super.visitExpression(expression)

                val bindingContext = analysisContext.analyze(expression)
                val call = bindingContext.get(BindingContext.CALL, expression) ?: return
                val resolvedCall = bindingContext.get(BindingContext.RESOLVED_CALL, call)
                collector.checkResolveCall(resolvedCall)
            }

  }

  @Test
  @TestMetadata("class_object_call.kt")
  public void testClass_object_call() {
    runTest("analysis/analysis-api/testData/components/psiTypeProvider/psiType/forExpression/class_object_call.kt");
  }

  @Test
  @TestMetadata("class_object_constructor.kt")
  public void testClass_object_constructor() {

        val type = fir.resolvedType as? ConeClassLikeType ?: return listOfNotNull(arrayOfSymbol(arrayOf))
        val call = arrayTypeToArrayOfCall[type.lookupTag.classId] ?: arrayOf
        return listOfNotNull(arrayOfSymbol(call))
    }

                // to work with if there are no extension tools.
                // If there are extension tools, any empty scopes, whether from shadowedSearchScope
                // on the extension tools or from this add() call, will be ignored.
                add(GlobalSearchScope.EMPTY_SCOPE)
                extensionTools.mapTo(this) { it.shadowedSearchScope }
            }
        )

     * is (FirCheckedSafeCallSubject)[org.jetbrains.kotlin.fir.expressions.FirCheckedSafeCallSubject] which requires additional unwrapping
     * to be used for call resolution.
     */
    private fun findReceiverFirExpression(receiverExpression: KtExpression): FirExpression? {
        if (receiverExpression is KtStatementExpression) {

                 * only function matching the signature is A, because B does not have type parameters. However, actually B also matches the
                 * signature, and we must avoid dropping a.b.c from the call expression.
                 */
                if (callExpression?.typeArguments?.isNotEmpty() == true) typeArguments.addAll(functionCall.typeArguments)

                argumentList = functionCall.argumentList

        val call = ktTypeReference.getParentOfType<KtCallElement>(strict = true) ?: return null
        val bindingContext = analysisContext.analyze(ktTypeReference, AnalysisMode.PARTIAL)
        val resolvedCall = call.getResolvedCall(bindingContext) ?: return null
        val typeProjection = call.typeArguments.find { it.typeReference == ktTypeReference } ?: return null

      <option name="ALIGN_MULTILINE_PARENTHESIZED_EXPRESSION" value="true" />
      <option name="SPACE_BEFORE_ARRAY_INITIALIZER_LBRACE" value="true" />
      <option name="CALL_PARAMETERS_WRAP" value="1" />
      <option name="METHOD_PARAMETERS_WRAP" value="5" />
      <option name="METHOD_PARAMETERS_LPAREN_ON_NEXT_LINE" value="true" />

                // implicit invoke call. For example,
                // ```
                // fun test(f: () -> Unit) {
                //   f() // calleeExpression `f` resolves to the local variable access, while `f()` resolves to the implicit `invoke` call.

import org.jetbrains.kotlin.utils.addToStdlib.ifNotEmpty

internal object FirReferenceResolveHelper {
    fun FirResolvedTypeRef.toTargetSymbol(session: FirSession, symbolBuilder: KtSymbolByFirBuilder): KtSymbol? {
        // When you call a method from Java with type arguments, in FIR they are currently represented as flexible types.
        // TODO Consider handling other non-ConeLookupTagBasedType types here (see KT-66418)