# Amy Recipes Task-shaped walkthroughs for amy's bigger subsystems. The [README](./README.md) teaches the verbs; this file teaches the *jobs* — each recipe is a complete, copy-pasteable path from nothing to a working result, with the gotchas called out. Commands assume an account already exists (`amy --account me create`) unless the recipe says otherwise. Conventions used throughout: - `$(amy --json … | jq -r .key)` captures a result field — every amy command emits one JSON object on stdout under `--json`. - Exit code `124` always means "the awaited condition never happened", never "amy crashed" — build retry loops on it. - Two-terminal recipes share one machine and one `~/.amy/` on purpose; use `--account` to play both sides. --- ## 1. Run your own relay — and administer it **Goal:** a local Nostr relay with persistence, your account as admin, and moderation driven from the command line. Amy embeds **geode** (the standalone Ktor relay built on quartz's relay-server code), so this needs no other software. ```bash # Terminal 1 — run the relay with a persistent SQLite store. amy serve --port 7447 --db ~/relay.db # listening: ws://127.0.0.1:7447/ # admin_pubkeys: [] ← the active account is always an admin ``` ```bash # Terminal 2 — make it one of your write relays and publish something to it. amy relay outbox add ws://127.0.0.1:7447 amy relay publish-lists amy notes post "first note on my own relay" # Read it back straight from your relay. amy fetch --kind 1 --relay ws://127.0.0.1:7447 --limit 10 ``` Moderation is NIP-86 over NIP-98-signed HTTP — the same path Amethyst's relay-management screen uses. Because your account is an admin, `amy admin` against your own relay Just Works: ```bash amy admin ws://127.0.0.1:7447 supported-methods amy admin ws://127.0.0.1:7447 ban-pubkey --reason "spam" amy admin ws://127.0.0.1:7447 list-banned-pubkeys amy admin ws://127.0.0.1:7447 change-name "vitor's relay" ``` **Backups for free:** the relay speaks NIP-77, so a full copy of its contents is one Negentropy reconcile into your local store — and `--up` pushes your store's events back after a wipe: ```bash amy sync --relay ws://127.0.0.1:7447 --down # relay → ~/.amy store amy sync --relay ws://127.0.0.1:7447 --up # store → fresh relay ``` **Gotchas:** in-memory is the default — without `--db` everything is gone on Ctrl-C. `--admin npub1…,npub2…` grants co-admins. The listen address defaults to loopback; `--host 0.0.0.0` exposes it. --- ## 2. Remote-sign with a bunker (NIP-46) **Goal:** keep a key on one machine ("the signer") and use it from another ("the client") — events come out authored by the signer's key. Both directions of the protocol are covered; pick the one that matches who initiates. **Direction A — signer advertises (`bunker://`):** ```bash # Signer machine: host alice's key. Prints a bunker:// URI and blocks. amy --account alice bunker --relay wss://relay.nsec.app --secret s3cret # → bunker://?relay=wss://relay.nsec.app/&secret=s3cret # Client machine: log in through it (quote the URI — & is shell-special). amy --account remote login 'bunker://?relay=wss://relay.nsec.app/&secret=s3cret' # Every signing verb now round-trips to the signer: amy --account remote notes post "signed over NIP-46" # authored by alice ``` **Direction B — client advertises (`nostrconnect://`):** ```bash # Client machine: print an offer and wait for a signer to connect. amy --account remote login --nostrconnect --relay wss://relay.nsec.app --timeout 120 # → nostrconnect://?relay=…&secret=… (hand this to the signer) # Signer machine: ack the offer and start serving requests. amy --account alice bunker connect 'nostrconnect://…' ``` **Locking the bunker down:** by default the bunker approves everything. Two gates exist — `--perms sign_event:1,nip44_encrypt,get_public_key` allows only the listed operations (everything else rejected), and `--interactive` prompts y/N on the signer's terminal for anything not pre-allowed (needs a TTY; it is the one deliberate exception to amy's no-prompts rule). **Gotchas:** if the signer answers with an `auth_url` challenge, amy prints the URL to stderr and keeps waiting — open it in a browser to authorize. The bunker services `sign_event`, `nip04_*`, `nip44_*`, `get_public_key`, `get_relays`, `ping`. Interop with `nak bunker` works in both directions. --- ## 3. Private group chat (Marmot / MLS) **Goal:** an end-to-end-encrypted group between two accounts, surviving completely disjoint relay configurations (amy routes per the Marmot spec: KeyPackages via kind:10051, welcomes via the recipient's kind:10050, group events via the group's own relay list). ```bash # Both sides, once: publish a KeyPackage so you're invitable. amy --account alice marmot key-package publish amy --account bob marmot key-package publish # Alice: create the group and invite Bob (npub, hex, NIP-05, or a local alias). GID=$(amy --account alice --json marmot group create --name "Ops" | jq -r .group_id) amy --account alice marmot group add "$GID" bob@example.com amy --account alice marmot message send "$GID" "welcome" ``` ```bash # Bob: wait for the invite to land, then read and reply. amy --account bob marmot await group --name "Ops" --timeout 60 # exit 124 = no invite yet amy --account bob marmot group list amy --account bob marmot message list "$GID" amy --account bob marmot message send "$GID" "here" ``` The `await` family is what makes this scriptable — every step of a scenario has a blocking verb: `await key-package NPUB` (before `group add`), `await member GID NPUB`, `await message GID --match TEXT`, `await epoch GID --min N`. All take `--timeout SECS` and exit 124 when the condition never happens, so a harness can tell "not yet" from "broken". **Gotchas:** `marmot group add` fails if the invitee has no discoverable KeyPackage — `marmot await key-package` first. Admin verbs (`promote`/`demote`/`remove`/`rename`) commit MLS proposals; expect the epoch to advance. `marmot reset --yes` wipes all local MLS state — a recovery hammer, not an undo. --- ## 4. An ecash wallet in your terminal (NIP-60 / NIP-61) **Goal:** a Cashu wallet whose on-relay events are byte-identical to the Android app's (same shared `commons` wallet code), funded over Lightning, spending to tokens and nutzaps. ```bash # 1. Create the wallet (kind:17375) + nutzap advertisement (kind:10019). amy cashu wallet create --mint https://mint.minibits.cash/Bitcoin # 2. Fund it: request a Lightning invoice from the mint, pay it from any # LN wallet, then complete the quote to mint the proofs. amy --json cashu receive ln 1000 | tee /tmp/quote.json | jq -r .bolt11 # … pay the printed bolt11 … amy cashu receive complete "$(jq -r .quote_id /tmp/quote.json)" amy cashu balance # spendable sats, per-mint breakdown in wallet show ``` Spending, three ways: ```bash amy cashu send token 210 --memo "coffee" # → cashuB… token to paste anywhere amy cashu receive token cashuB… # ← redeem one somebody sent you amy cashu send ln lnbc… # melt proofs to pay an invoice amy cashu send nutzap alice@example.com 21 --message "gm" # P2PK-locked zap amy cashu receive nutzap-sweep # claim nutzaps sent to you ``` Periodic hygiene — mints rotate keysets and proofs go stale: ```bash amy cashu maintenance scrub # prune spent proofs (NUT-07 + NIP-09) amy cashu maintenance migrate-keysets # consolidate onto active keysets amy cashu maintenance restore https://mint… # rebuild proofs from the wallet seed ``` **Gotchas:** `receive complete` polls the quote — if the invoice isn't paid yet it tells you; re-run it (or `resume`, its deprecated alias) after paying. The wallet's P2PK key is printable with `cashu wallet export-key` — that key IS the money; treat the output accordingly. `wallet destroy` retracts the events but the ecash still lives at the mint — spend or restore first. --- ## 5. Publish a website on Nostr (NIP-5A nsite) **Goal:** host a static site where the *manifest* lives on relays and the *files* live on Blossom servers, so any client can fetch and verify it — no web server of yours involved. ```bash # Publish a directory: uploads every file to Blossom, then broadcasts the # kind:15128 manifest (with the aggregate hash, so the site self-verifies). amy nsite publish ./public --server https://blossom.primal.net \ --title "my site" --description "built with amy" # A named secondary site lives under a d-tag next to your root site: amy nsite publish ./blog --server https://blossom.primal.net --d blog ``` Consume it — from any machine, no account needed (reads run anonymously): ```bash amy nsite list npub1yourself… # root + every named site amy nsite fetch npub1yourself… --path /index.html # one file, sha256-verified amy nsite serve npub1yourself… --port 8080 # browse it: http://localhost:8080 ``` **Gotchas:** every response `nsite fetch`/`serve` returns is verified against the manifest's sha256 pin — a tampering Blossom server produces an error, not wrong bytes. Re-publishing the same directory replaces the manifest (kind:15128/35128 are replaceable); old blobs on the Blossom server can be cleaned with `amy blossom list/delete`. Napplets (NIP-5D sandboxed apps) use the same shape — `amy napplet publish/fetch/serve` — plus capability verification. --- ## 6. Stand up a GrapeRank web-of-trust provider (NIP-85) **Goal:** crawl the follow/mute/report graph around an observer, score it, and serve signed kind:30382 trust cards that clients can discover. This is the operator-shaped subsystem — the pipeline is explicit stages so each can be re-run independently. ```bash # 0. One-time machine setup: where cards get published, independent of accounts. amy graperank operator relay wss://cards.example.com # 1. Crawl the graph into the local store (idempotent — repeat to deepen). amy graperank crawl # network: kind 3/10000/1984/10002 amy graperank followers # reverse crawl: who follows YOU amy relay probe # relay census → skip dead relays next time # 2. Score locally and persist cards (no network — tune and re-run freely). amy graperank score # or: --rigor 0.5 --min-rank 5 … # 3. Converge the operator relay to the local card set (NIP-77 up-sync), # and point your kind:10040 at it so clients can discover the cards. amy graperank publish amy graperank register ``` Consume it (any account, including someone else's provider): ```bash amy graperank rank npub1someone… # their cards, one rank per provider amy graperank providers npub1client… # which providers a user trusts amy fof get npub1someone… # the cheap single-hop cousin ``` Keep it fresh with cron: `graperank refresh` re-syncs every known author's records from their own outbox (one Negentropy reconcile per write relay), so the next `score` runs on current data without a full re-crawl. Check `graperank status` first — it answers "do I need to crawl again?" offline. **Gotchas:** cards are signed by a per-observer **service key** derived from the operator master seed (`~/.amy/operator/`) — losing everything but that seed still re-derives every key, so back it up. `publish` never re-scores or re-signs; it only makes the relay match the local store. For a third-party observer you hold no key for, `graperank operator keys` prints the observer→service-key map to wire their kind:10040 out-of-band. --- ## 7. Scripting patterns that hold everything together The glue the recipes above rely on, in one place: ```bash # Isolate a scenario completely — amy reads $HOME like git/gpg/npm do. export HOME=$(mktemp -d) amy --account a create; amy --account b create # Branch on exit codes: 0 ok · 1 runtime · 2 bad args · 124 await-timeout. if amy --account b dm await --peer a --match "ping" --timeout 30; then amy --account b dm send a "pong" # 'a' is an alias — aliases.json elif [ $? -eq 124 ]; then echo "no ping within 30s (relay down? wrong account?)" fi # Total-publish-failure is now an error, so set -e pipelines stop honestly: set -euo pipefail amy --json notes post "x" | jq -r .event_id # exits non-zero if EVERY relay rejects # Machine-read anything; stderr never pollutes stdout. amy --json profile show fiatjaf@fiatjaf.com 2>/dev/null | jq .metadata.name ``` Discoverability from the binary itself: `amy --help` prints any group's full usage; an unknown verb answers with the verbs that do exist instead of a 400-line dump.