// is part of the top-level function (ii == 0) or if it was
	// produced as a result of an inline (ii != 0).
	//
	// If a variable was not produced by an inline and its containing
	// function was not inlined, then we just assign an ordering of
	// based on variable name.
	//
	// If a variable was not produced by an inline and its containing
	// function was inlined, then we need to assign a child index

	}

	frames := runtime.CallersFrames(pcs[:])
	frame, _ := frames.Next()

	inlined := frame.Func == nil // Func always set to nil for inlined frames
	if wantInlined != inlined {
		panic(fmt.Sprintf("caller %s inlined got %v want %v", frame.Function, inlined, wantInlined))
	}

	return runtime.FrameStartLine(&frame)

func small5() { // ERROR "can inline small5"
	// the Unlock fast path should be inlined
	mutex.Unlock() // ERROR "inlining call to sync\.\(\*Mutex\)\.Unlock"
}

func small6() { // ERROR "can inline small6"
	// the Lock fast path should be inlined
	mutex.Lock() // ERROR "inlining call to sync\.\(\*Mutex\)\.Lock"
}

var once *sync.Once

func small7() { // ERROR "can inline small7"
	// the Do fast path should be inlined

	return x.(*int) // ERROR "type assertion inlined"
}

func assertptr2(x interface{}) (*int, bool) {
	z, ok := x.(*int) // ERROR "type assertion inlined"
	return z, ok
}

func assertfunc(x interface{}) func() {
	return x.(func()) // ERROR "type assertion inlined"
}

func assertfunc2(x interface{}) (func(), bool) {
	z, ok := x.(func()) // ERROR "type assertion inlined"
	return z, ok
}

}

// InnermostPos returns the innermost position corresponding to xpos,
// that is, the code that is inlined and that inlines nothing else.
// In the example for InlTree above, the code for println within h
// would have an innermost position with line number 12, whether
// h was not inlined, inlined into g, g-then-f, or g-then-f-then-main.
// This corresponds to what someone debugging main, f, g, or h might

// CHECK-LABEL: func @inline_simple(
func.func @inline_simple() -> tensor<2xi32> {
  // CHECK-NEXT: %[[CST:.*]] = "tf.Const"
  // CHECK-NEXT: return %[[CST]]
  %result = "tf.StatefulPartitionedCall"() {config = "", config_proto = "", executor_type = "", f = @simple_callee} : () -> tensor<2xi32>
  func.return %result : tensor<2xi32>
}

// Test that functions with 'tf._noinline' are not inlined.

     */
    @KaAnalysisApiInternals
    public abstract fun afterLeavingAnalysis(session: KaSession, useSiteElement: KtElement)

    /**
     * [afterLeavingAnalysis] hooks into analysis *after* [analyze]'s action has been executed.
     *
     * The signature of [afterLeavingAnalysis] should be kept stable to avoid breaking binary compatibility, since [analyze] is inlined.
     */

// RUN: tf-tfrt-opt -split-input-file -pass-pipeline='builtin.module(tf-to-mlrt, inline)' %s | FileCheck %s -dump-input=fail

// Test generated tf_mlrt while body and predicate is inlined.

func.func @then(%x: tensor<i1>, %y: tensor<i1>, %z: tensor<i32>) -> tensor<i1> {
  return %x: tensor<i1>
}

func.func @else(%x: tensor<i1>, %y: tensor<i1>, %z: tensor<i32>) -> tensor<i1> {
  return %y: tensor<i1>
}

// CHECK-LABEL: func @while_cond_if

}

func main() {

	var t T

	if v := real(t.cplx()); v != 1 {
		panic("not-inlined complex call failed")
	}
	_ = imag(t.cplx())

	_ = real(t.cplx2())
	if v := imag(t.cplx2()); v != 1 {
		panic("potentially inlined complex call failed")
	}

	var i I
	i = t
	if v := real(i.cplx()); v != 1 {
		panic("potentially inlined complex call failed")
	}
	_ = imag(i.cplx())

}

func (s *StackSet) makeInitialStacks(rpt *Report) {
	type key struct {
		line    profile.Line
		inlined bool
	}
	srcs := map[key]int{} // Sources identified so far.
	seenFunctions := map[string]bool{}
	unknownIndex := 1
	getSrc := func(line profile.Line, inlined bool) int {
		k := key{line, inlined}
		if i, ok := srcs[k]; ok {
			return i
		}