plugin "k8s.io/kubernetes/pkg/kubelet/cm/devicemanager/plugin/v1beta1"
	"k8s.io/kubernetes/pkg/kubelet/cm/topologymanager"
	"k8s.io/kubernetes/pkg/kubelet/cm/topologymanager/bitmask"
	"k8s.io/kubernetes/pkg/kubelet/config"
	"k8s.io/kubernetes/pkg/kubelet/lifecycle"
	"k8s.io/kubernetes/pkg/kubelet/pluginmanager"
	schedulerframework "k8s.io/kubernetes/pkg/scheduler/framework"
)

const (

	// and timerpMask, and all writes to allp.
	allpLock mutex

	// len(allp) == gomaxprocs; may change at safe points, otherwise
	// immutable.
	allp []*p

	// Bitmask of Ps in _Pidle list, one bit per P. Reads and writes must
	// be atomic. Length may change at safe points.
	//
	// Each P must update only its own bit. In order to maintain

		state.argNums = append(state.argNums, state.argNum)
	}
	state.format = state.format[:state.nbytes]
	return state
}

// printfArgType encodes the types of expressions a printf verb accepts. It is a bitmask.
type printfArgType int

const (
	argBool printfArgType = 1 << iota
	argInt
	argRune
	argString
	argFloat
	argComplex
	argPointer
	argError
	anyType printfArgType = ^0
)

(AND (MOVDconst [m]) (ROTLW x r)) && isPPC64WordRotateMask(m) => (RLWNM [encodePPC64RotateMask(0,m,32)] x r)

// Note, any rotated word bitmask is still a valid word bitmask.
(ROTLWconst [r] (AND (MOVDconst [m]) x)) && isPPC64WordRotateMask(m) => (RLWINM [encodePPC64RotateMask(r,rotateLeft32(m,r),32)] x)

	As       As        // assembler opcode
	Reg      int16     // 2nd source operand
	RegTo2   int16     // 2nd destination operand
	Mark     uint16    // bitmask of arch-specific items
	Optab    uint16    // arch-specific opcode index
	Scond    uint8     // bits that describe instruction suffixes (e.g. ARM conditions, RISCV Rounding Mode)

    // The alternative (x + y) / 2 fails for large values.
    // The alternative (x + y) >>> 1 fails for negative values.
    return (x & y) + ((x ^ y) >> 1);
  }

  /*
   * This bitmask is used as an optimization for cheaply testing for divisibility by 2, 3, or 5.
   * Each bit is set to 1 for all remainders that indicate divisibility by 2, 3, or 5, so

    // The alternative (x + y) / 2 fails for large values.
    // The alternative (x + y) >>> 1 fails for negative values.
    return (x & y) + ((x ^ y) >> 1);
  }

  /*
   * This bitmask is used as an optimization for cheaply testing for divisibility by 2, 3, or 5.
   * Each bit is set to 1 for all remainders that indicate divisibility by 2, 3, or 5, so

  TF_RegisterOpDefinition(op_builder, status);
  CHECK_EQ(TF_GetCode(status), TF_OK)
      << "Bitcast op registration failed: " << TF_Message(status);
  TF_DeleteStatus(status);
}

TF_ATTRIBUTE_UNUSED static bool IsBitcastOpRegistered = []() {
  if ((&TF_NewStatus != nullptr) && SHOULD_REGISTER_OP("Bitcast")) {
    RegisterBitcastOp();
  }
  return true;

		var s *mspan
		if r.useGCProg() {
			// This path is pretty unlikely, an object large enough
			// to have a GC program allocated on the stack.
			// We need some space to unpack the program into a straight
			// bitmask, which we allocate/free here.
			// TODO: it would be nice if there were a way to run a GC
			// program without having to store all its bits. We'd have
			// to change from a Lempel-Ziv style program to something else.

func.func @bitcast_convert_i32_f32(%arg0: tensor<1x256128xi32>) -> tensor<1x256128xf32> {
  // CHECK: %[[BITCAST:.*]] = stablehlo.bitcast_convert %arg0 : (tensor<1x256128xi32>) -> tensor<1x256128xf32>
  // CHECK: %[[CONVERT:.*]] = stablehlo.convert %[[BITCAST]] : (tensor<1x256128xf32>) -> tensor<1x256128xbf16>
  // CHECK: return %[[CONVERT]] : tensor<1x256128xbf16>