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io.github.AIops-tools/ceph-aiops

README.md
<!-- mcp-name: io.github.AIops-tools/ceph-aiops -->

# Ceph AIops

> **Disclaimer**: Community-maintained open-source project. **Not affiliated with, endorsed by, or sponsored by the Ceph project or any storage vendor.** Product and trademark names belong to their owners. MIT licensed.

Governed AI-ops for **Ceph** — talks to a vanilla **ceph-mgr Dashboard REST API**
(HTTPS `:8443`, username + password exchanged for a short-lived JWT at
`POST /api/auth`) with a **built-in governance harness**: unified audit log,
token/runaway budget guard, undo-token recording, and descriptive risk tiers.
Works against stock ceph-mgr — **cephadm**,
**hypervisor-bundled Ceph**, or **MicroCeph** — with **no croit and no Kubernetes
dependency**. Self-contained: no external skill-family dependency.

## What it does

The flagship analysis, plus the guarded reads and writes around it:

- **`cluster_health` — HEALTH_WARN/ERR root-cause analysis.** Instead of echoing
  raw check codes (`PG_DEGRADED`, `OSD_NEARFULL`, `SLOW_OPS`, `MON_DOWN`,
  `LARGE_OMAP_OBJECTS`, …), it turns each *active* check into plain language:
  **what it means, the likely cause, and the suggested next action**. This is the
  differentiator vs the hobby Ceph MCPs that just proxy `ceph -s`.
- **Governed destructive ops.** The operations operators actually fear —
  `osd_purge`, `pool_delete`, `set_pool_size`, `rbd_image_delete` — carry
  **dry-run + double-confirm** and a **high** risk tier; reversible tuning
  (`osd_reweight`, `throttle_recovery`, `cluster_flag_set`, pool quota/pg_num/
  autoscale) records an **undo descriptor** capturing the prior state.

## What this tool does, and does not, decide

It delivers Ceph operations — reads and writes — accurately and efficiently, and
records every one of them. It does **not** decide whether a write is allowed to
happen. That is the agent's judgement, or the permission of the account you
connect it with: give it a ceph-mgr Dashboard account with a read-only role and
the writes fail at the mgr — the place that actually owns the permission.

So there is no read-only switch, no policy file, no approval gate to configure.
The one thing the tool guarantees is that nothing is silent: **every call, over
MCP and over the CLI alike, lands an audit row** in `~/.ceph-aiops/audit.db`,
and destructive writes still capture their before-state and record an inverse
where one exists.

> Each tool declares a `risk_level`, kept in agreement with its `[READ]`/`[WRITE]`
> documentation tag by a test, and carried into the audit row as a descriptive
> tier — so a reviewer can see at a glance that a row was a high-risk delete. It
> is a label, not a gate.

## What works

- **CLI** (`ceph-aiops ...`): `init`, `overview`, `health detail`/`health status`,
  `osd tree/df/reweight/out/purge`, `secret set/list/rm/migrate/rotate-password`,
  `doctor`, `mcp`. `osd out` and `osd purge` require `--dry-run` + double confirm.
- **MCP server** (`ceph-aiops mcp` or `ceph-aiops-mcp`): the full **37 tools**
  (17 read, 18 write, 2 undo), every one wrapped with the bundled `@governed_tool`
  harness. The CLI is a convenience subset; the MCP surface is the whole tool.
- **Encrypted credentials**: the Dashboard password lives in an encrypted store
  `~/.ceph-aiops/secrets.enc` (Fernet + scrypt) — **never plaintext on disk**.
  Unlock with a master password from `CEPH_AIOPS_MASTER_PASSWORD` (MCP/CI) or an
  interactive prompt (CLI).
- **Reversibility**: reversible writes capture the prior state and record an
  inverse undo descriptor (e.g. `osd_reweight` → prior weight, `set_pool_quota`
  → prior quota, `throttle_recovery` → prior backfill/recovery settings).
- **Safety**: destructive ops (`osd_purge`, `osd_mark_out`, `pool_delete`,
  `set_pool_size`, `rbd_image_delete`, `rbd_snapshot_delete`) are `high` risk
  with `dry_run` and CLI double confirmation.

## Capability matrix (37 MCP tools)

| Group | Tools | Count | R/W |
|-------|-------|:-----:|:---:|
| **Health** | `cluster_health` (flagship RCA), `cluster_status` | 2 | read |
| **OSD** | `osd_tree`, `osd_df`, `osd_perf` | 3 | read |
| | `cluster_flag_set` (low, undo), `osd_reweight` (med, undo), `osd_mark_in` (med, undo) | 3 | write |
| | `osd_mark_out` (high, dry-run), `osd_purge` (high, dry-run) | 2 | write |
| **PG** | `pg_summary`, `pg_dump_stuck`, `scrub_status` | 3 | read |
| | `trigger_scrub` (low), `trigger_deep_scrub` (low) | 2 | write |
| **Pool** | `pool_ls`, `pool_df` | 2 | read |
| | `set_pool_quota` (med, undo), `set_pool_pg_num` (med, undo), `set_pool_autoscale` (med, undo), `pool_create` (med) | 4 | write |
| | `set_pool_size` (high, dry-run), `pool_delete` (high, dry-run) | 2 | write |
| **RBD** | `rbd_ls` | 1 | read |
| | `rbd_image_create` (med), `rbd_snapshot_create` (low) | 2 | write |
| | `rbd_image_delete` (high, dry-run), `rbd_snapshot_delete` (high, dry-run) | 2 | write |
| **CephFS / RGW** | `cephfs_status`, `rgw_status` | 2 | read |
| **Cluster-ops** | `mon_status`, `mgr_status`, `slow_ops`, `capacity_forecast` | 4 | read |
| | `throttle_recovery` (med, undo) | 1 | write |
| **Undo** | `undo_list`, `undo_apply` | 2 | undo |

Totals: **37 tools — 17 read, 18 write, 2 undo.**

## Quick start

### As a Claude Code plugin

One install gives an agent both the skill and the MCP server:

```
/plugin marketplace add AIops-tools/marketplace
/plugin install ceph-aiops@aiops-tools
```

The MCP server is fetched with [uv](https://docs.astral.sh/uv/) and pinned to the
package version this plugin declares, so an audit row can be traced back to the
code that wrote it. Credentials are still configured with `ceph-aiops init` — see below.

### As an OpenClaw plugin

The same bundle is published on [ClawHub](https://clawhub.ai/plugins), where one
install delivers the skill and its MCP server together:

```bash
openclaw plugins install clawhub:@zw008/ceph-aiops
openclaw skills info ceph-aiops          # expect: Visible to model: yes
```

Restart the OpenClaw gateway afterwards so it loads the plugin. The MCP server is
fetched with [uv](https://docs.astral.sh/uv/), pinned to this exact release, so
`uvx` has to be on `PATH` — without it the skill still installs but reports
`Visible to model: no`. Credentials are configured exactly as below.

### As a CLI or standalone MCP server

```bash
uv tool install ceph-aiops          # or: pipx install ceph-aiops
ceph-aiops init                     # wizard: add a mgr target + store the Dashboard password (encrypted)
ceph-aiops doctor                   # JWT login + mgr-dashboard reachability
ceph-aiops overview                 # HEALTH status + active checks + OSD up/in
ceph-aiops health detail            # decode the active HEALTH_WARN/ERR checks (RCA)
ceph-aiops osd df                   # per-OSD utilization, most-full first, near/backfill-full flags
```

Run as an MCP server (stdio):

```bash
export CEPH_AIOPS_MASTER_PASSWORD=...   # unlock secrets non-interactively
ceph-aiops-mcp
```

> **Where that password then lives**: an exported variable is readable by
> every process this shell starts and is recorded by shell history. On a
> shared or long-lived host, prefer the interactive prompt, or inject it from
> a secret manager for the life of the one command that needs it.

## Governance

Every operation — MCP **and** CLI — passes through the bundled `@governed_tool`
harness. It records; it does not authorize (see above).

- **Audit** — every call (params, result, status, duration, risk tier, and any
  operator-supplied approver/rationale) is logged to `~/.ceph-aiops/audit.db`
  (relocatable via `CEPH_AIOPS_HOME`). The CLI writes the same row the MCP path
  does — there is no unaudited entry point.
- **Runaway guard** — a safety backstop, not an authorization gate: the same
  call hammered in a tight loop trips a circuit breaker so a stuck agent can't
  burn unbounded calls/time. Disable with `CEPH_RUNAWAY_MAX=0`; optional hard
  ceilings via `CEPH_MAX_TOOL_CALLS` / `CEPH_MAX_TOOL_SECONDS`.
- **Undo recording** — reversible writes record an inverse descriptor built from
  the fetched before-state.
- **Risk tier** — a descriptive label on the audit row derived from
  `risk_level`; it gates nothing.

## Supported scope & limitations

- **Deployments**: vanilla ceph-mgr with the **dashboard** module enabled —
  cephadm, hypervisor-bundled Ceph, or MicroCeph. **No croit, no Kubernetes
  dependency.**
- **Ceph has no ETag / pagination** on the Dashboard API, so this tool exposes
  none — nothing is missing, the upstream API simply doesn't offer them.
- **Validation status**: behaviour is exercised against mocked Dashboard
  responses by the test suite; multi-node rebalance and the write ops have not
  been run against a live cluster. The cheapest live check is a single-node
  **MicroCeph** (`snap install microceph` → bootstrap → loop-file OSDs) running
  `ceph-aiops doctor`; a 3-node Vagrant cluster exercises real rebalance
  behaviour. See [`docs/VERIFICATION.md`](docs/VERIFICATION.md) for the full
  live-verification checklist.

## Missing a capability?

RGW multisite, per-daemon config sprawl, NFS-Ganesha exports, orchestrator
(cephadm) host management — not here yet. **Open an issue or send a PR** — feedback
and contributions are welcome.

TDQS

A3.8/5.0

Scored across 37 tools

Disambiguation4/5

Most tools target clearly distinct resources and actions (mon vs mgr vs osd vs pg vs pool vs rbd), and descriptions reinforce the boundaries. A few pairs are close enough to risk confusion: cluster_health vs cluster_status, pool_ls vs pool_df, and pg_summary vs pg_dump_stuck, but the prose distinguishes them well.

Naming Consistency4/5

Everything is snake_case and consistently resource-prefixed (osd_, pool_, pg_, rbd_, cluster_, cephfs_, rgw_, mon_, mgr_, undo_), which makes grouping very readable. Verb placement varies though: set_pool_quota/set_pool_size are verb-first while pool_create/pool_delete and osd_mark_out are noun/action-first, a minor but real deviation.

Tool Count3/5

37 tools is well past the 'heavy' threshold, and while the Ceph domain genuinely spans cluster, mon, mgr, osd, pg, pool, rbd, cephfs, rgw, and an undo subsystem, the surface still feels broad. Each tool maps to a distinct operation so little is truly wasted, but the count is on the bloated side for the observable scope.

Completeness4/5

Coverage is strong for an AIOps server: rich read diagnostics plus write/remediation for pools, OSDs, RBD, scrubs, throttle, cluster flags, and a reversible-undo pattern. Gaps remain — no CephFS provisioning, no RGW user/bucket management, no RBD resize/clone/flatten, no OSD add or CRUSH editing — but these are minor for a monitoring-and-remediation focus.

Maintenance

ActivityActive
ResponsivenessNo issues