auto stack_type = arg_to_stack_type(i);
    if (!stack_type.has_value()) continue;
    func.getArgument(i).setType(*stack_type);
    new_input_types[i] = *stack_type;
    auto size_arg = func.front().addArgument(size_var_type, func.getLoc());
    new_input_types.push_back(size_arg.getType());
    if (stack_var_to_size_var) {
      (*stack_var_to_size_var)[func.getArgument(i)] = size_arg;
    }
  }

                dependency.setGroupId(a.getGroupId());
                dependency.setVersion(a.getVersion());
                dependency.setScope(a.getScope());
                dependency.setType(a.getType());
                dependency.setClassifier(a.getClassifier());

                list.add(dependency);
            }
        }
        return Collections.unmodifiableList(list);
    }

      RankedTensorType::get(/*shape=*/{}, builder.getType<TF::StringType>());
  BlockArgument new_file_prefix_arg =
      main_func_op.getBody().front().addArgument(
          file_prefix_arg_type,
          NameLoc::get(builder.getStringAttr(kTfFilePrefix)));

  SmallVector<Type> input_types(main_func_op.getArgumentTypes());
  input_types.emplace_back(file_prefix_arg_type);

  main_func_op.setType(

                compilerBridgeJar.artifact(artifact -> {
                    if (!isScala3) {
                        artifact.setClassifier("sources");
                    }
                    artifact.setType("jar");
                    artifact.setExtension("jar");
                    artifact.setName(compilerBridgeJar.getName());
                });

//   V2     = op2(V1)
void ConvertAndWrapUsesInUnrealizedCast(Value result, TypeConverter &converter,
                                        IRRewriter &rewriter) {
  auto type = result.getType();
  result.setType(converter.convertType(result.getType()));
  auto new_value = converter.materializeArgumentConversion(
      rewriter, result.getLoc(), type, {result});
  rewriter.replaceAllUsesExcept(result, new_value, new_value.getDefiningOp());

	mkSecSym := func(name string) loader.Sym {
		s := d.ldr.CreateSymForUpdate(name, 0)
		s.SetType(sym.SDWARFSECT)
		s.SetReachable(true)
		return s.Sym()
	}
	mkAnonSym := func(kind sym.SymKind) loader.Sym {
		s := d.ldr.MakeSymbolUpdater(d.ldr.CreateExtSym("", 0))
		s.SetType(kind)
		s.SetReachable(true)
		return s.Sym()
	}

	// Create the section symbols.

class TapeTensor {
 public:
  explicit TapeTensor(AbstractTensorHandle* handle);
  TapeTensor(const TapeTensor& other);
  ~TapeTensor();

  int64_t GetID() const;
  tensorflow::DataType GetDType() const;

  AbstractTensorHandle* ZerosLike() const;

  AbstractTensorHandle* GetHandle() const;

 private:
  AbstractTensorHandle* handle_;
};

// A tracing/immediate-execution agnostic tape.

// Keep in sync with src/runtime/select.go.
func scasetype() *types.Type {
	if scase == nil {
		n := ir.NewDeclNameAt(src.NoXPos, ir.OTYPE, ir.Pkgs.Runtime.Lookup("scase"))
		scase = types.NewNamed(n)
		n.SetType(scase)
		n.SetTypecheck(1)

		scase.SetUnderlying(types.NewStruct([]*types.Field{
			types.NewField(base.Pos, typecheck.Lookup("c"), types.Types[types.TUNSAFEPTR]),

		ctxt.Errorf(s, "imported symbol must have a given library")
	}

	sb := ldr.MakeSymbolUpdater(s)
	sb.SetReachable(true)
	sb.SetType(sym.SXCOFFTOC)

	// Create new dynamic symbol
	extsym := ldr.CreateSymForUpdate(ldr.SymExtname(s), 0)
	extsym.SetType(sym.SDYNIMPORT)
	extsym.SetDynimplib(ldr.SymDynimplib(s))
	extsym.SetExtname(ldr.SymExtname(s))
	extsym.SetDynimpvers(ldr.SymDynimpvers(s))

	checkLHS := func(i int, typ *types.Type) {
		if n := lhs[i]; typ != nil && ir.DeclaredBy(n, stmt) && n.Type() == nil {
			base.Assertf(typ.Kind() == types.TNIL, "unexpected untyped nil")
			n.SetType(defaultType(typ))
		}
		if lhs[i].Typecheck() == 0 {
			lhs[i] = AssignExpr(lhs[i])
		}
		checkassign(lhs[i])
	}

	assignType := func(i int, typ *types.Type) {
		checkLHS(i, typ)
		if typ != nil {