import okio.Buffer
import org.junit.jupiter.api.Assumptions.assumeFalse
import org.junit.jupiter.params.ParameterizedTest
import org.junit.jupiter.params.provider.ArgumentsSource

/**
 * Tests for round-tripping headers through hpack.
 *
 * TODO: update hpack-test-case with the output of our encoder.
 * This test will hide complementary bugs in the encoder and decoder,
 * We should test that the encoder is producing responses that are

package org.apache.maven.api;

import java.time.Clock;
import java.time.Duration;
import java.time.Instant;
import java.time.ZoneId;
import java.time.ZoneOffset;

/**
 * A Clock implementation that combines monotonic timing with wall-clock time.
 * <p>
 * This class provides precise time measurements using {@link System#nanoTime()}
 * while maintaining wall-clock time information in UTC. The wall-clock time

# limitations under the License.
# ==============================================================================
source "${BASH_SOURCE%/*}/utilities/setup.sh"

import org.codelibs.fess.exception.FessSystemException;
import org.codelibs.fess.util.ComponentUtil;

/**
 * Helper class for controlling crawler execution intervals and timing.
 * This class manages crawler execution timing based on configurable rules
 * that can specify different delays for different time periods and days.
 */
public class IntervalControlHelper {

        assertTrue(
                later.minus(initial).toMillis() >= 45,
                "Elapsed time difference should be at least 45ms (accounting for some timing variance)");
    }

    @Test
    @DisplayName("MonotonicClock start time should remain constant")
    void testStartTime() throws InterruptedException {
        Instant start1 = MonotonicClock.start();

            - "windows-2016"
            - "windows-2019"
      # We shred out Windows testing into 4 parallel builds like on intake for expediency.
      # Our tests run much slower on Windows so this avoids issues with builds timing out.
      - axis:
          type: user-defined
          name: GRADLE_TASK
          values:
            - 'checkPart1'
            - 'checkPart2'
            - 'bwcTestSnapshots'
            - 'checkRestCompat'

* load balancer: load balancer (do not translate to "balanceador de carga")
* load balance: load balance (do not translate to "balancear carga")
* self hosting: self hosting (do not translate to "auto alojamiento")

```Python
if not (credentials.username == "stanleyjobson") or not (credentials.password == "swordfish"):
    # 어떤 오류를 반환
    ...
```

하지만 `secrets.compare_digest()`를 사용하면 "timing attacks"라고 불리는 한 유형의 공격에 대해 안전해집니다.

### 타이밍 공격 { #timing-attacks }

그렇다면 "timing attack"이란 무엇일까요?

공격자들이 사용자명과 비밀번호를 추측하려고 한다고 가정해봅시다.

그리고 사용자명 `johndoe`, 비밀번호 `love123`으로 요청을 보냅니다.

그러면 애플리케이션의 Python 코드는 대략 다음과 같을 것입니다:

```Python

# limitations under the License.
# ==============================================================================
source "${BASH_SOURCE%/*}/utilities/setup.sh"

    # Поверніть якусь помилку
    ...
```

Але використовуючи `secrets.compare_digest()`, це буде захищено від типу атак, що називаються «атаки за часом» (timing attacks).

### Атаки за часом { #timing-attacks }

Що таке «атака за часом»?

Уявімо, що зловмисники намагаються вгадати ім'я користувача та пароль.

Вони надсилають запит з ім'ям користувача `johndoe` та паролем `love123`.