How to make a Match Bomb

Michael Bolton - Said I Loved You But I Lied

including how to induce paranoia (4.5 Hz), depression (6.66 Hz), manic rage (11.3 Hz) (...) security police, such as MI5 use the 450 MHz frequency (legally allowed to be used by the police)for behavioral control.
 A vast catalog of mind control frequencies are in the MHz range, FM radio,TV and mobile phone frequencies, have been measured, which are used for control, killing or disabling victims: 147, 153, 197, 199, 447, 453, 456, 466, 853, 883, 884, 887…

http://wmasslocal.wordpress.com/2013/07/25/how-elf-frequencies-induce-paranoia-4-5-hz-depression-6-66-hz-manic-rage-11-3-hz-and-manifest-various-health-problems-in-undesirables/

1. // 'key' should be 32 bytes for AES256, will be null-padded otherwise
2.     char keyPtr[kCCKeySizeAES256+1]; // room for terminator (unused)
3.     bzero(keyPtr, sizeof(keyPtr)); // fill with zeroes (for padding)
4.        
5. CCCryptorStatus cryptStatus = CCCrypt(kCCEncrypt, kCCAlgorithmAES128, kCCOptionPKCS7Padding,
6.                                      keyPtr, kCCKeySizeAES256,
7.                                      NULL /* initialization vector (optional) */,
8.                                      [self bytes], dataLength, /* input */
9.                                      buffer, bufferSize, /* output */
10.                                      &numBytesEncrypted);
11.        
12. private static final String AES_SECRET = "PreDefinedKey";
13.  
14. /**
15.  * Method for AES encryption
16.  * @param raw
17.  * @param plain
18.  * @return
19.  * @throws Exception
20.  */
21. private static byte[] encrypt(byte[] raw, byte[] plain) throws Exception {
22.     SecretKeySpec skeySpec = new SecretKeySpec(raw, "AES/ECB/PKCS7Padding");
23.     Cipher cipher = Cipher.getInstance("AES/ECB/PKCS7Padding");
24.     cipher.init(Cipher.ENCRYPT_MODE, skeySpec);
25.     byte[] encrypted = cipher.doFinal(plain);
26.     return encrypted;
27. }
28.  
29.  
30.  
31. /**
32.  * AES decryption
33.  * @param encryptMsg
34.  * @return
35.  * @throws Exception
36.  */
37. public static String AESDecrypt(String encryptMsg)
38.         throws Exception {          
39.     byte[] rawKey = getRawKey(AES_SECRET.getBytes());
40.     //byte[] enc = toByte(encryptMsg);
41.     byte[] enc = Base64.decode(encryptMsg, 0);
42.     byte[] result = decrypt(rawKey, enc);
43.     return new String(result);
44.  
45. }
46.  
47. /**
48.  * Method for AES decryption
49.  * @param raw
50.  * @param encrypted
51.  * @return
52.  * @throws Exception
53.  */
54. private static byte[] decrypt(byte[] raw, byte[] encrypted) throws Exception {
55.     SecretKeySpec keySpec = new SecretKeySpec(raw, "AES/ECB/PKCS7Padding");
56.     Cipher cipher = Cipher.getInstance("AES/ECB/PKCS7Padding");
57.     cipher.init(Cipher.DECRYPT_MODE, keySpec);
58.     byte[] decrypted = cipher.doFinal(encrypted);
59.     return decrypted;
60.  
61. }
62.  
63. public static byte[] getRawKey(byte[] seed) throws Exception {
64.  
65.     KeyGenerator kgen = KeyGenerator.getInstance("AES");
66.     SecureRandom sr = SecureRandom.getInstance("SHA1PRNG");
67.     sr.setSeed(seed);
68.     //Init for 256bit AES key
69.     kgen.init(256);
70.     SecretKey secret = kgen.generateKey();
71.     //Get secret raw key
72.     byte[] raw = secret.getEncoded();
73.  
74.     return seed;
75.  
76. }
77.        
78. // zeros by default
79. byte[] rawKey = new byte[32];
80. // if you don't specify the encoding you might get weird results
81. byte[] keyBytes = AES_SECRET.getBytes("ASCII");
82. System.arraycopy(keyBytes, 0, rawKey, 0, keyBytes.length);
83. SecretKey key = new SecretKeySpec(rawKey, "AES");
84. Cipher cipher = ...
85. // rest of your decryption code

http://pastebin.com/UQB7xEXY

DIY Electromagnetic (HERF) Gun Project

This DIYer built his own Microwave HERF (high-energy radio frequency) gun by using parts from an old microwave oven.  The electromagnetic gun works just like a normal microwave with a high energy source triggering a magnetron which produces microwave radiation at 2.45GHz. The targeting part is a waveguide made out of metal which directs the microwaves in one direction instead of letting them scatter.

 

http://hacknmod.com/hack/diy-electromagnetic-herf-gun-project/

Non-Electric Detonators

Non-Electric Detonators are linear signal transmission devices designed to transmit an energetic signal through shock tube to a specific detonating output. Shock tube is a hollow extruded tube containing a thin layer of energetic material on its inner diameter. Once initiated, the shock tube transmits a signal to a detonating output charge, typically incorporating an instantaneous output or a pre-determined pyrotechnic event. Non-Electric Detonators are available in either single or dual shock tube configurations. shock tube detonators are designed to initiate explosives and other energetic materials. They are used in military demolitions, explosive ordnance disposal, minefield clearing, explosives testing, and special applications. EBA&D manufactures devices of varied length with specific output and associated accessories. Detonators are designed to be interoperable with munitions, cap wells, detonating cords, high explosives, and Lead-In-Lines. Dual Lead Detonators are used when conditions or mission requirements deem it necessary to have the maximum reliability. Common applications of Dual Lead-In-Lines are close quarters breaching, urban breaching, obstacle clearing, and critical target destruction. Detonating Cord   https://sites.google.com/site/copperminingphotofromindia/explosives-and-blasting-in-mines/non-electric-detonators