return tconv(t, 0, fmtGo)
}

// LinkString returns a string description of t, suitable for use in
// link symbols.
//
// The description corresponds to type identity. That is, for any pair
// of types t1 and t2, Identical(t1, t2) == (t1.LinkString() ==
// t2.LinkString()) is true. Thus it's safe to use as a map key to
// implement a type-identity-keyed map.
func (t *Type) LinkString() string {
	return tconv(t, 0, fmtTypeID)
}

		//		continue
		//	}
		//}

	}

	// For each type, we keep track of all the stack slots we
	// have allocated for that type. This map is keyed by
	// strings returned by types.LinkString. This guarantees
	// type equality, but also lets us match the same type represented
	// by two different types.Type structures. See issue 65783.
	locations := map[string][]LocalSlot{}

type orderState struct {
	out  []ir.Node             // list of generated statements
	temp []*ir.Name            // stack of temporary variables
	free map[string][]*ir.Name // free list of unused temporaries, by type.LinkString().
	edit func(ir.Node) ir.Node // cached closure of o.exprNoLHS
}

// order rewrites fn.Nbody to apply the ordering constraints
// described in the comment at the top of the file.
func order(fn *ir.Func) {

	}
}

type typeSet struct {
	m map[string]src.XPos
}

func (s *typeSet) add(pos src.XPos, typ *types.Type) {
	if s.m == nil {
		s.m = make(map[string]src.XPos)
	}

	ls := typ.LinkString()
	if prev, ok := s.m[ls]; ok {
		base.ErrorfAt(pos, errors.DuplicateCase, "duplicate case %v in type switch\n\tprevious case at %s", typ, base.FmtPos(prev))
		return
	}
	s.m[ls] = pos

}

func TypeSymLookup(name string) *Sym {
	typepkgmu.Lock()
	s := typepkg.Lookup(name)
	typepkgmu.Unlock()
	return s
}

func TypeSymName(t *Type) string {
	name := t.LinkString()
	// Use a separate symbol name for Noalg types for #17752.
	if TypeHasNoAlg(t) {
		name = "noalg." + name
	}
	return name
}

// Fake package for runtime type info (headers)

func (reporter *ErrorReporter) Errorf(s Sym, format string, args ...interface{}) {
	if s != 0 && reporter.ldr.SymName(s) != "" {
		// Note: Replace is needed here because symbol names might have % in them,
		// due to the use of LinkString for names of instantiating types.
		format = strings.Replace(reporter.ldr.SymName(s), "%", "%%", -1) + ": " + format
	} else {
		format = fmt.Sprintf("sym %d: %s", s, format)
	}
	format += "\n"

			b.ReportAllocs()
			for i := 0; i < b.N; i++ {
				sinkString = ip.String()
			}
		})
	}
}

func BenchmarkIPStringExpanded(b *testing.B) {
	for _, test := range parseBenchInputs {
		ip := MustParseAddr(test.ip)
		b.Run(test.name, func(b *testing.B) {
			b.ReportAllocs()
			for i := 0; i < b.N; i++ {
				sinkString = ip.StringExpanded()
			}
		})
	}
}

	}
	if !x {
		b.Fatal("nestedCall was not invoked")
	}
}

var sinkString string

func benchGoString(b *testing.B) {
	for i := 0; i < b.N; i++ {
		sinkString = C.GoString(C.cstr)
	}
	const want = "abcefghijklmnopqrstuvwxyzABCEFGHIJKLMNOPQRSTUVWXYZ1234567890"
	if sinkString != want {
		b.Fatalf("%q != %q", sinkString, want)
	}
}