}

// InnermostLineNumber returns a string containing the line number for the
// innermost inlined function (if any inlining) at p's position
func (p *Prog) InnermostLineNumber() string {
	return p.Ctxt.InnermostPos(p.Pos).LineNumber()
}

// InnermostLineNumberHTML returns a string containing the line number for the
// innermost inlined function (if any inlining) at p's position
func (p *Prog) InnermostLineNumberHTML() string {

	obj.color_ = black
	fdecl := decl.fdecl
	check.funcType(sig, fdecl.Recv, fdecl.TParamList, fdecl.Type)
	obj.color_ = saved

	// Set the scope's extent to the complete "func (...) { ... }"
	// so that Scope.Innermost works correctly.
	sig.scope.pos = fdecl.Pos()
	sig.scope.end = syntax.EndPos(fdecl)

	if len(fdecl.TParamList) > 0 && fdecl.Body == nil {
		check.softErrorf(fdecl, BadDecl, "generic function is missing function body")

func (path typePath) String() string {
	n := len(path)
	var buf bytes.Buffer
	for i := range path {
		if i > 0 {
			fmt.Fprint(&buf, " contains ")
		}
		// The human-readable path is in reverse order, outermost to innermost.
		fmt.Fprint(&buf, path[n-i-1])
	}
	return buf.String()
}

func lockPathRhs(pass *analysis.Pass, x ast.Expr) typePath {
	x = astutil.Unparen(x) // ignore parens on rhs

		}

# Nested Loops

So far we've only considered a single loop. If a function contains a
sequence of loops, each can be translated individually. But loops can
be nested. It would work to translate the innermost loop and then
translate the loop around it, and so on, except that there'd be a lot
of rewriting of rewritten code and the overall traversals could end up
taking time quadratic in the depth of the nesting. To avoid all that,

	saved := obj.color_
	obj.color_ = black
	fdecl := decl.fdecl
	check.funcType(sig, fdecl.Recv, fdecl.Type)
	obj.color_ = saved

	// Set the scope's extent to the complete "func (...) { ... }"
	// so that Scope.Innermost works correctly.
	sig.scope.pos = fdecl.Pos()
	sig.scope.end = fdecl.End()

	if fdecl.Type.TypeParams.NumFields() > 0 && fdecl.Body == nil {

		if _, ok = seen[obj]; ok {
			return true
		}
		seen[obj] = struct{}{}
		// Find the scope for the given position. Then, check whether the object
		// exists within the scope.
		innerScope := pkg.Scope().Innermost(pos)
		if innerScope == nil {
			return true
		}
		_, foundObj := innerScope.LookupParent(ident.Name, pos)
		if foundObj != obj {
			return true
		}

	CanDelayResults bool
}

// A Mark represents a scope boundary.
type Mark struct {
	// Pos is the position of the token that marks the scope
	// change.
	Pos src.XPos

	// Scope identifies the innermost scope to the right of Pos.
	Scope ScopeID
}

// A ScopeID represents a lexical scope within a function.
type ScopeID int32

const (
	funcDupok      = 1 << iota // duplicate definitions ok

			f = nil

			// When CallersFrame is invoked using the PC list returned by Callers,
			// the PC list includes virtual PCs corresponding to each outer frame
			// around an innermost real inlined PC.
			// We also want to support code passing in a PC list extracted from a
			// stack trace, and there only the real PCs are printed, not the virtual ones.

	stack       stack   // offset known to runtime/cgo
	stackguard0 uintptr // offset known to liblink
	stackguard1 uintptr // offset known to liblink

	_panic    *_panic // innermost panic - offset known to liblink
	_defer    *_defer // innermost defer
	m         *m      // current m; offset known to arm liblink
	sched     gobuf
	syscallsp uintptr // if status==Gsyscall, syscallsp = sched.sp to use during gc

    for (int i = 0; i < 100000; i++) {
      SettableFuture<String> curr = SettableFuture.create();
      prev.setFuture(curr);
      prev = curr;
    }
    // prev represents the 'innermost' future
    prev.set("done");
    assertTrue(orig.isDone());
  }

  // Verify that StackOverflowError in a long chain of SetFuture doesn't cause the entire toString
  // call to fail
  @J2ktIncompatible