app-builder

(Aperçu) Crée et modifie une application Power Apps pilotée par modèle à partir d’une intention en langage naturel — tables, colonnes, relations, formulaires adaptatifs avec sous-grilles, vues,…

npx skills add https://github.com/microsoft/power-platform-skills --skill app-builder

Plugin check: Run node "${PLUGIN_ROOT}/scripts/check-version.js" — if it outputs a message, show it to the user before proceeding.

app-builder — intent → model-driven app

Turn a natural-language intent into a deployed model-driven app. You author a reviewable App Spec (JSON) with the user across confirmed turns, then a deterministic engine (cds-maker-sdk, vendored) builds it — tables/columns/relationships, sample data, views, Choice-column charts, adaptive forms with sub-grids, generative pages for overview/dashboard surfaces, and the app module + sitemap. The same spec drives create and edit: download a deployed app back into a spec, change it, and re-run the build (it's idempotent).

CRITICAL — run the interactive flow in THIS conversation (the main loop)

You MUST run the authoring questions and the build narration yourself, in the main conversation. Do NOT dispatch a subagent (Task) for the interactive steps.

A subagent is headless — AskUserQuestion and plan mode do not reach the user from inside one (its only output is its final message). The whole point of this skill is the multi-turn, propose-then-confirm experience, so every AskUserQuestion, EnterPlanMode, and live build status line must originate here, in the main loop.

CRITICAL — the user sees your chat message, NOT tool output

Shell/tool output — the result of running preview-app.js, a dry-run plan, or a lint — is COLLAPSED BY DEFAULT in the UI. The user does NOT see it unless they manually expand the tool panel. Running the command is therefore NOT the same as showing the user. Every artifact the user must read, review, or approve — the whole-app preview wireframes, the dry-run build plan, and blocking lint findings — MUST be reproduced verbatim in your chat reply, inside a fenced ``` code block. Never say "the preview looks right" and leave the content buried in a collapsed panel: paste it into your message. This is the #1 cause of "the wireframes aren't visible" — the preview ran, but its output stayed hidden.

Capabilities — the full toolbox (pick best-fit per requirement)

You are a complete model-driven app builder, not a single-surface tool. Everything below ships in one App Spec and one build — choose what best serves the user's requirement to make a useful, prod-ready app; don't under-build (a bare table list) or over-build (surfaces nobody asked for):

  • Data model — tables (give each custom table a meaningful Fluent-style SVG table icon by default; propose what the glyph will depict in words — never a Fluent token name — and record it as iconDescription before drawing the SVG — see references/authoring-flow.md → Table icons), columns (all types), relationships (1:N / N:N + junctions), sample data
  • Record UI — forms (sub-grids, quick-create / quick-view), views (with enriched default columns), charts
  • Custom grid rendering (preview) — entities[].columns[].visualization: render a column as a RadialDial, LineChart, HeatMap or StarRating in every grid and view that shows it, instead of plain text. Reach for it when a column is a magnitude a user scans (a score, a utilization %, a rating, a priority) rather than a value they read exactly — it makes a list scannable at a glance for one line of spec. It is per-column, so set it once on the column, not on each view. Preview: on an environment where it is not provisioned the build skips it and everything else still deploys, so it is always safe to include.
  • Actions — modern command-bar buttons (incl. flyout / split menus), web resources (form JS / HTML / CSS). Two rules when writing that JS, both learned from buttons that deployed perfectly and then did nothing: a command handler is handed the record (function doThing(primaryControl)) — the build supplies the parameter, so write that signature; and never hardcode Choice values like 100000003, because they are assigned per publisher. Resolve by label via getOptions() (see references/app-spec-schema-advanced.md → webResources). Note also that command and web-resource edits do not redeploy on rebuild — the phases reuse what exists, so changing a button or a script means deleting it first.
  • Form logic without code — businessRules[]: show/hide, lock/unlock, set-required and set-value, driven by a condition on the record. Reach for a business rule before form JS when the requirement is field-level and declarative — it is visible in the maker, survives solution export, and needs no web resource. Use form JS when the logic needs a real API call, cross-record work, or anything beyond the four supported actions.
  • Guided processes — businessProcessFlows[]: the staged bar across the top of a record (ordered stages, each with steps bound to that table's columns — every step must bind a field; the platform rejects one without, so use a Boolean flag for a manual check-off). Reach for one when the user describes work moving through phases — "triage → investigate → resolve", "lead → qualify → close". Author it Active (the default) or the stage bar does not appear at all. Who may run a flow is securityRoles: { "personas": [...] } (Active flows only). v1 is single-entity and linear: cross-entity stages, branching and stage actions are rejected by the spec gate, so offer Maker for those rather than writing them into the spec.
  • Surfaces — generative pages (modern dashboards / overviews / analytics / landing — the default), classic dashboards (opt-in), external URLs
  • App shell — the app module + sitemap, with per-subarea icons. Turn on the modern shell with app.newLook: true unless the user asks for the classic one; it is opt-in and best-effort, so a tenant without the setting still gets a working app. app.headerNavigationRefresh controls the Wave 2 header/navigation refresh — a separate, independent setting whose platform default is ON, so set it to false only when the user explicitly wants the classic header.
  • Security & access — one security role per persona, sized from that persona's jobs-to-be-done (the entity access each job needs, unioned into the role), so the app opens for non-admins.
  • AI-first features (admin-gated) — form-fill assist, natural-language grid/view search, NL chart / AI data visualization, M365 Copilot (opt-in); per-table Copilot row summaries (Insight Cards) with tailored prompts, auto-selected for good-candidate tables

Author the smallest spec that fully satisfies the ask, then let the user refine. The Genpage-first policy below is the record-vs-dashboard rule; references/app-spec-schema.md documents every field.

Genpage-first policy (surface classification)

Every app surface is one of two kinds — enumerate the app's surfaces and classify each one, don't decide page-by-page in passing:

  • Record surfaces (create/read/update/list a table's rows) → a model-driven form + view.
  • Everything else — overview/landing, dashboard, KPIs, analytics, guided or wizard flow, composite or comparison screen → a generative page (pages[]), not a classic dashboard.

Rules:

  • An app whose jobs include an overview, a queue, analytics or a guided flow but which proposes no pages has missed a surface. Where the app genuinely is record-CRUD only, say so explicitly rather than silently omitting pages.
  • A traditional dashboards[] is emitted only on explicit request (e.g. "use a classic dashboard").
  • A generative page is authored as a design intent (source: { kind: "intent" }, schemaVersion: 2) during Phase 1 — its .tsx is written in Phase 1.5 — Generate pages, after plan approval and after the data pre-build creates the tables so genpage.js types can emit RuntimeTypes.ts. See references/authoring-flow.md → Pages.
  • The build's pages phase writes each page through the SDK and never places it in the sitemap itself — the SDK is the single sitemap writer, so a page's nav entry comes from a page subarea in appShell (referenced by the page's key). See references/app-spec-schema.md → pages[].
  • Every page in pages[] must be sitemap-placed — validation rejects any page absent from the sitemap. A "detail" page that receives a caller-supplied id is a normal sitemap page; it reads its input via pageInput?.data?.<field>. Navigation-only (headless) pages are not supported.
  • A page that declares pageInput MUST declare directEntry. Because every page is sitemap-placed, a detail page is also reachable straight from the app navigation with no input — a state a user reaches by clicking. Say what happens then: { "behavior": "selector" } shows a picker and then the record, { "behavior": "emptyState" } explains and renders nothing broken. Prefer selector when the table is browsable; it is the more useful landing. Every key in pageInput.data must also be produced by some page's navigatesTo[].data, or the generated page reads a key nothing ever sets.
  • Three-authority page identity (build + download + verify all follow this): (1) IDENTITY — the durable <app>_pagemanifest (key → pageId); a downloaded spec's own pages[].pageId outranks it for that rebuild. (2) EXISTENCE — the env-wide page list read through the SDK, drafts included (crash-safe; decides create-vs-reuse). (3) MEMBERSHIP — the app's sitemap GenPageId set (placement, download enumeration, verify coverage). All matching is by id — never by display name.
  • Multi-page navigation uses PAGEREF_<key> (the stable pages[].key) as the pageId placeholder; the build resolves each to the real page GUID in a run-scoped staging copy (the canonical .tsx is never mutated), then verifies every nav edge resolves to the deployed page's GenPageId.

Workflow

Phase 0 — Working directory

  1. Derive a short kebab-case slug from $ARGUMENTS (e.g. "Project Tracker" → project-tracker).
  2. Create the directory (mkdir -p <slug> on bash/PowerShell; mkdir <slug> on cmd, which has no -p and errors if it exists) and resolve its absolute path. It holds app-spec.json, model-app-plan.md, and workflow-log.md.

Phase 1 — Author the App Spec (interactive, main loop)

Follow references/authoring-flow.md step by step, running every prompt yourself via AskUserQuestion. In short:

Unattended runs (Copilot autopilot / automation)

Resolve the interaction mode once before the first authoring question:

node "${PLUGIN_ROOT}/scripts/resolve-interaction-mode.js" [--non-interactive]

POWER_PLATFORM_SKILLS_NONINTERACTIVE=1/true (or the equivalent --non-interactive invocation) means there is no user waiting for prompts. In that mode:

  • do not call AskUserQuestion, EnterPlanMode, or ExitPlanMode;
  • use explicit requirements and supplied existing specs as authoritative, and use documented defaults only where the request leaves a non-destructive choice open;
  • record each skipped gate as Unattended default: <question> → <answer> (<reason>) in workflow-log.md;
  • treat the completed lint, preview, rendered design document, and build dry-run as the approved plan, then continue with the normal approved path;
  • halt rather than guessing an ambiguous environment, app identity, or destructive structural edit.

Suppressing interaction never authorizes destructive work. An unattended existing-app apply still requires --allow-destructive wherever the build normally requires it; POWER_PLATFORM_SKILLS_NONINTERACTIVE only suppresses prompts.

Carry the resolved mode through subprocesses: when it is unattended, append --non-interactive to every build-model-app.js invocation (dry-run, data pre-build, recovery rerun, and full apply). Do not append --allow-destructive unless destructive authority was supplied independently.

  1. Prereqs — node --version, pac help (> 2.10.0, the plugin's minimum).
  2. Environment (PAC) — pac auth list. If exactly one / an active profile, confirm it (FYI), don't ask. If several and none active, ask which to use. If none, ask the user to pac auth create. Capture the org URL (pac org who).
  3. Detect existing — scripts/list-tables.js --env <envUrl> --search … --exact and scripts/apps.js list --env <envUrl> (<envUrl> is the org URL from step 2) to find tables/apps already present; build around them. --exact keeps only the tables whose logical name is a search term and lists the terms with none in missing. A failed read (exit 1) is reported and ends the step — never read it as "nothing exists".
  4. Levelled authoring — first read the App Spec format so you author to the exact shape (do this once; don't go spelunking through scripts): references/app-spec-schema.md and the worked sample samples/app-spec.support-desk.json. That document covers everything an app always has. Additionally read references/app-spec-schema-advanced.md once your design calls for a conditional feature — business rules, a business process flow, command-bar buttons, web resources, global choices, classic dashboards, or roleGrants[]. Its pointer table is in the main schema, and the toolbox above tells you when to reach for each; read the detail only for the ones you are actually using, and never skip a capability just to avoid the read. Phase 1 is design-only: never emit page .tsx here. Each level is confirmed via AskUserQuestion before the next begins, and app-spec.json is persisted after each — full prompts in the playbook.
    • Level (a0) — personas & jobs-to-be-done (personas[]): before proposing any tables, ask who will use the app and what each needs to get done. Jobs drive everything that follows — a table exists because a job needs its data, a surface because a job needs to act on it. Deriving the data model first reliably misses surfaces. Privileges come later; capture the jobs now.
    • Level (a) — data model: entities/columns/relationships derived from those jobs; run the early data-model lint (catches e.g. the relationship-vs-lookup collision before forms are authored on top).
    • Descriptions are part of authoring, not a cleanup pass. Every table, column, view, chart, form, dashboard and business rule takes an optional description, and you should write one as you create the artifact — never as a backfill. A name says what a thing is called; a description says what it is for, and it is the only intent an app carries that an agent can read back later when it inspects an app it did not build. Describe the purpose, not the shape: "Severity 1-5; drives the escalation rule and the SLA clock", not "The priority column". (commands[] and Customer columns accept one but the SDK cannot write it — you'll get a warning; personas[] does not take one at all. See the schema reference for why.) The app itself takes two: app.description is the short tile text, and app.aiDescription is the routing description an orchestrator reads to choose between apps — who the app is for, what it covers and excludes, and how to tell it from a sibling app over the same tables. Write it whenever such a sibling exists or is planned.
    • Level (b) — artifacts + page-intents + design: enumerate every surface each job needs and classify it per the genpage-first policy above — record CRUD → form + view; anything else (overview/landing, dashboard, KPIs, analytics, guided/wizard flow, composite or comparison screen) → a page intent (source: { kind: "intent" }). State each classification out loud; if the app needs no pages, say so and why rather than silently omitting them. Then forms + views
      • charts + sample data and the optional design contract, mapping each job to its surfaces via jobs[].surfaces[]. No page .tsx here. dashboards[] only on explicit request.
    • Level (c) — access (personas[].jobs[].privileges[]): personas and jobs already exist from (a0) and the entities now exist, so only add the privileges each job needs — don't re-ask who the users are. The builder unions them into one role per persona and grants the app to it so it opens for that persona, not just sysadmins. Render the roles + per-entity access as a table in your chat reply (the user can't approve an access model they can't see — see the CRITICAL note above). If they want no roles, tell them jobs live in personas[] so dropping the roles drops the recorded jobs too; offer read-only privileges to keep the record. (Column-level security and access teams are not yet supported — see Notes & limits.)
    • Whole-app preview (design gate for Level (b)): node "${PLUGIN_ROOT}/scripts/preview-app.js" --spec @<working-dir>/app-spec.json renders data-model + sitemap + form wireframes + page-intents + design contract. Reproduce the ENTIRE rendered output verbatim in your chat reply, inside a fenced ``` code block — do NOT leave it in the (collapsed, invisible) tool output, and do NOT just summarize "the preview looks right" (see the CRITICAL note above). The user must be able to SEE each form, the sitemap, and the page intents they are approving. For a single form only: node "${PLUGIN_ROOT}/scripts/preview-form.js" --spec @<working-dir>/app-spec.json.
    • Don't pre-create tables/columns — the build does it idempotently.
  5. Guardrail lint (hard gate) — run the full lint on the complete spec; errors block, warnings teach. If it blocks (or warns), paste the findings into your chat reply — tool output is collapsed and invisible to the user (see the CRITICAL note above), so the user can't fix what they can't see:
    node "${PLUGIN_ROOT}/scripts/lint-app-spec.js" --spec @<working-dir>/app-spec.json --json
    
    This runs migration and validateAppSpec — the gates the build itself runs on load — plus the lintAppSpec authoring guardrails, which the builder does not run. It exits non-zero on errors. It validates under the plan profile (which allows not-yet-generated intent pages), matching Step 6's dry run.
  6. Plan-mode approval (the single build approval) — present the plan including the build dry-run's phase-grouped plan (run build-model-app.js without --apply, using the plan profile that allows intent pages) inside EnterPlanMode, then ExitPlanMode to get the user's go-ahead. On approval, Phase 1.5 (generate-pages) runs first, then Phase 2 applies directly (no second dry-run/go-ahead). Render the design document — never hand-write it:
    node "${PLUGIN_ROOT}/scripts/write-app-spec-doc.js" --spec @<working-dir>/app-spec.json --env <envUrl>
    
    It writes <working-dir>/model-app-plan.md (jobs → surfaces traceability, data model, every surface, navigation, access model, sample data) and prints { ok, docPath, bytes, warnings }. Surface those warnings — they name design gaps such as a job with no covering surface or an app with no generative pages. Tell the user where the document is; it's theirs to keep, and it's regenerable after any spec edit.

Phase 1.5 — Generate pages (main loop, headless workers)

After plan-mode approval (before the full build):

  1. Data pre-build — schema-only build so genpage.js types can resolve real column names:

    node "${PLUGIN_ROOT}/scripts/build-model-app.js" \
      --env <envUrl> --spec @<working-dir>/app-spec.json --stage data --apply
    

    --stage data applies solution + data-model only — no --sample-data (rows are created once in the full build). Only --stage data is apply-safe; all other --stage selectors and legacy --from/--to/--only/--skip selectors are dry-run inspection only.

  2. Types — generate Dataverse type bindings for the entities the pages read:

    node "${PLUGIN_ROOT}/scripts/genpage.js" types --env <envUrl> --data-sources "<entity1,entity2,…>" --output-file <working-dir>/RuntimeTypes.ts
    

    --data-sources is the union of every intent page's dataSources. Skip this step entirely when every intent page is mock-only. On Windows use forward slashes in the path. The script prints { "ok": true, "outputFile", "dataSources", "detail", "bytes" }; a failure (exit 1, "ok": false) stops the step — report why, since the page workers must not guess column names.

  3. Page plan (adapter) — the page worker's input contract is a plan document, not an App Spec, so project the spec into one. This also echoes the per-page dispatch parameters:

    node "${PLUGIN_ROOT}/scripts/write-page-plan.js" \
      --spec @<working-dir>/app-spec.json --working-dir <working-dir> --env <envUrl> \
      --app "<app name>" --languages "<languages from the environment probe>"
    

    It writes <working-dir>/app-builder-page-plan.md and prints { ok, planPath, pages: [{ name, key, file, dataMode, intent }] }. Pass --languages through from the environment probe — omitting it silently defaults every plan to English-only and drops the localization pattern. The command fails (before writing) if the plan would name a sample that doesn't exist, or if a page a worker will write is not a safe target in the working directory — a link at its path, a folder that links outside the directory, or a page already there under another spelling — or if a link, a hard link or a folder is already at the plan's own path. Stop and fix what it names; do not dispatch any worker.

  4. Generate — for each page from step 3 with intent: true, dispatch the headless genpage-page-builder worker via Task. Use its documented input contract verbatim — a missing field is why a page silently never becomes .tsx:

    You are the genpage-page-builder agent. Generate the [name from step 3] page.

    • Target file: [file from step 3 — already includes .tsx; do NOT append another]
    • Plan document: [absolute path to the app-builder-page-plan.md written in step 3]
    • Data mode: [dataMode from step 3 — dataverse or mock]
    • Connectors: none
    • Telemetry: disabled
    • RuntimeTypes: [absolute path to RuntimeTypes.ts] ← omit this line when Data mode is mock
    • Working directory: [absolute working-dir path]
    • Plugin root: ${PLUGIN_ROOT}

    Follow the instructions in your agent file. Write [file] and return your result when done.

    The plan's ## Environment carries Mode: app-builder and every page row carries a Key, so the worker emits "PAGEREF_<key>" for cross-page navigation (never a file-derived token — a downloaded page's codeFile is a path, not its identity). Custom nav ids go in data: — never recordId. Connectors: none and Telemetry: disabled are constants here: the App Spec has no connector-binding concept (so the projected plan always says No connector bindings.), and /app-builder never runs the Phase 4.7 custom-telemetry probe. Both are stated explicitly rather than omitted — the page-builder treats a missing line as the same fail-closed value, but an explicit line is what makes the dispatch contract checkable.

  5. Check styles, then validate + commit the transition (transactional) — the workers have no shell, so first check every generated page for the Griffel shorthands that makeStyles drops at runtime, one command per page (<file> is the page's file from step 3):

    node "${PLUGIN_ROOT}/scripts/check-griffel-styles.js" --file <working-dir>/<file>
    

    Griffel does not support ten CSS shorthands, and makeStyles drops them at runtime: the page type-checks, transpiles and deploys, then renders without the border, color or reset. They are all, borderColor, borderStyle, borderWidth, borderBlock, borderBlockStart, borderBlockEnd, borderInline, borderInlineStart and borderInlineEnd. Write longhands instead: borderColor, borderStyle and borderWidth become one longhand per side, border + Top, Right, Bottom or Left + Color, Style or Width (borderWidth → borderTopWidth, borderRightWidth, borderBottomWidth, borderLeftWidth); borderBlock, borderInline and their Start and End forms become the Width, Style and Color longhands of the sides they name (borderBlockStart → borderBlockStartWidth, borderBlockStartStyle, borderBlockStartColor; borderBlock → those and the three borderBlockEnd… ones); all has no longhands, so set the properties you need one by one. Every other shorthand (padding, margin, border, borderRadius, gap, outline) is supported, and an inline style={{ … }} is not Griffel at all.

    check-griffel-styles.js prints each problem it finds — a key Griffel drops in a makeStyles call, at any depth, with its line, column and longhands, or a call or a style object it cannot read, with what to change — and exits 3 while any is left: fix what it reports and run it again, and do not transpile or upload the page until it exits 0. It reads the style objects written inline in the call, makeStyles({ … }), so write them there: one passed or spread in from elsewhere (makeStyles(styles), ...base) is reported, because the check cannot see its keys, and so is a key computed from an expression ([key]: …), whose name it cannot see (a template that starts with --, &, : or @ is read); Fluent's ...shorthands.*(…) and ...typographyStyles.* may be spread as they are.

    Then validate and commit the transition — never flip source by hand, and never flip pages one at a time as workers return. Run:

    node "${PLUGIN_ROOT}/scripts/promote-intent-pages.js" \
      --spec @<working-dir>/app-spec.json --working-dir <working-dir>
    

    It checks every generated page (file written, structurally a module, PAGEREF_ tokens canonical and in exact parity with the spec's navigatesTo edges) and only then flips all of them intent → { kind: "tsx", codeFile } in a single atomic write. On any failure it exits 3 and leaves app-spec.json untouched, printing which page failed and why — regenerate just those pages and re-run. All-or-nothing on purpose: a half-flipped spec would claim a .tsx that was never written, and Phase 2's deploy profile fails fast on any remaining source.kind === "intent".

  6. Proceed to Phase 2 (full idempotent build).

⚠️ The interactive author never runs inside a Task subagent. Only pure, headless code-gen workers are dispatched here — all user-facing prompts originate in the main loop.

Phase 2 — Build (narrated, main loop)

Always use scripts/build-model-app.js. Never hand-write a builder. It's idempotent (skips existing solution/tables/columns/relationships — so new, existing, and mixed envs all just work), so you don't pre-create anything or special-case existing tables.

The build plan was already presented and approved in plan mode (Phase 1 Step 6 shows the engine's real dry-run plan), so on approval apply directly — one build approval, no second go-ahead. Add --verify so the build self-checks after applying (see Phase 3):

node "${PLUGIN_ROOT}/scripts/build-model-app.js" \
  --env <envUrl> --spec @<working-dir>/app-spec.json --apply --verify [--sample-data] [--publish]

Each step streams its status live ([n/total] ✓ created / ⊘ skipped / ✗ failed — <error>) and a closing ✓ build complete — X created, Y skipped, Z failed summary.

Keep the build's progress visible. A full build runs for several minutes. Let its output stream — do NOT pipe it through Select-Object -First/-Last N or Select-String head-limits, which buffer and hide progress until the run ends (and can truncate a still-running pipe). To capture the log use Tee-Object -FilePath <log> (no head-limit). The build also prints a ▸ live progress: line pointing at <workspace>/.maker-workspace/build-status.json — a snapshot (state, steps, lastPhase, lastLabel) overwritten every step. Read it (or tail build-log.jsonl) any time to report where a long build is, even if stdout is buffered.

(Reaching Phase 2 without a fresh plan-mode approval — resuming a failed build, or a quick edit re-run — do a dry-run first (drop --apply), paste the phase-grouped plan verbatim into your chat reply (tool output is collapsed — see the CRITICAL note above), and get a go-ahead before applying.)

Stage selector (--stage <data|ui|app|publish>) maps to its phase range. On --apply, ONLY --stage data is accepted (solution + data-model, no rows in run 1; run 2 is a full build). All other stages and the legacy --from/--to/--only/--skip selectors are dry-run inspection only — their phase ranges are not dependency-closed and are rejected on --apply.

Language (--language-code / --languageCode <lcid>) — you normally do not pass this. Data-model labels are stamped with the organization's own base language, read once per build. Pass it only to author labels in a different provisioned language, or if the build warns that it could not determine the base language and fell back to 1033.

If you pass an LCID the organization has not provisioned, the build now stops in the data-model phase, before any label is written, and lists the ones it does have. That check exists because Dataverse handles this inconsistently: table and choice labels are accepted (HTTP 204) and silently stored under the organization's base language, while DateTime and Memo columns are rejected with "The language code N is not a valid language for this organization". Without the check a build therefore creates the table with the wrong labels and then dies partway through the columns, phases away from the flag that caused it — which reads like an environment fault. List the provisioned set with node "${PLUGIN_ROOT}/scripts/dataverse-request.js" <envUrl> GET RetrieveProvisionedLanguages. The check is best-effort: if that read fails the build proceeds unchanged.

The App Spec field languageCode pins the same value across runs. It now covers the whole build: data-model labels, and form, dashboard and sitemap labels — the SDK serializers that used to hardcode 1033 take the authoring language as an option.

Verify with the same flag. A build run with --language-code <lcid> writes a form's tab and section captions in that language, so run the standalone verifier with the same --language-code <lcid> (or pin languageCode in the spec): without it, --verify looks for the captions in the organization's base language and cannot confirm a correctly published form's captions (it lists them as unverified or reports them missing). The build's own --verify is told the language automatically. If verify cannot establish the language at all (the organization cannot be read), it lists those captions as unverified — neither passed nor failed — with the reason: re-run it with the flag.

A language the environment's form read does not show. The platform decides which languages' labels the form's FormXML carries, and it can return fewer than the form stores: a form built with Spanish (3082) captions in an English-language organization reads back, with the Spanish captions stored, with its labels in English only. Verify never calls a caption missing in a language the read does not carry, as long as the read carries labels in other languages — it lists the labels compared in that language as unverified (neither passed nor failed; the run's result and exit status are unchanged), naming the languages the read does carry, and for a { "1033": …, "3082": … } label map it compares the languages the read carries and lists the others. Say so, and ask the user to check those captions in Power Apps with that language; do not rebuild to "fix" them. A language the read does carry is still compared strictly: a stale caption in it fails. A form whose read carries no label at all is not such a case: the captions the spec declares for it are missing, and fail.

Narrate progress as it runs. Transient env errors (a 429 or 503, a customization lock, a concurrent-operation guard or a SQL timeout the service names by its error code, a timeout or reset of the connection) are auto-retried with backoff on --apply (the build is idempotent, so a retry reuses what's already created). A throttled service is waited for as long as it asks (Retry-After) — by the page writes and by the build's own re-runs of a phase — inside one budget of five minutes per run for the waiting the build itself adds: when the next wait does not fit, the build stops with a throttle-budget-exhausted halt that says what the service asked — run it again later and it continues. (The HTTP client's own re-sends of a throttled read or publish keep their own, shorter schedule and are not counted in it.) If the build still halts (BuildHalt) on an unrecoverable error, surface it and ask the user how to proceed via AskUserQuestion (adjust the spec / cancel), then re-run. Everything is scoped to a dedicated unmanaged solution; --publish gates the final bulk publish, which also carries the edits made to existing views and forms. Without it those edits — and always an existing app's sitemap re-sync — still publish their one targeted artifact so the change takes effect (see Notes & limits).

Recovery from a failed or halted build: run the full build again. The build is idempotent — every phase re-uses what's already created and only fills the gaps. SDK metadata is persisted under <working-dir>/.maker-workspace/ (override with --workspace). There is no apply-safe --from <phase> shortcut; a full rerun is the correct and safe recovery path. One exception: an already-exists halt recurs on a rerun until that workspace directory is deleted — follow its message. Another: that workspace belongs to the environment it was first opened for. Only --apply opens it — a dry run works in a temporary workspace, so it binds nothing, previews from any folder, and warns when an --apply there would be stopped. A build pointed at a different --env halts before reading or writing anything in it and names both environments. It is never cleared or re-bound for you — that discards the SDK's saved copies of the other environment's artifacts, including any edit made in them that was never pushed, and the page-ownership receipts and baseline kept beside them are that environment's too. Build against the environment the halt names, or use a fresh app folder (copy app-spec.json and the files it names) or a new --workspace. Only if that environment's copy of the app is no longer wanted, tear it down there with the --clear-workspace command the halt prints, which keeps the folder while a page-ownership receipt remains. The halt prints the folder on a line of its own, and that command takes it as --workspace — pass it exactly as printed, quoted for your shell (inside double quotes PowerShell and bash expand a $ in the path). A folder that holds nothing a build saved — the SDK's empty folders only, which an earlier preview or a build that stopped at its start leaves — is described as exactly that: nothing was built in that environment, so there is nothing to go back to or tear down, and the folder can simply be deleted or moved aside. A folder whose manifest.json names no usable environment, or is not valid JSON, halts too: move it aside (rename it rather than delete it — it can hold page-ownership receipts and the baseline) and run again. The same environment under its other host name (<org>.api.crm… against <org>.crm…) also halts: re-run with the host the halt names. The standalone verifier never opens that workspace either, so it verifies any environment the app is deployed to.

With --publish, the tables the build changed, and the tables whose forms or charts the app holds or is about to hold, are published in one request before the build writes or publishes the app: the tables whose existing views and forms the build edited, the tables of the charts it wrote, the navigation's tables whenever the build pushes the app (the SDK adds their active Main forms to it on every push the build makes, so a form that is live with a label saved and not published would otherwise be pinned and published with the app before its table was: the first build and the build that pins a form are covered the same way; a changed-only re-upload of a page that has to pin a default view the app lost pushes and publishes the app through the page backend, whose push adds the view it pins and no form, so it names no table of the navigation), and — for an app that already exists — the tables of the form and chart components its saved component list names, whether or not the spec names the table (a form a maker added to it, say, one never published included). A label someone saved and did not publish on a form of one of them would otherwise stay unpublished once the app is published. A table the app is not known to hold a form or chart of is not published by it, so what a maker left unfinished there stays unfinished: a table only declared in entities (the target of a lookup column, say), one that only a page reads, or one that only app.tables pins. If the app's components cannot be read completely, or a read of them is ambiguous (a row of the component list that cannot be placed included), the build publishes only the tables it changed and the navigation's, and says which read failed; run it again once the cause is cleared. That is one more publish for a build that edits no existing view or form (a first build included); the final publish covers the tables the build has artifacts of. If that request is refused the build goes on, and says so: it names what it saved on those tables, the forms the app holds there, or its write adds, whose labels someone else may have saved, and what the app's publish may leave out as a result. A build that halts with an error publishes the views and forms it had deferred (best effort), then — when it stopped before the publish phase — lists the forms, views and charts of the spec's tables (the tables its pages read included) that are still saved but not published, what it created and anything anyone saved there, or says it could not read them and names the tables to publish. Columns and other kinds of change are not in that list. A halt after the publish phase says nothing of the kind. One that is killed — Ctrl-C, a crash, a closed terminal — after those edits are saved but before that publish cannot, so they stay saved but not live until the next build. Run the same full build again: it publishes them without writing them again.

Phase 3 — Verify & iterate

--apply --verify already reconciled the spec against what deployed (Phase 2) — the build appends a verify PASS / verify FAIL — N missing line and exits non-zero on a silent partial (an artifact created but not wired, or a phase that quietly produced nothing). To re-check later — e.g. after a Maker change, without rebuilding — run the standalone read-only verifier (entities/columns/views/charts/ forms and sitemap subareas + icons; exits non-zero and lists anything missing):

node "${PLUGIN_ROOT}/scripts/verify-model-app.js" --env <envUrl> --spec @<working-dir>/app-spec.json [--language-code <lcid>]

Pass --language-code only if the build was run with it. A line starting ⊘ under the verdict is a check verify could not decide (it is in the JSON result's unverified list): it is neither a pass nor a failure, so say what it was and what settles it — the language of the captions, which --language-code gives, or a language the environment's form read does not carry, whose captions only Power Apps can show — never report the run as "everything deployed" while one is listed.

Then open the app in the browser. Refine app-spec.json and re-run Phase 2 to iterate.

Teardown (cleanup). To remove everything an App Spec built — e.g. a live-verification probe or a failed build — run the classifier-safe teardown. It deletes only the artifacts the spec declares, in dependency order (app module → dashboards → command bars → forms → security roles → charts → views → reset enriched default views to drop parent lookups → relationships → AI row summaries → tables [children-first] → web resources (generated app icon + page manifest + declared) → global choices → solution). Forms/charts/views/relationships are deleted explicitly before tables (a table delete does not reliably cascade cross-references; it does remove the table's own columns). Security roles come after forms because a form assigned to a role names it inside its own formxml, which the platform counts as a dependency, and before relationships/tables because a role holding a table's privileges can block that table's delete. Command teardown removes the whole command bar for any entity the spec authored commands on. Teardown only deletes tables this build created — a system/standard table (account, contact, …) is auto-detected and skipped, and a reused custom table is skipped when its entity is flagged "existing": true, so pre-existing data survives. The same flag protects relationships and global choices — a download sets it on every one it recovers, so tearing down a downloaded spec never removes a lookup column from a retained table or deletes a shared option set. Dashboards are found by name, so teardown deletes only those the app's solution holds, never another app's namesake — and none when the spec has no real solution to ask (the Default a download may leave); it keeps the solution itself while any step failed, so a re-run can still tell, keeps the page manifest while the generative-pages step failed, so a re-run still finds the pages the app authored, and keeps a table — with its icon web resource and a global choice its columns bind, which the platform refuses to delete while the table exists, and its relationship to itself — while a business rule on it could not be deleted (the rule's activated copy can never be deleted once its table is gone), so a re-run deletes the rule first, then the table and what was kept with it. Dry-run by default; add --apply --allow-destructive to actually delete (--clear-workspace also prunes .maker-workspace/). --allow-destructive is required for teardown --apply — without it teardown refuses and touches nothing.

node "${PLUGIN_ROOT}/scripts/teardown-model-app.js" \
  --env <envUrl> --spec @<working-dir>/app-spec.json [--apply] [--allow-destructive] [--clear-workspace]

Safety flags (build + teardown). The apply path is fail-closed against destructive operations:

  • --allow-destructive — authorize destructive operations. For build --apply: authorizes overwriting an existing app in unattended mode, and allows explicit-layout form-field removals or sitemap-target drops; also authorizes DETACHING a pages-removed page's nav subarea (the page record is left deployed — it is not deleted). For form and sitemap removals, the authority covers the removals the last refusal or approved run recorded; if live state would lose anything more, the apply halts, lists only the newly destructive removals, and records that new list for review. A field or sitemap target that appears during a run is kept or halted before push, never removed unseen. The record is consumed only after a full successful build that ran the removal phases and kept nothing; it is kept on failures, partial runs, changed-only runs, unreadable records, and failed discovery. For teardown --apply: required — all deletes are destructive by construction, so teardown without this flag halts before touching anything.
  • Pages-phase safety HALTs. The build halts on identity or safety violations rather than proceeding with potentially wrong state. Surface the HALT reason and follow the recovery hint:
    • pages-identity-conflict — spec pageId and manifest disagree on a key, or a duplicate id spans two keys. Resolve the conflict manually (re-download or delete the manifest).
    • pages-manifest-corrupt — the manifest cannot be parsed (two keys map to the same id). Delete the manifest web resource and rebuild from scratch.
    • pages-removed — a live page was dropped from the spec. Re-add it, or pass --allow-destructive to detach it from the nav (the page record stays deployed; rebuild finalizes the sitemap).
    • pages-shared-across-apps — the page appears in another app's sitemap, published or only saved (not yet published — an app that was never published counts). Detach it from that app — ask the user first, since this changes another app. The halt names the app and prints the command with the app's id filled in (<id of app …> stands where the id could not be read, and scripts/apps.js list --env <envUrl> --search <name> gives it); node "${PLUGIN_ROOT}/scripts/genpage.js" remove-from-app --env <envUrl> --app-id <that app's id> --page-id <page id> takes the page out of that app's navigation and publishes that app (everything it has saved goes live with it; the page itself stays). Or detach it in Maker. --allow-destructive does not bypass this halt. The build checks again right before it updates pages in place, so a page another app takes in while the build runs halts it there too ("became shared across apps while this build ran"); one taken in while the pages upload is reported after them as a warning naming the app, since it is written by then.
    • pages-shared-check-failed / pages-existence-failed / pages-sitemap-read-failed — a prerequisite read failed; the build can't proceed safely. Retry on a transient error; check permissions on a persistent one.
    • pages-griffel-shorthand — a page's makeStyles writes a CSS shorthand Griffel drops at runtime, so the page would deploy without its border, color or reset. The message names the page, each key's line and column, and the longhands to write; fix the page's source and re-run. Nothing was uploaded. It is raised for a page the build would create and for a page whose source changed since the last build; a page you did not touch that already has one is sent again as it is, with a warning (it renders without the key today). Deleting a key keeps the page looking as it does; writing the longhands makes the style start to render. The same halt reports a makeStyles call the check cannot read for certain as that — not as CSS Griffel drops — and says what to change in the code.
  • --non-interactive — suppress interactive prompts (for automation / CI). A non-interactive build that encounters an existing app fails instead of warning-and-proceeding, unless --allow-destructive is also set. Does not grant destructive authority on its own — only --allow-destructive does.
  • POWER_PLATFORM_SKILLS_NONINTERACTIVE=1 (or true) — env-var equivalent of --non-interactive. Same semantics: suppresses prompts only, never authorizes destructive ops. Set this in CI job environments to avoid interactive-prompt hangs.
  • In autopilot / eval mode (--non-interactive + --allow-destructive), preview-app.js is written to disk as the design artifact before plan execution; interactive consent gates are bypassed and the build is fail-closed against any destructive op not explicitly authorized.

AI-first features

The ai block in the App Spec controls four app-level features and per-table Copilot row summaries. All features are admin-gated: they are enabled only where the environment administrator has turned them on in Power Platform Admin Center (Environments → Settings → Product → Features). The ai-features build phase preflights each setting via the SDK (RetrieveSetting) and, for anything off, skips it with a warning — it never fails the build and cannot flip admin or tenant switches itself.

Preflight (standalone):

node "${PLUGIN_ROOT}/scripts/ai-preflight.js" --env <envUrl> [--app <uniqueName>]

Prints each feature's on/off status and the exact admin action required for anything that is off. Never fails.

App-level features (ai.appFeatures) — formFill (Copilot-assisted form fill), nlSearch (natural-language grid/view search), nlChart (NL chart / AI data visualization), m365 (M365 Copilot). All default to on except m365, which is left at its platform default; false writes an explicit Off for this app (each setting's values: references/app-spec-schema.md → ai).

Per-table row summaries (ai.summaries):

  • default: "auto" — the skill auto-selects good-candidate tables (skips lookup-only / config / junction tables and the Dynamics 365-owned incident, lead, opportunity).
  • default: "off" — summaries disabled unless a table opts in explicitly.
  • Per-table overrides in summaries.tables: set enabled, a tailored instruction, and columns[] (the fields the summary reads). A { "enabled": false } entry opts a specific table out.

Prompt authoring guidelines (for instruction): write for meaningful insights — not field/value repetition; never include record GUIDs; pull in recent activity where relevant; use audience-appropriate tone; aim for an explicit output shape (a short paragraph).

Teardown removes the AI records created by the ai-features phase (summary config rows and published AI models) in addition to the standard artifacts.


Editing a deployed app (download → edit → rebuild)

The same App Spec drives edit — there is no separate edit path. When the user wants to change an existing app (add a field/view/page, edit a page's code, retitle/reorder nav, swap an icon), pull the deployed app fresh into a spec first, then edit that spec and re-run Phase 2:

node "${PLUGIN_ROOT}/scripts/download-model-app.js" --env <envUrl> --app <appId|uniqueName|displayName> --out <working-dir>

--app resolves in identity order: app id (GUID) → uniquename → display name. Prefer the unique name — it is immutable, while a display name can be renamed and is not unique. A display name that matches more than one app is refused, listing the candidate unique names rather than guessing.

This reconstructs the app into <working-dir>/app-spec.json. Round-trip scope — be precise, it is not everything:

  • Round-trips: the sitemap → appShell (all subareas + icons), every generative page (read through the SDK; the pages are the sitemap's GenPage subareas, so Maker-added pages are included, and each keeps its own name and model) into pages[] + their .tsx, the referenced entities (minimal — the build reuses existing tables), classic dashboards (id-passthrough tiles carrying the deployed view/chart ids), the icon web resources, and the solution.
  • Does NOT round-trip: forms[], views[], charts[], commands[] — they come back empty. All four survive on the live app (a rebuild preserves them by discovery), so a plain edit is safe; they just aren't editable through the downloaded spec. Change them in Maker or a fresh spec.

Then:

  1. Always pull fresh at the start of an edit session — someone may have changed the app in Maker. The build reads an etag when it hydrates, so a write against an artifact changed since the pull throws a version conflict → re-pull and retry, never clobber. Pull into the same <working-dir> every time: a page keeps the key its earlier download gave it (read from the app-spec.json already there, when that file names this app in app.uniqueName; matched by the page's id), and a copy of the spec deployed to another environment is bound to the pages it built there by those keys — a key that changed would update a different page. A new folder mints keys again. If the pull answers "code": "page-keys-ambiguous", the earlier app-spec.json gives one key to two pages (or one page two keys) and nothing was written: show the user the message, which names the pages and keys, and either correct the file and pull again or — only when the user says so, because fresh keys can make a copy deployed elsewhere update the wrong pages — pull again with --reset-page-keys, which re-keys exactly those pages. If it answers "code": "navigation-language-unknown", the environment's base language could not be read, so the language of the app's navigation titles is not known, and nothing was written: pull again, or pass --language-code <lcid> (the environment's base language — the flag the build takes; a spec already in the folder that pins languageCode needs neither). Do not guess it: a spec whose titles were read in the wrong language writes them over the right ones on the next build.
  2. Edit app-spec.json (and any page .tsx) for the requested change. A page you edit by hand is checked like a generated one: run node "${PLUGIN_ROOT}/scripts/check-griffel-styles.js" --file <page.tsx> on it before you rebuild (the rule and the ten shorthands are in Phase 1.5, step 5) and fix what it reports. A key the page already had when it was downloaded is reported too: the deployed page renders without it today, so deleting it keeps the page looking as it does, while writing the longhands makes the style start to render — delete it unless the user wants that change. The build runs the same check on every page it uploads that is new or that you changed since the last successful apply of this app, and halts as pages-griffel-shorthand — naming the page, each key's line and column, and the longhands — so a page you changed does not reach the app with one. "Changed" is measured against the source that apply recorded for the page in .maker-workspace/last-applied.json (a successful full or changed-only apply, or a download, writes it; a failed or partial build records nothing). A page you did not touch is sent again as it is, and a key it already has only draws a warning — and so does a page you changed in a workspace that holds no record of it (a new or moved one, or another environment), where the build cannot tell what was sent: run the checker on that page yourself.
  3. If the edit ADDS a page (or resets a page's source back to intent to regenerate it), re-run Phase 1.5 before Phase 2 — a downloaded spec contains only kind: "tsx" pages, so an added intent page has no code and Phase 2's deploy profile rejects it. Phase 1.5 is safe to re-run: write-page-plan.js projects all pages (so the worker sees the real nav graph), a worker is dispatched only where the echo says intent: true, and promote-intent-pages.js leaves built pages untouched. Editing an existing page's .tsx by hand needs no regeneration.
  4. Re-run the build (Phase 2). It's idempotent: it reuses the existing app/tables/views, updates each page in place (matched by name → --page-id, so no duplicates), and preserves the existing GenPage subareas (the download enumerated them into pages[]/appShell, so the full-replace sitemap write never drops them).
  5. Verify (Phase 3) to confirm only the intended change landed.

Prefer generative pages over classic dashboards per the genpage-first policy. Classic dashboards do round-trip (id-passthrough tiles), but the views and charts their tiles point at do not, so they can only be edited in Maker.

What the builder does (in order)

solution (idempotent) → data model — discover existing tables/columns/relationships via the SDK (findTables / findColumns / fetchEntityMetadata) and create only what's missing (createTable / createColumn / createRelationship) → sample data (opt-in; relational/topological, $parent→@odata.bind using the entity-set name) → web resources (opt-in; createWebResource for form JS/HTML/CSS) → views → charts → forms (primary + columns laid out, explicit tabs honored; sub-grids, quick-views, and form JS (events[]) applied as canonical control cells / the /bag/c events region via the SDK's generic addElement surface) → business rules (businessRules[] — authored as the workflow object model through the bound CreateProcessWithWfomJson member and activated; skipped with a warning on an environment that does not declare that member) → business process flows (businessProcessFlows[]; a category-4 process compiled from the authored stages and activated — this goes through the SDK's generic artifact surface, a plain workflows row, so it is NOT subject to the bound-member gate above) → command bar (commands[]) → classic dashboards (opt-in) → app module + sitemap → generative pages (each page's .tsx was generated in Phase 1.5; the build writes each pages[] page through the SDK, without placing it; then the SDK rewrites the sitemap once to add the GenPage subareas) → AI features (opt-in) → security (one role per personas[] entry, sized from its jobs' declared access; injects an app-module read privilege and associates the app to each role so it opens for that persona) → publish (opt-in). When the app has generative-page subareas the app module is created first WITHOUT them (they can't resolve until the pages upload), then the pages phase rewrites the sitemap. All Dataverse access goes through the SDK, so the downloaded metadata lands in .maker-workspace/. Independent ops (columns, views/charts/forms) run with bounded parallelism; publish is one round-trip per entity + the app. Views/charts build before forms so a sub-grid can reference the child view id. Each step emits [n/total].

Notes & limits

  • Headless, no browser. The SDK (cds-maker-sdk, vendored at scripts/vendor/) generates designer-grade FormXML/FetchXML/sitemap by reusing the designer's own serializers, and writes via the Web API using an az-token HttpClient. No relay, no designer tab.
  • Dedicated unmanaged solution per app (review / teardown). --publish gates the final bulk publish of the app's entity + app customizations (one PublishXml for every entity and the app). With --publish that one publish also carries the default-view enrichment, and the tables the build changed, with the tables whose forms or charts the app holds or is about to hold, are published together once more, in one request before the app is: the tables touched by the reconcile of an existing form or view, form events and quick-view placement, so none of them publishes on its own, the tables of the charts the build wrote (a chart's description is saved on the unpublished layer), the navigation's tables whenever the build pushes the app (the SDK adds their active Main forms to it, and a form that is live with a label saved and not published would otherwise be pinned and published with the app before its table was; a table whose app.mainForms list keeps no form adds none; a changed-only re-upload of a page that has to pin a default view the app lost is covered too — its push adds the view and no form, so what it publishes ahead of the app is the tables of the forms and charts the app holds — and one that has nothing to pin publishes nothing), and — for an app that already exists — the tables of the form and chart components its saved component list names, a form a maker added to it and never published included, so a label saved and not published there is not held back by the app's publish. A table the app is not known to hold a form or chart of is not named (declared only, a lookup column's target, read only by a page, or only pinned in app.tables): a table's publish ships everything saved on it, whoever saved it. If the app's components cannot be read completely the build publishes only what it changed and what its write adds, and says which read failed. It does not suppress the small targeted publishes that edit/finalize paths must run so the change takes effect: without --publish, reconciling an existing form or view, wiring form events and placing quick-views each publish that one artifact, and with or without it, re-syncing an existing app's sitemap and finalizing the sitemap after generative pages publish the app, and repairing a lookup column still labelled with an old default publishes its table (an unpublished edit to a live artifact is invisible). A fresh build without --publish still leaves new tables/columns/relationships staged-but-unpublished in the solution.
  • Idempotent — but not full desired-state convergence. Existing solution/tables/columns/relationships/views/charts/forms/commands/dashboards are detected and reused, so re-runs and existing-table envs work without collisions. The caveat for EDITS: a rebuild never removes an artifact you dropped from the spec, and re-applies only part of an edit to one that already exists. A form converges its fields (added; for an explicit layout, dropped ones pruned — see prune: false below), column counts and spans. A view only adds columns: a column removed from the spec, or a new column order, does not apply, and neither do its filters or sort. A changed column type, and an edited command or dashboard, are not re-applied at all; an existing chart takes only a changed description, an existing app takes a changed name and description (an app that was never published keeps its text and the build warns it was not applied, and so does one whose name or description is localized — the SDK writes the two together, so while either is localized the header is not edited at all, a routing description included, and if the SDK's own read of the header fails while one is, the build stops with APP_HEADER_NOT_PLAIN_TEXT before anything is sent or written: re-run it; the icon is set when the app is created: a different app.icon is reported as not applied), and an existing business process flow takes the stage and step edits that cannot move a record — a stage added or renamed, a step added, renamed, rebound or moved — and refuses, saying why, one that would remove a stage or a step or reorder the stages (no stage or step edit is then applied; the requested Active/Draft state is handled independently). To apply one of those edits, change it in Maker, or teardown --apply then rebuild fresh. --verify catches what is missing — a spec view column, filter condition or sort key (authored sort keys must also keep their order), a relationship, command or dashboard — as a loud verify FAIL. It tolerates extra deployed content, so a view column, filter or sort key you removed from the spec still passes, just as one a maker added by hand does.
  • Not in scope (later): conditional command visibility (Power-Fx-only), titled command groups (from-scratch — needs an SDK-synthesized parent row), lookup/associated views, multi-area sitemaps, column-level (field) security, and access teams / hierarchy security (both tracked SDK follow-ups). The security surface today is role-per-persona plus per-form role assignment, and both of those ship. Also out of scope: the BPF knobs the spec gate rejects (cross-entity stages, branching, stage actions).
  • Environment-gated (may not work where you are running):
    • Business rules (businessRules[]). The SDK writes a rule through the bound CreateProcessWithWfomJson member — the same one the modern business-rule designer uses — and has no fallback: the client-side workflow-XAML compiler it used to fall back on was removed upstream because it covered 4 of the 7 action types and a single clause, so it silently narrowed a rule into something that did not say what the author wrote. Environments that do not declare the member therefore cannot host business rules at all — and that is the common case, not an edge case. The build skips the rules, warns once naming the member, and builds everything else normally, so an app is never left half-created. If rules are essential, verify the environment first. Business process flows are NOT affected by this gate — a BPF is written as an ordinary workflows row through the SDK's generic artifact surface, with no bound member involved.
  • Supported: the full data model — all column types, AutoNumber primary, global choices, status reasons, alternate keys, N:N + junction-with-payload; required reconciled on existing columns (true, false or "recommended" — anything else is refused at validation; an explicit required converges on rebuild; an omitted one never demotes) and asked of a new table's primary column in its create, said applied only once the SDK confirms it; Boolean defaultValue, whole-number integerFormat (incl. Duration), and per-column write permissions (isValidForCreate / isValidForUpdate / isValidForRead — this is how you make a column read-only), all applied on create and on rebuild; adaptive main forms with 1:N / N:N sub-grids (placed between sections or in a tab / form-column with tab / column / after / before, and moved into place on rebuild); per-field form control (readOnly / hidden / after positioning, plus prune: false to edit a subset of a form non-destructively); quick-create / quick-view forms (formType) + quick-view placement (forms[].quickViews[]); per-form security roles (forms[].securityRoles — name the personas[] this form is offered to, or everyone: true; applied after the roles exist. A form with no assignment is visible to every role, so this restricts a form rather than granting it); which form a table opens with (forms[].isDefault / entities[].mainFormOrder set the table's Main Form Set order, on existing tables too — a user's remembered form still opens first for that user; see app-spec-schema.md); Choice-column charts; business rules (businessRules[] — authored as the modern workflow object model and activated; see the environment gate above); security roles (personas[] — one role per persona sized from its jobs-to-be-done, with app access so the app opens for non-admins); dashboards (dashboards[] — chart/list/iframe/webresource tiles) + dashboard sitemap placement; generative pages (pages[] — the genpage-first default, written through the SDK and surfaced as GenPage sitemap subareas; full create + edit round-trip via download-model-app.js); modern command-bar buttons (commands[]) incl. flyout / split-button menus; rich view filters (eq-userid/this-week/in/not-in); custom grid rendering (entities[].columns[].visualization — radial dial / line chart / heat map / star rating, preview); web resources + form JS event handlers; sample data with multi-parent $parents + statusReason. See docs/app-builder-capabilities.md and references/app-spec-schema.md (plus app-spec-schema-advanced.md for the conditional fields it points at) — author from those docs; you should not need to read the SDK, lint, or engine to write a spec.

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