mirror of
https://github.com/PrismarineJS/node-minecraft-protocol.git
synced 2024-11-14 19:04:59 -05:00
Externalize rsa-wrap to a separate module
This commit is contained in:
roblabla
parent
b076f97627
commit
50ad0211a5
3 changed files with 3 additions and 653 deletions
2
index.js
2
index.js
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@ -20,7 +20,7 @@ try {
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} catch(e) {
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console.log("You are using a pure-javascript implementation of RSA.");
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console.log("Your performance might be subpar. Please consider installing URSA");
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ursa = require("./rsa-wrap");
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ursa = require("ursa-purejs");
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}
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module.exports = {
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@ -37,10 +37,10 @@
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"dependencies": {
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"ansi-color": "0.2.1",
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"buffer-equal": "0.0.0",
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"node-rsa": "^0.1.53",
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"node-uuid": "~1.4.1",
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"prismarine-nbt": "0.0.1",
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"superagent": "~0.10.0"
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"superagent": "~0.10.0",
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"ursa-purejs": "0.0.1"
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},
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"optionalDependencies": {
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"ursa": "~0.8.0"
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650
rsa-wrap.js
650
rsa-wrap.js
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@ -1,650 +0,0 @@
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// Copyright 2012 The Obvious Corporation.
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/*
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* "ursa": RSA crypto, with an emphasis on Buffer objects
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*/
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/*
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* Modules used
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*/
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"use strict";
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// Note: This also forces OpenSSL to be initialized, which is important!
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var crypto = require("crypto");
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var assert = require("assert");
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//var ursaNative = require("../bin/ursaNative");
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var ursaNative = require("node-rsa");
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var RsaWrap = ursaNative;
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//var textToNid = ursaNative.textToNid;
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/*
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* Variable definitions
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*/
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/** encoding constant */
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var BASE64 = "base64";
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/** encoding constant */
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var BINARY = "binary";
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/** encoding constant */
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var HEX = "hex";
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/** type name */
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var STRING = "string";
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/** encoding constant */
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var UTF8 = "utf8";
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/** hash algorithm constant */
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var MD5 = "md5";
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/** regex that matches PEM files, capturing the file type */
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var PEM_REGEX =
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/^(-----BEGIN (.*) KEY-----\r?\n[\/+=a-zA-Z0-9\r\n]*\r?\n-----END \2 KEY-----\r?\n)/m;
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/** "unsealer" key object to authenticate objects */
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var theUnsealer = [ "ursa unsealer" ];
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/*
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* Helper functions
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*/
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/**
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* Return true iff x is either a string or a Buffer.
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*/
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function isStringOrBuffer(x) {
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return (typeof x === STRING) || Buffer.isBuffer(x);
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}
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/**
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* Extract and identify the PEM file type represented in the given
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* buffer. Returns the extracted type string or undefined if the
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* buffer doesn't seem to be any sort of PEM format file.
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*/
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function identifyPemType(buf) {
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var str = encodeBuffer(buf, UTF8);
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var match = PEM_REGEX.exec(str);
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if (!match) {
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return undefined;
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}
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return match[2];
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}
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/**
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* Return whether the given buffer or string appears (trivially) to be a
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* valid public key file in PEM format.
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*/
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function isPublicKeyPem(buf) {
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var kind = identifyPemType(buf);
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return (kind == "PUBLIC");
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}
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/**
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* Return whether the given buffer or string appears (trivially) to be a
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* valid private key file in PEM format.
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*/
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function isPrivateKeyPem(buf) {
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var kind = identifyPemType(buf);
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return (kind == "RSA PRIVATE");
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}
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/**
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* Return a buffer containing the encoding of the given bigint for use
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* as part of an SSH-style public key file. The input value must be a
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* buffer representing an unsigned bigint in big-endian order.
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*/
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function toSshBigint(value) {
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// The output is signed, so we need to add an extra 00 byte at the
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// head if the high-order bit is set.
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var prefix00 = ((value[0] & 0x80) !== 0);
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var length = value.length + (prefix00 ? 1 : 0);
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var result = new Buffer(length + 4);
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var offset = 0;
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result.writeUInt32BE(length, offset);
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offset += 4;
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if (prefix00) {
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result[offset] = 0;
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offset++;
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}
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value.copy(result, offset);
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return result;
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}
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/**
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* Create and return a buffer containing an SSH-style public key file for
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* the given RsaWrap object.
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*
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* For the record, an SSH-style public key file consists of three
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* concatenated values, each one length-prefixed:
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*
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* literal string "ssh-rsa"
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* exponent
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* modulus
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*
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* The literal string header is length-prefixed. The two numbers are
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* represented as signed big-int values in big-endian order, also
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* length-prefixed.
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*/
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function createSshPublicKey(rsa) {
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var e = toSshBigint(rsa.getExponent());
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var m = toSshBigint(rsa.getModulus());
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var header = toSshBigint(new Buffer("ssh-rsa", UTF8));
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var result = new Buffer(header.length + m.length + e.length);
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var offset = 0;
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header.copy(result, offset);
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offset += header.length;
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e.copy(result, offset);
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offset += e.length;
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m.copy(result, offset);
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return result;
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}
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/**
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* Validate the given encoding name. Throws an exception if invalid.
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*/
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function validateEncoding(encoding) {
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switch (encoding) {
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case BASE64:
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case BINARY:
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case HEX:
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case UTF8: {
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// These are all valid.
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break;
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}
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default: {
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throw new Error("Invalid encoding: " + encoding);
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}
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}
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}
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/**
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* Convert a buffer into an appropriately-encoded string, or return it
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* unmodified if the encoding is undefined.
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*/
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function encodeBuffer(buf, encoding) {
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if (encoding === undefined) {
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return buf;
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}
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validateEncoding(encoding);
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return buf.toString(encoding);
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}
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/**
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* Return a buffer or undefined argument as-is, or convert a given
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* string into a buffer by using the indicated encoding. An undefined
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* encoding is interpreted to mean UTF8.
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*/
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function decodeString(str, encoding) {
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if ((str === undefined) || Buffer.isBuffer(str)) {
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return str;
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}
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if (encoding === undefined) {
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encoding = UTF8;
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}
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validateEncoding(encoding);
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return new Buffer(str, encoding);
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}
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/**
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* Public Key object. This is the externally-visible object that one gets
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* when constructing an instance from a public key. The constructor takes
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* a native RsaWrap object.
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*/
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function PublicKey(rsa) {
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var self;
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function getExponent(encoding) {
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var buf = new Buffer(4);
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buf.writeUInt32BE(rsa.keyPair.e);
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return encodeBuffer(buf, encoding);
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}
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function getModulus(encoding) {
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var buf = new Buffer(4);
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// TODO : How do I get modulus ?
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return encodeBuffer(rsa.getModulus(), encoding);
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}
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function toPublicPem(encoding) {
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return encodeBuffer(rsa.getPublicPEM() + "\n", encoding);
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}
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function toPublicSsh(encoding) {
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return encodeBuffer(createSshPublicKey(rsa), encoding);
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}
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function toPublicSshFingerprint(encoding) {
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return sshFingerprint(createSshPublicKey(rsa), undefined, encoding);
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}
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function encrypt(buf, bufEncoding, outEncoding, padding) {
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buf = decodeString(buf, bufEncoding);
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padding = padding || ursaNative.RSA_PKCS1_OAEP_PADDING;
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return rsa.encrypt(buf);
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//return encodeBuffer(rsa.publicEncrypt(buf, padding), outEncoding);
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}
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function publicDecrypt(buf, bufEncoding, outEncoding) {
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throw new Exception("Unsupported operation : publicDecrypt");
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//buf = decodeString(buf, bufEncoding);
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//return encodeBuffer(rsa.publicDecrypt(buf), outEncoding);
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}
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function verify(algorithm, hash, sig, encoding) {
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//algorithm = textToNid(algorithm);
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hash = decodeString(hash, encoding);
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sig = decodeString(sig, encoding);
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rsa.options.signingAlgorithm = algorithm;
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return rsa.verify(hash, sig);
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}
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function hashAndVerify(algorithm, buf, sig, encoding) {
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var verifier = createVerifier(algorithm);
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verifier.update(buf, encoding);
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return verifier.verify(self, sig, encoding);
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}
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function unseal(unsealer) {
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return (unsealer === theUnsealer) ? self : undefined;
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}
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self = {
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encrypt: encrypt,
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getExponent: getExponent,
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getModulus: getModulus,
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hashAndVerify: hashAndVerify,
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publicDecrypt: publicDecrypt,
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toPublicPem: toPublicPem,
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toPublicSsh: toPublicSsh,
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toPublicSshFingerprint: toPublicSshFingerprint,
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verify: verify,
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unseal: unseal
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};
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return self;
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}
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/**
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* Private Key object. This is the externally-visible object that one
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* gets when constructing an instance from a private key (aka a
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* keypair). The constructor takes a native RsaWrap object.
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*/
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function PrivateKey(rsa) {
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var self;
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function toPrivatePem(encoding) {
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return encodeBuffer(rsa.getPrivatePEM(), encoding);
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}
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function decrypt(buf, bufEncoding, outEncoding, padding) {
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buf = decodeString(buf, bufEncoding);
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padding = padding || ursaNative.RSA_PKCS1_OAEP_PADDING;
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return encodeBuffer(rsa.decrypt(buf), outEncoding);
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//return encodeBuffer(rsa.privateDecrypt(buf, padding), outEncoding);
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}
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function privateEncrypt(buf, bufEncoding, outEncoding) {
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throw new Exception("Unsupported operation : Private encrypt");
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buf = decodeString(buf, bufEncoding);
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return encodeBuffer(rsa.privateEncrypt(buf), outEncoding);
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}
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function sign(algorithm, hash, hashEncoding, outEncoding) {
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//algorithm = textToNid(algorithm);
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hash = decodeString(hash, hashEncoding);
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rsa.options.signingAlgorithm = algorithm;
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return encodeBuffer(rsa.sign(hash), outEncoding);
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}
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function hashAndSign(algorithm, buf, bufEncoding, outEncoding) {
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var signer = createSigner(algorithm);
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signer.update(buf, bufEncoding);
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return signer.sign(self, outEncoding);
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}
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self = PublicKey(rsa);
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self.decrypt = decrypt;
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self.hashAndSign = hashAndSign;
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self.privateEncrypt = privateEncrypt;
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self.sign = sign;
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self.toPrivatePem = toPrivatePem;
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return self;
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}
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/*
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* Exported bindings
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*/
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/**
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* Create a new public key object, from the given PEM-encoded file.
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*/
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function createPublicKey(pem, encoding) {
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var rsa = new RsaWrap();
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pem = decodeString(pem, encoding);
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try {
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rsa.loadFromPEM(pem.toString('utf8'));
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} catch (ex) {
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if (!isPublicKeyPem(pem)) {
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throw new Error("Not a public key.");
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}
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throw ex;
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}
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return PublicKey(rsa);
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}
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/**
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* Create a new private key object, from the given PEM-encoded file,
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* optionally decrypting the file with a password.
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*/
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function createPrivateKey(pem, password, encoding) {
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var rsa = new RsaWrap();
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//pem = decodeString(pem, encoding);
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//password = decodeString(password, encoding);
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try {
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// Note: The native code is sensitive to the actual number of
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// arguments. It's *not* okay to pass undefined as a password.
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if (password) {
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throw new Exception("Unsupported method : createPrivateKey with password");
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//rsa.setPrivateKeyPem(pem, password);
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} else {
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rsa.loadFromPEM(pem);
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}
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} catch (ex) {
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if (!isPrivateKeyPem(pem)) {
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throw new Error("Not a private key.");
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}
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throw ex;
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}
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return PrivateKey(rsa);
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}
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/**
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* Generate a new private key object (aka a keypair).
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*/
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function generatePrivateKey(modulusBits, exponent) {
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if (modulusBits === undefined) {
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modulusBits = 2048;
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}
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if (exponent === undefined) {
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exponent = 65537;
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}
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var rsa = new RsaWrap();
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rsa.generateKeyPair(modulusBits, exponent);
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return PrivateKey(rsa);
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}
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/**
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* Create a key object from a PEM format file, either a private or
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* public key depending on what kind of file is passed in. If given
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* a private key file, it must not be encrypted.
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*/
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function createKey(pem, encoding) {
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pem = decodeString(pem, encoding);
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if (isPublicKeyPem(pem)) {
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return createPublicKey(pem);
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} else if (isPrivateKeyPem(pem)) {
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return createPrivateKey(pem);
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} else {
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throw new Error("Not a key.");
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}
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}
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/**
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* Return the SSH-style public key fingerprint of the given SSH-format
|
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* public key.
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*/
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function sshFingerprint(sshKey, sshEncoding, outEncoding) {
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var hash = crypto.createHash(MD5);
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hash.update(decodeString(sshKey, sshEncoding));
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var result = new Buffer(hash.digest(BINARY), BINARY);
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return encodeBuffer(result, outEncoding);
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}
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/**
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* Return whether the given object is a key object (either public or
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* private), as constructed by this module.
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*/
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function isKey(obj) {
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var obj2;
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try {
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var unseal = obj.unseal;
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if (typeof unseal !== "function") {
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return false;
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}
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obj2 = unseal(theUnsealer);
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} catch (ex) {
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// Ignore; can't assume that other objects obey any particular
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// unsealing protocol.
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// TODO: Log?
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return false;
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}
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return obj2 !== undefined;
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}
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/**
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* Return whether the given object is a private key object, as
|
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* constructed by this module.
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*/
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function isPrivateKey(obj) {
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return isKey(obj) && (obj.decrypt !== undefined);
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}
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/**
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* Return whether the given object is a public key object (per se), as
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* constructed by this module.
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*/
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function isPublicKey(obj) {
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return isKey(obj) && !isPrivateKey(obj);
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}
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/**
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* Assert wrapper for isKey().
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*/
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function assertKey(obj) {
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assert(isKey(obj));
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}
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|
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/**
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* Assert wrapper for isPrivateKey().
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*/
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function assertPrivateKey(obj) {
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assert(isPrivateKey(obj));
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}
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/**
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* Assert wrapper for isPublicKey().
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*/
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function assertPublicKey(obj) {
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assert(isPublicKey(obj));
|
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}
|
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|
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/**
|
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* Coerce the given key value into an private key object, returning
|
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* it. If given a private key object, this just returns it as-is. If
|
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* given a string or Buffer, it tries to parse it as PEM. Anything
|
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* else is an error.
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*/
|
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function coercePrivateKey(orig) {
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if (isPrivateKey(orig)) {
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return orig;
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} else if (isStringOrBuffer(orig)) {
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return createPrivateKey(orig);
|
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}
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throw new Error("Not a private key: " + orig);
|
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}
|
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|
||||
/**
|
||||
* Coerce the given key value into a public key object, returning
|
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* it. If given a private key object, this just returns it as-is. If
|
||||
* given a string or Buffer, it tries to parse it as PEM. Anything
|
||||
* else is an error.
|
||||
*/
|
||||
function coercePublicKey(orig) {
|
||||
if (isPublicKey(orig)) {
|
||||
return orig;
|
||||
} else if (isStringOrBuffer(orig)) {
|
||||
return createPublicKey(orig);
|
||||
}
|
||||
|
||||
throw new Error("Not a public key: " + orig);
|
||||
}
|
||||
|
||||
/**
|
||||
* Coerce the given key value into a key object (either public or
|
||||
* private), returning it. If given a private key object, this just
|
||||
* returns it as-is. If given a string or Buffer, it tries to parse it
|
||||
* as PEM. Anything else is an error.
|
||||
*/
|
||||
function coerceKey(orig) {
|
||||
if (isKey(orig)) {
|
||||
return orig;
|
||||
} else if (isStringOrBuffer(orig)) {
|
||||
return createKey(orig);
|
||||
}
|
||||
|
||||
throw new Error("Not a key: " + orig);
|
||||
}
|
||||
|
||||
/**
|
||||
* Check whether the two objects are both keys of some sort and
|
||||
* have the same public part.
|
||||
*/
|
||||
function matchingPublicKeys(key1, key2) {
|
||||
if (!(isKey(key1) && isKey(key2))) {
|
||||
return false;
|
||||
}
|
||||
|
||||
// This isn't the most efficient implementation, but it will suffice:
|
||||
// We convert both to ssh form, which has very little leeway for
|
||||
// variation, and compare bytes.
|
||||
|
||||
var ssh1 = key1.toPublicSsh(UTF8);
|
||||
var ssh2 = key2.toPublicSsh(UTF8);
|
||||
|
||||
return ssh1 === ssh2;
|
||||
}
|
||||
|
||||
/**
|
||||
* Check whether the two objects are both keys of some sort, are
|
||||
* both public or both private, and have the same contents.
|
||||
*/
|
||||
function equalKeys(key1, key2) {
|
||||
// See above for rationale. In this case, there's no ssh form for
|
||||
// private keys, so we just use PEM for that.
|
||||
|
||||
if (isPrivateKey(key1) && isPrivateKey(key2)) {
|
||||
var pem1 = key1.toPrivatePem(UTF8);
|
||||
var pem2 = key2.toPrivatePem(UTF8);
|
||||
return pem1 === pem2;
|
||||
}
|
||||
|
||||
if (isPublicKey(key1) && isPublicKey(key2)) {
|
||||
return matchingPublicKeys(key1, key2);
|
||||
}
|
||||
|
||||
return false;
|
||||
}
|
||||
|
||||
/**
|
||||
* Create a signer object.
|
||||
*/
|
||||
function createSigner(algorithm) {
|
||||
var hash = crypto.createHash(algorithm);
|
||||
|
||||
function update(buf, bufEncoding) {
|
||||
buf = decodeString(buf, bufEncoding);
|
||||
hash.update(buf);
|
||||
}
|
||||
|
||||
function sign(privateKey, outEncoding) {
|
||||
var hashBuf = new Buffer(hash.digest(BINARY), BINARY);
|
||||
return privateKey.sign(algorithm, hashBuf, undefined, outEncoding);
|
||||
}
|
||||
|
||||
return {
|
||||
sign: sign,
|
||||
update: update
|
||||
};
|
||||
}
|
||||
|
||||
/**
|
||||
* Create a verifier object.
|
||||
*/
|
||||
function createVerifier(algorithm) {
|
||||
var hash = crypto.createHash(algorithm);
|
||||
|
||||
function update(buf, bufEncoding) {
|
||||
buf = decodeString(buf, bufEncoding);
|
||||
hash.update(buf);
|
||||
}
|
||||
|
||||
function verify(publicKey, sig, sigEncoding) {
|
||||
var hashBuf = new Buffer(hash.digest(BINARY), BINARY);
|
||||
sig = decodeString(sig, sigEncoding);
|
||||
return publicKey.verify(algorithm, hashBuf, sig);
|
||||
}
|
||||
|
||||
return {
|
||||
update: update,
|
||||
verify: verify
|
||||
};
|
||||
}
|
||||
|
||||
|
||||
/*
|
||||
* Initialization
|
||||
*/
|
||||
|
||||
module.exports = {
|
||||
assertKey: assertKey,
|
||||
assertPrivateKey: assertPrivateKey,
|
||||
assertPublicKey: assertPublicKey,
|
||||
coerceKey: coerceKey,
|
||||
coercePrivateKey: coercePrivateKey,
|
||||
coercePublicKey: coercePublicKey,
|
||||
createKey: createKey,
|
||||
createPrivateKey: createPrivateKey,
|
||||
createPublicKey: createPublicKey,
|
||||
createSigner: createSigner,
|
||||
createVerifier: createVerifier,
|
||||
equalKeys: equalKeys,
|
||||
generatePrivateKey: generatePrivateKey,
|
||||
isKey: isKey,
|
||||
isPrivateKey: isPrivateKey,
|
||||
isPublicKey: isPublicKey,
|
||||
matchingPublicKeys: matchingPublicKeys,
|
||||
sshFingerprint: sshFingerprint,
|
||||
RSA_PKCS1_PADDING: ursaNative.RSA_PKCS1_PADDING,
|
||||
RSA_PKCS1_OAEP_PADDING: ursaNative.RSA_PKCS1_OAEP_PADDING,
|
||||
};
|
||||
Loading…
Reference in a new issue