ii := int(dwv.InlIndex) - 1
		idx, ok := imap[ii]
		if !ok {
			// We can occasionally encounter a var produced by the
			// inliner for which there is no remaining prog; add a new
			// entry to the call list in this scenario.
			idx = insertInlCall(&inlcalls, ii, imap)
		}
		inlcalls.Calls[idx].InlVars =
			append(inlcalls.Calls[idx].InlVars, dwv)
	}

						}

						hasParity := 0
						parityOK := make([]bool, m.shards)
						for idx, sh := range v {
							splitData[idx] = sh
							if idx >= k && len(sh) > 0 {
								parityOK[idx] = true
								hasParity++
								for i := range splitFilled[idx] {
									splitFilled[idx][i] = 1
								}
							}
						}

						splitDataShards := make([]byte, len(splitFilled[0]))

  float results[2];
  for (int idx = 0; idx < 2; ++idx) {
    TF_AbstractTensor* result = TF_OutputListGet(func_outputs, idx);
    TFE_TensorHandle* handle = TF_AbstractTensorGetEagerTensor(result, s);
    ASSERT_EQ(TF_OK, TF_GetCode(s)) << TF_Message(s);
    TF_Tensor* f_t = TFE_TensorHandleResolve(handle, s);
    ASSERT_EQ(TF_OK, TF_GetCode(s)) << TF_Message(s);
    results[idx] = *static_cast<float*>(TF_TensorData(f_t));

		const (
			searchBits = 7
			regionBits = 9
			regionMask = 1<<regionBits - 1
		)
		idx := n >> searchBits
		buf := fromM49[m49Index[idx]:m49Index[idx+1]]
		val := uint16(n) << regionBits // we rely on bits shifting out
		i := sort.Search(len(buf), func(i int) bool {
			return buf[i] >= val
		})
		if r := fromM49[int(m49Index[idx])+i]; r&^regionMask == val {
			return Region(r & regionMask), nil
		}
	}

	if err != nil {
		return err
	}
	return types.False
}

func (t *unstructuredList) Get(idx ref.Val) ref.Val {
	iv, isInt := idx.(types.Int)
	if !isInt {
		return types.ValOrErr(idx, "unsupported index: %v", idx)
	}
	i := int(iv)
	if i < 0 || i >= len(t.elements) {
		return types.NewErr("index out of bounds: %v", idx)
	}
	return UnstructuredToVal(t.elements[i], t.itemsSchema)
}

        int result;
        int len1 = a.length;
        int len2 = b.length;
        int length = Math.min(len1, len2);
        for (int idx = 0; idx < length; idx++) {
            result = a[idx] - b[idx];
            if (result != 0) {
                return result;
            }
        }
        return len1 - len2;
    }

	portArg := "secure-port"
	portAPIServer, idx := kubeadmapi.GetArgValue(cfg.APIServer.ExtraArgs, portArg, -1)
	if idx == -1 {
		portAPIServer = "6443"
	}
	portKCM, idx := kubeadmapi.GetArgValue(cfg.ControllerManager.ExtraArgs, portArg, -1)
	if idx == -1 {
		portKCM = "10257"
	}
	portScheduler, idx := kubeadmapi.GetArgValue(cfg.Scheduler.ExtraArgs, portArg, -1)
	if idx == -1 {
		portScheduler = "10259"
	}

}

func (bs bitset) Reset() {
	for i := range bs {
		bs[i] = 0
	}
}

func (bs bitset) Set(idx uint32) {
	bs[idx/uintSize] |= 1 << (idx % uintSize)
}

func (bs bitset) Clear(idx uint32) {
	bs[idx/uintSize] &^= 1 << (idx % uintSize)
}

func (bs bitset) Test(idx uint32) bool {
	return bs[idx/uintSize]&(1<<(idx%uintSize)) != 0
}

type undoType uint8

const (
	undoInvalid     undoType = iota

		// each KJ, the abstract origin of KJ should be a child of A.
		// Note that this same rule doesn't hold for non-variable DIEs.
		pidx := ex.IdxFromOffset(die.Offset)
		if pidx < 0 {
			t.Fatalf("can't locate DIE id")
		}
		kids := ex.Children(pidx)
		for _, kid := range kids {
			if kid.Tag != dwarf.TagVariable &&
				kid.Tag != dwarf.TagFormalParameter {
				continue
			}

	if addr, idx := kubeadmapi.GetArgValue(cfg.ControllerManager.ExtraArgs, kubeControllerManagerBindAddressArg, -1); idx > -1 {
		return getProbeAddress(addr)
	}
	return "127.0.0.1"
}

// GetSchedulerProbeAddress returns the kubernetes scheduler probe address
func GetSchedulerProbeAddress(cfg *kubeadmapi.ClusterConfiguration) string {