dropDisabledFields(newConfigMap, oldConfigMap)
}

func (strategy) ValidateUpdate(ctx context.Context, newObj, oldObj runtime.Object) field.ErrorList {
	oldCfg, newCfg := oldObj.(*api.ConfigMap), newObj.(*api.ConfigMap)

	return validation.ValidateConfigMapUpdate(newCfg, oldCfg)
}

// WarningsOnUpdate returns warnings for the given update.
func (strategy) WarningsOnUpdate(ctx context.Context, obj, old runtime.Object) []string { return nil }

		ncap := (cents + 99) / 100
		if ncap < n {
			return ncap
		}
	}

	return n
}

//go:nosplit
func getrctl(controlname, oldbuf, newbuf unsafe.Pointer, flags uint32) uintptr {
	return sysvicall4(&libc_getrctl, uintptr(controlname), uintptr(oldbuf), uintptr(newbuf), uintptr(flags))
}

//go:nosplit
func rctlblk_get_local_action(buf unsafe.Pointer) uintptr {

	e.currentDeadline = entry.deadline

	// Re-add it with the updated weight.
	e.Add(calcWeight(entry.weight, entry.value), entry.value)
	return entry.value
}

// NewEDF create a new edf scheduler
func NewEDF() *EDF {
	pq := make(priorityQueue, 0)
	return &EDF{
		pq:           &pq,
		currentIndex: 0,
	}

	for _, k := range c.analyzer.Schemas().All() {
		c.analyzer.RegisterEventHandler(k.GroupVersionKind(), func(oldcfg config.Config, newcfg config.Config, ev model.Event) {
			gvk := oldcfg.GroupVersionKind
			if (gvk == config.GroupVersionKind{}) {
				gvk = newcfg.GroupVersionKind
			}
			chKind <- gvk
		})
	}
	oldmsgs := map[string]diag.Messages{}

	}
	test(t, "RC4", cipherText, cipher.XORKeyStream)
}
func TestCTROutOfBoundsWrite(t *testing.T) {
	testBlock(t, "CTR", cipher.NewCTR)
}
func TestOFBOutOfBoundsWrite(t *testing.T) {
	testBlock(t, "OFB", cipher.NewOFB)
}
func TestCFBEncryptOutOfBoundsWrite(t *testing.T) {
	testBlock(t, "CFB Encrypt", cipher.NewCFBEncrypter)
}
func TestCFBDecryptOutOfBoundsWrite(t *testing.T) {
	testBlock(t, "CFB Decrypt", cipher.NewCFBDecrypter)
}

		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.

		}
	}
}

func TestWasip1NewFileListener(t *testing.T) {
	if l, ok := newFileListener(newFD("tcp", -1)).(*TCPListener); !ok {
		t.Errorf("newFileListener: tcp listener type mismatch: %T", l)
	} else {
		testIsTCPAddr(t, "Addr", l.Addr())
	}
}

func TestWasip1NewFileConn(t *testing.T) {
	if c, ok := newFileConn(newFD("tcp", -1)).(*TCPConn); !ok {
		t.Errorf("newFileConn: tcp conn type mismatch: %T", c)
	} else {

                size += len;
                if (size == bufferSize) {
                    final char[] newBuf = new char[bufferSize + initialCapacity];
                    System.arraycopy(buf, 0, newBuf, 0, bufferSize);
                    buf = newBuf;
                    bufferSize += initialCapacity;
                }
            }
            return new String(buf, 0, size);

	newk8sServiceHost := "50.76.2.1"
	newCfg := &config.InstallConfig{
		MountedCNINetDir:      tempDir,
		KubeCAFile:            kubeCAFilepath,
		K8sServiceHost:        newk8sServiceHost,
		K8sServicePort:        k8sServicePort,
		K8sServiceAccountPath: tmp,
	}
	// Write out a kubeconfig with one cert
	result, err = createKubeConfig(newCfg)
	if err != nil {
		t.Fatalf("did not expect failure: %v", err)

	// fd_close, and sock_shutdown on the resulting connection. We
	// intercept applicable netFD calls on this instance, and then pass
	// the remainder of the netFD calls to fakeNetFD.
	*fakeNetFD
}

func newFD(net string, sysfd int) *netFD {
	return newPollFD(net, poll.FD{
		Sysfd:         sysfd,
		IsStream:      true,
		ZeroReadIsEOF: true,
	})
}

func newPollFD(net string, pfd poll.FD) *netFD {
	var laddr Addr