@Override
    public void populateWorkGraph(BuildWorkPlan plan, Consumer<? super WorkGraphBuilder> action) {
        DefaultBuildWorkPlan workPlan = unpack(plan);
        workPlan.empty = false;
        state.inState(State.TaskSchedule, () -> workPreparer.populateWorkGraph(gradle, workPlan.plan, dest -> action.accept(new DefaultWorkGraphBuilder(dest))));
    }

    @Override
    public void finalizeWorkGraph(BuildWorkPlan plan) {

Usá-lo em seu editor é o que realmente te mostra os benefícios do FastAPI, ver quão pouco código você tem que escrever, todas as conferências de tipo, auto completações etc.

---

## Instale o FastAPI

O primeiro passo é instalar o FastAPI.

Para o tutorial, você deve querer instalá-lo com todas as dependências e recursos opicionais.

<div class="termy">

```console
$ pip install "fastapi[all]"

	)

	if r.Header.Get(xMinIOExtract) == "true" && strings.Contains(prefix, archivePattern) {
		// Initiate a list objects operation inside a zip file based in the input params
		listObjectsV2Info, err = listObjectsV2InArchive(ctx, objectAPI, bucket, prefix, token, delimiter, maxKeys, startAfter, r.Header)
	} else {
		// Initiate a list objects operation based on the input params.
		// On success would return back ListObjectsInfo object to be

	pos := sf.pos + sourceFileNumPlusBuildConstraints
	n := sf.d.intAt(pos)
	pos += 4
	ret := make([]string, n)
	for i := 0; i < n; i++ {
		ret[i] = sf.d.stringAt(pos)
		pos += 4
	}
	return ret
}

func (sf *sourceFile) importsOffset() int {
	pos := sf.pos + sourceFileNumPlusBuildConstraints
	n := sf.d.intAt(pos)
	// each build constraint is 1 uint32
	return pos + 4 + n*4
}

			if r != rZero {
				pool.Put(r)
			}
		}
}

// NewSingleHandler creates a typed handler that can provide Marshal/Unmarshal.
// Use Register to register a server handler.
// Use Call to initiate a clientside call.
func NewSingleHandler[Req, Resp RoundTripper](h HandlerID, newReq func() Req, newResp func() Resp) *SingleHandler[Req, Resp] {
	s := SingleHandler[Req, Resp]{id: h}

	// initiate anonymous HTTP request to fetch the object which does not exist. We need to return AccessDenied.
	response, err = s.client.Get(getGetObjectURL(s.endPoint, bucketName, objectName+".1"))
	c.Assert(err, nil)
	// assert the http response status code.
	verifyError(c, response, "AccessDenied", "Access Denied.", http.StatusForbidden)

## Crie um `main.py`
Copie o exemplo em um arquivo `main.py`:

```Python
{!../../../docs_src/security/tutorial001.py!}
```

## Execute-o

!!! info "informação"
	Primeiro, instale <a href="https://github.com/Kludex/python-multipart" class="external-link" target="_blank">`python-multipart`</a>.

	Ex: `pip install python-multipart`.

	// ShutdownSendRetryAfter dictates when to initiate shutdown of the HTTP
	// Server during the graceful termination of the apiserver. If true, we wait
	// for non longrunning requests in flight to be drained and then initiate a
	// shutdown of the HTTP Server. If false, we initiate a shutdown of the HTTP
	// Server as soon as ShutdownDelayDuration has elapsed.

  toco_log_before.SerializeToOstream(&osstream_before);
  osstream_before.close();
  toco::LogDump(toco::kLogLevelModelChanged, "tf_graph", *imported_model);

  // Populate the post-conversion log, for convenient initiate the
  // `toco::Model` class from the generated flatbuffer.
  toco_flags->set_input_format(toco::FileFormat::TFLITE);
  std::unique_ptr<toco::Model> flatbuffer_model =

	muxAndDiscoveryCompleteSignals map[string]<-chan struct{}

	// ShutdownSendRetryAfter dictates when to initiate shutdown of the HTTP
	// Server during the graceful termination of the apiserver. If true, we wait
	// for non longrunning requests in flight to be drained and then initiate a
	// shutdown of the HTTP Server. If false, we initiate a shutdown of the HTTP
	// Server as soon as ShutdownDelayDuration has elapsed.