* reaching the nearest power of two greater than or equal to the
   * number of CPUS. Table slots remain empty (null) until they are
   * needed.
   *
   * A single spinlock ("busy") is used for initializing and
   * resizing the table, as well as populating slots with new Cells.
   * There is no need for a blocking lock; when the lock is not
   * available, threads try other slots (or the base).  During these

   * reaching the nearest power of two greater than or equal to the
   * number of CPUS. Table slots remain empty (null) until they are
   * needed.
   *
   * A single spinlock ("busy") is used for initializing and
   * resizing the table, as well as populating slots with new Cells.
   * There is no need for a blocking lock; when the lock is not
   * available, threads try other slots (or the base).  During these

	}

	// Next we mount required volumes. This function could also trigger
	// attach if kubelet is responsible for attaching volumes.
	// If underlying PVC was resized while in-use then this function also handles volume
	// resizing.
	rc.mountOrAttachVolumes()

	// Unmount volumes only when DSW and ASW are fully populated to prevent unmounting a volume
	// that is still needed, but it did not reach DSW yet.
	if readyToUnmount {

   * reaching the nearest power of two greater than or equal to the
   * number of CPUS. Table slots remain empty (null) until they are
   * needed.
   *
   * A single spinlock ("busy") is used for initializing and
   * resizing the table, as well as populating slots with new Cells.
   * There is no need for a blocking lock; when the lock is not
   * available, threads try other slots (or the base).  During these

   * reaching the nearest power of two greater than or equal to the
   * number of CPUS. Table slots remain empty (null) until they are
   * needed.
   *
   * A single spinlock ("busy") is used for initializing and
   * resizing the table, as well as populating slots with new Cells.
   * There is no need for a blocking lock; when the lock is not
   * available, threads try other slots (or the base).  During these

class MiniDynamicBuffer {
 public:
  explicit MiniDynamicBuffer(size_t max_length = kDefaultMaxLength)
      : offset_({0}), max_length_(max_length) {}

  // Add string to dynamic buffer by resizing the buffer and copying the data.
  absl::Status AddString(const char* str, size_t len);

  // Fill content into a buffer and returns the number of bytes stored.

		return
	}
	// volumeSpec.ReadOnly is the value that determines if volume could be formatted when being mounted.
	// This is the same flag that determines filesystem resizing behaviour for offline resizing and hence
	// we should use it here. This value comes from Pod.spec.volumes.persistentVolumeClaim.readOnly.
	if volumeSpec.ReadOnly {

	expc.queue.AddRateLimited(key)

	return true
}

// syncHandler performs actual expansion of volume. If an error is returned
// from this function - PVC will be requeued for resizing.
func (expc *expandController) syncHandler(ctx context.Context, key string) error {
	namespace, name, err := cache.SplitMetaNamespaceKey(key)
	if err != nil {
		return err
	}

     * This method is a heuristic that gives an idea of the "size" of the graph. The larger
     * the graph is, the higher the risk of internal resizes exists, so we try to estimate
     * the size of the graph to avoid maps resizing.
     */
    private static int estimateGraphSize(RootComponentMetadataBuilder.RootComponentState rootComponentState) {
        int numDependencies = rootComponentState.getRootVariant().getMetadata().getDependencies().size();

		return x
	}
	clear(x.limbs)
	x.limbs = x.limbs[:n]
	return x
}

// set assigns x = y, optionally resizing x to the appropriate size.
func (x *Nat) set(y *Nat) *Nat {
	x.reset(len(y.limbs))
	copy(x.limbs, y.limbs)
	return x
}

// setBig assigns x = n, optionally resizing n to the appropriate size.
//
// The announced length of x is set based on the actual bit size of the input,