dc.Unlock() // not defer; removeDep finalClose calls may need to lock

	// And now updates that require holding dc.mu.Lock.
	dc.db.mu.Lock()
	dc.dbmuClosed = true
	fn := dc.db.removeDepLocked(dc, dc)
	dc.db.mu.Unlock()
	return fn()
}

func (dc *driverConn) finalClose() error {
	var err error

	// Each *driverStmt has a lock to the dc. Copy the list out of the dc
	// before calling close on each stmt.

		// but the critical section is short and dropm is rare on pthread platforms, so just
		// take the lock and play it safe. traceThreadDestroy also asserts that the lock is held.
		lock(&sched.lock)
		traceThreadDestroy(mp)
		unlock(&sched.lock)
	}
	mp.isExtraInSig = false

	// Block signals before unminit.
	// Unminit unregisters the signal handling stack (but needs g on some systems).

	}

	// Compare only necessary headers
	compareKeys := []string{
		"Expires",
		"Cache-Control",
		"Content-Language",
		"Content-Disposition",
		"X-Amz-Object-Lock-Mode",
		"X-Amz-Object-Lock-Retain-Until-Date",
		"X-Amz-Object-Lock-Legal-Hold",
		"X-Amz-Website-Redirect-Location",
		"X-Amz-Meta-",
	}

	// compare metadata on both maps to see if meta is identical
	compareMeta1 := make(map[string]string)

	// syncNodeStatusMux is a lock on updating the node status, because this path is not thread-safe.
	// This lock is used by Kubelet.syncNodeStatus and Kubelet.fastNodeStatusUpdate functions and shouldn't be used anywhere else.
	syncNodeStatusMux sync.Mutex

	// updatePodCIDRMux is a lock on updating pod CIDR, because this path is not thread-safe.

		}
		time.Sleep(duration)
	}
	c.RLock()
	defer c.RUnlock()
	if c.enabled {
		logger.Info("Cluster replication initialized")
	}
	return nil
}

func (c *SiteReplicationSys) loadFromDisk(ctx context.Context, objAPI ObjectLayer) error {
	buf, err := readConfig(ctx, objAPI, getSRStateFilePath())
	if err != nil {
		if errors.Is(err, errConfigNotFound) {
			c.Lock()
			defer c.Unlock()
			c.state = srState{}

	remain  int64 // bytes remaining
}

func (cr *connReader) lock() {
	cr.mu.Lock()
	if cr.cond == nil {
		cr.cond = sync.NewCond(&cr.mu)
	}
}

func (cr *connReader) unlock() { cr.mu.Unlock() }

func (cr *connReader) startBackgroundRead() {
	cr.lock()
	defer cr.unlock()
	if cr.inRead {
		panic("invalid concurrent Body.Read call")
	}
	if cr.hasByte {

-----END TEST KEY-----`)

func TestCRLCreation(t *testing.T) {
	block, _ := pem.Decode([]byte(pemPrivateKey))
	privRSA, _ := ParsePKCS1PrivateKey(block.Bytes)
	block, _ = pem.Decode([]byte(pemCertificate))
	certRSA, _ := ParseCertificate(block.Bytes)

	block, _ = pem.Decode([]byte(ed25519CRLKey))
	privEd25519, _ := ParsePKCS8PrivateKey(block.Bytes)
	block, _ = pem.Decode([]byte(ed25519CRLCertificate))

			// sorts them by Timestamps if they have the same Pod Priority).
			// Using a fake clock for the queue and incrementing it after each added Pod will
			// solve this issue on Windows unit test runs.
			// For more details on the Windows clock resolution issue, see: https://github.com/golang/go/issues/8687
			for _, p := range test.initialPods {
				q.Add(logger, p)

    }
  }

  /** A reference to a value. */
  interface ValueReference<K, V> {
    /** Returns the value. Does not block or throw exceptions. */
    @CheckForNull
    V get();

    /**
     * Waits for a value that may still be loading. Unlike get(), this method can block (in the case
     * of FutureValueReference).
     *
     * @throws ExecutionException if the loading thread throws an exception

	type dbConn struct {
		db *DB
		c  *driverConn
	}
	freedFrom := make(map[dbConn]string)
	var mu sync.Mutex
	getFreedFrom := func(c dbConn) string {
		mu.Lock()
		defer mu.Unlock()
		return freedFrom[c]
	}
	setFreedFrom := func(c dbConn, s string) {
		mu.Lock()
		defer mu.Unlock()
		freedFrom[c] = s
	}
	putConnHook = func(db *DB, c *driverConn) {
		if slices.Contains(db.freeConn, c) {