myprint1(nil, z...)
}

func foo77b(z []interface{}) { // ERROR "leaking param: z$"
	var ppi **interface{}
	*ppi = myprint1(nil, z...)
}

func foo77c(z []interface{}) { // ERROR "leaking param: z$"
	sink = myprint1(nil, z...)
}

func dotdotdot() {
	i := 0
	myprint(nil, &i) // ERROR "... argument does not escape$"

	j := 0

	myprint1(nil, z...)
}

func foo77b(z []interface{}) { // ERROR "leaking param: z$"
	var ppi **interface{}
	*ppi = myprint1(nil, z...)
}

func foo77c(z []interface{}) { // ERROR "leaking param: z$"
	sink = myprint1(nil, z...)
}

func dotdotdot() {
	i := 0
	myprint(nil, &i) // ERROR "... argument does not escape$"

	j := 0

package a

var V val[int]

type val[T any] struct {
	valx T
}

func (v *val[T]) Print() {
	v.print1()
}

func (v *val[T]) print1() {
	println(v.valx)
}

func (v *val[T]) fnprint1() {
	println(v.valx)
}

func FnPrint[T any](v *val[T]) {
	v.fnprint1()

//
//	extern void MyGoPrint(uintptr_t handle);
//	void myprint(uintptr_t handle);
//	*/
//	import "C"
//	import "runtime/cgo"
//
//	//export MyGoPrint
//	func MyGoPrint(handle C.uintptr_t) {
//		h := cgo.Handle(handle)
//		val := h.Value().(string)
//		println(val)
//		h.Delete()
//	}
//
//	func main() {
//		val := "hello Go"
//		C.myprint(C.uintptr_t(cgo.NewHandle(val)))
//		// Output: hello Go
//	}

// operation.

type myInt1 int
type myInt2 int

func _[T interface{ myInt1|myInt2; ~int }]() T { return T(0) }
func _[T interface{ ~int; myInt1|myInt2 }]() T { return T(0) }

// Here the intersections are empty - there's no type that's in the type set of T.
func _[T interface{ myInt1|myInt2; int }]() T { return T(0 /* ERROR "cannot convert" */ ) }

//
// To enable printf checking on a function that is not found by this
// analyzer's heuristics (for example, because control is obscured by
// dynamic method calls), insert a bogus call:
//
//	func MyPrintf(format string, args ...any) {
//		if false {
//			_ = fmt.Sprintf(format, args...) // enable printf checking
//		}
//		...
//	}
//
// # Specifying printf wrappers by flag
//

		makeInput: func() any {
			type (
				MyInt1 int
				MyInt2 int
				myInt  int
				s2     struct {
					MyInt2
					myInt
				}
				s1 struct {
					MyInt1
					myInt
					s2
				}
				S struct {
					s1
					myInt
				}
			)
			return S{s1{1, 2, s2{3, 4}}, 6}
		},
		want: `{"MyInt1":1,"MyInt2":3}`,
	}, {

// CHECK:    %[[SUB2:.*]], %[[SUB2_control:.*]] = tf_executor.island(%[[ADD2_control]], %[[MUL_control]]) wraps "tf.Sub"(%[[ADD1]], %[[SUB1]])
// CHECK:    %[[PRINT1:.*]], %[[PRINT1_control:.*]] = tf_executor.island wraps "tf.Print"(%[[SUB2]]) <{message = "sub result"}>
// CHECK:    %[[ISLAND1:.*]] = tf_executor.island(%[[ADD2_control]], %[[MUL_control]]) wraps "tf.NoOp"()

	package main

	// #include <stdio.h>
	// #include <stdlib.h>
	//
	// static void myprint(char* s) {
	//   printf("%s\n", s);
	// }
	import "C"
	import "unsafe"

	func main() {
		cs := C.CString("Hello from stdio")
		C.myprint(cs)
		C.free(unsafe.Pointer(cs))
	}

A few special functions convert between Go and C types

		}
		if off < startOffset {
			return true
		}
		bits := *(*uint8)(add(liveInfo, uintptr(liveIdx)+uintptr(slotIdx/8)))
		return bits&(1<<(slotIdx%8)) != 0
	}

	print1 := func(off, sz, slotIdx uint8) {
		x := readUnaligned64(add(argp, uintptr(off)))
		// mask out irrelevant bits
		if sz < 8 {
			shift := 64 - sz*8
			if goarch.BigEndian {
				x = x >> shift
			} else {