}
            @Override
            Iterable<String> asArguments() {
                return test.javaVersion.isCompatibleWith(JavaVersion.VERSION_1_9)
                    ? ["--add-opens=java.base/java.lang=ALL-UNNAMED"]
                    : []
            }
        }
        tasks.withType(Test).configureEach {
            jvmArgumentProviders.add(new AddOpensArgProvider(it))
        }
        """
    }

	if n == 0 {
		// no result
		return
	}

	w.byte(' ')
	if n == 1 && (w.ctxt != nil || sig.results.vars[0].name == "") {
		// single unnamed result (if type hashing, name must be ignored)
		w.typ(sig.results.vars[0].typ)
		return
	}

	// multiple or named result(s)
	w.tuple(sig.results, false)
}

// subscript returns the decimal (utf8) representation of x using subscript digits.

	if n == 0 {
		// no result
		return
	}

	w.byte(' ')
	if n == 1 && (w.ctxt != nil || sig.results.vars[0].name == "") {
		// single unnamed result (if type hashing, name must be ignored)
		w.typ(sig.results.vars[0].typ)
		return
	}

	// multiple or named result(s)
	w.tuple(sig.results, false)
}

// subscript returns the decimal (utf8) representation of x using subscript digits.

	C_STAT    = 3   // Static symbol
	C_BLOCK   = 100 // Beginning or end of inner block
	C_FCN     = 101 // Beginning or end of function
	C_FILE    = 103 // Source file name and compiler information
	C_HIDEXT  = 107 // Unnamed external symbol
	C_BINCL   = 108 // Beginning of include file
	C_EINCL   = 109 // End of include file
	C_WEAKEXT = 111 // Weak external symbol
	C_DWARF   = 112 // DWARF symbol
	C_GSYM    = 128 // Global variable

            executer.withArgument('-Dorg.gradle.jvmargs=--add-opens java.base/java.util.concurrent=ALL-UNNAMED')
        }
        fails "verify"

        then:
        if (FluidDependenciesResolveInterceptor.isFluid()) {
            failure.assertHasDescription("Could not determine the dependencies of task ':verify'.")

  }

  TF_Status* status = TF_NewStatus();
  auto clean_status = MakeCleanup([status] { TF_DeleteStatus(status); });

  // Builds TF operation and sets all the attributes.
  std::string node_name = "unnamed";
  if (auto attr = inst->getAttrOfType<mlir::StringAttr>("name")) {
    node_name = std::string(attr.getValue());
  }
  auto node_def_or = ConvertTFDialectOpToNodeDef(

		{NewTypeName(nopos, pkg, "t0", nil), false}, // no type yet
		{t1, false}, // type name refers to named type and vice versa
		{NewTypeName(nopos, nil, "t2", NewInterfaceType(nil, nil)), true}, // type name refers to unnamed type
		{NewTypeName(nopos, pkg, "t3", n1), true},                         // type name refers to named type with different type name

	n := res.NumFields()
	if n == 0 {
		// no result
		return
	}

	buf.WriteByte(' ')
	if n == 1 && len(res.List[0].Names) == 0 {
		// single unnamed result
		WriteExpr(buf, res.List[0].Type)
		return
	}

	// multiple or named result(s)
	buf.WriteByte('(')
	writeFieldList(buf, res.List, ", ", false)
	buf.WriteByte(')')
}

			var recvTParams []*TypeParam
			if rname != nil {
				// recv should be a Named type (otherwise an error is reported elsewhere)
				// Also: Don't report an error via genericType since it will be reported
				//       again when we type-check the signature.
				// TODO(gri) maybe the receiver should be marked as invalid instead?
				if recv := asNamed(check.genericType(rname, nil)); recv != nil {
					recvTParams = recv.TypeParams().list()

		{NewTypeName(nopos, pkg, "t0", nil), false}, // no type yet
		{t1, false}, // type name refers to named type and vice versa
		{NewTypeName(nopos, nil, "t2", NewInterfaceType(nil, nil)), true}, // type name refers to unnamed type
		{NewTypeName(nopos, pkg, "t3", n1), true},                         // type name refers to named type with different type name