sink2 = p
	sink2 = unsafe.Slice(p, 100)
}

func CheckPtrStringOK() {
	p := new([4]byte)
	sink2 = unsafe.String(&p[1], 3)
}

func CheckPtrStringFail() {
	p := new(byte)
	sink2 = p
	sink2 = unsafe.String(p, 100)
}

func CheckPtrAlignmentNested() {
	s := make([]int8, 100)
	p := unsafe.Pointer(&s[0])
	n := 9
	_ = ((*[10]int8)(unsafe.Pointer((*[10]int64)(unsafe.Pointer(&p)))))[:n:n]

	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)
	MOVW.P	R0, 4(R1)

ip6tables -t raw -A OUTPUT -p udp -j ISTIO_OUTPUT
ip6tables -t nat -A ISTIO_OUTPUT -p udp --dport 53 -m owner --uid-owner 3 -j RETURN
ip6tables -t nat -A ISTIO_OUTPUT -p udp --dport 53 -m owner --uid-owner 4 -j RETURN
ip6tables -t nat -A ISTIO_OUTPUT -p udp --dport 53 -m owner --gid-owner 1 -j RETURN
ip6tables -t nat -A ISTIO_OUTPUT -p udp --dport 53 -m owner --gid-owner 2 -j RETURN

		p.buf.writeString(reflect.TypeOf(p.arg).String())
		p.buf.writeByte('=')
		p.printArg(p.arg, 'v')
	case p.value.IsValid():
		p.buf.writeString(p.value.Type().String())
		p.buf.writeByte('=')
		p.printValue(p.value, 'v', 0)
	default:
		p.buf.writeString(nilAngleString)
	}
	p.buf.writeByte(')')
	p.erroring = false
}

func (p *pp) fmtBool(v bool, verb rune) {
	switch verb {
	case 't', 'v':

:  s:http h:example.org p:/foo/:
:a  s:http h:example.org p:/foo/:a
:/  s:http h:example.org p:/foo/:/
:\\  s:http h:example.org p:/foo/:/
:#  s:http h:example.org p:/foo/: f:#
\#  s:http h:example.org p:/foo/bar f:#
\#/  s:http h:example.org p:/foo/bar f:#/
\#\\  s:http h:example.org p:/foo/bar f:#\\
\#;?  s:http h:example.org p:/foo/bar f:#;?
?  s:http h:example.org p:/foo/bar q:?
/  s:http h:example.org p:/

	g[int](x)    // int is ok for P
	g[string](x) // string is also ok for P!
}

// This is analogous to the above example,
// but uses two interface types of the same structure.

type T2[P any] interface{ m() }

func _() {
	var x T2[int]
	g /* ERROR "cannot infer P" */ (x)
	g[int](x)    // int is ok for P
	g[string](x) // string is also ok for P!
}

// Analogous to the T2 example but using an unparameterized interface T3.

// implications on the spec. See issue #51576.

package p

type Sf struct {
        f int
}

func f0[P Sf](p P) {
        _ = p.f // ERROR "p.f undefined"
        p.f /* ERROR "p.f undefined" */ = 0
}

func f0t[P ~struct{f int}](p P) {
        _ = p.f // ERROR "p.f undefined"
        p.f /* ERROR "p.f undefined" */ = 0
}

var _ = f0[Sf]
var _ = f0t[Sf]

	{"package p; type _[P (T),] struct{}", "package p; type _[P T] struct{}"},
	{"package p; type _[P (T), _ any] struct{}", "package p; type _[P T, _ any] struct{}"},

	{"package p; type _[P (*struct{})] struct{}", "package p; type _[P *struct{}] struct{}"},
	{"package p; type _[P ([]int)] struct{}", "package p; type _[P []int] struct{}"},

		g.p("\n")
	}
	g.p(")\n\n")
}

func (g *gen) product(n int) {
	g.p(`// Product matrix
const (
`)
	for i := 0; i < n; i++ {
		for j := 0; j < n; j++ {
			g.p("\tp%d_%d = ", i, j)
			for k := 0; k < n; k++ {
				if k > 0 {
					g.p(" + ")
				}
				g.p("h%d_%d*i%d_%d", i, k, k, j)
			}
			g.p("\n")
		}
		g.p("\n")
	}
	g.p(")\n\n")
}

func (g *gen) verify(n int) {

	p := new([14]byte)
	Escape(p)
	b.ResetTimer()
	for i := 0; i < b.N; i++ {
		*p = [14]byte{}
	}
}

func BenchmarkClearFat15(b *testing.B) {
	p := new([15]byte)
	Escape(p)
	b.ResetTimer()
	for i := 0; i < b.N; i++ {
		*p = [15]byte{}
	}
}

func BenchmarkClearFat16(b *testing.B) {
	p := new([16 / 4]uint32)
	Escape(p)
	b.ResetTimer()
	for i := 0; i < b.N; i++ {
		*p = [16 / 4]uint32{}