hubierais
hubieran
hubiese
hubieses
hubiésemos
hubieseis
hubiesen
habiendo
habido
habida
habidos
habidas
soy
eres
es
somos
sois
son
sea
seas
seamos
seáis
sean
seré
serás
será
seremos
seréis
serán
sería
serías
seríamos
seríais
serían
era
eras
éramos
erais
eran
fui
fuiste
fue
fuimos
fuisteis

	return float64(ss) / ssScale
}

// DurationPerSeat returns duration per seat.
// This division may lose precision.
func (ss SeatSeconds) DurationPerSeat(seats float64) time.Duration {
	return time.Duration(float64(ss) / seats * (float64(time.Second) / ssScale))
}

// String converts to a string.
// This is suitable for large as well as small values.
func (ss SeatSeconds) String() string {
	const div = SeatSeconds(ssScale)

type WorkEstimate struct {
	// InitialSeats is the number of seats occupied while the server is
	// executing this request.
	InitialSeats uint64

	// FinalSeats is the number of seats occupied at the end,
	// during the AdditionalLatency.
	FinalSeats uint64

	// AdditionalLatency specifies the additional duration the seats allocated
	// to this request must be reserved after the given request had finished.

	// for now, our rough estimate is to allocate one seat to each 100 obejcts that
	// will be processed by the list request.
	// we will come up with a different formula for the transformation function and/or
	// fine tune this number in future iteratons.
	seats := uint64(math.Ceil(float64(estimatedObjectsToBeProcessed) / e.config.ObjectsPerSeat))

	// make sure we never return a seat of zero
	if seats < minSeats {
		seats = minSeats
	}

		// seats that can be assigned to a given request. Thanks to it:
		// 1) we reduce the amount of seat-seconds that are "wasted" during
		//    dispatching and executing initial phase of the request
		// 2) we are not changing the finalWork estimate - just potentially
		//    reshaping it to be narrower and longer. As long as the maximum
		//    seats setting will prevent dispatching too many requests at once

// The values will be in an indeterminate order.
func (s _Set[Elem]) Values() []Elem {
	r := make([]Elem, 0, len(s.m))
	for v := range s.m {
		r = append(r, v)
	}
	return r
}

// _Equal reports whether two sets contain the same elements.
func _Equal[Elem comparable](s1, s2 _Set[Elem]) bool {
	if len(s1.m) != len(s2.m) {
		return false
	}
	for v1 := range s1.m {
		if !s2.Contains(v1) {
			return false
		}
	}

	Algorithm string   // The sealing algorithm used to encrypt the object key.
}

// Seal encrypts the ObjectKey using the 256 bit external key and IV. The sealed
// key is also cryptographically bound to the object's path (bucket/object) and the
// domain (SSE-C or SSE-S3).
func (key ObjectKey) Seal(extKey []byte, iv [32]byte, domain, bucket, object string) SealedKey {
	if len(extKey) != 32 {

	// max(1, QueuingConfig.QueueLengthLimit) X max(1, QueuingConfig.DesiredNumQueues).
	// The RatioedGauge observes number of seats occupied through all phases of execution.
	// The denominator for all the ratioed concurrency gauges is supplied later in the DispatchingConfig.
	// The Gauge observes the seat demand (executing + queued seats).
	BeginConstruction(QueuingConfig, metrics.RatioedGaugePair, metrics.RatioedGauge, metrics.Gauge) (QueueSetCompleter, error)
}

        then:
        timer.getElapsed() == "51.243 secs"
    }

    def testOnlySecondsEvenMs() {
        when:
        setTime(4000)

        then:
        timer.getElapsed() == "4.0 secs"
    }

    def testMinutesAndSeconds() {
        when:
        setTime(0, 32, 40, 322)

        then:
        timer.getElapsed() == "32 mins 40.322 secs"
    }

    def testHoursMinutesAndSeconds() {

	if d == 0 {
		d = defaultTCPKeepAliveIdle
	} else if d < 0 {
		return nil
	}

	// The kernel expects seconds so round to next highest second.
	secs := int(roundDurationUp(d, time.Second))
	err := fd.pfd.SetsockoptInt(syscall.IPPROTO_TCP, syscall.TCP_KEEPIDLE, secs)
	runtime.KeepAlive(fd)
	return wrapSyscallError("setsockopt", err)
}

func setKeepAliveInterval(fd *netFD, d time.Duration) error {
	if d == 0 {