} else {
                    cleaned.add(arg);
                }
            }
        }

        if (currentArg != null) {
            cleaned.add(currentArg.toString());
        }

        int cleanedSz = cleaned.size();

        String[] cleanArgs;

        if (cleanedSz == 0) {
            cleanArgs = args;
        } else {
            cleanArgs = cleaned.toArray(new String[0]);
        }

        final boolean result = testClient.reindexConfigIndices(false, allTargetPrefixes());

        assertFalse(result);
        // Backup should be cleaned up
        assertTrue(testClient.deletedIndices.size() > 0, "Backup indices should be cleaned up");
    }

    @Test
    public void test_reindexConfigIndices_reindexFromBackupFailureCleansUp() {
        testClient.existsIndexResult = true;

		t.Fatalf("part.1 not healed correctly")
	}

	partReconstructed, err = secondDisk.ReadAll(t.Context(), bucket, pathJoin(object, fi.DataDir, "part.1"))
	if err != nil {
		t.Fatalf("Failed to read a file - %v", err)
	}

	if !reflect.DeepEqual(part1Disk2Origin, partReconstructed) {
		t.Fatalf("part.1 not healed correctly")
	}
}

// Tests healing of object.

                } else {
                    cleaned.add(arg);
                }
            }
        }

        if (currentArg != null) {
            cleaned.add(currentArg.toString());
        }

        int cleanedSz = cleaned.size();

        String[] cleanArgs;

        if (cleanedSz == 0) {
            cleanArgs = args;
        } else {
            cleanArgs = cleaned.toArray(new String[0]);
        }

        .plus(Integer::class, 5 as Integer)
    assertThat(tags[String::class]).isEqualTo("hello")
    assertThat(tags[Integer::class]).isEqualTo(5)
  }

  /** The implementation retains no nodes from the original linked list. */
  @Test
  fun replaceFirstElement() {
    val tags =
      EmptyTags
        .plus(String::class, "a")
        .plus(Integer::class, 5 as Integer)
        .plus(Boolean::class, true)

}

// Remove removes e from its list, decrements l.len
func (l *LruList[K, V]) Remove(e *Entry[K, V]) V {
	e.prev.next = e.next
	e.next.prev = e.prev
	e.next = nil // avoid memory leaks
	e.prev = nil // avoid memory leaks
	e.list = nil
	l.len--

	return e.Value
}

// move moves e to next to at.
func (l *LruList[K, V]) move(e, at *Entry[K, V]) {
	if e == at {
		return
	}

				// skipped, like the meta-bucket.
				if isReservedOrInvalidBucket(volInfo.Name, false) {
					continue
				}

				healBuckets.Compute(volInfo.Name, func(oldValue VolInfo, loaded bool) (newValue VolInfo, del bool) {
					if loaded {
						newValue = oldValue
						newValue.count = oldValue.count + 1
						return newValue, false
					}
					return VolInfo{
						Name:    volInfo.Name,

	if !globalCallhomeConfig.Enabled() {
		return
	}

	go func() {
		r := rand.New(rand.NewSource(time.Now().UnixNano()))
		// Leader node (that successfully acquires the lock inside runCallhome)
		// will keep performing the callhome. If the leader goes down for some reason,
		// the lock will be released and another node will acquire it and take over
		// because of this loop.
		for {

		healingLogEvent(ctx, "Healing of drive '%s' is incomplete, retried %d times (healed: %d, skipped: %d, failed: %d).", disk,
			tracker.RetryAttempts, tracker.ItemsHealed, tracker.ItemsSkipped, tracker.ItemsFailed)
	} else {
		if tracker.RetryAttempts > 0 {
			healingLogEvent(ctx, "Healing of drive '%s' is complete, retried %d times (healed: %d, skipped: %d).", disk,
				tracker.RetryAttempts-1, tracker.ItemsHealed, tracker.ItemsSkipped)

 *       code, or even to discover <i>any</i> two distinct inputs that yield the same result. These
 *       are called <i>cryptographic hash functions</i>. But, whenever it is learned that either of
 *       these feats has become computationally feasible, the function is deemed "broken" and should
 *       no longer be used for secure purposes. (This is the likely eventual fate of <i>all</i>