String expected = cell.getValue();
      assertEquals(
          String.format(Locale.ROOT, "Known hash for hash(%s, UTF_8) failed", input),
          expected,
          func.hashString(input, UTF_8).toString());
    }
  }

  public void testNullPointers() {
    NullPointerTester tester =
        new NullPointerTester()
            .setDefault(byte[].class, "secret key".getBytes(UTF_8))

			// We XOR, so order doesn't matter.
			for _, v := range c.DNSNames {
				check ^= xxh3.HashString(v)
			}
			for _, v := range c.EmailAddresses {
				check ^= xxh3.HashString(v)
			}
			for _, v := range c.IPAddresses {
				check ^= xxh3.HashString(v.String())
			}
			for _, v := range c.URIs {
				check ^= xxh3.HashString(v.String())
			}
			tlsInfo.Certs = append(tlsInfo.Certs, madmin.TLSCert{

    assertEquals(
        hashFunction.hashUnencodedChars(string),
        hashFunction.newHasher().putUnencodedChars(string).hash());
    for (Charset charset : CHARSETS) {
      assertEquals(
          hashFunction.hashString(string, charset),
          hashFunction.newHasher().putString(string, charset).hash());
    }
  }

  /**
   * This verifies that putUnencodedChars(String) and hashUnencodedChars(String) are equivalent,

// It should be 50% chance of any host initiating the connection.
func (c *Connection) shouldConnect() bool {
	// The remote should have the opposite result.
	h0 := xxh3.HashString(c.Local + c.Remote)
	h1 := xxh3.HashString(c.Remote + c.Local)
	if h0 == h1 {
		return c.Local < c.Remote
	}
	return h0 < h1
}

func (c *Connection) send(ctx context.Context, msg []byte) error {
	select {

// Must be able to grab read lock from p.

func (p *ReplicationPool) getWorkerCh(bucket, object string, sz int64) chan<- ReplicationWorkerOperation {
	h := xxh3.HashString(bucket + object)
	p.mu.RLock()
	defer p.mu.RUnlock()
	if len(p.workers) == 0 {
		return nil
	}
	return p.workers[h%uint64(len(p.workers))]
}