export-ton-verifier/dist/index.cjs

Tool for generating Groth16 and PLONK verifier code for the TON blockchain from SnarkJS .zkey or verification key JSON files.

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  // If the importer is in node compatibility mode or this is not an ESM
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var __toCommonJS = (mod) => __copyProps(__defProp({}, "__esModule", { value: true }), mod);

// src/index.ts
var index_exports = {};
__export(index_exports, {
  MAX_PLONK_PUBLIC_INPUTS: () => MAX_PLONK_PUBLIC_INPUTS2,
  calldataToTupleItems: () => calldataToTupleItems2,
  dictFromInputList: () => dictFromInputList2,
  exportPlonkFuncCalldata: () => exportPlonkFuncCalldata2,
  exportPlonkTolkCalldata: () => exportPlonkTolkCalldata2,
  formatDoctorReport: () => formatDoctorReport2,
  g1Compressed: () => g1Compressed2,
  g2Compressed: () => g2Compressed2,
  generateVerifier: () => generateVerifier2,
  getCurveFromName: () => getCurveFromName3,
  groth16CompressProof: () => groth16CompressProof2,
  inspectVerifierInput: () => inspectVerifierInput2,
  normalizeTonBlsCurveName: () => normalizeTonBlsCurveName2,
  proofToMessageBoc: () => proofToMessageBoc2,
  proofToMessageCell: () => proofToMessageCell2,
  zkeyExportPlonkVerificationKey: () => zkeyExportPlonkVerificationKey2
});
module.exports = __toCommonJS(index_exports);

// src/dictFromInputList.ts
var import_core = require("@ton/core");
function dictFromInputList(list) {
  const dict = import_core.Dictionary.empty(
    import_core.Dictionary.Keys.Int(32),
    import_core.Dictionary.Values.BigInt(256)
  );
  for (let i = 0; i < list.length; i++) {
    dict.set(i, list[i]);
  }
  return dict;
}

// src/groth16CompressProof.js
var import_ffjavascript2 = require("ffjavascript");

// src/utils.js
var import_ffjavascript = require("ffjavascript");
async function getCurveFromName(name, options) {
  let curve;
  let singleThread = options && options.singleThread;
  const normName = normalizeName(name);
  if (["BN128", "BN254", "ALTBN128"].indexOf(normName) >= 0) {
    curve = await (0, import_ffjavascript.buildBn128)(singleThread);
  } else if (["BLS12381"].indexOf(normName) >= 0) {
    curve = await (0, import_ffjavascript.buildBls12381)(singleThread);
  } else {
    throw new Error(`Curve not supported: ${name}`);
  }
  return curve;
  function normalizeName(n) {
    return n.toUpperCase().match(/[A-Za-z0-9]+/g).join("");
  }
}
function toHexString(byteArray) {
  return Array.from(
    byteArray,
    (byte) => ("0" + (byte & 255).toString(16)).slice(-2)
  ).join("");
}
function assertBls12381Curve(curve) {
  const normalizedName = String((curve == null ? void 0 : curve.name) ?? "").toLowerCase().replace(/[^a-z0-9]/g, "");
  if (normalizedName !== "bls12381") {
    throw new Error("Compression helpers support only BLS12-381 curves.");
  }
}
function g1Compressed(curve, p1Raw) {
  assertBls12381Curve(curve);
  const p1 = curve.G1.fromObject(p1Raw);
  const buff = new Uint8Array(48);
  curve.G1.toRprCompressed(buff, 0, p1);
  if (buff[0] & 128) buff[0] |= 32;
  buff[0] |= 128;
  return toHexString(buff);
}
function g2Compressed(curve, p2Raw) {
  assertBls12381Curve(curve);
  const p2 = curve.G2.fromObject(p2Raw);
  const buff = new Uint8Array(96);
  curve.G2.toRprCompressed(buff, 0, p2);
  if (buff[0] & 128) buff[0] |= 32;
  buff[0] |= 128;
  return toHexString(buff);
}

// src/limits.js
function normalizeTonBlsCurveName(raw, field = "curve") {
  if (typeof raw !== "string" || raw.trim() === "") {
    throw new Error(`${field}: BLS12-381 curve metadata is required.`);
  }
  const normalized = raw.toLowerCase().replace(/[^a-z0-9]/g, "");
  if (normalized !== "bls12381") {
    throw new Error(
      `${field}: TON verifier templates use TVM BLS12-381 opcodes; got '${raw}'.`
    );
  }
  return "bls12381";
}
function assertTonBlsCurve(raw, field = "curve") {
  normalizeTonBlsCurveName(raw, field);
}
var MAX_PLONK_PUBLIC_INPUTS = 244;
function assertPlonkPublicInputCount(count, field = "public inputs") {
  if (!Number.isInteger(count) || count < 0) {
    throw new Error(`${field}: public input count must be a non-negative integer.`);
  }
  if (count > MAX_PLONK_PUBLIC_INPUTS) {
    throw new Error(
      `${field}: PLONK verifier supports at most ${MAX_PLONK_PUBLIC_INPUTS} public inputs because the TVM Keccak transcript is limited to 255 tuple items.`
    );
  }
}

// src/groth16CompressProof.js
async function groth16CompressProof(proof, publicSignals) {
  assertTonBlsCurve(proof == null ? void 0 : proof.curve, "proof.curve");
  const curve = await (0, import_ffjavascript2.buildBls12381)();
  try {
    const proofProc = import_ffjavascript2.utils.unstringifyBigInts(proof);
    const pi_aS = g1Compressed(curve, proofProc.pi_a);
    const pi_bS = g2Compressed(curve, proofProc.pi_b);
    const pi_cS = g1Compressed(curve, proofProc.pi_c);
    const pi_a = Buffer.from(pi_aS, "hex");
    const pi_b = Buffer.from(pi_bS, "hex");
    const pi_c = Buffer.from(pi_cS, "hex");
    const pubInputs = publicSignals.map((s) => BigInt(s));
    return {
      pi_a,
      pi_b,
      pi_c,
      pubInputs
    };
  } finally {
    if (curve && typeof curve.terminate === "function") {
      await curve.terminate();
    }
  }
}

// src/generateVerifiers.js
var import_promises4 = __toESM(require("fs/promises"), 1);
var import_ejs = __toESM(require("ejs"), 1);
var import_ffjavascript6 = require("ffjavascript");

// src/helpers.js
var import_promises = __toESM(require("fs/promises"), 1);
var import_path = __toESM(require("path"), 1);
var binFileUtils = __toESM(require("@iden3/binfileutils"), 1);

// src/curves.js
var import_ffjavascript3 = require("ffjavascript");
var bls12381q = import_ffjavascript3.Scalar.e(
  "1a0111ea397fe69a4b1ba7b6434bacd764774b84f38512bf6730d2a0f6b0f6241eabfffeb153ffffb9feffffffffaaab",
  16
);
async function getCurveFromQ(q) {
  let curve;
  if (import_ffjavascript3.Scalar.eq(q, bls12381q)) {
    curve = await (0, import_ffjavascript3.buildBls12381)();
  } else {
    throw new Error(`Curve not supported: ${import_ffjavascript3.Scalar.toString(q)}`);
  }
  return curve;
}
async function getCurveFromName2(name, options) {
  let curve;
  let singleThread = options && options.singleThread;
  const normName = normalizeName(name);
  if (["BLS12381"].indexOf(normName) >= 0) {
    curve = await (0, import_ffjavascript3.buildBls12381)(singleThread);
  } else {
    throw new Error(`Curve not supported: ${name}`);
  }
  return curve;
  function normalizeName(n) {
    return n.toUpperCase().match(/[A-Za-z0-9]+/g).join("");
  }
}

// src/helpers.js
async function fileExists(p) {
  try {
    await import_promises.default.access(p);
    return true;
  } catch {
    return false;
  }
}
async function resolveTemplatePath(templatesDir, lang, protocol) {
  const withProtocol = `${lang}_verifier_${protocol}.ejs`;
  const fallback = `${lang}_verifier.ejs`;
  const pathWithProtocol = import_path.default.join(templatesDir, withProtocol);
  const pathFallback = import_path.default.join(templatesDir, fallback);
  if (await fileExists(pathWithProtocol)) {
    return pathWithProtocol;
  }
  if (protocol === "groth16" && await fileExists(pathFallback)) {
    return pathFallback;
  }
  throw new Error(
    `Template not found: '${withProtocol}' (or '${fallback}' for groth16) in ${templatesDir}`
  );
}
function normalizeContractName(name = "MyVerifier") {
  const raw = String(name ?? "").trim();
  if (!raw) return "MyVerifier";
  const parts = raw.match(/[A-Za-z0-9]+/g) ?? [];
  if (parts.length === 0) return "MyVerifier";
  let normalized = parts.map((part) => part.charAt(0).toUpperCase() + part.slice(1)).join("");
  if (!/^[A-Za-z_]/.test(normalized)) {
    normalized = `_${normalized}`;
  }
  return normalized;
}
function log2(V) {
  return ((V & 4294901760) !== 0 ? (V &= 4294901760, 16) : 0) | ((V & 4278255360) !== 0 ? (V &= 4278255360, 8) : 0) | ((V & 4042322160) !== 0 ? (V &= 4042322160, 4) : 0) | ((V & 3435973836) !== 0 ? (V &= 3435973836, 2) : 0) | (V & 2863311530) !== 0;
}
async function readG1(fd, curve, toObject) {
  const buff = await fd.read(curve.G1.F.n8 * 2);
  const res = curve.G1.fromRprLEM(buff, 0);
  return toObject ? curve.G1.toObject(res) : res;
}
async function readG2(fd, curve, toObject) {
  const buff = await fd.read(curve.G2.F.n8 * 2);
  const res = curve.G2.fromRprLEM(buff, 0);
  return toObject ? curve.G2.toObject(res) : res;
}
async function readHeaderPlonk(fd, sections, toObject) {
  const zkey = {};
  zkey.protocol = "plonk";
  await binFileUtils.startReadUniqueSection(fd, sections, 2);
  const n8q = await fd.readULE32();
  zkey.n8q = n8q;
  zkey.q = await binFileUtils.readBigInt(fd, n8q);
  const n8r = await fd.readULE32();
  zkey.n8r = n8r;
  zkey.r = await binFileUtils.readBigInt(fd, n8r);
  zkey.curve = await getCurveFromQ(zkey.q);
  zkey.nVars = await fd.readULE32();
  zkey.nPublic = await fd.readULE32();
  zkey.domainSize = await fd.readULE32();
  zkey.power = log2(zkey.domainSize);
  zkey.nAdditions = await fd.readULE32();
  zkey.nConstraints = await fd.readULE32();
  zkey.k1 = await fd.read(n8r);
  zkey.k2 = await fd.read(n8r);
  zkey.Qm = await readG1(fd, zkey.curve, toObject);
  zkey.Ql = await readG1(fd, zkey.curve, toObject);
  zkey.Qr = await readG1(fd, zkey.curve, toObject);
  zkey.Qo = await readG1(fd, zkey.curve, toObject);
  zkey.Qc = await readG1(fd, zkey.curve, toObject);
  zkey.S1 = await readG1(fd, zkey.curve, toObject);
  zkey.S2 = await readG1(fd, zkey.curve, toObject);
  zkey.S3 = await readG1(fd, zkey.curve, toObject);
  zkey.X_2 = await readG2(fd, zkey.curve, toObject);
  await binFileUtils.endReadSection(fd);
  return zkey;
}

// src/templateResolver.js
var import_path2 = __toESM(require("path"), 1);
var import_module = require("module");
var PACKAGE_NAME = "export-ton-verifier";
function requireBases() {
  const bases = [];
  if (typeof __filename === "string") {
    bases.push(__filename);
  }
  if (process.argv[1]) {
    bases.push(import_path2.default.resolve(process.argv[1]));
  }
  bases.push(import_path2.default.join(process.cwd(), "__export_ton_verifier_resolver__.js"));
  return [...new Set(bases)];
}
function packageRootFromResolvedEntry(entryPath) {
  const dir = import_path2.default.dirname(entryPath);
  return import_path2.default.basename(dir) === "dist" ? import_path2.default.dirname(dir) : dir;
}
function resolvePackageRootFromSelfReference() {
  for (const base of requireBases()) {
    try {
      return packageRootFromResolvedEntry(
        (0, import_module.createRequire)(base).resolve(PACKAGE_NAME)
      );
    } catch {
    }
  }
  return null;
}
function resolvePackageRootFromModuleDir() {
  if (typeof __dirname !== "string") return null;
  if (import_path2.default.basename(__dirname) === "dist" || import_path2.default.basename(__dirname) === "src") {
    return import_path2.default.dirname(__dirname);
  }
  return __dirname;
}
function defaultTemplatesDir() {
  const packageRoot = resolvePackageRootFromSelfReference() ?? resolvePackageRootFromModuleDir() ?? process.cwd();
  return import_path2.default.join(packageRoot, "templates");
}

// src/logger.js
function createLogger({ logger = null, quiet = false } = {}) {
  if (quiet || logger === false || logger == null) {
    return { log() {
    } };
  }
  if (typeof logger === "function") {
    return { log: logger };
  }
  if (typeof logger.log === "function") {
    return { log: logger.log.bind(logger) };
  }
  throw new Error(
    "logger must be a function, an object with log(message), false, null, or undefined."
  );
}

// src/formats/snarkjs.js
var import_snarkjs = require("snarkjs");

// src/export_plonk_vk.js
var binFileUtils2 = __toESM(require("@iden3/binfileutils"), 1);
var import_ffjavascript4 = require("ffjavascript");
var { stringifyBigInts, unstringifyBigInts } = import_ffjavascript4.utils;
var G1_KEYS = ["Qm", "Ql", "Qr", "Qo", "Qc", "S1", "S2", "S3"];
var G1_UC_KEYS = ["Qm_uc", "Ql_uc", "Qr_uc", "Qo_uc", "Qc_uc", "S1_uc", "S2_uc", "S3_uc"];
async function zkeyExportPlonkVerificationKey(zkeyName) {
  const { fd, sections } = await binFileUtils2.readBinFile(zkeyName, "zkey", 2);
  try {
    const zkey = await readHeaderPlonk(fd, sections);
    return await plonkVk(zkey);
  } finally {
    await fd.close();
  }
}
async function normalizePlonkVerificationKey(vkRaw) {
  if (vkRaw.protocol !== "plonk") {
    throw new Error(`Expected PLONK verification key (got '${vkRaw.protocol}').`);
  }
  const nPublic = numberField(vkRaw, "nPublic");
  assertPlonkPublicInputCount(nPublic, "verification_key.nPublic");
  if (isTemplateReadyPlonkVerificationKey(vkRaw)) {
    return stringifyBigInts({ ...vkRaw, nPublic });
  }
  const vk = unstringifyBigInts(vkRaw);
  const curve = await getCurveFromName(vkRaw.curve);
  try {
    const res = {
      protocol: "plonk",
      curve: curve.name,
      nPublic,
      power: numberField(vkRaw, "power"),
      k1: scalarToString(curve, vk.k1, "k1"),
      k2: scalarToString(curve, vk.k2, "k2"),
      w: vk.w === void 0 ? scalarToString(curve, curve.Fr.w[numberField(vkRaw, "power")], "w") : scalarToString(curve, vk.w, "w"),
      X_2: pointObjectToBlstCHex(curve.G2, vk.X_2, "X_2")
    };
    for (const key of G1_KEYS) {
      res[key] = pointObjectToBlstCHex(curve.G1, vk[key], key);
      res[`${key}_uc`] = pointObjectToUncompressedHex(curve.G1, vk[key], key);
    }
    return stringifyBigInts(res);
  } finally {
    if (typeof curve.terminate === "function") {
      await curve.terminate();
    }
  }
}
function isTemplateReadyPlonkVerificationKey(vkRaw) {
  return G1_KEYS.every((key) => typeof vkRaw[key] === "string") && G1_UC_KEYS.every((key) => typeof vkRaw[key] === "string") && typeof vkRaw.X_2 === "string";
}
function numberField(vkRaw, key) {
  const value = Number(vkRaw[key]);
  if (!Number.isInteger(value) || value < 0) {
    throw new Error(`verification_key: invalid '${key}'.`);
  }
  return value;
}
function scalarToString(curve, value, key) {
  if (value === void 0 || value === null) {
    throw new Error(`verification_key: missing '${key}'.`);
  }
  return curve.Fr.toObject(curve.Fr.fromObject(value)).toString();
}
function ffC2blstC(a, offset = 0) {
  if (a[offset] & 128) {
    a[offset] |= 32;
  }
  a[offset] |= 128;
}
function pointObjectToBlstCHex(curve, p, key) {
  if (p === void 0 || p === null) {
    throw new Error(`verification_key: missing '${key}'.`);
  }
  return pointToBlstCHex(curve, curve.fromObject(p));
}
function pointToBlstCHex(curve, p) {
  const tmp = new Uint8Array(curve.F.n8);
  curve.toRprCompressed(tmp, 0, p);
  ffC2blstC(tmp, 0);
  return Buffer.from(tmp).toString("hex");
}
function pointObjectToUncompressedHex(curve, p, key) {
  if (p === void 0 || p === null) {
    throw new Error(`verification_key: missing '${key}'.`);
  }
  return pointToUncompressedHex(curve, curve.fromObject(p));
}
function pointToUncompressedHex(curve, p) {
  const tmp = new Uint8Array(curve.F.n8 * 2);
  curve.toRprUncompressed(tmp, 0, p);
  return Buffer.from(tmp).toString("hex");
}
async function plonkVk(zkey) {
  const curve = zkey.curve;
  try {
    assertPlonkPublicInputCount(zkey.nPublic, "verification_key.nPublic");
    let vKey = {
      protocol: zkey.protocol,
      curve: curve.name,
      nPublic: zkey.nPublic,
      power: zkey.power,
      k1: curve.Fr.toObject(zkey.k1),
      k2: curve.Fr.toObject(zkey.k2),
      Qm: pointToBlstCHex(curve.G1, zkey.Qm),
      Ql: pointToBlstCHex(curve.G1, zkey.Ql),
      Qr: pointToBlstCHex(curve.G1, zkey.Qr),
      Qo: pointToBlstCHex(curve.G1, zkey.Qo),
      Qc: pointToBlstCHex(curve.G1, zkey.Qc),
      S1: pointToBlstCHex(curve.G1, zkey.S1),
      S2: pointToBlstCHex(curve.G1, zkey.S2),
      S3: pointToBlstCHex(curve.G1, zkey.S3),
      Qm_uc: pointToUncompressedHex(curve.G1, zkey.Qm),
      Ql_uc: pointToUncompressedHex(curve.G1, zkey.Ql),
      Qr_uc: pointToUncompressedHex(curve.G1, zkey.Qr),
      Qo_uc: pointToUncompressedHex(curve.G1, zkey.Qo),
      Qc_uc: pointToUncompressedHex(curve.G1, zkey.Qc),
      S1_uc: pointToUncompressedHex(curve.G1, zkey.S1),
      S2_uc: pointToUncompressedHex(curve.G1, zkey.S2),
      S3_uc: pointToUncompressedHex(curve.G1, zkey.S3),
      X_2: pointToBlstCHex(curve.G2, zkey.X_2),
      w: curve.Fr.toObject(curve.Fr.w[zkey.power])
    };
    vKey = stringifyBigInts(vKey);
    return vKey;
  } finally {
    if (typeof curve.terminate === "function") {
      await curve.terminate();
    }
  }
}

// src/formats/snarkjs.js
var SNARKJS_JSON_SOURCE = "snarkjs-json";
var SNARKJS_ZKEY_SOURCE = "snarkjs-zkey";
var GROTH16_REQUIRED_FIELDS = [
  "vk_alpha_1",
  "vk_beta_2",
  "vk_gamma_2",
  "vk_delta_2"
];
var PLONK_REQUIRED_FIELDS = [
  "nPublic",
  "power",
  "k1",
  "k2",
  "Qm",
  "Ql",
  "Qr",
  "Qo",
  "Qc",
  "S1",
  "S2",
  "S3",
  "X_2"
];
function normalizeSnarkjsVerificationKey(vkRaw) {
  if (!(vkRaw == null ? void 0 : vkRaw.protocol)) {
    throw new Error("verification_key: missing 'protocol'.");
  }
  if (!vkRaw.curve) {
    throw new Error("verification_key: missing 'curve'.");
  }
  ensureSupportedProtocol(vkRaw.protocol, "JSON");
  validateSnarkjsVerificationKeyShape(vkRaw);
  return vkRaw;
}
async function loadSnarkjsZkeyVerificationKey(inputPath, { logger = null } = {}) {
  var _a;
  (_a = logger == null ? void 0 : logger.log) == null ? void 0 : _a.call(logger, "Loading verification key from .zkey...");
  const vkRaw = await import_snarkjs.zKey.exportVerificationKey(inputPath);
  ensureSupportedProtocol(vkRaw.protocol, ".zkey");
  return vkRaw;
}
async function loadSnarkjsPlonkTemplateVerificationKey(verifierInput) {
  if (verifierInput.sourceFormat === SNARKJS_ZKEY_SOURCE) {
    return zkeyExportPlonkVerificationKey(verifierInput.inputPath);
  }
  return normalizePlonkVerificationKey(verifierInput.verificationKey);
}
function ensureSupportedProtocol(protocol, source) {
  if (protocol !== "groth16" && protocol !== "plonk") {
    throw new Error(
      `Only Groth16 and PLONK are supported from ${source} (got '${protocol}').`
    );
  }
}
function validateSnarkjsVerificationKeyShape(vkRaw) {
  if (vkRaw.protocol === "groth16") {
    requireFields(vkRaw, GROTH16_REQUIRED_FIELDS);
    if (!Array.isArray(vkRaw.IC) || vkRaw.IC.length === 0) {
      throw new Error("verification_key: 'IC' must be a non-empty array.");
    }
    return;
  }
  requireFields(vkRaw, PLONK_REQUIRED_FIELDS);
}
function requireFields(value, fields) {
  for (const field of fields) {
    if (value[field] === void 0 || value[field] === null) {
      throw new Error(`verification_key: missing '${field}'.`);
    }
  }
}

// src/formats/gnark.js
var import_promises3 = __toESM(require("fs/promises"), 1);

// src/formats/common.js
var import_promises2 = __toESM(require("fs/promises"), 1);
var import_ffjavascript5 = require("ffjavascript");
var BLS12381_CURVE_NAME = "bls12381";
function normalizeBls12381CurveName(raw, field = "curve") {
  if (typeof raw !== "string" || raw.trim() === "") {
    throw new Error(`${field}: BLS12-381 curve metadata is required.`);
  }
  const normalized = raw.toLowerCase().replace(/[^a-z0-9]/g, "");
  if (normalized !== "bls12381") {
    throw new Error(
      `${field}: only BLS12-381 artifacts are supported for gnark/arkworks inputs (got '${raw}').`
    );
  }
  return BLS12381_CURVE_NAME;
}
function decimalString(value, field) {
  if (typeof value === "bigint") return value.toString();
  if (typeof value === "number" && Number.isInteger(value)) return String(value);
  if (typeof value === "string") {
    const trimmed = value.trim();
    if (/^[0-9]+$/.test(trimmed)) return trimmed;
  }
  throw new Error(`${field} must be a decimal string or integer.`);
}
function requireField(value, field) {
  if (value === void 0 || value === null) {
    throw new Error(`verification key: missing '${field}'.`);
  }
  return value;
}
function g1Point(x, y, field) {
  return [
    decimalString(x, `${field}.X`),
    decimalString(y, `${field}.Y`),
    "1"
  ];
}
function g2Point(x0, x1, y0, y1, field) {
  return [
    [
      decimalString(x0, `${field}.X.A0`),
      decimalString(x1, `${field}.X.A1`)
    ],
    [
      decimalString(y0, `${field}.Y.A0`),
      decimalString(y1, `${field}.Y.A1`)
    ],
    ["1", "0"]
  ];
}
function makeGroth16VerificationKey({
  curve = BLS12381_CURVE_NAME,
  vk_alpha_1,
  vk_beta_2,
  vk_gamma_2,
  vk_delta_2,
  IC
}) {
  if (!Array.isArray(IC) || IC.length === 0) {
    throw new Error("verification key: IC/G1.K must contain at least one point.");
  }
  return {
    protocol: "groth16",
    curve,
    vk_alpha_1,
    vk_beta_2,
    vk_gamma_2,
    vk_delta_2,
    IC,
    nPublic: IC.length - 1
  };
}
async function readJson(path4, label) {
  const content = await import_promises2.default.readFile(path4, "utf8");
  try {
    return JSON.parse(content);
  } catch (err) {
    throw new Error(`invalid ${label} JSON in ${path4}: ${err.message}`);
  }
}
function decodeHex(raw, field) {
  if (typeof raw !== "string") {
    throw new Error(`${field} must be a hex string.`);
  }
  const hex = raw.trim().replace(/^0x/i, "");
  if (hex.length === 0) throw new Error(`${field} must not be empty.`);
  if (hex.length % 2 !== 0) {
    throw new Error(`${field} has odd hex length.`);
  }
  if (!/^[0-9a-fA-F]+$/.test(hex)) {
    throw new Error(`${field} must be a hex string.`);
  }
  return Uint8Array.from(Buffer.from(hex, "hex"));
}
async function withBls12381(run) {
  const curve = await (0, import_ffjavascript5.buildBls12381)();
  try {
    return await run(curve);
  } finally {
    if (curve && typeof curve.terminate === "function") {
      await curve.terminate();
    }
  }
}
function decodeBls12381G1(curve, bytes, field) {
  const point = decodeBls12381Point(curve.G1, bytes, 48, field);
  return curvePointToObjectArray(curve.G1, point);
}
function decodeBls12381G2(curve, bytes, field) {
  const point = decodeBls12381Point(curve.G2, bytes, 96, field);
  return curvePointToObjectArray(curve.G2, point);
}
function curvePointToObjectArray(curveGroup, point) {
  return stringifyBigIntsDeep(curveGroup.toObject(point));
}
function stringifyBigIntsDeep(value) {
  if (typeof value === "bigint") return value.toString();
  if (Array.isArray(value)) return value.map(stringifyBigIntsDeep);
  return value;
}
function decodeBls12381Point(group, bytes, compressedSize, field) {
  const first = bytes[0];
  if (first === void 0) {
    throw new Error(`${field}: empty point encoding.`);
  }
  const flag = first & 224;
  const compressed = flag === 128 || flag === 160 || flag === 192;
  const uncompressed = flag === 0 || flag === 64;
  if (!compressed && !uncompressed) {
    throw new Error(
      `${field}: unsupported gnark/arkworks point flag 0x${flag.toString(16)}.`
    );
  }
  if (compressed) {
    if (bytes.length !== compressedSize) {
      throw new Error(
        `${field}: expected ${compressedSize} compressed bytes, got ${bytes.length}.`
      );
    }
    if (flag === 192) return group.zero;
    return group.fromRprCompressed(toFfjavascriptCompressed(bytes), 0);
  }
  if (bytes.length !== compressedSize * 2) {
    throw new Error(
      `${field}: expected ${compressedSize * 2} uncompressed bytes, got ${bytes.length}.`
    );
  }
  if (flag === 64) return group.zero;
  return group.fromRprUncompressed(bytes, 0);
}
function toFfjavascriptCompressed(bytes) {
  const converted = Uint8Array.from(bytes);
  const sign = converted[0] & 32;
  converted[0] &= 31;
  if (sign) converted[0] |= 128;
  return converted;
}
var BinaryReader = class {
  constructor(bytes, sourceName) {
    this.bytes = bytes instanceof Uint8Array ? bytes : Uint8Array.from(bytes);
    this.sourceName = sourceName;
    this.offset = 0;
  }
  readBytes(len, field) {
    const end = this.offset + len;
    if (end > this.bytes.length) {
      throw new Error(
        `${this.sourceName} ended while reading ${field}: need ${len} bytes at offset ${this.offset}, remaining ${this.bytes.length - this.offset}.`
      );
    }
    const slice = this.bytes.slice(this.offset, end);
    this.offset = end;
    return slice;
  }
  peekByte(field) {
    const value = this.bytes[this.offset];
    if (value === void 0) {
      throw new Error(`${this.sourceName} ended before reading ${field}.`);
    }
    return value;
  }
  readU32BE(field) {
    const bytes = this.readBytes(4, field);
    return new DataView(bytes.buffer, bytes.byteOffset, bytes.byteLength).getUint32(
      0,
      false
    );
  }
  readU64BE(field) {
    const bytes = this.readBytes(8, field);
    return new DataView(bytes.buffer, bytes.byteOffset, bytes.byteLength).getBigUint64(
      0,
      false
    );
  }
  readU64LE(field) {
    const bytes = this.readBytes(8, field);
    return new DataView(bytes.buffer, bytes.byteOffset, bytes.byteLength).getBigUint64(
      0,
      true
    );
  }
  finish(label = "artifact") {
    if (this.offset !== this.bytes.length) {
      throw new Error(
        `${this.sourceName} has ${this.bytes.length - this.offset} trailing bytes after ${label}.`
      );
    }
  }
};

// src/formats/gnark.js
var BLS_FIELD_BYTES = 48;
var GNARK_FLAG_MASK = 224;
var GNARK_COMPRESSED_FLAGS = /* @__PURE__ */ new Set([128, 160, 192]);
var GNARK_UNCOMPRESSED_FLAGS = /* @__PURE__ */ new Set([0, 64]);
async function normalizeGnarkJsonVerificationKey(value) {
  const g1 = requireField(value == null ? void 0 : value.G1, "G1");
  const g2 = requireField(value == null ? void 0 : value.G2, "G2");
  ensureNoVerificationKeyCommitments(value);
  const k = requireField(g1.K, "G1.K");
  if (!Array.isArray(k)) {
    throw new Error("verification key: G1.K must be an array.");
  }
  const verificationKey = makeGroth16VerificationKey({
    curve: BLS12381_CURVE_NAME,
    vk_alpha_1: g1FromJson(requireField(g1.Alpha, "G1.Alpha"), "G1.Alpha"),
    vk_beta_2: g2FromJson(requireField(g2.Beta, "G2.Beta"), "G2.Beta"),
    vk_gamma_2: g2FromJson(requireField(g2.Gamma, "G2.Gamma"), "G2.Gamma"),
    vk_delta_2: g2FromJson(requireField(g2.Delta, "G2.Delta"), "G2.Delta"),
    IC: k.map((point, idx) => g1FromJson(point, `G1.K[${idx}]`))
  });
  await assertBls12381VerificationKeyPoints(verificationKey);
  return verificationKey;
}
async function loadGnarkBinaryVerificationKey(path4) {
  const bytes = await import_promises3.default.readFile(path4);
  return normalizeGnarkBinaryVerificationKey(Uint8Array.from(bytes), path4);
}
async function normalizeGnarkBinaryVerificationKey(bytes, sourceName = "gnark binary VK") {
  return withBls12381((curve) => {
    const reader = new BinaryReader(bytes, sourceName);
    const alpha = readG12(reader, curve, "G1.Alpha");
    readG12(reader, curve, "G1.Beta");
    const beta = readG22(reader, curve, "G2.Beta");
    const gamma = readG22(reader, curve, "G2.Gamma");
    readG12(reader, curve, "G1.Delta");
    const delta = readG22(reader, curve, "G2.Delta");
    const icLen = reader.readU32BE("G1.K length");
    const IC = [];
    for (let idx = 0; idx < icLen; idx += 1) {
      IC.push(readG12(reader, curve, `G1.K[${idx}]`));
    }
    const publicAndCommitmentCommitted = readU64SliceSlice(
      reader,
      "PublicAndCommitmentCommitted"
    );
    const commitmentKeysLen = reader.readU32BE("CommitmentKeys length");
    if (publicAndCommitmentCommitted.length !== 0 || commitmentKeysLen !== 0) {
      throw new Error(
        "gnark commitment keys are not supported by TON verifier generation."
      );
    }
    reader.finish("gnark verification key");
    return makeGroth16VerificationKey({
      curve: BLS12381_CURVE_NAME,
      vk_alpha_1: alpha,
      vk_beta_2: beta,
      vk_gamma_2: gamma,
      vk_delta_2: delta,
      IC
    });
  });
}
function ensureNoVerificationKeyCommitments(value) {
  const commitmentKeys = value == null ? void 0 : value.CommitmentKeys;
  const publicAndCommitmentCommitted = value == null ? void 0 : value.PublicAndCommitmentCommitted;
  if (!isEmptyCommitmentValue(commitmentKeys) || !isEmptyCommitmentValue(publicAndCommitmentCommitted)) {
    throw new Error(
      "gnark commitment keys are not supported by TON verifier generation."
    );
  }
}
function isEmptyCommitmentValue(value) {
  return value === void 0 || value === null || Array.isArray(value) && value.length === 0;
}
function g1FromJson(point, field) {
  return g1Point(
    requireField(point == null ? void 0 : point.X, `${field}.X`),
    requireField(point == null ? void 0 : point.Y, `${field}.Y`),
    field
  );
}
function g2FromJson(point, field) {
  var _a, _b, _c, _d;
  return g2Point(
    requireField((_a = point == null ? void 0 : point.X) == null ? void 0 : _a.A0, `${field}.X.A0`),
    requireField((_b = point == null ? void 0 : point.X) == null ? void 0 : _b.A1, `${field}.X.A1`),
    requireField((_c = point == null ? void 0 : point.Y) == null ? void 0 : _c.A0, `${field}.Y.A0`),
    requireField((_d = point == null ? void 0 : point.Y) == null ? void 0 : _d.A1, `${field}.Y.A1`),
    field
  );
}
async function assertBls12381VerificationKeyPoints(vk) {
  await withBls12381((curve) => {
    assertBls12381Point(curve.G1, vk.vk_alpha_1, "G1.Alpha");
    assertBls12381Point(curve.G2, vk.vk_beta_2, "G2.Beta");
    assertBls12381Point(curve.G2, vk.vk_gamma_2, "G2.Gamma");
    assertBls12381Point(curve.G2, vk.vk_delta_2, "G2.Delta");
    vk.IC.forEach((point, idx) => {
      assertBls12381Point(curve.G1, point, `G1.K[${idx}]`);
    });
  });
}
function assertBls12381Point(group, point, field) {
  let parsed;
  try {
    parsed = group.fromObject(bigintPoint(point));
  } catch (err) {
    throw new Error(
      `${field}: expected a valid BLS12-381 point (${(err == null ? void 0 : err.message) || err}).`
    );
  }
  if (!group.isValid(parsed)) {
    throw new Error(`${field}: point is not on BLS12-381.`);
  }
}
function bigintPoint(value) {
  if (Array.isArray(value)) return value.map(bigintPoint);
  if (typeof value === "bigint") return value;
  return BigInt(value);
}
function readG12(reader, curve, field) {
  const bytes = reader.readBytes(pointLength(reader, BLS_FIELD_BYTES, field), field);
  return decodeBls12381G1(curve, bytes, field);
}
function readG22(reader, curve, field) {
  const bytes = reader.readBytes(
    pointLength(reader, BLS_FIELD_BYTES * 2, field),
    field
  );
  return decodeBls12381G2(curve, bytes, field);
}
function pointLength(reader, compressedSize, field) {
  const flag = reader.peekByte(field) & GNARK_FLAG_MASK;
  if (GNARK_COMPRESSED_FLAGS.has(flag)) return compressedSize;
  if (GNARK_UNCOMPRESSED_FLAGS.has(flag)) return compressedSize * 2;
  throw new Error(
    `${field}: unsupported gnark point flag 0x${flag.toString(16).padStart(2, "0")}.`
  );
}
function readU64SliceSlice(reader, field) {
  const outerLen = reader.readU32BE(`${field} length`);
  const outer = [];
  for (let outerIdx = 0; outerIdx < outerLen; outerIdx += 1) {
    const innerLen = reader.readU32BE(`${field}[${outerIdx}] length`);
    const inner = [];
    for (let innerIdx = 0; innerIdx < innerLen; innerIdx += 1) {
      inner.push(reader.readU64BE(`${field}[${outerIdx}][${innerIdx}]`));
    }
    outer.push(inner);
  }
  return outer;
}

// src/formats/arkworks.js
var G1_COMPRESSED_BYTES = 48;
var G2_COMPRESSED_BYTES = 96;
async function normalizeArkworksVerificationKey(value) {
  const curve = parseCurve(value);
  const vkHex = firstString(value, ["vk", "verification_key", "verifying_key"], "vk");
  return decodeArkworksVerificationKey(vkHex, curve);
}
async function decodeArkworksVerificationKey(raw, curveName = BLS12381_CURVE_NAME) {
  normalizeBls12381CurveName(curveName, "curve");
  const bytes = decodeHex(raw, "vk");
  return withBls12381((curve) => {
    const reader = new BinaryReader(bytes, "arkworks verification key");
    const vk_alpha_1 = decodeBls12381G1(
      curve,
      reader.readBytes(G1_COMPRESSED_BYTES, "vk.alpha_g1"),
      "vk.alpha_g1"
    );
    const vk_beta_2 = decodeBls12381G2(
      curve,
      reader.readBytes(G2_COMPRESSED_BYTES, "vk.beta_g2"),
      "vk.beta_g2"
    );
    const vk_gamma_2 = decodeBls12381G2(
      curve,
      reader.readBytes(G2_COMPRESSED_BYTES, "vk.gamma_g2"),
      "vk.gamma_g2"
    );
    const vk_delta_2 = decodeBls12381G2(
      curve,
      reader.readBytes(G2_COMPRESSED_BYTES, "vk.delta_g2"),
      "vk.delta_g2"
    );
    const icLen = Number(reader.readU64LE("vk.gamma_abc_g1 length"));
    if (!Number.isSafeInteger(icLen)) {
      throw new Error("vk.gamma_abc_g1 length is too large.");
    }
    const IC = [];
    for (let idx = 0; idx < icLen; idx += 1) {
      IC.push(
        decodeBls12381G1(
          curve,
          reader.readBytes(G1_COMPRESSED_BYTES, `vk.gamma_abc_g1[${idx}]`),
          `vk.gamma_abc_g1[${idx}]`
        )
      );
    }
    reader.finish("arkworks verification key");
    return makeGroth16VerificationKey({
      curve: BLS12381_CURVE_NAME,
      vk_alpha_1,
      vk_beta_2,
      vk_gamma_2,
      vk_delta_2,
      IC
    });
  });
}
function parseCurve(value) {
  const curve = value == null ? void 0 : value.curve;
  if (!curve) {
    throw new Error("arkworks input requires curve metadata.");
  }
  return normalizeBls12381CurveName(curve, "curve");
}
function firstString(value, keys, label) {
  for (const key of keys) {
    const candidate = value == null ? void 0 : value[key];
    if (typeof candidate === "string") return candidate;
  }
  throw new Error(`arkworks input requires ${label} hex field.`);
}

// src/formats/index.js
var GNARK_JSON_SOURCE = "gnark-json";
var GNARK_BINARY_SOURCE = "gnark-bin";
var ARKWORKS_JSON_SOURCE = "arkworks-json";
async function loadVerificationKey(inputPath, { logger = null, quiet = false } = {}) {
  const log = createLogger({ logger, quiet });
  const nativeInput = await loadNativeVerificationKeyInput(inputPath);
  if (nativeInput) return nativeInput;
  return makeVerifierInput(
    inputPath,
    SNARKJS_ZKEY_SOURCE,
    await loadSnarkjsZkeyVerificationKey(inputPath, { logger: log })
  );
}
async function loadPlonkTemplateVerificationKey(verifierInput) {
  return loadSnarkjsPlonkTemplateVerificationKey(verifierInput);
}
async function loadNativeVerificationKeyInput(inputPath) {
  const lower = inputPath.toLowerCase();
  if (lower.endsWith(".json")) {
    return loadJsonVerificationKey(inputPath);
  }
  if (lower.endsWith(".bin")) {
    return makeVerifierInput(
      inputPath,
      GNARK_BINARY_SOURCE,
      await loadGnarkBinaryVerificationKey(inputPath)
    );
  }
  return null;
}
async function loadJsonVerificationKey(inputPath) {
  const raw = await readJson(inputPath, "verification key");
  const errors = [];
  try {
    return makeVerifierInput(
      inputPath,
      SNARKJS_JSON_SOURCE,
      normalizeSnarkjsVerificationKey(raw)
    );
  } catch (err) {
    errors.push(`snarkjs JSON: ${err.message}`);
  }
  try {
    return makeVerifierInput(
      inputPath,
      GNARK_JSON_SOURCE,
      await normalizeGnarkJsonVerificationKey(raw)
    );
  } catch (err) {
    errors.push(`gnark JSON: ${err.message}`);
  }
  try {
    return makeVerifierInput(
      inputPath,
      ARKWORKS_JSON_SOURCE,
      await normalizeArkworksVerificationKey(raw)
    );
  } catch (err) {
    errors.push(`arkworks JSON: ${err.message}`);
  }
  throw new Error(
    `could not auto-detect verification key JSON format: ${errors.join("; ")}`
  );
}
function makeVerifierInput(inputPath, sourceFormat, verificationKey) {
  return {
    inputPath,
    sourceFormat,
    verificationKey
  };
}

// src/generateVerifiers.js
var { unstringifyBigInts: unstringifyBigInts2 } = import_ffjavascript6.utils;
async function generateVerifier(inputPath, outputPath, {
  lang = "tolk",
  templatesDir = defaultTemplatesDir(),
  contractName = null,
  logger = null,
  quiet = false
} = {}) {
  const log = createLogger({ logger, quiet });
  const verifierInput = await loadVerificationKey(inputPath, { logger: log });
  const vkRaw = verifierInput.verificationKey;
  assertTonBlsCurve(vkRaw.curve, "verification_key.curve");
  const normalizedContractName = typeof contractName === "string" && contractName.trim() ? normalizeContractName(contractName) : null;
  const templatePath = await resolveTemplatePath(
    templatesDir,
    lang,
    vkRaw.protocol
  );
  log.log(`Using template for: ${lang} ${vkRaw.protocol}`);
  let curve;
  try {
    if (vkRaw.protocol === "groth16") {
      const vk = unstringifyBigInts2(vkRaw);
      curve = await getCurveFromName(vkRaw.curve);
      log.log("Compressing points...");
      const data = {
        protocol: "groth16",
        curve: vkRaw.curve,
        contractName: normalizedContractName,
        vk_alpha_1: g1Compressed(curve, vk.vk_alpha_1),
        vk_beta_2: g2Compressed(curve, vk.vk_beta_2),
        vk_gamma_2: g2Compressed(curve, vk.vk_gamma_2),
        vk_delta_2: g2Compressed(curve, vk.vk_delta_2),
        IC: vk.IC.map((x) => g1Compressed(curve, x)),
        nPublic: vk.IC.length - 1,
        publicInputKeyLen: 32,
        _raw: vkRaw
      };
      log.log("Rendering template...");
      const template2 = await import_promises4.default.readFile(templatePath, "utf8");
      const rendered2 = import_ejs.default.render(template2, data);
      log.log(`Saving file: ${outputPath}`);
      await import_promises4.default.writeFile(outputPath, rendered2, "utf8");
      log.log("Done.");
      return "groth16";
    }
    log.log("Rendering template for PLONK...");
    const template = await import_promises4.default.readFile(templatePath, "utf8");
    const verificationKey = {
      ...await loadPlonkTemplateVerificationKey(verifierInput),
      contractName: normalizedContractName
    };
    const rendered = import_ejs.default.render(template, verificationKey);
    log.log(`Saving file: ${outputPath}`);
    await import_promises4.default.writeFile(outputPath, rendered, "utf8");
    log.log("Done.");
    return "plonk";
  } finally {
    if (curve && typeof curve.terminate === "function") {
      await curve.terminate();
    }
  }
}

// src/export_plonk_calldata.js
var import_ffjavascript7 = require("ffjavascript");
var import_core2 = require("@ton/core");
var { unstringifyBigInts: unstringifyBigInts3 } = import_ffjavascript7.utils;
function calldataToTupleItems(calldata) {
  return calldata.map((item) => {
    if ((item.type === "slice" || item.type === "cell") && item.cell != null) {
      const c = item.cell;
      if (typeof c.toBoc === "function") {
        const ourCell = import_core2.Cell.fromBoc(c.toBoc())[0];
        return { type: item.type, cell: ourCell };
      }
    }
    return item;
  });
}
async function exportPlonkFuncCalldata(_proof, _pub) {
  return exportPlonkCalldataWithPublicInputs(_proof, _pub, funcPublicInputs);
}
async function exportPlonkTolkCalldata(_proof, _pub) {
  return exportPlonkCalldataWithPublicInputs(_proof, _pub, tolkPublicInputs);
}
async function exportPlonkCalldataWithPublicInputs(_proof, _pub, publicInputItem) {
  let proof = unstringifyBigInts3(_proof);
  const pub = unstringifyBigInts3(_pub);
  if (!Array.isArray(pub)) {
    throw new Error("public inputs must be an array.");
  }
  assertPlonkPublicInputCount(pub.length, "public inputs");
  const curve = await getCurveFromName2(proof.curve);
  try {
    proof = fromObjectProof(curve, proof);
  } finally {
    if (typeof curve.terminate === "function") {
      await curve.terminate();
    }
  }
  const hexToCell = (hex) => (0, import_core2.beginCell)().storeBuffer(Buffer.from(hex, "hex")).endCell();
  const calldata = [
    {
      type: "slice",
      cell: (0, import_core2.beginCell)().storeBuffer(Buffer.from(proof.A, "hex")).endCell()
    },
    {
      type: "slice",
      cell: (0, import_core2.beginCell)().storeBuffer(Buffer.from(proof.B, "hex")).endCell()
    },
    {
      type: "slice",
      cell: (0, import_core2.beginCell)().storeBuffer(Buffer.from(proof.C, "hex")).endCell()
    },
    {
      type: "slice",
      cell: (0, import_core2.beginCell)().storeBuffer(Buffer.from(proof.Z, "hex")).endCell()
    },
    {
      type: "slice",
      cell: (0, import_core2.beginCell)().storeBuffer(Buffer.from(proof.T1, "hex")).endCell()
    },
    {
      type: "slice",
      cell: (0, import_core2.beginCell)().storeBuffer(Buffer.from(proof.T2, "hex")).endCell()
    },
    {
      type: "slice",
      cell: (0, import_core2.beginCell)().storeBuffer(Buffer.from(proof.T3, "hex")).endCell()
    },
    { type: "int", value: proof.eval_a },
    { type: "int", value: proof.eval_b },
    { type: "int", value: proof.eval_c },
    { type: "int", value: proof.eval_s1 },
    { type: "int", value: proof.eval_s2 },
    { type: "int", value: proof.eval_zw },
    {
      type: "slice",
      cell: (0, import_core2.beginCell)().storeBuffer(Buffer.from(proof.Wxi, "hex")).endCell()
    },
    {
      type: "slice",
      cell: (0, import_core2.beginCell)().storeBuffer(Buffer.from(proof.Wxiw, "hex")).endCell()
    },
    publicInputItem(pub),
    {
      type: "slice",
      cell: hexToCell(proof.A_uc)
    },
    {
      type: "slice",
      cell: hexToCell(proof.B_uc)
    },
    {
      type: "slice",
      cell: hexToCell(proof.C_uc)
    },
    {
      type: "slice",
      cell: hexToCell(proof.Z_uc)
    },
    {
      type: "slice",
      cell: hexToCell(proof.T1_uc)
    },
    {
      type: "slice",
      cell: hexToCell(proof.T2_uc)
    },
    {
      type: "slice",
      cell: hexToCell(proof.T3_uc)
    },
    {
      type: "slice",
      cell: hexToCell(proof.Wxi_uc)
    },
    {
      type: "slice",
      cell: hexToCell(proof.Wxiw_uc)
    }
  ];
  return calldataToTupleItems(calldata);
}
function funcPublicInputs(vs) {
  const d = import_core2.Dictionary.empty(
    import_core2.Dictionary.Keys.Uint(32),
    import_core2.Dictionary.Values.BigUint(256)
  );
  for (let i = 0; i < vs.length; i++) {
    d.set(i, vs[i]);
  }
  const b = (0, import_core2.beginCell)();
  d.storeDirect(b);
  return {
    type: "cell",
    cell: b.endCell()
  };
}
function tolkPublicInputs(vs) {
  return {
    type: "tuple",
    items: vs.map((value) => ({ type: "int", value }))
  };
}
function ffC2blstC2(a, offset = 0) {
  if (a[offset] & 128) {
    a[offset] |= 32;
  }
  a[offset] |= 128;
}
function pointToBlstCHex2(curve, p) {
  const tmp = new Uint8Array(curve.F.n8);
  curve.toRprCompressed(tmp, 0, p);
  ffC2blstC2(tmp, 0);
  return Buffer.from(tmp).toString("hex");
}
function pointToUncompressedHex2(curve, p) {
  const tmp = new Uint8Array(curve.F.n8 * 2);
  curve.toRprUncompressed(tmp, 0, p);
  return Buffer.from(tmp).toString("hex");
}
function fromObjectProof(curve, proof) {
  const G1 = curve.G1;
  const Fr = curve.Fr;
  const res = {};
  const A = G1.fromObject(proof.A);
  const B = G1.fromObject(proof.B);
  const C = G1.fromObject(proof.C);
  const Z = G1.fromObject(proof.Z);
  const T1 = G1.fromObject(proof.T1);
  const T2 = G1.fromObject(proof.T2);
  const T3 = G1.fromObject(proof.T3);
  const Wxi = G1.fromObject(proof.Wxi);
  const Wxiw = G1.fromObject(proof.Wxiw);
  res.A = pointToBlstCHex2(curve.G1, A);
  res.B = pointToBlstCHex2(curve.G1, B);
  res.C = pointToBlstCHex2(curve.G1, C);
  res.Z = pointToBlstCHex2(curve.G1, Z);
  res.T1 = pointToBlstCHex2(curve.G1, T1);
  res.T2 = pointToBlstCHex2(curve.G1, T2);
  res.T3 = pointToBlstCHex2(curve.G1, T3);
  res.Wxi = pointToBlstCHex2(curve.G1, Wxi);
  res.Wxiw = pointToBlstCHex2(curve.G1, Wxiw);
  res.A_uc = pointToUncompressedHex2(curve.G1, A);
  res.B_uc = pointToUncompressedHex2(curve.G1, B);
  res.C_uc = pointToUncompressedHex2(curve.G1, C);
  res.Z_uc = pointToUncompressedHex2(curve.G1, Z);
  res.T1_uc = pointToUncompressedHex2(curve.G1, T1);
  res.T2_uc = pointToUncompressedHex2(curve.G1, T2);
  res.T3_uc = pointToUncompressedHex2(curve.G1, T3);
  res.Wxi_uc = pointToUncompressedHex2(curve.G1, Wxi);
  res.Wxiw_uc = pointToUncompressedHex2(curve.G1, Wxiw);
  res.eval_a = Fr.toObject(Fr.fromObject(proof.eval_a));
  res.eval_b = Fr.toObject(Fr.fromObject(proof.eval_b));
  res.eval_c = Fr.toObject(Fr.fromObject(proof.eval_c));
  res.eval_s1 = Fr.toObject(Fr.fromObject(proof.eval_s1));
  res.eval_s2 = Fr.toObject(Fr.fromObject(proof.eval_s2));
  res.eval_zw = Fr.toObject(Fr.fromObject(proof.eval_zw));
  return res;
}

// src/artifactInfo.js
var import_path3 = __toESM(require("path"), 1);
function check(name, run) {
  try {
    const message = run();
    return { name, ok: true, message };
  } catch (err) {
    return { name, ok: false, message: (err == null ? void 0 : err.message) || String(err) };
  }
}
function publicInputCount(vkRaw) {
  if (vkRaw.protocol === "groth16") {
    return Array.isArray(vkRaw.IC) ? vkRaw.IC.length - 1 : null;
  }
  if (vkRaw.protocol === "plonk") {
    return Number(vkRaw.nPublic);
  }
  return null;
}
async function inspectVerifierInput(inputPath, { lang = "tolk", templatesDir = defaultTemplatesDir() } = {}) {
  const verifierInput = await loadVerificationKey(inputPath);
  const vkRaw = verifierInput.verificationKey;
  const nPublic = publicInputCount(vkRaw);
  const checks = [];
  checks.push(
    check("curve", () => {
      assertTonBlsCurve(vkRaw.curve, "verification_key.curve");
      return "BLS12-381 is supported by TON BLS opcodes.";
    })
  );
  if (vkRaw.protocol === "plonk") {
    checks.push(
      check("plonk-public-inputs", () => {
        assertPlonkPublicInputCount(nPublic, "verification_key.nPublic");
        return "PLONK public input count fits TVM Keccak tuple limits.";
      })
    );
  }
  let template = null;
  checks.push(
    await (async () => {
      try {
        template = await resolveTemplatePath(templatesDir, lang, vkRaw.protocol);
        return {
          name: "template",
          ok: true,
          message: `Template found: ${import_path3.default.basename(template)}.`
        };
      } catch (err) {
        return {
          name: "template",
          ok: false,
          message: (err == null ? void 0 : err.message) || String(err)
        };
      }
    })()
  );
  const ok = checks.every((item) => item.ok);
  return {
    ok,
    inputPath,
    sourceFormat: verifierInput.sourceFormat,
    protocol: vkRaw.protocol,
    curve: vkRaw.curve,
    nPublic,
    language: lang,
    template,
    checks
  };
}
function formatDoctorReport(report) {
  const lines = [
    `Verifier doctor: ${report.ok ? "OK" : "BLOCKED"}`,
    `Input: ${report.inputPath}`,
    `Source format: ${report.sourceFormat}`,
    `Protocol: ${report.protocol}`,
    `Curve: ${report.curve}`,
    `Public inputs: ${report.nPublic}`,
    `Language: ${report.language}`,
    `Template: ${report.template ?? "not found"}`,
    "Checks:"
  ];
  for (const item of report.checks) {
    lines.push(`  [${item.ok ? "ok" : "blocked"}] ${item.name}: ${item.message}`);
  }
  return `${lines.join("\n")}
`;
}

// src/proofMessages.js
var import_core3 = require("@ton/core");
var GROTH16_VERIFY_OP = 993839639;
var PLONK_VERIFY_PROOF_OP = 1985103449;
var UINT256_ARRAY_CHUNK_SIZE = 3;
function normalizeProtocol(proof, protocol) {
  const detected = protocol ?? (proof == null ? void 0 : proof.protocol);
  if (detected !== "groth16" && detected !== "plonk") {
    throw new Error("proof protocol must be 'groth16' or 'plonk'.");
  }
  return detected;
}
function normalizeLang(lang = "tolk") {
  if (lang !== "tolk" && lang !== "func") {
    throw new Error("proof-to-message supports --tolk and --func.");
  }
  return lang;
}
function serializeTolkIntArray(list) {
  if (list.length > 255) {
    throw new Error("Tolk array<int> wrapper supports at most 255 items.");
  }
  let tail = null;
  for (let i = list.length; i > 0; i -= 3) {
    const chunk = list.slice(Math.max(0, i - 3), i);
    const cell = (0, import_core3.beginCell)();
    for (const value of chunk) {
      cell.storeInt(value, 257);
    }
    if (tail) {
      cell.storeRef(tail);
    }
    tail = cell.endCell();
  }
  const root = (0, import_core3.beginCell)().storeUint(list.length, 8);
  if (tail) {
    root.storeSlice(tail.beginParse());
  }
  return root.endCell();
}
function groth16FuncPublicInputs(list) {
  const dict = import_core3.Dictionary.empty(
    import_core3.Dictionary.Keys.BigUint(32),
    import_core3.Dictionary.Values.BigInt(256)
  );
  for (let i = 0; i < list.length; i += 1) {
    dict.set(BigInt(i), list[i]);
  }
  return dict;
}
async function groth16MessageCell(proof, publicSignals, lang) {
  const compressed = await groth16CompressProof(proof, publicSignals);
  const piA = (0, import_core3.beginCell)().storeBuffer(compressed.pi_a).endCell();
  const piB = (0, import_core3.beginCell)().storeBuffer(compressed.pi_b).endCell();
  const piC = (0, import_core3.beginCell)().storeBuffer(compressed.pi_c).endCell();
  const body = (0, import_core3.beginCell)().storeUint(GROTH16_VERIFY_OP, 32).storeRef(piA).storeRef(piB).storeRef(piC);
  if (lang === "tolk") {
    body.storeSlice(serializeTolkIntArray(compressed.pubInputs).beginParse());
  } else {
    body.storeDict(groth16FuncPublicInputs(compressed.pubInputs));
  }
  re