if (arg !is FirQualifiedAccessExpression) return
        val callableSymbol = arg.calleeReference.toResolvedCallableSymbol() ?: return
        if (callableSymbol.containingClassLookupTag()?.classId != expectedEnumClass) return
        val identifier = callableSymbol.callableId.callableName.identifier
        transformer(identifier)?.let(::add)
    }

    if (this@findFromRawArguments is FirAnnotationCall) {

        )
    }

    override fun equals(other: Any?): Boolean {
        if (this === other) return true
        if (javaClass != other?.javaClass) return false

        other as KtFe10VariableLikeSignature<*>

        if (backingSymbol != other.backingSymbol) return false
        if (backingReturnType != other.backingReturnType) return false
        if (backingReceiverType != other.backingReceiverType) return false

        return true

# Each automation has an `if` key that defines conditions to run the automation,
# as well as a `run` key with the actions to do. All the conditions need to be true
# for the actions to run (there is an implicit AND relation between
# the conditions on each line).  Each condition is specified as a Jinja expression.  You
# can also use the constant `true` if you want to always run the actions.

        }
        if (testProjects.isNotEmpty()) {
            steps {
                preBuildSteps()
                killProcessStep(buildTypeThis, KILL_ALL_GRADLE_PROCESSES, os)
                substDirOnWindows(os)

                repeat(if (performanceTestBuildSpec.type == PerformanceTestType.flakinessDetection) 2 else 1) { repeatIndex: Int ->

Any value of comparable type may be canonicalized with the new
`Make[T]` function, which produces a reference to a canonical copy of
the value in the form of a `Handle[T]`.
Two `Handle[T]` are equal if and only if the values used to produce the
handles are equal, allowing programs to deduplicate values and reduce
their memory footprint.
Comparing two `Handle[T]` values is efficient, reducing down to a simple

val javaParserVersion = "3.18.0"
val groovyVersion = GroovySystem.getVersion()
val isGroovy4 = VersionNumber.parse(groovyVersion).major >= 4
val codenarcVersion = if (isGroovy4) "3.1.0-groovy-4.0" else "3.1.0"
val spockVersion = if (isGroovy4) "2.2-groovy-4.0" else "2.2-groovy-3.0"
val asmVersion = "9.7"
// To try out better kotlin compilation avoidance and incremental compilation

    companion object {
        fun create(firCallableSymbol: FirCallableSymbol<*>, builder: KtSymbolByFirBuilder): KtAnnotationsList {
            val receiverParameter = firCallableSymbol.receiverParameter
            return if (receiverParameter?.annotations?.isEmpty() != false) {
                KtEmptyAnnotationsList(builder.token)
            } else {
                KtFirAnnotationListForReceiverParameter(firCallableSymbol, receiverParameter, builder)

app = FastAPI()

@app.get("/items/invalidnone", response_model=Item)
def get_invalid_none():
    if flag:
        return {"name": "foo"}
    # if flag is False, at this point the function will implicitly return None
```

If you have *path operations* using `response_model` that need to be allowed to return `None`, make it explicit in `response_model` using `Union[Something, None]`:

    REPO=$dir
    if [ -e ${'$'}REPO ] ; then
        tree ${'$'}REPO
        rm -rf ${'$'}REPO
        echo "${'$'}REPO was polluted during the build"
        ${if (exitOnFailure) "exit 1" else ""}
    else
        echo "${'$'}REPO does not exist"
    fi

""".trimIndent()

fun checkCleanDirWindows(dir: String, exitOnFailure: Boolean = true) = """
    IF exist $dir (
        TREE $dir

            qualifierParts += unresolvedName
            if (errorType != null && expression is FirPropertyAccessExpression) {
                expression.explicitReceiver?.let { process(it) }
            }
        }

        process(call.argument)

        val fqNameString = qualifierParts.asReversed().filterNotNull().takeIf { it.isNotEmpty() }?.joinToString(".")
        if (fqNameString != null) {