}

    private TaskFinishEvent taskFinishedEvent(InternalOperationFinishedProgressEvent event) {
        // do not remove task descriptors because they might be needed to describe subsequent tasks' dependencies
        TaskOperationDescriptor descriptor = assertDescriptorType(TaskOperationDescriptor.class, getParentDescriptor(event.getDescriptor().getId()));

	}
	var p *abi.Imethod
	for i := range t.Methods {
		p = &t.Methods[i]
		if t.nameOff(p.Name).Name() == name {
			return t.Method(i), true
		}
	}
	return
}

// A StructField describes a single field in a struct.
type StructField struct {
	// Name is the field name.
	Name string

	// PkgPath is the package path that qualifies a lower case (unexported)

Additionally to the aforementioned general classpath rules, compile classpaths ignore changes to everything but class files. Gradle uses the same class analysis described in <<java_plugin.adoc#sec:java_compile_avoidance,Java compile avoidance>> to further filter changes that don't affect the class' ABIs.
This means that changes which only touch the implementation of classes do not make the task out of date.

	rate := int64(atomic.Load64(&mutexprofilerate))
	if rate > 0 && cheaprand64()%rate == 0 {
		saveblockevent(cycles, rate, skip+1, mutexProfile)
	}
}

// Go interface to profile data.

// A StackRecord describes a single execution stack.
type StackRecord struct {
	Stack0 [32]uintptr // stack trace for this record; ends at first 0 entry
}

// Stack returns the stack trace associated with the record,
// a prefix of r.Stack0.

}

// NoGoError is the error used by [Import] to describe a directory
// containing no buildable Go source files. (It may still contain
// test files, files hidden by build tags, and so on.)
type NoGoError struct {
	Dir string
}

func (e *NoGoError) Error() string {
	return "no buildable Go source files in " + e.Dir
}

// MultiplePackageError describes a directory containing

	//
	// cx holds the pre-inverted encoding (the packed incremented bytes).
	cx := uint64(0) // byte-only

	// This stanza (until the blank line) is the "LMS-substring iterator",
	// described in placeLMS_8_64 above, with one line added to maintain cx.
	c0, c1, isTypeS := byte(0), byte(0), false
	for i := len(text) - 1; i >= 0; i-- {
		c0, c1 = text[i], c0
		cx = cx<<8 | uint64(c1+1) // byte-only

====

		if !drop[m.Path] {
			roots = append(roots, m)
		}
	}
	roots = append(roots, replace...)
	gover.ModSort(roots)
	return newRequirements(rs.pruning, roots, rs.direct)
}

// A ConstraintError describes inconsistent constraints in EditBuildList
type ConstraintError struct {
	// Conflict lists the source of the conflict for each version in mustSelect
	// that could not be selected due to the requirements of some other version in

// Function definition options. TODO(iga): Define and implement
typedef struct TF_FunctionOptions TF_FunctionOptions;

// Sets the shape of the Tensor referenced by `output` in `graph` to
// the shape described by `dims` and `num_dims`.
//
// If the number of dimensions is unknown, `num_dims` must be set to
// -1 and `dims` can be null. If a dimension is unknown, the
// corresponding entry in the `dims` array must be -1.
//

override the hostname; or specific logic for a cloud provider.

The kubelet works in terms of a PodSpec. A PodSpec is a YAML or JSON object
that describes a pod. The kubelet takes a set of PodSpecs that are provided through
various mechanisms (primarily through the apiserver) and ensures that the containers
described in those PodSpecs are running and healthy. The kubelet doesn't manage
containers which were not created by Kubernetes.