func (e ETag) IsEncrypted() bool {
	// An encrypted ETag must be at least 32 bytes long.
	// It contains the encrypted ETag value + an authentication
	// code generated by the AEAD cipher.
	//
	// Here is an incorrect implementation of IsEncrypted:
	//
	//   return len(e) > 16 && !bytes.ContainsRune(e, '-')
	//
	// An encrypted ETag may contain some random bytes - e.g.

			allowPubKeys = filterAlgos(arg, strings.Split(tokens[1], ","), supportedPubKeyAuthAlgos)
		case "kex-algos":
			allowKexAlgos = filterAlgos(arg, strings.Split(tokens[1], ","), supportedKexAlgos)
		case "cipher-algos":
			allowCiphers = filterAlgos(arg, strings.Split(tokens[1], ","), supportedCiphers)
		case "mac-algos":
			allowMACs = filterAlgos(arg, strings.Split(tokens[1], ","), supportedMACs)
		case "trusted-user-ca-key":

    its own IDN mapping table in the library.

 *  New: Prefer the client's configured precedence order for TLS cipher suites. (OkHttp used to
    prefer the JDK’s precedence order.) This change may cause your HTTP calls to negotiate a
    different cipher suite than before! OkHttp's defaults cipher suites are selected for good
    security and performance.

    val minlog = "com.esotericsoftware.minlog:minlog"
    val nativePlatform = "net.rubygrapefruit:native-platform"
    val objenesis = "org.objenesis:objenesis"
    val plexusCipher = "org.sonatype.plexus:plexus-cipher"
    val plexusClassworlds = "org.codehaus.plexus:plexus-classworlds"
    val plexusInterpolation = "org.codehaus.plexus:plexus-interpolation"
    val plexusSecDispatcher = "org.codehaus.plexus:plexus-sec-dispatcher"

CR1, key_12 BLT CR1, key_10 key_14: DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) key_12: DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) key_10: P8_LXVB16X(R6,R0,V9) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHERLAST) XOR_STORE(V9,V0,R5,R0)...

CR1, key_12 BLT CR1, key_10 key_14: DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) key_12: DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) key_10: P8_LXVB16X(R6,R0,V9) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHER) DO1_CIPHER(V0,V8,R4,VCIPHERLAST) XOR_STORE(V9,V0,R5,R0)...

      }
    }
  }

  /**
   * Test for 2-bit characteristics. A characteristic is a delta in the input which is repeated in
   * the output. For example, if f() is a block cipher and c is a characteristic, then f(x^c) =
   * f(x)^c with greater than expected probability. The test for funneling is merely a test for
   * 1-bit characteristics.
   *

     * followed by those lines.
     *
     * HTTPS responses also contain SSL session information. This begins with a blank line, and then
     * a line containing the cipher suite. Next is the length of the peer certificate chain. These
     * certificates are base64-encoded and appear each on their own line. The next line contains the

      }
    }
  }

  /**
   * Test for 2-bit characteristics. A characteristic is a delta in the input which is repeated in
   * the output. For example, if f() is a block cipher and c is a characteristic, then f(x^c) =
   * f(x)^c with greater than expected probability. The test for funneling is merely a test for
   * 1-bit characteristics.
   *

pkg crypto/cipher, func NewGCMWithTagSize(Block, int) (AEAD, error)
pkg crypto/rsa, method (*PrivateKey) Size() int
pkg crypto/rsa, method (*PublicKey) Size() int
pkg crypto/tls, method (*ConnectionState) ExportKeyingMaterial(string, []uint8, int) ([]uint8, error)
pkg database/sql, method (IsolationLevel) String() string
pkg database/sql, type DBStats struct, Idle int
pkg database/sql, type DBStats struct, InUse int