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@@ -73,7 +73,7 @@ Core, rendering, IPC, kernel, panel manager.
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### D-1: CLI-first, not MCP
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### D-1: CLI-first, not MCP
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- **Date:** 2026-04-20 (was ADR 0001; ported from the claudian lineage)
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- **Date:** 2026-04-20 (was ADR 0001; ported from the claudian lineage)
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- **Amendment (2026-05-15):** D-1's intent — the CLI is the *primary* agent-facing surface, with the same contract as pql — stands. An additional `/ide`-compatible MCP surface is added per [D-68](#d-68-dual-integration-surface-bash-cli-primary-mcp-secondary); both wrap the same in-process dispatcher. The escape-hatch line in this record's Cost ("nothing here precludes adding [MCP] later that shells out to the same CLI") is realised — the MCP server does not bypass the CLI's surface, it offers a second transport to it.
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- **Amendment (2026-05-15):** D-1's intent — the CLI is the *primary* agent-facing surface, with the same contract as pql — stands. An additional `/ide`-compatible MCP surface is added per [D-68](#d-68-dual-integration-surface--bash-cli-primary-mcp-secondary); both wrap the same in-process dispatcher. The escape-hatch line in this record's Cost ("nothing here precludes adding [MCP] later that shells out to the same CLI") is realised — the MCP server does not bypass the CLI's surface, it offers a second transport to it.
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- **Decision:** Claude talks to clide exclusively via Bash (`clide …`). No MCP server. No protocol layer in Claude's face. The CLI uses the same exit-code + stderr-JSON contract as pql.
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- **Decision:** Claude talks to clide exclusively via Bash (`clide …`). No MCP server. No protocol layer in Claude's face. The CLI uses the same exit-code + stderr-JSON contract as pql.
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- **Context:** The two mainstream options for the agent-facing surface were an MCP server or a plain Bash CLI matching pql's contract.
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- **Context:** The two mainstream options for the agent-facing surface were an MCP server or a plain Bash CLI matching pql's contract.
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- **Rationale:** Same mental model as pql for the agent — one tool-use pattern covers both. No MCP runtime to host, authenticate, or keep in sync with client versions. User/Claude parity is easier to enforce: every CLI subcommand must have a UI affordance in the Flutter app and vice versa ([D-6](#d-6-cli-and-event-surface-contract)). Claude Code's `Bash(clide *)` allow rule is the only configuration clide needs on the agent side.
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- **Rationale:** Same mental model as pql for the agent — one tool-use pattern covers both. No MCP runtime to host, authenticate, or keep in sync with client versions. User/Claude parity is easier to enforce: every CLI subcommand must have a UI affordance in the Flutter app and vice versa ([D-6](#d-6-cli-and-event-surface-contract)). Claude Code's `Bash(clide *)` allow rule is the only configuration clide needs on the agent side.
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@@ -86,7 +86,7 @@ Core, rendering, IPC, kernel, panel manager.
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- **Context:** [`pql`](https://github.com/postmeridiem/pql) is a pre-existing Go CLI that indexes a markdown-bearing directory tree into SQLite and exposes frontmatter, wikilinks, tags, headings, and bases through a query surface. Clide needs those capabilities for its Query panel, canvas drivers, graph view, and any feature that needs to know structure.
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- **Context:** [`pql`](https://github.com/postmeridiem/pql) is a pre-existing Go CLI that indexes a markdown-bearing directory tree into SQLite and exposes frontmatter, wikilinks, tags, headings, and bases through a query surface. Clide needs those capabilities for its Query panel, canvas drivers, graph view, and any feature that needs to know structure.
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- **Rationale:** One source of truth for markdown semantics. Any new query capability the UI wants goes through a pql upstream PR, not a local workaround. Users never have to learn pql's config file to get consistent behaviour — clide manages it. The arrow clide → pql is never inverted: pql stays ignorant of its wrapper.
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- **Rationale:** One source of truth for markdown semantics. Any new query capability the UI wants goes through a pql upstream PR, not a local workaround. Users never have to learn pql's config file to get consistent behaviour — clide manages it. The arrow clide → pql is never inverted: pql stays ignorant of its wrapper.
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- **Cost:** Clide's `lib/src/pql/` package is deliberately thin. pql is also the **only** query engine — Obsidian-style inline "bases" are explicitly not supported; queries live at the repo level. In repos without clide, pql works standalone unaffected.
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- **Cost:** Clide's `lib/src/pql/` package is deliberately thin. pql is also the **only** query engine — Obsidian-style inline "bases" are explicitly not supported; queries live at the repo level. In repos without clide, pql works standalone unaffected.
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- **Raised by:** Ported from the claudian lineage. Load-bearing for [D-39](process.md#d-39-planning-tooling-lives-in-pql).
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- **Raised by:** Ported from the claudian lineage. Load-bearing for [D-39](process.md#d-39-planning-tooling-lives-in-pql-not-clide).
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### D-4: Ignore file strategy
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### D-4: Ignore file strategy
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- **Date:** 2026-04-20 (was ADR 0004; ported from the claudian lineage)
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- **Date:** 2026-04-20 (was ADR 0004; ported from the claudian lineage)
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@@ -112,7 +112,7 @@ Core, rendering, IPC, kernel, panel manager.
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- **Decision:** The CLI is organised into **subsystems**. Each subsystem owns a noun, a set of verbs, and a set of events. The set is closed at any point in time (documented); growth is additive (new verbs, new events — never renaming existing ones without a version bump). Initial subsystems (by tier): `pane`, `tab`, `open`, `editor`, `panel`, `tree`, `git`, `pql`, `canvas`, `graph`, `theme`, `settings`, `project`. Two umbrella entry points sit outside any subsystem: `clide tail --events [--filter <subsystem>[:<id>]]` and `clide status`. Command shape: `clide <subsystem> <verb> [<positional>...] [--flag ...] [-- argv...]`. Exit codes parity with pql (`0/1/2/3/4` + `64-78` sysexits reserved); diagnostic JSON on **stderr** on non-zero exit; stdout stays machine-parseable on success. Events are JSON objects, one per line, with `v`, `ts`, `type` (`<subsystem>.<verb_past|noun_changed>`), `subsystem`, `id`, and `payload`; binary payloads base64. Every state-changing command emits at least one event; read-only commands emit nothing. Replay buffer per subsystem (default depth 16) so late subscribers still see recent effects. Parity rule: every UI affordance has a matching CLI verb (or a follow-up task naming the verb); every CLI verb surfaces in the UI (or documents why it's Claude-only).
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- **Decision:** The CLI is organised into **subsystems**. Each subsystem owns a noun, a set of verbs, and a set of events. The set is closed at any point in time (documented); growth is additive (new verbs, new events — never renaming existing ones without a version bump). Initial subsystems (by tier): `pane`, `tab`, `open`, `editor`, `panel`, `tree`, `git`, `pql`, `canvas`, `graph`, `theme`, `settings`, `project`. Two umbrella entry points sit outside any subsystem: `clide tail --events [--filter <subsystem>[:<id>]]` and `clide status`. Command shape: `clide <subsystem> <verb> [<positional>...] [--flag ...] [-- argv...]`. Exit codes parity with pql (`0/1/2/3/4` + `64-78` sysexits reserved); diagnostic JSON on **stderr** on non-zero exit; stdout stays machine-parseable on success. Events are JSON objects, one per line, with `v`, `ts`, `type` (`<subsystem>.<verb_past|noun_changed>`), `subsystem`, `id`, and `payload`; binary payloads base64. Every state-changing command emits at least one event; read-only commands emit nothing. Replay buffer per subsystem (default depth 16) so late subscribers still see recent effects. Parity rule: every UI affordance has a matching CLI verb (or a follow-up task naming the verb); every CLI verb surfaces in the UI (or documents why it's Claude-only).
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- **Context:** [D-1](#d-1-cli-first-not-mcp) established that Claude drives clide via a Bash CLI. That decided the *channel* — it did not define the *surface*. CLAUDE.md stated the rule colloquially ("every CLI subcommand has a UI affordance … if you add one side without the other, the feature is incomplete"); this record restates it as an implementable contract that satisfies user/Claude parity, daemon-as-authoritative-state, and pql-style ergonomics at once.
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- **Context:** [D-1](#d-1-cli-first-not-mcp) established that Claude drives clide via a Bash CLI. That decided the *channel* — it did not define the *surface*. CLAUDE.md stated the rule colloquially ("every CLI subcommand has a UI affordance … if you add one side without the other, the feature is incomplete"); this record restates it as an implementable contract that satisfies user/Claude parity, daemon-as-authoritative-state, and pql-style ergonomics at once.
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- **Rationale:** Surface is enumerable — adding a subsystem means adding a row and specifying verbs + events. Wire schema is versioned (`v: 1` starting point; compatibility breaks bump the major and land alongside a `pubspec.yaml` `schema_version:` bump — see [Q-5](questions-architecture.md#q-5-ipc-wire-format-stability)). Events are the only UI→app state channel; the Flutter app does not poll. Extensions inherit this — a Dart extension publishes a subsystem; the same registration pipeline exposes it to Claude via the CLI.
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- **Rationale:** Surface is enumerable — adding a subsystem means adding a row and specifying verbs + events. Wire schema is versioned (`v: 1` starting point; compatibility breaks bump the major and land alongside a `pubspec.yaml` `schema_version:` bump — see [Q-5](questions-architecture.md#q-5-ipc-wire-format-stability)). Events are the only UI→app state channel; the Flutter app does not poll. Extensions inherit this — a Dart extension publishes a subsystem; the same registration pipeline exposes it to Claude via the CLI.
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- **Cost:** Replay-buffer memory per subsystem (cheap — most emit seldom). Back-pressure on firehose streams ([Q-2](questions-architecture.md#q-2-back-pressure-on-event-streams)), authorisation granularity ([Q-1](questions-architecture.md#q-1-authorisation-granularity)), and event persistence ([Q-3](questions-architecture.md#q-3-event-persistence-audit-undo)) are all deferred until Tier 1 is in real use.
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- **Cost:** Replay-buffer memory per subsystem (cheap — most emit seldom). Back-pressure on firehose streams ([Q-2](questions-architecture.md#q-2-back-pressure-on-event-streams)), authorisation granularity ([Q-1](questions-architecture.md#q-1-authorisation-granularity-on-the-ipc-socket)), and event persistence ([Q-3](questions-architecture.md#q-3-event-persistence-audit-undo)) are all deferred until Tier 1 is in real use.
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- **Raised by:** 2026-04-20 planning.
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- **Raised by:** 2026-04-20 planning.
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### D-43: Design handoff — adopt token palettes, reject Material wrapper
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### D-43: Design handoff — adopt token palettes, reject Material wrapper
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@@ -128,7 +128,7 @@ Core, rendering, IPC, kernel, panel manager.
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- **Decision:** Ship four bundled themes replacing the single summer-night preset. `clide` (cool near-black + periwinkle, default), `midnight` (VS Code-adjacent muted dark), `paper` (drafting-sheet light), `terminal` (near-black + amber). All share the same semantic token names. Source palettes in `docs/claude-design/themes/`; runtime YAML under `lib/kernel/src/theme/themes/`.
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- **Decision:** Ship four bundled themes replacing the single summer-night preset. `clide` (cool near-black + periwinkle, default), `midnight` (VS Code-adjacent muted dark), `paper` (drafting-sheet light), `terminal` (near-black + amber). All share the same semantic token names. Source palettes in `docs/claude-design/themes/`; runtime YAML under `lib/kernel/src/theme/themes/`.
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- **Rationale:** Summer-night was a placeholder carried from the legacy TUI. The design system delivers a coherent set of four that covers dark, muted-dark, light, and monochrome workflows.
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- **Rationale:** Summer-night was a placeholder carried from the legacy TUI. The design system delivers a coherent set of four that covers dark, muted-dark, light, and monochrome workflows.
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- **Cost:** Summer-night users lose their theme (acceptable — it was dev-only). Four YAML files to maintain.
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- **Cost:** Summer-night users lose their theme (acceptable — it was dev-only). Four YAML files to maintain.
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- **Cross-reference:** [D-43](#d-43-design-handoff-adopt-token-palettes-reject-material-wrapper), [D-22](accessibility.md#d-22-wcag-aa-contrast-gate-on-bundled-themes).
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- **Cross-reference:** [D-43](#d-43-design-handoff--adopt-token-palettes-reject-material-wrapper), [D-22](accessibility.md#d-22-wcag-aa-contrast-gate-on-bundled-themes).
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- **Raised by:** 2026-04-22 design handoff review.
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- **Raised by:** 2026-04-22 design handoff review.
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### D-45: Syntax highlighting tokens in the theme pipeline
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### D-45: Syntax highlighting tokens in the theme pipeline
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@@ -250,11 +250,11 @@ Core, rendering, IPC, kernel, panel manager.
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### D-68: Dual integration surface — Bash CLI primary, MCP secondary
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### D-68: Dual integration surface — Bash CLI primary, MCP secondary
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- **Date:** 2026-05-15
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- **Date:** 2026-05-15
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- **Amendment (2026-05-19):** Both surfaces implemented in T-99. CLI lands as `IpcServer` over the unix socket (T-124, per D-70/71/72) with the C client at `native/clide-cli/clide.c` (T-126); the argv grammar lives in `lib/src/cli/argv_to_request.dart` (T-125). MCP lands as `McpServer` over HTTP+SSE (T-130, per D-73) — the transport choice closed Q-33. The two `/ide` minimum tools ship as stubs; real implementations follow as Q-32 resolves the broader tool-surface question.
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- **Amendment (2026-05-19):** Both surfaces implemented in T-99. CLI lands as `IpcServer` over the unix socket (T-124, per D-70/71/72) with the C client at `native/clide-cli/clide.c` (T-126); the argv grammar lives in `lib/src/cli/argv_to_request.dart` (T-125). MCP lands as `McpServer` over HTTP+SSE (T-130, per D-73) — the transport choice closed Q-33. The two `/ide` minimum tools ship as stubs; real implementations follow as Q-32 resolves the broader tool-surface question.
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- **Decision:** clide exposes two integration surfaces over the same in-process `DaemonDispatcher`. **(1) Bash CLI over Unix socket — primary.** Per [D-1](#d-1-cli-first-not-mcp) and [D-56](#d-56-dissolve-daemon-process-flutter-app-hosts-ipc-server), a thin C client (`clide …`) connects to a per-user Unix socket served in-process by the Flutter app, exchanges JSON-lines, and exits. This is the surface Claude-Code-in-a-pane uses; it is also the surface for human shell use, scripts, and external editor integrations. Full action surface — `pane.*`, `files.*`, `editor.*`, `git.*`, `pql.*`, …. **(2) `/ide`-compatible MCP server — secondary.** clide additionally serves an MCP endpoint compatible with Claude Code's `/ide` integration (the same protocol VS Code and JetBrains plugins serve). Minimum tools: `mcp__ide__getDiagnostics`, `mcp__ide__executeCode`. Optional `mcp__clide__*` namespace exposing high-leverage clide tools is deferred to [Q-32](../questions/architecture.md#q-32-mcp-tool-surface-minimum-slash-ide-or-extended-clide-tools). Transport closed by [D-73](#d-73-mcp-transport-for-ide-is-sse-over-http) — SSE over HTTP. The MCP server wraps the *same* `DaemonDispatcher`; there is no second source of truth.
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- **Decision:** clide exposes two integration surfaces over the same in-process `DaemonDispatcher`. **(1) Bash CLI over Unix socket — primary.** Per [D-1](#d-1-cli-first-not-mcp) and [D-56](#d-56-dissolve-daemon-process-flutter-app-hosts-ipc-server), a thin C client (`clide …`) connects to a per-user Unix socket served in-process by the Flutter app, exchanges JSON-lines, and exits. This is the surface Claude-Code-in-a-pane uses; it is also the surface for human shell use, scripts, and external editor integrations. Full action surface — `pane.*`, `files.*`, `editor.*`, `git.*`, `pql.*`, …. **(2) `/ide`-compatible MCP server — secondary.** clide additionally serves an MCP endpoint compatible with Claude Code's `/ide` integration (the same protocol VS Code and JetBrains plugins serve). Minimum tools: `mcp__ide__getDiagnostics`, `mcp__ide__executeCode`. Optional `mcp__clide__*` namespace exposing high-leverage clide tools is deferred to [Q-32](../questions/architecture.md#q-32-mcp-tool-surface--minimum-slash-ide-or-extended-clide-tools). Transport closed by [D-73](#d-73-mcp-transport-for-ide-is-sse-over-http) — SSE over HTTP. The MCP server wraps the *same* `DaemonDispatcher`; there is no second source of truth.
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- **Context:** [D-1](#d-1-cli-first-not-mcp) chose CLI-first over MCP-only because MCP alone doesn't cover the action surface clide needs — Claude Code's `/ide` MCP exposes only two narrow tools (`getDiagnostics`, `executeCode`), enough for Claude to read diagnostics and run Jupyter cells but not enough to *drive* an IDE. The CLI surface gives full reach. But for users who run Claude Code *outside* clide and connect via `/ide`, MCP is the only path Claude Code knows; not serving it means clide is invisible to that workflow. The two surfaces are complementary, not alternatives. Reinforced by the [2026-05-14 consultant review](../../consultants.md): the architect flagged the absent socket server as the most critical drift; user confirmed the socket server (D-56 path a) plus an MCP companion.
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- **Context:** [D-1](#d-1-cli-first-not-mcp) chose CLI-first over MCP-only because MCP alone doesn't cover the action surface clide needs — Claude Code's `/ide` MCP exposes only two narrow tools (`getDiagnostics`, `executeCode`), enough for Claude to read diagnostics and run Jupyter cells but not enough to *drive* an IDE. The CLI surface gives full reach. But for users who run Claude Code *outside* clide and connect via `/ide`, MCP is the only path Claude Code knows; not serving it means clide is invisible to that workflow. The two surfaces are complementary, not alternatives. Reinforced by the [2026-05-14 consultant review](../../consultants.md): the architect flagged the absent socket server as the most critical drift; user confirmed the socket server (D-56 path a) plus an MCP companion.
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- **Rationale:** Both surfaces wrap the same dispatcher, so neither becomes a second source of truth. CLI remains the contract user/Claude parity ([D-6](#d-6-cli-and-event-surface-contract)) is enforced against. MCP is added because the `/ide` ecosystem is real and growing — VS Code, JetBrains, Cursor, Windsurf all serve compatible MCP — and clide should be a peer there. The implementation cost is a protocol adapter + tool definitions, not duplicate business logic.
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- **Rationale:** Both surfaces wrap the same dispatcher, so neither becomes a second source of truth. CLI remains the contract user/Claude parity ([D-6](#d-6-cli-and-event-surface-contract)) is enforced against. MCP is added because the `/ide` ecosystem is real and growing — VS Code, JetBrains, Cursor, Windsurf all serve compatible MCP — and clide should be a peer there. The implementation cost is a protocol adapter + tool definitions, not duplicate business logic.
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- **Cost:** Two transports to maintain. Mitigated by both wrapping the same dispatcher: the MCP adapter is the only thing that has to track `/ide` protocol evolution. If `mcp__clide__*` tools are added (pending Q-32), surface bloat is the obvious risk — every CLI verb invites an MCP twin; resist by default, justify on user need.
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- **Cost:** Two transports to maintain. Mitigated by both wrapping the same dispatcher: the MCP adapter is the only thing that has to track `/ide` protocol evolution. If `mcp__clide__*` tools are added (pending Q-32), surface bloat is the obvious risk — every CLI verb invites an MCP twin; resist by default, justify on user need.
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- **Cross-reference:** [D-1](#d-1-cli-first-not-mcp) (amended — see amendment line there), [D-6](#d-6-cli-and-event-surface-contract), [D-56](#d-56-dissolve-daemon-process-flutter-app-hosts-ipc-server), [Q-32](../questions/architecture.md#q-32-mcp-tool-surface-minimum-slash-ide-or-extended-clide-tools), [Q-33](../questions/architecture.md#q-33-mcp-transport-sse-websocket-stdio-or-all).
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- **Cross-reference:** [D-1](#d-1-cli-first-not-mcp) (amended — see amendment line there), [D-6](#d-6-cli-and-event-surface-contract), [D-56](#d-56-dissolve-daemon-process-flutter-app-hosts-ipc-server), [Q-32](../questions/architecture.md#q-32-mcp-tool-surface--minimum-slash-ide-or-extended-clide-tools), [Q-33](../questions/architecture.md#q-33-mcp-transport--sse-websocket-stdio-or-all).
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- **Raised by:** 2026-05-15 — consultant review (`consultants.md`) flagged the absent socket server (D-56 unimplemented) as the highest architectural drift; user chose option (a) "implement the server" and asked for MCP coverage alongside.
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- **Raised by:** 2026-05-15 — consultant review (`consultants.md`) flagged the absent socket server (D-56 unimplemented) as the highest architectural drift; user chose option (a) "implement the server" and asked for MCP coverage alongside.
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### D-70: IPC socket path is per-workspace, deterministic
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### D-70: IPC socket path is per-workspace, deterministic
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@@ -267,10 +267,10 @@ Core, rendering, IPC, kernel, panel manager.
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### D-71: IPC socket access gated by chmod 0600 on socket + parent
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### D-71: IPC socket access gated by chmod 0600 on socket + parent
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- **Date:** 2026-05-18
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- **Date:** 2026-05-18
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- **Decision:** The IPC socket file and its parent directory ([D-70](#d-70-ipc-socket-path-is-per-workspace-deterministic)) are created with permissions `0600` (owner read/write only) and `0700` respectively. No token-based auth at the IPC layer; the Unix file-permission check is the only gate. Capability-scoped auth for third-party Lua/Dart extensions is a separate concern and remains tracked by [Q-1](../questions/architecture.md#q-1-authorisation-granularity) for when extensions actually need it.
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- **Decision:** The IPC socket file and its parent directory ([D-70](#d-70-ipc-socket-path-is-per-workspace-deterministic)) are created with permissions `0600` (owner read/write only) and `0700` respectively. No token-based auth at the IPC layer; the Unix file-permission check is the only gate. Capability-scoped auth for third-party Lua/Dart extensions is a separate concern and remains tracked by [Q-1](../questions/architecture.md#q-1-authorisation-granularity-on-the-ipc-socket) for when extensions actually need it.
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- **Rationale:** clide's threat model on a developer workstation is "another user on the same host should not be able to drive my IDE." File perms cover this exhaustively — the kernel enforces the check on every `connect(2)`, no userspace token comparison can match that. Adding a session token on top would be belt-and-suspenders without expanding the threat model. Capability tokens become useful when extensions can publish their own dispatcher routes and we want to gate which third-party code can reach which subsystem — but that's a Tier-6 concern.
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- **Rationale:** clide's threat model on a developer workstation is "another user on the same host should not be able to drive my IDE." File perms cover this exhaustively — the kernel enforces the check on every `connect(2)`, no userspace token comparison can match that. Adding a session token on top would be belt-and-suspenders without expanding the threat model. Capability tokens become useful when extensions can publish their own dispatcher routes and we want to gate which third-party code can reach which subsystem — but that's a Tier-6 concern.
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- **Cost:** Doesn't defend against same-uid attacks (a malicious process running as the user can connect). Accepted — same-uid is outside this layer's threat model; that's a sandboxing / capability concern that lives further out. Doesn't work on shared multi-user dev hosts where one socket needs to be reachable by multiple uids — clide isn't targeted at that workflow today.
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- **Cost:** Doesn't defend against same-uid attacks (a malicious process running as the user can connect). Accepted — same-uid is outside this layer's threat model; that's a sandboxing / capability concern that lives further out. Doesn't work on shared multi-user dev hosts where one socket needs to be reachable by multiple uids — clide isn't targeted at that workflow today.
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- **Cross-reference:** [D-70](#d-70-ipc-socket-path-is-per-workspace-deterministic), [Q-1](../questions/architecture.md#q-1-authorisation-granularity).
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- **Cross-reference:** [D-70](#d-70-ipc-socket-path-is-per-workspace-deterministic), [Q-1](../questions/architecture.md#q-1-authorisation-granularity-on-the-ipc-socket).
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- **Raised by:** 2026-05-18 — T-99 design pass.
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- **Raised by:** 2026-05-18 — T-99 design pass.
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### D-72: IPC server is multi-connection with serial dispatch on the main isolate
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### D-72: IPC server is multi-connection with serial dispatch on the main isolate
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