}

func (t rtype) uncommon() *uncommonType {
	return t.Uncommon()
}

func (t rtype) String() string {
	s := t.nameOff(t.Str).Name()
	if t.TFlag&abi.TFlagExtraStar != 0 {
		return s[1:]
	}
	return s
}

func (t rtype) common() *abi.Type { return t.Type }

func (t rtype) exportedMethods() []abi.Method {
	ut := t.uncommon()
	if ut == nil {
		return nil
	}

}

func (t rtype) string() string {
	s := t.nameOff(t.Str).Name()
	if t.TFlag&abi.TFlagExtraStar != 0 {
		return s[1:]
	}
	return s
}

func (t rtype) uncommon() *uncommontype {
	return t.Uncommon()
}

func (t rtype) name() string {
	if t.TFlag&abi.TFlagNamed == 0 {
		return ""
	}
	s := t.string()
	i := len(s) - 1
	sqBrackets := 0

func (t *Type) ChanDir() ChanDir {
	if t.Kind() == Chan {
		ch := (*ChanType)(unsafe.Pointer(t))
		return ch.Dir
	}
	return InvalidDir
}

// Uncommon returns a pointer to T's "uncommon" data if there is any, otherwise nil
func (t *Type) Uncommon() *UncommonType {
	if t.TFlag&TFlagUncommon == 0 {
		return nil
	}
	switch t.Kind() {
	case Struct:
		return &(*structTypeUncommon)(unsafe.Pointer(t)).u

	}
	fint := ft.InSlice()[0]
	switch {
	case fint == etyp:
		// ok - same type
		goto okarg
	case fint.Kind_&abi.KindMask == abi.Pointer:
		if (fint.Uncommon() == nil || etyp.Uncommon() == nil) && (*ptrtype)(unsafe.Pointer(fint)).Elem == ot.Elem {
			// ok - not same type, but both pointers,
			// one or the other is unnamed, and same element type, so assignable.
			goto okarg
		}

						EtcdVersion:    getEtcdVersion(v1Z0rc1),
					},
				},
			},
			allowRCs:    true,
			errExpected: false,
		},
		{
			name: "it is possible (but very uncommon) that the latest version from the previous branch is an rc and the current latest version is alpha.0. In that case, show the RC",
			vg: &fakeVersionGetter{
				clusterVersion:   v1X5.String(),

		// pick an arbitrary but consistent ordering based on name and namespace, which is unique.
		// CreationTimestamp is stored in seconds, so this is not uncommon.
		if ingr[i].CreationTimestamp == ingr[j].CreationTimestamp {
			in := ingr[i].Name + "." + ingr[i].Namespace
			jn := ingr[j].Name + "." + ingr[j].Namespace
			return in < jn
		}

     *       <li>Otherwise, place the test directory on the module-path. However, this case
     *           (a module existing only in test output, not in main output) should be uncommon.</li>
     *     </ul>
     *   </li>
     *   <li>Otherwise (test output contains no module information), then:
     *     <ul>
     *       <li>If the main output is on the module-path, place the test output

		b.t[j] = b.t[j-1]
	}
	b.t[0] = t

	// dump the type
	dumpint(tagType)
	dumpint(uint64(uintptr(unsafe.Pointer(t))))
	dumpint(uint64(t.Size_))
	rt := toRType(t)
	if x := t.Uncommon(); x == nil || rt.nameOff(x.PkgPath).Name() == "" {
		dumpstr(rt.string())
	} else {
		pkgpath := rt.nameOff(x.PkgPath).Name()
		name := rt.name()
		dumpint(uint64(uintptr(len(pkgpath)) + 1 + uintptr(len(name))))

// (although it will only be called once with firstTime==true).
func itabInit(m *itab, firstTime bool) string {
	inter := m.Inter
	typ := m.Type
	x := typ.Uncommon()

	// both inter and typ have method sorted by name,
	// and interface names are unique,
	// so can iterate over both in lock step;
	// the loop is O(ni+nt) not O(ni*nt).
	ni := len(inter.Methods)

It was not based on a standard like OpenAPI and JSON Schema. So it wouldn't be straightforward to integrate it with other tools, like Swagger UI. But again, it was a very innovative idea.

It has an interesting, uncommon feature: using the same framework, it's possible to create APIs and also CLIs.