}
	Ints(data)
	if !IntsAreSorted(data) {
		t.Errorf("sort didn't sort - 1M ints")
	}
}

func TestReverseSortIntSlice(t *testing.T) {
	data := ints
	data1 := ints
	a := IntSlice(data[0:])
	Sort(a)
	r := IntSlice(data1[0:])
	Sort(Reverse(r))
	for i := 0; i < len(data); i++ {
		if a[i] != r[len(data)-1-i] {
			t.Errorf("reverse sort didn't sort")
		}
		if i > len(data)/2 {
			break
		}
	}

		},
		"bool": {
			selector: `attributes.bool["name"]`,
		},
		"int": {
			selector: `attributes.int["name"] > 0`,
		},
		"intslice": {
			selector: `attributes.intslice["name"].isSorted()`,
		},
		"string": {
			selector: `attributes.string["name"] == "fish"`,
		},
		"stringslice": {
			selector: `attributes.stringslice["name"].isSorted()`,
		},

  optional bool bool = 2;

  // IntValue is a 64-bit integer.
  optional int64 int = 7;

  // IntSliceValue is an array of 64-bit integers.
  optional NamedResourcesIntSlice intSlice = 8;

  // StringValue is a string.
  optional string string = 5;

  // StringSliceValue is an array of strings.
  optional NamedResourcesStringSlice stringSlice = 9;

	case abi.Func:
		ft := (*functype)(unsafe.Pointer(t))
		fv := (*functype)(unsafe.Pointer(v))
		if ft.OutCount != fv.OutCount || ft.InCount != fv.InCount {
			return false
		}
		tin, vin := ft.InSlice(), fv.InSlice()
		for i := 0; i < len(tin); i++ {
			if !typesEqual(tin[i], vin[i], seen) {
				return false
			}
		}
		tout, vout := ft.OutSlice(), fv.OutSlice()
		for i := 0; i < len(tout); i++ {

	}
	if value.Type().AssignableTo(argType) {
		return value, nil
	}
	if intLike(value.Kind()) && intLike(argType.Kind()) && value.Type().ConvertibleTo(argType) {
		value = value.Convert(argType)
		return value, nil
	}
	return reflect.Value{}, fmt.Errorf("value has type %s; should be %s", value.Type(), argType)
}

func intLike(typ reflect.Kind) bool {
	switch typ {

}

func (t *FuncType) In(i int) *Type {
	return t.InSlice()[i]
}

func (t *FuncType) NumIn() int {
	return int(t.InCount)
}

func (t *FuncType) NumOut() int {
	return int(t.OutCount & (1<<15 - 1))
}

func (t *FuncType) Out(i int) *Type {
	return (t.OutSlice()[i])
}

func (t *FuncType) InSlice() []*Type {
	uadd := unsafe.Sizeof(*t)
	if t.TFlag&TFlagUncommon != 0 {

func (t rtype) Elem() Type {
	return toType(elem(t.common()))
}

func (t rtype) In(i int) Type {
	tt := t.Type.FuncType()
	if tt == nil {
		panic("reflect: In of non-func type")
	}
	return toType(tt.InSlice()[i])
}

func (t rtype) Key() Type {
	tt := t.Type.MapType()
	if tt == nil {
		panic("reflect: Key of non-map type")
	}
	return toType(tt.Key)
}

func (t rtype) Len() int {

		if stkStep != nil {
			if isPtr {
				stackPtrs.append(1)
			} else {
				stackPtrs.append(0)
			}
		} else {
			spill += goarch.PtrSize
		}
	}
	for i, arg := range t.InSlice() {
		stkStep := in.addArg(arg)
		if stkStep != nil {
			addTypeBits(stackPtrs, stkStep.stkOff, arg)
		} else {
			spill = align(spill, uintptr(arg.Align()))
			spill += arg.Size()

			// copy pointer
			staticdata.InitAddr(l, loff, staticdata.GlobalLinksym(s.Temps[r]))
			return true
		}

	case ir.OSLICELIT:
		r := r.(*ir.CompLitExpr)
		// copy slice
		staticdata.InitSlice(l, loff, staticdata.GlobalLinksym(s.Temps[r]), r.Len)
		return true

	case ir.OARRAYLIT, ir.OSTRUCTLIT:
		r := r.(*ir.CompLitExpr)
		p := s.Plans[r]
		for i := range p.E {
			e := &p.E[i]

	}
	ft := (*functype)(unsafe.Pointer(fn._type))

	// Check arguments and construct ABI translation.
	var abiMap abiDesc
	for _, t := range ft.InSlice() {
		abiMap.assignArg(t)
	}
	// The Go ABI aligns the result to the word size. src is
	// already aligned.
	abiMap.dstStackSize = alignUp(abiMap.dstStackSize, goarch.PtrSize)
	abiMap.retOffset = abiMap.dstStackSize