In that case, you wouldn't have to worry about any of this. 🤷

///

### Examples of Previous Steps Strategies { #examples-of-previous-steps-strategies }

This will **depend heavily** on the way you **deploy your system**, and it would probably be connected to the way you start programs, handling restarts, etc.

Here are some possible ideas:

    assertThat(Shorts.toArray(list.subList(1, 3))).isEqualTo(new short[] {(short) 1, (short) 2});
    assertThat(Shorts.toArray(list.subList(2, 2))).isEqualTo(new short[] {});
  }

  // `primitives` can't depend on `collect`, so this is what the prod code has to return.
  @SuppressWarnings("EmptyList")
  public void testAsListEmpty() {
    assertThat(Shorts.asList(EMPTY)).isSameInstanceAs(Collections.emptyList());
  }

      initCause(conflictingStackTrace);
    }

    public ExampleStackTrace getConflictingStackTrace() {
      return conflictingStackTrace;
    }

    /**
     * Appends the chain of messages from the {@code conflictingStackTrace} to the original {@code
     * message}.
     */
    @Override
    public String getMessage() {

     * are reserved for enums defined in BloomFilterStrategies; negative values are reserved for any
     * custom, stateful strategy we may define (e.g. any kind of strategy that would depend on user
     * input).
     */
    int ordinal();
  }

  /** The bit set of the BloomFilter (not necessarily power of 2!) */
  private final LockFreeBitArray bits;

   *
   * <p>This executor is appropriate for tasks that are lightweight and not deeply chained.
   * Inappropriate {@code directExecutor} usage can cause problems, and these problems can be
   * difficult to reproduce because they depend on timing. For example:
   *
   * <ul>
   *   <li>When a {@code ListenableFuture} listener is registered to run under {@code
   *       directExecutor}, the listener can execute in any of three possible threads:

R5 #define KEYP R6 #define ROUNDS R7 #define IVP R8 #define ENC R9 #define INOUT V2 #define TMP V3 #define IVEC V4 // Load the crypt key into VSRs. // // The expanded key is stored and loaded using // STXVD2X/LXVD2X. The in-memory byte ordering // depends on the endianness of the machine. The // expanded keys are generated by expandKeyAsm above. // // Rkeyp holds the key pointer. It is clobbered. Once // the expanded keys are loaded, it is not needed. // // R12,R14-R21 are scratch registers. // For...

      imports = "com.google.common.io.Files")
  public
  static void copy(File from, Charset charset, Appendable to) throws IOException {
    asCharSource(from, charset).copyTo(to);
  }

  /**
   * Appends a character sequence (such as a string) to a file using the given character set.
   *
   * @param from the character sequence to append
   * @param to the destination file

      imports = "com.google.common.io.Files")
  public
  static void copy(File from, Charset charset, Appendable to) throws IOException {
    asCharSource(from, charset).copyTo(to);
  }

  /**
   * Appends a character sequence (such as a string) to a file using the given character set.
   *
   * @param from the character sequence to append
   * @param to the destination file

### Package Requirements { #package-requirements }

You would normally have the **package requirements** for your application in some file.

It would depend mainly on the tool you use to **install** those requirements.

The most common way to do it is to have a file `requirements.txt` with the package names and their versions, one per line.

                byte[] nonce = ctx.generateNonce();
                assertNotNull(nonce);
            }
        });

        // Then - Context should be closed and keys wiped
        // Verification would depend on implementation details
    }

    @Test
    @DisplayName("Should handle multiple close() calls gracefully")
    void testMultipleCloseCallsSafe() {
        // Given