// that are pointers to heap-allocated output parameters are
	// also always live (post-deferreturn code needs these
	// pointers to copy values back to the stack).
	// TODO: if the output parameter is heap-allocated, then we
	// don't need to keep the stack copy live?
	if lv.fn.HasDefer() {
		for i, n := range lv.vars {
			if n.Class == ir.PPARAMOUT {
				if n.IsOutputParamHeapAddr() {

The methods [Alias.Origin], [Alias.SetTypeParams], [Alias.TypeParams],

   *
   * <p>The function is applied lazily, invoked when needed. This is necessary for the returned map
   * to be a view, but it means that the function will be applied many times for bulk operations
   * like {@link Map#containsValue} and {@code Map.toString()}. For this to perform well, {@code
   * function} should be fast. To avoid lazy evaluation when the returned map doesn't need to be a

stderr '\n\nTo upgrade to the versions selected by go 1.16, leaving some packages unresolved:\n\tgo mod tidy -e -go=1\.16 && go mod tidy -e -go=1\.17\nIf reproducibility with go 1.16 is not needed:\n\tgo mod tidy -compat=1\.17\nFor other options, see:\n\thttps://golang\.org/doc/modules/pruning\n'

# Make sure that -diff behaves the same as tidy.
[exec:patch] cp go.mod.orig go.mod
[exec:patch] ! exists go.sum

		largeStackFramesMu.Unlock()
		return
	}
	pp := objw.NewProgs(fn, worker)
	defer pp.Free()
	genssa(f, pp)
	// Check frame size again.
	// The check above included only the space needed for local variables.
	// After genssa, the space needed includes local variables and the callee arg region.
	// We must do this check prior to calling pp.Flush.
	// If there are any oversized stack frames,

The -fmt flag reformats the go.work file without making other changes.
This reformatting is also implied by any other modifications that use or
rewrite the go.mod file. The only time this flag is needed is if no other
flags are specified, as in 'go work edit -fmt'.

The -godebug=key=value flag adds a godebug key=value line,
replacing any existing godebug lines with the given key.

	// Gotype, so as to propagate it to the new symbol.
	auxs := r.Auxs(li)
	pp.auxs = auxs

	// Install new payload to global index space.
	// (This needs to happen at the end, as the accessors above
	// need to access the old symbol content.)
	l.objSyms[symIdx] = objSym{l.extReader.objidx, uint32(pi)}
	l.extReader.syms = append(l.extReader.syms, symIdx)

}

// cycleError reports a declaration cycle starting with the object at cycle[start].
func (check *Checker) cycleError(cycle []Object, start int) {
	// name returns the (possibly qualified) object name.
	// This is needed because with generic types, cycles
	// may refer to imported types. See go.dev/issue/50788.
	// TODO(gri) This functionality is used elsewhere. Factor it out.
	name := func(obj Object) string {

type profileCopier []byte

func makeProfileCopier(src *profile.Profile) profileCopier {
	// Pre-serialize the profile. We will deserialize every time a fresh copy is needed.
	var buf bytes.Buffer
	src.WriteUncompressed(&buf)
	return profileCopier(buf.Bytes())
}

// newCopy returns a new copy of the profile.
func (c profileCopier) newCopy() *profile.Profile {

		typ = obj.Type() // type must have been assigned by Checker.objDecl
	}
	assert(typ != nil)

	// The object may have been dot-imported.
	// If so, mark the respective package as used.
	// (This code is only needed for dot-imports. Without them,
	// we only have to mark variables, see *Var case below).
	if pkgName := check.dotImportMap[dotImportKey{scope, obj.Name()}]; pkgName != nil {
		pkgName.used = true
	}