* // source code
     * fun test() {
     *   val action = foo()
     *   action("") // this call
     * }
     * ```
     *
     * Unfortunately, [symbol] for the `action("")` call will be pointing to the `Function1<P1, R>.invoke(p1: P1): R`, because we
     * intentionally unwrap use-site substitution overrides. Because of this, `symbol.name` will yield `"p1"`, and not `"bar"`.
     *

Method <org.gradle.kotlin.dsl.GroovyInteroperabilityKt.closureOf(java.lang.Object, kotlin.jvm.functions.Function1)> has arguments/return type groovy.lang.Closure that is not Gradle public API or primitive...

 *  <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(...)}

    mlir::ModuleOp module, const GraphExportConfig& configs);

// Converts an MLIR module to TensorFlow graph and FunctionLibraryDefinition.
// The "main" function of the module is stored in the graph and the rest of
// functions are stored in the library. Control ret nodes are stored separately
// in `control_ret_nodes`.
Status ConvertMlirToGraph(mlir::ModuleOp module,

     * For regular classes, implicit default constructor is generated
     * For data classes the `copy`, `component{N}`, `toString`, `equals`, `hashCode` functions are generated
     * For enum classes the `valueOf` & `values` functions are generated
     * For lambda the `it` implicit parameter is generated
     */
    SOURCE_MEMBER_GENERATED,

    /**
     * A Kotlin declaration came from some .class file

// Creates a pass that promotes resource reads/writes in `functions` to inputs
// and outputs of `functions`, assuming that resource operations have already
// been decomposed and function calls have already been inlined. If `functions`
// is empty, the pass is applied to the main function by default. The pass also
// annotates the input arguments for resources with the indices of their

	// function scopes which in turn enclose statement and function literal scopes.
	// Note that even though package-level functions are declared in the package
	// scope, the function scopes are embedded in the file scope of the file
	// containing the function declaration.
	//
	// The Scope of a function contains the declarations of any

//
// The third case is handled by looking for functions that compiler flagged
// as REFLECTMETHOD. REFLECTMETHOD on a function F means that F does a method
// lookup with reflection, but the compiler was not able to statically determine
// the method name.
//
// All functions that call reflect.Value.Method or reflect.Type.Method are REFLECTMETHODs.
// Functions that call reflect.Value.MethodByName or reflect.Type.MethodByName with

                                          int64_t max_iterations);

  // Updates input types and refine shapes inside body of functions that are
  // attached to ControlFlow ops (If/While) or Calls. These functions include
  // Then/Else branches of IfOp and Cond/Body functions of WhileOp. Functions
  // attached to control flow share following common properties:
  //   1) They are never reused, ie. having a single use in module.

# Setup the containerd on the node.
function Setup-ContainerRuntime {
  Install-Pigz
  Install_Containerd
  Configure_Containerd
  Start_Containerd
}

function Test-ContainersFeatureInstalled {
  return (Get-WindowsFeature Containers).Installed
}

# After this function returns, the computer must be restarted to complete
# the installation!
function Install-ContainersFeature {