View difference between Paste ID: EdSbT7WN and tkfNM030

 /**
- * Title:		RXCipher
+ *  XORShiftPlus "non-linear" PRNG
- * Description:	Simple and relatively quick stream cipher algorithm - JavaScript implementation
+ *  Author: k98kurz (@gmail)
- * Author:		Jonathan Voss
+ *  License: MIT
- * Date:		8/7/2012 (v1.0); 12/16/2014 (v2.0); 11/19/2015 (v3.0)
+ *  Date: 2020-09-07
- * Version:		3.2
+ *  Description: Based upon the xorshift128+ generator, one of the fastest generators passing BigCrush.
- * Namespace:	github.com/k98kurz
+ *  Methods:
- * License:		MIT
+ *      next(n)         returns Uint32Array of n random numbers
  *      nextHex(n)      returns Array of n hexidecimal numbers
  *      bytes(n)        returns Uint8Array of n random bytes
  *      bytesHex(n)     returns Array of n random bytes in hexidecimal
- *		function enc (t, k) { return (t+k>255 ? t+k-256 : t+k)^k; }
+ *      hex(n)          returns hexidecimal string of n bytes
- *		function dec (c, k) { return (c^k)-k<0 ? (c^k)-k+256 : (c^k)-k; }
+ *  Note: This generates with higher periodicity and better random distribution than the linear XORShift.
  */
 class XORShiftPlus {
   #booted = false;
- * Methods:
+  #x;
- *		encrypt ( plaintext )
+  #y;
- *			encrypts plaintext with key stream derived from skey
+  #z;
- *		decrypt ( ciphertext)
+  #w;
- *			decrypts ciphertext with key stream derived from skey
+
- *		getKeyStream ()
+  constructor (seed) {
- *			returns a KeyStream for PRNG generation
+    this.#x = new Uint32Array(1);
- *		reset ()
+    this.#y = new Uint32Array(1);
- *			resets the internal KeyStream
+    this.#z = new Uint32Array(1);
     this.#w = new Uint32Array(1);
     this.#x[0] = seed ? seed|0 : 317973455;
- *	2.0 (12/16/2014): added pseudo-random key stream; dropped automatic hex conversion of ciphertext
+    this.#y[0] = this.#x[0]<<362436069;
- *	2.1 (12/29/2014): changed default seed value for XORShiftPlus PRNG
+    this.#z[0] = this.#y[0]+this.#x[0];
- *	2.2 (11/18/2015): converts to/from UTF-8 encoding; new keystream uses multiple csprngs and XORs the key with csprng values
+    this.#w[0] = this.#z[0]^this.#x[0]+this.#y[0];
- *	2.3 (11/18/2015): added explicit IV support; made base RXEncrypt & RXDecrypt use a Uint8 byte
+  }
- *	3.0 (11/19/2015): changed KeyStream to use an internally mixed 64 byte state; improved IV handling; improved performance
+
- *	3.1 (02/01/2016): updated KeyStream to use improved/fixed XORShiftPlus class; encrypt/decrypt use hex; encryptRaw/decryptRaw use Uint8Array
+  #next () {
- *	3.2 (03/08/2016): bug fix: getKeyStream now returns actual KeyStream; reset method returns this
+    let t = new Uint32Array(1);
     t[0] = this.#x[0]^(this.#x[0]<<11);
     this.#x[0] = this.#y[0];
-function RXCipher (key, iv) {
+    this.#y[0] = this.#z[0];
-	var skey, siv = iv, stream;
+    this.#z[0] = this.#w[0];
-	skey = (typeof key == 'object' && key instanceof Uint8Array) ? fromUTF8Array(key) : key;
+    this.#w[0] = this.#w[0]^(this.#w[0]>>19)^(t[0]^(t[0]>>8));
-	siv = (typeof iv == 'object' && iv instanceof Uint8Array) ? fromUTF8Array(iv) : iv;
+    return this.#w[0]+this.#y[0];
-	stream = new KeyStream(skey, siv);
+  }
 
-	function encrypt (plaintext) {
+  #boot () {
-		var ciphertext = new Uint8Array(plaintext.length), g, t, k, key;
+    // if not booted, discard the first numbers as they are somewhat predictable
-		key = stream.get(plaintext.length);
+    if (this.#booted)
-		for (var i = 0, ij = plaintext.length; i < ij; ++i) {
+      return;
-			ciphertext[i] = plaintext[i] ^ key[i];
+    for (let i=0, n=this.#next(), j=this.#next()%256; i<=j; this.#next(), ++i);
-		}
+    this.#booted = true;
-		return ciphertext;
+  }
-	}
+
   next (n, option) {
-	function decrypt (ciphertext) {
+    this.#boot();
-		var plaintext = new Uint8Array(ciphertext.length), g, c, k, key;
+    n = (n === undefined || typeof n !== 'number') ? 1 : n;
-		key = stream.get(ciphertext.length);
+    let t; n |= 0; n = n>0 ? n : 1;
-		for (var i = 0, ij = ciphertext.length; i < ij; ++i) {
+    option = (option === undefined || typeof n !== 'number') ? 0 : option;
-			plaintext[i] = ciphertext[i] ^ key[i];
+
-		}
+    // redundant code, but improved performance
-		return plaintext;
+    switch (option) {
-	}
+      // nextHex
       case 1:
-	this.encrypt = function (plaintext) {
+        t = [];
-		var ciphertext = encrypt(toUTF8Array(plaintext));
+        for (let i=0, il=n; i<il; t[i++] = this.#next().toString(16));
-		return toHex(ciphertext);
+        break;
-	};
+      // bytes
       case 2:
-	this.decrypt = function (ciphertext) {
+        t = new Uint8Array(n);
-		var plaintext = decrypt(fromHex(ciphertext));
+        for (let i=0, il=n; i<il; t[i++] = this.#next());
-		return fromUTF8Array(plaintext);
+        break;
-	};
+      // bytesHex
       case 3:
-	this.encryptRaw = function (plaintext) {
+        t = [];
-		return encrypt(toUTF8Array(plaintext));
+        for (let i=0, il=n; i<il; t[i] = (this.#next()%256).toString(16), t[i] = t[i].length%2 ? '0'+t[i] : t[i], ++i);
-	};
+        break;
       // hex
-	this.decryptRaw = function (ciphertext) {
+      case 4:
-		return fromUTF8Array(decrypt(ciphertext));
+        t = [];
-	};
+        for (let i=0, il=n; i<il; t[i] = (this.#next()%256).toString(16), t[i] = t[i].length%2 ? '0'+t[i] : t[i], ++i);
         t = t.join('');
-	this.getKeyStream = function () {
+        break;
-		return new KeyStream(skey, siv);
+      // next
-	};
+      default:
         t = new Uint32Array(n);
-	this.reset = function () {
+        for (let i=0, il=n; i<il; t[i++] = this.#next());
-		stream = new KeyStream (skey, siv);
+    }
-		return this;
+    return t;
-	};
+  };
 
-	function RXEncrypt (t, k, workingByte) {
+  nextHex (n) { return this.next(n, 1); };
-		workingByte[0] = (t+k);
+
-		return workingByte[0]^k;
+  bytes (n) { return this.next(n, 2); };
-	}
+
   bytesHex (n) { return this.next(n, 3); };
-	function RXDecrypt (c, k, workingByte) {
+
-		workingByte[0] = (c^k) - k;
+  hex (n) { return this.next(n, 4); };
-		return workingByte[0];
+}
-	}
+
 /**
-	/**
+ *  KeyStream
-	 *  Class: XORShiftPlus: "non-linear" PRNG
+ *  Author: k98kurz
-	 *  Description: Based upon the xorshift128+ generator, one of the fastest generators passing BigCrush.
+ *  License: MIT
-	 *	Methods:
+ *  Date: 2020-09-07
-	 *		next(n)			returns Uint32Array of n random numbers
+ *  Description: Takes a key and iv, mixes them, and uses the result to seed several XORShiftPlus PRNGs.
-	 *		nextHex(n)		returns Array of n hexidecimal numbers
+ *  Dependency: XORShiftPlus
-	 *		bytes(n)		returns Uint8Array of n random bytes
+ *  Methods:
-	 *		bytesHex(n)		returns Array of n random bytes in hexidecimal
+
-	 *		hex(n)			returns hexidecimal string of n bytes
+ */
-	 *	Note: This generates with higher periodicity and better random distribution than the linear XORShift
+class KeyStream {
-	 */
+  #csprngs;
-	function XORShiftPlus (seed) {
+  #state;
-		var x = new Uint32Array(1), y = new Uint32Array(1), z = new Uint32Array(1), w = new Uint32Array(1);
+  #keyLength;
-		x[0] = seed ? seed|0 : 317973455;
+  #keyIndex;
-		y[0] = x[0]<<362436069;
+  #stateIndex;
-		z[0] = y[0]+x[0];
+  #workingByte = new Uint8Array(1);
-		w[0] = z[0]^x[0]+y[0];
+  #key;
   #iv;
-		function next () {
+
-			var t = new Uint32Array(1);
+  constructor (key, iv) {
-			t[0] = x[0]^(x<<11);
+    if (typeof key == 'undefined')
-			x[0] = y[0]; y[0] = z[0]; z[0] = w[0];
+      throw new Error('KeyStream: key required');
-			w[0] = w[0]^(w[0]>>19)^(t[0]^(t[0]>>8));
+    if (typeof key == 'object' && key instanceof Array)
-			return w[0]+y[0];
+      key = (typeof key[0] == 'number') ? new Uint8Array(key) : key.join('');
-		}
+    if (typeof key == 'string')
       key = KeyStream.toUTF8Array(key);
-		// discard the first numbers as they are somewhat predictable
+    if (typeof key !== 'object' && !(key instanceof Uint8Array))
-		for (var i=0, n=next(), j=next()%256; i<=j; next(), ++i);
+      throw new Error('KeyStream: expected key of type String, Array, or Uint8Array');
 
-		this.next = function (n, option) {
+    if (typeof iv == 'undefined')
-			if (typeof n == 'undefined' || typeof n !== 'number')
+      throw new Error('KeyStream: iv required');
-				var n = 1;
+    if (typeof iv == 'object' && iv instanceof Array)
-			var t; n |= 0; n = n>0 ? n : 1;
+      iv = (typeof iv[0] == 'number') ? new Uint8Array(iv) : iv.join('');
-			if (typeof option == 'undefined' || typeof n !== 'number')
+    if (typeof iv == 'string')
-				var option = 0;
+      iv = KeyStream.toUTF8Array(iv);
     if (!(iv instanceof Uint8Array) || iv.length == 0)
-			// redundant code, but improved performance
+      throw new Error('KeyStream: expected iv of type String, Array or Uint8Array');
-			switch (option) {
+
-				// nextHex
+    // set the key and iv private properties
-				case 1:
+    this.#key = key;
-					t = [];
+    this.#iv = iv;
-					for (var i=0, il=n; i<il; t[i++] = next().toString(16));
+
-					break;
+    // initialize some internal state
-				// bytes
+    this.#csprngs = []; this.#keyLength = this.#key.length; this.#keyIndex = 0; this.#state = new Uint8Array(64); this.#stateIndex = 0;
-				case 2:
+    for (let i = 0; i < this.#keyLength; i++) {
-					t = new Uint8Array(n);
+      this.#csprngs[i] = new XORShiftPlus(this.#key[i]);
-					for (var i=0, il=n; i<il; t[i++] = next());
+    }
-					break;
+    for (let i = 0, j = 0, c = 0; c < this.#keyLength * 4; ++i, ++j, ++c) {
-				// bytesHex
+      j = (j == this.#keyLength) ? 0 : j;
-				case 3:
+      i = (i == this.#iv.length) ? 0 : i;
-					t = [];
+      this.#key[j] = this.#key[j] + this.#iv[i];
-					for (var i=0, il=n; i<il; t[i] = (next()%256).toString(16), t[i] = t[i].length%2 ? '0'+t[i] : t[i], ++i);
+    }
-					break;
+    for (let i = 0, j = 0; i < 64; ++i, ++j) {
-				// hex
+      j = (j == this.#keyLength) ? 0 : j;
-				case 4:
+      this.#state[i] = this.#csprngs[j].next()[0];
-					t = [];
+    }
-					for (var i=0, il=n; i<il; t[i] = (next()%256).toString(16), t[i] = t[i].length%2 ? '0'+t[i] : t[i], ++i);
+    for (let i = 63, j = 0, t, m; i >= 0; --i, ++j) {
-					t = t.join('');
+      j = (j == this.#keyLength) ? 0 : j;
-					break;
+      t = (this.#csprngs[j].next()[0] + this.#key[j]) % 64;
-				// next
+      m = this.#state[t];
-				default:
+      this.#state[t] = KeyStream.RXEncrypt(this.#state[i], this.#key[j], this.#workingByte);
-					t = new Uint32Array(n);
+      this.#state[i] = KeyStream.RXDecrypt(m, t, this.#workingByte);
-					for (var i=0, il=n; i<il; t[i++] = next());
+    }
-			}
+  }
-			return t;
+
-		};
+  #next () {
     this.#keyIndex = (++this.#keyIndex == this.#keyLength) ? 0 : this.#keyIndex;
-		this.nextHex = function (n) { return this.next(n, 1); };
+    this.#stateIndex = (++this.#stateIndex == 64) ? 0 : this.#stateIndex;
     this.#state[this.#stateIndex] = KeyStream.RXEncrypt(this.#state[this.#stateIndex], this.#key[this.#keyIndex], this.#workingByte);
-		this.bytes = function (n) { return this.next(n, 2); };
+    this.#state[63 - this.#stateIndex] = KeyStream.RXEncrypt(this.#state[63 - this.#stateIndex], this.#state[this.#stateIndex], this.#workingByte);
     return this.#state[this.#stateIndex];
-		this.bytesHex = function (n) { return this.next(n, 3); };
+  }
 
-		this.hex = function (n) { return this.next(n, 4); };
+  getBytes (nBytes) {
-	}
+    nBytes = (nBytes|0 ? nBytes|0 : (parseInt(nBytes) ? parseInt(nBytes) : 1));
     let k = new Uint8Array(nBytes);
-	function KeyStream (key, iv) {
+    for (let o=0; o<nBytes; ++o) {
-		var csprngs, state, keyLength, keyIndex, stateIndex, workingByte = new Uint8Array(1), t, j;
+      k[o] = this.#next();
     }
-		if (typeof key == 'undefined')
+    return k;
-			throw new Error('RXCipher@KeyStream: key required');
+  }
-		if (typeof key == 'object' && key instanceof Array)
+
-			key = (typeof key[0] == 'number') ? new Uint8Array(key) : key.join('');
+  static RXEncrypt (t, k, workingByte) {
-		if (typeof key == 'string')
+    workingByte[0] = (t+k);
-			key = toUTF8Array(key);
+    return workingByte[0]^k;
-		if (typeof key !== 'object' && !(key instanceof Uint8Array))
+  }
-			throw new Error('RXCipher@KeyStream: expected key of type String, Array, or Uint8Array');
+
   static RXDecrypt (c, k, workingByte) {
-		if (typeof iv == 'undefined')
+    workingByte[0] = (c^k) - k;
-			iv = '0123456';
+    return workingByte[0];
-		if (typeof iv == 'object' && iv instanceof Array)
+  }
-			iv = (typeof iv[0] == 'number') ? new Uint8Array(iv) : iv.join('');
+
-		if (typeof iv == 'string')
+  // convert from JavaScript's internal UTF-16 strings to UTF-8
-			iv = toUTF8Array(iv);
+  // ripped from http://stackoverflow.com/a/18729931
-		if (!(iv instanceof Uint8Array) || iv.length == 0)
+  // credit: Joni Salonen
-			throw new Error('RXCipher@KeyStream: expected iv of type String, Array or Uint8Array, or undefined');
+  static toUTF8Array(str) {
     let utf8 = [], charcode;
-		// initialize some internal state
+    for (let i=0; i < str.length; i++) {
-		csprngs = []; keyLength = key.length; keyIndex = 0; state = new Uint8Array(64); stateIndex = 0;
+      charcode = str.charCodeAt(i);
-		for (var i = 0; i < keyLength; i++) {
+      if (charcode < 0x80) utf8.push(charcode);
-			csprngs[i] = new XORShiftPlus(key[i]);
+      else if (charcode < 0x800) {
-		}
+        utf8.push(0xc0 | (charcode >> 6),
-		for (var i = 0, j = 0, c = 0; c < keyLength * 4; ++i, ++j, ++c) {
+            0x80 | (charcode & 0x3f));
-			j = (j == keyLength) ? 0 : j;
+      } else if (charcode < 0xd800 || charcode >= 0xe000) {
-			i = (i == iv.length) ? 0 : i;
+        utf8.push(0xe0 | (charcode >> 12),
-			key[j] = key[j] + iv[i];
+            0x80 | ((charcode>>6) & 0x3f),
-		}
+            0x80 | (charcode & 0x3f));
-		for (var i = 0, j = 0; i < 64; ++i, ++j) {
+      } else { // surrogate pair
-			j = (j == keyLength) ? 0 : j;
+        i++;
-			state[i] = csprngs[j].next()[0];
+        // UTF-16 encodes 0x10000-0x10FFFF by
-		}
+        // subtracting 0x10000 and splitting the
-		for (var i = 63, j = 0, t, m; i >= 0; --i, ++j) {
+        // 20 bits of 0x0-0xFFFFF into two halves
-			j = (j == keyLength) ? 0 : j;
+        charcode = 0x10000 + (((charcode & 0x3ff)<<10)
-			t = (csprngs[j].next()[0]+key[j])%64;
+            | (str.charCodeAt(i) & 0x3ff));
-			m = state[t];
+        utf8.push(0xf0 | (charcode >>18),
-			state[t] = RXEncrypt(state[i], key[j], workingByte);
+            0x80 | ((charcode>>12) & 0x3f),
-			state[i] = RXDecrypt(m, t, workingByte);
+            0x80 | ((charcode>>6) & 0x3f),
-		}
+            0x80 | (charcode & 0x3f));
       }
-		function next () {
+    }
-			keyIndex = (++keyIndex == keyLength) ? 0 : keyIndex;
+    return new Uint8Array(utf8);
-			stateIndex = (++stateIndex == 64) ? 0 : stateIndex;
+  }
-			state[stateIndex] = RXEncrypt(state[stateIndex], key[keyIndex], workingByte);
+}
-			state[63 - stateIndex] = RXEncrypt(state[63 - stateIndex], state[stateIndex], workingByte);
+
-			return state[stateIndex];
+
-		}
+ * Title:    RXCipher
  * Description:    Simple and relatively quick stream cipher algorithm - JavaScript implementation
-		this.get = function (nBytes) {
+ * Author:    Jonathan Voss
-			nBytes = (nBytes|0 ? nBytes|0 : (parseInt(nBytes) ? parseInt(nBytes) : 1));
+ * Date:    8/7/2012 (v1.0); 12/16/2014 (v2.0); 11/19/2015 (v3.0); 09/07/2020 (4.0)
-			var k = new Uint8Array(nBytes);
+ * Version:    4.0
-			for (var o=0; o<nBytes; ++o) {
+ * Namespace:    pastebin.com/u/k98kurz; github.com/k98kurz
-				k[o] = next();
+ * License:    ISC
-			}
+
-			return k;
+
-		};
+
-	}
+ *    function enc (t, k) { return (t+k>255 ? t+k-256 : t+k)^k; }
  *    function dec (c, k) { return (c^k)-k<0 ? (c^k)-k+256 : (c^k)-k; }
-	// convert from JavaScript's internal UTF-16 strings to UTF-8
+
-	// ripped from http://stackoverflow.com/a/18729931
+
-	// credit: Joni Salonen
+
-	function toUTF8Array(str) {
+ * Instance Methods:
-		var utf8 = [], charcode;
+ *    encrypt ( plaintext )
-		for (var i=0; i < str.length; i++) {
+ *      encrypts plaintext with key stream derived from skey
-			charcode = str.charCodeAt(i);
+ *    decrypt ( ciphertext)
-			if (charcode < 0x80) utf8.push(charcode);
+ *      decrypts ciphertext with key stream derived from skey
-			else if (charcode < 0x800) {
+ *    getKeyStream ()
-				utf8.push(0xc0 | (charcode >> 6),
+ *      returns a KeyStream for PRNG generation
-						0x80 | (charcode & 0x3f));
+ *    reset ()
-			} else if (charcode < 0xd800 || charcode >= 0xe000) {
+ *      resets the internal KeyStream
-				utf8.push(0xe0 | (charcode >> 12),
+ * Static Methods:
-						0x80 | ((charcode>>6) & 0x3f),
+ *    rxencrypt ( key, plaintext, optional iv )
-						0x80 | (charcode & 0x3f));
+ *      creates ephemeral RXCipher instance, calls encrypt, and returns {iv}.{ciphertext}
-			} else { // surrogate pair
+ *    rxdecrypt ( key, ciphertextString )
-				i++;
+ *      decrypts rxencrypt output
-				// UTF-16 encodes 0x10000-0x10FFFF by
+
-				// subtracting 0x10000 and splitting the
+
-				// 20 bits of 0x0-0xFFFFF into two halves
+ *  2.0 (12/16/2014): added pseudo-random key stream; dropped automatic hex conversion of ciphertext
-				charcode = 0x10000 + (((charcode & 0x3ff)<<10)
+ *  2.1 (12/29/2014): changed default seed value for XORShiftPlus PRNG
-						| (str.charCodeAt(i) & 0x3ff));
+ *  2.2 (11/18/2015): converts to/from UTF-8 encoding; new keystream uses multiple csprngs and XORs the key with csprng values
-				utf8.push(0xf0 | (charcode >>18),
+ *  2.3 (11/18/2015): added explicit IV support; made base RXEncrypt & RXDecrypt use a Uint8 byte
-						0x80 | ((charcode>>12) & 0x3f),
+ *  3.0 (11/19/2015): changed KeyStream to use an internally mixed 64 byte state; improved IV handling; improved performance
-						0x80 | ((charcode>>6) & 0x3f),
+ *  3.1 (02/01/2016): updated KeyStream to use improved/fixed XORShiftPlus class; encrypt/decrypt use hex; encryptRaw/decryptRaw use Uint8Array
-						0x80 | (charcode & 0x3f));
+ *  3.2 (03/08/2016): bug fix: getKeyStream now returns actual KeyStream; reset method returns this
-			}
+ *  4.0 (09/07/2020): converted to es6 class; added static helper methods
-		}
+
-		return new Uint8Array(utf8);
+class RXCipher {
-	}
+  #key;
   #iv;
-	// convert from UTF-8 to JavaScript's internal UTF-16 strings
+  #stream;
-	// ripped from https://github.com/coolaj86/TextEncoderLite
+
-	// credit: AJ ONeal (coolaj86) && Feross Aboukhadijeh (feross)
+  constructor (key, iv) {
-	function fromUTF8Array (arr) {
+    this.#key = (typeof key == 'object' && key instanceof Uint8Array) ? RXCipher.fromUTF8Array(key) : key;
-		var utf16 = '', tmp = '';
+    this.#iv = (typeof iv == 'object' && iv instanceof Uint8Array) ? RXCipher.fromUTF8Array(iv) : iv;
-		for (var i = 0, ij = arr.length; i < ij; i++) {
+    this.#stream = new KeyStream(this.#key, this.#iv);
-			if (arr[i] <= 0x7F) {
+  }
-				utf16 += decodeUtf8Char(tmp) + String.fromCharCode(arr[i]);
+
-				tmp = '';
+  #encrypt (plaintext) {
-			} else {
+    let ciphertext = new Uint8Array(plaintext.length);
-				tmp += '%' + arr[i].toString(16);
+    let key = this.#stream.getBytes(plaintext.length);
-			}
+    for (let i = 0, ij = plaintext.length; i < ij; ++i) {
-		};
+      ciphertext[i] = plaintext[i] ^ key[i];
     }
-		return utf16 + decodeUtf8Char(tmp);
+    return ciphertext;
-	}
+  }
 
-	function decodeUtf8Char (str) {
+  #decrypt (ciphertext) {
-		try {
+    let plaintext = new Uint8Array(ciphertext.length);
-			return decodeURIComponent(str);
+    let key = this.#stream.getBytes(ciphertext.length);
-		} catch (err) {
+    for (let i = 0, ij = ciphertext.length; i < ij; ++i) {
-			return String.fromCharCode(0xFFFD); // UTF 8 invalid char
+      plaintext[i] = ciphertext[i] ^ key[i];
-		}
+    }
-	}
+    return plaintext;
   }
-	function toHex (raw) {
+
-		var t = [];
+  encrypt (plaintext) {
-		for (var i=0, il=raw.length; i<il; ++i) {
+    let ciphertext = this.#encrypt(RXCipher.toUTF8Array(plaintext));
-		    t[i] = raw[i].toString(16); t[i] = t[i].length%2 ? '0'+t[i] : t[i];
+    return RXCipher.toHex(ciphertext);
-		}
+  }
-		return t.join('');
+
-	}
+  decrypt (ciphertext) {
     let plaintext = this.#decrypt(RXCipher.fromHex(ciphertext));
-	function fromHex (hex) {
+    return RXCipher.fromUTF8Array(plaintext);
-		var t = new Uint8Array(hex.length/2);
+  }
-		for (var i=0, j=0, il=hex.length; i<il; ++i, ++j) {
+
-		    t[j] = parseInt(hex[i] + hex[++i], 16);
+  encryptRaw (plaintext) {
-		}
+    return this.#encrypt(RXCipher.toUTF8Array(plaintext));
-		return t;
+  }
-	}
+
-};
+  decryptRaw (ciphertext) {
     return RXCipher.fromUTF8Array(this.#decrypt(ciphertext));
   }
 
   static rxencrypt (key, plaintext, iv) {
     if (iv === undefined)
       iv = (new XORShiftPlus(Date.now())).bytes(8);
 
     let rxc = new RXCipher(key, iv);
     let ciphertext = rxc.encrypt(plaintext);
 
     return ciphertext + '.' + RXCipher.toHex(iv);
   }
 
   static rxdecrypt (key, ciphertextString) {
     let ctSplit = ciphertextString.split('.');
     let ciphertext = ctSplit[0];
     let iv = RXCipher.fromHex(ctSplit[1]);
     let rxc = new RXCipher(key, iv);
 
     return rxc.decrypt(ciphertext);
   }
 
   getKeyStream () {
     return new KeyStream(this.#key, this.#iv);
   }
 
   reset () {
     this.#stream = new KeyStream (this.#key, this.#iv);
     return this;
   }
 
   static RXEncrypt (t, k, workingByte) {
     workingByte[0] = (t+k);
     return workingByte[0]^k;
   }
 
   static RXDecrypt (c, k, workingByte) {
     workingByte[0] = (c^k) - k;
     return workingByte[0];
   }
 
   // convert from JavaScript's internal UTF-16 strings to UTF-8
   // ripped from http://stackoverflow.com/a/18729931
   // credit: Joni Salonen
   static toUTF8Array(str) {
     let utf8 = [], charcode;
     for (let i=0; i < str.length; i++) {
       charcode = str.charCodeAt(i);
       if (charcode < 0x80) utf8.push(charcode);
       else if (charcode < 0x800) {
         utf8.push(0xc0 | (charcode >> 6),
             0x80 | (charcode & 0x3f));
       } else if (charcode < 0xd800 || charcode >= 0xe000) {
         utf8.push(0xe0 | (charcode >> 12),
             0x80 | ((charcode>>6) & 0x3f),
             0x80 | (charcode & 0x3f));
       } else { // surrogate pair
         i++;
         // UTF-16 encodes 0x10000-0x10FFFF by
         // subtracting 0x10000 and splitting the
         // 20 bits of 0x0-0xFFFFF into two halves
         charcode = 0x10000 + (((charcode & 0x3ff)<<10)
             | (str.charCodeAt(i) & 0x3ff));
         utf8.push(0xf0 | (charcode >>18),
             0x80 | ((charcode>>12) & 0x3f),
             0x80 | ((charcode>>6) & 0x3f),
             0x80 | (charcode & 0x3f));
       }
     }
     return new Uint8Array(utf8);
   }
 
   // convert from UTF-8 to JavaScript's internal UTF-16 strings
   // ripped from https://github.com/coolaj86/TextEncoderLite
   // credit: AJ ONeal (coolaj86) && Feross Aboukhadijeh (feross)
   static fromUTF8Array (arr) {
     let utf16 = '', tmp = '';
     for (let i = 0, ij = arr.length; i < ij; i++) {
       if (arr[i] <= 0x7F) {
         utf16 += RXCipher.decodeUtf8Char(tmp) + String.fromCharCode(arr[i]);
         tmp = '';
       } else {
         tmp += '%' + arr[i].toString(16);
       }
     }
 
     return utf16 + RXCipher.decodeUtf8Char(tmp);
   }
 
   static decodeUtf8Char (str) {
     try {
       return decodeURIComponent(str);
     } catch (err) {
       return String.fromCharCode(0xFFFD); // UTF 8 invalid char
     }
   }
 
   static toHex (raw) {
     let t = [];
     for (let i=0, il=raw.length; i<il; ++i) {
         t[i] = raw[i].toString(16); t[i] = t[i].length%2 ? '0'+t[i] : t[i];
     }
     return t.join('');
   }
 
   static fromHex (hex) {
     let t = new Uint8Array(hex.length/2);
     for (let i=0, j=0, il=hex.length; i<il; ++i, ++j) {
         t[j] = parseInt(hex[i] + hex[++i], 16);
     }
     return t;
   }
 }