}
}

type jsonErrType struct{}

func (e *jsonErrType) MarshalJSON() ([]byte, error) {
	return nil, errors.New("beep */ boop </script blip <!--")
}

func TestJSValEscaper(t *testing.T) {
	tests := []struct {
		x        any
		js       string
		skipNest bool
	}{
		{int(42), " 42 ", false},
		{uint(42), " 42 ", false},
		{int16(42), " 42 ", false},
		{uint16(42), " 42 ", false},

      }
    }
  });
}

// tf.NoOp islands are used to combine multiple control dependencies into one.
// These islands have a single tf.NoOp inside them and consume multiple control
// outputs to generate a single control output.
//
// For example,
// ```
// %merged_control = "tf_executor.island"(%control_a, %control_b) ({
//   "tf.NoOp"() : () -> ()
//   "tf_executor.yield"() : () -> ()

// A forLoop describes a single range-over-func loop being processed.
type forLoop struct {
	nfor         *syntax.ForStmt // actual syntax
	stateVar     *types2.Var     // #state variable for this loop
	stateVarDecl *syntax.VarDecl
	depth        int // outermost loop has depth 1, otherwise depth = depth(parent)+1

	checkRet      bool     // add check for "return" after loop
	checkBreak    bool     // add check for "break" after loop

func panicSeq() Seq[int] {
	return func(yield func(int) bool) {
		panic("boom")
	}
}

func panicCleanupSeq() Seq[int] {
	return func(yield func(int) bool) {
		for {
			if !yield(55) {
				panic("boom")
			}
		}
	}
}

func TestPull2Panic(t *testing.T) {
	t.Run("next", func(t *testing.T) {
		next, stop := Pull2(panicSeq2())
		if !panicsWith("boom", func() { next() }) {

package ssa

import (
	"fmt"
)

type loop struct {
	header *Block // The header node of this (reducible) loop
	outer  *loop  // loop containing this loop

	// By default, children, exits, and depth are not initialized.
	children []*loop  // loops nested directly within this loop. Initialized by assembleChildren().
	exits    []*Block // exits records blocks reached by exits from this loop. Initialized by findExits().

  // detection graph, disconnecting each loop from the enclosing graph.
  // Specifically, we:
  // * add a new "frame" node for each loop.
  // * replace edges to "Enter" nodes, and edges from "Exit" nodes with edges
  //   to/from the corresponding frame node. In essence, we collapse the loop
  //   into a single node for the purpose of cycle detection in the enclosing
  //   graph.

// Issue #14768 - make sure we can inline for loops.
func for1(fn func() bool) { // ERROR "can inline for1" "fn does not escape"
	for {
		if fn() {
			break
		} else {
			continue
		}
	}
}

func for2(fn func() bool) { // ERROR "can inline for2" "fn does not escape"
Loop:
	for {
		if fn() {
			break Loop
		} else {
			continue Loop
		}
	}
}

	// if only one is specified, it will error later during construction
	return len(config.KubeletServingSignerConfiguration.CertFile) > 0 || len(config.KubeletServingSignerConfiguration.KeyFile) > 0
}
func areKubeletClientSignerFilesSpecified(config csrsigningconfig.CSRSigningControllerConfiguration) bool {
	// if only one is specified, it will error later during construction

		(*ast.File)(nil),
		(*ast.RangeStmt)(nil),
		(*ast.ForStmt)(nil),
	}
	inspect.Nodes(nodeFilter, func(n ast.Node, push bool) bool {
		if !push {
			// inspect.Nodes is slightly suboptimal as we only use push=true.
			return true
		}
		// Find the variables updated by the loop statement.
		var vars []types.Object
		addVar := func(expr ast.Expr) {
			if id, _ := expr.(*ast.Ident); id != nil {

  // from outputs_. Keyed by node id.
  std::vector<bool> GetReachableNodes();

  // Creates the gradient subgraph for a while loop (or just stores
  // `summed_grads` if not all incoming gradients are available yet). All exit
  // nodes (which are the first nodes of a loop encountered in the backwards
  // pass) are passed to this function rather than processed normally.