"token_type": "Bearer",
  "expires_in": 3600
}
```

### 4. JWT Claims

The id_token received is a signed JSON Web Token (JWT). Use a JWT decoder to decode the id_token to access the payload of the token that includes following JWT claims:

* domain
* engine
* fake X
* HTTP GET method
* item
* library
* lifespan
* lock
* middleware
* mobile application
* module
* mounting
* network
* origin
* override
* payload
* processor
* property
* proxy
* pull request
* query
* RAM
* remote machine
* status code
* string
* tag
* web framework
* wildcard
* return etmek
* validate etmek

Então utilizamos a requisição diretamente e extraímos o corpo como `bytes`. Isso significa que o FastAPI não vai sequer tentar analisar o payload da requisição como JSON.

E então no nosso código, nós analisamos o conteúdo YAML diretamente e, em seguida, estamos usando novamente o mesmo modelo Pydantic para validar o conteúdo YAML:

        }

        final int len = bufferIndex - start;
        this.length = len;

        if (isRetainPayload()) {
            final byte[] payload = new byte[len];
            System.arraycopy(buffer, 4, payload, 0, len);
            setRawPayload(payload);
        }

        if (!verifySignature(buffer, 4, len)) {

func signStreamingRequest(req *http.Request, accessKey, secretKey string, currTime time.Time) (string, error) {
	// Get hashed payload.
	hashedPayload := req.Header.Get("x-amz-content-sha256")
	if hashedPayload == "" {
		return "", fmt.Errorf("Invalid hashed payload")
	}

	// Set x-amz-date.
	req.Header.Set("x-amz-date", currTime.Format(iso8601Format))

	// Get header map.

        pos += 4;
        // ioctlFlags
        SMBUtil.writeInt4(ioctlFlags, buf, pos);
        pos += 4;
        // reserved2 (4 bytes)
        pos += 4;

        // Write payload data: input then output
        if (inputCount > 0 && inputBytes != null) {
            System.arraycopy(inputBytes, 0, buf, pos, inputCount);
            pos += inputCount;
        }

        // The decode method returns only the header size (16 bytes)\n        assertEquals(16, bytesDecoded);
    }

    @Test
    @DisplayName("Test decode with large data payload")
    void testDecodeWithLargeData() throws SMBProtocolDecodingException {
        // Prepare test data with large data section
        int dataSize = 1024;
        byte[] buffer = new byte[16 + dataSize];

* das Item
* die Bibliothek
* der Lifespan
* der Lock
* die Middleware
* die Mobile-Anwendung
* das Modul
* das Mounten
* das Netzwerk
* das Origin
* Die Überschreibung
* die Payload
* der Prozessor
* die Property
* der Proxy
* der Pull Request
* die Query
* der RAM
* der entfernte Rechner
* der Statuscode
* der String
* der Tag
* das Webframework
* die Wildcard

func (e *Erasure) DecodeDataBlocks(data [][]byte) error {
	isZero := 0
	for _, b := range data {
		if len(b) == 0 {
			isZero++
			break
		}
	}
	if isZero == 0 || isZero == len(data) {
		// If all are zero, payload is 0 bytes.
		return nil
	}
	return e.encoder().ReconstructData(data)
}

// DecodeDataAndParityBlocks decodes the given erasure-coded data and verifies it.
// It returns an error if the decoding failed.

                            response.setDigest(dgst);
                            byte[] payload = response.getRawPayload();
                            if (!response.verifySignature(payload, 0, payload.length)) {
                                throw new SmbException("Signature validation failed");
                            }
                        }