}];
}

def TFR_BuildListOp : TFR_Op<"build_list", [Pure]> {
  let description = [{
   The `build_list` operation builds a tensor list from a list of tensors, or
   an tfr.attr from a list of scalars.

    Example:

    ```mlir
    %3 = tfr.build_list(%2, %1, %0) :
      (tfr.tensor, tfr.tensor, tfr.tensor) -> tfr.tensor_list
    %3 = tfr.build_list(%2, %1, %0) : (i32, i32, i32) -> tfr.attr
    ```
  }];

                                 derived_attrs))) {
        return failure();
      }
      continue;
    }

    // 2. The preceding op is a tfr.build_list op, which collects multiple
    // values with tensor types via the tfr.cast ops. These ops will be fused
    // to the current op as well, so all the tfr.cast op inputs will be inputs
    // to the result op.

    // Create the new operands. This is mapping the operands from the target
    // TF ops to the TFR function arguments. If the TFR function argument is
    // a tensor_list, a "tfr.build_list" op is used to concat the available
    // TF op operands. If the TFR function argument isn't a tensor/tensor_list,
    // a constant is created by using the attribute stored in the TF op or the

// of the list are sorted by path.
//
// See https://research.swtch.com/vgo-mvs for details.
func BuildList(targets []module.Version, reqs Reqs) ([]module.Version, error) {
	return buildList(targets, reqs, nil)
}

func buildList(targets []module.Version, reqs Reqs, upgrade func(module.Version) (module.Version, error)) ([]module.Version, error) {
	cmp := func(p, v1, v2 string) int {
		if reqs.Max(p, v1, v2) != v1 {
			return -1
		}

        context: AnalysisContext
    ): List<FunctionResolutionAndBinding> {
        var hasErrorInReceiverResolution = false
        val overloads: List<FunctionResolutionAndBinding> = buildList {
            when (functionCall.receiver) {
                is Expr -> {
                    val receiver = expressionResolver.doResolveExpression(context, functionCall.receiver)
                    if (receiver != null) {

                    StandardNames.getFunctionClassId(parametersCount)
                }
                buildString {
                    append(classId.asSingleFqName().toString())
                    val parameters = buildList {
                        receiverTypeRef?.let(::add)
                        parameters.mapTo(this) { it.returnTypeRef }
                        returnTypeRef.let(::add)
                    }

        extractors.asSequence().mapNotNull { it.topLevelFunction(function, preIndex) }.firstOrNull()
}


operator fun FunctionExtractor.plus(other: FunctionExtractor): CompositeFunctionExtractor = CompositeFunctionExtractor(buildList {
    fun include(functionExtractor: FunctionExtractor) = when (functionExtractor) {
        is CompositeFunctionExtractor -> addAll(functionExtractor.extractors)
        else -> add(functionExtractor)
    }

        trySyntheticGetters: Boolean = true,
    ): Collection<ResolveResult> {
        getExtensionReceiverSymbolByThisQualifier(fqName, contextElement).ifNotEmpty { return this }

        buildList {
            getSymbolsFromScopes(fqName, contextElement).mapTo(this) { it.toResolveResult() }
            addAll(getTypeQualifiedExtensions(fqName, contextElement))

        )

        val libraryRoots = getAllBinaryRoots(modules, environment)

        val rootsWithSingleJavaFileRoots = buildList {
            addAll(libraryRoots)
            addAll(allSourceFileRoots)
            addAll(jdkRoots)
        }

        val (roots, singleJavaFileRoots) =

            computeCodeFragmentMappings(file, mainFirFile, firResolveSession, configuration)
        }

        val compilationPeerData = CompilationPeerCollector.process(mainFirFile)

        val filesToCompile = buildList {
            val dependencyFiles = buildSet {
                addAll(compilationPeerData.files)
                addAll(codeFragmentMappings?.capturedFiles.orEmpty())