- Prevented watch cache starvation by moving its watch to separate RPC. Added a `SeparateCacheWatchRPC` feature flag to disable this behavior. ([#123532](https://github.com/kubernetes/kubernetes/pull/123532), [@serathius](https://github.com/serathius))

  }

  // Inner Classes

  /**
   * Segments are specialized versions of hash tables. This subclass inherits from ReentrantLock
   * opportunistically, just to simplify some locking and avoid separate construction.
   */
  @SuppressWarnings("serial") // This class is never serialized.
  static final class Segment<K, V> extends ReentrantLock {

    /*

    }

    @Test
    void testFileRename() throws Exception {
        long timestamp = System.currentTimeMillis();

        // Use separate contexts for different operations
        CIFSContext createContext = createFreshContext();
        String sourceFileName = "source_" + timestamp + ".txt";
        String targetFileName = "target_" + timestamp + ".txt";

- By enabling the `UserNamespacesStatelessPodsSupport` feature gate in kubelet, you can now run a stateless pod in a separate user namespace ([#116377](https://github.com/kubernetes/kubernetes/pull/116377), [@giuseppe](https://github.com/giuseppe)) [SIG Apps, Node and Storage]
- By enabling the alpha `CloudNodeIPs` feature gate in kubelet and the cloud

]. type EncapsulationKey1024 struct { ρ [32]byte // sampleNTT seed for A h [32]byte // H(ek) encryptionKey1024 } // Bytes returns the encapsulation key as a byte slice. func (ek *EncapsulationKey1024) Bytes() []byte { // The actual logic is in a separate function to outline this allocation. b := make([]byte, 0, EncapsulationKeySize) return ek.bytes(b) } func (ek *EncapsulationKey1024) bytes(b []byte) []byte { for i := range ek.t { b = polyByteEncode(b, ek.t[i]) } b = append(b, ek.ρ[:]...) return...

### 起動時に自動的に実行 { #run-automatically-on-startup }

一般的に、サーバープログラム（Uvicornなど）はサーバー起動時に自動的に開始され、**人の介入**を必要とせずに、APIと一緒にプロセスが常に実行されるようにしたいと思われます（UvicornがFastAPIアプリを実行するなど）。

### 別のプログラムの用意 { #separate-program }

これを実現するために、通常は**別のプログラム**を用意し、起動時にアプリケーションが実行されるようにします。そして多くの場合、他のコンポーネントやアプリケーション、例えばデータベースも実行されるようにします。

### 起動時に実行するツールの例 { #example-tools-to-run-at-startup }

実行するツールの例をいくつか挙げます:

* Docker

- Kube-scheduler now logs processed component config at startup ([#96426](https://github.com/kubernetes/kubernetes/pull/96426), [@damemi](https://github.com/damemi)) [SIG Scheduling]
- Kubeadm: Separate argument key/value in log msg ([#94016](https://github.com/kubernetes/kubernetes/pull/94016), [@mrueg](https://github.com/mrueg)) [SIG Cluster Lifecycle]

- Kubeadm: added `show-join-command` as a new separate phase at the end of `kubeadm init`. You can skip printing the join information by using `kubeadm init --skip-phases=show-join-command`. Executing only this phase on demand will throw an error because the phase needs dependencies such as bootstrap...

]. type EncapsulationKey1024 struct { ρ [32]byte // sampleNTT seed for A h [32]byte // H(ek) encryptionKey1024 } // Bytes returns the encapsulation key as a byte slice. func (ek *EncapsulationKey1024) Bytes() []byte { // The actual logic is in a separate function to outline this allocation. b := make([]byte, 0, EncapsulationKeySize) return ek.bytes(b) } func (ek *EncapsulationKey1024) bytes(b []byte) []byte { for i := range ek.t { b = polyByteEncode(b, ek.t[i]) } b = append(b, ek.ρ[:]...) return...

storage driver that supports dynamic provisioning to be used as an ephemeral volume with the volume’s lifecycle bound to the Pod. It can be used to provide scratch storage that is different from the root disk, for example persistent memory, or a separate local disk on that node. All StorageClass parameters for volume provisioning are supported. All features supported with PersistentVolumeClaims are supported, such as storage capacity tracking, snapshots and restore, and volume resizing.

###...