//
//go:linkname getitab
func getitab(inter *interfacetype, typ *_type, canfail bool) *itab {
	if len(inter.Methods) == 0 {
		throw("internal error - misuse of itab")
	}

	// easy case
	if typ.TFlag&abi.TFlagUncommon == 0 {
		if canfail {
			return nil
		}
		name := toRType(&inter.Type).nameOff(inter.Methods[0].Name)
		panic(&TypeAssertionError{nil, typ, &inter.Type, name.Name()})
	}

	var m *itab

func (e *TypeAssertionError) Error() string {
	inter := "interface"
	if e._interface != nil {
		inter = toRType(e._interface).string()
	}
	as := toRType(e.asserted).string()
	if e.concrete == nil {
		return "interface conversion: " + inter + " is nil, not " + as
	}
	cs := toRType(e.concrete).string()
	if e.missingMethod == "" {
		msg := "interface conversion: " + inter + " is " + cs + ", not " + as
		if cs == as {

			expected: sets.New("node1", "node4"),
		},
		{
			name: "ErrReasonAffinityRulesNotMatch should not be tried as it indicates that the pod is unschedulable due to inter-pod affinity, but ErrReasonAntiAffinityRulesNotMatch should be tried as it indicates that the pod is unschedulable due to inter-pod anti-affinity",
			nodesStatuses: framework.NodeToStatusMap{

var _ framework.PreScorePlugin = &InterPodAffinity{}
var _ framework.ScorePlugin = &InterPodAffinity{}
var _ framework.EnqueueExtensions = &InterPodAffinity{}

// InterPodAffinity is a plugin that checks inter pod affinity
type InterPodAffinity struct {
	parallelizer parallelize.Parallelizer
	args         config.InterPodAffinityArgs
	sharedLister framework.SharedLister
	nsLister     listersv1.NamespaceLister
}

func convT64(val uint64) unsafe.Pointer
func convTstring(val string) unsafe.Pointer
func convTslice(val []uint8) unsafe.Pointer

// interface type assertions x.(T)
func assertE2I(inter *byte, typ *byte) *byte
func assertE2I2(inter *byte, typ *byte) *byte
func panicdottypeE(have, want, iface *byte)
func panicdottypeI(have, want, iface *byte)
func panicnildottype(want *byte)
func typeAssert(s *byte, typ *byte) *byte

    /**
     * Indicates whether the model building should happen in two phases. If enabled, the initial invocation of the model
     * builder will only produce an interim result which may be used to analyze inter-model dependencies before the
     * final invocation of the model builder is performed.
     *
     * @return {@code true} if two-phase building is enabled, {@code false} if the model should be build in a single

  let summary = "Moves a broadcast from host into XLA, encoded as XlaAllReduce";

  let description = [{
    This pass moves brodcasts from host TF ops into XLA. This enables use of
    the inter-device network, which is faster than the inter-host network.
    Broadcasts in XLA are encoded as XlaAllReduce. An all_reduce with all 0
    inputs except for one real input produces the same result as a broadcast.

    For example, the following:

	"reflect"
	"runtime"
	"testing"
	"time"

	"github.com/minio/minio/internal/grid"
	xnet "github.com/minio/pkg/v3/net"
)

// Storage REST server, storageRESTReceiver and StorageRESTClient are
// inter-dependent, below test functions are sufficient to test all of them.
func testStorageAPIDiskInfo(t *testing.T, storage StorageAPI) {
	testCases := []struct {
		expectErr bool
	}{
		{true},
	}

    // arguments must correspond to different resources and we can assign unique
    // IDs.
    assign_unique_id_to_all(func_op.getArguments());
  }

  // Since this analysis is neither inter-procedural nor inter-regional,
  // each region attached to Op's within a function is analyzed independently.
  // Seed this analysis for each such region by mapping all resource arguments

You will also find it easier to take advantage of Gradle's power features to improve build performance.
+
The main downside is the extra work required to perform the migration, particularly if the existing build is complex and has many inter-project dependencies.
However, these builds often benefit the most from a switch to idiomatic Gradle.