Como las dependencias también serán llamadas por **FastAPI** (lo mismo que tus *path operation functions*), las mismas reglas aplican al definir tus funciones.

Puedes usar `async def` o `def` normal.

Y puedes declarar dependencias con `async def` dentro de *path operation functions* normales `def`, o dependencias `def` dentro de *path operation functions* `async def`, etc.

No importa. **FastAPI** sabrá qué hacer.

/// note | Nota

        val qualifiedBaseName = declaringClass.baseQualifiedKotlinName

        val functions = collectKtFunctionsFor(qualifiedBaseName, method)
        if (functions.isNotEmpty()) {
            return getSinceStatus(functions, fallback)
        }

        val properties = collectKtPropertiesFor(qualifiedBaseName, method)
        return getSinceStatus(properties, fallback)

### Other utility functions { #other-utility-functions }

Any other utility function that you call directly can be created with normal `def` or `async def` and FastAPI won't affect the way you call it.

This is in contrast to the functions that FastAPI calls for you: *path operation functions* and dependencies.

### Otras funciones de utilidad { #other-utility-functions }

Cualquier otra función de utilidad que llames directamente puede ser creada con `def` normal o `async def` y FastAPI no afectará la forma en que la llames.

Esto contrasta con las funciones que FastAPI llama por ti: *path operation functions* y dependencias.

                added("Method", "SourceKt.getBazool()"),
                added("Method", "SourceKt.getBool()"),
                added("Method", "SourceKt.invoke(java.lang.String,java.lang.String,kotlin.jvm.functions.Function1)"),
                added("Method", "SourceKt.isBool()"),
                added("Method", "SourceKt.isFool()"),
                added("Method", "SourceKt.setBazar(java.lang.String)"),

            parameters["hashTypeSourceName"] as java.util.function.Function<String, String>,
            parameters["classPath"] as List<File>,
            parameters["classPathDependencies"] as List<File>,
            parameters["apiSpec"] as java.util.function.Function<String, Boolean>,
            parameters["functionSinceSupplier"] as java.util.function.Function<String, String?>,
        )
    }
}


private

  return grads;
}

std::vector<string> GetFuncNames(const tensorflow::GraphDef& graph_def) {
  std::vector<string> names;
  auto functions = graph_def.library().function();
  names.reserve(functions.size());
  for (const tensorflow::FunctionDef& func : functions) {
    names.push_back(func.signature().name());
  }
  std::sort(names.begin(), names.end());
  return names;
}

</p>

<p>
Each function also needs annotations giving the location of
live pointers in its arguments, results, and local stack frame.
For an assembly function with no pointer results and
either no local stack frame or no function calls,
the only requirement is to define a Go prototype for the function
in a Go source file in the same package. The name of the assembly

func panic(v any)

// The recover built-in function allows a program to manage behavior of a
// panicking goroutine. Executing a call to recover inside a deferred
// function (but not any function called by it) stops the panicking sequence
// by restoring normal execution and retrieves the error value passed to the
// call of panic. If recover is called outside the deferred function it will

It is designed to have functions that receive two parameters, one "request" and one "response". Then you "read" parts from the request, and "write" parts to the response. Because of this design, it is not possible to declare request parameters and bodies with standard Python type hints as function parameters.