offline.js.uncompressed.js

这是一个ajax的例子大家好好的看看就是一个鱼眼的效果

		 *
		 *	 applies Nr rounds (10/12/14) using key schedule w for 'add round key' stage
		 *
		 *	 returns byte-array encrypted value (16 bytes)
		 */
		function Cipher(input, w) {	   // main Cipher function [§5.1]
		  var Nb = 4;				// block size (in words): no of columns in state (fixed at 4 for AES)
		  var Nr = w.length/Nb - 1; // no of rounds: 10/12/14 for 128/192/256-bit keys

		  var state = [[],[],[],[]];  // initialise 4xNb byte-array 'state' with input [§3.4]
		  for (var i=0; i<4*Nb; i++) state[i%4][Math.floor(i/4)] = input[i];

		  state = AddRoundKey(state, w, 0, Nb);

		  for (var round=1; round<Nr; round++) {
			state = SubBytes(state, Nb);
			state = ShiftRows(state, Nb);
			state = MixColumns(state, Nb);
			state = AddRoundKey(state, w, round, Nb);
		  }

		  state = SubBytes(state, Nb);
		  state = ShiftRows(state, Nb);
		  state = AddRoundKey(state, w, Nr, Nb);

		  var output = new Array(4*Nb);	 // convert state to 1-d array before returning [§3.4]
		  for (var i=0; i<4*Nb; i++) output[i] = state[i%4][Math.floor(i/4)];
		  return output;
		}


		function SubBytes(s, Nb) {	  // apply SBox to state S [§5.1.1]
		  for (var r=0; r<4; r++) {
			for (var c=0; c<Nb; c++) s[r][c] = Sbox[s[r][c]];
		  }
		  return s;
		}


		function ShiftRows(s, Nb) {	   // shift row r of state S left by r bytes [§5.1.2]
		  var t = new Array(4);
		  for (var r=1; r<4; r++) {
			for (var c=0; c<4; c++) t[c] = s[r][(c+r)%Nb];	// shift into temp copy
			for (var c=0; c<4; c++) s[r][c] = t[c];			// and copy back
		  }			 // note that this will work for Nb=4,5,6, but not 7,8 (always 4 for AES):
		  return s;	 // see fp.gladman.plus.com/cryptography_technology/rijndael/aes.spec.311.pdf 
		}


		function MixColumns(s, Nb) {   // combine bytes of each col of state S [§5.1.3]
		  for (var c=0; c<4; c++) {
			var a = new Array(4);  // 'a' is a copy of the current column from 's'
			var b = new Array(4);  // 'b' is a•{02} in GF(2^8)
			for (var i=0; i<4; i++) {
			  a[i] = s[i][c];
			  b[i] = s[i][c]&0x80 ? s[i][c]<<1 ^ 0x011b : s[i][c]<<1;
			}
			// a[n] ^ b[n] is a•{03} in GF(2^8)
			s[0][c] = b[0] ^ a[1] ^ b[1] ^ a[2] ^ a[3]; // 2*a0 + 3*a1 + a2 + a3
			s[1][c] = a[0] ^ b[1] ^ a[2] ^ b[2] ^ a[3]; // a0 * 2*a1 + 3*a2 + a3
			s[2][c] = a[0] ^ a[1] ^ b[2] ^ a[3] ^ b[3]; // a0 + a1 + 2*a2 + 3*a3
			s[3][c] = a[0] ^ b[0] ^ a[1] ^ a[2] ^ b[3]; // 3*a0 + a1 + a2 + 2*a3
		  }
		  return s;
		}


		function AddRoundKey(state, w, rnd, Nb) {  // xor Round Key into state S [§5.1.4]
		  for (var r=0; r<4; r++) {
			for (var c=0; c<Nb; c++) state[r][c] ^= w[rnd*4+c][r];
		  }
		  return state;
		}


		function KeyExpansion(key) {  // generate Key Schedule (byte-array Nr+1 x Nb) from Key [§5.2]
		  var Nb = 4;			 // block size (in words): no of columns in state (fixed at 4 for AES)
		  var Nk = key.length/4	 // key length (in words): 4/6/8 for 128/192/256-bit keys
		  var Nr = Nk + 6;		 // no of rounds: 10/12/14 for 128/192/256-bit keys

		  var w = new Array(Nb*(Nr+1));
		  var temp = new Array(4);

		  for (var i=0; i<Nk; i++) {
			var r = [key[4*i], key[4*i+1], key[4*i+2], key[4*i+3]];
			w[i] = r;
		  }

		  for (var i=Nk; i<(Nb*(Nr+1)); i++) {
			w[i] = new Array(4);
			for (var t=0; t<4; t++) temp[t] = w[i-1][t];
			if (i % Nk == 0) {
			  temp = SubWord(RotWord(temp));
			  for (var t=0; t<4; t++) temp[t] ^= Rcon[i/Nk][t];
			} else if (Nk > 6 && i%Nk == 4) {
			  temp = SubWord(temp);
			}
			for (var t=0; t<4; t++) w[i][t] = w[i-Nk][t] ^ temp[t];
		  }

		  return w;
		}

		function SubWord(w) {	 // apply SBox to 4-byte word w
		  for (var i=0; i<4; i++) w[i] = Sbox[w[i]];
		  return w;
		}

		function RotWord(w) {	 // rotate 4-byte word w left by one byte
		  w[4] = w[0];
		  for (var i=0; i<4; i++) w[i] = w[i+1];
		  return w;
		}

		/* - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -  */

		/* 
		 * Use AES to encrypt 'plaintext' with 'password' using 'nBits' key, in 'Counter' mode of operation
		 *							 - see http://csrc.nist.gov/publications/nistpubs/800-38a/sp800-38a.pdf
		 *	 for each block
		 *	 - outputblock = cipher(counter, key)
		 *	 - cipherblock = plaintext xor outputblock
		 */
		function AESEncryptCtr(plaintext, password, nBits) {
		  if (!(nBits==128 || nBits==192 || nBits==256)) return '';	 // standard allows 128/192/256 bit keys
	
		  // for this example script, generate the key by applying Cipher to 1st 16/24/32 chars of password; 
		  // for real-world applications, a more secure approach would be to hash the password e.g. with SHA-1
		  var nBytes = nBits/8;	 // no bytes in key
		  var pwBytes = new Array(nBytes);
		  for (var i=0; i<nBytes; i++) pwBytes[i] = password.charCodeAt(i) & 0xff;

		  var key = Cipher(pwBytes, KeyExpansion(pwBytes));

		  key = key.concat(key.slice(0, nBytes-16));  // key is now 16/24/32 bytes long

		  // initialise counter block (NIST SP800-38A §B.2): millisecond time-stamp for nonce in 1st 8 bytes,
		  // block counter in 2nd 8 bytes
		  var blockSize = 16;  // block size fixed at 16 bytes / 128 bits (Nb=4) for AES
		  var counterBlock = new Array(blockSize);	// block size fixed at 16 bytes / 128 bits (Nb=4) for AES
		  var nonce = (new Date()).getTime();  // milliseconds since 1-Jan-1970

		  // encode nonce in two stages to cater for JavaScript 32-bit limit on bitwise ops
		  for (var i=0; i<4; i++) counterBlock[i] = (nonce >>> i*8) & 0xff;
		  for (var i=0; i<4; i++) counterBlock[i+4] = (nonce/0x100000000 >>> i*8) & 0xff; 

		  // generate key schedule - an expansion of the key into distinct Key Rounds for each round
		  var keySchedule = KeyExpansion(key);

		  var blockCount = Math.ceil(plaintext.length/blockSize);
		  var ciphertext = new Array(blockCount);  // ciphertext as array of strings
  
		  for (var b=0; b<blockCount; b++) {
			// set counter (block #) in last 8 bytes of counter block (leaving nonce in 1st 8 bytes)
			// again done in two stages for 32-bit ops
			for (var c=0; c<4; c++) counterBlock[15-c] = (b >>> c*8) & 0xff;
			for (var c=0; c<4; c++) counterBlock[15-c-4] = (b/0x100000000 >>> c*8)

			var cipherCntr = Cipher(counterBlock, keySchedule);	 // -- encrypt counter block --
	
			// calculate length of final block:
			var blockLength = b<blockCount-1 ? blockSize : (plaintext.length-1)%blockSize+1;

			var ct = '';
			for (var i=0; i<blockLength; i++) {	 // -- xor plaintext with ciphered counter byte-by-byte --
			  var plaintextByte = plaintext.charCodeAt(b*blockSize+i);
			  var cipherByte = plaintextByte ^ cipherCntr[i];
			  ct += String.fromCharCode(cipherByte);
			}
			// ct is now ciphertext for this block

			ciphertext[b] = escCtrlChars(ct);  // escape troublesome characters in ciphertext
		  }

		  // convert the nonce to a string to go on the front of the ciphertext
		  var ctrTxt = '';
		  for (var i=0; i<8; i++) ctrTxt += String.fromCharCode(counterBlock[i]);
		  ctrTxt = escCtrlChars(ctrTxt);

		  // use '-' to separate blocks, use Array.join to concatenate arrays of strings for efficiency
		  return ctrTxt + '-' + ciphertext.join('-');
		}


		/* 
		 * Use AES to decrypt 'ciphertext' with 'password' using 'nBits' key, in Counter mode of operation
		 *
		 *	 for each block
		 *	 - outputblock = cipher(counter, key)
		 *	 - cipherblock = plaintext xor outputblock
		 */
		function AESDecryptCtr(ciphertext, password, nBits) {
		  if (!(nBits==128 || nBits==192 || nBits==256)) return '';	 // standard allows 128/192/256 bit keys

		  var nBytes = nBits/8;	 // no bytes in key
		  var pwBytes = new Array(nBytes);
		  for (var i=0; i<nBytes; i++) pwBytes[i] = password.charCodeAt(i) & 0xff;
		  var pwKeySchedule = KeyExpansion(pwBytes);
		  var key = Cipher(pwBytes, pwKeySchedule);
		  key = key.concat(key.slice(0, nBytes-16));  // key is now 16/24/32 bytes long

		  var keySchedule = KeyExpansion(key);

		  ciphertext = ciphertext.split('-');  // split ciphertext into array of block-length strings 

		  // recover nonce from 1st element of ciphertext
		  var blockSize = 16;  // block size fixed at 16 bytes / 128 bits (Nb=4) for AES
		  var counterBlock = new Array(blockSize);
		  var ctrTxt = unescCtrlChars(ciphertext[0]);
		  for (var i=0; i<8; i++) counterBlock[i] = ctrTxt.charCodeAt(i);

		  var plaintext = new Array(ciphertext.length-1);

		  for (var b=1; b<ciphertext.length; b++) {
			// set counter (block #) in last 8 bytes of counter block (leaving nonce in 1st 8 bytes)
			for (var c=0; c<4; c++) counterBlock[15-c] = ((b-1) >>> c*8) & 0xff;
			for (var c=0; c<4; c++) counterBlock[15-c-4] = ((b/0x100000000-1) >>> c*8) & 0xff;

			var cipherCntr = Cipher(counterBlock, keySchedule);	 // encrypt counter block

			ciphertext[b] = unescCtrlChars(ciphertext[b]);

			var pt = '';
			for (var i=0; i<ciphertext[b].length; i++) {
			  // -- xor plaintext with ciphered counter byte-by-byte --
			  var ciphertextByte = ciphertext[b].charCodeAt(i);
			  var plaintextByte = ciphertextByte ^ cipherCntr[i];
			  pt += String.fromCharCode(plaintextByte);
			}
			// pt is now plaintext for this block

			plaintext[b-1] = pt;  // b-1 'cos no initial nonce block in plaintext
		  }

		  return plaintext.join('');
		}

		/* - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -  */

		function escCtrlChars(str) {  // escape control chars which might cause problems handling ciphertext
		  return str.replace(/[\0\t\n\v\f\r\xa0!-]/g, function(c) { return '!' + c.charCodeAt(0) + '!'; });
		}  // \xa0 to cater for bug in Firefox; include '-' to leave it free for use as a block marker

		function unescCtrlChars(str) {	// unescape potentially problematic control characters
		  return str.replace(/!\d\d?\d?!/g, function(c) { return String.fromCharCode(c.slice(1,-1)); });
		}

		/* - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -  */
		
		function encrypt(plaintext, password){
			return AESEncryptCtr(plaintext, password, 256);
		}

		function decrypt(ciphertext, password){	
			return AESDecryptCtr(ciphertext, password, 256);
		}
		
		/* End AES Implementation */
		
		var cmd = msg.substr(0,4);
		var arg = msg.substr(5);
		if(cmd == "encr"){
			arg = eval("(" + arg + ")");
			var plaintext = arg.plaintext;
			var password = arg.password;
			var results = encrypt(plaintext, password);
			gearsWorkerPool.sendMessage(String(results), sender);
		}else if(cmd == "decr"){
			arg = eval("(" + arg + ")");
			var ciphertext = arg.ciphertext;
			var password = arg.password;
			var results = decrypt(ciphertext, password);
			gearsWorkerPool.sendMessage(String(results), sender);
		}
	}
});

}

if(!dojo._hasResource["dojox._sql.common"]){ //_hasResource checks added by build. Do not use _hasResource directly in your code.
dojo._hasResource["dojox._sql.common"] = true;
dojo.provide("dojox._sql.common");



// summary:
//	Executes a SQL expression.
// description:
// 	There are four ways to call this:
// 	1) Straight SQL: dojox.sql("SELECT * FROM FOOBAR");
// 	2) SQL with parameters: dojox.sql("INSERT INTO FOOBAR VALUES (?)", someParam)
// 	3) Encrypting particular values: 
//			dojox.sql("INSERT INTO FOOBAR VALUES (ENCRYPT(?))", someParam, "somePassword", callback)
// 	4) Decrypting particular values:
//			dojox.sql("SELECT DECRYPT(SOMECOL1), DECRYPT(SOMECOL2) FROM
//					FOOBAR WHERE SOMECOL3 = ?", someParam,
//					"somePassword", callback)
//
// 	For encryption and decryption the last two values should be the the password for
// 	encryption/decryption, and the callback function that gets the result set.
//
// 	Note: We only support ENCRYPT(?) statements, and
// 	and DECRYPT(*) statements for now -- you can not have a literal string
// 	inside of these, such as ENCRYPT('foobar')
//
// 	Note: If you have multiple columns to encrypt and decrypt, you can use the following
// 	convenience form to not have to type ENCRYPT(?)/DECRYPT(*) many times:
//
// 	dojox.sql("INSERT INTO FOOBAR VALUES (ENCRYPT(?, ?, ?))", 
//					someParam1, someParam2, someParam3, 
//					"somePassword", callback)
//
// 	dojox.sql("SELECT DECRYPT(SOMECOL1, SOMECOL2) FROM
//					FOOBAR WHERE SOMECOL3 = ?", someParam,
//					"somePassword", callback)
dojox.sql = new Function("return dojox.sql._exec(arguments);");

dojo.mixin(dojox.sql, {
	dbName: null,
	
	// summary:
	//	If true, then we print out any SQL that is executed
	//	to the debug window
	debug: (dojo.exists("dojox.sql.debug")?dojox.sql.debug:false),

	open: function(dbName){
		if(this._dbOpen && (!dbName || dbName == this.dbName)){
			return;
		}
		
		if(!this.dbName){
			this.dbName = "dot_store_" 
				+ window.location.href.replace(/[^0-9A-Za-z_]/g, "_");
			// database names in Gears are limited to 64 characters long
			if(this.dbName.length > 63){
			  this.dbName = this.dbName.substring(0, 63);
			}
		}
		
		if(!dbName){
			dbName = this.dbName;
		}
		
		try{
			this._initDb();
			this.db.open(dbName);
			this._dbOpen = true;
		}catch(exp){
			throw exp.message||exp;
		}
	},

	close: function(dbName){
		// on Internet Explorer, Google Gears throws an exception
		// "Object not a collection", when we try to close the
		// database -- just don't close it on this platform
		// since we are running into a Gears bug; the Gears team
		// said it's ok to not close a database connection
		if(dojo.isIE){ return; }
		
		if(!this._dbOpen && (!dbName || dbName == this.dbName)){
			return;
		}
		
		if(!dbName){
			dbName = this.dbName;
		}
		
		try{
			this.db.close(dbName);
			this._dbOpen = false;
		}catch(exp){
			throw exp.message||exp;
		}
	},
	
	_exec: function(params){
		try{	
			// get the Gears Database object
			this._initDb();
		
			// see if we need to open the db; if programmer
			// manually called dojox.sql.open() let them handle
			// it; otherwise we open and close automatically on
			// each SQL execution
			if(!this._dbOpen){
				this.open();
				this._autoClose = true;
			}