<option value="$PROJECT_DIR$/platforms/core-configuration/configuration-problems-base" />
            <option value="$PROJECT_DIR$/platforms/core-configuration/core-flow-services-api" />
            <option value="$PROJECT_DIR$/platforms/core-configuration/core-kotlin-extensions" />
            <option value="$PROJECT_DIR$/platforms/core-configuration/core-serialization-codecs" />

            ctx.verifyMIC(new byte[] { 5 }, mic);
            ctx.isMICAvailable();
            ctx.dispose();
        }

        @Test
        @DisplayName("Verifies calls and argument flow across methods")
        void testInteractions() throws Exception {
            // Arrange
            when(mockCtx.getSigningKey()).thenReturn(new byte[] { 7 });
            when(mockCtx.isEstablished()).thenReturn(true);

        assertDoesNotThrow(() -> spiedConnection.getInputStream());
    }

    /**
     * Test a successful NTLM authentication handshake.
     * This is a simplified test that verifies the basic flow without full NTLM protocol simulation.
     * @throws IOException
     * @throws SecurityException
     */
    @Test
    void testSuccessfulHandshake() throws IOException, SecurityException {

Prefer either:
  * Provide only non-nullable version and move the `null` check to the call site (if the number of nullable callsites is low).
  * Provide two overloads with a different names (as Java doesn't support overloading on nullability). See 

        };
        byte[] buffer = new byte[1024];

        // Setup buffer after header
        buffer[33] = 4; // wordCount
        buffer[34] = (byte) 0xFF; // andxCommand
        buffer[36] = 0; // andxOffset low
        buffer[37] = 0; // andxOffset high
        SMBUtil.writeInt2(20, buffer, 42); // byteCount

        int length = testBlock.decode(buffer, 0);

        assertTrue(length > 0);

// nil as ETag.
//
// Wrap provides an adapter for io.Reader implementations
// that don't implement the Tagger interface.
// It is mainly used to provide a high-level io.Reader
// access to the ETag computed by a low-level io.Reader:
//
//	content := etag.NewReader(r.Body, nil)
//
//	compressedContent := Compress(content)
//	encryptedContent := Encrypt(compressedContent)
//
//	// Now, we need an io.Reader that can access

 *
 * @author Jared Levy
 * @since 2.0
 */
@GwtCompatible
@J2ktIncompatible
@SuppressWarnings("EnumOrdinal") // This is one of the low-level utilities where it's suitable.
public final class EnumMultiset<E extends Enum<E>> extends AbstractMultiset<E>
    implements Serializable {
  /** Creates an empty {@code EnumMultiset}. */

        dst[++dstIndex] = (byte) (val >> 8);
    }

    static long readTime(final byte[] src, final int srcIndex) {
        final int low = readInt4(src, srcIndex);
        final int hi = readInt4(src, srcIndex + 4);
        final long t = (long) hi << 32L | low & 0xFFFFFFFFL;
        return t / 10000L - MILLISECONDS_BETWEEN_1970_AND_1601;
    }

    static void writeTime(long t, final byte[] dst, final int dstIndex) {

* Глубокое обучение
* Машинное обучение
* Внедрение зависимостей
* Аутентификация HTTP Basic
* HTTP Digest
* формат ISO
* стандарт JSON Schema
* JSON-схема
* определение схемы
* password flow
* Мобильный

* устаревший
* спроектированный
* некорректный
* на лету
* стандарт
* по умолчанию
* чувствительный к регистру
* нечувствительный к регистру

* обслуживать приложение

## Obtener el `username` y `password` { #get-the-username-and-password }

Vamos a usar las utilidades de seguridad de **FastAPI** para obtener el `username` y `password`.

OAuth2 especifica que cuando se utiliza el "password flow" (que estamos usando), el cliente/usuario debe enviar campos `username` y `password` como form data.

Y la especificación dice que los campos deben llamarse así. Por lo que `user-name` o `email` no funcionarían.