"testing-jvm",
					"worker-main",
					"files",
					"stdlib-java-extensions",
					"build-cache-packaging",
					"build-operations",
					"precondition-tester",
					"tooling-api-builders",
					"hashing",
					"base-services-groovy",
					"kotlin-dsl-provider-plugins"
				]
			},
			{
				"parallelizationMethod":{
					"name":"TestDistribution"
				},
				"subprojects":[
					"plugin-use",

// data can be written to the socket, processed by the kernel, and then read
// back as hash output or ciphertext.
//
// Here is an example of using an AF_ALG socket with SHA1 hashing.
// The initial socket setup process is as follows:
//
//	// Open a socket to perform SHA1 hashing.
//	fd, _ := unix.Socket(unix.AF_ALG, unix.SOCK_SEQPACKET, 0)
//	addr := &unix.SockaddrALG{Type: "hash", Name: "sha1"}
//	unix.Bind(fd, addr)

         </artifact>
      </component>
      <component group="net.openhft" name="zero-allocation-hashing" version="0.10.1">
         <artifact name="zero-allocation-hashing-0.10.1.jar">
            <pgp value="CB3808E03CD602A6DC5B882552931F4B72B4F54C"/>
         </artifact>
      </component>

   * @param h hash code
   */
  static int rehash(int h) {
    // Spread bits to regularize both segment and index locations,
    // using variant of single-word Wang/Jenkins hash.
    // TODO(kevinb): use Hashing/move this to Hashing?
    h += (h << 15) ^ 0xffffcd7d;
    h ^= (h >>> 10);
    h += (h << 3);
    h ^= (h >>> 6);
    h += (h << 2) + (h << 14);
    return h ^ (h >>> 16);
  }

  /**

   * @param h hash code
   */
  static int rehash(int h) {
    // Spread bits to regularize both segment and index locations,
    // using variant of single-word Wang/Jenkins hash.
    // TODO(kevinb): use Hashing/move this to Hashing?
    h += (h << 15) ^ 0xffffcd7d;
    h ^= (h >>> 10);
    h += (h << 3);
    h ^= (h >>> 6);
    h += (h << 2) + (h << 14);
    return h ^ (h >>> 16);
  }

  /**

// since their wire representation is idempotent. For clientHelloMsg and
// serverHelloMsg, we store the original wire representation of the message and
// use that for hashing, since unmarshal/marshal are not idempotent due to
// extension ordering and other malleable fields, which may cause differences
// between what was received and what we marshal.

}

// TestXLStorageReadFile with bitrot verification - tests the xlStorage level
// ReadFile API with a BitrotVerifier. Only tests hashing related
// functionality. Other functionality is tested with
// TestXLStorageReadFile.
func TestXLStorageReadFileWithVerify(t *testing.T) {
	volume, object := "test-vol", "myobject"

const (
	signaturePKCS1v15 uint8 = iota + 225
	signatureRSAPSS
	signatureECDSA
	signatureEd25519
)

// directSigning is a standard Hash value that signals that no pre-hashing
// should be performed, and that the input should be signed directly. It is the
// hash function associated with the Ed25519 signature scheme.
var directSigning crypto.Hash = 0

// This struct defines the bucket header. It is followed in
// memory by the stack words and then the actual record
// data, either a memRecord or a blockRecord.
//
// Per-call-stack profiling information.
// Lookup by hashing call stack into a linked-list hash table.
//
// None of the fields in this bucket header are modified after
// creation, including its next and allnext links.
//
// No heap pointers.
type bucket struct {

func (proxier *Proxier) OnServiceCIDRsChanged(_ []string) {}

// portProtoHash takes the ServicePortName and protocol for a service
// returns the associated 16 character hash. This is computed by hashing (sha256)
// then encoding to base32 and truncating to 16 chars. We do this because IPTables
// Chain Names must be <= 28 chars long, and the longer they are the harder they are to read.