* @param text
     *            the text to decrypt
     * @return the decrypted text
     */
    public String decryptoText(final String text) {
        try {
            return new String(decrypto(Base64Util.decode(text)), charsetName);
        } catch (final UnsupportedEncodingException e) {
            throw new UnsupportedEncodingRuntimeException(e);
        }
    }

    /**

        return access;
    }

    /**
     * Return the SID associated with this ACE.
     * @return the SID for this ACE
     */
    public SID getSID() {
        return sid;
    }

    int decode(final byte[] buf, int bi) {
        allow = buf[bi] == (byte) 0x00;
        bi++;
        flags = buf[bi++] & 0xFF;
        final int size = ServerMessageBlock.readInt2(buf, bi);
        bi += 2;

                }
                /* negotiation complete, remove the challenge object */
                ssn.removeAttribute("NtlmHttpChal");
            } else {
                final String auth = new String(Base64.decode(msg.substring(6)), "US-ASCII");
                int index = auth.indexOf(':');
                String user = index != -1 ? auth.substring(0, index) : auth;

                cci = Math.max(cci, createContextStart + nameOffset + nameLength);

                final CreateContextResponse cc = createContext(nameBytes);
                if (cc != null) {
                    cc.decode(buffer, createContextStart + dataOffset, dataLength);
                    contexts.add(cc);
                }

                cci = Math.max(cci, createContextStart + dataOffset + dataLength);

Ainsi, vous pouvez ajouter des données supplémentaires au schéma généré automatiquement.

Par exemple, vous pouvez décider de lire et de valider la requête avec votre propre code, sans utiliser les fonctionnalités automatiques de validation proposée par Pydantic, mais vous pouvez toujours définir la requête dans le schéma OpenAPI.

                    final List<String> list = new ArrayList<>();
                    final String permissions = stream(entity.getPermissions()).get(stream -> stream.map(s -> permissionHelper.decode(s))
                            .filter(StringUtil::isNotBlank)
                            .distinct()
                            .collect(Collectors.joining(",")));

    /**
     * Encode a DCE/RPC message for transmission
     *
     * @param msg
     *            the message to encode
     * @param out
     *            the output buffer for the encoded message
     * @return the NdrBuffer containing the encoded message
     * @throws NdrException
     *            if there is an error encoding the message
     * @throws DcerpcException
     *            if there is a DCE/RPC protocol error

            this.async = false;
            this.nextResponse = null;
        }

        // CommonServerMessageBlock interface methods
        @Override
        public int decode(byte[] buffer, int bufferIndex) throws SMBProtocolDecodingException {
            // Mock implementation
            return 0;
        }

        @Override
        public int encode(byte[] dst, int dstIndex) {

	// try slice first
	tmpSlice := []string{}
	if err := value.Decode(&tmpSlice); err == nil {
		*b = tmpSlice
		return nil
	}
	// try string
	tmpStr := ""
	if err := value.Decode(&tmpStr); err == nil {
		*b = []string{tmpStr}
		return nil
	}
	return fmt.Errorf("unable to decode %s", value.Value)
}

// F - return prefix(es) as slice

        return null // Nothing to do.
      }

      val now = backend.nanoTime()
      var minDelayNanos = Long.MAX_VALUE
      var readyTask: Task? = null
      var multipleReadyTasks = false

      // Decide what to run. This loop's goal wants to:
      //  * Find out what this thread should do (either run a task or sleep)
      //  * Find out if there's enough work to start another thread.