Pero si deseas usar `async` / `await` sin FastAPI, también puedes hacerlo.

### Escribe tu propio código async { #write-your-own-async-code }

	// filename is this parentUser: therefore, it needs to have only valid
	// filename characters and needs to have bounded length.
	{
		h := sha256.New()
		h.Write([]byte("openid:" + subFromToken + ":" + issFromToken))
		bs := h.Sum(nil)
		cred.ParentUser = base64.RawURLEncoding.EncodeToString(bs)
	}

	// Deny this assume role request if the policy that the user intends to bind

Wenn Sie jedoch `async` / `await` ohne FastAPI verwenden möchten, können Sie dies auch tun.

### Schreiben Sie Ihren eigenen asynchronen Code { #write-your-own-async-code }

Mas se você quiser usar `async` / `await` sem FastAPI, você também pode fazê-lo.

### Escreva seu próprio código assíncrono { #write-your-own-async-code }

```console
$ echo "*" > .venv/.gitignore
```

</div>

/// details | 명령어 상세 설명

* `echo "*"`: 터미널에 `*` 텍스트를 "출력"합니다 (다음 설명에서 조금 바뀝니다)
* `>`: 왼쪽 명령어의 출력 내용을 터미널에 출력하지 않고, 오른쪽에 지정된 파일로 **기록(write)** 하라는 의미입니다.
* `.gitignore`: 출력된 텍스트가 기록될 파일 이름입니다.

그리고 Git에서 `*`는 "모든 것"을 의미합니다. 따라서 `.venv` 디렉터리 안의 모든 것을 무시하게 됩니다.

이 명령어는 다음과 같은 내용을 가진 `.gitignore` 파일을 생성합니다:


```gitignore
*
```

	// Initializing sub-systems needs a retry mechanism for
	// the following reasons:
	//  - Read quorum is lost just after the initialization
	//    of the object layer.
	//  - Write quorum not met when upgrading configuration
	//    version is needed, migration is needed etc.
	rquorum := InsufficientReadQuorum{}
	wquorum := InsufficientWriteQuorum{}

  const string input_name =
      signature_def.inputs().at(tensorflow::kRegressInputs).name();
  const string output_name =
      signature_def.outputs().at(tensorflow::kRegressOutputs).name();

  // Write {0, 1, 2, 3} as tensorflow::Example inputs.
  Tensor input(tensorflow::DT_STRING, TensorShape({4}));
  for (int64_t i = 0; i < input.NumElements(); ++i) {
    tensorflow::Example example;

//   DoSomethingWithOperation(oper);
// }
TF_CAPI_EXPORT extern TF_Operation* TF_GraphNextOperation(TF_Graph* graph,
                                                          size_t* pos);

// Write out a serialized representation of `graph` (as a GraphDef protocol
// message) to `output_graph_def` (allocated by TF_NewBuffer()).
// `output_graph_def`'s underlying buffer will be freed when TF_DeleteBuffer()
// is called.

					return
				}
			}
		}()
	}

	return nil
}

func newPoolMeta(z *erasureServerPools, prevMeta poolMeta) poolMeta {
	newMeta := poolMeta{} // to update write poolMeta fresh.
	// looks like new pool was added we need to update,
	// or this is a fresh installation (or an existing
	// installation with pool removed)
	newMeta.Version = poolMetaVersion

		}
		data, err = xl.AppendTo(nil)
		if err != nil {
			t.Fatal(err)
		}
		xl = xlMetaV2{}
		err = xl.Load(data)
		if err != nil {
			t.Fatal(err)
		}
		test(t, &xl)
	})
	t.Run("write-timestamp", func(t *testing.T) {
		var xl xlMetaV2
		err = xl.Load(data)
		if err != nil {
			t.Fatal(err)
		}
		ventry := xlMetaV2Version{
			Type: DeleteType,
			DeleteMarker: &xlMetaV2DeleteMarker{