return ValAndOff(int64(val)<<32 + int64(uint32(off)))
}

func (x ValAndOff) canAdd32(off int32) bool {
	newoff := x.Off64() + int64(off)
	return newoff == int64(int32(newoff))
}
func (x ValAndOff) canAdd64(off int64) bool {
	newoff := x.Off64() + off
	return newoff == int64(int32(newoff))
}

func (x ValAndOff) addOffset32(off int32) ValAndOff {
	if !x.canAdd32(off) {

			continue
		}
		newCfg, err := a.mcpToPilot(m)
		if err != nil {
			adscLog.Warnf("Invalid data: %v (%v)", err, string(rsc.Value))
			continue
		}
		if newCfg == nil {
			continue
		}
		received[newCfg.Namespace+"/"+newCfg.Name] = newCfg

		newCfg.GroupVersionKind = groupVersionKind
		oldCfg := a.Store.Get(newCfg.GroupVersionKind, newCfg.Name, newCfg.Namespace)

}

// Update update storage-class with new config
func (sCfg *Config) Update(newCfg Config) {
	ConfigLock.Lock()
	defer ConfigLock.Unlock()
	sCfg.RRS = newCfg.RRS
	sCfg.Standard = newCfg.Standard
	sCfg.Optimize = newCfg.Optimize
	sCfg.inlineBlock = newCfg.inlineBlock
	sCfg.initialized = true
}

// Enabled returns if storageClass is enabled is enabled.

		panic(err)
	}

	stream := cipher.NewOFB(block, iv)
	stream.XORKeyStream(ciphertext[aes.BlockSize:], plaintext)

	// It's important to remember that ciphertexts must be authenticated
	// (i.e. by using crypto/hmac) as well as being encrypted in order to
	// be secure.

	// OFB mode is the same for both encryption and decryption, so we can
	// also decrypt that ciphertext with NewOFB.

		isUnblocked := c.newRef.BlockOwnerDeletion == nil || (c.newRef.BlockOwnerDeletion != nil && !*c.newRef.BlockOwnerDeletion)
		if wasBlocked && isUnblocked {
			node, found := gb.uidToNode.Read(c.newRef.UID)
			if !found {
				logger.V(5).Info("cannot find uid in uidToNode", "uid", c.newRef.UID)
				continue
			}
			gb.attemptToDelete.Add(node)
		}
	}
}

		dec.buf = dec.buf[:n]
		dec.scanp = 0
	}

	// Grow buffer if not large enough.
	const minRead = 512
	if cap(dec.buf)-len(dec.buf) < minRead {
		newBuf := make([]byte, len(dec.buf), 2*cap(dec.buf)+minRead)
		copy(newBuf, dec.buf)
		dec.buf = newBuf
	}

	// Read. Delay error for next iteration (after scan).
	n, err := dec.r.Read(dec.buf[len(dec.buf):cap(dec.buf)])
	dec.buf = dec.buf[0 : len(dec.buf)+n]

				t.Fatalf("couldn't read temp file: %v", err)
			}

			newcfg, err := getConfig(constants.CurrentKubernetesVersion.String(), tempCertsDir, tmpEtcdDataDir)
			if err != nil {
				t.Fatalf("couldn't create config: %v", err)
			}

			// create the kubeadm etcd certs
			caCert, caKey, err := certsphase.KubeadmCertEtcdCA().CreateAsCA(newcfg)
			if err != nil {
				t.Fatalf("couldn't create new CA certificate: %v", err)

  // Create new `mhlo.if` op with extra token operands and result.
  auto new_if = builder.create<IfOp>(region_if.getLoc(), new_result_types,
                                     region_if.getPred());

  // Move all regions from the old `mhlo.if` op to its replacement.
  new_if.getTrueBranch().takeBody(region_if.getTrueBranch());
  new_if.getFalseBranch().takeBody(region_if.getFalseBranch());

				if testDebugLogs {
					for _, newPL := range newPLs {
						t.Logf("For %s, digesting newPL=%s", trialStep, fcfmt.Fmt(newPL))
					}
					for _, newFS := range newFSs {
						t.Logf("For %s, digesting newFS=%s", trialStep, fcfmt.Fmt(newFS))
					}
				}
				_ = ctlr.lockAndDigestConfigObjects(newPLs, newFSs)
			}

func PtraceSingleStep(pid int) (err error) {
	return ptrace(PT_STEP, pid, 1, 0)
}

func Dup3(oldfd, newfd, flags int) error {
	if oldfd == newfd || flags&^O_CLOEXEC != 0 {
		return EINVAL
	}
	how := F_DUP2FD
	if flags&O_CLOEXEC != 0 {
		how = F_DUP2FD_CLOEXEC
	}
	_, err := fcntl(oldfd, how, newfd)
	return err
}

/*
 * Exposed directly
 */
//sys	Access(path string, mode uint32) (err error)