JMP	(R4)

// void mcall(fn func(*g))
// Switch to m->g0's stack, call fn(g).
// Fn must never return. It should gogo(&g->sched)
// to keep running g.
TEXT runtime·mcall(SB),NOSPLIT|NOFRAME,$0-4
	// Save caller state in g->sched
	MOVW	R29, (g_sched+gobuf_sp)(g)
	MOVW	R31, (g_sched+gobuf_pc)(g)
	MOVW	R0, (g_sched+gobuf_lr)(g)

	// Switch to m->g0 & its stack, call fn.
	MOVW	g, R1
	MOVW	g_m(g), R3

DATA	debugCallFrameTooLarge<>+0x00(SB)/20, $"call frame too large"
GLOBL	debugCallFrameTooLarge<>(SB), RODATA, $20	// Size duplicated below

// debugCallV2 is the entry point for debugger-injected function
// calls on running goroutines. It informs the runtime that a
// debug call has been injected and creates a call frame for the
// debugger to fill in.
//
// To inject a function call, a debugger should:

			for i, stk := range acceptStacks {
				if goexperiment.StaticLockRanking {
					if !slices.ContainsFunc(stk, func(s string) bool {
						return s == "runtime.systemstack" || s == "runtime.mcall" || s == "runtime.mstart"
					}) {
						// stk is a call stack that is still on the user stack when
						// it calls runtime.unlock. Add the extra function that
						// we'll see, when the static lock ranking implementation of

//
//go:nosplit
func gorecover(argp uintptr) any {
	// Must be in a function running as part of a deferred call during the panic.
	// Must be called from the topmost function of the call
	// (the function used in the defer statement).
	// p.argp is the argument pointer of that topmost deferred function call.
	// Compare against argp reported by caller.
	// If they match, the caller is the one who can recover.
	gp := getg()

	CMPQ	BX, CX
	JNE	bad_cpu
#endif

	CALL	runtime·check(SB)

	MOVL	24(SP), AX		// copy argc
	MOVL	AX, 0(SP)
	MOVQ	32(SP), AX		// copy argv
	MOVQ	AX, 8(SP)
	CALL	runtime·args(SB)
	CALL	runtime·osinit(SB)
	CALL	runtime·schedinit(SB)

	// create a new goroutine to start program
	MOVQ	$runtime·mainPC(SB), AX		// entry
	PUSHQ	AX
	CALL	runtime·newproc(SB)
	POPQ	AX

	// start this M

	} else {
		if ddd {
			// standard_func(a, b, c...)
			//check.errorf(call.Ellipsis, "cannot use ... in call to non-variadic %s", call.Fun)
			check.errorf(call, NonVariadicDotDotDot, "cannot use ... in call to non-variadic %s", call.Fun)
			return
		}
		// standard_func(a, b, c)
	}

	// check argument count
	if nargs != npars {
		var at poser = call
		qualifier := "not enough"
		if nargs > npars {

DATA	debugCallFrameTooLarge<>+0x00(SB)/20, $"call frame too large"
GLOBL	debugCallFrameTooLarge<>(SB), RODATA, $20	// Size duplicated below

// debugCallV2 is the entry point for debugger-injected function
// calls on running goroutines. It informs the runtime that a
// debug call has been injected and creates a call frame for the
// debugger to fill in.
//
// To inject a function call, a debugger should:

	}
	// x.typ may be generic

	switch x.mode {
	case invalid:
		check.use(call.Args...)
		x.expr = call
		return statement

	case typexpr:
		// conversion
		check.nonGeneric(nil, x)
		if x.mode == invalid {
			return conversion
		}
		T := x.typ
		x.mode = invalid
		switch n := len(call.Args); n {
		case 0:

					Name:   "plaintext on port 8000",
					Call:   mkCall(8000, simulation.Plaintext),
					Result: simulation.Result{Error: simulation.ErrNoFilterChain},
				},
				{
					Name:   "mtls on port 8000",
					Call:   mkCall(8000, simulation.MTLS),
					Result: simulation.Result{ClusterMatched: "inbound|8000||"},
				},
				{
					Name:   "plaintext port 9000",
					Call:   mkCall(9000, simulation.Plaintext),

	} {
		calls = append(calls, simulation.Expect{
			Name: fmt.Sprintf("%s-%d", call.call.Protocol, call.call.Port),
			Call: call.call,
			Result: simulation.Result{
				ClusterMatched: fmt.Sprintf("outbound|%d||%s.default.svc.cluster.local", call.call.Port, call.expected),
			},
		})
	}
	service := `apiVersion: v1
kind: Service
metadata:
  name: alias
  namespace: default
spec: