{`package e5; const _ = complex64(-1e-200)`, `complex64(-1e-200)`, `complex64`, `(0 + 0i)`},
		{`package e6; const _ = complex128( 1e-2000)`, `complex128(1e-2000)`, `complex128`, `(0 + 0i)`},
		{`package e7; const _ = complex128(-1e-2000)`, `complex128(-1e-2000)`, `complex128`, `(0 + 0i)`},

		{`package f0 ; var _ float32 =  1e-200`, `1e-200`, `float32`, `0`},

		{`package e5; const _ = complex64(-1e-200)`, `complex64(-1e-200)`, `complex64`, `(0 + 0i)`},
		{`package e6; const _ = complex128( 1e-2000)`, `complex128(1e-2000)`, `complex128`, `(0 + 0i)`},
		{`package e7; const _ = complex128(-1e-2000)`, `complex128(-1e-2000)`, `complex128`, `(0 + 0i)`},

		{`package f0 ; var _ float32 =  1e-200`, `1e-200`, `float32`, `0`},

	switch t.Kind() {
	case TCOMPLEX64:
		return Types[TFLOAT32]
	case TCOMPLEX128:
		return Types[TFLOAT64]
	}
	base.Fatalf("unexpected type: %v", t)
	return nil
}

func ComplexForFloat(t *Type) *Type {
	switch t.Kind() {
	case TFLOAT32:
		return Types[TCOMPLEX64]
	case TFLOAT64:
		return Types[TCOMPLEX128]
	}
	base.Fatalf("unexpected type: %v", t)
	return nil
}

	// It panics if the type's Kind is not Func.
	// It panics if i is not in the range [0, NumOut()).
	Out(i int) Type

	// OverflowComplex reports whether the complex128 x cannot be represented by type t.
	// It panics if t's Kind is not Complex64 or Complex128.
	OverflowComplex(x complex128) bool

	// OverflowFloat reports whether the float64 x cannot be represented by type t.
	// It panics if t's Kind is not Float32 or Float64.

	renamedUint64     uint64
	renamedUintptr    uintptr
	renamedString     string
	renamedBytes      []byte
	renamedFloat32    float32
	renamedFloat64    float64
	renamedComplex64  complex64
	renamedComplex128 complex128
)

func TestFmtInterface(t *testing.T) {
	var i1 any
	i1 = "abc"
	s := Sprintf("%s", i1)
	if s != "abc" {
		t.Errorf(`Sprintf("%%s", empty("abc")) = %q want %q`, s, "abc")
	}
}

var (

	c.uint32 = c.Ident("uint32")
	c.uint64 = c.Ident("uint64")
	c.uintptr = c.Ident("uintptr")
	c.float32 = c.Ident("float32")
	c.float64 = c.Ident("float64")
	c.complex64 = c.Ident("complex64")
	c.complex128 = c.Ident("complex128")
	c.void = c.Ident("void")
	c.string = c.Ident("string")
	c.goVoid = c.Ident("_Ctype_void")

	// Normally cgo translates void* to unsafe.Pointer,

// T has lots of interesting pieces to use to test execution.
type T struct {
	// Basics
	True        bool
	I           int
	U16         uint16
	X, S        string
	FloatZero   float64
	ComplexZero complex128
	// Nested structs.
	U *U
	// Struct with String method.
	V0     V
	V1, V2 *V
	// Struct with Error method.
	W0     W
	W1, W2 *W
	// Slices
	SI      []int
	SICap   []int
	SIEmpty []int

// T has lots of interesting pieces to use to test execution.
type T struct {
	// Basics
	True        bool
	I           int
	U16         uint16
	X, S        string
	FloatZero   float64
	ComplexZero complex128
	// Nested structs.
	U *U
	// Struct with String method.
	V0     V
	V1, V2 *V
	// Struct with Error method.
	W0     W
	W1, W2 *W
	// Slices
	SI      []int
	SICap   []int
	SIEmpty []int

	"float32":    {Size: 4, Align: 4, C: c("GoFloat32")},
	"float64":    {Size: 8, Align: 8, C: c("GoFloat64")},
	"complex64":  {Size: 8, Align: 4, C: c("GoComplex64")},
	"complex128": {Size: 16, Align: 8, C: c("GoComplex128")},
}

// Map an ast type to a Type.
func (p *Package) cgoType(e ast.Expr) *Type {
	switch t := e.(type) {
	case *ast.StarExpr:
		x := p.cgoType(t.X)

Error:
	x.mode = invalid
	x.expr = e
	return statement // avoid follow-up errors
}

// keyVal maps a complex, float, integer, string or boolean constant value
// to the corresponding complex128, float64, int64, uint64, string, or bool
// Go value if possible; otherwise it returns x.
// A complex constant that can be represented as a float (such as 1.2 + 0i)