dim {
              size: -1
            }
            dim {
              size: 1
            }
          }
        }
      }
      method_name: "tensorflow/serving/classify"
    }
  }
  signature_def {
    key: "classify_x_to_y"
    value {
      inputs {
        key: "inputs"
        value {
          name: "tf_example:0"
          dtype: DT_STRING

			"item", item.identity,
			"owner", reference,
		)
		gc.absentOwnerCache.Add(absentOwnerCacheKey)
		return true, nil, nil
	}
	return false, owner, nil
}

// classify the latestReferences to three categories:
// solid: the owner exists, and is not "waitingForDependentsDeletion"
// dangling: the owner does not exist

	delegatesMap := map[types.NamespacedName]config.Config{}
	delegatesExportToMap := make(map[types.NamespacedName]sets.Set[visibility.Instance])
	// root virtualservices with delegate
	var rootVses []config.Config

	// 1. classify virtualservices
	for _, vs := range vServices {
		rule := vs.Spec.(*networking.VirtualService)
		// it is delegate, add it to the indexer cache along with the exportTo for the delegate
		if len(rule.Hosts) == 0 {

// An object path is a textual and (with training) human-readable encoding
// of a sequence of destructuring operators, starting from a types.Package.
// The sequences represent a path through the package/object/type graph.
// We classify these operators by their type:
//
//	PO package->object	Package.Scope.Lookup
//	OT  object->type 	Object.Type
//	TT    type->type 	Type.{Elem,Key,Params,Results,Underlying} [EKPRU]

		ctx := trace.StartGoroutine(ctx)
		go func(p string, r *result) {
			r.QueryResult, r.err = queryModule(ctx, p)
			wg.Done()
		}(p, &results[i])
	}
	wg.Wait()

	// Classify the results. In case of failure, identify the error that the user
	// is most likely to find helpful: the most useful class of error at the
	// longest matching path.
	var (
		noPackage      *PackageNotInModuleError

	// 11.8: Single-Precision Floating-Point Compare Instructions
	AFEQS & obj.AMask: rFFIEncoding,
	AFLTS & obj.AMask: rFFIEncoding,
	AFLES & obj.AMask: rFFIEncoding,

	// 11.9: Single-Precision Floating-Point Classify Instruction
	AFCLASSS & obj.AMask: rFIEncoding,

	// 12.3: Double-Precision Load and Store Instructions
	AFLD & obj.AMask: iFEncoding,
	AFSD & obj.AMask: sFEncoding,

	if ne := err.(net.Error); ne.Temporary() != false {
		t.Error("Write timed out but incorrectly classified the error as Temporary")
	}
	if !isTimeoutError(err) {
		t.Error("Write timed out but did not classify the error as a Timeout")
	}
}

type readerFunc func([]byte) (int, error)

func (f readerFunc) Read(b []byte) (int, error) { return f(b) }

	"internal/godebug"
	"internal/syscall/execenv"
	"io"
	"os"
	"path/filepath"
	"runtime"
	"strconv"
	"strings"
	"syscall"
	"time"
)

// Error is returned by [LookPath] when it fails to classify a file as an
// executable.
type Error struct {
	// Name is the file name for which the error occurred.
	Name string
	// Err is the underlying error.
	Err error
}

func (e *Error) Error() string {

	// string may change across generations, but we care about checking
	// the value itself.
	taskID TaskID
	name   string
}

// rangeType is a way to classify special ranges of time.
//
// These typically correspond 1:1 with "Begin" events, but
// they may have an optional subtype that describes the range
// in more detail.
type rangeType struct {

	GoVersion     string            // Go version for package

	SucceedOnTypecheckFailure bool // awful hack; see #18395 and below
}

func buildVetConfig(a *Action, srcfiles []string) {
	// Classify files based on .go extension.
	// srcfiles does not include raw cgo files.
	var gofiles, nongofiles []string
	for _, name := range srcfiles {
		if strings.HasSuffix(name, ".go") {
			gofiles = append(gofiles, name)