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0ef331fcd0 |
feat!: scope chat model override settings to organizations (#28442)
Moves chat model override settings from deployment scope to organization scope, following the org-scoping of chat model configs in #28440. Depends on #28440 (based on `ethan/chat-models-availability-consolidation`). Remote dogfood UAT passed on this change, including multi-organization scenarios on a licensed deployment with real models. ## Problem Chat model configs are now owned by organizations, but the override settings that reference them stayed deployment-wide: admin subagent/title/compaction overrides in `site_configs`, personal overrides in `user_configs`, and the advisor model embedded in the advisor runtime JSON. A single deployment-level override can only point at one organization's model config, so overrides effectively worked for the default organization only, and title generation had to soften its hard-failure contract to tolerate unusable overrides. ## Fix Admin overrides (general, explore, title generation, compaction, advisor) and personal overrides (root, general, explore) become organization-scoped rows in two new typed tables, `chat_organization_model_overrides` and `chat_user_model_overrides`. Composite foreign keys on `(organization_id, model_config_id)` make cross-organization model references unrepresentable. The migration deletes the legacy serialized `site_configs`/`user_configs` override keys instead of migrating them; admins and users re-select models in the new organization-scoped settings. New endpoints live under `/api/experimental/organizations/{organization}/chats/model-overrides` (admin defaults) and `/api/experimental/organizations/{organization}/members/{user}/chats/model-overrides` (personal overrides); the legacy deployment-level routes are removed. chatd resolves overrides via the chat's organization, restoring the hard-failure contract for configured-but-unusable title generation overrides. The deployment-level `AllowUsers` switch and advisor runtime limits stay deployment-scoped. The Coder Agents settings UI gains a per-organization "Defaults & overrides" page under AI Settings > Models, and the personal overrides page gains an organization selector for users in multiple organizations. Advisor telemetry now reports per-organization override rows. **BREAKING CHANGE**: Existing deployment-level overrides are dropped, not migrated. Every organization starts with no overrides after upgrade, and model selections must be re-applied in the new settings. The legacy deployment-level override endpoints are removed. Closes https://linear.app/coder/issue/CODAGT-872 > [!NOTE] > Xum (AI agent) authored this PR on behalf of @ibetitsmike. <!-- xum-attribution: model=claude-opus-4-6 thinking=high --> --------- Co-authored-by: Ethan Dickson <ethan@coder.com> |
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aefc761fcf |
feat!: enforce organization scope for chat models (#27959)
## Summary Move chat model management and runtime availability to organization-scoped API routes. The API now identifies the organization in every model-management operation, applies chat model RBAC and ACLs within that organization, and returns only models the caller can use there. Depends on #27958. ## Problem Chat model configurations now belong to organizations, but the existing experimental management and discovery APIs are deployment-shaped. Their routes do not identify an organization, SDK methods do not accept an organization ID, and item operations address a model configuration by ID alone. That contract cannot safely expose organization-owned model configurations. It also does not provide the organization-specific provider information, authorization behavior, ACL management, or recovery guidance needed by the settings and chat clients later in the stack. ## Fix Add organization-scoped chat model endpoints under: ```text /api/experimental/organizations/{organization}/chats/models ``` The new API provides: - Organization-scoped model listing and creation. - Model get, update, and delete operations scoped by both organization and model ID. - Model ACL read and update operations. - Organization-scoped runtime availability and provider status. - Redacted provider descriptors for model-management clients. - Chat model RBAC and row ACL enforcement for writes, runtime discovery, and Chatd model selection. - Recovery guidance when a chat's organization has no usable local model. Historical chats can retain a model reference owned by another organization, but runtime selection uses an authorized local default when one is available. Foreign, inaccessible, disabled, and otherwise unusable models are not exposed as usable selections for the organization. The existing collection and availability routes remain as default-organization compatibility endpoints in this layer: ```text GET /api/experimental/chats/model-configs POST /api/experimental/chats/model-configs GET /api/experimental/chats/models ``` These compatibility routes do not provide access to models in non-default organizations. The previous unscoped item update and delete routes are removed because item operations must include the owning organization. ## Breaking change This changes the experimental HTTP API and Go SDK contracts for chat model management. Clients must migrate model-management and availability requests to the organization-scoped routes and provide an organization identifier. In the Go SDK, the following methods now require an organization ID: - `ChatModelAvailability` - `ChatModels` - `CreateChatModel` - `UpdateChatModel` - `DeleteChatModel` `ChatModels` also changes its return value from `[]ChatModel` to `OrganizationChatModelsResponse`, which includes the organization models and the redacted provider descriptors required by management clients. New item and ACL methods likewise require both the organization ID and model ID. The default-organization compatibility routes reduce the immediate impact for collection and availability callers, but they do not preserve the previous item API or SDK method signatures. Generated clients and direct consumers of the experimental API must be updated before adopting this change. _This pull request description was generated by Coder Agents._ |
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f32592ec6b |
feat!: scope chat model configs to organizations (#27955)
## Summary Scope chat model configurations and runtime model resolution to organizations. Each model configuration now belongs to exactly one organization, each organization can have its own default model, and Chatd only uses models that belong to the chat's organization. Depends on #27968. ## Problem Chat model configurations are currently deployment-wide even though chats belong to organizations. A default model, explicitly selected model, or configured model override can therefore reference the same model configuration from every organization. This prevents model catalogs and defaults from being isolated by organization and allows a chat to retain or select a model that its organization does not own. Existing model configurations also have no organization ownership or organization-scoped ACL data, and the database enforces a single live default across the entire deployment. ## Fix Add required organization ownership and ACL storage to chat model configurations. The migration assigns every existing configuration to the default organization, seeds organization-wide read access, and replaces the deployment-wide default constraint with a per-organization constraint. Scope Chatd lookup, admission, fallback, and queue-promotion behavior to the chat's organization: - New chats use the usable default model from their organization. - Explicit model selections from another organization are rejected. - Deployment or personal overrides that point to a foreign model are not used for the chat. - Historical cross-organization model references remain unchanged in the database, but runtime generation falls back to a usable local default. - Queue promotion resolves unavailable, disabled, missing, or foreign stored models to the usable local default and fails when no usable local default exists. The existing model configuration management and availability routes remain compatibility routes for the default organization in this layer. A later layer in the stack adds organization-scoped management routes and updates clients to use them. ## Breaking change This changes chat model behavior from deployment-wide to organization-scoped. Existing configurations are migrated only to the default organization; they are not copied into every organization. As a result: - A non-default organization no longer inherits the deployment's existing default model. - Creating a chat in an organization without a usable local default fails with `400: No default chat model config is configured.` - Explicitly selecting a configuration owned by another organization fails with `400: Model config does not belong to the specified organization.` - Existing chats whose stored model belongs to another organization can generate only if a usable local default is available; otherwise generation fails. Deployments using Agents in non-default organizations must configure a usable default chat model separately for each organization after the organization-scoped management layers in this stack are available. _This pull request description was generated by Coder Agents._ |
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ca1f6b19a2 | feat: remove legacy chat provider tables (#25416) | ||
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17409a515c |
feat(coderd): wire advisor runtime to admin config (#24622)
## Summary Wire the advisor runtime into `chatd`: read the admin config on every `runChat`, gate tool registration and system-prompt guidance on a **single eligibility boolean**, register the `advisor` built-in tool, and apply the exclusive-tool policy from PR 1. ## Motivation This is the integration seam where PRs 1–3 come together into an actual user-visible feature. Gating is deliberately root-chat-only for the initial rollout; child/sub-agent chats still do not see the tool or the guidance block. ## Changes ### `coderd/x/chatd/chatd.go` - `loadAdvisorConfig(ctx, logger)` reads the admin config (from PR 3) on each run. If `ModelConfigID` is set, it resolves the override model via `configCache.ModelConfigByID`; otherwise it falls back to the outer chat's model and provider options. Reasoning effort is plumbed into provider options via `applyAdvisorReasoningEffort`. - One computed `advisorEligible` boolean drives **both** tool registration (after skill tools, before MCP tools) and guidance injection via `chatprompt.InsertSystem(prompt, chatadvisor.ParentGuidanceBlock)`. - `setAdvisorPromptSnapshot` closures capture the outer prompt state at the right points in the lifecycle (`renderPlanPathPrompt`, `ReloadMessages`, `PrepareMessages`) so the advisor handoff uses the same context the outer model saw. - `ExclusiveToolNames["advisor"] = true` is passed to `chatloop.Run()` so mixed batches are rejected cleanly (PR 1 machinery). - `builtinToolNames["advisor"] = true` so metrics keep advisor distinct from the generic `mcp` label. ### Child-chat guard - Child/sub-agent chats deliberately do not see the advisor tool or guidance block, to avoid recursion/cost blowups until the pattern is proven. This is covered by `TestAdvisorGating_ChildChat` (currently skipped pending a rewrite against the new `plan`/`explore` subagent infrastructure; core gating logic is still exercised by `TestAdvisorGating_Disabled` and `TestAdvisorGating_RootChat`). ## Stack context This is **PR 4 of 6** in the advisor feature stack. It depends on PRs 1–3. ## Scope / non-goals - No frontend changes. The feature is invocable via the backend but renders generically until PR 5. - No separate provider runner; the nested advisor call reuses the existing model/provider path. - No DB migration. ## Validation - `go test ./coderd/x/chatd/... -run TestAdvisor` - `go build ./...` - `make lint` --- <details> <summary>📋 Implementation Plan (shared across the advisor stack)</summary> # Plan: Add a Mux-style advisor tool to coder agents/chatd ## Outcome Add a first-class `advisor` tool to agent chats in `coderd/x/chatd` that feels native to Coder: - it is a built-in server-side tool, not an MCP/dynamic-tool workaround; - it performs a nested **tool-less** model call for strategic advice; - it is exposed only when eligible, and the prompt mentions it only when it is actually available; - it is treated as a **planning-only** tool so it does not run alongside action tools in the same batch; - it tracks usage/cost separately enough for operators to reason about it; - it has a minimally polished UI in the Agents page; - and it ships with explicit dogfooding evidence, including screenshots and repro videos. ## Design decisions to lock before coding 1. **Primary architecture:** native built-in tool in `chattool/`, backed by a small `chatadvisor` package. 2. **Nested model execution:** reuse chatd's existing model/provider stack for a one-step, tool-less advisor call rather than inventing a new provider pathway. 3. **Execution policy:** treat `advisor` as an exclusive/planning-only tool; mixed batches must return structured policy errors and force the model to retry cleanly. 4. **Availability:** initial rollout is for root agent chats only; disable for child/sub-agent chats until recursion/cost policy is proven. 5. **Prompt sync:** use one eligibility boolean to drive both tool registration and advisor guidance injection. 6. **Persistence/cost split:** MVP should keep advisor usage visible in result metadata and server metrics; only add DB schema if product/billing explicitly needs queryable advisor-specific cost. 7. **UI scope:** generic tool rendering is an acceptable temporary milestone during backend bring-up, but the release candidate should include a dedicated lightweight advisor renderer. ## Delivery model The work should be executed as coordinated workstreams with one integration owner and parallel contributors for low-conflict areas. The integration owner should own `coderd/x/chatd/chatd.go` because prompt assembly, tool registration, and model resolution all converge there. ## Detailed workstreams ### Repo evidence used for this plan <details> <summary>Mux reference and current chatd seams</summary> **Mux reference implementation** - `src/node/services/tools/advisor.ts` — native advisor tool implementation. - `src/common/constants/advisor.ts` — advisor prompt/constants and truncation policy. - `src/common/utils/tools/tools.ts` — conditional tool registration. - `src/node/services/streamContextBuilder.ts` — injects advisor guidance only when the tool is available. **Current chatd seams** - `coderd/x/chatd/chatd.go` - `processChat()` — tool assembly, prompt assembly, and chatloop invocation. - `resolveChatModel()` — current model/provider/key resolution seam. - `type Config struct` — server-level chatd configuration surface. - `coderd/x/chatd/chatloop/chatloop.go` - `Run()` — main streaming/model loop. - `executeTools()` — built-in tool execution/batching seam. - `coderd/x/chatd/chattool/` — built-in tool implementations. - `site/src/pages/AgentsPage/components/ChatElements/tools/Tool.tsx` — tool renderer dispatch. - `site/src/pages/AgentsPage/components/ChatConversation/messageParsing.ts` and `ConversationTimeline.tsx` — tool/result merge and rendering flow. </details> ### Workstream map and ownership | Workstream | Primary owner | Main files | Can run in parallel? | Done when | |---|---|---|---|---| | 0. Integration + gating | Integration lead | `coderd/x/chatd/chatd.go` | No; central merge lane | Tool registration, prompt sync, and model selection are wired together | | 1. Advisor runtime + tool | Backend agent | new `coderd/x/chatd/chatadvisor/`, new `coderd/x/chatd/chattool/advisor.go` | Yes | Tool can perform a tool-less advisor call in memory and return structured results | | 2. Planning-only execution policy | Chatloop agent | `coderd/x/chatd/chatloop/chatloop.go`, related tests | Yes | Mixed `advisor` + action-tool batches are rejected cleanly and deterministically | | 3. Metrics/usage/config | Backend/telemetry agent | `chatd.go`, `chatloop/metrics.go`, optional config plumbing | Partially; coordinate with integration lead | Advisor usage is separately visible in metadata/metrics and limits are enforced | | 4. Frontend rendering | Frontend agent | `site/.../tools/Tool.tsx`, new `AdvisorTool.tsx`, stories | Yes after result schema stabilizes | Advisor renders as a readable card and story tests pass | | 5. Dogfood + QA evidence | QA agent | dev server, Storybook, dogfood output | After backend + UI are usable | Repro videos, screenshots, and a concise QA report exist | ### Parallelization rules - **Do not split `coderd/x/chatd/chatd.go` across multiple execution agents without an integration lead.** That file owns prompt building, tool registration, model resolution, and cost persistence. - Workstreams 1 and 2 can be developed in parallel and then stacked onto the integration branch. - Workstream 4 should begin once the backend result schema is agreed on, even if the backend is still behind a feature flag. - Any agent that needs to re-check Mux behavior should clone `coder/mux` into a temporary directory (for example, `$(mktemp -d)/mux`) and inspect it read-only; do not vendor or copy code from Mux directly. ## Phase 0 — Preflight and guardrails ### Goals - Align the team on the smallest shippable architecture. - Prevent scope creep into MCP/dynamic-tool/sub-agent variants. - Decide upfront what is MVP vs. follow-up. ### Tasks 1. **Confirm the MVP boundary.** - Ship a built-in advisor tool first. - Do **not** make MCP, dynamic tools, or sub-agents the primary implementation. - Do **not** add transient streaming phases in the first backend PR unless they fall out almost for free. 2. **Confirm local workflow hygiene before coding.** - Ensure the repo is using the project git hooks from `scripts/githooks`. - Do not bypass hooks with `--no-verify`. - Use `./scripts/develop.sh` for the full dev server rather than manual build/run commands. 3. **Lock the model-selection policy.** - **Recommended MVP:** advisor uses the same resolved provider/model/cost config as the current chat, with advisor-specific max-output and usage caps. - **Follow-up only if required:** add a separate `AdvisorModelConfigID`-style override that resolves through the existing `configCache`/model-config path. Do not invent a new free-form `provider:model` parser if chatd already stores provider/model separately. 4. **Lock the persistence policy.** - **Recommended MVP:** no DB migration. Persist advisor-visible metadata in the tool result and record separate metrics in memory/Prometheus. - **Only if product/billing explicitly asks for queryable advisor cost:** add a later DB migration or usage table, following the normal `queries/*.sql` + `make gen` workflow. 5. **Create an execution ADR note in the work item or tracking doc.** - Capture: built-in tool, tool-less nested call, root-chat-only rollout, exclusive execution policy, MVP no-DB-migration default. ### Quality gate - Everyone on the team can state the same answers to these questions: - Is advisor a built-in tool? **Yes.** - Can advisor run with action tools in the same batch? **No.** - Does advisor get tools of its own? **No.** - Is a DB migration required for MVP? **No, unless billing insists.** ## Phase 1 — Build the advisor runtime and tool wrapper ### Goals Create the core advisor implementation in a way that is easy to test and keeps `chattool/` thin. ### Files to add - `coderd/x/chatd/chatadvisor/types.go` - `coderd/x/chatd/chatadvisor/guidance.go` - `coderd/x/chatd/chatadvisor/handoff.go` - `coderd/x/chatd/chatadvisor/runtime.go` - `coderd/x/chatd/chatadvisor/runner.go` - `coderd/x/chatd/chattool/advisor.go` ### Responsibilities by file 1. **`types.go`** - Define the input/result schema used by the tool and UI. - Keep the result shape close to Mux so the UI and model both have predictable cases. - Recommended result variants: - `advice` - `limit_reached` - `error` Recommended shape: ```go type AdvisorArgs struct { Question string `json:"question"` } type AdvisorResult struct { Type string `json:"type"` Advice string `json:"advice,omitempty"` Error string `json:"error,omitempty"` AdvisorModel string `json:"advisor_model,omitempty"` RemainingUses int `json:"remaining_uses,omitempty"` Usage *AdvisorUsageResult `json:"usage,omitempty"` } ``` 2. **`guidance.go`** - Hold two strings: - the nested advisor system prompt; - the parent-agent guidance block to inject into the outer system prompt. - The nested advisor prompt must say, in plain language: - you are advising the parent agent; - you do not address the end user directly; - you do not claim actions happened; - you return concise strategic guidance and tradeoffs. 3. **`runtime.go`** - Define the per-run runtime state. - Recommended fields: - resolved model + model config; - provider keys/options reused from the outer chat; - `MaxUsesPerRun`; - `MaxOutputTokens`; - atomic/current call counter; - callback(s) to obtain the current prompt snapshot and current-step snapshot; - optional metrics/usage hook. - Add fail-fast validation for impossible config: nil model, non-positive limits, empty prompt builders, etc. 4. **`handoff.go`** - Build the advisor handoff message from: - the explicit question; - the exact prompt/messages the parent model just used; - the current step's text/reasoning snapshot, if available; - the most recent relevant tool outputs, if they are already in the prompt snapshot. - **Important:** use the already-prepared outer prompt tail, not a fresh DB reload. That keeps the advisor aligned with compaction and the exact context the outer model saw. - Apply hard truncation budgets with recent-context bias. 5. **`runner.go`** - Execute the nested advisor call. - **Recommended implementation:** call `chatloop.Run()` in an in-memory, one-step mode: - `Tools: nil` - `ProviderTools: nil` - `MaxSteps: 1` - `PersistStep`: capture the assistant output in memory instead of writing DB rows - Reuse the existing provider/model/cost path instead of building a second provider runner. - Assert that no tool definitions are passed to the nested call. 6. **`chattool/advisor.go`** - Keep this file thin and consistent with other built-ins. - Responsibilities: - decode `AdvisorArgs`; - validate `Question` is non-empty and bounded; - call the `chatadvisor` runner; - return a structured tool response. ### Defensive programming requirements - Assert `Question` is non-empty after trimming. - Assert runtime limits are positive. - Assert the nested advisor call runs with zero tools/provider tools. - Assert `AdvisorResult.Type` is one of the known variants before returning. - Assert remaining uses never goes negative. ### Acceptance criteria - A unit test can call the advisor tool with a fake model and receive a stable `advice` result. - The nested advisor call is impossible to run with tools accidentally attached. - The core logic lives in `chatadvisor/`, not embedded inside `chatd.go`. ## Phase 2 — Wire advisor into chatd and keep prompt/tool availability in sync ### Goals Register the tool in the right place, expose it only when eligible, and inject system guidance only when the tool is present. ### Files to modify - `coderd/x/chatd/chatd.go` - optionally a small helper file if `chatd.go` becomes too crowded ### Tasks 1. **Compute one eligibility boolean in `processChat()`.** Recommended inputs: - server-level advisor enabled flag; - root chat only (`chat.ParentChatID == uuid.Nil` or equivalent existing root/child check); - a usable resolved model/provider exists; - optional experiment/workspace/org gate if product wants staged rollout. 2. **Create the runtime once per outer chat run.** - Use the model/config/keys resolved by `resolveChatModel()`. - Reuse provider options from the current chat's `ChatModelCallConfig`. - Set `MaxUsesPerRun` and `MaxOutputTokens` from advisor config defaults. 3. **Register the tool in the built-in tool block.** - Insert after the skill tools and before MCP tools in `processChat()`. - Record `builtinToolNames["advisor"] = true` so metrics stay bounded. 4. **Inject advisor guidance into the outer system prompt using the same boolean.** - Use `chatprompt.InsertSystem()` in the same prompt assembly path that already injects user/system instructions. - Place the block near the existing instruction insertion, before plan-path/skill context blocks. - Wrap the guidance in an explicit tag like `<advisor-guidance>` so it is easy to spot in tests and future refactors. 5. **Keep advisor out of child chats for the first release.** - That avoids recursion/cost blowups with `spawn_agent` / `wait_agent` flows. - Document this explicitly in the rollout notes and tests. ### Acceptance criteria - If advisor is disabled, neither the tool nor the prompt guidance appears. - If advisor is enabled, both the tool and the prompt guidance appear. - Root chats can use advisor; child chats cannot. - Built-in tool names include `advisor` so metrics do not collapse it into the generic `mcp` label. ## Phase 3 — Enforce planning-only execution policy in `chatloop` ### Goals Prevent the model from calling `advisor` and action tools in the same execution batch. ### Files to modify - `coderd/x/chatd/chatloop/chatloop.go` - related chatloop tests ### Recommended implementation Keep the MVP small; do **not** build a general policy engine yet. 1. Add a minimal field to `chatloop.RunOptions`, for example: ```go ExclusiveToolName *string ``` 2. In `Run()` / `executeTools()`, detect the case where the exclusive tool appears in the same local-tool batch as any other locally executed tool. 3. When that happens, synthesize structured tool-result errors for the affected calls instead of executing anything in the batch. - `advisor` should receive a clear error like: _advisor must be called by itself before action tools_. - The sibling action tools should receive a paired policy error like: _this tool was skipped because advisor must run alone_. 4. Let the outer model see those tool errors and retry cleanly. - This is simpler and safer than partial execution or hidden deferral. - It preserves deterministic transcript history for debugging. 5. Pass the just-finished step snapshot into the tool execution context. - The advisor runtime should be able to see the current step's text/reasoning content, because that is often the best hint about what the outer model is trying to decide. ### Why this is the right fit - It matches the intended semantics: advisor is consulted **before** taking action. - It avoids subtle race conditions caused by concurrent built-in tool execution. - It keeps the behavior easy to test with fake models. ### Acceptance criteria - A model-emitted batch containing only `advisor` succeeds. - A model-emitted batch containing `advisor` plus any other locally executed tool returns deterministic policy errors and executes nothing. - Non-advisor tool execution stays unchanged for normal chats. ## Phase 4 — Usage limits, metrics, and configuration ### Goals Make advisor safe to operate without over-designing billing/storage in the first release. ### Files to modify - `coderd/x/chatd/chatd.go` - `coderd/x/chatd/chatloop/metrics.go` as needed - `coderd/x/chatd/chatd.go` `Config` struct and constructor path - optional follow-up config/db files only if a separate advisor model or persistent billing is required ### Tasks 1. **Add explicit server config knobs for MVP.** Recommended fields on `chatd.Config` or a nested advisor config struct: - `AdvisorEnabled bool` - `AdvisorMaxUsesPerRun int` - `AdvisorMaxOutputTokens int64` 2. **Track usage per outer run.** - Reset the counter for each `processChat()` invocation. - Return `remaining_uses` in the tool result. - Return `limit_reached` when the cap is exhausted. 3. **Expose advisor usage metadata in the tool result.** - Include model name and token/cost summary if available. - Use the same `callConfig.Cost` calculation path as the outer chat for MVP if advisor reuses the same model. 4. **Record server-side metrics.** - Count advisor invocations, failures, and latency. - Ensure they show up under the built-in tool label `advisor`. 5. **Optional decision gate: separate advisor model.** - If product insists on a stronger/different advisor model, add a follow-up config hook that resolves another existing chat model config through the same `configCache` path. - Keep that out of the first landing PR unless it is required for acceptance. 6. **Optional decision gate: queryable advisor cost.** - If this becomes required, spin a follow-up DB task: - update `coderd/database/queries/*.sql`; - add migration files; - run `make gen`; - update audit mappings if a new auditable type/field is introduced. ### Acceptance criteria - Advisor calls are capped per outer run. - Limit exhaustion is user-visible in the tool result. - Metrics distinguish advisor calls from other built-in tools. - MVP does not require a schema migration unless explicitly approved. ## Phase 5 — Frontend rendering and Storybook coverage ### Goals Make advisor feel intentional in the Agents UI without blocking the backend on fancy streaming UI. ### Files to modify - `site/src/pages/AgentsPage/components/ChatElements/tools/Tool.tsx` - new `site/src/pages/AgentsPage/components/ChatElements/tools/AdvisorTool.tsx` - Storybook story file(s) in the same tools directory ### Delivery strategy 1. **Intermediate milestone during backend bring-up:** rely on the existing generic tool renderer if needed. - This is acceptable only as a short-lived integration checkpoint. 2. **Release milestone:** add a dedicated lightweight `AdvisorTool` renderer. - Reuse existing primitives: - `ToolCollapsible` - `ToolIcon` - `Response` for markdown/prose rendering - `ScrollArea` if the advice can be long - Keep styling light and consistent with the Agents page. - Do not add unnecessary React memoization in `site/src/pages/AgentsPage/`; that area is already React-Compiler aware. 3. **Render the structured result states cleanly.** - `advice` — readable prose/markdown with optional metadata footer. - `limit_reached` — warning-style message. - `error` — error state with visible fallback text. - `running` — existing tool loading state/spinner is enough for MVP. 4. **Add Storybook coverage instead of ad-hoc component tests.** Recommended stories: - successful advice; - running/loading; - limit reached; - error. 5. **Keep the UI contract narrow.** - Prefer one text field like `advice` plus small metadata rather than a deeply nested schema. - That keeps the UI resilient to prompt iteration. ### Acceptance criteria - The advisor tool card renders readable content rather than raw quoted JSON in the final release branch. - Running, limit, and error states are visibly distinct. - Storybook stories and play assertions cover the new states. - Existing tool rendering flows remain unchanged. ## Phase 6 — Automated tests and validation gates ### Backend tests to add 1. **Advisor runtime/tool tests** - question validation; - tool-less nested execution assertion; - success result shaping; - limit-reached result shaping; - error result shaping. 2. **Prompt/gating tests in chatd** - advisor disabled ⇒ no tool, no guidance; - advisor enabled/root chat ⇒ tool + guidance; - child chat ⇒ advisor absent. 3. **Chatloop policy tests** - advisor alone runs; - advisor + action tool mixed batch returns deterministic policy errors; - non-advisor tools still execute normally. 4. **Usage/metrics tests** - per-run cap resets correctly; - builtin tool labeling includes `advisor`; - returned metadata includes model/usage summary when available. ### Frontend tests to add - Storybook `play()` assertions for the advisor renderer states. - Verify expand/collapse behavior and visible fallback text. - Verify the message timeline still renders adjacent tools correctly. ### Recommended command sequence Run these as the implementation matures, not only at the end: 1. Backend-focused gate after phases 1–4: - `make test RUN=TestAdvisor` - `make test RUN=TestChatloopAdvisor` - `make lint` 2. Frontend-focused gate after phase 5: - `pnpm test:storybook src/pages/AgentsPage/components/ChatElements/tools/AdvisorTool.stories.tsx` - `pnpm lint` - `pnpm format` 3. Final repo gate before handoff: - `make pre-commit` - run any additional targeted `make test RUN=...` selections covering touched chatd paths > Use the exact new test names the implementing agents create; the names above are recommended anchors, not existing tests. ## Dogfooding plan ### Principle Dogfood the change as a real agent feature, not just a unit-tested backend. Per the dogfood and `agent-browser` skills, the reviewer should get **watchable repro videos** plus screenshots that make the behavior obvious without reading logs. ### Required setup 1. Start the full dev environment with: - `./scripts/develop.sh` 2. If the frontend renderer changes, also start Storybook from `site/` with: - `pnpm storybook --no-open` 3. Use `agent-browser` directly — **never `npx agent-browser`**. 4. Use named browser sessions and an output folder such as: - `./dogfood-output/advisor/` - with subfolders `screenshots/` and `videos/` ### Evidence protocol For every interactive scenario below: 1. Start video recording **before** the action. 2. Capture step-by-step screenshots at human pace. 3. Capture one annotated screenshot of the final state. 4. Stop the recording. 5. Note the exact pass/fail observation in the QA report. For static UI states (for example Storybook error/limit cards), an annotated screenshot is sufficient; video is optional but still encouraged by this project’s review preference. ### Dogfood scenarios #### Scenario A — Happy path in the real Agents UI **Goal:** prove that a root agent chat can invoke advisor and produce a readable recommendation before taking further action. Steps: 1. Open the Agents page with an advisor-enabled root chat. 2. Start a repro video. 3. Send a prompt that should reasonably trigger strategic planning, such as an architecture or multi-tradeoff question. 4. Capture screenshots of: - the prompt before send; - the running advisor state; - the completed advisor card and the assistant’s follow-up response. 5. Stop recording. Pass criteria: - advisor appears in the timeline; - the rendered result is readable; - the assistant can continue after consuming the advisor output. #### Scenario B — Advisor unavailable path **Goal:** prove the feature is truly gated. Suggested variants (at least one is required, both are better): - feature flag/config off; - child/sub-agent chat. Evidence: - annotated screenshot of the chat/tool state showing advisor is absent; - short video if toggling the gate live is part of the repro. Pass criteria: - no advisor tool is available; - no advisor-specific prompt behavior leaks through. #### Scenario C — UI states in Storybook **Goal:** prove the renderer handles non-happy states cleanly. Required story states: - success/advice; - running; - limit reached; - error. Evidence: - one screenshot per state; - at least one short video showing collapse/expand behavior. Pass criteria: - success renders readable advice; - limit/error have visible fallback text; - the component behaves like the other tool cards. #### Scenario D — Regression sweep of nearby tools **Goal:** ensure advisor does not break the surrounding chat timeline. Check at minimum: - another existing built-in tool still renders correctly near advisor; - sub-agent/tool cards still expand/collapse normally; - no obvious console errors appear in the Agents page during the advisor flow. Evidence: - screenshots of adjacent tool cards; - console/error capture if anything suspicious appears. ### `agent-browser` usage notes for the QA agent - Prefer `agent-browser batch` for 2+ sequential commands when no intermediate parsing is needed. - Use `snapshot -i` to discover interactive refs. - Re-snapshot after navigation or major DOM changes. - Avoid `wait --load networkidle` unless the page is known to go idle; prefer explicit element/text waits or short fixed waits. - Record videos at human pace and include pauses that a reviewer can follow. ## Rollout plan ### Initial rollout - Gate behind a server-side advisor-enabled flag. - Enable only for selected internal/root agent chats first. - Watch metrics for: - invocation count; - failure rate; - latency; - obvious retry loops. ### Expansion conditions Expand beyond the initial rollout only after the following are true: - mixed-batch policy behavior is stable; - cost impact is understood; - frontend UX is readable in production-like dogfood; - no recursion surprises have appeared with sub-agent flows. ### Explicit non-goals for the first release - advisor inside child/sub-agent chats; - provider-agnostic streaming phase UI; - MCP-based external advisor implementation; - mandatory DB-backed advisor cost reporting. ## Final acceptance checklist - [ ] `advisor` is a built-in chatd tool, not an MCP/dynamic-tool substitute. - [ ] The nested advisor call is tool-less and bounded to one in-memory step. - [ ] One eligibility boolean controls both tool registration and prompt guidance injection. - [ ] Root chats can use advisor; child chats cannot in the initial rollout. - [ ] Mixed advisor/action batches produce deterministic policy errors instead of partial execution. - [ ] Per-run usage caps and limit-reached behavior work. - [ ] Advisor usage is visible in metadata/metrics without forcing a DB migration for MVP. - [ ] The Agents UI has a readable advisor card and Storybook coverage. - [ ] Dogfooding produced screenshots and repro videos for the required scenarios. - [ ] Validation commands (`make lint`, targeted `make test`, Storybook tests, `make pre-commit`) passed before handoff. ## Suggested PR split 1. **PR 1 — Backend foundation** - `chatadvisor/` package - `chattool/advisor.go` - `chatloop` exclusive policy - chatd gating/prompt sync - backend tests 2. **PR 2 — Frontend + QA** - advisor renderer - stories/play assertions - dogfood artifacts and QA notes 3. **PR 3 — Optional follow-ups only if demanded by stakeholders** - separate advisor model override - persistent advisor billing/queryability - transient phase-stream UX </details> --- _Generated with [`mux`](https://github.com/coder/mux) • Model: `anthropic:claude-opus-4-7` • Thinking: `max`_ |
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15f2fa55c6 |
perf(coderd/x/chatd): add process-wide config cache for hot DB queries (#23272)
## Summary Adds a process-wide cache for three hot database queries in `chatd` that were hitting Postgres on **every chat turn** despite returning rarely-changing configuration data: | Query | Before (50k turns) | After | Reduction | |---|---|---|---| | `GetEnabledChatProviders` | ~98.6k calls | ~500-1000 | ~99% | | `GetChatModelConfigByID` | ~49.2k calls | ~500-1000 | ~98% | | `GetUserChatCustomPrompt` | ~46.7k calls | ~1000-2000 | ~97% | These were identified via `coder exp scaletest chat` (5000 concurrent chats × 10 turns) as the dominant source of Postgres load during chat processing. ## Design Follows the established **webpush subscription cache pattern** (`coderd/webpush/webpush.go`): - `sync.RWMutex` + `tailscale.com/util/singleflight` (generic) + generation-based stale prevention + TTL - 10s TTL for provider/model config, 5s TTL for user prompts - Negative caching for `sql.ErrNoRows` on user prompts (the common case — most users don't set custom prompts) - Deep-clones `ChatModelConfig.Options` (`json.RawMessage` = `[]byte`) on both store and read paths ### Invalidation Single pubsub channel (`chat:config_change`) with kind discriminator for cross-replica cache invalidation. Seven publish points in `coderd/chats.go` cover all admin mutation endpoints (create/update/delete for providers and model configs, put for user prompts). _This PR was generated with mux and was reviewed by a human_ |