1 files changed, 6 insertions, 9 deletions

diff --git a/frontend/beta/js/Clipperz/Crypto/BigInt_scoped.js b/frontend/beta/js/Clipperz/Crypto/BigInt_scoped.js
index e91e823..f91c7e9 100644
--- a/frontend/beta/js/Clipperz/Crypto/BigInt_scoped.js
+++ b/frontend/beta/js/Clipperz/Crypto/BigInt_scoped.js
@@ -1,120 +1,117 @@
 /*
 
 Copyright 2008-2011 Clipperz Srl
 
-This file is part of Clipperz's Javascript Crypto Library.
-Javascript Crypto Library provides web developers with an extensive
-and efficient set of cryptographic functions. The library aims to
-obtain maximum execution speed while preserving modularity and
-reusability.
+This file is part of Clipperz Community Edition.
+Clipperz Community Edition is an online password manager.
 For further information about its features and functionalities please
-refer to http://www.clipperz.com
+refer to http://www.clipperz.com.
 
-* Javascript Crypto Library is free software: you can redistribute
+* Clipperz Community Edition is free software: you can redistribute
   it and/or modify it under the terms of the GNU Affero General Public
   License as published by the Free Software Foundation, either version
   3 of the License, or (at your option) any later version.
 
-* Javascript Crypto Library is distributed in the hope that it will
+* Clipperz Community Edition is distributed in the hope that it will
   be useful, but WITHOUT ANY WARRANTY; without even the implied
   warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
   See the GNU Affero General Public License for more details.
 
 * You should have received a copy of the GNU Affero General Public
-  License along with Javascript Crypto Library.  If not, see
+  License along with Clipperz Community Edition.  If not, see
   <http://www.gnu.org/licenses/>.
 
 */
 
 if (typeof(Clipperz) == 'undefined') { Clipperz = {}; }
 if (typeof(Clipperz.Crypto) == 'undefined') { Clipperz.Crypto = {}; }
 
 if (typeof(Leemon) == 'undefined') { Leemon = {}; }
 if (typeof(Baird.Crypto) == 'undefined') { Baird.Crypto = {}; }
 if (typeof(Baird.Crypto.BigInt) == 'undefined') { Baird.Crypto.BigInt = {}; }
 
 
 //#############################################################################
         //Downloaded on March 05, 2007 from http://www.leemon.com/crypto/BigInt.js
 //#############################################################################
 
 ////////////////////////////////////////////////////////////////////////////////////////
 // Big Integer Library v. 5.0
 // Created 2000, last modified 2006
 // Leemon Baird
 // www.leemon.com
 //
 // This file is public domain.   You can use it for any purpose without restriction.
 // I do not guarantee that it is correct, so use it at your own risk.  If you use 
 // it for something interesting, I'd appreciate hearing about it.  If you find 
 // any bugs or make any improvements, I'd appreciate hearing about those too.
 // It would also be nice if my name and address were left in the comments.
 // But none of that is required.
 //
 // This code defines a bigInt library for arbitrary-precision integers.
 // A bigInt is an array of integers storing the value in chunks of bpe bits, 
 // little endian (buff[0] is the least significant word).
 // Negative bigInts are stored two's complement.
 // Some functions assume their parameters have at least one leading zero element.
 // Functions with an underscore at the end of the name have unpredictable behavior in case of overflow, 
 // so the caller must make sure overflow won't happen.
 // For each function where a parameter is modified, that same 
 // variable must not be used as another argument too.
 // So, you cannot square x by doing multMod_(x,x,n).  
 // You must use squareMod_(x,n) instead, or do y=dup(x); multMod_(x,y,n).
 //
 // These functions are designed to avoid frequent dynamic memory allocation in the inner loop.
 // For most functions, if it needs a BigInt as a local variable it will actually use
 // a global, and will only allocate to it when it's not the right size.  This ensures
 // that when a function is called repeatedly with same-sized parameters, it only allocates
 // memory on the first call.
 //
 // Note that for cryptographic purposes, the calls to Math.random() must 
 // be replaced with calls to a better pseudorandom number generator.
 //
 // In the following, "bigInt" means a bigInt with at least one leading zero element,
 // and "integer" means a nonnegative integer less than radix.  In some cases, integer 
 // can be negative.  Negative bigInts are 2s complement.
 // 
 // The following functions do not modify their inputs, but dynamically allocate memory every time they are called:
 // 
 // function bigInt2str(x,base)     //convert a bigInt into a string in a given base, from base 2 up to base 95
 // function dup(x)                 //returns a copy of bigInt x
 // function findPrimes(n)          //return array of all primes less than integer n
 // function int2bigInt(t,n,m)      //convert integer t to a bigInt with at least n bits and m array elements
 // function str2bigInt(s,b,n,m)    //convert string s in base b to a bigInt with at least n bits and m array elements
 // function trim(x,k)              //return a copy of x with exactly k leading zero elements
 //
 // The following functions do not modify their inputs, so there is never a problem with the result being too big:
 //
 // function bitSize(x)             //returns how many bits long the bigInt x is, not counting leading zeros
 // function equals(x,y)            //is the bigInt x equal to the bigint y?
 // function equalsInt(x,y)         //is bigint x equal to integer y?
 // function greater(x,y)           //is x>y?  (x and y are nonnegative bigInts)
 // function greaterShift(x,y,shift)//is (x <<(shift*bpe)) > y?
 // function isZero(x)              //is the bigInt x equal to zero?
 // function millerRabin(x,b)       //does one round of Miller-Rabin base integer b say that bigInt x is possibly prime (as opposed to definitely composite)?
 // function modInt(x,n)            //return x mod n for bigInt x and integer n.
 // function negative(x)            //is bigInt x negative?
 //
 // The following functions do not modify their inputs, but allocate memory and call functions with underscores
 //
 // function add(x,y)                //return (x+y) for bigInts x and y.  
 // function addInt(x,n)             //return (x+n) where x is a bigInt and n is an integer.
 // function expand(x,n)             //return a copy of x with at least n elements, adding leading zeros if needed
 // function inverseMod(x,n)         //return (x**(-1) mod n) for bigInts x and n.  If no inverse exists, it returns null
 // function mod(x,n)                //return a new bigInt equal to (x mod n) for bigInts x and n.
 // function mult(x,y)               //return x*y for bigInts x and y. This is faster when y<x.
 // function multMod(x,y,n)          //return (x*y mod n) for bigInts x,y,n.  For greater speed, let y<x.
 // function powMod(x,y,n)           //return (x**y mod n) where x,y,n are bigInts and ** is exponentiation.  0**0=1. Faster for odd n.
 // function randTruePrime(k)        //return a new, random, k-bit, true prime using Maurer's algorithm.
 // function sub(x,y)                //return (x-y) for bigInts x and y.  Negative answers will be 2s complement
 //
 // The following functions write a bigInt result to one of the parameters, but
 // the result is never bigger than the original, so there can't be overflow problems:
 //
 // function divInt_(x,n)            //do x=floor(x/n) for bigInt x and integer n, and return the remainder
 // function GCD_(x,y)               //set x to the greatest common divisor of bigInts x and y, (y is destroyed).
 // function halve_(x)               //do x=floor(|x|/2)*sgn(x) for bigInt x in 2's complement
 // function mod_(x,n)               //do x=x mod n for bigInts x and n.
 // function rightShift_(x,n)        //right shift bigInt x by n bits.  0 <= n < bpe.