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/var/www/greso.tech/server/nsm/node_modules/node-forge/lib/

/var/www/greso.tech/server/nsm/node_modules/node-forge/lib

Name	Size	Mode	Actions
aes.js	39025	0644	edit dl rm
aesCipherSuites.js	9112	0644	edit dl rm
asn1-validator.js	2295	0644	edit dl rm
asn1.js	42831	0644	edit dl rm
baseN.js	5068	0644	edit dl rm
cipher.js	6668	0644	edit dl rm
cipherModes.js	28917	0644	edit dl rm
des.js	20445	0644	edit dl rm
ed25519.js	24941	0644	edit dl rm
forge.js	200	0644	edit dl rm
form.js	3880	0644	edit dl rm
hmac.js	3833	0644	edit dl rm
http.js	39070	0644	edit dl rm
index.all.js	366	0644	edit dl rm
index.js	640	0644	edit dl rm
jsbn.js	35188	0644	edit dl rm
kem.js	5217	0644	edit dl rm
log.js	9264	0644	edit dl rm
md.all.js	251	0644	edit dl rm
md.js	253	0644	edit dl rm
md5.js	7983	0644	edit dl rm
mgf.js	274	0644	edit dl rm
mgf1.js	1645	0644	edit dl rm
oids.js	6844	0644	edit dl rm
pbe.js	30999	0644	edit dl rm
pbkdf2.js	5809	0644	edit dl rm
pem.js	6693	0644	edit dl rm
pkcs1.js	8375	0644	edit dl rm
pkcs7.js	39869	0644	edit dl rm
pkcs7asn1.js	11484	0644	edit dl rm
pkcs12.js	33347	0644	edit dl rm
pki.js	2651	0644	edit dl rm
prime.js	8776	0644	edit dl rm
prime.worker.js	4804	0644	edit dl rm
prng.js	12326	0644	edit dl rm
pss.js	7854	0644	edit dl rm
random.js	5438	0644	edit dl rm
rc2.js	11949	0644	edit dl rm
rsa.js	60058	0644	edit dl rm
sha1.js	9089	0644	edit dl rm
sha256.js	9574	0644	edit dl rm
sha512.js	17133	0644	edit dl rm
socket.js	8329	0644	edit dl rm
ssh.js	7163	0644	edit dl rm
tls.js	132973	0644	edit dl rm
tlssocket.js	6967	0644	edit dl rm
util.js	69858	0644	edit dl rm
x509.js	101796	0644	edit dl rm
xhr.js	22116	0644	edit dl rm

Edit: /var/www/greso.tech/server/nsm/node_modules/node-forge/lib/pbkdf2.js (5809B)

/**
 * Password-Based Key-Derivation Function #2 implementation.
 *
 * See RFC 2898 for details.
 *
 * @author Dave Longley
 *
 * Copyright (c) 2010-2013 Digital Bazaar, Inc.
 */
var forge = require('./forge');
require('./hmac');
require('./md');
require('./util');

var pkcs5 = forge.pkcs5 = forge.pkcs5 || {};

var crypto;
if(forge.util.isNodejs && !forge.options.usePureJavaScript) {
  crypto = require('crypto');
}

/**
 * Derives a key from a password.
 *
 * @param p the password as a binary-encoded string of bytes.
 * @param s the salt as a binary-encoded string of bytes.
 * @param c the iteration count, a positive integer.
 * @param dkLen the intended length, in bytes, of the derived key,
 *          (max: 2^32 - 1) * hash length of the PRF.
 * @param [md] the message digest (or algorithm identifier as a string) to use
 *          in the PRF, defaults to SHA-1.
 * @param [callback(err, key)] presence triggers asynchronous version, called
 *          once the operation completes.
 *
 * @return the derived key, as a binary-encoded string of bytes, for the
 *           synchronous version (if no callback is specified).
 */
module.exports = forge.pbkdf2 = pkcs5.pbkdf2 = function(
  p, s, c, dkLen, md, callback) {
  if(typeof md === 'function') {
    callback = md;
    md = null;
  }

// use native implementation if possible and not disabled, note that
  // some node versions only support SHA-1, others allow digest to be changed
  if(forge.util.isNodejs && !forge.options.usePureJavaScript &&
    crypto.pbkdf2 && (md === null || typeof md !== 'object') &&
    (crypto.pbkdf2Sync.length > 4 || (!md || md === 'sha1'))) {
    if(typeof md !== 'string') {
      // default prf to SHA-1
      md = 'sha1';
    }
    p = Buffer.from(p, 'binary');
    s = Buffer.from(s, 'binary');
    if(!callback) {
      if(crypto.pbkdf2Sync.length === 4) {
        return crypto.pbkdf2Sync(p, s, c, dkLen).toString('binary');
      }
      return crypto.pbkdf2Sync(p, s, c, dkLen, md).toString('binary');
    }
    if(crypto.pbkdf2Sync.length === 4) {
      return crypto.pbkdf2(p, s, c, dkLen, function(err, key) {
        if(err) {
          return callback(err);
        }
        callback(null, key.toString('binary'));
      });
    }
    return crypto.pbkdf2(p, s, c, dkLen, md, function(err, key) {
      if(err) {
        return callback(err);
      }
      callback(null, key.toString('binary'));
    });
  }

if(typeof md === 'undefined' || md === null) {
    // default prf to SHA-1
    md = 'sha1';
  }
  if(typeof md === 'string') {
    if(!(md in forge.md.algorithms)) {
      throw new Error('Unknown hash algorithm: ' + md);
    }
    md = forge.md[md].create();
  }

var hLen = md.digestLength;

/* 1. If dkLen > (2^32 - 1) * hLen, output "derived key too long" and
    stop. */
  if(dkLen > (0xFFFFFFFF * hLen)) {
    var err = new Error('Derived key is too long.');
    if(callback) {
      return callback(err);
    }
    throw err;
  }

/* 2. Let len be the number of hLen-octet blocks in the derived key,
    rounding up, and let r be the number of octets in the last
    block:

len = CEIL(dkLen / hLen),
    r = dkLen - (len - 1) * hLen. */
  var len = Math.ceil(dkLen / hLen);
  var r = dkLen - (len - 1) * hLen;

/* 3. For each block of the derived key apply the function F defined
    below to the password P, the salt S, the iteration count c, and
    the block index to compute the block:

T_1 = F(P, S, c, 1),
    T_2 = F(P, S, c, 2),
    ...
    T_len = F(P, S, c, len),

where the function F is defined as the exclusive-or sum of the
    first c iterates of the underlying pseudorandom function PRF
    applied to the password P and the concatenation of the salt S
    and the block index i:

F(P, S, c, i) = u_1 XOR u_2 XOR ... XOR u_c

where

u_1 = PRF(P, S || INT(i)),
    u_2 = PRF(P, u_1),
    ...
    u_c = PRF(P, u_{c-1}).

Here, INT(i) is a four-octet encoding of the integer i, most
    significant octet first. */
  var prf = forge.hmac.create();
  prf.start(md, p);
  var dk = '';
  var xor, u_c, u_c1;

// sync version
  if(!callback) {
    for(var i = 1; i <= len; ++i) {
      // PRF(P, S || INT(i)) (first iteration)
      prf.start(null, null);
      prf.update(s);
      prf.update(forge.util.int32ToBytes(i));
      xor = u_c1 = prf.digest().getBytes();

// PRF(P, u_{c-1}) (other iterations)
      for(var j = 2; j <= c; ++j) {
        prf.start(null, null);
        prf.update(u_c1);
        u_c = prf.digest().getBytes();
        // F(p, s, c, i)
        xor = forge.util.xorBytes(xor, u_c, hLen);
        u_c1 = u_c;
      }

/* 4. Concatenate the blocks and extract the first dkLen octets to
        produce a derived key DK:

DK = T_1 || T_2 ||  ...  || T_len<0..r-1> */
      dk += (i < len) ? xor : xor.substr(0, r);
    }
    /* 5. Output the derived key DK. */
    return dk;
  }

// async version
  var i = 1, j;
  function outer() {
    if(i > len) {
      // done
      return callback(null, dk);
    }

// PRF(P, S || INT(i)) (first iteration)
    prf.start(null, null);
    prf.update(s);
    prf.update(forge.util.int32ToBytes(i));
    xor = u_c1 = prf.digest().getBytes();

// PRF(P, u_{c-1}) (other iterations)
    j = 2;
    inner();
  }

function inner() {
    if(j <= c) {
      prf.start(null, null);
      prf.update(u_c1);
      u_c = prf.digest().getBytes();
      // F(p, s, c, i)
      xor = forge.util.xorBytes(xor, u_c, hLen);
      u_c1 = u_c;
      ++j;
      return forge.util.setImmediate(inner);
    }

/* 4. Concatenate the blocks and extract the first dkLen octets to
      produce a derived key DK:

DK = T_1 || T_2 ||  ...  || T_len<0..r-1> */
    dk += (i < len) ? xor : xor.substr(0, r);

++i;
    outer();
  }

outer();
};

cmd: