tornado-core/dist/merkleTreeWorker.js

'use strict';

var workerThreads = require('worker_threads');
var ffjavascript = require('ffjavascript');

var commonjsGlobal = typeof globalThis !== 'undefined' ? globalThis : typeof window !== 'undefined' ? window : typeof global !== 'undefined' ? global : typeof self !== 'undefined' ? self : {};

function getDefaultExportFromCjs (x) {
	return x && x.__esModule && Object.prototype.hasOwnProperty.call(x, 'default') ? x['default'] : x;
}

var lib = {};

var FixedMerkleTree = {};

var simpleHash$1 = {};

Object.defineProperty(simpleHash$1, "__esModule", { value: true });
simpleHash$1.simpleHash = void 0;
/***
 * This is insecure hash function, just for example only
 * @param data
 * @param seed
 * @param hashLength
 */
function simpleHash(data, seed, hashLength = 40) {
    const str = data.join('');
    let i, l, hval = seed !== null && seed !== void 0 ? seed : 0x811c9dcc5;
    for (i = 0, l = str.length; i < l; i++) {
        hval ^= str.charCodeAt(i);
        hval += (hval << 1) + (hval << 4) + (hval << 6) + (hval << 8) + (hval << 24);
    }
    const hash = (hval >>> 0).toString(16);
    return BigInt('0x' + hash.padEnd(hashLength - (hash.length - 1), '0')).toString(10);
}
simpleHash$1.simpleHash = simpleHash;
simpleHash$1.default = (left, right) => simpleHash([left, right]);

var BaseTree$1 = {};

Object.defineProperty(BaseTree$1, "__esModule", { value: true });
BaseTree$1.BaseTree = void 0;
class BaseTree {
    get capacity() {
        return 2 ** this.levels;
    }
    get layers() {
        return this._layers.slice();
    }
    get zeros() {
        return this._zeros.slice();
    }
    get elements() {
        return this._layers[0].slice();
    }
    get root() {
        var _a;
        return (_a = this._layers[this.levels][0]) !== null && _a !== void 0 ? _a : this._zeros[this.levels];
    }
    /**
     * Find an element in the tree
     * @param elements elements of tree
     * @param element An element to find
     * @param comparator A function that checks leaf value equality
     * @param fromIndex The index to start the search at. If the index is greater than or equal to the array's length, -1 is returned
     * @returns {number} Index if element is found, otherwise -1
     */
    static indexOf(elements, element, fromIndex, comparator) {
        if (comparator) {
            return elements.findIndex((el) => comparator(element, el));
        }
        else {
            return elements.indexOf(element, fromIndex);
        }
    }
    /**
     * Insert new element into the tree
     * @param element Element to insert
     */
    insert(element) {
        if (this._layers[0].length >= this.capacity) {
            throw new Error('Tree is full');
        }
        this.update(this._layers[0].length, element);
    }
    /*
     * Insert multiple elements into the tree.
     * @param {Array} elements Elements to insert
     */
    bulkInsert(elements) {
        if (!elements.length) {
            return;
        }
        if (this._layers[0].length + elements.length > this.capacity) {
            throw new Error('Tree is full');
        }
        // First we insert all elements except the last one
        // updating only full subtree hashes (all layers where inserted element has odd index)
        // the last element will update the full path to the root making the tree consistent again
        for (let i = 0; i < elements.length - 1; i++) {
            this._layers[0].push(elements[i]);
            let level = 0;
            let index = this._layers[0].length - 1;
            while (index % 2 === 1) {
                level++;
                index >>= 1;
                const left = this._layers[level - 1][index * 2];
                const right = this._layers[level - 1][index * 2 + 1];
                this._layers[level][index] = this._hashFn(left, right);
            }
        }
        this.insert(elements[elements.length - 1]);
    }
    /**
     * Change an element in the tree
     * @param {number} index Index of element to change
     * @param element Updated element value
     */
    update(index, element) {
        if (isNaN(Number(index)) || index < 0 || index > this._layers[0].length || index >= this.capacity) {
            throw new Error('Insert index out of bounds: ' + index);
        }
        this._layers[0][index] = element;
        this._processUpdate(index);
    }
    /**
     * Get merkle path to a leaf
     * @param {number} index Leaf index to generate path for
     * @returns {{pathElements: Object[], pathIndex: number[]}} An object containing adjacent elements and left-right index
     */
    path(index) {
        if (isNaN(Number(index)) || index < 0 || index >= this._layers[0].length) {
            throw new Error('Index out of bounds: ' + index);
        }
        let elIndex = +index;
        const pathElements = [];
        const pathIndices = [];
        const pathPositions = [];
        for (let level = 0; level < this.levels; level++) {
            pathIndices[level] = elIndex % 2;
            const leafIndex = elIndex ^ 1;
            if (leafIndex < this._layers[level].length) {
                pathElements[level] = this._layers[level][leafIndex];
                pathPositions[level] = leafIndex;
            }
            else {
                pathElements[level] = this._zeros[level];
                pathPositions[level] = 0;
            }
            elIndex >>= 1;
        }
        return {
            pathElements,
            pathIndices,
            pathPositions,
            pathRoot: this.root,
        };
    }
    _buildZeros() {
        this._zeros = [this.zeroElement];
        for (let i = 1; i <= this.levels; i++) {
            this._zeros[i] = this._hashFn(this._zeros[i - 1], this._zeros[i - 1]);
        }
    }
    _processNodes(nodes, layerIndex) {
        const length = nodes.length;
        let currentLength = Math.ceil(length / 2);
        const currentLayer = new Array(currentLength);
        currentLength--;
        const starFrom = length - ((length % 2) ^ 1);
        let j = 0;
        for (let i = starFrom; i >= 0; i -= 2) {
            if (nodes[i - 1] === undefined)
                break;
            const left = nodes[i - 1];
            const right = (i === starFrom && length % 2 === 1) ? this._zeros[layerIndex - 1] : nodes[i];
            currentLayer[currentLength - j] = this._hashFn(left, right);
            j++;
        }
        return currentLayer;
    }
    _processUpdate(index) {
        for (let level = 1; level <= this.levels; level++) {
            index >>= 1;
            const left = this._layers[level - 1][index * 2];
            const right = index * 2 + 1 < this._layers[level - 1].length
                ? this._layers[level - 1][index * 2 + 1]
                : this._zeros[level - 1];
            this._layers[level][index] = this._hashFn(left, right);
        }
    }
}
BaseTree$1.BaseTree = BaseTree;

var __importDefault$1 = (commonjsGlobal && commonjsGlobal.__importDefault) || function (mod) {
    return (mod && mod.__esModule) ? mod : { "default": mod };
};
Object.defineProperty(FixedMerkleTree, "__esModule", { value: true });
const simpleHash_1$1 = __importDefault$1(simpleHash$1);
const BaseTree_1$1 = BaseTree$1;
class MerkleTree extends BaseTree_1$1.BaseTree {
    constructor(levels, elements = [], { hashFunction = simpleHash_1$1.default, zeroElement = 0, } = {}) {
        super();
        this.levels = levels;
        if (elements.length > this.capacity) {
            throw new Error('Tree is full');
        }
        this._hashFn = hashFunction;
        this.zeroElement = zeroElement;
        this._layers = [];
        const leaves = elements.slice();
        this._layers = [leaves];
        this._buildZeros();
        this._buildHashes();
    }
    _buildHashes() {
        for (let layerIndex = 1; layerIndex <= this.levels; layerIndex++) {
            const nodes = this._layers[layerIndex - 1];
            this._layers[layerIndex] = this._processNodes(nodes, layerIndex);
        }
    }
    /**
     * Insert multiple elements into the tree.
     * @param {Array} elements Elements to insert
     */
    bulkInsert(elements) {
        if (!elements.length) {
            return;
        }
        if (this._layers[0].length + elements.length > this.capacity) {
            throw new Error('Tree is full');
        }
        // First we insert all elements except the last one
        // updating only full subtree hashes (all layers where inserted element has odd index)
        // the last element will update the full path to the root making the tree consistent again
        for (let i = 0; i < elements.length - 1; i++) {
            this._layers[0].push(elements[i]);
            let level = 0;
            let index = this._layers[0].length - 1;
            while (index % 2 === 1) {
                level++;
                index >>= 1;
                this._layers[level][index] = this._hashFn(this._layers[level - 1][index * 2], this._layers[level - 1][index * 2 + 1]);
            }
        }
        this.insert(elements[elements.length - 1]);
    }
    indexOf(element, comparator) {
        return BaseTree_1$1.BaseTree.indexOf(this._layers[0], element, 0, comparator);
    }
    proof(element) {
        const index = this.indexOf(element);
        return this.path(index);
    }
    getTreeEdge(edgeIndex) {
        const edgeElement = this._layers[0][edgeIndex];
        if (edgeElement === undefined) {
            throw new Error('Element not found');
        }
        const edgePath = this.path(edgeIndex);
        return { edgePath, edgeElement, edgeIndex, edgeElementsCount: this._layers[0].length };
    }
    /**
     * 🪓
     * @param count
     */
    getTreeSlices(count = 4) {
        const length = this._layers[0].length;
        let size = Math.ceil(length / count);
        if (size % 2)
            size++;
        const slices = [];
        for (let i = 0; i < length; i += size) {
            const edgeLeft = i;
            const edgeRight = i + size;
            slices.push({ edge: this.getTreeEdge(edgeLeft), elements: this.elements.slice(edgeLeft, edgeRight) });
        }
        return slices;
    }
    /**
     * Serialize entire tree state including intermediate layers into a plain object
     * Deserializing it back will not require to recompute any hashes
     * Elements are not converted to a plain type, this is responsibility of the caller
     */
    serialize() {
        return {
            levels: this.levels,
            _zeros: this._zeros,
            _layers: this._layers,
        };
    }
    /**
     * Deserialize data into a MerkleTree instance
     * Make sure to provide the same hashFunction as was used in the source tree,
     * otherwise the tree state will be invalid
     */
    static deserialize(data, hashFunction) {
        const instance = Object.assign(Object.create(this.prototype), data);
        instance._hashFn = hashFunction || simpleHash_1$1.default;
        instance.zeroElement = instance._zeros[0];
        return instance;
    }
    toString() {
        return JSON.stringify(this.serialize());
    }
}
FixedMerkleTree.default = MerkleTree;

var PartialMerkleTree$1 = {};

var __importDefault = (commonjsGlobal && commonjsGlobal.__importDefault) || function (mod) {
    return (mod && mod.__esModule) ? mod : { "default": mod };
};
Object.defineProperty(PartialMerkleTree$1, "__esModule", { value: true });
PartialMerkleTree$1.PartialMerkleTree = void 0;
const simpleHash_1 = __importDefault(simpleHash$1);
const BaseTree_1 = BaseTree$1;
class PartialMerkleTree extends BaseTree_1.BaseTree {
    constructor(levels, { edgePath, edgeElement, edgeIndex, edgeElementsCount, }, leaves, { hashFunction, zeroElement } = {}) {
        super();
        if (edgeIndex + leaves.length !== edgeElementsCount)
            throw new Error('Invalid number of elements');
        this._edgeLeafProof = edgePath;
        this._initialRoot = edgePath.pathRoot;
        this.zeroElement = zeroElement !== null && zeroElement !== void 0 ? zeroElement : 0;
        this._edgeLeaf = { data: edgeElement, index: edgeIndex };
        this._leavesAfterEdge = leaves;
        this.levels = levels;
        this._hashFn = hashFunction || simpleHash_1.default;
        this._createProofMap();
        this._buildTree();
    }
    get edgeIndex() {
        return this._edgeLeaf.index;
    }
    get edgeElement() {
        return this._edgeLeaf.data;
    }
    get edgeLeafProof() {
        return this._edgeLeafProof;
    }
    _createProofMap() {
        this._proofMap = this.edgeLeafProof.pathPositions.reduce((p, c, i) => {
            p.set(i, [c, this.edgeLeafProof.pathElements[i]]);
            return p;
        }, new Map());
        this._proofMap.set(this.levels, [0, this.edgeLeafProof.pathRoot]);
    }
    _buildTree() {
        const edgeLeafIndex = this._edgeLeaf.index;
        this._leaves = Array(edgeLeafIndex).concat(this._leavesAfterEdge);
        if (this._proofMap.has(0)) {
            const [proofPos, proofEl] = this._proofMap.get(0);
            this._leaves[proofPos] = proofEl;
        }
        this._layers = [this._leaves];
        this._buildZeros();
        this._buildHashes();
    }
    _buildHashes() {
        for (let layerIndex = 1; layerIndex <= this.levels; layerIndex++) {
            const nodes = this._layers[layerIndex - 1];
            const currentLayer = this._processNodes(nodes, layerIndex);
            if (this._proofMap.has(layerIndex)) {
                const [proofPos, proofEl] = this._proofMap.get(layerIndex);
                if (!currentLayer[proofPos])
                    currentLayer[proofPos] = proofEl;
            }
            this._layers[layerIndex] = currentLayer;
        }
    }
    /**
     * Change an element in the tree
     * @param {number} index Index of element to change
     * @param element Updated element value
     */
    update(index, element) {
        if (isNaN(Number(index)) || index < 0 || index > this._layers[0].length || index >= this.capacity) {
            throw new Error('Insert index out of bounds: ' + index);
        }
        if (index < this._edgeLeaf.index) {
            throw new Error(`Index ${index} is below the edge: ${this._edgeLeaf.index}`);
        }
        this._layers[0][index] = element;
        this._processUpdate(index);
    }
    path(index) {
        var _a;
        if (isNaN(Number(index)) || index < 0 || index >= this._layers[0].length) {
            throw new Error('Index out of bounds: ' + index);
        }
        if (index < this._edgeLeaf.index) {
            throw new Error(`Index ${index} is below the edge: ${this._edgeLeaf.index}`);
        }
        let elIndex = Number(index);
        const pathElements = [];
        const pathIndices = [];
        const pathPositions = [];
        for (let level = 0; level < this.levels; level++) {
            pathIndices[level] = elIndex % 2;
            const leafIndex = elIndex ^ 1;
            if (leafIndex < this._layers[level].length) {
                pathElements[level] = this._layers[level][leafIndex];
                pathPositions[level] = leafIndex;
            }
            else {
                pathElements[level] = this._zeros[level];
                pathPositions[level] = 0;
            }
            const [proofPos, proofEl] = this._proofMap.get(level);
            pathElements[level] = (_a = pathElements[level]) !== null && _a !== void 0 ? _a : (proofPos === leafIndex ? proofEl : this._zeros[level]);
            elIndex >>= 1;
        }
        return {
            pathElements,
            pathIndices,
            pathPositions,
            pathRoot: this.root,
        };
    }
    indexOf(element, comparator) {
        return BaseTree_1.BaseTree.indexOf(this._layers[0], element, this.edgeIndex, comparator);
    }
    proof(element) {
        const index = this.indexOf(element);
        return this.path(index);
    }
    /**
     * Shifts edge of tree to left
     * @param edge new TreeEdge below current edge
     * @param elements leaves between old and new edge
     */
    shiftEdge(edge, elements) {
        if (this._edgeLeaf.index <= edge.edgeIndex) {
            throw new Error(`New edgeIndex should be smaller then ${this._edgeLeaf.index}`);
        }
        if (elements.length !== (this._edgeLeaf.index - edge.edgeIndex)) {
            throw new Error(`Elements length should be ${this._edgeLeaf.index - edge.edgeIndex}`);
        }
        this._edgeLeafProof = edge.edgePath;
        this._edgeLeaf = { index: edge.edgeIndex, data: edge.edgeElement };
        this._leavesAfterEdge = [...elements, ...this._leavesAfterEdge];
        this._createProofMap();
        this._buildTree();
    }
    serialize() {
        return {
            _edgeLeafProof: this._edgeLeafProof,
            _edgeLeaf: this._edgeLeaf,
            _layers: this._layers,
            _zeros: this._zeros,
            levels: this.levels,
        };
    }
    static deserialize(data, hashFunction) {
        const instance = Object.assign(Object.create(this.prototype), data);
        instance._hashFn = hashFunction || simpleHash_1.default;
        instance._initialRoot = data._edgeLeafProof.pathRoot;
        instance.zeroElement = instance._zeros[0];
        instance._leavesAfterEdge = instance._layers[0].slice(data._edgeLeaf.index);
        instance._createProofMap();
        return instance;
    }
    toString() {
        return JSON.stringify(this.serialize());
    }
}
PartialMerkleTree$1.PartialMerkleTree = PartialMerkleTree;

(function (exports) {
	var __importDefault = (commonjsGlobal && commonjsGlobal.__importDefault) || function (mod) {
	    return (mod && mod.__esModule) ? mod : { "default": mod };
	};
	Object.defineProperty(exports, "__esModule", { value: true });
	exports.MerkleTree = exports.simpleHash = exports.PartialMerkleTree = void 0;
	const FixedMerkleTree_1 = __importDefault(FixedMerkleTree);
	Object.defineProperty(exports, "MerkleTree", { enumerable: true, get: function () { return FixedMerkleTree_1.default; } });
	var PartialMerkleTree_1 = PartialMerkleTree$1;
	Object.defineProperty(exports, "PartialMerkleTree", { enumerable: true, get: function () { return PartialMerkleTree_1.PartialMerkleTree; } });
	var simpleHash_1 = simpleHash$1;
	Object.defineProperty(exports, "simpleHash", { enumerable: true, get: function () { return simpleHash_1.simpleHash; } });
	exports.default = FixedMerkleTree_1.default; 
} (lib));

const version$2 = "logger/5.7.0";

let _permanentCensorErrors = false;
let _censorErrors = false;
const LogLevels = { debug: 1, "default": 2, info: 2, warning: 3, error: 4, off: 5 };
let _logLevel = LogLevels["default"];
let _globalLogger = null;
function _checkNormalize() {
    try {
        const missing = [];
        // Make sure all forms of normalization are supported
        ["NFD", "NFC", "NFKD", "NFKC"].forEach((form) => {
            try {
                if ("test".normalize(form) !== "test") {
                    throw new Error("bad normalize");
                }
            }
            catch (error) {
                missing.push(form);
            }
        });
        if (missing.length) {
            throw new Error("missing " + missing.join(", "));
        }
        if (String.fromCharCode(0xe9).normalize("NFD") !== String.fromCharCode(0x65, 0x0301)) {
            throw new Error("broken implementation");
        }
    }
    catch (error) {
        return error.message;
    }
    return null;
}
const _normalizeError = _checkNormalize();
var LogLevel;
(function (LogLevel) {
    LogLevel["DEBUG"] = "DEBUG";
    LogLevel["INFO"] = "INFO";
    LogLevel["WARNING"] = "WARNING";
    LogLevel["ERROR"] = "ERROR";
    LogLevel["OFF"] = "OFF";
})(LogLevel || (LogLevel = {}));
var ErrorCode;
(function (ErrorCode) {
    ///////////////////
    // Generic Errors
    // Unknown Error
    ErrorCode["UNKNOWN_ERROR"] = "UNKNOWN_ERROR";
    // Not Implemented
    ErrorCode["NOT_IMPLEMENTED"] = "NOT_IMPLEMENTED";
    // Unsupported Operation
    //   - operation
    ErrorCode["UNSUPPORTED_OPERATION"] = "UNSUPPORTED_OPERATION";
    // Network Error (i.e. Ethereum Network, such as an invalid chain ID)
    //   - event ("noNetwork" is not re-thrown in provider.ready; otherwise thrown)
    ErrorCode["NETWORK_ERROR"] = "NETWORK_ERROR";
    // Some sort of bad response from the server
    ErrorCode["SERVER_ERROR"] = "SERVER_ERROR";
    // Timeout
    ErrorCode["TIMEOUT"] = "TIMEOUT";
    ///////////////////
    // Operational  Errors
    // Buffer Overrun
    ErrorCode["BUFFER_OVERRUN"] = "BUFFER_OVERRUN";
    // Numeric Fault
    //   - operation: the operation being executed
    //   - fault: the reason this faulted
    ErrorCode["NUMERIC_FAULT"] = "NUMERIC_FAULT";
    ///////////////////
    // Argument Errors
    // Missing new operator to an object
    //  - name: The name of the class
    ErrorCode["MISSING_NEW"] = "MISSING_NEW";
    // Invalid argument (e.g. value is incompatible with type) to a function:
    //   - argument: The argument name that was invalid
    //   - value: The value of the argument
    ErrorCode["INVALID_ARGUMENT"] = "INVALID_ARGUMENT";
    // Missing argument to a function:
    //   - count: The number of arguments received
    //   - expectedCount: The number of arguments expected
    ErrorCode["MISSING_ARGUMENT"] = "MISSING_ARGUMENT";
    // Too many arguments
    //   - count: The number of arguments received
    //   - expectedCount: The number of arguments expected
    ErrorCode["UNEXPECTED_ARGUMENT"] = "UNEXPECTED_ARGUMENT";
    ///////////////////
    // Blockchain Errors
    // Call exception
    //  - transaction: the transaction
    //  - address?: the contract address
    //  - args?: The arguments passed into the function
    //  - method?: The Solidity method signature
    //  - errorSignature?: The EIP848 error signature
    //  - errorArgs?: The EIP848 error parameters
    //  - reason: The reason (only for EIP848 "Error(string)")
    ErrorCode["CALL_EXCEPTION"] = "CALL_EXCEPTION";
    // Insufficient funds (< value + gasLimit * gasPrice)
    //   - transaction: the transaction attempted
    ErrorCode["INSUFFICIENT_FUNDS"] = "INSUFFICIENT_FUNDS";
    // Nonce has already been used
    //   - transaction: the transaction attempted
    ErrorCode["NONCE_EXPIRED"] = "NONCE_EXPIRED";
    // The replacement fee for the transaction is too low
    //   - transaction: the transaction attempted
    ErrorCode["REPLACEMENT_UNDERPRICED"] = "REPLACEMENT_UNDERPRICED";
    // The gas limit could not be estimated
    //   - transaction: the transaction passed to estimateGas
    ErrorCode["UNPREDICTABLE_GAS_LIMIT"] = "UNPREDICTABLE_GAS_LIMIT";
    // The transaction was replaced by one with a higher gas price
    //   - reason: "cancelled", "replaced" or "repriced"
    //   - cancelled: true if reason == "cancelled" or reason == "replaced")
    //   - hash: original transaction hash
    //   - replacement: the full TransactionsResponse for the replacement
    //   - receipt: the receipt of the replacement
    ErrorCode["TRANSACTION_REPLACED"] = "TRANSACTION_REPLACED";
    ///////////////////
    // Interaction Errors
    // The user rejected the action, such as signing a message or sending
    // a transaction
    ErrorCode["ACTION_REJECTED"] = "ACTION_REJECTED";
})(ErrorCode || (ErrorCode = {}));
const HEX = "0123456789abcdef";
class Logger {
    constructor(version) {
        Object.defineProperty(this, "version", {
            enumerable: true,
            value: version,
            writable: false
        });
    }
    _log(logLevel, args) {
        const level = logLevel.toLowerCase();
        if (LogLevels[level] == null) {
            this.throwArgumentError("invalid log level name", "logLevel", logLevel);
        }
        if (_logLevel > LogLevels[level]) {
            return;
        }
        console.log.apply(console, args);
    }
    debug(...args) {
        this._log(Logger.levels.DEBUG, args);
    }
    info(...args) {
        this._log(Logger.levels.INFO, args);
    }
    warn(...args) {
        this._log(Logger.levels.WARNING, args);
    }
    makeError(message, code, params) {
        // Errors are being censored
        if (_censorErrors) {
            return this.makeError("censored error", code, {});
        }
        if (!code) {
            code = Logger.errors.UNKNOWN_ERROR;
        }
        if (!params) {
            params = {};
        }
        const messageDetails = [];
        Object.keys(params).forEach((key) => {
            const value = params[key];
            try {
                if (value instanceof Uint8Array) {
                    let hex = "";
                    for (let i = 0; i < value.length; i++) {
                        hex += HEX[value[i] >> 4];
                        hex += HEX[value[i] & 0x0f];
                    }
                    messageDetails.push(key + "=Uint8Array(0x" + hex + ")");
                }
                else {
                    messageDetails.push(key + "=" + JSON.stringify(value));
                }
            }
            catch (error) {
                messageDetails.push(key + "=" + JSON.stringify(params[key].toString()));
            }
        });
        messageDetails.push(`code=${code}`);
        messageDetails.push(`version=${this.version}`);
        const reason = message;
        let url = "";
        switch (code) {
            case ErrorCode.NUMERIC_FAULT: {
                url = "NUMERIC_FAULT";
                const fault = message;
                switch (fault) {
                    case "overflow":
                    case "underflow":
                    case "division-by-zero":
                        url += "-" + fault;
                        break;
                    case "negative-power":
                    case "negative-width":
                        url += "-unsupported";
                        break;
                    case "unbound-bitwise-result":
                        url += "-unbound-result";
                        break;
                }
                break;
            }
            case ErrorCode.CALL_EXCEPTION:
            case ErrorCode.INSUFFICIENT_FUNDS:
            case ErrorCode.MISSING_NEW:
            case ErrorCode.NONCE_EXPIRED:
            case ErrorCode.REPLACEMENT_UNDERPRICED:
            case ErrorCode.TRANSACTION_REPLACED:
            case ErrorCode.UNPREDICTABLE_GAS_LIMIT:
                url = code;
                break;
        }
        if (url) {
            message += " [ See: https:/\/links.ethers.org/v5-errors-" + url + " ]";
        }
        if (messageDetails.length) {
            message += " (" + messageDetails.join(", ") + ")";
        }
        // @TODO: Any??
        const error = new Error(message);
        error.reason = reason;
        error.code = code;
        Object.keys(params).forEach(function (key) {
            error[key] = params[key];
        });
        return error;
    }
    throwError(message, code, params) {
        throw this.makeError(message, code, params);
    }
    throwArgumentError(message, name, value) {
        return this.throwError(message, Logger.errors.INVALID_ARGUMENT, {
            argument: name,
            value: value
        });
    }
    assert(condition, message, code, params) {
        if (!!condition) {
            return;
        }
        this.throwError(message, code, params);
    }
    assertArgument(condition, message, name, value) {
        if (!!condition) {
            return;
        }
        this.throwArgumentError(message, name, value);
    }
    checkNormalize(message) {
        if (_normalizeError) {
            this.throwError("platform missing String.prototype.normalize", Logger.errors.UNSUPPORTED_OPERATION, {
                operation: "String.prototype.normalize", form: _normalizeError
            });
        }
    }
    checkSafeUint53(value, message) {
        if (typeof (value) !== "number") {
            return;
        }
        if (message == null) {
            message = "value not safe";
        }
        if (value < 0 || value >= 0x1fffffffffffff) {
            this.throwError(message, Logger.errors.NUMERIC_FAULT, {
                operation: "checkSafeInteger",
                fault: "out-of-safe-range",
                value: value
            });
        }
        if (value % 1) {
            this.throwError(message, Logger.errors.NUMERIC_FAULT, {
                operation: "checkSafeInteger",
                fault: "non-integer",
                value: value
            });
        }
    }
    checkArgumentCount(count, expectedCount, message) {
        if (message) {
            message = ": " + message;
        }
        else {
            message = "";
        }
        if (count < expectedCount) {
            this.throwError("missing argument" + message, Logger.errors.MISSING_ARGUMENT, {
                count: count,
                expectedCount: expectedCount
            });
        }
        if (count > expectedCount) {
            this.throwError("too many arguments" + message, Logger.errors.UNEXPECTED_ARGUMENT, {
                count: count,
                expectedCount: expectedCount
            });
        }
    }
    checkNew(target, kind) {
        if (target === Object || target == null) {
            this.throwError("missing new", Logger.errors.MISSING_NEW, { name: kind.name });
        }
    }
    checkAbstract(target, kind) {
        if (target === kind) {
            this.throwError("cannot instantiate abstract class " + JSON.stringify(kind.name) + " directly; use a sub-class", Logger.errors.UNSUPPORTED_OPERATION, { name: target.name, operation: "new" });
        }
        else if (target === Object || target == null) {
            this.throwError("missing new", Logger.errors.MISSING_NEW, { name: kind.name });
        }
    }
    static globalLogger() {
        if (!_globalLogger) {
            _globalLogger = new Logger(version$2);
        }
        return _globalLogger;
    }
    static setCensorship(censorship, permanent) {
        if (!censorship && permanent) {
            this.globalLogger().throwError("cannot permanently disable censorship", Logger.errors.UNSUPPORTED_OPERATION, {
                operation: "setCensorship"
            });
        }
        if (_permanentCensorErrors) {
            if (!censorship) {
                return;
            }
            this.globalLogger().throwError("error censorship permanent", Logger.errors.UNSUPPORTED_OPERATION, {
                operation: "setCensorship"
            });
        }
        _censorErrors = !!censorship;
        _permanentCensorErrors = !!permanent;
    }
    static setLogLevel(logLevel) {
        const level = LogLevels[logLevel.toLowerCase()];
        if (level == null) {
            Logger.globalLogger().warn("invalid log level - " + logLevel);
            return;
        }
        _logLevel = level;
    }
    static from(version) {
        return new Logger(version);
    }
}
Logger.errors = ErrorCode;
Logger.levels = LogLevel;

const version$1 = "bytes/5.7.0";

const logger$1 = new Logger(version$1);
///////////////////////////////
function isHexable(value) {
    return !!(value.toHexString);
}
function addSlice(array) {
    if (array.slice) {
        return array;
    }
    array.slice = function () {
        const args = Array.prototype.slice.call(arguments);
        return addSlice(new Uint8Array(Array.prototype.slice.apply(array, args)));
    };
    return array;
}
function isInteger(value) {
    return (typeof (value) === "number" && value == value && (value % 1) === 0);
}
function isBytes(value) {
    if (value == null) {
        return false;
    }
    if (value.constructor === Uint8Array) {
        return true;
    }
    if (typeof (value) === "string") {
        return false;
    }
    if (!isInteger(value.length) || value.length < 0) {
        return false;
    }
    for (let i = 0; i < value.length; i++) {
        const v = value[i];
        if (!isInteger(v) || v < 0 || v >= 256) {
            return false;
        }
    }
    return true;
}
function arrayify(value, options) {
    if (!options) {
        options = {};
    }
    if (typeof (value) === "number") {
        logger$1.checkSafeUint53(value, "invalid arrayify value");
        const result = [];
        while (value) {
            result.unshift(value & 0xff);
            value = parseInt(String(value / 256));
        }
        if (result.length === 0) {
            result.push(0);
        }
        return addSlice(new Uint8Array(result));
    }
    if (options.allowMissingPrefix && typeof (value) === "string" && value.substring(0, 2) !== "0x") {
        value = "0x" + value;
    }
    if (isHexable(value)) {
        value = value.toHexString();
    }
    if (isHexString(value)) {
        let hex = value.substring(2);
        if (hex.length % 2) {
            if (options.hexPad === "left") {
                hex = "0" + hex;
            }
            else if (options.hexPad === "right") {
                hex += "0";
            }
            else {
                logger$1.throwArgumentError("hex data is odd-length", "value", value);
            }
        }
        const result = [];
        for (let i = 0; i < hex.length; i += 2) {
            result.push(parseInt(hex.substring(i, i + 2), 16));
        }
        return addSlice(new Uint8Array(result));
    }
    if (isBytes(value)) {
        return addSlice(new Uint8Array(value));
    }
    return logger$1.throwArgumentError("invalid arrayify value", "value", value);
}
function isHexString(value, length) {
    if (typeof (value) !== "string" || !value.match(/^0x[0-9A-Fa-f]*$/)) {
        return false;
    }
    return true;
}

var sha3$1 = {exports: {}};

/**
 * [js-sha3]{@link https://github.com/emn178/js-sha3}
 *
 * @version 0.8.0
 * @author Chen, Yi-Cyuan [emn178@gmail.com]
 * @copyright Chen, Yi-Cyuan 2015-2018
 * @license MIT
 */

(function (module) {
	/*jslint bitwise: true */
	(function () {

	  var INPUT_ERROR = 'input is invalid type';
	  var FINALIZE_ERROR = 'finalize already called';
	  var WINDOW = typeof window === 'object';
	  var root = WINDOW ? window : {};
	  if (root.JS_SHA3_NO_WINDOW) {
	    WINDOW = false;
	  }
	  var WEB_WORKER = !WINDOW && typeof self === 'object';
	  var NODE_JS = !root.JS_SHA3_NO_NODE_JS && typeof process === 'object' && process.versions && process.versions.node;
	  if (NODE_JS) {
	    root = commonjsGlobal;
	  } else if (WEB_WORKER) {
	    root = self;
	  }
	  var COMMON_JS = !root.JS_SHA3_NO_COMMON_JS && 'object' === 'object' && module.exports;
	  var ARRAY_BUFFER = !root.JS_SHA3_NO_ARRAY_BUFFER && typeof ArrayBuffer !== 'undefined';
	  var HEX_CHARS = '0123456789abcdef'.split('');
	  var SHAKE_PADDING = [31, 7936, 2031616, 520093696];
	  var CSHAKE_PADDING = [4, 1024, 262144, 67108864];
	  var KECCAK_PADDING = [1, 256, 65536, 16777216];
	  var PADDING = [6, 1536, 393216, 100663296];
	  var SHIFT = [0, 8, 16, 24];
	  var RC = [1, 0, 32898, 0, 32906, 2147483648, 2147516416, 2147483648, 32907, 0, 2147483649,
	    0, 2147516545, 2147483648, 32777, 2147483648, 138, 0, 136, 0, 2147516425, 0,
	    2147483658, 0, 2147516555, 0, 139, 2147483648, 32905, 2147483648, 32771,
	    2147483648, 32770, 2147483648, 128, 2147483648, 32778, 0, 2147483658, 2147483648,
	    2147516545, 2147483648, 32896, 2147483648, 2147483649, 0, 2147516424, 2147483648];
	  var BITS = [224, 256, 384, 512];
	  var SHAKE_BITS = [128, 256];
	  var OUTPUT_TYPES = ['hex', 'buffer', 'arrayBuffer', 'array', 'digest'];
	  var CSHAKE_BYTEPAD = {
	    '128': 168,
	    '256': 136
	  };

	  if (root.JS_SHA3_NO_NODE_JS || !Array.isArray) {
	    Array.isArray = function (obj) {
	      return Object.prototype.toString.call(obj) === '[object Array]';
	    };
	  }

	  if (ARRAY_BUFFER && (root.JS_SHA3_NO_ARRAY_BUFFER_IS_VIEW || !ArrayBuffer.isView)) {
	    ArrayBuffer.isView = function (obj) {
	      return typeof obj === 'object' && obj.buffer && obj.buffer.constructor === ArrayBuffer;
	    };
	  }

	  var createOutputMethod = function (bits, padding, outputType) {
	    return function (message) {
	      return new Keccak(bits, padding, bits).update(message)[outputType]();
	    };
	  };

	  var createShakeOutputMethod = function (bits, padding, outputType) {
	    return function (message, outputBits) {
	      return new Keccak(bits, padding, outputBits).update(message)[outputType]();
	    };
	  };

	  var createCshakeOutputMethod = function (bits, padding, outputType) {
	    return function (message, outputBits, n, s) {
	      return methods['cshake' + bits].update(message, outputBits, n, s)[outputType]();
	    };
	  };

	  var createKmacOutputMethod = function (bits, padding, outputType) {
	    return function (key, message, outputBits, s) {
	      return methods['kmac' + bits].update(key, message, outputBits, s)[outputType]();
	    };
	  };

	  var createOutputMethods = function (method, createMethod, bits, padding) {
	    for (var i = 0; i < OUTPUT_TYPES.length; ++i) {
	      var type = OUTPUT_TYPES[i];
	      method[type] = createMethod(bits, padding, type);
	    }
	    return method;
	  };

	  var createMethod = function (bits, padding) {
	    var method = createOutputMethod(bits, padding, 'hex');
	    method.create = function () {
	      return new Keccak(bits, padding, bits);
	    };
	    method.update = function (message) {
	      return method.create().update(message);
	    };
	    return createOutputMethods(method, createOutputMethod, bits, padding);
	  };

	  var createShakeMethod = function (bits, padding) {
	    var method = createShakeOutputMethod(bits, padding, 'hex');
	    method.create = function (outputBits) {
	      return new Keccak(bits, padding, outputBits);
	    };
	    method.update = function (message, outputBits) {
	      return method.create(outputBits).update(message);
	    };
	    return createOutputMethods(method, createShakeOutputMethod, bits, padding);
	  };

	  var createCshakeMethod = function (bits, padding) {
	    var w = CSHAKE_BYTEPAD[bits];
	    var method = createCshakeOutputMethod(bits, padding, 'hex');
	    method.create = function (outputBits, n, s) {
	      if (!n && !s) {
	        return methods['shake' + bits].create(outputBits);
	      } else {
	        return new Keccak(bits, padding, outputBits).bytepad([n, s], w);
	      }
	    };
	    method.update = function (message, outputBits, n, s) {
	      return method.create(outputBits, n, s).update(message);
	    };
	    return createOutputMethods(method, createCshakeOutputMethod, bits, padding);
	  };

	  var createKmacMethod = function (bits, padding) {
	    var w = CSHAKE_BYTEPAD[bits];
	    var method = createKmacOutputMethod(bits, padding, 'hex');
	    method.create = function (key, outputBits, s) {
	      return new Kmac(bits, padding, outputBits).bytepad(['KMAC', s], w).bytepad([key], w);
	    };
	    method.update = function (key, message, outputBits, s) {
	      return method.create(key, outputBits, s).update(message);
	    };
	    return createOutputMethods(method, createKmacOutputMethod, bits, padding);
	  };

	  var algorithms = [
	    { name: 'keccak', padding: KECCAK_PADDING, bits: BITS, createMethod: createMethod },
	    { name: 'sha3', padding: PADDING, bits: BITS, createMethod: createMethod },
	    { name: 'shake', padding: SHAKE_PADDING, bits: SHAKE_BITS, createMethod: createShakeMethod },
	    { name: 'cshake', padding: CSHAKE_PADDING, bits: SHAKE_BITS, createMethod: createCshakeMethod },
	    { name: 'kmac', padding: CSHAKE_PADDING, bits: SHAKE_BITS, createMethod: createKmacMethod }
	  ];

	  var methods = {}, methodNames = [];

	  for (var i = 0; i < algorithms.length; ++i) {
	    var algorithm = algorithms[i];
	    var bits = algorithm.bits;
	    for (var j = 0; j < bits.length; ++j) {
	      var methodName = algorithm.name + '_' + bits[j];
	      methodNames.push(methodName);
	      methods[methodName] = algorithm.createMethod(bits[j], algorithm.padding);
	      if (algorithm.name !== 'sha3') {
	        var newMethodName = algorithm.name + bits[j];
	        methodNames.push(newMethodName);
	        methods[newMethodName] = methods[methodName];
	      }
	    }
	  }

	  function Keccak(bits, padding, outputBits) {
	    this.blocks = [];
	    this.s = [];
	    this.padding = padding;
	    this.outputBits = outputBits;
	    this.reset = true;
	    this.finalized = false;
	    this.block = 0;
	    this.start = 0;
	    this.blockCount = (1600 - (bits << 1)) >> 5;
	    this.byteCount = this.blockCount << 2;
	    this.outputBlocks = outputBits >> 5;
	    this.extraBytes = (outputBits & 31) >> 3;

	    for (var i = 0; i < 50; ++i) {
	      this.s[i] = 0;
	    }
	  }

	  Keccak.prototype.update = function (message) {
	    if (this.finalized) {
	      throw new Error(FINALIZE_ERROR);
	    }
	    var notString, type = typeof message;
	    if (type !== 'string') {
	      if (type === 'object') {
	        if (message === null) {
	          throw new Error(INPUT_ERROR);
	        } else if (ARRAY_BUFFER && message.constructor === ArrayBuffer) {
	          message = new Uint8Array(message);
	        } else if (!Array.isArray(message)) {
	          if (!ARRAY_BUFFER || !ArrayBuffer.isView(message)) {
	            throw new Error(INPUT_ERROR);
	          }
	        }
	      } else {
	        throw new Error(INPUT_ERROR);
	      }
	      notString = true;
	    }
	    var blocks = this.blocks, byteCount = this.byteCount, length = message.length,
	      blockCount = this.blockCount, index = 0, s = this.s, i, code;

	    while (index < length) {
	      if (this.reset) {
	        this.reset = false;
	        blocks[0] = this.block;
	        for (i = 1; i < blockCount + 1; ++i) {
	          blocks[i] = 0;
	        }
	      }
	      if (notString) {
	        for (i = this.start; index < length && i < byteCount; ++index) {
	          blocks[i >> 2] |= message[index] << SHIFT[i++ & 3];
	        }
	      } else {
	        for (i = this.start; index < length && i < byteCount; ++index) {
	          code = message.charCodeAt(index);
	          if (code < 0x80) {
	            blocks[i >> 2] |= code << SHIFT[i++ & 3];
	          } else if (code < 0x800) {
	            blocks[i >> 2] |= (0xc0 | (code >> 6)) << SHIFT[i++ & 3];
	            blocks[i >> 2] |= (0x80 | (code & 0x3f)) << SHIFT[i++ & 3];
	          } else if (code < 0xd800 || code >= 0xe000) {
	            blocks[i >> 2] |= (0xe0 | (code >> 12)) << SHIFT[i++ & 3];
	            blocks[i >> 2] |= (0x80 | ((code >> 6) & 0x3f)) << SHIFT[i++ & 3];
	            blocks[i >> 2] |= (0x80 | (code & 0x3f)) << SHIFT[i++ & 3];
	          } else {
	            code = 0x10000 + (((code & 0x3ff) << 10) | (message.charCodeAt(++index) & 0x3ff));
	            blocks[i >> 2] |= (0xf0 | (code >> 18)) << SHIFT[i++ & 3];
	            blocks[i >> 2] |= (0x80 | ((code >> 12) & 0x3f)) << SHIFT[i++ & 3];
	            blocks[i >> 2] |= (0x80 | ((code >> 6) & 0x3f)) << SHIFT[i++ & 3];
	            blocks[i >> 2] |= (0x80 | (code & 0x3f)) << SHIFT[i++ & 3];
	          }
	        }
	      }
	      this.lastByteIndex = i;
	      if (i >= byteCount) {
	        this.start = i - byteCount;
	        this.block = blocks[blockCount];
	        for (i = 0; i < blockCount; ++i) {
	          s[i] ^= blocks[i];
	        }
	        f(s);
	        this.reset = true;
	      } else {
	        this.start = i;
	      }
	    }
	    return this;
	  };

	  Keccak.prototype.encode = function (x, right) {
	    var o = x & 255, n = 1;
	    var bytes = [o];
	    x = x >> 8;
	    o = x & 255;
	    while (o > 0) {
	      bytes.unshift(o);
	      x = x >> 8;
	      o = x & 255;
	      ++n;
	    }
	    if (right) {
	      bytes.push(n);
	    } else {
	      bytes.unshift(n);
	    }
	    this.update(bytes);
	    return bytes.length;
	  };

	  Keccak.prototype.encodeString = function (str) {
	    var notString, type = typeof str;
	    if (type !== 'string') {
	      if (type === 'object') {
	        if (str === null) {
	          throw new Error(INPUT_ERROR);
	        } else if (ARRAY_BUFFER && str.constructor === ArrayBuffer) {
	          str = new Uint8Array(str);
	        } else if (!Array.isArray(str)) {
	          if (!ARRAY_BUFFER || !ArrayBuffer.isView(str)) {
	            throw new Error(INPUT_ERROR);
	          }
	        }
	      } else {
	        throw new Error(INPUT_ERROR);
	      }
	      notString = true;
	    }
	    var bytes = 0, length = str.length;
	    if (notString) {
	      bytes = length;
	    } else {
	      for (var i = 0; i < str.length; ++i) {
	        var code = str.charCodeAt(i);
	        if (code < 0x80) {
	          bytes += 1;
	        } else if (code < 0x800) {
	          bytes += 2;
	        } else if (code < 0xd800 || code >= 0xe000) {
	          bytes += 3;
	        } else {
	          code = 0x10000 + (((code & 0x3ff) << 10) | (str.charCodeAt(++i) & 0x3ff));
	          bytes += 4;
	        }
	      }
	    }
	    bytes += this.encode(bytes * 8);
	    this.update(str);
	    return bytes;
	  };

	  Keccak.prototype.bytepad = function (strs, w) {
	    var bytes = this.encode(w);
	    for (var i = 0; i < strs.length; ++i) {
	      bytes += this.encodeString(strs[i]);
	    }
	    var paddingBytes = w - bytes % w;
	    var zeros = [];
	    zeros.length = paddingBytes;
	    this.update(zeros);
	    return this;
	  };

	  Keccak.prototype.finalize = function () {
	    if (this.finalized) {
	      return;
	    }
	    this.finalized = true;
	    var blocks = this.blocks, i = this.lastByteIndex, blockCount = this.blockCount, s = this.s;
	    blocks[i >> 2] |= this.padding[i & 3];
	    if (this.lastByteIndex === this.byteCount) {
	      blocks[0] = blocks[blockCount];
	      for (i = 1; i < blockCount + 1; ++i) {
	        blocks[i] = 0;
	      }
	    }
	    blocks[blockCount - 1] |= 0x80000000;
	    for (i = 0; i < blockCount; ++i) {
	      s[i] ^= blocks[i];
	    }
	    f(s);
	  };

	  Keccak.prototype.toString = Keccak.prototype.hex = function () {
	    this.finalize();

	    var blockCount = this.blockCount, s = this.s, outputBlocks = this.outputBlocks,
	      extraBytes = this.extraBytes, i = 0, j = 0;
	    var hex = '', block;
	    while (j < outputBlocks) {
	      for (i = 0; i < blockCount && j < outputBlocks; ++i, ++j) {
	        block = s[i];
	        hex += HEX_CHARS[(block >> 4) & 0x0F] + HEX_CHARS[block & 0x0F] +
	          HEX_CHARS[(block >> 12) & 0x0F] + HEX_CHARS[(block >> 8) & 0x0F] +
	          HEX_CHARS[(block >> 20) & 0x0F] + HEX_CHARS[(block >> 16) & 0x0F] +
	          HEX_CHARS[(block >> 28) & 0x0F] + HEX_CHARS[(block >> 24) & 0x0F];
	      }
	      if (j % blockCount === 0) {
	        f(s);
	        i = 0;
	      }
	    }
	    if (extraBytes) {
	      block = s[i];
	      hex += HEX_CHARS[(block >> 4) & 0x0F] + HEX_CHARS[block & 0x0F];
	      if (extraBytes > 1) {
	        hex += HEX_CHARS[(block >> 12) & 0x0F] + HEX_CHARS[(block >> 8) & 0x0F];
	      }
	      if (extraBytes > 2) {
	        hex += HEX_CHARS[(block >> 20) & 0x0F] + HEX_CHARS[(block >> 16) & 0x0F];
	      }
	    }
	    return hex;
	  };

	  Keccak.prototype.arrayBuffer = function () {
	    this.finalize();

	    var blockCount = this.blockCount, s = this.s, outputBlocks = this.outputBlocks,
	      extraBytes = this.extraBytes, i = 0, j = 0;
	    var bytes = this.outputBits >> 3;
	    var buffer;
	    if (extraBytes) {
	      buffer = new ArrayBuffer((outputBlocks + 1) << 2);
	    } else {
	      buffer = new ArrayBuffer(bytes);
	    }
	    var array = new Uint32Array(buffer);
	    while (j < outputBlocks) {
	      for (i = 0; i < blockCount && j < outputBlocks; ++i, ++j) {
	        array[j] = s[i];
	      }
	      if (j % blockCount === 0) {
	        f(s);
	      }
	    }
	    if (extraBytes) {
	      array[i] = s[i];
	      buffer = buffer.slice(0, bytes);
	    }
	    return buffer;
	  };

	  Keccak.prototype.buffer = Keccak.prototype.arrayBuffer;

	  Keccak.prototype.digest = Keccak.prototype.array = function () {
	    this.finalize();

	    var blockCount = this.blockCount, s = this.s, outputBlocks = this.outputBlocks,
	      extraBytes = this.extraBytes, i = 0, j = 0;
	    var array = [], offset, block;
	    while (j < outputBlocks) {
	      for (i = 0; i < blockCount && j < outputBlocks; ++i, ++j) {
	        offset = j << 2;
	        block = s[i];
	        array[offset] = block & 0xFF;
	        array[offset + 1] = (block >> 8) & 0xFF;
	        array[offset + 2] = (block >> 16) & 0xFF;
	        array[offset + 3] = (block >> 24) & 0xFF;
	      }
	      if (j % blockCount === 0) {
	        f(s);
	      }
	    }
	    if (extraBytes) {
	      offset = j << 2;
	      block = s[i];
	      array[offset] = block & 0xFF;
	      if (extraBytes > 1) {
	        array[offset + 1] = (block >> 8) & 0xFF;
	      }
	      if (extraBytes > 2) {
	        array[offset + 2] = (block >> 16) & 0xFF;
	      }
	    }
	    return array;
	  };

	  function Kmac(bits, padding, outputBits) {
	    Keccak.call(this, bits, padding, outputBits);
	  }

	  Kmac.prototype = new Keccak();

	  Kmac.prototype.finalize = function () {
	    this.encode(this.outputBits, true);
	    return Keccak.prototype.finalize.call(this);
	  };

	  var f = function (s) {
	    var h, l, n, c0, c1, c2, c3, c4, c5, c6, c7, c8, c9,
	      b0, b1, b2, b3, b4, b5, b6, b7, b8, b9, b10, b11, b12, b13, b14, b15, b16, b17,
	      b18, b19, b20, b21, b22, b23, b24, b25, b26, b27, b28, b29, b30, b31, b32, b33,
	      b34, b35, b36, b37, b38, b39, b40, b41, b42, b43, b44, b45, b46, b47, b48, b49;
	    for (n = 0; n < 48; n += 2) {
	      c0 = s[0] ^ s[10] ^ s[20] ^ s[30] ^ s[40];
	      c1 = s[1] ^ s[11] ^ s[21] ^ s[31] ^ s[41];
	      c2 = s[2] ^ s[12] ^ s[22] ^ s[32] ^ s[42];
	      c3 = s[3] ^ s[13] ^ s[23] ^ s[33] ^ s[43];
	      c4 = s[4] ^ s[14] ^ s[24] ^ s[34] ^ s[44];
	      c5 = s[5] ^ s[15] ^ s[25] ^ s[35] ^ s[45];
	      c6 = s[6] ^ s[16] ^ s[26] ^ s[36] ^ s[46];
	      c7 = s[7] ^ s[17] ^ s[27] ^ s[37] ^ s[47];
	      c8 = s[8] ^ s[18] ^ s[28] ^ s[38] ^ s[48];
	      c9 = s[9] ^ s[19] ^ s[29] ^ s[39] ^ s[49];

	      h = c8 ^ ((c2 << 1) | (c3 >>> 31));
	      l = c9 ^ ((c3 << 1) | (c2 >>> 31));
	      s[0] ^= h;
	      s[1] ^= l;
	      s[10] ^= h;
	      s[11] ^= l;
	      s[20] ^= h;
	      s[21] ^= l;
	      s[30] ^= h;
	      s[31] ^= l;
	      s[40] ^= h;
	      s[41] ^= l;
	      h = c0 ^ ((c4 << 1) | (c5 >>> 31));
	      l = c1 ^ ((c5 << 1) | (c4 >>> 31));
	      s[2] ^= h;
	      s[3] ^= l;
	      s[12] ^= h;
	      s[13] ^= l;
	      s[22] ^= h;
	      s[23] ^= l;
	      s[32] ^= h;
	      s[33] ^= l;
	      s[42] ^= h;
	      s[43] ^= l;
	      h = c2 ^ ((c6 << 1) | (c7 >>> 31));
	      l = c3 ^ ((c7 << 1) | (c6 >>> 31));
	      s[4] ^= h;
	      s[5] ^= l;
	      s[14] ^= h;
	      s[15] ^= l;
	      s[24] ^= h;
	      s[25] ^= l;
	      s[34] ^= h;
	      s[35] ^= l;
	      s[44] ^= h;
	      s[45] ^= l;
	      h = c4 ^ ((c8 << 1) | (c9 >>> 31));
	      l = c5 ^ ((c9 << 1) | (c8 >>> 31));
	      s[6] ^= h;
	      s[7] ^= l;
	      s[16] ^= h;
	      s[17] ^= l;
	      s[26] ^= h;
	      s[27] ^= l;
	      s[36] ^= h;
	      s[37] ^= l;
	      s[46] ^= h;
	      s[47] ^= l;
	      h = c6 ^ ((c0 << 1) | (c1 >>> 31));
	      l = c7 ^ ((c1 << 1) | (c0 >>> 31));
	      s[8] ^= h;
	      s[9] ^= l;
	      s[18] ^= h;
	      s[19] ^= l;
	      s[28] ^= h;
	      s[29] ^= l;
	      s[38] ^= h;
	      s[39] ^= l;
	      s[48] ^= h;
	      s[49] ^= l;

	      b0 = s[0];
	      b1 = s[1];
	      b32 = (s[11] << 4) | (s[10] >>> 28);
	      b33 = (s[10] << 4) | (s[11] >>> 28);
	      b14 = (s[20] << 3) | (s[21] >>> 29);
	      b15 = (s[21] << 3) | (s[20] >>> 29);
	      b46 = (s[31] << 9) | (s[30] >>> 23);
	      b47 = (s[30] << 9) | (s[31] >>> 23);
	      b28 = (s[40] << 18) | (s[41] >>> 14);
	      b29 = (s[41] << 18) | (s[40] >>> 14);
	      b20 = (s[2] << 1) | (s[3] >>> 31);
	      b21 = (s[3] << 1) | (s[2] >>> 31);
	      b2 = (s[13] << 12) | (s[12] >>> 20);
	      b3 = (s[12] << 12) | (s[13] >>> 20);
	      b34 = (s[22] << 10) | (s[23] >>> 22);
	      b35 = (s[23] << 10) | (s[22] >>> 22);
	      b16 = (s[33] << 13) | (s[32] >>> 19);
	      b17 = (s[32] << 13) | (s[33] >>> 19);
	      b48 = (s[42] << 2) | (s[43] >>> 30);
	      b49 = (s[43] << 2) | (s[42] >>> 30);
	      b40 = (s[5] << 30) | (s[4] >>> 2);
	      b41 = (s[4] << 30) | (s[5] >>> 2);
	      b22 = (s[14] << 6) | (s[15] >>> 26);
	      b23 = (s[15] << 6) | (s[14] >>> 26);
	      b4 = (s[25] << 11) | (s[24] >>> 21);
	      b5 = (s[24] << 11) | (s[25] >>> 21);
	      b36 = (s[34] << 15) | (s[35] >>> 17);
	      b37 = (s[35] << 15) | (s[34] >>> 17);
	      b18 = (s[45] << 29) | (s[44] >>> 3);
	      b19 = (s[44] << 29) | (s[45] >>> 3);
	      b10 = (s[6] << 28) | (s[7] >>> 4);
	      b11 = (s[7] << 28) | (s[6] >>> 4);
	      b42 = (s[17] << 23) | (s[16] >>> 9);
	      b43 = (s[16] << 23) | (s[17] >>> 9);
	      b24 = (s[26] << 25) | (s[27] >>> 7);
	      b25 = (s[27] << 25) | (s[26] >>> 7);
	      b6 = (s[36] << 21) | (s[37] >>> 11);
	      b7 = (s[37] << 21) | (s[36] >>> 11);
	      b38 = (s[47] << 24) | (s[46] >>> 8);
	      b39 = (s[46] << 24) | (s[47] >>> 8);
	      b30 = (s[8] << 27) | (s[9] >>> 5);
	      b31 = (s[9] << 27) | (s[8] >>> 5);
	      b12 = (s[18] << 20) | (s[19] >>> 12);
	      b13 = (s[19] << 20) | (s[18] >>> 12);
	      b44 = (s[29] << 7) | (s[28] >>> 25);
	      b45 = (s[28] << 7) | (s[29] >>> 25);
	      b26 = (s[38] << 8) | (s[39] >>> 24);
	      b27 = (s[39] << 8) | (s[38] >>> 24);
	      b8 = (s[48] << 14) | (s[49] >>> 18);
	      b9 = (s[49] << 14) | (s[48] >>> 18);

	      s[0] = b0 ^ (~b2 & b4);
	      s[1] = b1 ^ (~b3 & b5);
	      s[10] = b10 ^ (~b12 & b14);
	      s[11] = b11 ^ (~b13 & b15);
	      s[20] = b20 ^ (~b22 & b24);
	      s[21] = b21 ^ (~b23 & b25);
	      s[30] = b30 ^ (~b32 & b34);
	      s[31] = b31 ^ (~b33 & b35);
	      s[40] = b40 ^ (~b42 & b44);
	      s[41] = b41 ^ (~b43 & b45);
	      s[2] = b2 ^ (~b4 & b6);
	      s[3] = b3 ^ (~b5 & b7);
	      s[12] = b12 ^ (~b14 & b16);
	      s[13] = b13 ^ (~b15 & b17);
	      s[22] = b22 ^ (~b24 & b26);
	      s[23] = b23 ^ (~b25 & b27);
	      s[32] = b32 ^ (~b34 & b36);
	      s[33] = b33 ^ (~b35 & b37);
	      s[42] = b42 ^ (~b44 & b46);
	      s[43] = b43 ^ (~b45 & b47);
	      s[4] = b4 ^ (~b6 & b8);
	      s[5] = b5 ^ (~b7 & b9);
	      s[14] = b14 ^ (~b16 & b18);
	      s[15] = b15 ^ (~b17 & b19);
	      s[24] = b24 ^ (~b26 & b28);
	      s[25] = b25 ^ (~b27 & b29);
	      s[34] = b34 ^ (~b36 & b38);
	      s[35] = b35 ^ (~b37 & b39);
	      s[44] = b44 ^ (~b46 & b48);
	      s[45] = b45 ^ (~b47 & b49);
	      s[6] = b6 ^ (~b8 & b0);
	      s[7] = b7 ^ (~b9 & b1);
	      s[16] = b16 ^ (~b18 & b10);
	      s[17] = b17 ^ (~b19 & b11);
	      s[26] = b26 ^ (~b28 & b20);
	      s[27] = b27 ^ (~b29 & b21);
	      s[36] = b36 ^ (~b38 & b30);
	      s[37] = b37 ^ (~b39 & b31);
	      s[46] = b46 ^ (~b48 & b40);
	      s[47] = b47 ^ (~b49 & b41);
	      s[8] = b8 ^ (~b0 & b2);
	      s[9] = b9 ^ (~b1 & b3);
	      s[18] = b18 ^ (~b10 & b12);
	      s[19] = b19 ^ (~b11 & b13);
	      s[28] = b28 ^ (~b20 & b22);
	      s[29] = b29 ^ (~b21 & b23);
	      s[38] = b38 ^ (~b30 & b32);
	      s[39] = b39 ^ (~b31 & b33);
	      s[48] = b48 ^ (~b40 & b42);
	      s[49] = b49 ^ (~b41 & b43);

	      s[0] ^= RC[n];
	      s[1] ^= RC[n + 1];
	    }
	  };

	  if (COMMON_JS) {
	    module.exports = methods;
	  } else {
	    for (i = 0; i < methodNames.length; ++i) {
	      root[methodNames[i]] = methods[methodNames[i]];
	    }
	  }
	})(); 
} (sha3$1));

var sha3Exports = sha3$1.exports;
var sha3 = /*@__PURE__*/getDefaultExportFromCjs(sha3Exports);

function keccak256(data) {
    return '0x' + sha3.keccak_256(arrayify(data));
}

const version = "strings/5.7.0";

const logger = new Logger(version);
///////////////////////////////
var UnicodeNormalizationForm;
(function (UnicodeNormalizationForm) {
    UnicodeNormalizationForm["current"] = "";
    UnicodeNormalizationForm["NFC"] = "NFC";
    UnicodeNormalizationForm["NFD"] = "NFD";
    UnicodeNormalizationForm["NFKC"] = "NFKC";
    UnicodeNormalizationForm["NFKD"] = "NFKD";
})(UnicodeNormalizationForm || (UnicodeNormalizationForm = {}));
var Utf8ErrorReason;
(function (Utf8ErrorReason) {
    // A continuation byte was present where there was nothing to continue
    // - offset = the index the codepoint began in
    Utf8ErrorReason["UNEXPECTED_CONTINUE"] = "unexpected continuation byte";
    // An invalid (non-continuation) byte to start a UTF-8 codepoint was found
    // - offset = the index the codepoint began in
    Utf8ErrorReason["BAD_PREFIX"] = "bad codepoint prefix";
    // The string is too short to process the expected codepoint
    // - offset = the index the codepoint began in
    Utf8ErrorReason["OVERRUN"] = "string overrun";
    // A missing continuation byte was expected but not found
    // - offset = the index the continuation byte was expected at
    Utf8ErrorReason["MISSING_CONTINUE"] = "missing continuation byte";
    // The computed code point is outside the range for UTF-8
    // - offset       = start of this codepoint
    // - badCodepoint = the computed codepoint; outside the UTF-8 range
    Utf8ErrorReason["OUT_OF_RANGE"] = "out of UTF-8 range";
    // UTF-8 strings may not contain UTF-16 surrogate pairs
    // - offset       = start of this codepoint
    // - badCodepoint = the computed codepoint; inside the UTF-16 surrogate range
    Utf8ErrorReason["UTF16_SURROGATE"] = "UTF-16 surrogate";
    // The string is an overlong representation
    // - offset       = start of this codepoint
    // - badCodepoint = the computed codepoint; already bounds checked
    Utf8ErrorReason["OVERLONG"] = "overlong representation";
})(Utf8ErrorReason || (Utf8ErrorReason = {}));
// http://stackoverflow.com/questions/18729405/how-to-convert-utf8-string-to-byte-array
function toUtf8Bytes(str, form = UnicodeNormalizationForm.current) {
    if (form != UnicodeNormalizationForm.current) {
        logger.checkNormalize();
        str = str.normalize(form);
    }
    let result = [];
    for (let i = 0; i < str.length; i++) {
        const c = str.charCodeAt(i);
        if (c < 0x80) {
            result.push(c);
        }
        else if (c < 0x800) {
            result.push((c >> 6) | 0xc0);
            result.push((c & 0x3f) | 0x80);
        }
        else if ((c & 0xfc00) == 0xd800) {
            i++;
            const c2 = str.charCodeAt(i);
            if (i >= str.length || (c2 & 0xfc00) !== 0xdc00) {
                throw new Error("invalid utf-8 string");
            }
            // Surrogate Pair
            const pair = 0x10000 + ((c & 0x03ff) << 10) + (c2 & 0x03ff);
            result.push((pair >> 18) | 0xf0);
            result.push(((pair >> 12) & 0x3f) | 0x80);
            result.push(((pair >> 6) & 0x3f) | 0x80);
            result.push((pair & 0x3f) | 0x80);
        }
        else {
            result.push((c >> 12) | 0xe0);
            result.push(((c >> 6) & 0x3f) | 0x80);
            result.push((c & 0x3f) | 0x80);
        }
    }
    return arrayify(result);
}

const SEED = "mimcsponge";
const NROUNDS = 220;

async function buildMimcSponge() {
    const bn128 = await ffjavascript.getCurveFromName("bn128", true);
    return new MimcSponge(bn128.Fr);
}

class MimcSponge {
    constructor (F) {
        this.F = F;
        this.cts = this.getConstants(SEED, NROUNDS);
    }

    getIV (seed)  {
        const F = this.F;
        if (typeof seed === "undefined") seed = SEED;
        const c = keccak256(toUtf8Bytes(seed+"_iv"));
        const cn = ffjavascript.Scalar.e(c);
        const iv = cn.mod(F.p);
        return iv;
    };

    getConstants (seed, nRounds)  {
        const F = this.F;
        if (typeof nRounds === "undefined") nRounds = NROUNDS;
        const cts = new Array(nRounds);
        let c = keccak256(toUtf8Bytes(SEED));        for (let i=1; i<nRounds; i++) {
            c = keccak256(c);

            cts[i] = F.e(c);
        }
        cts[0] = F.e(0);
        cts[cts.length - 1] = F.e(0);
        return cts;
    };


    hash(_xL_in, _xR_in, _k) {
        const F = this.F;
        let xL = F.e(_xL_in);
        let xR = F.e(_xR_in);
        const k = F.e(_k);
        for (let i=0; i<NROUNDS; i++) {
            const c = this.cts[i];
            const t = (i==0) ? F.add(xL, k) : F.add(F.add(xL, k), c);
            const t2 = F.square(t);
            const t4 = F.square(t2);
            const t5 = F.mul(t4, t);
            const xR_tmp = F.e(xR);
            if (i < (NROUNDS - 1)) {
                xR = xL;
                xL = F.add(xR_tmp, t5);
            } else {
                xR = F.add(xR_tmp, t5);
            }
        }
        return {
            xL: xL,
            xR: xR
        };
    }

    multiHash(arr, key, numOutputs)  {
        const F = this.F;
        if (typeof(numOutputs) === "undefined") {
            numOutputs = 1;
        }
        if (typeof(key) === "undefined") {
            key = F.zero;
        }

        let R = F.zero;
        let C = F.zero;

        for (let i=0; i<arr.length; i++) {
            R = F.add(R, F.e(arr[i]));
            const S = this.hash(R, C, key);
            R = S.xL;
            C = S.xR;
        }
        let outputs = [R];
        for (let i=1; i < numOutputs; i++) {
            const S = this.hash(R, C, key);
            R = S.xL;
            C = S.xR;
            outputs.push(R);
        }
        if (numOutputs == 1) {
            return outputs[0];
        } else {
            return outputs;
        }
    }
}

var __async$1 = (__this, __arguments, generator) => {
  return new Promise((resolve, reject) => {
    var fulfilled = (value) => {
      try {
        step(generator.next(value));
      } catch (e) {
        reject(e);
      }
    };
    var rejected = (value) => {
      try {
        step(generator.throw(value));
      } catch (e) {
        reject(e);
      }
    };
    var step = (x) => x.done ? resolve(x.value) : Promise.resolve(x.value).then(fulfilled, rejected);
    step((generator = generator.apply(__this, __arguments)).next());
  });
};
class Mimc {
  constructor() {
    this.mimcPromise = this.initMimc();
  }
  initMimc() {
    return __async$1(this, null, function* () {
      this.sponge = yield buildMimcSponge();
      this.hash = (left, right) => {
        var _a, _b;
        return (_b = this.sponge) == null ? void 0 : _b.F.toString((_a = this.sponge) == null ? void 0 : _a.multiHash([BigInt(left), BigInt(right)]));
      };
    });
  }
  getHash() {
    return __async$1(this, null, function* () {
      yield this.mimcPromise;
      return {
        sponge: this.sponge,
        hash: this.hash
      };
    });
  }
}
const mimc = new Mimc();

BigInt.prototype.toJSON = function() {
  return this.toString();
};
const isNode = !process.browser && typeof globalThis.window === "undefined";

var __async = (__this, __arguments, generator) => {
  return new Promise((resolve, reject) => {
    var fulfilled = (value) => {
      try {
        step(generator.next(value));
      } catch (e) {
        reject(e);
      }
    };
    var rejected = (value) => {
      try {
        step(generator.throw(value));
      } catch (e) {
        reject(e);
      }
    };
    var step = (x) => x.done ? resolve(x.value) : Promise.resolve(x.value).then(fulfilled, rejected);
    step((generator = generator.apply(__this, __arguments)).next());
  });
};
function nodePostWork() {
  return __async(this, null, function* () {
    const { hash: hashFunction } = yield mimc.getHash();
    const { merkleTreeHeight, edge, elements, zeroElement } = workerThreads.workerData;
    if (edge) {
      const merkleTree2 = new lib.PartialMerkleTree(merkleTreeHeight, edge, elements, {
        zeroElement,
        hashFunction
      });
      workerThreads.parentPort.postMessage(merkleTree2.toString());
      return;
    }
    const merkleTree = new lib.MerkleTree(merkleTreeHeight, elements, {
      zeroElement,
      hashFunction
    });
    workerThreads.parentPort.postMessage(merkleTree.toString());
  });
}
if (isNode && workerThreads) {
  nodePostWork();
} else if (!isNode && typeof addEventListener === "function" && typeof postMessage === "function") {
  addEventListener("message", (e) => __async(undefined, null, function* () {
    let data;
    if (e.data) {
      data = e.data;
    } else {
      data = e;
    }
    const { hash: hashFunction } = yield mimc.getHash();
    const { merkleTreeHeight, edge, elements, zeroElement } = data;
    if (edge) {
      const merkleTree2 = new lib.PartialMerkleTree(merkleTreeHeight, edge, elements, {
        zeroElement,
        hashFunction
      });
      postMessage(merkleTree2.toString());
      return;
    }
    const merkleTree = new lib.MerkleTree(merkleTreeHeight, elements, {
      zeroElement,
      hashFunction
    });
    postMessage(merkleTree.toString());
  }));
} else {
  throw new Error("This browser / environment does not support workers!");
}