)

type Rlimit struct {
	Cur uint64
	Max uint64
}

type _Gid_t uint32

type StatxTimestamp struct {
	Sec  int64
	Nsec uint32
	_    int32
}

type Statx_t struct {
	Mask             uint32
	Blksize          uint32
	Attributes       uint64
	Nlink            uint32
	Uid              uint32
	Gid              uint32
	Mode             uint16
	_                [1]uint16

#define XWORD2 X6
#define XWORD3 X7

#define XTMP0 Y0
#define XTMP1 Y1
#define XTMP2 Y2
#define XTMP3 Y3
#define XTMP4 Y8
#define XTMP5 Y11

#define XFER  Y9

#define BYTE_FLIP_MASK	Y13 // mask to convert LE -> BE
#define X_BYTE_FLIP_MASK X13

#define NUM_BYTES DX
#define INP	DI

#define CTX SI // Beginning of digest in memory (a, b, c, ... , h)

#define a AX
#define b BX
#define c CX

		ret[n].Critical = template.PermittedDNSDomainsCritical

		ipAndMask := func(ipNet *net.IPNet) []byte {
			maskedIP := ipNet.IP.Mask(ipNet.Mask)
			ipAndMask := make([]byte, 0, len(maskedIP)+len(ipNet.Mask))
			ipAndMask = append(ipAndMask, maskedIP...)
			ipAndMask = append(ipAndMask, ipNet.Mask...)
			return ipAndMask
		}

		// of hashing the signature.
		//
		// We should never encounter a generic signature while hashing another
		// generic signature, but defensively set sigTParams only if h.mask is
		// unset.
		tparams := t.TypeParams()
		if h.sigTParams == nil && tparams.Len() != 0 {
			h = Hasher{
				// There may be something more efficient than discarding the existing

		toCheck = len(payload)
	}

	for i := 0; i < toCheck; i++ {
		t := uint(paddingLen) - uint(i)
		// if i <= paddingLen then the MSB of t is zero
		mask := byte(int32(^t) >> 31)
		b := payload[len(payload)-1-i]
		good &^= mask&paddingLen ^ mask&b
	}

	// We AND together the bits of good and replicate the result across
	// all the bits.
	good &= good << 4
	good &= good << 2
	good &= good << 1

//
// - begin, end and strides operands are 1D and they have the same number of
//   elements. Here, the number of elements should be less than 32 to support
//   32-bit mask attributes.
// - None of the strides values are zero.
// - Ellipsis mask can have at most one bit set.

template <class OpTy>
static LogicalResult VerifyStridedSliceBase(OpTy op) {
  // Expected size for operands begin, end and strides vector operands.

		if flushBgCredit {
			gcFlushBgCredit(workDone)
		}
	}
	return workDone
}

// markrootBlock scans the shard'th shard of the block of memory [b0,
// b0+n0), with the given pointer mask.
//
// Returns the amount of work done.
//
//go:nowritebarrier
func markrootBlock(b0, n0 uintptr, ptrmask0 *uint8, gcw *gcWork, shard int) int64 {
	if rootBlockBytes%(8*goarch.PtrSize) != 0 {

	MOVD	$0x0b0, R_x0b0
	MOVD	$0x0c0, R_x0c0
	MOVD	$0x0d0, R_x0d0
	MOVD	$0x0e0, R_x0e0
	MOVD	$0x0f0, R_x0f0
	MOVD	$0x100, R_x100
	MOVD	$0x110, R_x110


#ifdef GOARCH_ppc64le
	// Generate the mask used with VPERM for LE
	MOVWZ	$8, TEMP
	LVSL	(TEMP)(R0), LEMASK
	VSPLTISB	$0x0F, KI
	VXOR	KI, LEMASK, LEMASK
#endif

	LXVD2X	(CTX)(R_x000), VS32	// v0 = vs32
	LXVD2X	(CTX)(R_x010), VS34	// v2 = vs34

		&net.IPNet{IP: netutils.ParseIPSloppy(testExternalIP), Mask: net.CIDRMask(24, 32)},
		&net.IPNet{IP: netutils.ParseIPSloppy(testNodeIPv6), Mask: net.CIDRMask(64, 128)},
		&net.IPNet{IP: netutils.ParseIPSloppy(testNodeIPv6Alt), Mask: net.CIDRMask(64, 128)},
	}
	networkInterfacer.AddInterfaceAddr(&itf1, addrs1)

	nft := knftables.NewFake(nftablesFamily, kubeProxyTable)

	var nodeIP net.IP

		Extra: Extra{
			APIServerServicePort:   443,
			MasterCount:            1,
			EndpointReconcilerType: reconcilers.MasterCountReconcilerType,
			ServiceIPRange:         net.IPNet{IP: netutils.ParseIPSloppy("10.0.0.0"), Mask: net.CIDRMask(24, 32)},
		},
	}

	storageFactoryConfig := kubeapiserver.NewStorageFactoryConfig()
	storageConfig.StorageObjectCountTracker = config.ControlPlane.Generic.StorageObjectCountTracker