k, d := it.Next()
		live := d.(*liveSlot)
		slots[k] = live.VarLoc
		if live.VarLoc.Registers == 0 {
			continue
		}

		mask := uint64(live.VarLoc.Registers)
		for {
			if mask == 0 {
				break
			}
			reg := uint8(bits.TrailingZeros64(mask))
			mask &^= 1 << reg

			registers[reg] = append(registers[reg], SlotID(k))
		}
	}
	state.slots, state.registers = slots, registers
}

	Acrs                     [16]uint32
	Orig_gpr2                uint64
	Fp_regs                  PtraceFpregs
	Per_info                 PtracePer
	Ieee_instruction_pointer uint64
}

type PtracePsw struct {
	Mask uint64
	Addr uint64
}

type PtraceFpregs struct {
	Fpc  uint32
	Fprs [16]float64
}

type PtracePer struct {
	Control_regs  [3]uint64
	_             [8]byte
	Starting_addr uint64

				}
				if n <= 0 {
					return nil, &parseError{"invalid pattern syntax: " + pattern}
				}
				if p[start] == 'y' {
					n = 0
				}
				mask := uint64(1)<<n - 1
				m.list = append(m.list, cond{mask, bits, result})
			} else if c == '-' {
				// leading - subtracts from complete set
				m.list = append(m.list, cond{0, 0, true})
			}
			bits = 0
			result = c == '+'

			goto childerror
		}

		for _, c = range sys.AmbientCaps {
			// Add the c capability to the permitted and inheritable capability mask,
			// otherwise we will not be able to add it to the ambient capability mask.
			caps.data[capToIndex(c)].permitted |= capToMask(c)
			caps.data[capToIndex(c)].inheritable |= capToMask(c)
		}

	ModeSticky     = fs.ModeSticky     // t: sticky
	ModeIrregular  = fs.ModeIrregular  // ?: non-regular file; nothing else is known about this file

	// Mask for the type bits. For regular files, none will be set.
	ModeType = fs.ModeType

	ModePerm = fs.ModePerm // Unix permission bits, 0o777
)

func (fs *fileStat) Name() string { return fs.name }

      padded_val.push_back(padding_val[i]);
      if (mask) *mask |= 1 << i;
    }
  }

  LogicalResult matchAndRewrite(Operation *op,
                                PatternRewriter &rewriter) const override {
    TF::StridedSliceOp strided_slice_op = llvm::cast<TF::StridedSliceOp>(op);

    // Handle ellipsis mask.
    if (strided_slice_op.getEllipsisMask() != 0) {

// from stopped via the core dump bit.

const (
	mask    = 0x7F
	core    = 0x80
	exited  = 0x00
	stopped = 0x7F
	shift   = 8
)

func (w WaitStatus) Exited() bool { return w&mask == exited }

func (w WaitStatus) Signaled() bool { return w&mask != stopped && w&mask != exited }

func (w WaitStatus) Stopped() bool { return w&0xFF == stopped }

// spec in the given pod spec with type set in mask. If visitor returns false,
// visiting is short-circuited. VisitContainers returns true if visiting completes,
// false if visiting was short-circuited.
func VisitContainers(podSpec *api.PodSpec, mask ContainerType, visitor ContainerVisitor) bool {
	if mask&InitContainers != 0 {
		for i := range podSpec.InitContainers {

// Local consts.
const (
	_NBBY            = C.NBBY            // Number of bits in a byte.
	_CTL_MAXNAME     = C.CTL_MAXNAME     // Largest number of components supported.
	_CPU_LEVEL_WHICH = C.CPU_LEVEL_WHICH // Actual mask/id for which.
	_CPU_WHICH_PID   = C.CPU_WHICH_PID   // Specifies a process id.
)

const (
	EINTR     = C.EINTR
	EFAULT    = C.EFAULT
	EAGAIN    = C.EAGAIN
	ETIMEDOUT = C.ETIMEDOUT

	O_WRONLY   = C.O_WRONLY

	}
	// Increment with probability 1/(1<<(h.B-15)).
	// When we reach 1<<15 - 1, we will have approximately
	// as many overflow buckets as buckets.
	mask := uint32(1)<<(h.B-15) - 1
	// Example: if h.B == 18, then mask == 7,
	// and rand() & 7 == 0 with probability 1/8.
	if uint32(rand())&mask == 0 {
		h.noverflow++
	}
}

func (h *hmap) newoverflow(t *maptype, b *bmap) *bmap {
	var ovf *bmap