// ServiceCIDR is primary service cidr for cluster.
	ServiceCIDR *net.IPNet
	// SecondaryServiceCIDR is secondary service cidr for cluster.
	SecondaryServiceCIDR *net.IPNet
	// NodeCIDRMaskSizes is list of node cidr mask sizes.
	NodeCIDRMaskSizes []int
}

// New creates a new CIDR range allocator.

        common_dim = dim;
      } else if (common_dim != dim) {
        // If mask_one_dim is true, do not emit an error if this is the only
        // dimension with mismatches. Note down the dimension to mask it from
        // the following types.
        if (mask_one_dim && dim_to_mask == ShapedType::kDynamic) {
          dim_to_mask = i;
          continue;
        }

//   by using "clock" subscriptions.
// - each FD subscription can either be for a read or a write, but not both.
//   This is in contrast to poll(2) which accepts a mask with POLLIN and
//   POLLOUT bits, allowing for a subscription to either, neither, or both
//   reads and writes.
//
// Since poll_oneoff is similar to poll(2), the implementation here was derived
// from netpoll_aix.go.

		return n < 0
	}
	n = int(p1.a3) - int(p2.a3)
	if n != 0 {
		return n < 0
	}
	return false
}

func opset(a, b0 obj.As) {
	oprange[a&obj.AMask] = oprange[b0]
}

func buildop(ctxt *obj.Link) {
	if oprange[AOR&obj.AMask] != nil {
		// Already initialized; stop now.
		// This happens in the cmd/asm tests,
		// each of which re-initializes the arch.
		return
	}

	var n int

// uint64n is the no-bounds-checks version of Uint64N.
func (r *Rand) uint64n(n uint64) uint64 {
	if is32bit && uint64(uint32(n)) == n {
		return uint64(r.uint32n(uint32(n)))
	}
	if n&(n-1) == 0 { // n is power of two, can mask
		return r.Uint64() & (n - 1)
	}

	// Suppose we have a uint64 x uniform in the range [0,2⁶⁴)
	// and want to reduce it to the range [0,n) preserving exact uniformity.

	// Return off == ^uint32(0) ? 0 : f.datap.gofunc + uintptr(off), but without branches.
	// The compiler calculates mask on most architectures using conditional assignment.
	var mask uintptr
	if off == ^uint32(0) {
		mask = 1
	}
	mask--
	raw := base + uintptr(off)
	return unsafe.Pointer(raw & mask)
}

// step advances to the next pc, value pair in the encoded table.
//

      if ((radix & (radix - 1)) == 0) {
        // Radix is a power of two so we can avoid division.
        int shift = Integer.numberOfTrailingZeros(radix);
        int mask = radix - 1;
        do {
          buf[--i] = Character.forDigit(((int) x) & mask, radix);
          x >>>= shift;
        } while (x != 0);
      } else {
        // Separate off the last digit using unsigned division. That will leave

      if ((radix & (radix - 1)) == 0) {
        // Radix is a power of two so we can avoid division.
        int shift = Integer.numberOfTrailingZeros(radix);
        int mask = radix - 1;
        do {
          buf[--i] = Character.forDigit(((int) x) & mask, radix);
          x >>>= shift;
        } while (x != 0);
      } else {
        // Separate off the last digit using unsigned division. That will leave

	var podIps []netip.Addr
	for _, configuredPodIPs := range addCmd.IPs {
		// net.ip is implicitly convertible to netip as slice
		ip, _ := netip.AddrFromSlice(configuredPodIPs.Address.IP)
		// We ignore the mask of the IPNet - it's fine if the IPNet defines
		// a block grant of addresses, we just need one for checking routes.
		podIps = append(podIps, ip)
	}

		OpZeroExt16to64, OpZeroExt32to64, OpSignExt8to16, OpSignExt8to32,
		OpSignExt8to64, OpSignExt16to32, OpSignExt16to64, OpSignExt32to64,
		// bit
		OpCtz8, OpCtz16, OpCtz32, OpCtz64,
		// mask
		OpSlicemask,
		// safety check
		OpIsNonNil,
		// not
		OpNot:
		return true
	case
		// add
		OpAdd64, OpAdd32, OpAdd16, OpAdd8,
		OpAdd32F, OpAdd64F,
		// sub