// On exit:
// R3: return value
TEXT countbytebody<>(SB), NOSPLIT|NOFRAME, $0-0
	MOVD	$0, R18 // byte count

#ifndef GOPPC64_power10
	RLDIMI	$8, R5, $48, R5
	RLDIMI	$16, R5, $32, R5
	RLDIMI	$32, R5, $0, R5	// fill reg with the byte to count
#endif

	CMPU	R4, $32		// Check if it's a small string (<32 bytes)
	BLT	tail		// Jump to the small string case
	SRD	$5, R4, R20
	MOVD	R20, CTR
	MOVD	$16, R21
	XXLXOR	V4, V4, V4

	// are registered (in n.registeredHandlers); this can cause the dynamic filtering to miss events
	reg, err := n.informer.AddEventHandler(fh)
	if err != nil {
		// Should only happen if its already stopped. We should exit early.
		return
	}
	n.registeredHandlers = append(n.registeredHandlers, handlerRegistration{registration: reg, handler: h})
}

func (n *informerClient[T]) HasSynced() bool {
	if !n.informer.HasSynced() {

		} else if rc.hasRegs() {
			firstReg := uint32(0)
			for i := 0; i < int(which); i++ {
				firstReg += uint32(len(aux.abiInfo.OutParam(i).Registers))
			}
			reg := int64(rc.nextSlice + Abi1RO(firstReg))
			a = makeOf(a, OpSelectN, []*Value{call})
			a.AuxInt = reg
		} else {
			off := x.offsetFrom(x.f.Entry, x.sp, rc.storeOffset+aux.OffsetOfResult(which), types.NewPtr(at))
			a = makeOf(a, OpLoad, []*Value{off, m0})
		}

 * H  = H-U1
 * Z3 = Z1*Z2
 * Z3 = Z3*H << store-out Z3 result reg.. could override Z1, if slices have same backing array
 *
 * S1 = Z2*T2
 * S1 = Y1*S1
 * R  = Z1*T1
 * R  = Y2*R
 * R  = R-S1
 *
 * T1 = H*H
 * T2 = H*T1
 * U1 = U1*T1
 *
 * X3 = R*R
 * X3 = X3-T2
 * T1 = 2*U1
 * X3 = X3-T1 << store-out X3 result reg
 *
 * T2 = S1*T2
 * Y3 = U1-X3
 * Y3 = R*Y3

 * H  = H-U1
 * Z3 = Z1*Z2
 * Z3 = Z3*H << store-out Z3 result reg.. could override Z1, if slices have same backing array
 *
 * S1 = Z2*T2
 * S1 = Y1*S1
 * R  = Z1*T1
 * R  = Y2*R
 * R  = R-S1
 *
 * T1 = H*H
 * T2 = H*T1
 * U1 = U1*T1
 *
 * X3 = R*R
 * X3 = X3-T2
 * T1 = 2*U1
 * X3 = X3-T1 << store-out X3 result reg
 *
 * T2 = S1*T2
 * Y3 = U1-X3
 * Y3 = R*Y3

//go:build (ppc64 || ppc64le) && !purego

#include "textflag.h"

// ENDIAN_MOVE generates the appropriate
// 4 byte load for big or little endian.
// The 4 bytes at ptr+off is loaded into dst.
// The idx reg is only needed for big endian
// and is clobbered when used.
#ifdef GOARCH_ppc64le
#define ENDIAN_MOVE(off, ptr, dst, idx) \
	MOVWZ	off(ptr),dst
#else
#define ENDIAN_MOVE(off, ptr, dst, idx) \
	MOVD	$off,idx; \

		"Qfr;":                             '\U0001D514',
		"Qopf;":                            '\U0000211A',
		"Qscr;":                            '\U0001D4AC',
		"RBarr;":                           '\U00002910',
		"REG;":                             '\U000000AE',
		"Racute;":                          '\U00000154',
		"Rang;":                            '\U000027EB',
		"Rarr;":                            '\U000021A0',

	//	}
	ABSD	F1, F2

	//	LFADD freg ',' freg
	//	{
	//		outcode(int($1), &$2, 0, &$4);
	//	}
	ADDD	F1, F2

	//	LFADD freg ',' freg ',' freg
	//	{
	//		outcode(int($1), &$2, int($4.Reg), &$6);
	//	}
	ADDD	F1, F2, F3

	//	LFCMP freg ',' freg
	//	{
	//		outcode(int($1), &$2, 0, &$4);
	//	}
	CMPEQD	F1, F2


	//
	// WORD
	//
	WORD	$1

	//
	// NOP

	Errno  int32
	Code   int32
	Pid    int32
	Uid    uint32
	Status int32
	Addr   uintptr
	Value  [8]byte
	_      [40]byte
}

type Sigset_t struct {
	Val [4]uint32
}

type Reg struct {
	Ra      uint64
	Sp      uint64
	Gp      uint64
	Tp      uint64
	T       [7]uint64
	S       [12]uint64
	A       [8]uint64
	Sepc    uint64
	Sstatus uint64
}

type FpReg struct {

	return ptrace(PT_DETACH, pid, 1, 0)
}

func PtraceGetFpRegs(pid int, fpregsout *FpReg) (err error) {
	return ptracePtr(PT_GETFPREGS, pid, unsafe.Pointer(fpregsout), 0)
}

func PtraceGetRegs(pid int, regsout *Reg) (err error) {
	return ptracePtr(PT_GETREGS, pid, unsafe.Pointer(regsout), 0)
}

func PtraceIO(req int, pid int, offs uintptr, out []byte, countin int) (count int, err error) {
	ioDesc := PtraceIoDesc{