Skip to content
Back to skills

Corezoid Gen Bot

ASecurity

Generates a multi-platform messenger bot (Telegram, Viber, Apple Messages for Business, Facebook Messenger) on Corezoid from a set of EXISTING Corezoid processes plus a description of the desired bot. Use when the user has a working Corezoid backend (process ids, a folder id, or pulled .conv.json files) and wants it reachable from a chat. Runs in phases via subcommands plan/execute/refresh — see the "Modes" section. Trigger on "сделай бота из этих процессов", "сгенерируй бота", "бот на базе п...

  • 72 stars
  • 0 votes
  • 0 copies
  • 0 views
  • Added September 25, 2026
developmentgobashnodegitapibackendsecurity

Works with

  • cli
  • api
  • mcp

Security analysis

A100/100

Pro scans all 9 files and shows the line behind each finding

Scanned October 2, 2026

npx -y skills add corezoid/corezoid-ai-plugin --skill corezoid-gen-bot --agent claude-code

Installs into .claude/skills of the current project.

Are you the author of Corezoid Gen Bot?

Add the live security badge to your README. It updates with every re-scan.

Security grade badge for Corezoid Gen Bot
[![Security: A — Skills Directory](https://www.skillsdirectory.com/api/skills/corezoid-corezoid-gen-bot/badge)](https://www.skillsdirectory.com/skills/corezoid-corezoid-gen-bot)

More formats (shields.io, HTML) on the badges page. Keep it an A: scan every change in CI with Pro.

Download with Pro
SKILL.md
---
name: corezoid-gen-bot
description: Generates a multi-platform messenger bot (Telegram, Viber, Apple Messages for Business, Facebook Messenger) on Corezoid from a set of EXISTING Corezoid processes plus a description of the desired bot. Use when the user has a working Corezoid backend (process ids, a folder id, or pulled .conv.json files) and wants it reachable from a chat. Runs in phases via subcommands plan/execute/refresh — see the "Modes" section. Trigger on "сделай бота из этих процессов", "сгенерируй бота", "бот на базе процессов корезоид", "telegram/viber/fbmessenger bot from corezoid processes", "corezoid gen bot", "оберни процессы в бота", "создай оркестратор коммуникаций", "communications orchestrator", "згенеруй бота з цих процесів", and on "execute plan" / "погнали" / "refresh plan" when a `.corezoid-gen-bot/` directory is present. For a Smart Form web app over the same processes use `simulator-app-generator`; to change a bot that already exists use `edit-bot`.
---

# corezoid-gen-bot

Turns **a set of existing Corezoid processes + a description of the bot** into a
**deployed, smoke-tested messenger bot**. One bot serves every channel the user
has a token for — Telegram, Viber, Apple Messages for Business (`abc`), Facebook
Messenger (`fbmessenger`) — and one channel is enough; the command processes are
the same whichever channels are wired.

The skill owns three things nothing else does:

1. **Contract extraction** — deriving what each handed-in process really
   consumes and produces, and whether it can be called at all.
2. **Command design** — turning N process contracts into a coherent set of chat
   commands that uses all of them.
3. **Verification** — proving each command actually reaches its process and its
   user, and repairing it when it doesn't.

Everything else is a template. `create-communications-orchestrator` builds ~150
Corezoid processes (channel receivers, router, per-channel API methods, config
state diagrams, sample bots); the skill adds one process per command and the
copy those processes reference.

Read these before generating anything:

Load them with the `Read` tool. `${CLAUDE_PLUGIN_ROOT}` resolves to the
installed plugin root; a bare `references/…` does **not** — this skill runs with
the Corezoid workspace as the working directory, where no such directory exists.
Every short `references/<file>` named later in this document lives in
`${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/`.

| Document | What it settles |
|---|---|
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/contract_extraction.md` | how to read a handed-in process; the manifest format |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/command_patterns.md` | contract shape → command shape; the coverage rule |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/template_map.md` | the orchestrator's contracts, and how a command calls a domain process |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/rpc_call.nodes.json` | the `api_rpc` / `api_copy` / state-read fragments |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/bot_reply.skeleton.json`, `bot_dialog.skeleton.json` | the two command shapes |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/localization.seed.json`, `attachments.seed.json` | the runtime copy and keyboard documents |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/plan_md_schema.md` | the exact PLAN.md schema Phase 3 writes |

Phases 4–8 (execute mode) are each detailed in their own reference file — load
the one for the phase you're about to run, not all of them up front:

| Document | Phase |
|---|---|
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/phase4_build_orchestrator.md` | Phase 4 — build the orchestrator from the template |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/phase5_generate_commands.md` | Phase 5 — generate one process per command |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/phase6_seed_tasks.md` | Phase 6 — seed Localization, Attachments and the menu |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/phase7_verify_repair.md` | Phase 7 — verify, and repair |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/phase8_report.md` | Phase 8 — APPROACH.md, then report |
| `${CLAUDE_PLUGIN_ROOT}/skills/corezoid-gen-bot/references/rules.md` | Full rule list — read before Phase 4 |

## 0. Preflight

- **Corezoid MCP tools present** — `pull-process`, `pull-folder`, `push-process`,
  `lint-process`, `layout-process`, `create-alias`, `run-task` and
  `create-communications-orchestrator`, plus the router actions `show-task`,
  `modify-task`, `list-node-tasks` (`cz-tasks`) and `create-variable`
  (`cz-variables`). Missing → tell the user to install the Corezoid plugin
  and run `/corezoid-init`.
- **Router call shape** — an action is called as
  `cz-tasks {"action": "show-task", "args": {"process_id": 123, "ref": "localization"}}`,
  every argument inside `args`; the `show-task process_id: … ref: …` shorthand
  used below means exactly that. `"help": true` returns an action's full schema
  and runs nothing.
- **A stage resolves.** The usual sign is a `<id>_<name>.stage.json` marker at
  the workspace root, and most tools resolve stage from it. But the marker is
  not the only source: the MCP server also resolves stage from
  `~/.corezoid/config.json`, keyed by the working directory, so a workspace that
  has been logged into but never pulled has **no marker and still works** — the
  marker appears with the first `pull-folder`. So probe rather than refuse: try
  `pull-process` on one handed-in id. If it succeeds you have a stage (read
  `project_id`/`stage_id` from the config entry for this directory and pass them
  explicitly in Phase 4, since the wizard's defaults lean on the marker). Only if
  it fails is this a `login` problem (see the `corezoid-init` skill).
- **The workspace id** is known; the wizard needs it.

## What this skill accepts

| Input | Form | Required |
|---|---|---|
| **Processes** | a list of numeric process ids, **or** one folder id, **or** paths to already-pulled `<ID>_<Title>.conv.json` files | yes |
| **Bot description** | free text: who talks to it, what they should be able to do | yes |
| **Channels + tokens** | at least one; exact field names below | yes |
| Languages | the wizard's `lang` + every language to seed | no (`en`) |
| Corezoid target | `stage_id` / `project_id` | no (from the marker, or from `~/.corezoid/config.json` when there is none) |
| Test data | inputs that make a process return something real | no |
| Reference materials | an existing bot, screenshots of the flow, copy deck, product brief | no, but strongly encouraged |

Channel token fields — the wizard rejects anything else with a generic
`Value is not valid`, so get them exactly right:

| Channel | Token field | Extra |
|---|---|---|
| `telegram` | `key` | — |
| `viber` | `viber_token` | — |
| `fbmessenger` | `page_access_token` | — |
| `abc` | `abc_token` | `user_id` (int), `email`, `name` — the brand contact |

One entry per channel; a channel listed twice is rejected. `messengers` is
mandatory for the wizard — there is no "build the template now, wire channels
later" path.

If the description is missing or vague, ask **once** for: who uses the bot, what
they should be able to do, and which of the handed-in processes matter most. Do
not start designing without it.

**Credentials never enter a file.** Channel tokens are wizard arguments and
nothing else — not PLAN.md, not APPROACH.md, not a process JSON, not the chat
summary. A pulled mirror is a git-tracked artifact. In PLAN.md record only
`channels: [...]` and `tokens_supplied: true`.

## Modes

| Invocation | Mode | What runs |
|---|---|---|
| `/corezoid-gen-bot plan <ids or folder>` | **plan** | Phases 1–3 — pull, extract contracts, design, write PLAN.md, stop |
| `/corezoid-gen-bot execute` (or "погнали", "go") | **execute** | Phases 4–8 — build, generate, seed, verify, report |
| `/corezoid-gen-bot refresh` | **refresh** | Phase 2 only — re-pull, re-derive, patch PLAN.md, print diff, stop |
| `/corezoid-gen-bot <ids or folder>` no subcommand | **full** | plan → summary → **pause** → execute only after the user confirms; never automatically |

`.corezoid-gen-bot/PLAN.md` is the source of truth between phases, with
`.corezoid-gen-bot/bot-contract.json` as the machine-readable manifest beside it.
The user never opens either: they read the chat summary and ask for changes in
natural language ("убери /history", "переименуй в /order", "не спрашивай
телефон"), and you translate that into targeted `Edit`s and re-print the
summary.

### `execute` is not idempotent — the sharp edge of this skill

`create-communications-orchestrator` mints a **new folder of ~150 processes**
every call, and there is no delete-orchestrator counterpart. Running execute
twice leaves two orchestrators bound to the same channel tokens, and a messenger
webhook points at one — so the second build silently steals the traffic and the
first becomes ~150 dead processes someone removes by hand.

- Check PLAN.md's `orchestrator.folder_id` before Phase 4. Set → resume from
  Phase 5.
- The tool now refuses to build without `apply=true` plus a confirm token bound
  to the target stage, the channel set and the channel credentials, so a stray
  call previews instead of building. Treat that as a backstop, not as permission to skip the checks
  here: the token is trivial to supply, and the gate cannot tell an approved
  build from a repeated one.
- Write the wizard's response into PLAN.md **immediately**. A crash between
  "wizard returned" and "plan updated" is the one state that cannot be
  recovered automatically.
- The wizard polls 10×3 s. On timeout it returns the job id — **do not retry.**
  Ask the user to check the stage and resume with the folder id they report.
- Changing an orchestrator that exists is `edit-bot`, never a second execute.

### Never call `EnterPlanMode`

The plan phase here is normal execution: it needs Bash, Write and MCP tool calls
to pull processes and probe. `EnterPlanMode` blocks all three.

### Choosing a mode from a plain-text request

- Process ids / a folder id **and** a plan keyword (`plan`, `только план`) → **plan**.
- Execute keyword and PLAN.md exists → **execute**.
- Refresh keyword and PLAN.md exists → **refresh**.
- Process ids with no phase keyword → **full**.
- PLAN.md exists and the user asks to change something in it → PLAN.md edit (§5).
- PLAN.md has a `folder_id` and the user asks for a change → hand off to `edit-bot`.

## Phase 1 — Acquire

### 1.1 Inventory what is already on disk — before pulling anything

The workspace is usually an already-pulled stage, so most or all of the
handed-in processes are likely sitting there. **Take inventory first and pull
only what is missing.** Re-pulling a process that is already local costs an API
round-trip per process, and `pull-process` **overwrites the local file** — if
somebody had unpushed edits in it, a blind re-pull destroys them.

The id is the identity: a process is on disk iff a file named
`<id>_<anything>.conv.json` exists anywhere under the stage root. Match the
prefix exactly — `1906756_` must not be satisfied by `11906756_`.

```bash
# stage root = the directory holding the <id>_<name>.stage.json marker
root="$(dirname "$(ls *.stage.json */*.stage.json 2>/dev/null | head -n1)")"; root="${root:-.}"

for id in 1760349 1760347 …; do
  hit="$(find "$root" -name "${id}_*.conv.json" -print -quit)"
  if [ -n "$hit" ]; then echo "local   $id  $hit"
  else                   echo "missing $id"; fi
done
```

Report the split before pulling: `{L} of {N} processes already on disk, pulling
{M}`. If the working tree is a git repo, also check whether any of the local
hits are dirty (`git status --short`) — a dirty file is somebody's work in
progress, and it is the one case where you must ask before re-pulling it.

### 1.2 Pull only the missing ones

`pull-process(process_id=<id>)` per missing id — it writes
`<ID>_<Title>.conv.json` into a directory mirroring the process's location in
Corezoid.

If the user gave a **folder** instead of ids, check for that folder locally
first (`<folder_id>_*` under the stage root). If it is absent, call
`pull-folder` **with the stage id** (`folder_id` is required over MCP — see
§4.2): it mirrors the whole stage into the **stage root** (not the current
directory), so the processes land at their real paths. Then locate the folder by
its `<folder_id>_` name prefix. Passing that folder's id to `pull-folder`
instead unzips its contents over the stage root and loses the folder boundary —
the same trap as §4.2.

> **Never rename these files.** The `<ID>_` prefix is load-bearing:
> `push-process` and `lint-process` recover the process id from it and fail with
> a format error otherwise.

### 1.3 Record provenance

Per process record the local path, the alias if it has one (`@alias` survives a
stage promotion where a numeric id does not), and **where the file came from**:
`source: "local"` (reused, with its mtime) or `source: "pulled"`. This goes in
the manifest and in the plan summary.

Provenance matters because a reused file is a **snapshot of unknown age**, and
Phase 2 derives the whole contract from it: a process that gained an alternate
outcome or lost a reply node since that snapshot yields a command that
mis-branches at runtime. There is no cheap staleness check — confirming a local
file is current *is* pulling it — so do not pretend to verify it. State the age
plainly, and if a reused file is more than a few days old, or its contract turns
out to be the load-bearing one for a command, offer to re-pull that process
rather than guessing.

In **refresh** mode this reuse is skipped entirely: refresh exists to re-read
the server, so it re-pulls every process in `sources` unconditionally.

## Phase 2 — Contract extraction

Follow `references/contract_extraction.md` and produce
`.corezoid-gen-bot/bot-contract.json`. The short version of what it covers, in
the order the questions matter:

1. **Is it callable?** `conv_type: "process"` with ≥1 `api_rpc_reply` *reachable
   from Start* → `api_rpc`. No reachable reply node → `api_copy` only, and the
   command can never show a result. `conv_type: "state"` → not called, read
   inline. Paused → not wired at all until the user says so. An `api_rpc` into a
   reply-less or paused process **hangs until the semaphore fires**, which in a
   chat is a user waiting the full 30 s for an error — this is the most
   expensive misread in the skill and it is invisible in `params`.
2. **Outputs** from the `api_rpc_reply` nodes' `res_data` / `res_data_type`,
   grouped into **success / alternate / error**. `throw_exception: true` replies
   reach the caller as an error on the calling node, not as data.
3. **Alternate outcomes are the most commonly missed signal** — `402/registration`,
   `401/recovery` are control flow, not failure. A command that reads only the
   200 branch answers "something went wrong" to a perfectly normal new user.
4. **Types** by majority vote across sibling reply nodes; they disagree, and a
   disagreement is not an error.
5. **Array element shape** from the reply node's `description`, then an upstream
   trace, then a live probe. `unknown` is a legitimate answer to record.
6. **Inputs** from `params[flags ∋ input]` ∪ placeholders consumed before being
   produced. Payloads live in three fields: `extra` (`api_rpc`/`set_param`),
   **`data` (`api_copy`)**, **`raw_body`** (raw `api`). Read all three or you
   will report a process as input-free when it is not.
7. **Which inputs the bot already has** — `chat_id`, `channel`, and everything
   on User Profile. A dialog that asks for a value the bot can read is a worse
   bot; a dialog that asks for a token or password is a security defect.
8. **Side effects** `likely | unlikely | unknown`, scored over the
   **reachable-from-Start** subgraph only. This gates probing and whether the
   command needs a confirmation step.

`params[]` is a hint and a cross-check, **never the source of truth** — it
drifts, and in the reference set five of twelve processes declared zero outputs
while clearly replying with data.

### Phase 2b — Ground-truth probing (opt-in, user-gated)

`run-task(process_path, data)` returns a process's **real** reply — the only
reliable way to resolve an unknown array shape or an undocumented envelope.

**Never probe automatically.** Show the side-effect classification, let the user
pick which processes are safe to call with test data, and probe only those.
Calling a process blind can send a real SMS or Telegram message to a real
customer, or burn a real card number. Feed anything learned back into the
manifest.

### Report the contracts before designing

Show a contract table and explicitly flag: processes with no reachable reply
node, paused processes, arrays with unknown element shape, the side-effect
classification, any lopsided reachable/total node ratio, and every place
`params` disagreed with the reply nodes — including declared inputs no node
consumes.

**State the evidence for any claim about the backend.** "This process is broken"
is a finding about someone else's system, and the payload-carrier traps make it
easy to get wrong. Name the field you read.

## Phase 3 — Command design, then PLAN.md

Turn N contracts into a command map with `references/command_patterns.md`. The
three rules that carry the most weight:

- **Coverage.** Every handed-in process appears in the map, in an explicit
  coverage table. If one genuinely does not fit the described bot, say so and
  ask — drop it, give it a plain command, or reshape the bot. Silent omission is
  the main way this skill produces a wrong result that still looks finished.
- **Six `ask` inputs is the practical ceiling for a chat.** Every question is a
  place the user abandons. Past that, split the command, replace inputs the bot
  can read, or use a channel form — and say which you chose.
- **Every command name must be a free alias, checked now.** `create-alias`
  cannot repoint an existing alias and the plugin has no delete-alias tool, so a
  taken name is taken for good — and a name that is only discovered to be taken
  in Phase 5 costs a rename that cascades through `text_id`s, button labels, the
  menu and the process title. Check the candidates against `_ALIASES_.json`
  before writing PLAN.md (`command_patterns.md` → "Check every name is free"),
  and watch for rows with `obj_to_id: null` — a dangling alias holds the name
  just as firmly as a live one. Record the result in PLAN.md, and if a preferred
  name is blocked, say which name you used instead and why.

### PLAN.md schema

The exact schema — frontmatter fields plus the `Contract summary`, `Coverage`,
`Commands`, `Localization keys`, `Attachments`, `Menu wiring`, `Skipped
processes`, `Reference materials consulted` and `Known unknowns / risks`
sections — is in `references/plan_md_schema.md`. Read it before writing
PLAN.md for the first time in this run.

### Chat summary format

Print **exactly** this block (≤ 16 lines) and stop:

```
📋 PLAN.md готов ({P} процессов → {N} команд, каналы: {channels}, языки: {locales}).
Команды: {comma-separated /command list}.
Покрытие: {covered}/{P} процессов задействовано{, не вошли: {list}}.
Контракты: {rpc_count} вызываемых, {copy_count} без ответа, {state_count} состояний, {paused} на паузе.
Источники: {local_count} переиспользовано с диска (старейший {oldest_mtime}), {pulled_count} стянуто.
Оркестратор: будет создан в стейдже {stage_id} (~150 процессов, вызов необратим).

{One bullet per entry in "Known unknowns / risks", if any.}

Что-то поправить или /corezoid-gen-bot execute?
```

### Approval gate — Phase 4 always waits for the user

**There is no auto-proceed.** In every mode, print the summary and stop; enter
Phase 4 only after the user answers `execute` / `погнали` / `go`. Phase 4 has no
undo — it mints ~150 processes, and a second build on a channel token that
already serves a bot takes that bot's webhook over — so the one message it costs
to ask is not a trade worth making. `/corezoid-gen-bot <ids>` with no subcommand
authorises *planning* the bot, not building it: the user has not seen the command
map at the point they typed it.

The checklist below is not an auto-proceed condition. It is what has to hold
before the plan is fit to *offer* for execution at all — if any item fails, say
which one and what it means, and fix the plan first:

- `Known unknowns / risks` is empty.
- Every handed-in process appears in the coverage table.
- No process is `callable: api_rpc` with an unresolved array shape a command
  renders.
- No command reaches a `likely`/`unknown` side effect without a confirm step.
- `orchestrator.folder_id` is null.

## Phase 3a — Refining PLAN.md on user request

Targeted `Edit`s, then re-print the summary. One sentence of prose at most.

- **Never re-extract** for a PLAN.md edit unless the user asks for refresh mode.
  Use only what Phase 2 captured.
- Asked to add a command for a process that was skipped — check `Skipped
  processes` first. Skipped for shape (paused, reply-less, too many inputs) →
  explain the consequence and offer the honest variant (an acknowledgement-only
  command, a split). Not among the handed-in processes at all → refuse; do not
  pull a process the user did not give you without asking.
- Asked to remove a command — remove it from `Commands`, `Localization keys`,
  `Attachments`, `Menu wiring`, and move its processes to `Skipped processes`
  with reason "removed by request". **Update the coverage table** — it is the one
  section that must never silently disagree with reality.
- Asked to rename — cascade through command, alias, process title, `text_id`s,
  `attachment_id`s, button payloads, `Menu wiring`. Re-check
  `^/[a-z0-9][a-z0-9-]{2,}$`.
- Asked to stop asking for an input — check §7a of `contract_extraction.md` for
  a source the bot already has; if there is none and the input is required,
  say so rather than dropping a required argument.
- Do **not** proceed to Phase 4 until the user says `execute` / `погнали` / `go`.

### Refresh mode

1. Re-pull **every** process in `sources` — unconditionally, ignoring the
   §1.1 reuse path, because re-reading the server is the entire point of
   refresh — and re-run Phase 2 (including the callability gate: a process can
   be paused or have its reply nodes removed between runs). Ask first about any
   local file that is dirty in git; overwriting somebody's unpushed edit is not
   a refresh.
2. Diff against `bot-contract.json` and `Commands`.
3. **New processes in a re-pulled folder** → add to the contract summary and to
   `Skipped processes` with "no command planned yet". Never auto-add a command.
4. **Removed or newly paused processes** → mark the dependent command
   `⚠️ callee no longer callable` under `Known unknowns / risks`. Never silently
   delete a command.
5. **Changed contracts** → update inputs, outcomes and namespacing; a lost
   `api_rpc_reply` or a new alternate outcome is a `⚠️ contract drift` note.
6. Bump `extraction_timestamp`, re-emit the summary with a `Diff:` sub-block,
   stop.

If `orchestrator.folder_id` is set, refresh changes PLAN.md only — applying the
diff to the live bot is `edit-bot`.

## Phase 4 — Build the orchestrator from the template

Read `references/phase4_build_orchestrator.md` before running this phase.

Preflight reads PLAN.md and `bot-contract.json` — every input for Phases 4–8
comes from those files, not from a fresh conversation. Channel tokens are the
one exception: they are deliberately not in PLAN.md, so ask for them once,
immediately before §4.1. If `orchestrator.folder_id` is already set, skip to
Phase 5. Otherwise: call `create-communications-orchestrator` with
`apply: false` to preview, show the user the preview, then repeat the call with
`apply: true` and the printed `confirm:` token — this is the one irreversible
step in the whole skill (~150 processes, no undo, a second build steals the
webhook from the first). Then `pull-folder` with the **stage** id (never the
orchestrator's own folder id), locate the orchestrator by its `<folder_id>_`
prefix, sanity-check the template's contracts, and record every id into
PLAN.md's `template_ids`.

## Phase 5 — Generate one process per command

Read `references/phase5_generate_commands.md` before running this phase.

Per entry in PLAN.md `Commands`: create the process, pull it for a baseline,
build it from the right skeleton, wire the domain call with a ≥30 s `time`
semaphore, namespace when a command makes 2+ calls, forward every value the
outgoing message needs, substitute every `{{UPPER_CASE}}` placeholder
(two of them — `parent_id`, `user_id` — are numeric, not string), assign fresh
node ids, then `layout-process` → `lint-process` → `push-process` →
`create-alias`. End every path with `text_id: ""` plus a non-empty
`attachment_id` into the Router, or the reply is sent twice.

## Phase 6 — Seed Localization, Attachments and the menu

Read `references/phase6_seed_tasks.md` before running this phase.

The template's config processes are empty state diagrams — their content is
runtime task data, written with `run-task`/`modify-task`, never `push-process`.
Seed Localization (`deep_merge: true`, mandatory — a shallow write drops every
other language), seed Attachments per `attachment_id`/channel, and add every
command to `mainKeyboard` and `mainMenu`, or it ships invisible. Seed
`serviceError` explicitly — the wizard does not ship it, and both skeletons
reference it on every error path.

## Phase 7 — Verify, and repair

Read `references/phase7_verify_repair.md` before running this phase.

Four layers, cheapest first, stop at the first failure in a layer: **L1**
static checks (no leftover placeholders, no tokens in the tree, clean lint,
every referenced `text_id`/`attachment_id` exists, and the forwarding check —
the one thing L2/L3 cannot see); **L2** the command process on its own via
`run-task`, including rendering the actual message through Send Message, not
just reading the command's own task data; **L3** through the Router, which is
the only layer that proves alias dispatch; **L4** a real client where the user
can send one. The reference file's repair-loop table maps a symptom straight to
the layer at fault. Cap repair at about three passes per defect — report
precisely what fails rather than looping quietly.

## Phase 8 — APPROACH.md, then report

Read `references/phase8_report.md` before running this phase.

Write `APPROACH.md` next to PLAN.md (architecture, command table, alias and
namespacing rules, known limitations, full derived contracts as an appendix —
no tokens, no real chat ids). Then report in one compact block: orchestrator
folder, per-channel webhook URLs the user must register by hand, the command
table, coverage, one verification row per command with the observed L2/L3
result, and what the user must do next. Never report a command as working on
the strength of a clean lint alone.

## Rules

Full rule list, one per line with its reasoning: `references/rules.md`. Read it
before Phase 4 — it is a checklist to re-check against, not new material. The
handful that matter most, everywhere: `create-communications-orchestrator`
builds at most once per PLAN.md (no undo, a second build steals the webhook
from the first); never rename a pulled `<ID>_<Title>.conv.json`, hardcode a
template process id, or modify a handed-in domain process or the wizard's own
template processes; every `api_rpc` into a domain process needs a ≥30 s `time`
semaphore and `group: ""` with an explicit `extra`, never `group: "all"`;
tokens and credentials never touch a file; never `push-process --force` past a
structural lint finding or call `EnterPlanMode`; a clean lint is not a passing
test — state the evidence for any claim about the backend.

Files in this skill

  • SKILL.md67.7 KB
  • references/attachments.seed.json11 KB
  • references/bot_dialog.skeleton.json20.2 KB
  • references/bot_reply.skeleton.json10.9 KB
  • references/command_patterns.md6.7 KB
  • references/contract_extraction.md17.7 KB
  • references/localization.seed.json3.2 KB
  • references/rpc_call.nodes.json7 KB
  • references/template_map.md16.3 KB

Attribution

Is this your skill, or is something wrong with this listing? Request removal or report an issue. Author removals are honored within 72 hours.

Comments

Loading comments…

Newsletter

Get the weekly list of safe new skills, and the ones we pulled.