}

// BucketReplicationStats represents inline replication statistics
// such as pending, failed and completed bytes in total for a bucket
type BucketReplicationStats struct {
	Stats map[string]*BucketReplicationStat `json:",omitempty"`
	// Completed size in bytes
	ReplicatedSize int64 `json:"completedReplicationSize"`
	// Total Replica size in bytes
	ReplicaSize int64 `json:"replicaSize"`

     */
    @Nullable
    <T> T get(@Nonnull Key<T> key);

    /**
     * Retrieve of compute the data associated with the specified key.
     *
     * @param key the key for which to retrieve the session data, must not be {@code null}
     * @param supplier the supplier will compute the new value
     * @return the session data associated with the key
     */
    @Nullable

Asynchroner Code bedeutet lediglich, dass die Sprache 💬 eine Möglichkeit hat, dem Computer / Programm 🤖 mitzuteilen, dass es 🤖 an einem bestimmten Punkt im Code darauf warten muss, dass *etwas anderes* irgendwo anders fertig wird. Nehmen wir an, *etwas anderes* ist hier „Langsam-Datei“ 📝.

Während der Zeit, die „Langsam-Datei“ 📝 benötigt, kann das System also andere Aufgaben erledigen.

	rs.Endpoint = endpoint
	rs.Secure = secure
	rs.TransferSize = n
	rs.Arn = arn
	rs.TransferDuration = duration
	rs.opType = opType
	switch status {
	case replication.Completed:
		rs.Completed = true
	case replication.Pending:
		rs.Pending = true
	case replication.Failed:
		rs.Failed = true
		rs.Err = err
	}
}

// GetAll returns replication metrics for all buckets at once.

The replication design for multiple sites works in a similar manner as described above for two site scenario. However there are some
important exceptions.

Replication status on the source cluster will be marked as `COMPLETED` only after replication is completed on all targets. If one or more targets failed replication, the replication status is reflected as `PENDING`.

// Records message payloads can contain a single record, partial records, or multiple records.
func newRecordsMessage(payload []byte) []byte {
	return genMessage(recordsHeader, payload)
}

// payloadLenForMsgLen computes the length of the payload in a record
// message given the total length of the message.
func payloadLenForMsgLen(messageLength int) int {
	headerLength := len(recordsHeader)

                if (!completed) {
                  completed = true
                  progressListener.update(totalBytesWritten, contentLength(), completed)
                }
              }
            }

            val bufferedSink = forwardingSink.buffer()
            delegate.writeTo(bufferedSink)
            bufferedSink.flush()
          }
        }

        fun interface ProgressListener {

            context.success("Strategy completed successfully");
            context.indent();
            context.info("Processed: " + result.processedPoms().size() + " POMs");
            context.success("Modified: " + result.modifiedPoms().size() + " POMs");
            context.unindent();
        } else {
            context.info("Strategy completed (no changes needed)");
            context.indent();

// Copyright 2009 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

//go:build ignore

// Compute Fibonacci numbers with two goroutines
// that pass integers back and forth.  No actual
// concurrency, just threads and synchronization
// and foreign code on multiple pthreads.

package main

import (
	big "."
	"runtime"
)

}

includeBuild("../build-logic-settings")

// Shared basics for all
include("basics")

// Platform: defines shared dependency versions
include("build-platform")

// Compute the identity/version we are building and related details (like current git commit)
include("module-identity")

// Code quality rules common to :build-logic and the root build
include("code-quality-rules")