when:
        file("a/build.gradle") << """
            tasks.register('something')
        """
        def originalUpdatedModel = fetchModel(GradleProject)

        then:
        fixture.assertNoConfigurationCache()

        originalUpdatedModel.children.path == [":a", ":b"]
        originalUpdatedModel.children.all[0].tasks.name.contains("something")


        when:
        executer.withArguments(ENABLE_CLI)

    }

    def "logs generic deprecation message for specific thing"() {
        when:
        DeprecationLogger.deprecate("Something").willBeRemovedInGradle9().undocumented().nagUser()

        then:
        expectMessage "Something has been deprecated. This is scheduled to be removed in Gradle ${NEXT_GRADLE_VERSION}."
    }

    def "logs deprecated behavior message"() {
        when:

        } catch (Throwable th) {
            // Throwing exception from the ClassFileTransformer has no effect - if it happens, the class is loaded unchanged silently.
            // This is not something we want, so we notify the class loader about this.
            instrumentingLoader.transformFailed(className, th);
            return null;
        }
    }

    public static boolean tryInstall() {

func isWakeup(ev *keventt) bool {
	if ev.filter == _EVFILT_USER {
		if ev.ident == kqIdent {
			return true
		}
		println("runtime: netpoll: break fd ready for", ev.ident)
		throw("runtime: netpoll: break fd ready for something unexpected")
	}
	return false
}

func drainWakeupEvent(kq int32) {
	ev := keventt{
		ident:  kqIdent,
		filter: _EVFILT_USER,
		flags:  _EV_DISABLE,
	}
	kevent(kq, &ev, 1, nil, 0, nil)
}

A "**callable**" in Python is anything that Python can "call" like a function.

So, if you have an object `something` (that might _not_ be a function) and you can "call" it (execute it) like:

```Python
something()
```

or

```Python
something(some_argument, some_keyword_argument="foo")
```

then it is a "callable".

## Classes as dependencies

// (Then all the runners return.)
func (w *Work[T]) runner() {
	for {
		// Wait for something to do.
		w.mu.Lock()
		for len(w.todo) == 0 {
			w.waiting++
			if w.waiting == w.running {
				// All done.
				w.wait.Broadcast()
				w.mu.Unlock()
				return
			}
			w.wait.Wait()
			w.waiting--
		}

		// Pick something to do at random,
		// to eliminate pathological contention

	//
	//
	//
	//
	//
	//
	HandleErrorWithContext(ctx, errors.New("fake error"), "test")

	klog.Flush()
	// Strip varying header. Code location should be constant and something
	// that needs to be tested.
	output := buffer.String()
	output = regexp.MustCompile(`^.* ([^[:space:]]*.go:[[:digit:]]*)\] `).ReplaceAllString(output, `xxx $1] `)
	fmt.Print(output)

	// Output:

    "servers": [
        {
            "url": "/api/v1"
        }
    ],
    "paths": {
            // More stuff here
    }
}
```

In this example, the "Proxy" could be something like **Traefik**. And the server would be something like FastAPI CLI with **Uvicorn**, running your FastAPI application.

### Providing the `root_path`

To achieve this, you can use the command line option `--root-path` like:

<div class="termy">

						Number:   9000,
						Protocol: "HTTP",
						Name:     "something",
					},
					Bind:  "1.1.1.1",
					Hosts: []string{"*/bookinfo.com"},
				},
				{
					Port: &networking.SidecarPort{
						// Unix domain socket listener
						Number:   0,
						Protocol: "HTTP",
						Name:     "something",
					},
					Bind:  "unix://foo/bar/baz",
					Hosts: []string{"*/bookinfo.com"},

	// Below are various preconfigured echo deployments. Whenever possible, tests should utilize these
	// to avoid excessive creation/tear down of deployments. In general, a test should only deploy echo if
	// its doing something unique to that specific test.
	apps = deployment.SingleNamespaceView{}
)

func TestMain(m *testing.M) {
	// nolint: staticcheck
	framework.
		NewSuite(m).
		RequireExternalControlPlaneTopology().