*      * response ([responseFailed])
 *        * headers ([responseHeadersStart], [responseHeadersEnd])
 *        * body ([responseBodyStart], [responseBodyEnd])
 *
 * This nesting is typical but not strict. For example, when calls use "Expect: continue" the
 * request body start and end events occur within the response header events. Similarly,
 * [duplex calls][RequestBody.isDuplex] interleave the request and response bodies.
 *

      Header("range", ""),
      Header("referer", ""),
      Header("refresh", ""),
      Header("retry-after", ""),
      Header("server", ""),
      Header("set-cookie", ""),
      Header("strict-transport-security", ""),
      Header("transfer-encoding", ""),
      Header("user-agent", ""),
      Header("vary", ""),
      Header("via", ""),
      Header("www-authenticate", ""),
    )

 *
 * This cache limits the number of bytes that it will store on the filesystem. When the number of
 * stored bytes exceeds the limit, the cache will remove entries in the background until the limit
 * is satisfied. The limit is not strict: the cache may temporarily exceed it while waiting for
 * files to be deleted. The limit does not include filesystem overhead or the cache journal so
 * space-sensitive applications should set a conservative limit.
 *

		header.Set("X-XSS-Protection", "1; mode=block")                                // Prevents against XSS attacks
		header.Set("X-Content-Type-Options", "nosniff")                                // Prevent mime-sniff
		header.Set("Strict-Transport-Security", "max-age=31536000; includeSubDomains") // HSTS mitigates variants of MITM attacks

		// Previously, this value was set right before a response was sent to

	tokenWaitBackoff = time.Second
)

func init() {
	scheme = runtime.NewScheme()
	utilruntime.Must(v1.AddToScheme(scheme))
	opt := json.SerializerOptions{
		Yaml:   true,
		Pretty: false,
		Strict: false,
	}
	yamlSerializer := json.NewSerializerWithOptions(json.DefaultMetaFactory, scheme, scheme, opt)
	codec = versioning.NewDefaultingCodecForScheme(
		scheme,
		yamlSerializer,
		yamlSerializer,

   *    originating the navigation, and the subject is the page being navigated to.
   *
   * The values of this attribute determine whether this cookie is sent for cross-site calls:
   *
   *  - "Strict": the cookie is omitted when the subject URL is an embedded resource or a
   *    potentially-destructive navigation.
   *
   *  - "Lax": the cookie is omitted when the subject URL is an embedded resource. It is sent for

/*! bootstrap-timepicker v0.5.2 
* http://jdewit.github.com/bootstrap-timepicker 
* Copyright (c) 2016 Joris de Wit and bootstrap-timepicker contributors 
* MIT License 

LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.

# The forked go-yaml.v3 library under this project is covered by two

Pode haver várias abordagens para conseguir isso, e falarei mais sobre estratégias específicas nos próximos capítulos, por exemplo, ao falar sobre Docker e contêineres.

A principal restrição a ser considerada é que tem que haver um **único** componente manipulando a **porta** no **IP público**. E então tem que ter uma maneira de **transmitir** a comunicação para os **processos/trabalhadores** replicados.

      cookieBuilder.sameSite(" a ").build()
    }

    cookieBuilder.sameSite("a").build()
  }

  @ParameterizedTest(name = "{displayName}({arguments})")
  @ValueSource(strings = ["Lax", "Strict", "UnrecognizedButValid"])
  fun builderSameSite(sameSite: String) {
    val cookie =
      Cookie.Builder()
        .name("a")
        .value("b")
        .domain("example.com")
        .sameSite(sameSite)