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Cafelatte1

FronyBoard

by Cafelatte1

FronyBoard

An MCP server that gives AI agents (Claude Code and friends) a first-class project tracker.

Where Jira is an issue tracker for humans behind a web UI, FronyBoard replaces each part with something an agent can use natively:

Jira

FronyBoard

Database

One SQLite file in a dedicated data directory

Records

JSON documents (roadmap, period) + Markdown

API

MCP tools

Workflow engine

Schema + rule validation, run as a gate before every write

State transition

An MCP tool call (transition_task)

The schema and operating rules were extracted from a real product's management system (31 tasks shipped through it), then generalized.

Install

Requires uv. One line registers FronyBoard in Claude Code; uvx fetches the package from PyPI on first use and caches it:

claude mcp add FronyBoard -- uvx fronyboard

Any MCP client that can launch a stdio command works the same way — the command is uvx fronyboard. It is also listed in the MCP Registry as io.github.Cafelatte1/fronyboard. From a clone, point at the checkout instead (this needs git):

git clone https://github.com/Cafelatte1/fronyboard
claude mcp add FronyBoard -- uv run --directory <path-to-clone>\backend fronyboard

This is the local (stdio) mode: the client starts the server as a child process and talks to it over a pipe. No HTTP, no network, no credentials — web.py and fauth.py are never called. Data is written to %LOCALAPPDATA%\Frony\FronyBoard\data (~/.Frony/FronyBoard/data where LOCALAPPDATA is unset); set AIRA_DATA_DIR to relocate it. Logs (JSON Lines, one line per MCP tool call plus server events) go to the sibling logs folder — FRONYBOARD_LOG_DIR overrides; see docs/logging.md.

To share one FronyBoard between several machines, or to use it from the Claude and ChatGPT apps, run it as an HTTP server instead — see docs/self-hosting.md.

Related MCP server: Personal Task Manager MCP

Project setup

Connecting the MCP server gives every session the tools and the general workflow (delivered as server instructions). What it cannot know is which FronyBoard project a codebase belongs to — declare that in the codebase itself by adding this section to its CLAUDE.md (create the file if the project has none):

## FronyBoard

This project is tracked by FronyBoard (project key: DLY).
Manage tasks through the FronyBoard MCP tools, following the FronyBoard server instructions.

Replace DLY with the project's key (register one first with create_project). The section is also the opt-in signal: a codebase without it is treated as not FronyBoard-managed.

Model

fronyboard.db
├── projects   one row per project (key e.g. DLY): the roadmap record —
│              yearly overview (goal / now / target / checklist) + quarterly milestones
└── periods    one row per opened period (e.g. 2026Q3): monthly milestones (M1, M2, ...)
               + tasks ({KEY}-001, ...) + `result` (retrospective, written when the period closes)

A project is two kinds of records — the roadmap, and one record per period. Both are JSON documents; the shapes are in docs/data-model.md.

  • Task ids are a project-global sequence (DLY-042) — they keep counting across periods and are never reused. They are the only link between FronyBoard and a codebase: use them in branch names (feat/DLY-042/short-desc) and record the branch on the task.

  • Reference chain: task.month → months[].id, period file → roadmap milestone. Rollups follow this chain — months are the grouping unit.

  • Statuses — milestones and months: planned | active | done; tasks: todo | in_progress | done | blocked | cancelled.

  • cancelled is the soft delete — there is no hard delete. Cancelling requires a reason, keeps the record (and its id) forever, and hides the task from queries by default (list_tasks takes include_cancelled). blocked = may resume, cancelled = will not happen; transitioning a cancelled task restores it.

  • Carry-over: a task that outlives its period is not moved — recreate it in the next period under a new id and note the mapping in the closing retrospective.

  • follows on a task lists the tasks it continues from (other projects allowed). It is a pointer, not a lock: get_task shows the reverse as followed_by, list_tasks flags waiting_on while predecessors are open, and nothing is ever blocked.

  • Timestamps (meta.created_at / updated_at / started_at / completed_at) are stamped by the server in naive UTC — started_at on the first in_progress transition, completed_at on done (and removed again if the task leaves done). Agents never write them.

  • The result field closes a period — the rest of the file holds only current state, so the "why it turned out this way" lives there: judgment and reasons, not counts. Its presence is what marks a period closed.

Tools

Area

Tools

Projects

create_project, update_project, list_projects, get_roadmap, get_status, validate

Roadmap

set_overview, set_check, upsert_milestone

Periods

open_period, close_period, get_retrospective

Planning

upsert_month, create_task, update_task, transition_task

Queries

list_tasks, get_task, search_tasks, recent_activity

update_task and transition_task derive the project from the task id prefix (DLY-042DLY), so their key parameter is optional. Re-calling close_period on a closed period rewrites its retrospective.

The two upsert_* tools sit at different levels: upsert_milestone is a quarter in the roadmap, upsert_month is one of the three months inside a period that is already open. A task's month is a month id (M1/M2/M3), never YYYY-MM.

Typical flow:

create_project → set_overview → upsert_milestone → open_period
→ upsert_month / create_task
→ transition_task in_progress (with branch) → ... → transition_task done
→ close_period (retrospective)

Every mutation is validated before anything is written; invalid changes are rejected with the full error list. close_period refuses while tasks are still todo or in_progress. Writes are serialized per project, so concurrent clients cannot collide on ids or lose updates.

Self-hosting

The same package also runs as an always-on HTTP server (fronyboard serve): MCP over streamable HTTP for every machine on your network, a read-only web dashboard for humans, API keys per device, and OAuth for the hosted Claude / ChatGPT apps. Authentication is delegated to FronyAuth, a separate service. None of it is needed for the stdio install above. To see the dashboard on your own machine without any of that, run fronyboard serve --local (loopback only, no login) and open http://127.0.0.1:8642. docs/self-hosting.md covers the setup; docs/operations.md is the day-2 runbook.

Development

uv run --directory backend pytest      # backend
cd frontend; npm test                  # dashboard

The repo is a monorepo. backend/src/fronyboard/store.py (SQLite, data root), validation.py (schema gate), service.py (operations), auth.py (bearer middleware) + fauth.py (FronyAuth client), log.py, web.py (JSON API + static serving), server.py (MCP tool surface + CLI). frontend/ — the dashboard (React + Vite), built to static files that the backend serves; its build output frontend/dist is committed so a server needs no Node toolchain.

More docs under docs/:

Maintenance

ActivityMaintained
ResponsivenessNo issues

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