tmpOld, export); err != nil && err != errFileNotFound {
		bootLogIf(GlobalContext, fmt.Errorf("unable to rename (%s -> %s) %w, drive may be faulty please investigate",
			pathJoin(export, minioMetaMultipartBucket),
			tmpOld,
			osErrToFileErr(err)))
	}

	// format-V2 struct is exactly same as format-V1 except that version is "3"
	// which indicates the simplified multipart backend.
	formatV3 := formatErasureV3{}

			} else {
				check.versionErrorf(call, go1_18, "implicit function instantiation")
			}
		}
		// rename type parameters to avoid problems with recursive calls
		var tmp Type
		tparams, tmp = check.renameTParams(call.Pos(), sig.TypeParams().list(), sigParams)
		sigParams = tmp.(*Tuple)
		// make sure targs and tparams have the same length
		for len(targs) < len(tparams) {
			targs = append(targs, nil)
		}
	}

        result.question == 'prompt'
        result.options == ['a', 'b']
        result.defaultOption == 1
        result.timestamp == 123
    }

    def "can serialize user input resume event"() {
        expect:
        def event = new UserInputResumeEvent(123)
        def result = serialize(event, serializer)
        result instanceof UserInputResumeEvent
        result.timestamp == 123
    }

	// the .partial file afterward (all while holding the lock).
	//
	// Before Go 1.16, we extracted to a temporary directory with a random name
	// then renamed it into place with os.Rename. On Windows, this failed with
	// ERROR_ACCESS_DENIED when another process (usually an anti-virus scanner)
	// opened files in the temporary directory.
	//

	}

	defer er.deleteAll(context.Background(), minioMetaTmpBucket, tmpID)

	// Rename from tmp location to the actual location.
	for i, disk := range outDatedDisks {
		if disk == OfflineDisk {
			continue
		}

		// record the index of the updated disks
		partsMetadata[i].Erasure.Index = i + 1

		// Attempt a rename now from healed data to final location.
		partsMetadata[i].SetHealing()

			}
		}
		// rename type parameters to avoid problems with recursive calls
		var tmp Type
		tparams, tmp = check.renameTParams(call.Pos(), sig.TypeParams().list(), sigParams)
		sigParams = tmp.(*Tuple)
		// make sure targs and tparams have the same length
		for len(targs) < len(tparams) {
			targs = append(targs, nil)
		}
	}

* La documentation alternative reflétera également le nouveau paramètre de requête et le nouveau corps :

![ReDoc](https://fastapi.tiangolo.com/img/index/index-06-redoc-02.png)

### En résumé

En résumé, vous déclarez **une fois** les types de paramètres, <abbr title="en anglais : body">le corps</abbr>  de la requête, etc. en tant que paramètres de fonction.

Vous faites cela avec les types Python standard modernes.

	// we would get infinite looping of events
	//
	// Additionally, fsnotify will lose existing watches on atomic copies (due to overwrite/rename),
	// so we have to re-watch after re-copy to make sure we always have fresh watches.
	watcher, err := util.CreateFileWatcher(targets...)
	if err != nil {
		return err
	}
	defer func() {

	if err := renameAll(pathJoin(diskPath, minioMetaTmpBucket),
		tmpOld, diskPath); err != nil && !errors.Is(err, errFileNotFound) {
		storageLogIf(GlobalContext, fmt.Errorf("unable to rename (%s -> %s) %w, drive may be faulty, please investigate",
			pathJoin(diskPath, minioMetaTmpBucket),
			tmpOld,
			osErrToFileErr(err)))
	}

==============================================================================*/

// This pass clusters the TensorFlow ops by host. The program generated by this
// pass will have one function per host where all operations in the same
// function are placed on the same host. Each result of the per-host function
// will have a "tf.device" attribute which specifies the device assignment of
// the result.
//