field := rv.Field(i)
			names[strings.ToLower(rt.Field(i).Name)] = field.SetBool
		}

		// "regabi" is an alias for all working regabi
		// subexperiments, and not an experiment itself. Doing
		// this as an alias make both "regabi" and "noregabi"
		// do the right thing.
		names["regabi"] = func(v bool) {
			flags.RegabiWrappers = v
			flags.RegabiArgs = v
		}

		// Parse names.

type Flags struct {
	FieldTrack        bool
	PreemptibleLoops  bool
	StaticLockRanking bool
	BoringCrypto      bool

	// Regabi is split into several sub-experiments that can be
	// enabled individually. Not all combinations work.
	// The "regabi" GOEXPERIMENT is an alias for all "working"
	// subexperiments.

	// RegabiWrappers enables ABI wrappers for calling between

	fninfo := ls.Func()
	fninfo.GCArgs, fninfo.GCLocals = lv.emit()

	p := pp.Prog(obj.AFUNCDATA)
	p.From.SetConst(rtabi.FUNCDATA_ArgsPointerMaps)
	p.To.Type = obj.TYPE_MEM
	p.To.Name = obj.NAME_EXTERN
	p.To.Sym = fninfo.GCArgs

	p = pp.Prog(obj.AFUNCDATA)
	p.From.SetConst(rtabi.FUNCDATA_LocalsPointerMaps)
	p.To.Type = obj.TYPE_MEM
	p.To.Name = obj.NAME_EXTERN
	p.To.Sym = fninfo.GCLocals

		REG_Z28,
		REG_Z29,
		REG_Z30,
		REG_Z31:
		if ctxt.Arch.Family == sys.I386 {
			goto bad
		}
		fallthrough

	case REG_AX,
		REG_CX,
		REG_DX,
		REG_BX,
		REG_BP,
		REG_SI,
		REG_DI,
		REG_X0,
		REG_X1,
		REG_X2,
		REG_X3,
		REG_X4,
		REG_X5,
		REG_X6,
		REG_X7,
		REG_Y0,
		REG_Y1,
		REG_Y2,
		REG_Y3,
		REG_Y4,

}

type mcontextt struct {
	__gregs     [17]uint32
	_           [4]byte   // EABI
	__fpu       [272]byte // EABI
	_mc_tlsbase uint32
	_           [4]byte // EABI
}

type ucontextt struct {
	uc_flags    uint32
	uc_link     *ucontextt
	uc_sigmask  sigset
	uc_stack    stackt
	_           [4]byte // EABI
	uc_mcontext mcontextt
	__uc_pad    [2]int32
}

type keventt struct {

	// accordingly.

	// Search for the PUSHQ BP instruction inside the prologue.
	var pushbp *obj.Prog
	for p := s.Func().Text; p != nil; p = p.Link {
		if p.As == APUSHQ && p.From.Type == obj.TYPE_REG && p.From.Reg == REG_BP {
			pushbp = p
			break
		}
		if p.Pos.Xlogue() == src.PosPrologueEnd {
			break
		}
	}
	if pushbp == nil {
		ctxt.Diag("missing frame pointer instruction: PUSHQ BP")
		return
	}

	REG_FCC31

	REG_LAST = REG_FCC31 // the last defined register

	REG_SPECIAL = REG_FCSR0

	REGZERO = REG_R0 // set to zero
	REGLINK = REG_R1
	REGSP   = REG_R3
	REGRET  = REG_R20 // not use
	REGARG  = -1      // -1 disables passing the first argument in register
	REGRT1  = REG_R20 // reserved for runtime, duffzero and duffcopy
	REGRT2  = REG_R21 // reserved for runtime, duffcopy
	REGCTXT = REG_R29 // context for closures

			symName = sym.Pkg.Prefix + "." + sym.Name
		}
		symName = s.canonicalize(symName)

		// Apply definitions.
		defABI, hasDefABI := s.defs[symName]
		if hasDefABI {
			if len(fn.Body) != 0 {
				base.ErrorfAt(fn.Pos(), 0, "%v defined in both Go and assembly", fn)
			}
			fn.ABI = defABI
		}

		if fn.Pragma&ir.CgoUnsafeArgs != 0 {
			// CgoUnsafeArgs indicates the function (or its callee) uses

	// Use UnschedulableAndUnresolvable to make the scheduler skipping other postFilter plugins.
	// The accompanying status message should explain why the pod is unschedulable.
	//
	// We regard the backoff as a penalty of wasting the scheduling cycle.
	// When the scheduling queue requeues Pods, which was rejected with Unschedulable in the last scheduling,
	// the Pod goes through backoff.
	Unschedulable

				// Create a set to store current affinity mappings. As
				// with the iptables backend, endpoint affinity is
				// recorded for connections from a particular source IP
				// (without regard to source port) to a particular
				// ServicePort (without regard to which service IP was
				// used to reach the service). This may be changed in the
				// future.
				tx.Add(&knftables.Set{
					Name: epInfo.affinitySetName,