// Settings specific to this transport.
	tr.ResponseHeaderTimeout = timeout
	return tr
}

// NewHTTPTransportWithClientCerts returns a new http configuration used for
// communicating with client cert authentication.
func (s ConnSettings) NewHTTPTransportWithClientCerts(ctx context.Context, clientCert, clientKey string) (*http.Transport, error) {
	transport := s.NewHTTPTransportWithTimeout(1 * time.Minute)

import jcifs.dcerpc.ndr.NdrObject;

/**
 * RPC data structure definitions for DCE/RPC protocol support.
 * This class contains NDR (Network Data Representation) encodable/decodable structures
 * used in DCE/RPC communications including UUID, policy handles, unicode strings, and SIDs.
 */
@SuppressWarnings("all")
public class rpc {

    /**
     * Private constructor to prevent instantiation of utility class.
     */

	"github.com/minio/pkg/v3/env"
	xnet "github.com/minio/pkg/v3/net"
	clientv3 "go.etcd.io/etcd/client/v3"
	"go.etcd.io/etcd/client/v3/namespace"
	"go.uber.org/zap"
)

const (
	// Default values used while communicating with etcd.
	defaultDialTimeout   = 5 * time.Second
	defaultDialKeepAlive = 30 * time.Second
)

// etcd environment values
const (
	Endpoints     = "endpoints"
	PathPrefix    = "path_prefix"

Das ist immer noch wahr.

Um also **mehrere Prozesse** gleichzeitig zu haben, muss es einen **einzelnen Prozess geben, der einen Port überwacht**, welcher dann die Kommunikation auf irgendeine Weise an jeden Workerprozess überträgt.

### Arbeitsspeicher pro Prozess { #memory-per-process }

import jcifs.smb1.dcerpc.ndr.NdrObject;

/**
 * RPC data structure definitions for DCE/RPC protocol support.
 * This class contains NDR (Network Data Representation) encodable/decodable structures
 * used in DCE/RPC communications.
 */
public class rpc {

    /**
     * Private constructor to prevent instantiation of utility class.
     */
    private rpc() {
        // Utility class
    }

    /**

Esto sigue siendo cierto.

Así que, para poder tener **múltiples procesos** al mismo tiempo, tiene que haber un **solo proceso escuchando en un puerto** que luego transmita la comunicación a cada worker process de alguna forma.

### Memoria por Proceso { #memory-per-process }

     * represents is a printer.
     */
    int TYPE_PRINTER = 0x20;
    /**
     * Returned by {@link jcifs.SmbResource#getType()} if the resource this <code>SmbFile</code>
     * represents is a communications device.
     */
    int TYPE_COMM = 0x40;

    /* open flags */

    /**
     * Open for reading only.
     */
    int O_RDONLY = 0x01;
    /**
     * Open for writing only.
     */

///

Y al trabajar con contenedores, el mismo sistema que usas para iniciarlos y gestionarlos ya tendría herramientas internas para transmitir la **comunicación en red** (e.g., requests HTTP) desde ese **load balancer** (que también podría ser un **Proxy de Terminación TLS**) a los contenedores con tu aplicación.

import jcifs.smb1.dcerpc.ndr.NdrBuffer;
import jcifs.smb1.smb1.NtlmPasswordAuthentication;

/**
 * Abstract base class for DCERPC handles providing core RPC functionality.
 * This class manages DCE/RPC protocol bindings and communications over SMB transport.
 */
public abstract class DcerpcHandle implements DcerpcConstants {

    /**
     * Default constructor for DcerpcHandle.
     * Initializes the DCE/RPC handle for protocol operations.
     */

        writeInt2(andxOffset, dst, start + ANDX_OFFSET_OFFSET);

        andx.useUnicode = useUnicode;
        if (andx instanceof AndXServerMessageBlock) {

            /*
             * A word about communicating header info to andx smbs
             *
             * This is where we recursively invoke the provided andx smb
             * object to write it's parameter words and bytes to our outgoing