}...) {
				return 0, err
			}
		}

		eof := err == io.EOF || err == io.ErrUnexpectedEOF
		if n == 0 && total != 0 {
			// Reached EOF, nothing more to be done.
			break
		}

		// We take care of the situation where if n == 0 and total == 0 by creating empty data and parity files.
		blocks, err = e.EncodeData(ctx, buf[:n])
		if err != nil {
			return 0, err
		}

   There used to be two different mechanisms - one for regular S3 objects and one for IAM data.
- Reduced server startup time. For IAM encryption with the root credentials, MinIO had
   to use a memory-hard function (Argon2) that (on purpose) consumes a lot of memory and CPU.
   The new KMS-based approach can use a key derivation function that is orders of magnitudes
   cheaper w.r.t. memory and CPU.

When an object is deleted from the source bucket, the corresponding replica version will be marked deleted if delete marker replication is enabled in the replication configuration. Replication of deletes that specify a version id (a.k.a hard deletes) can be enabled by setting the `DeleteReplication` status to enabled in the replication configuration. This is a MinIO specific extension that can be enabled using the `mc replicate add` or `mc replicate edit` command with the --replicate "delete"...

		return &m
	}

	anonymizeCmdLine := func(cmdLine string) string {
		if anonParam != anonymizeStrict {
			return cmdLine
		}

		if !globalIsDistErasure {
			// FS mode - single server - hard code to `server1`
			anonCmdLine := strings.ReplaceAll(cmdLine, globalLocalNodeName, "server1")
			if len(globalMinioConsoleHost) > 0 {
				anonCmdLine = strings.ReplaceAll(anonCmdLine, globalMinioConsoleHost, "server1")

- Reload() of MinIO server arguments without fully restarting the process.

- Expanding 1 node at a time by automating the process of creating a new pool
  and decommissioning to provide a functionality that smaller deployments

	for _, stackFn := range ignoredStackFns {
		if !strings.Contains(stack, stackFn) {
			ok = false
			continue
		}
		break
	}
	return ok
}

// pickRelevantGoroutines returns all goroutines we care about for the purpose
// of leak checking. It excludes testing or runtime ones.
func pickRelevantGoroutines() (gs []string) {
	// get runtime stack buffer.
	buf := debug.Stack()

	}

	rulesMap := event.NewRulesMap(eventNames, pattern, event.TargetID{ID: mustGetUUID()})

	// Listen Publisher uses nonblocking publish and hence does not wait for slow subscribers.
	// Use buffered channel to take care of burst sends or slow w.Write()
	ch := make(chan event.Event, globalAPIConfig.getRequestsPoolCapacity())
	err := globalHTTPListen.Subscribe(mask, ch, ctx.Done(), func(ev event.Event) bool {

	gridLogIf(ctx, err)
	if m.MuxID == 0 {
		atomic.StoreInt64(&c.LastPong, time.Now().Unix())
		return
	}
	if v, ok := c.outgoing.Load(m.MuxID); ok {
		v.pong(pong)
	} else {
		// We don't care if the client was removed in the meantime,
		// but we send a disconnect message to the server just in case.
		gridLogIf(ctx, c.queueMsg(message{Op: OpDisconnectClientMux, MuxID: m.MuxID}, nil))
	}
}

		case <-mTimer.C:
			saveMRFToDisk()
			mTimer.Reset(mrfSaveInterval)
		case <-p.ctx.Done():
			p.mrfStopCh <- struct{}{}
			xioutil.SafeClose(p.mrfSaveCh)
			// We try to save if possible, but we don't care beyond that.
			saveMRFToDisk()
			return
		case e, ok := <-p.mrfSaveCh:
			if !ok {
				return
			}
			entries[e.versionID] = e

			if len(entries) >= mrfMaxEntries {

		ep, _ := url.Parse(peer.Endpoint)
		prevEp, _ := url.Parse(prevInfo.Endpoint)
		targets, err := globalBucketTargetSys.ListBucketTargets(ctx, bucket)
		if err != nil {
			continue // site healing will take care of configuring new targets
		}
		for _, target := range targets.Targets {
			if target.SourceBucket == bucket &&
				target.TargetBucket == bucket &&
				target.Endpoint == prevEp.Host &&