import java.util.concurrent.atomic.AtomicInteger;
import junit.framework.TestCase;
import org.jspecify.annotations.NullUnmarked;

/** Unit tests for CacheBuilder. */
@GwtCompatible
// We are intentionally testing the TimeUnit overloads, too.
@SuppressWarnings("LongTimeUnit_ExpireAfterWrite_Seconds")
@NullUnmarked
public class CacheBuilderTest extends TestCase {

  public void testNewBuilder() {

import java.util.concurrent.atomic.AtomicInteger;
import junit.framework.TestCase;
import org.jspecify.annotations.NullUnmarked;

/** Unit tests for CacheBuilder. */
@GwtCompatible
// We are intentionally testing the TimeUnit overloads, too.
@SuppressWarnings("LongTimeUnit_ExpireAfterWrite_Seconds")
@NullUnmarked
public class CacheBuilderTest extends TestCase {

  public void testNewBuilder() {

    return generateOrdering();
  }

  @Generates
  <T extends @Nullable Object> Ordering<T> generateOrdering() {
    return new Ordering<T>() {
      @Override
      @SuppressWarnings("UnusedVariable") // intentionally weird Comparator
      public int compare(T left, T right) {
        return 0;
      }

      final String string = paramString(Ordering.class, generateInt());

      @Override

    ask_for_var: string for how to ask for user input.
    var_default: default value string.

  Returns:
    string value for var_name
  """
  var = environ_cp.get(var_name)
  # an intentionally empty value in the
  # environment is not the same as no value
  if var is None:
    var = get_input(ask_for_var)
    print('\n')
  if not var:
    var = var_default
  return var

   *
   * Fundamentally, there's not really anything we can do about that. In the unlikely event that it
   * comes up in practice (maybe through some kind of sanitizer-like testing that intentionally
   * inflicts spurious interrupts on us?), we might have to accept some flakiness or disable some
   * tests, at least under whichever environment (JRE or Android) we see such problems.
   */

    @SuppressWarnings("UseCollectionConstructor") // test of factory method
    HashMap<Object, Object> map = Maps.<Object, Object>newLinkedHashMap(original);
    assertEquals(original, map);
  }

  // Intentionally using IdentityHashMap to test creation.
  @SuppressWarnings("IdentityHashMapBoxing")
  public void testIdentityHashMap() {
    IdentityHashMap<Integer, Integer> map = Maps.newIdentityHashMap();

            OAuth2 scopes required for the *path operation* that uses this Security
            dependency.

            The term "scope" comes from the OAuth2 specification, it seems to be
            intentionally vague and interpretable. It normally refers to permissions,
            in cases to roles.

            These scopes are integrated with OpenAPI (and the API docs at `/docs`).

		"server_insecure=on",
		"lookup_bind_dn=cn=admin,dc=min,dc=io",
		"lookup_bind_password=admin",
		// `DC` is intentionally capitalized here.
		"user_dn_search_base_dn=DC=min,DC=io",
		"user_dn_search_filter=(uid=%s)",
		// `DC` is intentionally capitalized here.
		"group_search_base_dn=ou=swengg,DC=min,dc=io",
		"group_search_filter=(&(objectclass=groupofnames)(member=%d))",
	}

  @Test
  fun serverDisconnectsPrematurelyWithChunkedEncoding() {
    testServerPrematureDisconnect(TransferKind.CHUNKED)
  }

  @Test
  fun serverDisconnectsPrematurelyWithNoLengthHeaders() {
    // Intentionally empty. This case doesn't make sense because there's no
    // such thing as a premature disconnect when the disconnect itself
    // indicates the end of the data stream.
  }

  }

  private <X extends Throwable> AsyncFunction<X, Integer> asyncFunctionReturningOne() {
    return unused -> immediateFuture(1);
  }

  @SuppressWarnings("FutureTransformAsync") // We intentionally test transformAsync.
  public void testTransformAsync_genericsWildcard_asyncFunction() throws Exception {
    ListenableFuture<?> nullFuture = immediateVoidFuture();
    ListenableFuture<?> chainedFuture =