*         .build();
   * }</pre>
   *
   * <p>After invoking {@link #build()} it is still possible to add more entries and build again.
   * Thus each map generated by this builder will be a superset of any map generated before it.
   *
   * @since 2.0
   */
  public static final class Builder<B> {
    private final ImmutableMap.Builder<Class<? extends B>, B> mapBuilder = ImmutableMap.builder();

    /**

	// This is important when we register in a handler itself, which would cause duplicative events.
	RegisterBatch(f func(o []Event[T], initialSync bool), runExistingState bool) Syncer
}

// internalCollection is a superset of Collection for internal usage. All collections must implement this type, but
// we only expose some functions to external users for simplicity.
type internalCollection[T any] interface {
	Collection[T]

	Metadata *BootstrapNodeMetadata
	// RawMetadata is the untyped node metadata
	RawMetadata map[string]any
	// Locality from Envoy bootstrap
	Locality *core.Locality
}

// BootstrapNodeMetadata is a superset of NodeMetadata, intended to model the entirety of the node metadata
// we configure in the Envoy bootstrap. This is split out from NodeMetadata to explicitly segment the parameters

For example, the graph of dependencies to use at compile time is different from the graph of dependencies to use at runtime.
In general, the graph of dependencies at runtime is a superset of the compile dependencies (there are exceptions to the rule, for example in case some dependencies are repackaged within the runtime binary).

Gradle resolves those dependency graphs independently.

func (testMetaFactory) Interpret(data []byte) (*schema.GroupVersionKind, error) {
	findKind := struct {
		APIVersion string `json:"myVersionKey,omitempty"`
		ObjectKind string `json:"myKindKey,omitempty"`
	}{}
	// yaml is a superset of json, so we use it to decode here. That way,
	// we understand both.
	if err := yaml.Unmarshal(data, &findKind); err != nil {
		return nil, fmt.Errorf("couldn't get version/kind: %v", err)
	}

        if (previousResult.getFailure() != null) {
            return false;
        }

        // If the previous result was rejected, do not need to re-resolve (new rejects will be a superset of previous rejects)
        if (previousResult.isRejected()) {
            return false;
        }

        // If the previous result is still not rejected, do not need to re-resolve. The previous result is still good.

   * Object)} are even more convenient.
   *
   * <p>Builder instances can be reused - it is safe to call {@link #buildOrThrow} multiple times to
   * build multiple tables in series. Each table is a superset of the tables created before it.
   *
   * @since 11.0
   */
  @DoNotMock
  public static final class Builder<R, C, V> {
    private final List<Cell<R, C, V>> cells = Lists.newArrayList();

        when:
        options.jvmArgs = ["-server", "-esa"]
        other.jvmArgs = ["-server"]

        then:
        options.isCompatibleWith(other)
    }

    def "is not compatible with a superset of jvm args"() {
        def other = new DefaultJavaForkOptions(resolver, fileCollectionFactory, new DefaultJavaDebugOptions())

        when:
        options.jvmArgs = ["-server"]

	default:
		return nil, errNotCommon
	}
}

// ListAccessor returns a List interface for the provided object or an error if the object does
// not provide List.
// IMPORTANT: Objects are NOT a superset of lists. Do not use this check to determine whether an
// object *is* a List.
func ListAccessor(obj interface{}) (List, error) {
	switch t := obj.(type) {
	case List:
		return t, nil
	case ListMetaAccessor:

   * Object)} are even more convenient.
   *
   * <p>Builder instances can be reused - it is safe to call {@link #buildOrThrow} multiple times to
   * build multiple tables in series. Each table is a superset of the tables created before it.
   *
   * @since 11.0
   */
  @DoNotMock
  public static final class Builder<R, C, V> {
    private final List<Cell<R, C, V>> cells = Lists.newArrayList();