# Explicit argument indexes

In [Printf], [Sprintf], and [Fprintf], the default behavior is for each
formatting verb to format successive arguments passed in the call.
However, the notation [n] immediately before the verb indicates that the
nth one-indexed argument is to be formatted instead. The same notation
before a '*' for a width or precision selects the argument index holding

// that can be used with InferShapeForFunction.
// TF NodeShape uses `,` to separate dimensions, and `:` to separate arguments.
// Ex: 1,2:3,4,5:6,? --> [[1, 2], [3, 4, 5], [6, ?]]
absl::StatusOr<SmallVector<SmallVector<int64_t>>> ParseArgumentShapes(
    absl::string_view input_shapes);

// Given a list of refined shapes matching the function arguments of func, runs

  // For While, the arguments of the calls in the body and cond regions match
  // if they are region arguments with the same region argument numbers. If the
  // 2 calls have the same value (an extern value) used as an argument, we
  // cannot do a trivial transformation because post transform, we will need to
  // pass this extern value as an argument to the function, so we cannot use the

    llvm::StringRef function_name, llvm::ArrayRef<Tensor> arguments) {
  // Get the kernel entrypoint function.
  const Function* compute = bef_file_->GetFunction(function_name);
  CHECK(compute) << "Entrypoint function not found";
  CHECK_EQ(arguments.size() + 1, compute->num_arguments())
      << "Wrong number of arguments for function " << function_name.str();

  // Prepare function arguments from ready Chain and input Tensors.

ECL0001={0} not found
ECL0008=argument[{0}] is null.
ECL0009=argument[{0}] is illegal. because {1}.
ECL0010=argument[{0}] is null or empty string.
ECL0011=argument[{0}] is null or empty array.
ECL0012=argument[{0}] is null or empty collection.
ECL0013=argument[{0}] is null or empty map.
ECL0014=argument[{0}] which is null the index of array is negative integer.
ECL0015=argument[{0}] which is null the index of array exceed the size of array[{1}].

    final ArgWriter argWriter = ArgWriter.unixStyle(printWriter)

    def "writes single argument to line"() {
        when:
        argWriter.args("-nologo")

        then:
        writer.toString() == toPlatformLineSeparators("-nologo\n")
    }

    def "writes multiple arguments to line"() {
        when:
        argWriter.args("-I", "some/dir")

        then:

		expectedArgs []Arg
	}{
		{
			testName:     "update 1 argument",
			args:         []Arg{{Name: "foo", Value: "bar1"}, {Name: "foo", Value: "bar2"}},
			name:         "foo",
			value:        "zz",
			nArgs:        1,
			expectedArgs: []Arg{{Name: "foo", Value: "bar1"}, {Name: "foo", Value: "zz"}},
		},
		{
			testName:     "update all arguments",

    def "can construct a custom task with constructor arguments"() {
        given:
        buildFile << CUSTOM_TASK_WITH_CONSTRUCTOR_ARGS
        buildFile << "tasks.create('myTask', CustomTask, 'hello', 42)"

        when:
        run 'myTask'

        then:
        outputContains("hello 42")
    }

    def "can construct a custom task with constructor arguments as #description via Map"() {
        given:

type gobError struct {
	err error
}

// errorf is like error_ but takes Printf-style arguments to construct an error.
// It always prefixes the message with "gob: ".
func errorf(format string, args ...any) {
	error_(fmt.Errorf("gob: "+format, args...))
}

// error_ wraps the argument error and uses it as the argument to panic.
func error_(err error) {
	panic(gobError{err})
}

// interval (2,3).  Large arguments are handled by Stirling's
// formula. Large negative arguments are made positive using
// a reflection formula.
//
// ACCURACY:
//
//                      Relative error:
// arithmetic   domain     # trials      peak         rms
//    DEC      -34, 34      10000       1.3e-16     2.5e-17
//    IEEE    -170,-33      20000       2.3e-15     3.3e-16
//    IEEE     -33,  33     20000       9.4e-16     2.2e-16