} else {
        builder.append("PENDING");
      }
    }
    return builder.append("]").toString();
  }

  /**
   * Provide a human-readable explanation of why this future has not yet completed.
   *
   * @return null if an explanation cannot be provided because the future is done.
   */
  @Nullable
  String pendingToString() {
    if (state == State.DELEGATED) {

    } else {
      prevInInsertionOrder[next] = prev;
    }
  }

  /**
   * Updates the K-to-V hash table to include the entry at the specified index, which is assumed to
   * have not yet been added.
   */
  private void insertIntoTableKToV(int entry, int keyHash) {
    checkArgument(entry != ABSENT);
    int keyBucket = bucket(keyHash);
    nextInBucketKToV[entry] = hashTableKToV[keyBucket];

Using these tools, you can make the security system compatible with any database and with any user or data model.

The only detail missing is that it is not actually "secure" yet.

	if err != nil {
		return err
	}

	cctx, cancel := context.WithCancel(context.Background())
	defer cancel()

	if prefix == "" {
		// if all objects are not deleted yet this call may fail.
		return clnt.RemoveBucket(cctx, bucket)
	}

	objectsCh := make(chan minio.ObjectInfo)

	// Send object names that are needed to be removed to objectsCh
	go func() {

MinIO in distributed mode lets you pool multiple drives (even on different machines) into a single object storage server. As drives are distributed across several nodes, distributed MinIO can withstand multiple node failures and yet ensure full data protection.

## Why distributed MinIO?

     *            If true the negotiation is only done if it is
     *            initiated by the client (MSIE post requests after successful NTLM SSP
     *            authentication). If false and the user has not been authenticated yet
     *            the client will be forced to send an authentication (server sends
     *            HttpServletResponse.SC_UNAUTHORIZED).
     * @return True if the negotiation is complete, otherwise false

 * traditional {@code Map} rely on {@code put(K, V)}, the typical mechanism for writing to this map
 * is {@code addAndGet(K, long)}, which adds a {@code long} to the value currently associated with
 * {@code K}. If a key has not yet been associated with a value, its implicit value is zero.
 *
 * <p>Most methods in this class treat absent values and zero values identically, as individually

			return errors.New("deleting all buckets not allowed")
		}

		cctx, cancel := context.WithCancel(context.Background())
		defer cancel()

		if prefix == "" {
			// if all objects are not deleted yet this call may fail.
			return clnt.RemoveBucket(cctx, bucket)
		}

		objectsCh := make(chan minio.ObjectInfo)

		// Send object names that are needed to be removed to objectsCh
		go func() {

            throw new SmbException("Invalid token");
        }

        if ( spToken instanceof NegTokenTarg && this.mechContext.isEstablished() ) {
            // already established, but server hasn't completed yet
            NegTokenTarg targ = (NegTokenTarg) spToken;

            if ( targ.getResult() == NegTokenTarg.ACCEPT_INCOMPLETE && targ.getMechanismToken() == null && targ.getMechanismListMIC() != null ) {

Notably, this prevents us from sending a GOAWAY to notify peers we have shutdown.

As a result, while we meet our two must-haves (send and accept traffic throughout the entire pod lifetime), we do not have an optimal solution here yet.
Alternatively, we could send the GOAWAY prior to the pod termination (assuming this allows existing and new connections to function still).

## Ztunnel Shutdown/Upgrade/Restart