the real persistence API — a throwaway `Context` mounting `SessionStore` + `SessionPersistenceJsonl` against the host's root, `create()` + `append()`, one `utimes` backdate for deterministic sidebar order (the `semantic-checkpoint.snapshot.ts` precedent) — never raw file writes, so the seeder knows nothing of bucket hashing, filename encoding, or compression, and the host's zstd default needs no boot knob. Seeds are validated at seed time (parseable, ending in `turn/end` — an open final turn would be mutated by resume's crash repair).
@@ -18,7 +18,7 @@ Web GUI 以一条真实组装链交付——chromium 页面 → client 插件 bu
`launchWebScaffold()` 通过 vendored Loader 的 include 机制,从交付的 `apps/cli/cordis.yml` 启动真实 web 组合——与 `AppCLIEntry``dsh web` 驱动的是同一棵树、同一套机制。差异全部经 include patch 覆盖在这棵树上,即 ACP `cordis.snapshot.yml` 模式的进程内表达:临时 `persistenceRoot`;禁用 `workspace-context`(录制的 fixture 不得嵌入本仓库的 AGENTS.md);禁用 `session-title-llm`(其发后不管的标题调用会与循环争抢会话的回放游标);webserver 行钉到端口 0 加已构建 dist;无密钥模式下禁用 `llm-deepseek`。patch 的 id 一旦不再匹配任何行,boot 扫描会大声失败而不是漂移。boot 在临时工作区 `chdir` 下运行,使 api-gateway 的 `process.cwd()` 会话默认值、工具 cwd 与 fixture 一致;`dsh web` bin 自身的胶水(argv、profile json、AppCLIEntry)仍由 `smoke-real.e2e.ts` 中的无密钥 CLI 冒烟把守。初始化回滚和正常关闭都会先对 Cordis 树执行 dispose(资源释放),再删除 scaffold 持有的两个临时根目录;每项清理都会独立尝试,并会报告清理失败而不掩盖初始化失败。
无密钥的模型替换 = 禁用适配器行的 patch 加 `installLlmReplay` 在停稳的根 ctx 上以提供方目录(providers-catalog)模式填充开放的 seam——绝不用 catch-all:适配器行被禁用后不存在任何适配器,catch-all 会让 `resolveModelContext` 无路由可走,`compact-basic` 的步后压力检查将步步告警,而不是被可证明地闲置(发布的 128k `contextWindow` 使该路径对小 fixture 保持闲置)。选择直接安装而非插入回放插件行是刻意的:直接安装返回收尾消费检查所需的 `ReplayHandle`。没有 fixture 的场景让 seam 保持空置,任何离群的流式调用都会以 NO_ADAPTER 大声失败。
无密钥的模型替换 = 禁用适配器行的 patch 加 `installLlmReplay` 在停稳的根 ctx 上以提供方目录(providers-catalog)模式填充开放的 seam——绝不用 catch-all:适配器行被禁用后不存在任何适配器,catch-all 会让 `resolveModelInfo` 无路由可走,`compact-basic` 的步后压力检查将步步告警,而不是被可证明地闲置(发布的 128k `contextWindow` 使该路径对小 fixture 保持闲置)。选择直接安装而非插入回放插件行是刻意的:直接安装返回收尾消费检查所需的 `ReplayHandle`。没有 fixture 的场景让 seam 保持空置,任何离群的流式调用都会以 NO_ADAPTER 大声失败。
`seedSession()` 通过真实持久化 API 播种冷会话——一次性 `Context` 挂载 `SessionStore` + `SessionPersistenceJsonl` 指向 host 的根目录,`create()` + `append()`,一次 `utimes` 回拨保证侧栏顺序确定(`semantic-checkpoint.snapshot.ts` 先例)——绝不裸写文件,因此播种器对桶哈希、文件名编码、压缩一无所知,host 的 zstd 默认值也无需任何启动开关。种子在播种时即校验(可解析、以 `turn/end` 结尾——未闭合的最终轮次会被恢复(resume)的崩溃修复改写)。
@@ -1,6 +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-domain-kv-storage-and-workspace.md: cd666a47a3cba4dea8846cd0f1373224e6fc456f
2026-07-24-domain-kv-storage-and-workspace.zh.md: 81adf1eb6bc32aa3ca8b9ef4c352fb94f95ace91
# pnpm run verify-translation-pairing --write .agents/notes/proposed/architecture/2026-07-24-domain-kv-storage-and-workspace.md
2026-07-24-domain-kv-storage-and-workspace.md: 230877628428dc88dbddeecfe5f4353cf15e151d
2026-07-24-domain-kv-storage-and-workspace.zh.md: 050f72cd3327f83e2c3f3cefcab63c01e8f112ee
@@ -11,7 +11,9 @@ The host's only persistence surface is the session event log (`packages/session-
- **The workspace entity.** The GUI needs workspace as a real object: path, title, and the list of owned sessions. Ownership belongs to the workspace — "which sessions belong to this workspace" is not any single session's fact, so writing it into the session log is semantically wrong. Until now workspace was only a sidebar visual grouping derived from cwd, with no entity (that conclusion has been overturned).
- **Dynamic session metadata** (the foreseeable second consumer). Cold session listings read only the first log line (an immutable creation-time snapshot); title, terminal status, and anything that evolves with the session is unavailable. The fix direction is a sidecar metadata table — exactly a KV table with high-frequency per-key updates.
Separately, workspace deletion will eventually need to delete its owned sessions, and `SessionPersistence` has no delete primitive nor does the host expose a `session.delete` endpoint — that gap's design is settled in this note, but its implementation is marked future work: this phase touches no session-side code.
Separately, Session deletion needs a `SessionPersistence` delete primitive and a `session.delete` endpoint. That gap's design is settled in this note, but its implementation remains future work.
The later [Workspace registration deletion decision](../../implemented/feature/2026-07-27-workspace-registration-deletion.md) supersedes only that coupling: deleting a Workspace registration preserves its Sessions and their logs, while Session deletion remains separate future work. The cascade design below is therefore not the Workspace GUI delete semantic.
## Proposal
@@ -234,14 +236,14 @@ export class WorkspaceRegistry extends Service {
get(id: WorkspaceId): Workspace | undefined
list(): Workspace[]
resolveByPath(path: string): Promise<Workspace | undefined> // 同 realpath 口径,故 async
// deletefuture work(与 session 级联删一起做,见下);本期不提供任何删除入口
delete(id: WorkspaceId): Promise<boolean> // 只删注册记录;目录与 session 日志保留
}
```
- **Path canon**: the stored value = `fs.realpath(input)` (trailing slashes, `..`, and symlinks all resolved); uniqueness = string equality after normalization (a symlink resolving to the same directory counts as a collision). A missing directory makes create reject outright (realpath fails — a workspace must point at an existing directory; "Create new = make the directory" is upper-layer interaction: mkdir first, then create). The session cwd in attach checks follows the same canon. Single-valued cwd + unique path ⇒ one session structurally belongs to at most one workspace; double bookkeeping is impossible on the write side.
- **Title**: a display name, defaults to `basename(path)`, mutable, duplicates allowed. Ownership is never derived from cwd as a fallback — cwd cannot express ordering, and ownership is a workspace-side fact; sessions started headless belong to no workspace.
- Consumers see only the `Workspace` interface; `WorkspaceEntity` stays inside the package (a single implementation does not pre-split a seam). Entities are unique per id (registry cache); the record snapshot is swapped in place after each write, and the outside sees getters only. Every write funnels through the entity's internal `mutate(fn)``table.update`, with `updatedAt` refreshed inside mutate. Domain objects never cross RPC; next phase the wire layer projects records into zod wire schemas.
- **Workspace deletion is future work as a whole** (settled 2026-07-24): the registry ships no delete method this phase — the half-measure "delete the record, keep the sessions" is not exposed; deletion and the session cascade (`recursive` parameter, running checks, bottom-up order, crash-rerun convergence) land as one complete semantic together with the session delete primitive; the order then is delete sessions one by one → prune the ledger → delete the workspace record.
- **Session deletion remains future work.** The later [Workspace registration deletion decision](../../implemented/feature/2026-07-27-workspace-registration-deletion.md) ships `ctx.workspace.delete(id)` as a metadata-only operation that preserves Sessions and logs. Recursive Session deletion, running checks, and crash-rerun convergence belong to a separate `session.delete` capability.
Consistency doctrine (the ledger = the only ownership authority; the implementation and test baseline):
@@ -285,7 +287,7 @@ Snapshots: no model-visible or assembly surface this phase, none added; next pha
| Not doing | Trigger | Rework point | Groundwork |
| --- | --- | --- | --- |
| The full deletion suite (`SessionPersistence.delete`, the deleted event, `registry.delete` cascade, recursive delete, running checks) | future work starts (before the GUI needs delete interactions) | implement per the future-work section above: the session primitive + `registry.delete(id, { recursive? })` land as one | orchestration rules and rejection table settled in this note; no deletion entry exists this phase, so no half-semantics to stay compatible with |
| Session deletion (`SessionPersistence.delete`, the deleted event, recursive delete, running checks) | a destructive Session-delete product flow starts | implement the session primitive plus `session.delete`; keep it independent from Workspace registration deletion | orchestration rules and rejection table above remain groundwork; Workspace deletion preserves Sessions and logs |
| The `log` facet and the session-backend migration | any phase after this one | sink the medium operations (the reuse audit table is the work list) | the facet structure is in place; both backends' medium code is organized in sinkable shape already |
| Multi-process write protection | two host processes writing one medium | JSON backend file locks; SQLite WAL is natively multi-process | all writes already funnel through the domain's single point; locking touches backends only |
| Cross-process change observation | GUI reconnect awareness | the revision pattern (copy session-persistence) | `domain/changed` already exists in-process |
@@ -296,7 +298,7 @@ Snapshots: no model-visible or assembly surface this phase, none added; next pha
| Cross-table atomic transactions | one business operation touching two tables of one domain atomically | `domain.transact(fn)`; JSON whole-unit rewrite is naturally atomic, SQLite wraps a transaction | — |
| Secondary indexes / conditional queries | in-memory filtering stops scaling (tens of thousands of records) | SQLite JSON1 over the value column, a read-only query facet on the seam | the JSON backend does not follow |
| Moving a session across workspaces | a product need appears | relax the attach check into a "detach first, then attach" orchestration | — |
| RPC/GUI/boot | next phase | `workspace.*` + `session.delete` endpoints, wire schemas, boot mounting, sidebar on real data | this phase's model and semantics are the direct source of the wire projection |
| Session-delete RPC/GUI | a destructive Session-delete product flow starts | `session.delete` endpoint, wire schema, and explicit confirmation UI | Workspace RPC/GUI is shipped separately; no cascade coupling remains |
## Alternatives considered
@@ -317,7 +319,7 @@ Snapshots: no model-visible or assembly surface this phase, none added; next pha
## Acceptance criteria
- This phase's four test suites all green: the shared backend contract suite on both json/sqlite, registry/mount disposer semantics, the domain layer (including the six open steps and fail-loud routing), and full workspace semantics (create/attach checks/consistency doctrine).
- `ctx.workspace` completes the create → attach → list lifecycle under a test assembly (deletion is future work).
- `ctx.workspace` completes the create → attach → list → metadata-only delete lifecycle under a test assembly.
- Zero diff in the session-persistence packages (the acceptance line for not touching the session side this phase).
- No new snapshots this phase (no model-visible or assembly surface); added next phase with the RPC wiring.
@@ -11,7 +11,9 @@ host 侧唯一的持久化面是 session 事件日志(`packages/session-persis
- **workspace 实体**。GUI 要把 workspace 做成真实对象:路径、标题、关联 session 清单。归属关系由 workspace 持有——"哪些 session 属于这个 workspace"不是任何单个 session 自己的事实,塞进 session log 语义不成立。此前 workspace 只是 sidebar 上按 cwd 分组的视觉概念,没有实体(该结论已被推翻)。
- **session 动态元信息**(可预见的第二个消费者)。冷会话列表只读日志首行 header(创建时的不可变快照),title、结束状态这类随会话推进变化的信息拿不到;补齐方向是 sidecar 元数据表——正是一张按 key 高频点更新的 KV 表。
另外,workspace 删除最终需要删除其关联 session,而 `SessionPersistence` 没有删除原语host 也没有 `session.delete` 端点——该空白的设计随本 Note 定案,但实施标记为 future work:本期不动 session 侧任何代码
另外,Session 删除需要 `SessionPersistence` 删除原语 `session.delete` 端点该空白的设计随本 Note 定案,但实现仍属未来工作
后续的 [Workspace 注册记录删除决策](../../implemented/feature/2026-07-27-workspace-registration-deletion.md)取代的仅是上述耦合关系:删除 Workspace 注册记录会保留相关 Session 及其日志,Session 删除仍是独立的未来工作。因此,下文的级联设计并不是 Workspace GUI 的删除语义。
## Proposal
@@ -234,14 +236,14 @@ export class WorkspaceRegistry extends Service {
get(id: WorkspaceId): Workspace | undefined
list(): Workspace[]
resolveByPath(path: string): Promise<Workspace | undefined> // 同 realpath 口径,故 async
// deletefuture work(与 session 级联删一起做,见下);本期不提供任何删除入口
delete(id: WorkspaceId): Promise<boolean> // 只删注册记录;目录与 session 日志保留
}
```
- **path 规范**:落盘值 = `fs.realpath(输入)`(尾斜杠、`..`、符号链接全解析);唯一性 = 规范化后字符串相等(符号链接指向同一目录算撞)。目录不存在时 create 直接 rejectrealpath 失败——workspace 必须指向存在目录;"Create new = 建目录"是上层交互,先 mkdir 再 create)。attach 校验的 session cwd 同口径。cwd 单值 + path 唯一 ⇒ 一个 session 结构上最多归属一个 workspace,双重记账写侧不可能。
- **title**:显示名,默认 `basename(path)`,可改,允许重复。归属不用 cwd 派生兜底——cwd 表达不了排序,归属是 workspace 侧事实;headless 直开的 session 不属于任何 workspace。
- 消费者只见 `Workspace` 接口,`WorkspaceEntity` 不出包(单实现不预拆 seam);实体按 id 唯一(registry 缓存),记录快照写后原地换新,外部只见 getter;所有写收敛到实体内 `mutate(fn)``table.update``updatedAt` 在 mutate 内统一刷。领域对象不过 RPC,下期 wire 层把记录投影成 zod wire schema。
- **workspace 删除整体为 future work**2026-07-24 拍板):本期 registry 不提供 delete 方法——半截的"只删记录session"语义不对外暴露,删除与 session 级联(`recursive` 参数、运行中检查、自底向上、崩溃重跑收敛)作为一个完整语义随 session 删除原语一起落地;届时顺序为逐个删 session → 摘账 → 删记录
- **Session 删除仍属未来工作。** 后续的 [Workspace 注册记录删除决策](../../implemented/feature/2026-07-27-workspace-registration-deletion.md)已将 `ctx.workspace.delete(id)` 作为仅删除元数据、保Session 与日志的操作交付。递归删除 Session、运行中检查和崩溃重跑收敛属于独立的 `session.delete` 能力
一致性口径(账 = 归属唯一依据;实现与测试基准):
@@ -285,7 +287,7 @@ export class WorkspaceRegistry extends Service {
| 不做 | 触发条件 | 返工点 | 预埋 |
| --- | --- | --- | --- |
| 删除全套`SessionPersistence.delete`、deleted 事件、`registry.delete` 级联、递归删、运行中检查) | future work 启动(GUI 需要删除交互前) | 按上文 future work 节实施:session 原语 + `registry.delete(id, { recursive? })` 一体落地 | 编排规则/拒绝清单已定案在本 Note;本期无任何删除入口,无半截语义要兼容 |
| Session 删除(`SessionPersistence.delete`、deleted 事件、递归删、运行中检查) | 破坏性的 Session 删除产品流启动 | 实现 Session 原语 `session.delete`;与 Workspace 注册记录删除保持独立 | 上文编排规则拒绝清单仍是基础;Workspace 删除会保留 Session 与日志 |
| `log` facet 与 session 后端迁移 | 本期后任意期启动 | 介质操作下沉(复用审计表即施工清单) | facet 结构已留位;两后端介质代码本期即按可下沉形状组织 |
| 多进程并发写保护 | 两 host 进程同写一介质 | JSON 后端文件锁;SQLite WAL 天然多进程 | 写全经 domain 单点串行,加锁只动后端 |
| 跨进程变更观测 | GUI 断线重连感知 | revision 模式(抄 session-persistence | 进程内已有 `domain/changed` |
@@ -296,7 +298,7 @@ export class WorkspaceRegistry extends Service {
| 跨表原子事务 | 同域两表一次原子操作需求 | `domain.transact(fn)`JSON 天然原子,SQLite 包事务 | — |
| 二级索引/条件查询 | 内存过滤不动(万级记录) | SQLite JSON1 查 value 列,加只读 query 面 | JSON 后端不陪跑 |
| session 跨 workspace 移动 | 产品需求出现 | attach 校验放宽为"先 detach 后 attach"编排 | — |
| RPC/GUI/boot | 下期 | `workspace.*` + `session.delete` 端点、wire schema、boot 挂载、sidebar 接真数据 | 本期模型与语义即 wire 投影的直接来源 |
| Session 删除 RPCGUI | 破坏性的 Session 删除产品流启动 | `session.delete` 端点、wire schema 与明确的确认 UI | Workspace RPCGUI 已独立交付,不再存在级联耦合 |
## Alternatives considered
@@ -317,7 +319,7 @@ export class WorkspaceRegistry extends Service {
## Acceptance criteria
- 测试矩阵本期四套件全绿:backend 契约共享套件在 json/sqlite 双端、registry/mount disposer 语义、domain 层(含 open 六步与路由 fail-loud)、workspace 全语义(create/attach 校验/一致性口径)。
- `ctx.workspace` 可在测试组装下完成 create → attach → list 生命周期(删除为 future work
- `ctx.workspace` 可在测试组装下完成 create → attach → list → 仅删除元数据的 delete 生命周期。
- session-persistence 包零 diff(本期不动 session 侧的验收线)。
- 本期无新快照(无模型可见面与组装面);下期 RPC 接线时补。
@@ -1,38 +0,0 @@
# Agent Note: Consolidate gate scripts on already-present deps and builtins
Status: proposed
English | [中文](2026-07-26-consolidate-gate-scripts-on-existing-deps.zh.md)
## Problem
The `scripts/` gates mostly use the right tools (`node:fs` `globSync` in 15+ gates, mdast/micromark in the markdown gates), but a handful of stragglers hand-roll what a sibling gate already does with an existing dependency or builtin:
- **Duplicated fence scanners.** `scripts/md-fences.ts` (~55 lines, consumed by `doc-typecheck.ts`) and `extractEquivBlocks` in `scripts/verify-type-equiv.ts` (~39 lines) are two copies of the same regex line-scanner for fenced code blocks, while `scripts/verify-mermaid.ts` already extracts fences by visiting mdast `code` nodes via the shared `scripts/markdown.ts` helpers — and `markdownProseLines` in `markdown.ts` itself parses to mdast but then hand-tracks fence state with a second regex. The regex scanners only recognize backtick fences at column 0, so they silently disagree with the mdast-based gates on tilde and indented fences.
- **Hand-rolled argv parsing.** `parseOptions` in `scripts/publint-all.ts` and its near-identical copy in `scripts/verify-built-package-invariants.mjs` (~26 lines) step argv indexes manually, while sibling scripts (`verify-runtime-closure.ts`, `build-exe-for-python-sdk.ts`, `packages/sdk/scripts/src/args.ts`) already use the `node:util` `parseArgs` builtin.
- **Hand-rolled directory walks.** Five sites re-derive nested `readdirSync` walks that `globSync` covers: `verify-runtime-closure.ts` (packages + vendor manifests), `dev-web.ts` `discoverPluginDirs`, `verify-package-paths.ts` `realPackageNames`, `verify-client-domain-graph.ts` `listSources`, and `publint-all.ts` `addPath` (~5565 lines total). `scripts/package-invariants.ts` shows the one-line `globSync` template.
No new dependency is needed anywhere; every replacement is an existing devDep or a Node builtin.
## Proposal
- Extract a shared ~1015-line mdast fence helper (visiting `code` nodes for `lang`, `meta`, `value`, `position.start.line`) into `scripts/markdown.ts`; rewrite `doc-typecheck.ts` and `verify-type-equiv.ts` onto it; delete `md-fences.ts` and the duplicated scanner; drop the redundant fence regex in `markdownProseLines`.
- Replace both `parseOptions` copies with `parseArgs`.
- Replace the five straggler walks with `globSync`. Keep the walks in `check-workspace-constraints.ts` and `clean.ts`: they need dirent-level detail to diagnose malformed trees, which glob-by-pattern cannot report.
## Alternatives considered
- **A new glob/walking dependency (`tinyglobby`, `fdir`).** Rejected: the builtin already won repo-wide; these are stragglers, not a gap.
- **`p-map` for `publint-all.ts`'s ~19-line ordered worker pool.** Deliberately left out: one new devDep for one small deletion is at the edge of the [dependency policy](../../implemented/process/2026-07-26-dependencies-over-hand-rolling.md) bar, and the pool's requirements (bounded workers, deterministic order, env override) are documented in the [parallel-gates note](../../implemented/process/2026-07-06-parallel-pre-push-gates.md). Fold it in only if `p-map` earns a second consumer.
- **Leaving the fence scanners.** Rejected: two drifting copies of a parser beside a third correct implementation is exactly the duplication the shared `markdown.ts` helper exists to prevent, and the column-0-backtick-only limitation is a latent inconsistency between sibling gates.
## Acceptance criteria
- `md-fences.ts` is gone; `doc-typecheck` and `verify-type-equiv` extract fences through `scripts/markdown.ts`; `pnpm run doc-sync` passes with unchanged results on the current tree (any delta traces to a fence shape the regex scanners mishandled).
- Both CLIs parse via `parseArgs`; unknown options still fail loud.
- The five walk sites use `globSync`; the gates they feed pass unchanged.
## Risks
- Behavioral deltas on pathological markdown: mdast honors tilde/indented fences the regex scanners ignored, so `doc-typecheck`'s opt-out ratio could shift if any stray fence shape exists in the docs tree; verify by running `doc-sync` before/after.
- `parseArgs` keeps the last value of a duplicated option instead of erroring — a dev-tool edge case the tests don't pin. (Strict mode still rejects a `--`-prefixed token where a value is expected, matching the current parsers.)
@@ -1,38 +0,0 @@
# Agent Note: 把门禁脚本统一到已有依赖与内置模块上
Status: proposed
[English](2026-07-26-consolidate-gate-scripts-on-existing-deps.md) | 中文
## 问题
`scripts/` 下的门禁大多已经在用正确的工具(15 个以上的门禁使用 `node:fs``globSync`markdown 门禁使用 mdast/micromark),但少数几个掉队的脚本仍在手写同类门禁早已用既有依赖或内置模块完成的事情:
- **重复的围栏扫描器。**`scripts/md-fences.ts`(约 55 行,由 `doc-typecheck.ts` 消费)和 `scripts/verify-type-equiv.ts` 中的 `extractEquivBlocks`(约 39 行)是同一个围栏代码块正则行扫描器的两份拷贝,而 `scripts/verify-mermaid.ts` 已经通过共享的 `scripts/markdown.ts` 辅助函数访问 mdast `code` 节点来提取代码围栏;`markdown.ts` 自己的 `markdownProseLines` 也是先解析成 mdast,再用第二个正则手工跟踪围栏状态。这两个正则扫描器只识别第 0 列的反引号围栏,因此在波浪线围栏和缩进围栏上与基于 mdast 的门禁悄悄不一致。
- **手写的 argv 解析。**`scripts/publint-all.ts` 中的 `parseOptions``scripts/verify-built-package-invariants.mjs` 中与之几乎相同的拷贝(约 26 行)手工推进 argv 下标,而同类脚本(`verify-runtime-closure.ts``build-exe-for-python-sdk.ts``packages/sdk/scripts/src/args.ts`)已经在使用 `node:util` 的内置 `parseArgs`
- **手写的目录遍历。**五处代码各自重写了 `globSync` 已覆盖的嵌套 `readdirSync` 遍历:`verify-runtime-closure.ts` 对 packages 与 vendor manifest(元数据清单)的扫描、`dev-web.ts``discoverPluginDirs``verify-package-paths.ts``realPackageNames``verify-client-domain-graph.ts``listSources`,以及 `publint-all.ts``addPath`(合计约 5565 行)。`scripts/package-invariants.ts` 展示了一行式的 `globSync` 模板。
所有替换都不需要引入新依赖;每一处替换用的都是既有的 devDependency 或 Node 内置模块。
## 提案
- 在 `scripts/markdown.ts` 中提取一个约 10–15 行的共享 mdast 围栏辅助函数(访问 `code` 节点,读取 `lang``meta``value``position.start.line`);把 `doc-typecheck.ts``verify-type-equiv.ts` 改写到它上面;删除 `md-fences.ts` 和重复的扫描器;去掉 `markdownProseLines` 中冗余的围栏正则。
- 用 `parseArgs` 替换两份 `parseOptions` 拷贝。
- 用 `globSync` 替换那五处掉队的目录遍历。保留 `check-workspace-constraints.ts``clean.ts` 中的遍历:它们需要 dirent 级别的细节来诊断结构异常的目录树,按模式匹配的 glob 报告不了这些信息。
## 曾考虑的替代方案
- **新的 glob/目录遍历依赖(`tinyglobby``fdir`)。**不予采纳:内置模块已在全仓库范围内胜出;这几处只是掉队者,不是能力缺口。
- **用 `p-map` 替换 `publint-all.ts` 中约 19 行的有序 worker 池。**刻意未纳入:为一次小删除引入一个新 devDependency,正处在[依赖策略](../../implemented/process/2026-07-26-dependencies-over-hand-rolling.md)门槛的边缘,而且该池的需求(worker 数量有界、确定性顺序、环境变量覆盖)已记录在[并行 pre-push 门禁决策记录](../../implemented/process/2026-07-06-parallel-pre-push-gates.md)中。仅当 `p-map` 赢得第二个消费方时再顺带纳入。
- **保留这两个围栏扫描器。**不予采纳:在第三个正确实现旁边放着两份逐渐漂移的解析器拷贝,正是共享的 `markdown.ts` 辅助函数要防止的那种重复;「只认第 0 列反引号」的限制也是同类门禁之间的潜在不一致。
## 验收标准
- `md-fences.ts` 已删除;`doc-typecheck``verify-type-equiv` 通过 `scripts/markdown.ts` 提取代码围栏;`pnpm run doc-sync` 在当前代码树上通过且结果不变(如有差异,必须能追溯到正则扫描器处理有误的某种围栏形态)。
- 两个 CLI 都改用 `parseArgs` 解析;未知选项仍然大声失败。
- 五处遍历代码改用 `globSync`;它们供给的门禁保持原样通过。
## 风险
- 病态 markdown 上的行为差异:mdast 会承认正则扫描器忽略的波浪线围栏和缩进围栏,因此如果文档树中存在任何零散的此类围栏形态,`doc-typecheck` 的 opt-out 比例可能变化;应在改动前后分别运行 `doc-sync` 加以验证。
- `parseArgs` 对重复出现的选项保留最后一个值而不报错——一个测试未固定的开发工具边缘用例。(严格模式下,需要取值处遇到以 `--` 开头的 token 仍会拒绝,与现有解析器行为一致。)
@@ -1,33 +0,0 @@
# Agent Note: Replace the hand-rolled SSE parser in llm-deepseek with eventsource-parser
Status: proposed
English | [中文](2026-07-26-eventsource-parser-for-deepseek-sse.zh.md)
## Problem
`packages/llm/llm-deepseek/src/sse.ts` hand-implements Server-Sent Events parsing: a streaming `TextDecoder`, event-block splitting on `\r?\n\r?\n`, `data:` payload extraction and joining, comment/field skipping, the `[DONE]` sentinel, a `STREAM_CLOSED` error on EOF without it, and a flush of a final unterminated event block. The file is ~67 lines with ~108 lines of dedicated tests (`tests/sse.spec.ts`) re-proving SSE spec behavior — UTF-8 split across chunks, CRLF handling, multi-`data:` joining, no-space-after-colon — that a maintained parser already guarantees. Its only consumer is `adapter.ts` (`yield* translate(parseSse(response.body))`).
This is exactly the surface `eventsource-parser` owns: the de-facto standard SSE parser (it underlies the Vercel AI SDK and the MCP SDK), zero-dependency, actively maintained, and already present in this repo's lockfile transitively via `@modelcontextprotocol/sdk` — so adopting it directly adds no new supply-chain surface in practice.
## Proposal
Replace `sse.ts` with `EventSourceParserStream` from `eventsource-parser/stream`: `response.body.pipeThrough(new TextDecoderStream()).pipeThrough(new EventSourceParserStream())`, keeping only the DeepSeek protocol shim (~1025 lines): yield each event's `data`, terminate on `[DONE]`, and throw `LlmError('STREAM_CLOSED')` when the stream ends without the sentinel. All required builtins (`TextDecoderStream`, `pipeThrough`, async-iterable `ReadableStream`) exist at the Node ^22.19 engine floor. Delete the spec-conformance tests; keep the `[DONE]`/`STREAM_CLOSED`/EOF contract tests. Add `eventsource-parser` to `llm-deepseek`'s dependencies (its second runtime dep after schemastery). Update the [twin-adapters note](../../implemented/architecture/2026-06-13-twin-llm-adapters.md) and the `dsh-llm` JSDoc that brand this adapter "hand-rolled fetch + SSE parsing" in the same PR.
The library also strips a leading BOM (the hand-rolled parser would fail to match `data:` after one) and offers `maxBufferSize` hardening the current parser lacks.
## Alternatives considered
- **Keep the hand-rolled parser.** Defensible under the [twin-adapters decision](../../implemented/architecture/2026-06-13-twin-llm-adapters.md): the adapter is deliberately the hand-rolled design-verification twin of the pi-ai adapter. But the note's load-bearing distinction is owning the fetch/translate internals versus delegating to a full provider SDK; a ~700-byte SSE micro-parser is transport plumbing, not the design under verification. Whether that reading stands is the twin-note owner's call — this proposal explicitly needs their sign-off.
- **`createParser({onEvent})` callback API instead of the stream.** Works fed by a manual `TextDecoder` loop, but the `pipeThrough` composition deletes more of the hand-rolled code.
## Acceptance criteria
- `sse.ts`'s parsing internals are gone; the remaining shim only encodes the DeepSeek `[DONE]`/`STREAM_CLOSED` protocol.
- `llm-deepseek` unit tests and the real-API e2e suite pass; keyless snapshots are unchanged (parsing is transport-internal and payload extraction is equivalent).
- The twin-adapters note and `dsh-llm` JSDoc no longer claim hand-rolled SSE parsing.
## Risks
- One deliberate robustness deviation is lost: the hand-rolled parser flushes a final event block that lacks its terminating blank line, and `tests/sse.spec.ts` pins that a trailing `data: [DONE]` without `\n\n` still yields DONE. eventsource-parser is spec-strict and only dispatches on the blank line, so that shape becomes `STREAM_CLOSED`. Real providers and `dsh-llm-mock-server` always terminate events properly, so the pinned behavior is a robustness nicety, not an observed provider shape — drop the test, or keep a tiny buffer-tail check if the deviation is judged load-bearing.
- Dilutes the documented "hand-rolled" identity of the twin adapter; mitigated by updating the note in the same change rather than leaving the claim stale.
@@ -1,33 +0,0 @@
# Agent Note: 用 eventsource-parser 替换 llm-deepseek 中手写的 SSE 解析器
Status: proposed
[English](2026-07-26-eventsource-parser-for-deepseek-sse.md) | 中文
## 问题
`packages/llm/llm-deepseek/src/sse.ts` 手写实现了 SSEServer-Sent Events)解析:一个流式 `TextDecoder`、按 `\r?\n\r?\n` 切分事件块、提取并拼接 `data:` 载荷、跳过注释与其他字段、`[DONE]` 哨兵、在未见哨兵即 EOF 时抛出 `STREAM_CLOSED` 错误,以及对最后一个未终结事件块的 flush。该文件约 67 行,另有约 108 行专属测试(`tests/sse.spec.ts`)重复验证 SSE 规范行为——UTF-8 字符被切分到多个分片、CRLF 处理、多条 `data:` 拼接、冒号后无空格——而这些行为,持续维护的解析器早已有保证。它唯一的消费方是 `adapter.ts``yield* translate(parseSse(response.body))`)。
这恰好是 `eventsource-parser` 负责的接口面:事实标准的 SSE 解析器(Vercel AI SDK 和 MCP SDK 都构建在它之上),零依赖,持续维护,并且已通过 `@modelcontextprotocol/sdk` 作为传递依赖出现在本仓库的 lockfile 中——因此直接采用它实际上不增加新的供应链接触面。
## 提案
`eventsource-parser/stream``EventSourceParserStream` 替换 `sse.ts``response.body.pipeThrough(new TextDecoderStream()).pipeThrough(new EventSourceParserStream())`,只保留 DeepSeek 协议垫层(约 10–25 行):逐个产出事件的 `data`,遇到 `[DONE]` 终止,流在未见哨兵时结束则抛出 `LlmError('STREAM_CLOSED')`。所需的全部内置能力(`TextDecoderStream``pipeThrough`、可异步迭代的 `ReadableStream`)在 Node ^22.19 引擎下限即已存在。删除规范符合性测试;保留 `[DONE]`/`STREAM_CLOSED`/EOF 契约测试。将 `eventsource-parser` 加入 `llm-deepseek` 的依赖(这是它继 schemastery 之后的第二个运行时依赖)。在同一个 PR(Pull Request)中更新[孪生适配器 Agent Noteagent 决策记录)](../../implemented/architecture/2026-06-13-twin-llm-adapters.md)以及 `dsh-llm` 中把该适配器标为「手写 fetch + SSE 解析」的 JSDoc。
该库还会剥离开头的 BOM(手写解析器在 BOM 之后会无法匹配 `data:`),并提供当前解析器缺少的 `maxBufferSize` 加固能力。
## 曾考虑的替代方案
- **保留手写解析器。** 依据[孪生适配器决策](../../implemented/architecture/2026-06-13-twin-llm-adapters.md),这一选择有辩护余地:该适配器有意作为 pi-ai 适配器的手写设计验证孪生体。但那份 Agent Note 起支撑作用的区分在于「自行持有 fetch/translate 内部实现」与「委托给完整的提供方 SDK」;一个约 700 字节的 SSE 微型解析器属于传输层管道,不是被验证的设计本身。这一解读是否成立由孪生 Agent Note 的所有者裁定——本提案明确需要其签署确认。
- **改用 `createParser({onEvent})` 回调 API 而非流。** 配合手动的 `TextDecoder` 循环可以工作,但 `pipeThrough` 组合方式能删除更多手写代码。
## 验收标准
- `sse.ts` 的解析内部实现消失;剩下的垫层只编码 DeepSeek 的 `[DONE]`/`STREAM_CLOSED` 协议。
- `llm-deepseek` 单元测试与真实 API 的 e2e 套件通过;无密钥快照不变(解析属于传输层内部,载荷提取等价)。
- 孪生适配器 Agent Note 与 `dsh-llm` 的 JSDoc 不再声称手写 SSE 解析。
## 风险
- 会失去一处有意为之的健壮性偏离:手写解析器会 flush 缺少终结空行的最后一个事件块,`tests/sse.spec.ts` 固定了「末尾的 `data: [DONE]` 即使没有 `\n\n` 也仍产出 DONE」这一行为。eventsource-parser 严格遵循规范,只在空行处分发事件,因此这种形态会变成 `STREAM_CLOSED`。真实提供方和 `dsh-llm-mock-server` 总是正确终结事件,所以被固定的行为只是健壮性上的锦上添花,并非实际观测到的提供方形态:可以删除该测试;若判定该偏离确有支撑作用,也可以保留一个小型的缓冲区尾部检查。
- 稀释了孪生适配器有文档记录的「手写」身份;缓解方式是在同一次变更中更新那份 Agent Note,而不是让声明陈旧下去。
@@ -1,32 +0,0 @@
# Agent Note: Replace tool-web's regex HTML-to-markdown converter with turndown
Status: proposed
English | [中文](2026-07-26-turndown-for-tool-web-html-markdown.zh.md)
## Problem
`packages/web/tool-web/src/html.ts` (~86 lines, ~40 lines of dedicated tests) converts fetched HTML to markdown with regexes: strip script/style/noscript/comments, convert `<a>`/`<h1-6>`/`<li>`, decode numeric entities plus a 12-entry named-entity table, collapse whitespace. The module's own JSDoc says "A richer converter can replace it without changing the seam or tool schema", and the README's Known Limitations documents it as "a minimal regex converter, not an HTML parser — tables, images, and nested formatting are lost." The [web capability seam note](../../implemented/architecture/2026-06-24-web-capability-seam.md) assigns HTML→markdown to this package as presentation, so the swap point is exactly here. The converter's output is model-visible on every fetched HTML page; no keyless snapshot currently exercises `web_fetch`, so no expected outputs pin it.
## Proposal
Replace `htmlToMarkdown` with `turndown` (`new TurndownService().turndown(html)`), optionally with `turndown-plugin-gfm` for tables. The consumer switch in `fetch.ts` and the status-header/truncation-footer formatting stay. Wrap the call in try/catch falling back to the raw text path: the regex version could never throw; turndown on pathological HTML could. Delete `html.ts` and its conversion tests; keep tests for the fallback and the surrounding formatting. Update the README's Known Limitations to drop the regex-converter caveat.
If the "deliberately minimal fallback" stance is preferred instead, a minimal variant still deletes the worst part: replace the entity-decoding third of the file (~30 lines: `decodeEntities`, `NAMED_ENTITIES`, `safeFromCodePoint`) with the zero-dependency `entities` package (already in the lockfile transitively), erasing the documented "about a dozen entities" limitation at near-zero risk.
## Alternatives considered
- **`@mozilla/readability` + a DOM.** Solves a different problem (content extraction, not conversion) and drags a heavier DOM dependency; the seam only asks for markdown rendering of whatever the fetch returned.
- **Keep the regex converter.** It was an explicit v1 placeholder per its own JSDoc; keeping it means model-visible quality (tables, images, nested formatting) stays lost for the cost of maintaining bespoke entity tables.
- **The minimal `entities`-only variant.** Kept in the proposal as the fallback position; it deletes less but avoids the dependency-weight question entirely.
## Acceptance criteria
- `web_fetch` renders tables/nested formatting via turndown (or, minimal variant: decodes all named entities), with the README limitation updated.
- Unit tests cover the fallback path; `pnpm run test` passes for the package.
- A keyless snapshot exercising `web_fetch` markdown rendering is added per testing policy (the missing snapshot coverage is part of the change, and it pins the new output).
## Risks
- Model-visible output changes on every fetched HTML page — transcript drift is acceptable pre-release, and nothing currently pins the old output.
- Dependency weight: turndown's one dependency (`@mixmark-io/domino`) is a ~200 KB DOM that would enter the single-file-executable closure if tool-web ships in it ([single-exe note](../../implemented/architecture/2026-07-10-single-file-executable-sdk-runtime-distribution.md)); the minimal `entities` variant avoids this if closure size is the deciding factor.
@@ -1,32 +0,0 @@
# Agent Note: 用 turndown 替换 tool-web 的正则 HTML 转 markdown 转换器
Status: proposed
[English](2026-07-26-turndown-for-tool-web-html-markdown.md) | 中文
## 问题
`packages/web/tool-web/src/html.ts`(约 86 行,另有约 40 行专属测试)用正则表达式把抓取到的 HTML 转成 markdown:剥离 script、style、noscript 标签与注释,转换 `<a>`/`<h1-6>`/`<li>`,解码数字实体外加一张 12 项的命名实体表,并折叠空白。该模块自身的 JSDoc 写明「A richer converter can replace it without changing the seam or tool schema」,README 的 Known Limitations 章节也把它记载为「a minimal regex converter, not an HTML parser — tables, images, and nested formatting are lost」。[web 能力 seam 决策记录](../../implemented/architecture/2026-06-24-web-capability-seam.md)把 HTML 转 markdown 作为呈现职责划归本包(package),因此替换点恰好就在这里。每个抓取到的 HTML 页面上,该转换器的输出都对模型可见;当前没有任何无密钥快照执行到 `web_fetch`,因此没有预期输出固定它的行为。
## 提案
`turndown` 替换 `htmlToMarkdown``new TurndownService().turndown(html)`),可选择配合 `turndown-plugin-gfm` 支持表格。`fetch.ts` 中的消费方分支与状态头、截断页脚的格式化保持不变。把调用包在 try/catch 中,失败时回退到原始文本路径:正则版本从不可能抛异常,而 turndown 处理病态 HTML 时可能抛出。删除 `html.ts` 及其转换测试;保留回退路径与外围格式化的测试。更新 README 的 Known Limitations 章节,移除正则转换器的警示说明。
如果更倾向于「刻意保持最小回退实现」的立场,最小变体仍能删掉最糟的部分:用零依赖的 `entities` 包(已通过传递依赖存在于 lockfile 中)替换文件中占三分之一的实体解码部分(约 30 行:`decodeEntities``NAMED_ENTITIES``safeFromCodePoint`),以近乎为零的风险抹掉文档记载的「about a dozen entities」限制。
## 曾考虑的替代方案
- **`@mozilla/readability` 加一个 DOM。** 它解决的是另一个问题(内容提取,而非格式转换),还会拖入更重的 DOM 依赖;这个 seam 只要求把抓取返回的内容渲染成 markdown。
- **保留正则转换器。** 按其自身 JSDoc 的说法,它本来就是明确的 v1 占位实现;保留它意味着模型可见的质量(表格、图片、嵌套格式)继续缺失,代价还是维护一套自制实体表。
- **仅引入 `entities` 的最小变体。** 已作为退守方案保留在提案中;它删得更少,但完全避开了依赖体积问题。
## 验收标准
- `web_fetch` 经由 turndown 渲染表格与嵌套格式(或在最小变体下:解码全部命名实体),README 中的限制说明同步更新。
- 单元测试覆盖回退路径;该包的 `pnpm run test` 通过。
- 按测试政策补充一个执行 `web_fetch` markdown 渲染的无密钥快照(缺失的快照覆盖是本变更的一部分,它同时固定新输出)。
## 风险
- 模型可见的输出在每个抓取到的 HTML 页面上都会变化:预发布阶段的 transcript(文本记录)漂移可以接受,且当前没有任何东西固定旧输出。
- 依赖体积:turndown 的唯一依赖(`@mixmark-io/domino`)是一个约 200 KB 的 DOM 实现,若 tool-web 进入单文件可执行文件,它会一并进入闭包([single-exe 决策记录](../../implemented/architecture/2026-07-10-single-file-executable-sdk-runtime-distribution.md));若闭包体积是决定因素,最小的 `entities` 变体可以避开这一点。
@@ -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
2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.md: 047449f4915c973e86cdb9f05f6dc51535133534
2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.zh.md: 379d57e1e0006bf8f567d0b750ca0bb641ca6b49
2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.md: 236139f9198f178d44cdf0867cbad2377a127359
2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.zh.md: 3932f73a2bf147ce5088b5c42e85982c70cdb945
@@ -1,6 +1,6 @@
# Agent Note: Evaluate landstrip before building a Windows sandbox launcher
Status: proposed
Status: rejected — landstrip is not battle-tested (a days-old single-maintainer project, ~48 GitHub stars at rejection); a security-invariant dependency must have proven adoption, so the win32 rung keeps the in-house-launcher plan
English | [中文](2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.zh.md)
@@ -1,6 +1,6 @@
# Agent Note: 在构建 Windows 沙箱启动器之前先评估 landstrip
Status: proposed
Status: rejected — landstrip 未经实战检验(问世仅数天、单一维护者、驳回时 GitHub 星标约 48 个);安全不变式级的依赖必须有成熟的采用度,因此 win32 梯级维持自研启动器的原计划
[English](2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.md) | 中文
@@ -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
2026-07-26-dependency-swaps-rejected-by-nih-audit.md: b1815967698f24cffc4abb07da364fa8a008cb6c
2026-07-26-dependency-swaps-rejected-by-nih-audit.zh.md: 7f04ed15461f004e61c1de5729b2235b1a35b0ba
2026-07-26-dependency-swaps-rejected-by-nih-audit.md: 9cdb061bf21a7b9ce4747b9022c65d60e9644e0d
2026-07-26-dependency-swaps-rejected-by-nih-audit.zh.md: 9648af149c0c517eba372baa12877240f9289aac
@@ -18,7 +18,7 @@ Adopt the following dependency swaps. Rejected — per-item evidence below; a fu
- **`vscode-languageserver-types` for lsp-local's wire-type subset**: ~80 type lines and ~45 guard lines, but upstream guards differ in both directions (accept `uri: undefined` the repo must reject; require `targetRange` the repo tolerates absent), and the initialize-result shapes live in `vscode-languageserver-protocol`, dragging `vscode-jsonrpc` in as a runtime dep — ~1 MB for 80 spec-exact lines.
- **`json-rpc-2.0` for `dsh-jsonrpc`**: deletable correlation/dispatch is real (~100130 lines) but the NDJSON wire must stay bit-identical for the hand-rolled Python SDK client, the package is single-maintainer, and the [GUI RPC note](../../implemented/architecture/2026-07-19-gui-layering-and-rpc-protocol.md) already treats this package as a frozen narrow surface. `vscode-jsonrpc` is a worse fit still (Content-Length framing, cancellation vocabulary the protocol lacks).
- **`jsonrpcclient` for the Python SDK client**: v4 builds/parses messages only — ~20 lines — while the 500 lines that matter (subprocess lifecycle, threaded reader, id correlation, bidirectional server-role responses) stay; the library is in low-maintenance mode.
- **`eventsource-parser` for apiproxy's `readSse`**: only ~15 lines of framing are deletable, both wire ends are in-repo so spec conformance is moot, and it would add a dep to a browser-safe package. (Contrast with the [llm-deepseek proposal](../../proposed/simplification/2026-07-26-eventsource-parser-for-deepseek-sse.md), where a real provider sits across the wire.)
- **`eventsource-parser` for apiproxy's `readSse`**: only ~15 lines of framing are deletable, both wire ends are in-repo so spec conformance is moot, and it would add a dep to a browser-safe package. (Contrast with the [llm-deepseek proposal](../../implemented/simplification/2026-07-26-eventsource-parser-for-deepseek-sse.md), where a real provider sits across the wire.)
**Retry, timers, async:**
@@ -67,7 +67,7 @@ Adopt the following dependency swaps. Rejected — per-item evidence below; a fu
- **`syncpack`/`manypkg` for `check-workspace-constraints.ts`**: they cover ~20 lines of range alignment; the load-bearing 200+ lines (computed `files` lists, cordis peer=dev pairing, hierarchy shape) are repo policy no generic engine expresses.
- **`remark-validate-links` for `verify-md-links.ts`**: the gate rides the repo's shared mdast toolchain; adopting remark-cli adds a second markdown stack to delete one small file.
- **`prebuildify`/`node-gyp-build` for the landlock launcher packaging**: inapplicable — those load `.node` addons via dlopen; the launcher ships a standalone exec'd static binary, and per-platform `optionalDependencies` *is* the ecosystem convention for binaries.
- **Replacing the Landlock launcher itself with `@landstrip/landstrip`**: fails the security-invariant test — the launcher is a ~300-line reviewable C file with byte-pinned provenance that already migrated away from a Rust dependency; a single-maintainer LGPL Rust binary set is a larger audit surface with weaker provenance. (The unbuilt Windows rung is a different question — see the [landstrip evaluation proposal](../../proposed/feature/2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.md).)
- **Replacing the Landlock launcher itself with `@landstrip/landstrip`**: fails the security-invariant test — the launcher is a ~300-line reviewable C file with byte-pinned provenance that already migrated away from a Rust dependency; a single-maintainer LGPL Rust binary set is a larger audit surface with weaker provenance. (The unbuilt Windows rung was weighed separately and also [rejected](../feature/2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.md) — landstrip is not battle-tested.)
- **`hatch-nodejs-version` for Python release versioning**: roughly LOC-neutral (a custom metadata hook replaces the regex), inverts the recorded decision that the dev sentinel never determines a release version, and puts a single-maintainer build plugin in the release supply chain.
- **YAML consolidation (`js-yaml` vs `yaml`)**: the repo carries both parsers, with the `!!js` tag defined four times on js-yaml (vendored include, app-boot, apps/cli, `scripts/verify-cordis-config.ts`) and twice on `yaml` (sdk-telemetry's `ScalarTag`, sdk-helper's comment-preserving Document editing). The direction is forced — js-yaml cannot replace `yaml` (sdk-helper needs the Document API) — but migrating the js-yaml sites cannot retire the library either (the vendored include pins it) and would put two parsers in charge of one dialect that must agree exactly, against the [personal-config note](../../implemented/feature/2026-07-20-dsh-cli-personal-config.md)'s deliberate load-only-copy parity. Deletable: ~2025 lines of duplicate tag definitions and two `@types/js-yaml` entries. The consolidation moment is a future include sync, not now.
@@ -18,7 +18,7 @@ Status: rejected — 下列每一项替换在证据上都未达到净简化门
- **以 `vscode-languageserver-types` 承担 lsp-local 的协议类型子集**:约 80 行类型加约 45 行守卫,但上游守卫在两个方向上都与本仓库不一致(接受本仓库必须拒绝的 `uri: undefined`;强制要求本仓库容忍缺失的 `targetRange`),而且 initialize 结果的形状住在 `vscode-languageserver-protocol` 里,会把 `vscode-jsonrpc` 拖成运行时依赖——为 80 行严格贴合规范的代码付出约 1 MB。
- **以 `json-rpc-2.0` 替换 `dsh-jsonrpc`**:可删除的关联/分发代码确实存在(约 100–130 行),但 NDJSON 协议格式(wire format)必须与手写的 Python SDK 客户端逐位一致,该包只有单一维护者,且 [GUI RPC 决策](../../implemented/architecture/2026-07-19-gui-layering-and-rpc-protocol.md)已把这个包当作冻结的窄接口面对待。`vscode-jsonrpc` 更不合适(Content-Length 分帧、该协议并不具备的取消词汇)。
- **以 `jsonrpcclient` 承担 Python SDK 客户端**:v4 只做消息的构造/解析——约 20 行——而真正要紧的 500 行(子进程生命周期、线程化读取器、id 关联、双向的服务端角色应答)全都保留;该库处于低维护模式。
- **以 `eventsource-parser` 替换 apiproxy 的 `readSse`**:可删除的分帧只有约 15 行,线路两端都在仓库内,规范符合性无关紧要,而且这会给一个浏览器安全的包添加依赖。(对比 [llm-deepseek 提案](../../proposed/simplification/2026-07-26-eventsource-parser-for-deepseek-sse.md):那里线路对面是真实的提供方。)
- **以 `eventsource-parser` 替换 apiproxy 的 `readSse`**:可删除的分帧只有约 15 行,线路两端都在仓库内,规范符合性无关紧要,而且这会给一个浏览器安全的包添加依赖。(对比 [llm-deepseek 提案](../../implemented/simplification/2026-07-26-eventsource-parser-for-deepseek-sse.md):那里线路对面是真实的提供方。)
**重试、定时器与异步:**
@@ -67,7 +67,7 @@ Status: rejected — 下列每一项替换在证据上都未达到净简化门
- **以 `syncpack`/`manypkg` 替换 `check-workspace-constraints.ts`**:它们只覆盖约 20 行的版本范围对齐;承重的 200+ 行(计算生成的 `files` 列表、cordis peer=dev 配对、层级形状)是仓库政策,没有通用引擎能表达。
- **以 `remark-validate-links` 替换 `verify-md-links.ts`**:该门禁搭载仓库共享的 mdast 工具链;采用 remark-cli 等于为删掉一个小文件而增加第二套 markdown 技术栈。
- **以 `prebuildify`/`node-gyp-build` 承担 landlock 启动器打包**:不适用——那些工具通过 dlopen 加载 `.node` addon;这个启动器交付的是独立 exec 的静态二进制,而按平台划分的 `optionalDependencies` 恰恰*就是*二进制分发的生态惯例。
- **以 `@landstrip/landstrip` 替换 Landlock 启动器本身**:未通过安全不变式检验——启动器是一个约 300 行、可完整评审、来源逐字节锁定的 C 文件,且早已从一个 Rust 依赖迁移出来;单一维护者的 LGPL Rust 二进制集合是更大的审计面加更弱的来源保障。(尚未构建的 Windows 层级是另一个问题——见 [landstrip 评估提案](../../proposed/feature/2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.md)。)
- **以 `@landstrip/landstrip` 替换 Landlock 启动器本身**:未通过安全不变式检验——启动器是一个约 300 行、可完整评审、来源逐字节锁定的 C 文件,且早已从一个 Rust 依赖迁移出来;单一维护者的 LGPL Rust 二进制集合是更大的审计面加更弱的来源保障。(尚未构建的 Windows 层级经单独权衡后同样被[驳回](../feature/2026-07-26-evaluate-landstrip-for-windows-sandbox-rung.md)——landstrip 未经实战检验。)
- **以 `hatch-nodejs-version` 承担 Python 发布版本号**:代码行数大致持平(一个自定义 metadata 钩子换掉那个正则),却反转了「dev 哨兵值绝不决定发布版本」这条记录在案的决策,还把一个单一维护者的构建插件放进发布供应链。
- **YAML 归一(`js-yaml` 与 `yaml`**:仓库同时携带两个解析器,`!!js` 标签在 js-yaml 上定义了四次(vendor 收录的 include、app-boot、apps/cli、`scripts/verify-cordis-config.ts`),在 `yaml` 上定义了两次(sdk-telemetry 的 `ScalarTag`、sdk-helper 的保留注释式 Document 编辑)。方向是被迫的——js-yaml 无法取代 `yaml`sdk-helper 需要 Document API)——但迁移 js-yaml 各调用点也退休不了这个库(vendor 收录的 include 锁定了它),还会让两个解析器共管一种必须完全一致的方言,违背[个人配置决策](../../implemented/feature/2026-07-20-dsh-cli-personal-config.md)刻意的「仅加载副本」对等性。可删除的:约 20–25 行重复标签定义和两条 `@types/js-yaml` 条目。归一的时机是未来某次 include 同步,不是现在。
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@@ -46,4 +46,4 @@ Apply the ordered relocate-condense-raise policy in [docs/AGENTS.md](../../../do
## Validation and PR hygiene
Run at least `pnpm run doc-sync`, `pnpm run lint`, and `git diff --check`; JSDoc changes may regenerate catalogs. If a paired doc changed, follow [dsh-translate-docs](../dsh-translate-docs/SKILL.md) and run `pnpm run verify-translation-pairing --write`. The PR body should give word deltas, explain any deliberately long exception, and list checks.
Run at least `pnpm run doc-sync`, `pnpm run lint`, and `git diff --check`; JSDoc changes may regenerate catalogs. If a paired doc changed, follow [dsh-translate-docs](../dsh-translate-docs/SKILL.md) and run `pnpm run verify-translation-pairing --write <pair>`. The PR body should give word deltas, explain any deliberately long exception, and list checks.

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