inner (anonymous) class MainKt$ArticleScreenContent$2
    synthetic static method ArticleScreenContent$default(p0: java.lang.String, p1: kotlin.jvm.functions.Function0, p2: int, p3: java.lang.Object): void
    private final static method ArticleScreenContent(p0: java.lang.String, p1: kotlin.jvm.functions.Function0): void
    private final static method TopAppBar(p0: java.lang.String): void

    inner (anonymous) class MainKt$ArticleScreenContent$2
    synthetic static method ArticleScreenContent$default(p0: java.lang.String, p1: kotlin.jvm.functions.Function0, p2: int, p3: java.lang.Object): void
    private final static method ArticleScreenContent(p0: java.lang.String, p1: kotlin.jvm.functions.Function0): void
    private final static method TopAppBar(p0: java.lang.String): void

package abi

// A FuncFlag records bits about a function, passed to the runtime.
type FuncFlag uint8

const (
	// FuncFlagTopFrame indicates a function that appears at the top of its stack.
	// The traceback routine stop at such a function and consider that a
	// successful, complete traversal of the stack.
	// Examples of TopFrame functions include goexit, which appears

 *  <li>as a custom class that implements both encoding and decoding protocols in the same class
 *  <li>based on the combination of arbitrary encoder and decoder functions, as done via {@link org.gradle.internal.serialize.graph.CombinatorsKt#codec(kotlin.jvm.functions.Function3, kotlin.jvm.functions.Function2) codec(...)}

bool HasTPUPartitionedCallOpInModule(mlir::ModuleOp module);

// Check if a graph contains TPUPartitionedCall op, including its reachable
// functions. The function library is used to store the functions that are
// defined in a TensorFlow program
bool IsInferenceGraph(const Graph& graph,
                      const FunctionLibraryDefinition* function_library);
}  // namespace tensorflow

  }
  return bytecode;
}

// Serializes the stablehlo functions called by XlaCallModuleOp to bytecode
// and embeds the bytecode in XlaCallModuleOp's `module` attribute.
//
// The stablehlo functions include the function referred by XlaCallModuleOp's
// `_entry_function` attribute, and any stablehlo functions called transitively
// from the entry function.
LogicalResult SerializeXlaCallModule(SymbolTableCollection& symbol_table,

    checkArgument(!list.isEmpty(), "number of hash functions (%s) must be > 0", list.size());
    return new ConcatenatedHashFunction(list.toArray(new HashFunction[0]));
  }

  private static final class ConcatenatedHashFunction extends AbstractCompositeHashFunction {

    private ConcatenatedHashFunction(HashFunction... functions) {
      super(functions);
      for (HashFunction function : functions) {
        checkArgument(

	// within a package.
	ABIRefs obj.ABISet

	NumDefers  int32 // number of defer calls in the function
	NumReturns int32 // number of explicit returns in the function

	// NWBRCalls records the LSyms of functions called by this
	// function for go:nowritebarrierrec analysis. Only filled in
	// if nowritebarrierrecCheck != nil.
	NWBRCalls *[]SymAndPos

    checkArgument(!list.isEmpty(), "number of hash functions (%s) must be > 0", list.size());
    return new ConcatenatedHashFunction(list.toArray(new HashFunction[0]));
  }

  private static final class ConcatenatedHashFunction extends AbstractCompositeHashFunction {

    private ConcatenatedHashFunction(HashFunction... functions) {
      super(functions);
      for (HashFunction function : functions) {
        checkArgument(

As dependencies will also be called by **FastAPI** (the same as your *path operation functions*), the same rules apply while defining your functions.

You can use `async def` or normal `def`.

And you can declare dependencies with `async def` inside of normal `def` *path operation functions*, or `def` dependencies inside of `async def` *path operation functions*, etc.

It doesn't matter. **FastAPI** will know what to do.

!!! note