Merge remote-tracking branch 'origin/master' into codex/pr-555-ci-fix
# Conflicts: # docs/config-catalog.i18n.yaml # docs/config-catalog.md # docs/config-catalog.zh.md # docs/module-graph.i18n.yaml # docs/module-graph.md # docs/module-graph.zh.md # examples/acp-agent/tests/snapshots/cordis-inspect-jsdoc/session.jsonl # packages/client/connection/src/client/fixture.ts # packages/host/apiproxy/src/api-proxy.ts
This commit is contained in:
creatixchu
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# Bilingual-pair consistency record (docs/i18n/README.md): the git blob hash of each
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# side as of the last confirmed-consistent state. Both languages carry equal authority;
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# after editing either side, bring the other along and re-record with:
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# pnpm run verify-translation-pairing --write .agents/notes/implemented/architecture/2026-08-03-per-session-agent-presets.md
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2026-08-03-per-session-agent-presets.md: 6f1643c25008c3363cb10adb7fbff7afeea31cbe
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2026-08-03-per-session-agent-presets.zh.md: 7afe9ade5c98fadb96384a7e0acd47531c370e0c
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# Agent Note: A session's agent is composed from a preset cordis.yml
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Status: implemented
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English | [中文](2026-08-03-per-session-agent-presets.zh.md)
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## Problem
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One `dsh` process serves many sessions, but the composition that decides what an agent *is* — its tools, persona, prompt sections, delegation backends — is fixed for the whole process by the `cordis.yml` the launcher booted. A deployment that wants a benchmark-minimal agent beside a full coding agent has to run two processes, and the shipped workaround (`apps/cli/config/minimal.cordis.yml`, a `--config` overlay that disables tool rows) changes every session at once.
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The obvious reading of "let a session pick its composition" is that the loader needs a new tier. It does not. [`dsh-tools`](../../../../packages/core/tools/README.md) and [`dsh-system-prompt`](../../../../packages/core/system-prompt/README.md) already file registrations into the calling context's scope layer, and [the agent is a registration scope](2026-07-08-agent-scope-contexts.md). What was missing is a way to point a whole `cordis.yml` at one agent's scope.
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## Decision
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A **preset** is a directory holding one `agent.cordis.yml`. The agent factory's `setup(agentCtx)` mounts it as a Cordis `include` subtree plugged into that agent's scope context. Entry contexts chain to the context a subtree was plugged into, so every registration inside the preset lands in that agent's layer and unwinds with the agent. No registry gains a tier, and no session already running is touched.
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Composition splits into two planes, decided by what must be shared rather than by what feels agent-related:
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| Plane | Instances | Contents |
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|---|---|---|
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| Host | one | The registries themselves (`tools`, `systemPrompt`, `agents`, `agent-loop`, `sessions`), cross-session facilities (persistence, query, projections, storage, settings, credentials, telemetry), and the web host |
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| Agent | one per session | What a single agent contributes to those registries: tool plugins, persona and prompt sections, compaction policy |
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Model routing stays out of presets. `installAgentLlmTarget` is already the per-agent seam for provider, model, and reasoning effort, and an LLM adapter mounted inside a preset would never be resolved by `agent-loop`, which lives in the host plane.
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The presets the deployment ships are the directories under `apps/cli/config/agent-presets/`; the roster is that listing, not a list restated here.
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Mounting is per-session by default. Measured cost for a twelve-row composition is ~3ms and ~600KB per session, so isolation is the cheaper default than any sharing scheme, and a preset authored by a user or by an agent then has the smallest possible blast radius. A preset that genuinely owns an expensive singleton opts into sharing with Cordis's own `isolate` vocabulary: a named realm label is process-global, so two subtrees naming the same label resolve one instance.
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Which preset an unnamed session gets is a user setting (`agent-presets.default`) layered over the composition's own `default`, which becomes the `base`. Both layers are needed: the composition value is what a deployment ships and must keep working with no settings provider at all, and the setting is what a person changes without editing a `cordis.yml` they may not own.
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## Consequences
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**The effective default is read per resolution, never snapshotted.** A cached value would need a `watch` subscription and a reload path to stay honest, and the resolved scope already re-reads a hot-reloaded document. Reading through is also what makes the boundary correct rather than merely cheap: the new value applies to the next session created, and every running session keeps the composition it was built from. That invariant is the same one the session header enforces from the other side — the header records the id a session actually runs, so a resume rebuilds that composition rather than today's default, and the gateway rejects an attempt to adopt a live session under a different one. A snapshot would make the two disagree at exactly the moment the setting changes.
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**A directly-plugged subtree is invisible to the boot audit.** It never links itself to an `Entry`, so it is absent from `ctx.loader.entries()` and `assertEntriesActivated` cannot see it. The mount audits its own rows instead, reading the tree through an `Include` subclass that publishes it.
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**A preset can only name a group because the app registers one.** Sharing a realm across rows is a `cordis:group` row, and a preset living outside this workspace — the authored ones under the Harness home, which is the point — cannot resolve `@cordisjs/plugin-group` by name: Node's upward `node_modules` walk never reaches the harness from there. `boot()` therefore registers `cordis:group` beside `cordis:include` as a loader builtin, so both load through the ambient module pipeline rather than through the included tree's own specifier resolution. Without it the `isolate` vocabulary above is expressible one row at a time only, and a provider could never be grouped with its consumers.
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**A preset may not publish into the root service realm.** Such a service is process-global rather than per-session, so the second session mounting the same preset collides with the first — and the collision surfaces as an unhandled rejection that `setup` never observes, leaving a half-composed agent that looks healthy. The mount rejects it instead, and the package invariant re-checks on every service notification because a row publishing from a timer or an asynchronous continuation would escape a one-shot audit.
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**Failure rolls the agent back.** `setup` runs before publication, so a rejected mount fails `ctx.agents.create()` and leaves nothing behind. This is why `setup` is the one supported call site.
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**A test that the preset file is never rewritten has to be able to fail.** The first version asserted the file was unchanged after an ordinary mount, and could not have caught anything: the Loader only reaches its write path when it decides the config changed, and nothing in that composition ever self-disposed. The regression plants a row that disposes itself — the shape a real preset hits every time an agent is torn down — and keeps the composition in a temp root rather than under `fixtures/`, because without the override the Loader rewrites the file it read: a committed fixture would be damaged by the very run that proves the bug, and every run after it would compare against the damaged file and pass.
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**Fiber membership is object identity, not `uid`.** A `uid` is a per-registry counter, so fibers in two different roots collide on it; comparing by `uid` made one runtime's subtree answer for a service published in another. `ctx.plugin()` returns a thenable `Object.create(fiber)` wrapper that is never identical to the fiber in a parent chain, so the subtree captures its own fiber during construction.
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**A preset file is an input, never a persistence target.** `EntryTree.write()` persists a tree whenever the Loader decides the config changed, and a plugin self-disposing is enough — tearing an agent down disposes its whole subtree. Inherited, that rewrites the composition it read, in practice truncating a shipped preset to `[]` the first time a session ends. The subtree overrides `write()` to do nothing.
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**A plugin that looks itself up in the global registry breaks inside a preset.** `ctx.tools.register()` files into the CALLING context's scope, so a plugin mounted in a preset registers for one agent and an unscoped `ctx.tools.get(name)` correctly finds nothing. `dsh-tool-skill` did exactly that and threw on every preset mount; it now compares against the definition it registered. Any plugin meant to be preset-mountable must hold its own registration rather than re-read it by name.
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**An entry-local `isolate` realm is invisible to the agent's own scope, not only to the host.** Only rows inside that group resolve the service. That is what makes a preset's `skills` registry belong to one agent rather than being shared — and it means a consumer left outside its provider's group silently resolves the host registry and contributes nothing.
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**Switching is allowed only while a session is blank.** Once a turn has run, that history was produced under the preset's tools and swapping them would strand logged tool calls, so `agentPreset.select` answers `agent-preset-locked`. A blank switch keeps the agent and the session and replaces only the subtree, because the host discards the `AgentHandle` it creates and there is no delete RPC — and keeping them is the better outcome anyway, since the session id, its workspace attachment, and its projections all stay put. The swap is unmount-then-mount (two compositions would register the same tool names into one layer), so it resolves the new preset before tearing anything down and restores the previous one when the new mount fails.
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**Authoring a preset is an RPC, and a privileged one.** A composition is a file, but "edit it on the filesystem" is not a browser affordance, so the roster gained `read`/`write`/`remove` beside `select`. Those three are loopback-pinned: a composition names the plugins a session runs, so reading one is reconnaissance and writing one is arbitrary capability. `list` and `select` deliberately stay ordinary. The roster carries ids and trust only, and a LAN client's picker needs it; and choosing a preset looked like escalation — one of them mounts the toolset that edits the live runtime — but `session.create` already takes an `agentPreset`, so pinning only the switch would have left the same capability one method over. The capability is not the preset's to grant either: the deployment's own default already carries `bash` and the filesystem tools, so any caller that may start a session at all can already run commands as this process. Containment is a property of the id (`[a-z0-9][a-z0-9-]*`), checked before it becomes a directory name rather than by inspecting the joined path afterwards; the text is parsed with the loader's own schema and dialect, so a save cannot leave a file no session could load. Shipped presets are refused for writes and deletes, because the deployment's copy is what a broken local preset is compared against — which also makes "duplicate, then edit" the authoring path rather than an afterthought.
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**A service with a consumer outside the agent plane cannot move into a preset.** The aggressive split moved the `subagents` registry and its spawn/fork backends into the delegation group's entry-local realm, and `dsh web` then failed to boot: `dsh-host-apiproxy` is a HOST row that injects `subagents` to answer the browser's cross-session queries (`listChildren`, `followup`), so it waited forever for a service only sessions now provided. A per-session copy is wrong twice over — a provider name registers once, so the second session would have collided anyway. The registry and its backends are host-plane; the preset contributes the delegation TOOLS, which resolve the host registry. `workflows` stays entry-local because nothing outside an agent reads it. Grepping injectors is what should have caught this and did not: the search has to include the host packages, not just the agent-plane ones.
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**A real-composition test that disables a host row cannot audit that row.** The web composition test disabled `api-gateway` — the api-proxy itself — as a row with side effects, which is exactly the row whose pending injection would have named the break. It now boots with the api-proxy enabled and the browse directory picker substituted, so the boot audit covers the whole host-plane injection graph; only the port, the asset tree, and the telemetry exporter stay off.
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**A preset's package names must resolve from the harness, not from the preset.** `EntryTree.import()` resolves a row against its own tree's `baseUrl`, which `Include` sets to the composition's directory. That is right for a relative specifier and fatal for a package name: a locally authored preset lives under the user's home, where Node's upward `node_modules` walk never reaches the installed harness, so every `@deepseek-ai/dsh-*` row fails to import and the whole preset is unmountable. The shipped presets hid this — they sit inside the install. The mount records the host composition's base before plugging the subtree and sends bare specifiers there, leaving relative paths resolving from the preset so its own files still travel with it. The real-composition test writing a preset into a temp root is what found it.
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**The preset id is model-visible and must be logged.** It determines the tool set and prompt, so a resumed session has to restore the same composition; recording it is a session fact, not runtime state. It rides the session header beside `cwd`, and the summary carries it so a picker shows what a session actually runs rather than the deployment's current default.
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**A durable header field is not durable until every backend writes it.** `agentPreset` landed on `SessionHeader` with the right rationale and neither persistence backend carried it: the JSONL header line, the SQLite `sessions` row, and the derived query index each map the header column by column, so a resumed session came back with no preset and the surfaces that name it fell silent. `summarizeCold` had the same shape — it hand-built the cold list row instead of reusing the shared projection. A field declared durable needs a test that crosses a real store, not only the type that declares it.
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**The choice belongs to the screen where it still works.** The composer seat spent almost its whole life disabled, since the preset is fixed once a turn has run. It moved to the new-session screen beside the workspace picker, where the pick is *staged*: that screen precedes the session it applies to, and the stage lands when a session becomes current and is still blank — covering both the session a workspace connect creates and the blank one it reuses, which riding `sessions.create` would miss. It is spent on first use, matching the workspace picker beside it. What a running session runs is then a read-only label in its header: a control there would promise a switch the host refuses outright.
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**A preset multiplies a cost the host was already paying: nothing disposes an agent.** Measured against the shipped compositions with `--expose-gc`, one live agent holds ~0.17 MB on `minimal` and ~1.31 MB on `standard`/`cordis`, mounting in ~38 ms and ~135 ms; the first agent of a process costs ~7 MB more as Node imports the modules, which every later mount then shares. Growth is strictly linear — 10, 30 and 50 agents give the same per-agent delta — and disposal reclaims essentially all of it (50 `standard` agents held 57.8 MB and returned it). So the object graph does not leak; the lifecycle does. `dsh-host-apiproxy` discards the `AgentHandle` it creates, `archiveSession` only edits the workspace registry, `AgentRegistry` has no eviction, and the sole disposal site in the host is the JSON-RPC server's own shutdown. A web host therefore retains every session it has touched, at ~1.3 MB each once presets are composed rather than ~0.2 MB before. Note that pruning the mount registry does not help here: it drops records whose fiber `uid` has cleared, and an agent that never dies never clears one.
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- Remaining TODO: idle agent eviction — dispose after the session is persisted and re-mount on resume. It belongs to the host that owns the handle, not to this seam.
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## Alternatives considered
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**Add a preset tier to the scoped registries.** `ScopedLayers.merge()` combines the global layer with exactly one exact-scope layer. A middle tier would let many sessions share one mounted composition, but it changes `dsh-scope` and every scope-aware registry to save a cost measured in milliseconds, and it gives a preset's registrations a lifetime no agent owns.
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**Make the agent's scope key the preset.** Sessions on one preset would share a layer for free, but per-agent registrations — `installAgentLlmTarget`, per-agent tool restrictions — would then collide across sessions.
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**Run each preset as a child process.** [`subagent-dsh-sdk`](../../../../packages/subagent/subagent-dsh-sdk/README.md) already proves a full child harness works, and isolation would be absolute. It also means proxying streaming, approvals, and projections per session, which is a transport project rather than a composition one.
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# Agent Note：会话的 agent 由一份 preset cordis.yml 组装而成
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Status: implemented
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[English](2026-08-03-per-session-agent-presets.md) | 中文
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## 问题
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一个 `dsh` 进程服务多个会话，但决定 agent（智能体）究竟是什么的那套组装——它的工具、人设、提示词段落、委派后端——由启动器所引导的 `cordis.yml` 一次性固定给整个进程。若某个部署希望一个 benchmark 精简 agent 与一个完整编码 agent 并存，就必须跑两个进程；而现有的变通方案（`apps/cli/config/minimal.cordis.yml`，一个用来禁用工具行的 `--config` 覆盖层）会一次性改变所有会话。
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对"让会话自选组装"最直觉的理解，是 loader 需要新增一层。其实不需要。[`dsh-tools`](../../../../packages/core/tools/README.md) 与 [`dsh-system-prompt`](../../../../packages/core/system-prompt/README.md) 本就按调用方上下文的 scope 分层归档注册，而且 [agent 本身就是一个注册 scope](2026-07-08-agent-scope-contexts.md)。此前缺的只是一种把整份 `cordis.yml` 指向某一个 agent scope 的办法。
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## 决策
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**preset** 是一个目录，其中放置一份 `agent.cordis.yml`。agent 工厂的 `setup(agentCtx)` 把它作为 Cordis `include` 子树，挂载到该 agent 的 scope 上下文之下。entry 上下文沿原型链连到子树被挂载时所在的上下文，因此 preset 内部的每一次注册都落进该 agent 的分层，并随 agent 一起卸载。没有任何注册表新增分层，也没有任何已在运行的会话被触及。
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组装划分为两个平面，依据是什么必须共享，而不是什么感觉上与 agent 有关：
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| 平面 | 实例数 | 内容 |
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|---|---|---|
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| 宿主 | 一份 | 注册表本身（`tools`、`systemPrompt`、`agents`、`agent-loop`、`sessions`）、跨会话设施（持久化、查询、投影、存储、设置、凭据、遥测），以及 web 宿主 |
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| agent | 每会话一份 | 单个 agent 对这些注册表的贡献：工具插件、人设与提示词段落、压缩策略 |
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模型路由不进 preset。`installAgentLlmTarget` 已经是 provider、model 与 reasoning effort 的按 agent 可替换点；而挂在 preset 内部的 LLM 适配器永远不会被 `agent-loop` 解析到，因为后者位于宿主平面。
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部署交付哪些 preset，取决于 `apps/cli/config/agent-presets/` 下有哪些目录；清单是那份目录列表，而不是在此另抄一份。
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挂载默认按会话进行。实测一份十二行组装每会话约 3ms、约 600KB，因此隔离比任何共享方案都更划算；而由用户或 agent 写出的 preset 也因此拥有尽可能小的影响面。确实自带昂贵单例的 preset，可以用 Cordis 自身的 `isolate` 词汇显式选择共享：命名 realm 的 label 是进程级全局的，因此两棵子树只要写同一个 label 就解析到同一个实例。
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未指名 preset 的会话拿到哪一个，是一项用户设置（`agent-presets.default`），叠在组装自身的 `default` 之上——后者成为 `base`。两层都需要：组装里的值是部署交付的东西，在完全没有 settings 提供方时也必须照常工作；而设置是让人不必去改一份可能并不属于自己的 `cordis.yml` 就能调整的东西。
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## 后果
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**有效默认值在每次解析时读取，从不快照。** 缓存下来就需要一个 `watch` 订阅和一条重载路径才能保持诚实，而解析后的 scope 本来就会重读热重载过的文档。读穿也不只是省事，它让边界本身是对的：新值作用于**下一个新建的会话**，每个运行中的会话保持它被构建时的那份组装。这条不变量正是 session header 从另一侧执行的同一条——header 记录会话实际运行的 id，因此恢复重建的是那份组装而不是当下的默认值，网关也会拒绝把一个活着的会话收编到另一个 preset 之下。快照会让两者恰好在设置改变的那一刻各说各话。
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**直接挂载的子树对启动审计不可见。** 它不会把自己关联到 `Entry`，因此不在 `ctx.loader.entries()` 中，`assertEntriesActivated` 也看不到它。改由挂载过程自行校验各行，通过一个会公开自身 tree 的 `Include` 子类读取。
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**preset 能写出 group，是因为 app 注册了它。** 跨行共享 realm 就是一个 `cordis:group` 行，而住在本工作区之外的 preset——也就是 Harness home 下由人或 agent 创作的那些，正是这套设计的目的——无法按名字解析 `@cordisjs/plugin-group`：Node 向上查找 `node_modules` 的路径从那里永远走不到 harness。因此 `boot()` 把 `cordis:group` 与 `cordis:include` 并排注册为 loader builtin，两者都经由环境模块管线加载，而不依赖被包含树自身的说明符解析。没有它，上文那套 `isolate` 词汇就只能一行一行地表达，提供方也永远无法与它的消费方归入同一组。
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**preset 不得把服务发布进根 realm。** 这类服务是进程级全局而非按会话的，因此第二个挂载同一 preset 的会话会与第一个相撞——而这次相撞表现为 `setup` 永远观察不到的未处理 rejection，留下一个看起来健康、实则组装到一半的 agent。挂载改为直接拒绝它；本包的运行时不变量还会在每次服务通知时复查，因为从定时器或异步续体中发布的行会绕过一次性审计。
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**失败会让 agent 回滚。** `setup` 在发布之前运行，因此挂载被拒绝会让 `ctx.agents.create()` 失败且不留残留。这正是 `setup` 是唯一受支持调用点的原因。
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**「preset 文件从不被回写」这条断言，必须先有失败的可能。** 最初那版在一次普通挂载之后断言文件未变，其实什么也抓不到：Loader 只在认定 config 变了时才会走到写路径，而那份组装里没有任何一行会自行销毁。回归用例改为植入一个自行销毁的行——真实 preset 在每次 agent 被拆除时都会命中的形状——并把组装放在临时根目录而不是 `fixtures/` 下：没有那个覆写，Loader 会回写它读入的文件，于是提交进仓库的 fixture 会被**恰恰是证明该缺陷的那次运行**改坏，之后每一次运行都拿改坏后的文件作比较从而通过。
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**fiber 归属判定用对象同一性，而非 `uid`。** `uid` 是按 registry 计数的序号，因此两个不同根下的 fiber 会在它上面撞号；按 `uid` 比较曾导致一个运行时的子树为另一个运行时中发布的服务背锅。`ctx.plugin()` 返回的是 thenable 的 `Object.create(fiber)` 包装对象，与父链中出现的 fiber 永远不同一，因此子树在构造时捕获自己的 fiber。
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**preset 文件是输入，绝不是持久化目标。** 只要 loader 认为配置变了，`EntryTree.write()` 就会回写整棵树，而一个插件自我 dispose 就足以触发——销毁 agent 会 dispose 它的整棵子树。若继承该行为，它会重写自己读入的那份组装，实际后果是第一次会话结束时把随附 preset 截断成 `[]`。子树因此把 `write()` 覆盖为空操作。
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|
||||
**按自身名字回查全局注册表的插件，在 preset 里必然失效。** `ctx.tools.register()` 归档进**调用方**上下文的 scope，因此挂在 preset 里的插件只为一个 agent 注册，而不带 scope 的 `ctx.tools.get(name)` 理所当然查不到。`dsh-tool-skill` 正是这样写的，于是每次 preset 挂载都抛错；现在它与自己注册的那个定义比对。任何希望可被 preset 挂载的插件，都必须持有自己的注册对象，而不是按名字重新读取。
|
||||
|
||||
**entry 本地 `isolate` realm 不仅对宿主不可见，对 agent 自身的 scope 同样不可见。** 只有该组内部的行能解析到该服务。这正是让 preset 的 `skills` 注册表归属单个 agent 而非共享的原因——同时也意味着：被留在提供方组之外的消费方会静默解析到宿主注册表，然后什么都不贡献。
|
||||
|
||||
**只有空白会话才允许切换。** 一旦跑过任何轮次，那段历史就是在该 preset 的工具下产生的，替换会留下无法执行的已记录 tool call，因此 `agentPreset.select` 返回 `agent-preset-locked`。空白期的切换保留 agent 与 session，只替换子树——因为宿主丢弃了它创建的 `AgentHandle`，也没有 delete RPC；而保留它们本身就是更好的结果，会话 id、workspace 挂接与 projections 都原地不动。该替换是"先卸后装"（两份组装会把同名工具注册进同一分层），因此它在拆除任何东西之前先解析新 preset，并在新组装装载失败时恢复原来的那一份。
|
||||
|
||||
**创作 preset 是一次 RPC，而且是特权 RPC。** 组装是一个文件，但“去文件系统里改它”并不是浏览器能提供的操作，因此名单在 `select` 之外新增了 `read`/`write`/`remove`。这三者被固定在环回地址：组装指明了一个会话所运行的插件，因此读取它是侦察，写入它是任意能力。`list` 与 `select` 刻意保持为普通方法。名单只携带 id 与信任级别，而局域网客户端的选择器需要它；至于选择本身，它看起来像提权——其中一个 preset 会挂载可编辑活动运行时的工具集——但 `session.create` 本就接受 `agentPreset`，只固定切换会把同一能力留在隔壁一个方法上。这份能力也不由 preset 授予：部署自带的默认 preset 本就带着 `bash` 与文件系统工具，因此任何被允许开启会话的调用方，早已能以本进程的身份执行命令。约束是 id 自身的性质（`[a-z0-9][a-z0-9-]*`），在它成为目录名之前就检查，而不是事后再去审视拼接出的路径；文本使用 loader 自身的 schema 与方言解析，因此保存不会留下任何会话都无法加载的文件。随部署提供的 preset 拒绝写入与删除，因为部署自带的那一份正是用来对照有问题的本地 preset 的——这也让“先复制、再编辑”成为创作路径本身，而非事后补充。
|
||||
|
||||
**在 agent 平面之外还有消费方的服务，不能搬进 preset。** 激进拆分把 `subagents` 注册表连同 spawn/fork 后端一起搬进了 delegation 组的 entry-local realm，于是 `dsh web` 直接起不来：`dsh-host-apiproxy` 是宿主行，它注入 `subagents` 来回答浏览器的跨会话查询（`listChildren`、`followup`），因而永远等待一个此刻只有会话才提供的服务。按会话各一份在两个层面上都是错的——provider 名只能注册一次，第二个会话本来也会相撞。注册表与后端属于宿主平面；preset 贡献的是委派**工具**，它们解析宿主注册表。`workflows` 保持 entry-local，因为 agent 之外没有任何东西读它。本该拦下它的是「检索注入方」这一步，而它没拦住：检索必须覆盖宿主包，而不只是 agent 平面的包。
|
||||
|
||||
**真实组装测试若禁用了某个宿主行，就无法审计该行。** web 组装测试把 `api-gateway`——也就是 api-proxy 本身——当作「有外部副作用的行」禁用了，而它恰恰是那个会以 pending 注入点名此次断裂的行。现在它在启用 api-proxy、并替换为 browse 目录选择器的前提下引导，启动审计因此覆盖整个宿主平面的注入图；只有端口、资源目录与遥测导出器仍然关闭。
|
||||
|
||||
**preset 的包名必须从 harness 解析，而非从 preset 解析。** `EntryTree.import()` 按行所属树的 `baseUrl` 解析，而 `Include` 把它设为组装文件所在的目录。这对相对标识符是对的，对包名却是致命的：本地创作的 preset 位于用户主目录之下，Node 向上查找 `node_modules` 永远够不到已安装的 harness，因此每一个 `@deepseek-ai/dsh-*` 行都会导入失败，整个 preset 无法挂载。随部署提供的 preset 掩盖了这一点——它们本就在安装目录之内。挂载在插入子树之前先记录宿主组装的基址，并把裸标识符送往那里，同时让相对路径继续从 preset 解析，使它自带的文件仍随它一同迁移。发现它的正是那个把 preset 写入临时根目录的真实组装测试。
|
||||
|
||||
**preset id 对模型可见，必须写入日志。** 它决定工具集与提示词，因此被恢复的会话必须还原同一份组装；记录它属于会话事实，而非运行时状态。它与 `cwd` 并列写在会话头部，并由会话摘要携带，使选择器显示的是某个会话实际运行的 preset，而非部署当前的默认值。
|
||||
|
||||
**持久化的头部字段，在每个后端都写入之前都算不上持久。** `agentPreset` 带着正确的理由落在了 `SessionHeader` 上，而两个持久化后端都没有携带它：JSONL 头部行、SQLite `sessions` 行、以及派生的查询索引各自逐列映射头部，于是被恢复的会话回来时没有 preset，所有据以命名它的表层随之失声。`summarizeCold` 是同一个形状——它手工拼装冷列表行，而没有复用共享的投影。声明为持久的字段，需要一个跨越真实存储的测试，而不只是声明它的那个类型。
|
||||
|
||||
**这个选择属于它仍然可用的那个界面。** composer 座位几乎一生都处于禁用状态，因为一旦跑过一个轮次，preset 即固定。它移到了新建会话界面、工作区选择器旁边，选择在那里是**暂存**的：该界面先于它要应用到的会话存在，暂存值在某个会话成为当前会话且仍为空白时落地——这既覆盖工作区连接新建的会话，也覆盖它复用的那个空白会话，而搭 `sessions.create` 的便车会漏掉后者。它一经使用即被清空，与旁边的工作区选择器一致。至于运行中的会话在跑什么，则是其标题旁的一个只读标签：在那里放控件，等于承诺一次宿主会断然拒绝的切换。
|
||||
|
||||
**preset 放大的是宿主本来就在付的代价：没有任何东西会 dispose 一个 agent。** 用 `--expose-gc` 对随附组装实测：一个存活的 agent 在 `minimal` 上约占 0.17 MB、在 `standard`/`cordis` 上约 1.31 MB，挂载耗时分别约 38 ms 与 135 ms；进程里第一个 agent 另需约 7 MB，那是 Node 首次 import 模块的一次性成本，此后每次挂载共享。增长严格线性——10、30、50 个的单个增量一致——且 dispose 后基本全额回收（50 个 `standard` 占住 57.8 MB，释放后全部归还）。所以对象图并不泄漏，缺的是生命周期。`dsh-host-apiproxy` 创建后直接丢弃 `AgentHandle`，`archiveSession` 只改工作区注册表，`AgentRegistry` 没有驱逐机制，而宿主里唯一一处 dispose 是 JSON-RPC 服务器自身的关停。于是一个 web 宿主会留住它接触过的每一个会话，组装 preset 之后每个约 1.3 MB，而在此之前约 0.2 MB。注意：剪枝挂载注册表在这里没有用——它丢弃的是 fiber `uid` 已清空的记录，而永不死亡的 agent 永远不会清空它。
|
||||
|
||||
- 遗留 TODO：idle agent 驱逐——会话持久化后 dispose，恢复时重新挂载。它属于持有 handle 的那个宿主，不属于本 seam。
|
||||
|
||||
## 考虑过的替代方案
|
||||
|
||||
**在 scope 注册表中新增 preset 分层。** `ScopedLayers.merge()` 把全局层与恰好一个精确 scope 层合并。新增中间层可以让多个会话共用一份已挂载的组装，但它要改动 `dsh-scope` 及每个 scope 感知的注册表，换来的只是毫秒级的开销节省，而且会让 preset 的注册获得一个没有任何 agent 拥有的生命周期。
|
||||
|
||||
**把 agent 的 scope 键设为 preset。** 同一 preset 上的会话就能免费共享一层，但按 agent 的注册——`installAgentLlmTarget`、按 agent 的工具限制——会跨会话相撞。
|
||||
|
||||
**把每个 preset 作为子进程运行。** [`subagent-dsh-sdk`](../../../../packages/subagent/subagent-dsh-sdk/README.md) 已经证明完整的子 harness 可行，隔离性也会是绝对的。但这同时意味着要按会话代理流式输出、审批与投影，那是一个传输层项目，而非组装问题。
|
||||
@@ -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/architecture/2026-08-08-per-preset-standing-mounts.md
|
||||
2026-08-08-per-preset-standing-mounts.md: 834d645f5f293a2e137b8faf662e301f1e8bb971
|
||||
2026-08-08-per-preset-standing-mounts.zh.md: 45ce0f4e7dec28e5bf807898dc9cdbf32b8e4eb5
|
||||
@@ -0,0 +1,32 @@
|
||||
# Agent Note: Per-preset standing mounts over a scope parent chain
|
||||
|
||||
Status: implemented
|
||||
|
||||
English | [中文](2026-08-08-per-preset-standing-mounts.zh.md)
|
||||
|
||||
## Problem
|
||||
|
||||
Per-session preset mounts made the model-facing registry surface per-agent while three independent host readers still assumed it was static: cold `session.history` found no presenters (every card silently degraded to the generic renderer — indistinguishable from "tool has no presenter"), the projections block dropped preset-registered keys (clients treat an omitted key as capability absence and CLEAR the row), and the TypeRT gateway resolved `goals` on the host root (`service-unavailable`). Patching each reader individually traded one silent degradation for another: resuming to reach presenters flipped the projections fold from detached to live and wiped the token counts instead.
|
||||
|
||||
## Decision
|
||||
|
||||
A preset is one composition per PROCESS, not one per session. The roster mounts it once under a synthetic standing scope; each agent joins by binding its scope key to the mount's (`bindScopeParent(agentKey, standingKey)`). Two `dsh-scope` mechanisms carry everything: registration views walk the parent chain (`agent → preset → global`, nearest shadowing farthest), and scoped dispatch admits listeners tagged with an ancestor of the carrier key — upward only, so a sibling preset's listeners stay deaf.
|
||||
|
||||
## Consequences
|
||||
|
||||
Standing mounts fix the class, not the instances: the registrations a reader needs exist for the process lifetime, keyed by preset id, no agent required. What made it cheap
|
||||
|
||||
- The stateful preset plugins (`plan-mode`, `token-meter`, `compact-basic`, `tasks-local`) already key state by `Session`/`Agent` — they predate presets. Sharing one instance is a return to their design, not a rewrite.
|
||||
- Preset ymls are unchanged: one mount per preset = one Entry per preset, whose entry-local realms (`isolate: <name>: true`) keep two presets' same-named services apart exactly as they kept two sessions' apart.
|
||||
- A shared realm label was NOT an option: `provide()` throws on a second registration under the same realm symbol, so labels pool the REALM, never the instance — a per-session world sharing a label crashes the second mount.
|
||||
|
||||
## Load-bearing details
|
||||
|
||||
- **Standing mounts hang off the service's untraced `selfCtx`.** A method invoked through the traceable proxy sees `this.ctx` rebound to the caller with a shadow; reflect resolution for every fiber in a subtree minted from it starts at the shadow's fiber, so entries fail on services their own `inject` declares (`cannot get property "tools" without inject` while the entry's store holds it). The `tasks-local` selfCtx precedent, now with a second consumer.
|
||||
- **A settled mount serves until its composition file's stamp changes.** The composition a running session joined must survive its file changing or disappearing; each generation records the file's stamp (mtime + size) and a session that finds it stale starts the next generation, so file edits — the only composition editor once authoring became copy-only — reach later sessions without any authoring call dropping the pointer. Joined sessions keep their generation, and superseded generations are reclaimed only by whole-tree teardown — deliberate, bounded by edit frequency, recorded in the package's Known Limitations.
|
||||
- **`peek()` stays chain-blind.** Restrictions and guards address one scope's own contributions; only registration VIEWS inherit. Restrictions along the chain intersect (any scope may mask a global-surface name for everything nested inside it).
|
||||
- **Re-linking runs only through the `ScopeParentBinding` the mount's one bind returned** — the roster holds it privately, so the blank-session recompose path is the sole re-link and no other caller can move a composed agent; it stays valid only while nothing produced under the old parent is retained, which the holder must uphold because the relation cannot see session logs.
|
||||
|
||||
## Alternatives considered
|
||||
|
||||
Resume-on-read (wipes detached projections), a host-plane presenter table plus a block completeness flag (fixes two readers, leaves the class), per-session template mounts (duplicates every instance to serve pure functions). Kept for the record: the gateway-facing `goals` domain stays host-plane regardless — a Remote method whose receiver comes from a generated descriptor resolves on the host, which is the `bash-env` host-plane criterion read from the consuming side.
|
||||
@@ -0,0 +1,32 @@
|
||||
# Agent Note: Per-preset standing mounts over a scope parent chain
|
||||
|
||||
Status: implemented
|
||||
|
||||
[English](2026-08-08-per-preset-standing-mounts.md) | 中文
|
||||
|
||||
## Problem
|
||||
|
||||
按会话挂载 preset 让面向模型的注册面变成按 agent 的，而三个独立的宿主读取方仍然假设它是静态的：冷读 `session.history` 找不到 presenter（每张卡都静默退化成通用渲染器——与「工具本无 presenter」无法区分）、投影块丢掉 preset 注册的键（客户端把缺失键当作能力不存在并**清掉**该行）、TypeRT 网关在宿主根上解析 `goals`（`service-unavailable`）。逐个读取方打补丁只是拿一种静默降级换另一种：为拿到 presenter 而 resume，会把投影折叠从 detached 翻到 live，token 计数随之被抹掉。
|
||||
|
||||
## Decision
|
||||
|
||||
一个 preset 是**每进程**一份组装，而不是每会话一份。roster 在一个合成常驻 scope 下挂载它一次；每个 agent 通过把自己的 scope key 绑定到挂载的 key（`bindScopeParent(agentKey, standingKey)`）加入。两条 `dsh-scope` 机制承载了一切：注册视图沿父链解析（`agent → preset → global`，近者遮蔽远者），带作用域的分发对标签为载体键祖先的监听器放行——只向上，兄弟 preset 的监听器保持失聪。
|
||||
|
||||
## Consequences
|
||||
|
||||
常驻挂载修的是这一类问题而非其中的个例：读取方需要的注册在进程生命周期内始终存在，按 preset id 索引，不需要任何 agent。让它便宜的原因：
|
||||
|
||||
- 有状态的 preset 插件（`plan-mode`、`token-meter`、`compact-basic`、`tasks-local`）本就按 `Session`/`Agent` 分键存状态——它们早于 preset 存在。共享一份实例是回归其设计，不是改写。
|
||||
- preset 的 yml 不变：每 preset 挂一次 = 每 preset 一个 Entry，其 entry 本地 realm（`isolate: <name>: true`）让两个 preset 的同名服务互不相干，正如它从前隔开两个会话。
|
||||
- 共享 realm label **不是**选项：`provide()` 对同一 realm 符号下的第二次注册直接抛错，label 池化的是 REALM 而非实例——按会话挂载的世界里共享 label 会让第二次挂载崩溃。
|
||||
|
||||
## Load-bearing details
|
||||
|
||||
- **常驻挂载挂在服务未追踪的 `selfCtx` 上。** 经 traceable 代理调用的方法看到的 `this.ctx` 被重绑到调用方并携带 shadow；从它派生的子树里每个 fiber 的 reflect 解析都从 shadow 的 fiber 起步，entry 会在自己 `inject` 声明的服务上失败（`cannot get property "tools" without inject`，而它的 store 里明明有）。`tasks-local` 的 selfCtx 先例，如今有了第二个消费者。
|
||||
- **挂载一旦成功即持续供职，直到组装文件的 stamp 变化。** 运行中会话加入的组装必须在其文件被修改或删除后继续存活；每个代际记录文件 stamp（mtime + 大小），发现过期的会话开启下一个代际，因此文件编辑——创作改为仅复制之后唯一的组装编辑器——无需任何创作调用丢弃指针即可达到后续会话。已加入的会话保持其代际，被替代的代际只由整树卸载回收——刻意为之，上限取决于编辑频率，已记入包的 Known Limitations。
|
||||
- **`peek()` 保持不看链。** 限制与守卫定位的是单个作用域**自己**的贡献；只有注册**视图**沿链继承。链上的限制求交（链上任一作用域都可为嵌套其内的一切遮蔽某个全局面名字）。
|
||||
- **重新认父只能经由挂载首绑返回的 `ScopeParentBinding`**——roster 私藏该句柄，空白会话 recompose 因此是唯一的重链路径，其他调用方无法挪动已组合的 agent；其合法性仍以旧父之下产出一概不被保留为前提，由持有方保证，因为该关系看不见会话日志。
|
||||
|
||||
## Alternatives considered
|
||||
|
||||
冷读时 resume（抹掉 detached 投影）、宿主面 presenter 表加投影块完整性标志（修两个读取方、留下这一类）、每会话模板挂载（为了服务纯函数而复制每一份实例）。留档：面向网关的 `goals` 域无论如何留在宿主平面——Remote 方法的接收者来自生成的 descriptor、在宿主上解析，这正是 `bash-env` 宿主平面判据从消费侧读出的样子。
|
||||
@@ -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/architecture/2026-08-09-layered-skill-registry.md
|
||||
2026-08-09-layered-skill-registry.md: 3f092cfb4b722e3dd51fa4dc46c620259eaffa39
|
||||
2026-08-09-layered-skill-registry.zh.md: 38b17329c8d46ee9bbd0863f3fae7cf6be39aa75
|
||||
@@ -0,0 +1,39 @@
|
||||
# Agent Note: The skill registry is host-held and layered per scope
|
||||
|
||||
Status: implemented
|
||||
|
||||
English | [中文](2026-08-09-layered-skill-registry.zh.md)
|
||||
|
||||
## Problem
|
||||
|
||||
The agent-preset stack moved the whole skill capability — registry, local provider, and the `skill` tool — into each preset's `isolate` realm, because "which skills an agent has" is an agent-plane choice. That framing conflated two different questions: which skills a *deployment* supplies, and whether an *agent* consumes them. A repository plugin's prepared wrapper declares `inject: ['skills']` and mounts its skill root as a host-plane provider; with no host registry composed in the web and headless profiles, that wrapper waited forever and the repository-plugin e2e hung, which was bypassed at the time by dropping the fixture's skill root. A per-preset realm registry also made the gateway's skill listing depend on a live agent — a cold session's `/` popup had no registry to read at all.
|
||||
|
||||
The tools registry never had this problem: it is one host singleton layered per scope over `dsh-scope`, so deployment-level tools (MCP servers, plugin entries) register globally while a preset's rows register into that preset's layer.
|
||||
|
||||
## Decision
|
||||
|
||||
`SkillService` adopts the same shape. It holds `ScopedLayers<SkillLayer>`; `registerProvider()` and `register()` file into the layer of the calling context's scope, so host rows and repository plugins land in the global layer while a preset's `skill-local` — mounted by the standing composition, whose context carries the preset's scope key — lands in that preset's layer. Provider names are unique per layer rather than process-wide, which is what lets every preset mount its own `local` provider.
|
||||
|
||||
Reads take the viewing scope through `SkillViewOptions` (the calling agent, which is its own scope key). The registry merges the global layer with the scope's chain: **the nearest layer wins a duplicate name outright, and rank decides duplicates only within one layer** — the tools registry's shadowing rule. Rank-pooling across layers was considered and rejected: ranks were designed to order sources that know about each other, and under a global pool a later-installed repository plugin could silently displace a preset's own same-named skill by registration-order tiebreak, changing a preset's behavior remotely. Nearest-wins keeps a composition's behavior decided by its author.
|
||||
|
||||
Discovery caches are keyed by the resolved scope chain plus one revision counter, so a blank-session recompose — which re-parents the agent's scope key without touching the registry — is visible to the next read.
|
||||
|
||||
The composition moves with it: the web-app bundle re-enables the base `skill` registry row (only `skill-local` and `tool-skill` stay preset-owned), and preset compositions drop their `isolate: skills` realm for bare rows over the host registry. The gateway's skills domain reads the host registry in the presenter scope — the live agent, else the recorded preset's standing key — so a cold session lists the catalog its composition actually serves instead of failing; the `serviceFor` branch stays for compositions that still realm-mount their own registry.
|
||||
|
||||
## Consequences
|
||||
|
||||
**A deployment-level skill reaches every preset-composed session that mounts `tool-skill`.** The repository-plugin e2e's skill root and assertions are restored; the shipped-Web e2e proves the badge row (the same host-registration shape) merges into a standard-preset agent's catalog while the host view stays global-only.
|
||||
|
||||
**Layer visibility and consumption stay separate choices.** A core-web agent can read the global layer in principle, but composes no `skill` tool — whether an agent has skills at all remains the preset's decision, made by mounting or omitting `tool-skill`.
|
||||
|
||||
**Provider options are still the borrowed caller object.** `SkillViewOptions` extends `SkillLookupOptions`; the registry consumes `scope` and providers read only their own contract from the same readonly object, preserving the existing borrow-identity guarantee.
|
||||
|
||||
**The TUI profile is unaffected.** With every row at host, there is exactly one (global) layer and the merged view equals the old single-registry view, ranks and all.
|
||||
|
||||
**Shadowing across layers is silent.** Within a layer the loser is logged as before; a nearer layer replacing a farther name follows the tools registry's convention and logs nothing. The registry still exposes no API to inspect shadowed definitions.
|
||||
|
||||
## Alternatives considered
|
||||
|
||||
**Rank pool across all visible layers.** Faithful to the single-registry precedence, but cross-layer ties break on registration order (boot-time providers always beat standing mounts), and a preset's own skill could be displaced by a deployment change it never sees. Rejected for composition stability; see Decision.
|
||||
|
||||
**Keep per-preset realm registries and deliver repository skills as directories a preset's provider scans.** Leaves the wrapper's `inject: ['skills']` contract broken (or forks the wrapper per profile), duplicates discovery configuration into every preset, and still gives cold sessions nothing to read. Rejected.
|
||||
@@ -0,0 +1,39 @@
|
||||
# Agent Note：skill 注册表由宿主持有并按 scope 分层
|
||||
|
||||
Status: implemented
|
||||
|
||||
[English](2026-08-09-layered-skill-registry.md) | 中文
|
||||
|
||||
## 问题
|
||||
|
||||
agent-preset stack 曾把整个 skill 能力——注册表、本地提供方和 `skill` 工具——搬进每个 preset 的 `isolate` realm，理由是"agent 拥有哪些 skill"属于 agent 平面的选择。这一框架混淆了两个不同的问题：*部署*供给哪些 skill，与*agent*是否消费它们。repository 插件的 prepared wrapper 声明 `inject: ['skills']` 并把它的 skill 根目录挂载为宿主平面的提供方；web 与 headless profile 不再组合宿主注册表后，该 wrapper 永远等待，repository-plugin e2e 因而挂死，当时通过删掉 fixture 的 skill 根目录绕过。按 preset 的 realm 注册表还让网关的 skill 列表依赖存活 agent——冷会话的 `/` 弹窗根本没有注册表可读。
|
||||
|
||||
工具注册表从未有过这个问题：它是一个宿主单例，基于 `dsh-scope` 按 scope 分层，因此部署级工具（MCP 服务器、插件 entry）注册进全局层，preset 的行注册进该 preset 的层。
|
||||
|
||||
## 决定
|
||||
|
||||
`SkillService` 采用同一形态。它持有 `ScopedLayers<SkillLayer>`；`registerProvider()` 与 `register()` 落入调用方上下文 scope 对应的层——宿主行与 repository 插件落入全局层，preset 的 `skill-local`（由常驻组合挂载，其上下文携带该 preset 的 scope key）落入该 preset 的层。提供方名称在每层内唯一而非进程级唯一，这正是让每个 preset 都能挂载自己的 `local` 提供方的前提。
|
||||
|
||||
读取通过 `SkillViewOptions` 携带观察 scope（调用中的 agent，agent 本身就是自己的 scope key）。注册表将全局层与该 scope 的链合并：**最近层直接赢得重名，rank 只在单层内裁决重名**——即工具注册表的遮蔽规则。曾考虑跨层 rank 合池并予以否决：rank 的设计前提是各来源彼此知情；在全局池下，后安装的 repository 插件可能凭注册顺序平手规则静默顶掉 preset 自带的同名 skill，远程改变 preset 的行为。最近层优先让组合的行为由其作者决定。
|
||||
|
||||
发现缓存以解析后的 scope 链加一个修订计数为键，因此空会话重组——只重设 agent scope key 的父级、不触碰注册表——对下一次读取立即可见。
|
||||
|
||||
组合随之调整：web-app bundle 重新启用 base 的 `skill` 注册表行（只有 `skill-local` 与 `tool-skill` 仍归 preset），preset 组合拆掉 `isolate: skills` realm，改为直接落在宿主注册表上的平铺行。网关的 skills 域以 presenter scope 读取宿主注册表——存活 agent，否则记录在案的 preset 的 standing key——冷会话由此列出其组合真正供给的目录而不再报错；`serviceFor` 分支保留，兼容仍以 realm 自挂注册表的组合。
|
||||
|
||||
## 影响
|
||||
|
||||
**部署级 skill 会到达每个挂载 `tool-skill` 的 preset 会话。**repository-plugin e2e 的 skill 根目录与断言已恢复；shipped-Web e2e 证明 badge 行（同一种宿主注册形态）汇入 standard preset agent 的目录，而宿主视图保持仅全局。
|
||||
|
||||
**层可见性与消费仍是两个独立选择。**core-web agent 原则上可读全局层，但不组合 `skill` 工具——agent 是否拥有 skill 依旧由 preset 通过挂载或省略 `tool-skill` 决定。
|
||||
|
||||
**提供方选项仍是借用的调用方对象。**`SkillViewOptions` 扩展 `SkillLookupOptions`；注册表消费 `scope`，提供方只从同一个只读对象中读取自己的契约，保持既有的借用恒等保证。
|
||||
|
||||
**TUI profile 不受影响。**所有行都在宿主时只有一个（全局）层，合并视图等于旧的单注册表视图，rank 行为不变。
|
||||
|
||||
**跨层遮蔽是静默的。**层内败者照旧记录日志；较近层顶替较远层的名称沿用工具注册表的惯例，不记录。注册表仍不提供检查被遮蔽定义的 API。
|
||||
|
||||
## 曾考虑的替代方案
|
||||
|
||||
**跨全部可见层的 rank 合池。**忠实于单注册表的优先级，但跨层平手按注册顺序裁决（启动期提供方永远赢过常驻挂载），preset 自带 skill 可能被它看不见的部署变更顶掉。因组合稳定性否决；见"决定"。
|
||||
|
||||
**保留按 preset 的 realm 注册表，把 repository skill 作为目录交给 preset 的提供方扫描。**wrapper 的 `inject: ['skills']` 契约仍然破损（或者按 profile 分叉 wrapper），发现配置在每个 preset 里重复，冷会话依旧无处可读。否决。
|
||||
Reference in New Issue
Block a user