}

	shift := 52 - exp

	// Optimization (?): partially pre-normalise.
	for mantissa&1 == 0 && shift > 0 {
		mantissa >>= 1
		shift--
	}

	z.a.SetUint64(mantissa)
	z.a.neg = f < 0
	z.b.Set(intOne)
	if shift > 0 {
		z.b.Lsh(&z.b, uint(shift))
	} else {
		z.a.Lsh(&z.a, uint(-shift))
	}
	return z.norm()
}

// quotToFloat32 returns the non-negative float32 value

)

type Connection interface {
	Name() string
	Request(onDone func())
	TotalRequests() uint64
	ActiveRequests() uint64
	Latency() *timeseries.Instance
}

func NewConnection(name string, request func(onDone func())) Connection {
	return &connection{
		request: request,
		helper:  NewConnectionHelper(name),
	}
}

type connection struct {
	request func(onDone func())
	helper  *ConnectionHelper
}

    const std::string& sig_def_key, const SignatureDef& signature_def) {
  // Create local vectors for the input and output and sort them to be
  // deterministic. We don't want anyone to really depend on the order, client
  // should lookup argument/result mapping by attribute name.
  // To avoid accidentally depending on the order we use an unintuitive sorting.

	if index2 == index1 {
		index2 = (index2 + 1) % numConnections
	}

	return lb.get(index1), lb.get(index2)
}

func (lb *unweightedLeastRequest) Request(onDone func()) {
	if len(lb.conns) == 1 {
		lb.doRequest(lb.get(0), onDone)
		return
	}

	// Pick 2 endpoints at random.
	c1, c2 := lb.pick2()

	// Choose the endpoint with fewer active requests.
	selected := c1

package main

// Zero returns the zero value of T
func Zero[T any]() (_ T) {
	return
}

type AnyInt[X any] int

func (AnyInt[X]) M() {
	var have interface{} = Zero[X]()
	var want interface{} = Zero[MyInt]()

	if have != want {
		println("FAIL")
	}
}

type I interface{ M() }

type MyInt int
type U = AnyInt[MyInt]

var x = U(0)
var i I = x

func main() {
	x.M()
	U.M(x)
	(*U).M(&x)

    * Fixed the webhook admission plugin so that webhook author could use the DNS name of the service as the CommonName when generating the server cert for the webhook.
    * Action required:

    abstract ImmutableActionSet<T> addAll(SetWithManyActions<T> source);

    abstract ImmutableActionSet<T> addOne(Action<? super T> action);

    private static class EmptySet<T> extends ImmutableActionSet<T> {
        @Override
        ImmutableActionSet<T> addOne(Action<? super T> action) {
            return new SingletonSet<T>(action);
        }

        @Override

	switch {
	case typ.IsInteger():
		val = intOne
	case typ.IsFloat():
		val = floatOne
	case typ.IsComplex():
		val = complexOne
	default:
		base.FatalfAt(pos, "%v cannot represent 1", typ)
	}

	return NewBasicLit(pos, typ, val)
}

var (
	intOne     = constant.MakeInt64(1)
	floatOne   = constant.ToFloat(intOne)
	complexOne = constant.ToComplex(intOne)
)

const (

}
"""

        when:
        run(":a:one", "-x", "two", "-x", "three")

        then:
        result.assertTasksExecuted(":a:one")
        fixture.assertProjectsConfigured(":", ":a")

        when:
        executer.usingProjectDirectory(file('a'))
        run(":a:one", "-x", "two", "-x", "three")

        then:
        result.assertTasksExecuted(":a:one")
        fixture.assertProjectsConfigured(":", ":a")

	*weightedConnections

	next      int
	nextMutex sync.Mutex
}

func (lb *roundRobin) Request(onDone func()) {
	// Select the connection to use for this request.
	lb.nextMutex.Lock()
	selected := lb.get(lb.next)
	lb.next = (lb.next + 1) % len(lb.conns)
	lb.nextMutex.Unlock()

	lb.doRequest(selected, onDone)