def files = collection.files

        then:
        1 * callable.call() >> null
        0 * fileResolver._
        files.empty
    }

    def "can append contents to convention-based collection using plus operator"() {
        given:
        def file1 = new File("1")
        def file2 = new File("2")
        def src = containing(file2)

        when:
        collection.convention("src1")

	// f.space should and f.plus should not have an effect with %v.
	{"% v", []byte{1, 11, 111}, "[ 1  11  111]"},
	{"%+v", [3]byte{1, 11, 111}, "[1 11 111]"},
	{"%# -6v", []byte{1, 11, 111}, "[]byte{ 0x1  ,  0xb  ,  0x6f }"},
	{"%#+-6v", [3]byte{1, 11, 111}, "[3]uint8{0x1   , 0xb   , 0x6f  }"},
	// f.space and f.plus should have an effect with %d.
	{"% d", []byte{1, 11, 111}, "[ 1  11  111]"},

	//
	// Read and written with the world stopped or with mheap_.lock held.
	lastHeapGoal uint64

	// heapLive is the number of bytes considered live by the GC.
	// That is: retained by the most recent GC plus allocated
	// since then. heapLive ≤ memstats.totalAlloc-memstats.totalFree, since
	// heapAlloc includes unmarked objects that have not yet been swept (and
	// hence goes up as we allocate and down as we sweep) while heapLive

		servicePortName.NamespacedName.Name,
		protocol,
		servicePortName.Port,
	)

	// The namespace, service, and port name can each be up to 63 characters, protocol
	// can be up to 4, plus 8 for the hash and 4 additional punctuation characters.
	// That's a total of 205, which is less than chainNameBaseLengthMax (240). So this
	// will never actually return a truncated name.
	return hashAndTruncate(name)
}

	var size int64
	switch re.Op {
	case OpLiteral:
		size = int64(len(re.Rune))
	case OpCapture, OpStar:
		// star can be 1+ or 2+; assume 2 pessimistically
		size = 2 + p.calcSize(re.Sub[0], false)
	case OpPlus, OpQuest:
		size = 1 + p.calcSize(re.Sub[0], false)
	case OpConcat:
		for _, sub := range re.Sub {
			size += p.calcSize(sub, false)
		}
	case OpAlternate:
		for _, sub := range re.Sub {

	dwarf.Uleb128put(d, fsd, int64(thearch.Dwarfregsp)) // ...to use the value in the platform's SP register (defined in l.go)...
	if haslr {
		dwarf.Uleb128put(d, fsd, int64(0)) // ...plus a 0 offset.

		fsu.AddUint8(dwarf.DW_CFA_same_value) // The platform's link register is unchanged during the prologue.
		dwarf.Uleb128put(d, fsd, int64(thearch.Dwarfreglr))

        arrayAccessExpression: KtArrayAccessExpression,
    ): CompoundArrayAccessPartiallyAppliedSymbols? {
        // The last argument of `set` is the new value to be set. This value should be a call to the respective `plus`, `minus`,
        // `times`, `div`, or `rem` function.
        val operationCall = fir.arguments.lastOrNull() as? FirFunctionCall ?: return null

 * Kotlin code. In this class, nothing is publicly visible (nor exposed indirectly through a
 * publicly visible subclass), and I doubt any of our current or future Kotlin extensions for the
 * package will refer to the class. Plus, @ParametricNullness is only a temporary workaround,
 * anyway, so we just need to get by without the annotations here until Kotlin better understands
 * our other nullness annotations.
 */
final class Synchronized {

 * Kotlin code. In this class, nothing is publicly visible (nor exposed indirectly through a
 * publicly visible subclass), and I doubt any of our current or future Kotlin extensions for the
 * package will refer to the class. Plus, @ParametricNullness is only a temporary workaround,
 * anyway, so we just need to get by without the annotations here until Kotlin better understands
 * our other nullness annotations.
 */
final class Synchronized {

}

// startSpec wraps the spec required to start a container, either a regular/init container
// or an ephemeral container. Ephemeral containers contain all the fields of regular/init
// containers, plus some additional fields. In both cases startSpec.container will be set.
type startSpec struct {
	container          *v1.Container
	ephemeralContainer *v1.EphemeralContainer
}