// src/mls.js against the RFC 9420 interop vectors (ciphersuite 1), then
// self-tests that drive a small group through the public API only.
//
//   bun run tools/mls-vectors-test.js [vectorsDir]
//
// vectorsDir holds the mls-implementations JSON files. Without one they are
// fetched once from github.com/mlswg/mls-implementations into the system
// temp dir (~10 MB). Exits non-zero on any failure.

import { readFileSync, existsSync, mkdirSync, writeFileSync } from "fs";
import { join as joinPath } from "path";
import { tmpdir } from "os";
import { bytesToHex as hex, hexToBytes as unhex } from "@noble/hashes/utils";
import { sha256 } from "@noble/hashes/sha256";
import { ed25519, x25519 } from "@noble/curves/ed25519";
import * as mls from "../src/mls.js";

const VECTOR_FILES = [
  "deserialization", "tree-math", "crypto-basics", "secret-tree", "message-protection", "key-schedule", "psk_secret",
  "transcript-hashes", "welcome", "tree-operations", "tree-validation", "treekem", "messages",
  "passive-client-welcome", "passive-client-handling-commit", "passive-client-random",
].map((n) => n + ".json");
const UPSTREAM = "https://raw.githubusercontent.com/mlswg/mls-implementations/main/test-vectors/";
const dir = process.argv[2] || joinPath(tmpdir(), "mls-test-vectors");
if (!process.argv[2]) {
  mkdirSync(dir, { recursive: true });
  for (const f of VECTOR_FILES) {
    if (existsSync(joinPath(dir, f))) continue;
    const res = await fetch(UPSTREAM + f);
    if (!res.ok) throw new Error(`could not fetch ${f}: ${res.status}`);
    writeFileSync(joinPath(dir, f), await res.text());
  }
}

const { internals: I, EXT, PROPOSAL } = mls;
const { enc, dec, codec } = I;
const utf8 = (s) => new TextEncoder().encode(s);
const EMPTY = new Uint8Array(0);
const ZERO32 = new Uint8Array(32);

const same = (a, b, what) => {
  let x = a instanceof Uint8Array ? hex(a) : JSON.stringify(a);
  let y =
    b instanceof Uint8Array
      ? hex(b)
      : typeof b === "string" && a instanceof Uint8Array
        ? b
        : JSON.stringify(b);
  if (x !== y) throw new Error(`${what}: ${String(x).slice(0, 80)} != ${String(y).slice(0, 80)}`);
};
const ok = (cond, what) => {
  if (!cond) throw new Error(what);
};
const throws = (fn, what, code) => {
  try {
    fn();
  } catch (e) {
    if (code && e.code !== code)
      throw new Error(`${what}: expected code ${code}, got ${e.code} (${e.message})`);
    return e;
  }
  throw new Error(what + ": expected an error");
};

let failed = 0;
const results = [];

// runs fn over every case; a case may return a string to say why it was skipped
const suite = (name, cases, fn) => {
  let pass = 0;
  let fail = 0;
  let skips = {};
  cases.forEach((c, i) => {
    try {
      let skipped = fn(c, i);
      if (typeof skipped === "string") skips[skipped] = (skips[skipped] || 0) + 1;
      else pass++;
    } catch (e) {
      fail++;
      if (fail <= 3) console.log(`  FAIL ${name} #${i}: ${e.message}`);
    }
  });
  failed += fail;
  let skipped = Object.entries(skips)
    .map(([why, n]) => `${n} skipped (${why})`)
    .join(", ");
  results.push(
    `${fail ? "FAIL" : "ok  "} ${name}: ${pass}/${cases.length - Object.values(skips).reduce((a, b) => a + b, 0)} passed${skipped ? ", " + skipped : ""}`,
  );
  console.log(results[results.length - 1]);
};

const load = (file, all) => {
  let path = joinPath(dir, file);
  if (!existsSync(path)) return null;
  let cases = JSON.parse(readFileSync(path, "utf8"));
  return all ? cases : cases.filter((c) => c.cipher_suite === 1);
};

const vectors = (name, file, fn, all = false) => {
  let cases = load(file, all);
  if (!cases) {
    failed++;
    console.log(`FAIL ${name}: ${file} not found in ${dir}`);
    return;
  }
  suite(name, cases, fn);
};

// ---- official vectors ----

vectors(
  "deserialization",
  "deserialization.json",
  (c) => same(new mls.Reader(unhex(c.vlbytes_header)).varint(), c.length, "length"),
  true,
);

vectors(
  "tree-math",
  "tree-math.json",
  (c) => {
    let T = I.tree;
    let width = c.n_nodes;
    same(2 * c.n_leaves - 1, width, "n_nodes");
    same(T.rootOf(width), c.root, "root");
    for (let x = 0; x < width; x++) {
      same(x % 2 ? T.left(x) : null, c.left[x], "left " + x);
      same(x % 2 ? T.right(x) : null, c.right[x], "right " + x);
      same(x === c.root ? null : T.parent(x), c.parent[x], "parent " + x);
      same(x === c.root ? null : T.sibling(x), c.sibling[x], "sibling " + x);
    }
  },
  true,
);

vectors("crypto-basics", "crypto-basics.json", (c) => {
  let C = I.crypto;
  let v = c.ref_hash;
  same(C.refHash(v.label, unhex(v.value)), v.out, "ref_hash");
  v = c.expand_with_label;
  same(
    C.expandWithLabel(unhex(v.secret), v.label, unhex(v.context), v.length),
    v.out,
    "expand_with_label",
  );
  v = c.derive_secret;
  same(C.deriveSecret(unhex(v.secret), v.label), v.out, "derive_secret");
  v = c.derive_tree_secret;
  same(
    C.deriveTreeSecret(unhex(v.secret), v.label, v.generation, v.length),
    v.out,
    "derive_tree_secret",
  );
  v = c.sign_with_label;
  ok(
    C.verifyWithLabel(unhex(v.pub), v.label, unhex(v.content), unhex(v.signature)),
    "verify vector signature",
  );
  let sig = C.signWithLabel(unhex(v.priv), v.label, unhex(v.content));
  ok(C.verifyWithLabel(unhex(v.pub), v.label, unhex(v.content), sig), "verify own signature");
  ok(
    !C.verifyWithLabel(unhex(v.pub), v.label + "x", unhex(v.content), sig),
    "signature bound to label",
  );
  v = c.encrypt_with_label;
  let args = [unhex(v.priv), v.label, unhex(v.context)];
  same(
    C.decryptWithLabel(...args, unhex(v.kem_output), unhex(v.ciphertext)),
    v.plaintext,
    "decrypt vector",
  );
  let own = C.encryptWithLabel(unhex(v.pub), v.label, unhex(v.context), unhex(v.plaintext));
  same(C.decryptWithLabel(...args, own.kemOutput, own.ciphertext), v.plaintext, "decrypt own");
});

vectors("secret-tree", "secret-tree.json", (c) => {
  let C = I.crypto;
  let sd = c.sender_data;
  let sample = unhex(sd.ciphertext).subarray(0, 32);
  same(
    C.expandWithLabel(unhex(sd.sender_data_secret), "key", sample, 16),
    sd.key,
    "sender data key",
  );
  same(
    C.expandWithLabel(unhex(sd.sender_data_secret), "nonce", sample, 12),
    sd.nonce,
    "sender data nonce",
  );
  let width = 2 * c.leaves.length - 1;
  let st = I.secretTree.secretTreeFor({ length: width }, unhex(c.encryption_secret));
  c.leaves.forEach((gens, leaf) => {
    st = I.secretTree.leafRatchets(st, width, 2 * leaf);
    let { h, a } = st.ratchets[2 * leaf];
    for (let g of gens) {
      let app = I.secretTree.seek(a, g.generation);
      let hs = I.secretTree.seek(h, g.generation);
      same(app.kn.key, g.application_key, "application key");
      same(app.kn.nonce, g.application_nonce, "application nonce");
      same(hs.kn.key, g.handshake_key, "handshake key");
      same(hs.kn.nonce, g.handshake_nonce, "handshake nonce");
      a = app.r;
      h = hs.r;
    }
  });
  ok(Object.keys(st.nodes).length === 0, "all node secrets consumed");
});

// a two-leaf state with just enough in it for the framing layer
const framingState = (c, leafIndex) => {
  let leaf = (signatureKey) => ({ signatureKey, encryptionKey: EMPTY });
  let tree = [leaf(ZERO32), null, leaf(unhex(c.signature_pub))];
  return {
    version: 1,
    cipherSuite: 1,
    groupId: unhex(c.group_id),
    epoch: c.epoch,
    treeHash: unhex(c.tree_hash),
    confirmedTranscriptHash: unhex(c.confirmed_transcript_hash),
    extensions: [],
    tree,
    leafIndex,
    sigPriv: unhex(c.signature_priv),
    keys: { senderData: unhex(c.sender_data_secret), membership: unhex(c.membership_key) },
    secretTree: I.secretTree.secretTreeFor(tree, unhex(c.encryption_secret)),
  };
};

vectors("message-protection", "message-protection.json", (c) => {
  let F = I.framing;
  let receiver = framingState(c, 0);
  let sender = framingState(c, 1);
  let message = (h) => dec(codec.message[1], unhex(h));
  let body = { proposal: codec.proposal[0], commit: codec.commit[0] };
  let check = (content, kind) => {
    if (kind === "application") return same(content.data, c.application, "application data");
    same(enc(body[kind], content[kind]), c[kind], kind + " content");
  };
  let contentOf = (kind, contentType) => {
    let content = {
      groupId: sender.groupId,
      epoch: sender.epoch,
      sender: { type: 1, leafIndex: 1 },
      aad: utf8("aad"),
      contentType,
    };
    if (kind === "application") content.data = unhex(c.application);
    else content[kind] = dec(codec[kind][1], unhex(c[kind]));
    return content;
  };
  [
    ["application", 1],
    ["proposal", 2],
    ["commit", 3],
  ].forEach(([kind, contentType]) => {
    let authFor = (wire) => {
      let content = contentOf(kind, contentType);
      let auth = { signature: F.signContent(sender, wire, content) };
      if (kind === "commit") auth.confirmationTag = ZERO32;
      return { content, auth };
    };
    if (kind !== "application") {
      check(F.openPublic(receiver, message(c[kind + "_pub"]).public).content, kind);
      let { content, auth } = authFor(1);
      check(
        F.openPublic(receiver, message(hex(F.sealPublic(sender, content, auth))).public).content,
        kind,
      );
      let bad = dec(codec.message[1], F.sealPublic(sender, content, auth));
      bad.public.membershipTag[0] ^= 1;
      throws(() => F.openPublic(receiver, bad.public), "tampered membership tag");
    }
    check(F.openPrivate(receiver, message(c[kind + "_priv"]).private).content, kind);
    let { content, auth } = authFor(2);
    let sealed = F.sealPrivate(sender, content, auth, 7);
    let opened = F.openPrivate(receiver, message(hex(sealed.message)).private);
    check(opened.content, kind);
    same(opened.content.aad, utf8("aad"), "aad");
    throws(
      () =>
        F.openPrivate(
          { ...receiver, secretTree: opened.secretTree },
          message(hex(sealed.message)).private,
        ),
      "replay",
      "replay",
    );
    throws(() => F.openPrivate(sender, message(hex(sealed.message)).private), "own message", "own");
  });
  let content = contentOf("application", 1);
  let auth = { signature: F.signContent(sender, 1, content) };
  throws(
    () => F.openPublic(receiver, dec(codec.message[1], F.sealPublic(sender, content, auth)).public),
    "public application",
  );
});

vectors("key-schedule", "key-schedule.json", (c) => {
  let S = I.schedule;
  let init = unhex(c.initial_init_secret);
  c.epochs.forEach((e, epoch) => {
    let ctx = {
      version: 1,
      cipherSuite: 1,
      groupId: unhex(c.group_id),
      epoch,
      treeHash: unhex(e.tree_hash),
      confirmedTranscriptHash: unhex(e.confirmed_transcript_hash),
      extensions: [],
    };
    let context = enc(codec.context[0], ctx);
    same(context, e.group_context, "group_context");
    let joiner = S.joinerSecret(init, unhex(e.commit_secret), context);
    same(joiner, e.joiner_secret, "joiner_secret");
    let { welcome, keys, encryption } = S.fromJoiner(joiner, unhex(e.psk_secret), context);
    same(welcome, e.welcome_secret, "welcome_secret");
    same(encryption, e.encryption_secret, "encryption_secret");
    same(keys.senderData, e.sender_data_secret, "sender_data_secret");
    same(keys.exporter, e.exporter_secret, "exporter_secret");
    same(keys.external, e.external_secret, "external_secret");
    same(keys.confirmation, e.confirmation_key, "confirmation_key");
    same(keys.membership, e.membership_key, "membership_key");
    same(keys.resumption, e.resumption_psk, "resumption_psk");
    same(keys.authenticator, e.epoch_authenticator, "epoch_authenticator");
    same(keys.init, e.init_secret, "init_secret");
    same(I.crypto.deriveKeyPair(keys.external).pub, e.external_pub, "external_pub");
    let x = e.exporter;
    same(mls.exportSecret({ keys }, x.label, unhex(x.context), x.length), x.secret, "exporter");
    init = keys.init;
  });
});

vectors("psk-secret", "psk_secret.json", (c) => {
  let psks = c.psks.map((p) => ({
    id: { psktype: 1, pskId: unhex(p.psk_id), nonce: unhex(p.psk_nonce) },
    psk: unhex(p.psk),
  }));
  same(I.schedule.pskSecret(psks), c.psk_secret, "psk_secret");
});

vectors("transcript-hashes", "transcript-hashes.json", (c) => {
  let { wire, content, auth } = dec((r) => {
    let wire = r.u16();
    let content = codec.content[1](r);
    return { wire, content, auth: codec.auth[1](r, content.contentType) };
  }, unhex(c.authenticated_content));
  let confirmed = I.schedule.confirmedHash(
    unhex(c.interim_transcript_hash_before),
    wire,
    content,
    auth.signature,
  );
  same(confirmed, c.confirmed_transcript_hash_after, "confirmed_transcript_hash");
  same(
    I.crypto.mac(unhex(c.confirmation_key), confirmed),
    auth.confirmationTag,
    "confirmation_tag",
  );
  same(
    I.schedule.interimHash(confirmed, auth.confirmationTag),
    c.interim_transcript_hash_after,
    "interim_transcript_hash",
  );
});

vectors("welcome", "welcome.json", (c) => {
  let { welcome } = dec(codec.message[1], unhex(c.welcome));
  let kp = mls.parseKeyPackage(unhex(c.key_package));
  let mine = welcome.secrets.find((s) => hex(s.ref) === hex(kp.ref));
  ok(mine, "welcome addressed to the key package");
  let secrets = dec(
    codec.groupSecrets[1],
    I.crypto.decryptWithLabel(
      unhex(c.init_priv),
      "Welcome",
      welcome.encryptedGroupInfo,
      mine.kemOutput,
      mine.ciphertext,
    ),
  );
  // the welcome secret does not depend on the context, so any will do to get at the GroupInfo
  let cipher = I.schedule.welcomeCipher(
    I.schedule.fromJoiner(secrets.joinerSecret, ZERO32, EMPTY).welcome,
  );
  let info = dec(codec.groupInfo[1], cipher.decrypt(welcome.encryptedGroupInfo));
  ok(
    I.crypto.verifyWithLabel(
      unhex(c.signer_pub),
      "GroupInfoTBS",
      enc(codec.groupInfoTBS[0], info),
      info.signature,
    ),
    "GroupInfo signature",
  );
  let { keys } = I.schedule.fromJoiner(
    secrets.joinerSecret,
    ZERO32,
    enc(codec.context[0], info.context),
  );
  same(
    I.crypto.mac(keys.confirmation, info.context.confirmedTranscriptHash),
    info.confirmationTag,
    "confirmation_tag",
  );
});

vectors("tree-operations", "tree-operations.json", (c) => {
  let R = I.ratchetTree;
  let tree = dec(codec.tree[1], unhex(c.tree_before));
  same(I.tree.rootHash(tree), c.tree_hash_before, "tree_hash_before");
  let p = dec(codec.proposal[1], unhex(c.proposal));
  if (p.type === PROPOSAL.ADD) R.addLeaf(tree, p.keyPackage.leaf);
  else if (p.type === PROPOSAL.UPDATE) {
    R.blankPath(tree, 2 * c.proposal_sender);
    tree[2 * c.proposal_sender] = p.leaf;
  } else if (p.type === PROPOSAL.REMOVE) {
    R.blankPath(tree, 2 * p.removed);
    tree[2 * p.removed] = null;
    R.truncate(tree);
  } else throw new Error("unexpected proposal type " + p.type);
  same(enc(codec.tree[0], tree), c.tree_after, "tree_after");
  same(I.tree.rootHash(tree), c.tree_hash_after, "tree_hash_after");
});

vectors("tree-validation", "tree-validation.json", (c) => {
  let tree = dec(codec.tree[1], unhex(c.tree));
  same(enc(codec.tree[0], tree), c.tree, "tree round trip");
  c.tree_hashes.forEach((h, x) => same(I.tree.treeHash(tree, x), h, "tree hash " + x));
  c.resolutions.forEach((r, x) => same(I.tree.resolution(tree, x), r, "resolution " + x));
  ok(I.ratchetTree.verifyParentHashes(tree), "parent hashes");
  // leaf signatures, capabilities, unmerged leaves, key uniqueness, parent hashes
  I.ratchetTree.checkTree(tree, unhex(c.group_id), []);
});

vectors("treekem", "treekem.json", (c) => {
  let K = I.treekem;
  let T = I.tree;
  let tree = dec(codec.tree[1], unhex(c.ratchet_tree));
  let base = {
    version: 1,
    cipherSuite: 1,
    groupId: unhex(c.group_id),
    epoch: c.epoch,
    confirmedTranscriptHash: unhex(c.confirmed_transcript_hash),
    extensions: [],
  };
  // what each member knows: its leaf key plus the node keys its path secrets derive
  let privs = {};
  for (let lp of c.leaves_private) {
    let priv = { [2 * lp.index]: unhex(lp.encryption_priv) };
    same(
      x25519.getPublicKey(priv[2 * lp.index]),
      tree[2 * lp.index].encryptionKey,
      "leaf key " + lp.index,
    );
    for (let ps of lp.path_secrets) {
      let kp = I.crypto.deriveKeyPair(I.crypto.deriveSecret(unhex(ps.path_secret), "node"));
      same(kp.pub, tree[ps.node].encryptionKey, "node key " + ps.node);
      priv[ps.node] = kp.priv;
    }
    privs[lp.index] = priv;
  }
  let receive = (after, fp, path, context, leaf) => {
    let { at, secret } = K.openPathSecret(
      privs[leaf],
      leaf,
      fp,
      K.pathTargets(fp, [], path),
      path,
      context,
    );
    return { secret, commitSecret: K.derivePath(after, fp, at, secret).commitSecret };
  };
  for (let up of c.update_paths) {
    let path = dec(codec.path[1], unhex(up.update_path));
    let x = 2 * up.sender;
    let fp = T.filteredPath(tree, x);
    let after = tree.slice();
    same(
      K.setPath(
        after,
        x,
        fp,
        path.nodes.map((n) => n.encryptionKey),
      ),
      path.leaf.parentHash,
      "leaf parent hash",
    );
    after[x] = path.leaf;
    let treeHash = T.rootHash(after);
    same(treeHash, up.tree_hash_after, "tree_hash_after");
    ok(I.ratchetTree.verifyParentHashes(after), "parent hashes after the path");
    let context = enc(codec.context[0], { ...base, treeHash });

    // a path of our own from the same sender, opened by everybody else
    let secret = crypto.getRandomValues(new Uint8Array(32));
    let own = { leaf: path.leaf, nodes: [] };
    for (let f of fp) {
      let kp = I.crypto.deriveKeyPair(I.crypto.deriveSecret(secret, "node"));
      let secrets = f.res.map((n) =>
        I.crypto.encryptWithLabel(tree[n].encryptionKey, "UpdatePathNode", context, secret),
      );
      own.nodes.push({ encryptionKey: kp.pub, secrets });
      secret = I.crypto.deriveSecret(secret, "path");
    }
    let ownAfter = tree.slice();
    K.setPath(
      ownAfter,
      x,
      fp,
      own.nodes.map((n) => n.encryptionKey),
    );

    for (let lp of c.leaves_private) {
      if (lp.index === up.sender) {
        same(up.path_secrets[lp.index], null, "no path secret for the sender");
        continue;
      }
      let got = receive(after, fp, path, context, lp.index);
      same(got.secret, up.path_secrets[lp.index], "path secret for leaf " + lp.index);
      same(got.commitSecret, up.commit_secret, "commit secret for leaf " + lp.index);
      same(
        receive(ownAfter, fp, own, context, lp.index).commitSecret,
        secret,
        "own path commit secret",
      );
    }
  }
});

const PROPOSAL_FIELDS = {
  add_proposal: 1,
  update_proposal: 2,
  remove_proposal: 3,
  pre_shared_key_proposal: 4,
  re_init_proposal: 5,
  external_init_proposal: 6,
  group_context_extensions_proposal: 7,
};
const MESSAGE_FIELDS = [
  "mls_welcome",
  "mls_group_info",
  "mls_key_package",
  "public_message_application",
  "public_message_proposal",
  "public_message_commit",
  "private_message",
];

vectors(
  "messages",
  "messages.json",
  (c) => {
    let trip = ([w, r], h, what) => same(enc(w, dec(r, unhex(h))), h, what);
    for (let f of MESSAGE_FIELDS) trip(codec.message, c[f], f);
    trip(codec.tree, c.ratchet_tree, "ratchet_tree");
    trip(codec.groupSecrets, c.group_secrets, "group_secrets");
    trip(codec.commit, c.commit, "commit");
    // the vectors hold bare proposal bodies; ours carry their type
    for (let [f, type] of Object.entries(PROPOSAL_FIELDS))
      trip(codec.proposal, hex(new mls.Writer().u16(type).finish()) + c[f], f);
    for (let f of MESSAGE_FIELDS) mls.decodeMessage(unhex(c[f]));
  },
  true,
);

const snapshot = (v) => JSON.stringify(v, (k, x) => (x instanceof Uint8Array ? "0x" + hex(x) : x));

// processMessage, checking on the way that the input state is left alone
const step = (state, bytes, opts) => {
  let before = snapshot(state);
  let out = mls.processMessage(state, bytes, opts);
  ok(snapshot(state) === before, "processMessage mutated its input state");
  return out;
};

const passive = (c) => {
  let kp = mls.parseKeyPackage(unhex(c.key_package));
  let sig = { priv: unhex(c.signature_priv), pub: ed25519.getPublicKey(unhex(c.signature_priv)) };
  same(sig.pub, kp.leaf.signatureKey, "signature key");
  same(x25519.getPublicKey(unhex(c.init_priv)), kp.initKey, "init key");
  let psks = Object.fromEntries(c.external_psks.map((p) => [p.psk_id, unhex(p.psk)]));
  try {
    let state = mls.joinWelcome(unhex(c.welcome), {
      keyPackage: unhex(c.key_package),
      secrets: { initPriv: unhex(c.init_priv), encPriv: unhex(c.encryption_priv) },
      sig,
      ratchetTree: c.ratchet_tree ? unhex(c.ratchet_tree) : undefined,
      psks,
    });
    same(
      mls.epochAuthenticator(state),
      c.initial_epoch_authenticator,
      "initial epoch authenticator",
    );
    c.epochs.forEach((e, i) => {
      for (let p of e.proposals) state = step(state, unhex(p), { psks }).state;
      let out = step(state, unhex(e.commit), { psks });
      ok(out.type === "commit" && !out.removedSelf, "commit applied");
      psks["resumption:" + state.epoch] = state.keys.resumption;
      state = structuredClone(out.state);
      same(
        mls.epochAuthenticator(state),
        e.epoch_authenticator,
        "epoch authenticator after commit " + i,
      );
    });
  } catch (e) {
    if (e.code === "unsupported")
      return e.message.replace(/^mls: /, "").replace(/ [0-9a-f]{16,}$/, "");
    throw e;
  }
};

vectors("passive-client-welcome", "passive-client-welcome.json", passive);
vectors("passive-client-handling-commit", "passive-client-handling-commit.json", passive);
vectors("passive-client-random", "passive-client-random.json", passive);

// ---- self-tests: a group driven through the public API ----

const COMPONENT = 0x8001;
const caps = {
  extensions: [EXT.APP_DATA_DICTIONARY, 0xf2f0],
  proposals: [8, 9, 10],
  credentials: [1],
};
const requiredCapsFor = (extensions) =>
  new mls.Writer()
    .list(extensions, (w, n) => w.u16(n))
    .list([8, 9, 10], (w, n) => w.u16(n))
    .list([1], (w, n) => w.u16(n))
    .finish();
const groupExtensions = [
  { type: EXT.REQUIRED_CAPABILITIES, data: requiredCapsFor([EXT.APP_DATA_DICTIONARY]) },
  { type: EXT.APP_DATA_DICTIONARY, data: mls.encodeDict([{ id: 1, data: utf8("components") }]) },
];

const person = (name) => {
  let sig = mls.generateSignatureKeyPair();
  let kp = mls.generateKeyPackage({ sig, identity: utf8(name), capabilities: caps });
  return { name, sig, kp };
};

const agree = (states, what) => {
  let [first, ...rest] = states;
  for (let s of rest) {
    same(s.epoch, first.epoch, what + ": epoch");
    same(s.treeHash, first.treeHash, what + ": treeHash");
    same(
      s.confirmedTranscriptHash,
      first.confirmedTranscriptHash,
      what + ": confirmedTranscriptHash",
    );
    same(s.extensions, first.extensions, what + ": extensions");
    same(
      mls.exportSecret(s, "marmot", utf8("ctx"), 32),
      mls.exportSecret(first, "marmot", utf8("ctx"), 32),
      what + ": exporter",
    );
    same(mls.epochAuthenticator(s), mls.epochAuthenticator(first), what + ": epoch authenticator");
    same(
      mls.members(s).map((m) => [m.index, hex(m.identity)]),
      mls.members(first).map((m) => [m.index, hex(m.identity)]),
      what + ": members",
    );
  }
};

const join = (p, welcome) =>
  mls.joinWelcome(welcome, { keyPackage: p.kp.keyPackage, secrets: p.kp.secrets, sig: p.sig });

// everybody in `others` applies a commit; returns their new states
const apply = (others, message, opts) =>
  others.map((s) => {
    let out = step(s, message, opts);
    ok(out.type === "commit", "commit processed");
    return out;
  });

const tests = [];
const test = (name, fn) => tests.push({ name, fn });

test("key packages", () => {
  let p = person("alice");
  let parsed = mls.parseKeyPackage(p.kp.keyPackage);
  same(mls.parseKeyPackage(p.kp.message).ref, p.kp.ref, "ref from either framing");
  same(parsed.keyPackage, p.kp.keyPackage, "bytes");
  same(parsed.leaf.credential.identity, utf8("alice"), "identity");
  same(parsed.leaf.capabilities.proposals, [8, 9, 10], "capabilities");
  ok(parsed.cipherSuite === 1 && parsed.version === 1, "suite and version");
  let peek = mls.decodeMessage(p.kp.message);
  ok(peek.wireFormat === "key_package" && hex(peek.ref) === hex(p.kp.ref), "decodeMessage");
  let bad = p.kp.keyPackage.slice();
  bad[bad.length - 1] ^= 1;
  throws(() => mls.parseKeyPackage(bad), "tampered key package");
  let w = new mls.Writer().vec(new Uint8Array(70)).finish();
  same(new mls.Reader(w).vec().length, 70, "two-byte vector length");
  throws(
    () => new mls.Reader(Uint8Array.of(0x40, 0x05, 1, 2, 3, 4, 5)).vec(),
    "non-minimal vector length",
  );
});

test("dictionary codec", () => {
  let bytes = mls.encodeDict([
    { id: 9, data: utf8("b") },
    { id: 2, data: utf8("a") },
  ]);
  same(
    mls.decodeDict(bytes).map((e) => e.id),
    [2, 9],
    "sorted",
  );
  same(mls.dictOf([{ type: EXT.APP_DATA_DICTIONARY, data: bytes }])[1].data, utf8("b"), "dictOf");
  same(mls.dictOf([]), [], "absent dictionary");
  throws(
    () =>
      mls.encodeDict([
        { id: 1, data: EMPTY },
        { id: 1, data: EMPTY },
      ]),
    "duplicate ids",
  );
  let unsorted = new mls.Writer().list([9, 2], (w, id) => w.u16(id).vec(EMPTY)).finish();
  throws(() => mls.decodeDict(unsorted), "unsorted dictionary");
});

test("unknown types round-trip", () => {
  let { codec } = I;
  let grease = { type: 0x0a0a, data: utf8("grease") };
  same(dec(codec.proposal[1], enc(codec.proposal[0], grease)), grease, "GREASE proposal");
  let alice = person("alice");
  let exts = [{ type: 0xf2f0, data: utf8("x") }];
  let kp = mls.generateKeyPackage({
    sig: alice.sig,
    identity: "alice",
    capabilities: caps,
    leafExtensions: exts,
    extensions: [{ type: 0x1a1a, data: EMPTY }],
  });
  let parsed = mls.parseKeyPackage(kp.message);
  same(parsed.leaf.extensions, exts, "leaf extension");
  same(parsed.extensions, [{ type: 0x1a1a, data: EMPTY }], "key package extension");
  throws(
    () => mls.generateKeyPackage({ sig: alice.sig, identity: "a", leafExtensions: exts }),
    "extension outside capabilities",
  );
});

test("group lifecycle", () => {
  let [alice, bob, carol, dave] = ["alice", "bob", "carol", "dave"].map(person);
  let groupId = crypto.getRandomValues(new Uint8Array(32));
  let a = mls.createGroup({
    groupId,
    sig: alice.sig,
    identity: utf8("alice"),
    capabilities: caps,
    extensions: groupExtensions,
  });
  ok(a.epoch === 0 && a.leafIndex === 0 && mls.members(a).length === 1, "fresh group");

  // add two members in one commit
  let before = snapshot(a);
  let c1 = mls.createCommit(a, {
    proposals: [mls.proposeAdd(bob.kp.keyPackage), mls.proposeAdd(carol.kp.message)],
  });
  ok(snapshot(a) === before, "createCommit left its input alone");
  ok(c1.welcome && c1.addedRefs.length === 2, "one welcome for both");
  same(c1.addedRefs, [bob.kp.ref, carol.kp.ref], "added refs");
  same(mls.decodeMessage(c1.welcome).refs, [bob.kp.ref, carol.kp.ref], "welcome refs");
  let peek = mls.decodeMessage(c1.message);
  ok(
    peek.wireFormat === "public" && peek.contentType === "commit" && peek.epoch === 0,
    "commit is a PublicMessage",
  );
  let a0 = a;
  a = c1.state;
  let b = join(bob, c1.welcome);
  let c = join(carol, c1.welcome);
  ok(b.joinedVia === 0 && c.joinedVia === 0, "joinedVia");
  ok(b.leafIndex === 1 && c.leafIndex === 2, "leaf indices");
  agree([a, b, c], "after adds");
  throws(() => join(dave, c1.welcome), "welcome for somebody else", "not-for-us");
  throws(() => step(a, c1.message), "stale commit", "epoch");
  throws(() => step(a0, c1.message), "own commit", "own");

  // application messages in every direction, out of order, replayed
  let states = { a, b, c };
  for (let from of ["a", "b", "c"]) {
    let sent = [];
    for (let i = 0; i < 4; i++) {
      let out = mls.encryptApplication(states[from], utf8(`${from}${i}`), utf8("aad" + i));
      states[from] = out.state;
      sent.push(out.message);
    }
    ok(mls.decodeMessage(sent[0]).wireFormat === "private", "application is a PrivateMessage");
    for (let to of ["a", "b", "c"]) {
      if (to === from) {
        throws(() => step(states[to], sent[0]), "own application message", "own");
        continue;
      }
      for (let i of [2, 0, 3, 1]) {
        let out = step(states[to], sent[i]);
        ok(
          out.type === "application" && out.sender === states[from].leafIndex,
          "application sender",
        );
        same(out.data, utf8(`${from}${i}`), "application data");
        same(out.aad, utf8("aad" + i), "application aad");
        states[to] = out.state;
      }
      throws(() => step(states[to], sent[1]), "replay", "replay");
      let bad = sent[0].slice();
      bad[bad.length - 1] ^= 1;
      throws(() => step(states[to], bad), "tampered ciphertext");
    }
  }
  ({ a, b, c } = states);

  // an update-only commit by a non-creator
  let epoch1 = { a, b, c };
  let late = mls.encryptApplication(a, utf8("late")).message;
  let c2 = mls.createCommit(b);
  ok(c2.welcome === null, "no welcome without adds");
  b = c2.state;
  [a, c] = apply([a, c], c2.message).map((o) => o.state);
  agree([a, b, c], "after update");
  ok(
    hex(mls.members(a)[1].encryptionKey) !== hex(mls.members(epoch1.a)[1].encryptionKey),
    "committer rotated its leaf key",
  );

  // old states still read their own epoch
  same(step(epoch1.b, late).data, utf8("late"), "old epoch state decrypts");
  throws(() => step(b, late), "old message on the new epoch", "epoch");

  // a tampered commit is refused
  let c3 = mls.createCommit(c, {
    proposals: [mls.proposeAdd(dave.kp.keyPackage)],
    aad: utf8("commit aad"),
  });
  let bad = c3.message.slice();
  bad[bad.length - 40] ^= 1;
  throws(() => step(a, bad), "tampered commit");
  let outs = apply([a, b], c3.message);
  same(outs[0].aad, utf8("commit aad"), "commit aad");
  ok(
    outs[0].proposals.length === 1 &&
      outs[0].proposals[0].proposal.type === PROPOSAL.ADD &&
      !outs[0].proposals[0].byRef,
    "commit proposals",
  );
  [a, b] = outs.map((o) => o.state);
  c = c3.state;
  let d = join(dave, c3.welcome);
  ok(d.joinedVia === 2 && d.leafIndex === 3, "dave joined via carol");
  agree([a, b, c, d], "after adding dave");

  // remove carol
  let c4 = mls.createCommit(a, { proposals: [mls.proposeRemove(2)] });
  a = c4.state;
  [b, d] = apply([b, d], c4.message).map((o) => o.state);
  let gone = step(c, c4.message);
  ok(
    gone.removedSelf && gone.state.removed && gone.state.epoch === c.epoch,
    "carol learns she was removed",
  );
  throws(
    () => mls.encryptApplication(gone.state, utf8("x")),
    "removed member cannot send",
    "removed",
  );
  same(
    mls.members(a).map((m) => m.index),
    [0, 1, 3],
    "members after remove",
  );
  agree([a, b, d], "after remove");
  let secret = mls.encryptApplication(a, utf8("after carol"));
  a = secret.state;
  throws(() => step(c, secret.message), "removed member cannot read", "epoch");
  b = step(b, secret.message).state;
  d = step(d, secret.message).state;

  // app_data_update, inline: update, then remove
  let c5 = mls.createCommit(b, { proposals: [mls.proposeAppDataUpdate(COMPONENT, utf8("v1"))] });
  b = c5.state;
  [a, d] = apply([a, d], c5.message).map((o) => o.state);
  agree([a, b, d], "after app_data_update");
  same(
    mls.dictOf(a.extensions).map((e) => [e.id, hex(e.data)]),
    [
      [1, hex(utf8("components"))],
      [COMPONENT, hex(utf8("v1"))],
    ],
    "dictionary after update",
  );
  same(
    a.extensions[a.extensions.length - 1].type,
    EXT.APP_DATA_DICTIONARY,
    "dictionary moved to the end",
  );

  // the caller's hook decides what an update means, on both sides
  let append = (id, current, updates) =>
    updates.reduce((acc, u) => Uint8Array.of(...acc, ...u), current || EMPTY);
  let c6 = mls.createCommit(d, {
    proposals: [
      mls.proposeAppDataUpdate(COMPONENT, utf8("+2")),
      mls.proposeAppDataUpdate(COMPONENT, utf8("+3")),
    ],
    appData: append,
  });
  d = c6.state;
  throws(() => step(a, c6.message, { appData: () => undefined }), "hook rejects the update");
  throws(() => step(a, c6.message), "default rule disagrees with the committer's hook");
  [a, b] = apply([a, b], c6.message, { appData: append }).map((o) => o.state);
  agree([a, b, d], "after hooked app_data_update");
  same(mls.dictOf(b.extensions)[1].data, utf8("v1+2+3"), "hook result");

  throws(
    () =>
      mls.createCommit(a, {
        proposals: [
          mls.proposeAppDataUpdate(COMPONENT, utf8("x")),
          mls.proposeAppDataUpdate(COMPONENT, null),
        ],
      }),
    "update and remove of one component",
  );
  throws(
    () => mls.createCommit(a, { proposals: [mls.proposeAppDataUpdate(0x7777, null)] }),
    "remove of an absent component",
  );
  let c7 = mls.createCommit(a, { proposals: [mls.proposeAppDataUpdate(COMPONENT, null)] });
  a = c7.state;
  [b, d] = apply([b, d], c7.message).map((o) => o.state);
  agree([a, b, d], "after app_data_update remove");
  same(
    mls.dictOf(d.extensions).map((e) => e.id),
    [1],
    "dictionary after remove",
  );

  // with app_data_update required, GroupContextExtensions may not touch the dictionary
  let swapped = [groupExtensions[0], { type: EXT.APP_DATA_DICTIONARY, data: mls.encodeDict([]) }];
  throws(
    () => mls.createCommit(a, { proposals: [mls.proposeGroupContextExtensions(swapped)] }),
    "dictionary change through GroupContextExtensions",
  );
  throws(
    () =>
      mls.createCommit(a, {
        proposals: [
          mls.proposeGroupContextExtensions([...a.extensions, { type: 0xf2f0, data: EMPTY }]),
        ],
      }),
    "context extension that is not required",
  );
  let extended = [
    { type: EXT.REQUIRED_CAPABILITIES, data: requiredCapsFor([EXT.APP_DATA_DICTIONARY, 0xf2f0]) },
    { type: 0xf2f0, data: utf8("marker") },
    a.extensions.find((e) => e.type === EXT.APP_DATA_DICTIONARY),
  ];
  let c8 = mls.createCommit(b, {
    proposals: [
      mls.proposeGroupContextExtensions(extended),
      mls.proposeAppEphemeral(COMPONENT, utf8("once")),
    ],
  });
  b = c8.state;
  outs = apply([a, d], c8.message);
  same(
    outs[0].ephemeral,
    [{ componentId: COMPONENT, data: utf8("once"), sender: 1 }],
    "app_ephemeral surfaced",
  );
  [a, d] = outs.map((o) => o.state);
  agree([a, b, d], "after GroupContextExtensions");
  same(a.extensions, extended, "extensions replaced");

  // standalone self_remove, committed by somebody else
  throws(() => mls.createCommit(a, { proposals: [mls.proposeSelfRemove()] }), "inline self_remove");
  let leave = mls.createProposal(d, mls.proposeSelfRemove());
  d = leave.state;
  peek = mls.decodeMessage(leave.message);
  ok(
    peek.wireFormat === "public" && peek.contentType === "proposal",
    "proposal is a PublicMessage",
  );
  let seen = [a, b].map((s) => step(s, leave.message));
  ok(
    seen.every(
      (o) => o.type === "proposal" && o.sender === 3 && o.proposal.type === PROPOSAL.SELF_REMOVE,
    ),
    "proposal processed",
  );
  same(seen[0].ref, leave.ref, "proposal ref");
  [a, b] = seen.map((o) => o.state);
  ok(step(a, leave.message).state.pending.length === 1, "duplicate proposal cached once");
  // the leaver's own commit simply leaves its self_remove out
  let own = mls.createCommit(d);
  ok(mls.members(own.state).length === 3, "leaver cannot commit its own self_remove");
  throws(() => mls.createCommit(d, { refs: [leave.ref] }), "leaver forcing its own self_remove");
  let c9 = mls.createCommit(a);
  a = c9.state;
  outs = apply([b], c9.message);
  ok(
    outs[0].proposals[0].byRef && outs[0].proposals[0].sender === 3,
    "self_remove committed by reference",
  );
  [b] = outs.map((o) => o.state);
  gone = step(d, c9.message);
  ok(gone.removedSelf, "dave learns he left");
  same(
    mls.members(a).map((m) => m.index),
    [0, 1],
    "members after self_remove",
  );
  ok(a.tree.length === 3, "tree truncated");
  agree([a, b], "after self_remove");
  // a commit that references a proposal we never saw
  throws(() => step(epoch1.c, c2.message) && step(c, c9.message), "unknown epoch", "epoch");

  // structuredClone survives a round trip and keeps working
  let a2 = structuredClone(a);
  let b2 = structuredClone(b);
  ok(snapshot(a2) === snapshot(a), "clone is equal");
  let m = mls.encryptApplication(a2, utf8("cloned"));
  same(step(b2, m.message).data, utf8("cloned"), "clone decrypts");
  let c10 = mls.createCommit(b2, { proposals: [mls.proposeAdd(person("erin").kp.keyPackage)] });
  let a3 = step(m.state, c10.message).state;
  agree([a3, c10.state], "clones advance");
  ok(mls.members(a3).length === 3 && mls.members(a3)[2].index === 2, "freed leaf reused");
});

test("pending proposals and competing branches", () => {
  let [alice, bob, carol] = ["alice", "bob", "carol"].map(person);
  let a = mls.createGroup({
    groupId: utf8("branches"),
    sig: alice.sig,
    identity: "alice",
    capabilities: caps,
    extensions: groupExtensions,
  });
  let c1 = mls.createCommit(a, { proposals: [mls.proposeAdd(bob.kp.keyPackage)] });
  a = c1.state;
  let b = join(bob, c1.welcome);

  // proposals by reference: an add from bob, committed by alice
  let prop = mls.createProposal(b, mls.proposeAdd(carol.kp.keyPackage), { aad: utf8("p") });
  b = prop.state;
  let got = step(a, prop.message);
  same(got.aad, utf8("p"), "proposal aad");
  let held = got.state;
  let c2 = mls.createCommit(held);
  ok(c2.welcome && c2.addedRefs.length === 1, "pending add committed");
  // the same state can also commit without it: two candidate branches from one parent
  let alt = mls.createCommit(held, { includePending: false });
  ok(!alt.welcome && mls.members(alt.state).length === 2, "includePending: false");
  ok(
    hex(alt.state.confirmedTranscriptHash) !== hex(c2.state.confirmedTranscriptHash),
    "branches differ",
  );
  let viaAlt = step(b, alt.message).state;
  let viaC2 = step(b, c2.message);
  ok(
    viaC2.proposals[0].byRef && viaC2.proposals[0].sender === 1,
    "by-reference proposal keeps its sender",
  );
  agree([alt.state, viaAlt], "branch without the add");
  agree([c2.state, viaC2.state], "branch with the add");
  let c = join(carol, c2.welcome);
  agree([c2.state, c], "carol on the chosen branch");

  // a commit whose proposal we never saw
  throws(() => step(a, mls.createCommit(b).message.slice(0, 20)), "truncated message");
  let fresh = step(a, mls.createCommit(b, { includePending: false }).message).state;
  ok(fresh.epoch === a.epoch + 1, "bob's own commit applies to alice's un-proposed state");
  throws(
    () => step(a, mls.createCommit(b).message),
    "commit referencing an unseen proposal",
    "missing-proposal",
  );

  // a path-less commit (adds only) is accepted, and the joiner works without a path secret
  let dave = person("dave");
  let lean = mls.createCommit(c2.state, {
    proposals: [mls.proposeAdd(dave.kp.keyPackage)],
    path: false,
  });
  let d = join(dave, lean.welcome);
  let b3 = step(viaC2.state, lean.message).state;
  agree([lean.state, b3, d], "path-less add");
  let next = mls.createCommit(d);
  agree(
    [next.state, step(lean.state, next.message).state, step(b3, next.message).state],
    "commit by the path-less joiner",
  );

  // handshake messages may also arrive as PrivateMessage
  let content = {
    groupId: b3.groupId,
    epoch: b3.epoch,
    sender: { type: 1, leafIndex: b3.leafIndex },
    aad: EMPTY,
    contentType: 2,
    proposal: mls.proposeRemove(3),
  };
  let sealed = I.framing.sealPrivate(b3, content, {
    signature: I.framing.signContent(b3, 2, content),
  });
  let viaPrivate = step(lean.state, sealed.message);
  ok(
    viaPrivate.type === "proposal" && viaPrivate.proposal.removed === 3,
    "private proposal accepted",
  );
  let removal = mls.createCommit(viaPrivate.state);
  ok(mls.members(removal.state).length === 3, "privately proposed remove committed");

  // members must support every non-default proposal type a commit uses
  let plain = person("plain");
  plain.kp = mls.generateKeyPackage({ sig: plain.sig, identity: "plain" });
  let g = mls.createGroup({
    groupId: utf8("plain"),
    sig: alice.sig,
    identity: "alice",
    capabilities: caps,
  });
  let both = mls.createCommit(g, { proposals: [mls.proposeAdd(plain.kp.keyPackage)] });
  throws(
    () => mls.createCommit(both.state, { proposals: [mls.proposeAppEphemeral(1, EMPTY)] }),
    "proposal type one member lacks",
  );
  throws(
    () => mls.createCommit(a, { proposals: [mls.proposeAdd(plain.kp.keyPackage)] }),
    "add without the required capabilities",
  );
  throws(
    () => mls.createCommit(a, { proposals: [mls.proposeAdd(bob.kp.keyPackage)] }),
    "add of a current member",
  );
  throws(
    () => mls.createCommit(a, { proposals: [mls.proposeRemove(0)] }),
    "committer removing itself",
  );
  throws(
    () => mls.createCommit(a, { proposals: [mls.proposeRemove(9)] }),
    "remove of a blank leaf",
  );
  throws(
    () => mls.createCommit(a, { proposals: [{ type: 0x0a0a, data: EMPTY }] }),
    "unknown proposal type",
    "unsupported",
  );
  throws(
    () =>
      mls.createCommit(a, {
        proposals: [
          { type: PROPOSAL.REINIT, groupId: EMPTY, version: 1, cipherSuite: 1, extensions: [] },
        ],
      }),
    "reinit",
    "unsupported",
  );
  let expired = mls.generateKeyPackage({
    sig: mls.generateSignatureKeyPair(),
    identity: "old",
    capabilities: caps,
    lifetime: { notBefore: 1, notAfter: 2 },
  });
  mls.createCommit(a, { proposals: [mls.proposeAdd(expired.keyPackage)] });
  throws(
    () =>
      mls.createCommit(a, {
        proposals: [mls.proposeAdd(expired.keyPackage)],
        now: Math.floor(Date.now() / 1000),
      }),
    "expired key package with the lifetime check on",
    "lifetime",
  );
});

suite("self-tests", tests, (t) => {
  try {
    t.fn();
  } catch (e) {
    throw new Error(`${t.name}: ${e.message}`);
  }
});

console.log("\n" + results.join("\n"));
console.log(failed ? `\n${failed} failure(s)` : "\nall passed");
process.exit(failed ? 1 : 0);
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&quot;</span><span 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