// expression that yields the *runtime._type value representing typ.
func kindRType(pos src.XPos, typ *types.Type, k types.Kind) ir.Node {
	base.AssertfAt(typ.Kind() == k, pos, "want %v type, have %v", k, typ)
	return TypePtrAt(pos, typ)
}

// mapRType asserts that typ is a map type, and returns an expression
// that yields the *runtime._type value representing typ.
func mapRType(pos src.XPos, typ *types.Type) ir.Node {

  /**
   * @return a {@code ListenableFuture} representing pending completion of the task
   * @throws RejectedExecutionException {@inheritDoc}
   */
  @Override
  <T extends @Nullable Object> ListenableFuture<T> submit(Callable<T> task);

  /**
   * @return a {@code ListenableFuture} representing pending completion of the task
   * @throws RejectedExecutionException {@inheritDoc}
   */

| Adds a target representing the {cpp} application to the project file.

| <<cpp_library_plugin.adoc#cpp_library_plugin,{cpp} Library>>
| Adds a target for each specified linkage representing the shared and/or static library to the project file.

| <<swift_application_plugin.adoc#swift_application_plugin,Swift Application>>
| Adds a target representing the Swift application to the project file.

  /**
   * @return a {@code ListenableFuture} representing pending completion of the task
   * @throws RejectedExecutionException {@inheritDoc}
   */
  @Override
  <T extends @Nullable Object> ListenableFuture<T> submit(Callable<T> task);

  /**
   * @return a {@code ListenableFuture} representing pending completion of the task
   * @throws RejectedExecutionException {@inheritDoc}
   */

// computed dynamically.
type DynamicType struct {
	miniExpr

	// RType is an expression that yields a *runtime._type value
	// representing the asserted type.
	//
	// BUG(mdempsky): If ITab is non-nil, RType may be nil.
	RType Node

	// ITab is an expression that yields a *runtime.itab value
	// representing the asserted type within the assertee expression's
	// original interface type.
	//

        /**
         * Create a new legacy result representing the result of resolving build dependencies.
         */
        public static LegacyResolverResults buildDependenciesResolved(LegacyVisitedArtifactSet artifacts) {
            return new DefaultLegacyResolverResults(artifacts, null);
        }

        /**
         * Create a new legacy result representing the result of resolving the dependency graph.
         */

	r.Amount &= 63
	return r
}

// OutMask provides a mask representing the selected bits.
func (r RotateParams) OutMask() uint64 {
	// Note: z must be unsigned for bootstrap compiler
	z := uint8(63-r.End+r.Start) & 63 // number of zero bits in mask
	return bits.RotateLeft64(^uint64(0)<<z, -int(r.Start))
}

// InMask provides a mask representing the selected bits relative
// to the source value (i.e. pre-rotation).

    this.nodeV = checkNotNull(nodeV);
  }

  /** Returns an {@link EndpointPair} representing the endpoints of a directed edge. */
  public static <N> EndpointPair<N> ordered(N source, N target) {
    return new Ordered<>(source, target);
  }

  /** Returns an {@link EndpointPair} representing the endpoints of an undirected edge. */
  public static <N> EndpointPair<N> unordered(N nodeU, N nodeV) {

type User struct {
	// Uid is the user ID.
	// On POSIX systems, this is a decimal number representing the uid.
	// On Windows, this is a security identifier (SID) in a string format.
	// On Plan 9, this is the contents of /dev/user.
	Uid string
	// Gid is the primary group ID.
	// On POSIX systems, this is a decimal number representing the gid.
	// On Windows, this is a SID in a string format.

    this.nodeV = checkNotNull(nodeV);
  }

  /** Returns an {@link EndpointPair} representing the endpoints of a directed edge. */
  public static <N> EndpointPair<N> ordered(N source, N target) {
    return new Ordered<>(source, target);
  }

  /** Returns an {@link EndpointPair} representing the endpoints of an undirected edge. */
  public static <N> EndpointPair<N> unordered(N nodeU, N nodeV) {