func TestEndToEnd(t *testing.T) {
type T2 struct {
- t string
+ T string
}
s1 := "string1"
s2 := "string2"
type T1 struct {
- a, b, c int
- m map[string]*float
- n *[3]float
- strs *[2]string
- int64s *[]int64
- ri complex64
- s string
- y []byte
- t *T2
+ A, B, C int
+ M map[string]*float
+ N *[3]float
+ Strs *[2]string
+ Int64s *[]int64
+ RI complex64
+ S string
+ Y []byte
+ T *T2
}
pi := 3.14159
e := 2.71828
t1 := &T1{
- a: 17,
- b: 18,
- c: -5,
- m: map[string]*float{"pi": &pi, "e": &e},
- n: &[3]float{1.5, 2.5, 3.5},
- strs: &[2]string{s1, s2},
- int64s: &[]int64{77, 89, 123412342134},
- ri: 17 - 23i,
- s: "Now is the time",
- y: []byte("hello, sailor"),
- t: &T2{"this is T2"},
+ A: 17,
+ B: 18,
+ C: -5,
+ M: map[string]*float{"pi": &pi, "e": &e},
+ N: &[3]float{1.5, 2.5, 3.5},
+ Strs: &[2]string{s1, s2},
+ Int64s: &[]int64{77, 89, 123412342134},
+ RI: 17 - 23i,
+ S: "Now is the time",
+ Y: []byte("hello, sailor"),
+ T: &T2{"this is T2"},
}
b := new(bytes.Buffer)
err := NewEncoder(b).Encode(t1)
func TestOverflow(t *testing.T) {
type inputT struct {
- maxi int64
- mini int64
- maxu uint64
- maxf float64
- minf float64
- maxc complex128
- minc complex128
+ Maxi int64
+ Mini int64
+ Maxu uint64
+ Maxf float64
+ Minf float64
+ Maxc complex128
+ Minc complex128
}
var it inputT
var err os.Error
// int8
b.Reset()
it = inputT{
- maxi: math.MaxInt8 + 1,
+ Maxi: math.MaxInt8 + 1,
}
type outi8 struct {
- maxi int8
- mini int8
+ Maxi int8
+ Mini int8
}
var o1 outi8
enc.Encode(it)
err = dec.Decode(&o1)
- if err == nil || err.String() != `value for "maxi" out of range` {
+ if err == nil || err.String() != `value for "Maxi" out of range` {
t.Error("wrong overflow error for int8:", err)
}
it = inputT{
- mini: math.MinInt8 - 1,
+ Mini: math.MinInt8 - 1,
}
b.Reset()
enc.Encode(it)
err = dec.Decode(&o1)
- if err == nil || err.String() != `value for "mini" out of range` {
+ if err == nil || err.String() != `value for "Mini" out of range` {
t.Error("wrong underflow error for int8:", err)
}
// int16
b.Reset()
it = inputT{
- maxi: math.MaxInt16 + 1,
+ Maxi: math.MaxInt16 + 1,
}
type outi16 struct {
- maxi int16
- mini int16
+ Maxi int16
+ Mini int16
}
var o2 outi16
enc.Encode(it)
err = dec.Decode(&o2)
- if err == nil || err.String() != `value for "maxi" out of range` {
+ if err == nil || err.String() != `value for "Maxi" out of range` {
t.Error("wrong overflow error for int16:", err)
}
it = inputT{
- mini: math.MinInt16 - 1,
+ Mini: math.MinInt16 - 1,
}
b.Reset()
enc.Encode(it)
err = dec.Decode(&o2)
- if err == nil || err.String() != `value for "mini" out of range` {
+ if err == nil || err.String() != `value for "Mini" out of range` {
t.Error("wrong underflow error for int16:", err)
}
// int32
b.Reset()
it = inputT{
- maxi: math.MaxInt32 + 1,
+ Maxi: math.MaxInt32 + 1,
}
type outi32 struct {
- maxi int32
- mini int32
+ Maxi int32
+ Mini int32
}
var o3 outi32
enc.Encode(it)
err = dec.Decode(&o3)
- if err == nil || err.String() != `value for "maxi" out of range` {
+ if err == nil || err.String() != `value for "Maxi" out of range` {
t.Error("wrong overflow error for int32:", err)
}
it = inputT{
- mini: math.MinInt32 - 1,
+ Mini: math.MinInt32 - 1,
}
b.Reset()
enc.Encode(it)
err = dec.Decode(&o3)
- if err == nil || err.String() != `value for "mini" out of range` {
+ if err == nil || err.String() != `value for "Mini" out of range` {
t.Error("wrong underflow error for int32:", err)
}
// uint8
b.Reset()
it = inputT{
- maxu: math.MaxUint8 + 1,
+ Maxu: math.MaxUint8 + 1,
}
type outu8 struct {
- maxu uint8
+ Maxu uint8
}
var o4 outu8
enc.Encode(it)
err = dec.Decode(&o4)
- if err == nil || err.String() != `value for "maxu" out of range` {
+ if err == nil || err.String() != `value for "Maxu" out of range` {
t.Error("wrong overflow error for uint8:", err)
}
// uint16
b.Reset()
it = inputT{
- maxu: math.MaxUint16 + 1,
+ Maxu: math.MaxUint16 + 1,
}
type outu16 struct {
- maxu uint16
+ Maxu uint16
}
var o5 outu16
enc.Encode(it)
err = dec.Decode(&o5)
- if err == nil || err.String() != `value for "maxu" out of range` {
+ if err == nil || err.String() != `value for "Maxu" out of range` {
t.Error("wrong overflow error for uint16:", err)
}
// uint32
b.Reset()
it = inputT{
- maxu: math.MaxUint32 + 1,
+ Maxu: math.MaxUint32 + 1,
}
type outu32 struct {
- maxu uint32
+ Maxu uint32
}
var o6 outu32
enc.Encode(it)
err = dec.Decode(&o6)
- if err == nil || err.String() != `value for "maxu" out of range` {
+ if err == nil || err.String() != `value for "Maxu" out of range` {
t.Error("wrong overflow error for uint32:", err)
}
// float32
b.Reset()
it = inputT{
- maxf: math.MaxFloat32 * 2,
+ Maxf: math.MaxFloat32 * 2,
}
type outf32 struct {
- maxf float32
- minf float32
+ Maxf float32
+ Minf float32
}
var o7 outf32
enc.Encode(it)
err = dec.Decode(&o7)
- if err == nil || err.String() != `value for "maxf" out of range` {
+ if err == nil || err.String() != `value for "Maxf" out of range` {
t.Error("wrong overflow error for float32:", err)
}
// complex64
b.Reset()
it = inputT{
- maxc: cmplx(math.MaxFloat32*2, math.MaxFloat32*2),
+ Maxc: cmplx(math.MaxFloat32*2, math.MaxFloat32*2),
}
type outc64 struct {
- maxc complex64
- minc complex64
+ Maxc complex64
+ Minc complex64
}
var o8 outc64
enc.Encode(it)
err = dec.Decode(&o8)
- if err == nil || err.String() != `value for "maxc" out of range` {
+ if err == nil || err.String() != `value for "Maxc" out of range` {
t.Error("wrong overflow error for complex64:", err)
}
}
func TestNesting(t *testing.T) {
type RT struct {
- a string
- next *RT
+ A string
+ Next *RT
}
rt := new(RT)
- rt.a = "level1"
- rt.next = new(RT)
- rt.next.a = "level2"
+ rt.A = "level1"
+ rt.Next = new(RT)
+ rt.Next.A = "level2"
b := new(bytes.Buffer)
NewEncoder(b).Encode(rt)
var drt RT
dec := NewDecoder(b)
err := dec.Decode(&drt)
if err != nil {
- t.Error("decoder error:", err)
+ t.Fatal("decoder error:", err)
}
- if drt.a != rt.a {
+ if drt.A != rt.A {
t.Errorf("nesting: encode expected %v got %v", *rt, drt)
}
- if drt.next == nil {
+ if drt.Next == nil {
t.Errorf("nesting: recursion failed")
}
- if drt.next.a != rt.next.a {
- t.Errorf("nesting: encode expected %v got %v", *rt.next, *drt.next)
+ if drt.Next.A != rt.Next.A {
+ t.Errorf("nesting: encode expected %v got %v", *rt.Next, *drt.Next)
}
}
// These three structures have the same data with different indirections
type T0 struct {
- a int
- b int
- c int
- d int
+ A int
+ B int
+ C int
+ D int
}
type T1 struct {
- a int
- b *int
- c **int
- d ***int
+ A int
+ B *int
+ C **int
+ D ***int
}
type T2 struct {
- a ***int
- b **int
- c *int
- d int
+ A ***int
+ B **int
+ C *int
+ D int
}
func TestAutoIndirection(t *testing.T) {
// First transfer t1 into t0
var t1 T1
- t1.a = 17
- t1.b = new(int)
- *t1.b = 177
- t1.c = new(*int)
- *t1.c = new(int)
- **t1.c = 1777
- t1.d = new(**int)
- *t1.d = new(*int)
- **t1.d = new(int)
- ***t1.d = 17777
+ t1.A = 17
+ t1.B = new(int)
+ *t1.B = 177
+ t1.C = new(*int)
+ *t1.C = new(int)
+ **t1.C = 1777
+ t1.D = new(**int)
+ *t1.D = new(*int)
+ **t1.D = new(int)
+ ***t1.D = 17777
b := new(bytes.Buffer)
enc := NewEncoder(b)
enc.Encode(t1)
dec := NewDecoder(b)
var t0 T0
dec.Decode(&t0)
- if t0.a != 17 || t0.b != 177 || t0.c != 1777 || t0.d != 17777 {
+ if t0.A != 17 || t0.B != 177 || t0.C != 1777 || t0.D != 17777 {
t.Errorf("t1->t0: expected {17 177 1777 17777}; got %v", t0)
}
// Now transfer t2 into t0
var t2 T2
- t2.d = 17777
- t2.c = new(int)
- *t2.c = 1777
- t2.b = new(*int)
- *t2.b = new(int)
- **t2.b = 177
- t2.a = new(**int)
- *t2.a = new(*int)
- **t2.a = new(int)
- ***t2.a = 17
+ t2.D = 17777
+ t2.C = new(int)
+ *t2.C = 1777
+ t2.B = new(*int)
+ *t2.B = new(int)
+ **t2.B = 177
+ t2.A = new(**int)
+ *t2.A = new(*int)
+ **t2.A = new(int)
+ ***t2.A = 17
b.Reset()
enc.Encode(t2)
t0 = T0{}
dec.Decode(&t0)
- if t0.a != 17 || t0.b != 177 || t0.c != 1777 || t0.d != 17777 {
+ if t0.A != 17 || t0.B != 177 || t0.C != 1777 || t0.D != 17777 {
t.Errorf("t2->t0 expected {17 177 1777 17777}; got %v", t0)
}
enc.Encode(t0)
t1 = T1{}
dec.Decode(&t1)
- if t1.a != 17 || *t1.b != 177 || **t1.c != 1777 || ***t1.d != 17777 {
- t.Errorf("t0->t1 expected {17 177 1777 17777}; got {%d %d %d %d}", t1.a, *t1.b, **t1.c, ***t1.d)
+ if t1.A != 17 || *t1.B != 177 || **t1.C != 1777 || ***t1.D != 17777 {
+ t.Errorf("t0->t1 expected {17 177 1777 17777}; got {%d %d %d %d}", t1.A, *t1.B, **t1.C, ***t1.D)
}
// Now transfer t0 into t2
enc.Encode(t0)
t2 = T2{}
dec.Decode(&t2)
- if ***t2.a != 17 || **t2.b != 177 || *t2.c != 1777 || t2.d != 17777 {
- t.Errorf("t0->t2 expected {17 177 1777 17777}; got {%d %d %d %d}", ***t2.a, **t2.b, *t2.c, t2.d)
+ if ***t2.A != 17 || **t2.B != 177 || *t2.C != 1777 || t2.D != 17777 {
+ t.Errorf("t0->t2 expected {17 177 1777 17777}; got {%d %d %d %d}", ***t2.A, **t2.B, *t2.C, t2.D)
}
// Now do t2 again but without pre-allocated pointers.
b.Reset()
enc.Encode(t0)
- ***t2.a = 0
- **t2.b = 0
- *t2.c = 0
- t2.d = 0
+ ***t2.A = 0
+ **t2.B = 0
+ *t2.C = 0
+ t2.D = 0
dec.Decode(&t2)
- if ***t2.a != 17 || **t2.b != 177 || *t2.c != 1777 || t2.d != 17777 {
- t.Errorf("t0->t2 expected {17 177 1777 17777}; got {%d %d %d %d}", ***t2.a, **t2.b, *t2.c, t2.d)
+ if ***t2.A != 17 || **t2.B != 177 || *t2.C != 1777 || t2.D != 17777 {
+ t.Errorf("t0->t2 expected {17 177 1777 17777}; got {%d %d %d %d}", ***t2.A, **t2.B, *t2.C, t2.D)
}
}
type RT0 struct {
- a int
- b string
- c float
+ A int
+ B string
+ C float
}
type RT1 struct {
- c float
- b string
- a int
- notSet string
+ C float
+ B string
+ A int
+ NotSet string
}
func TestReorderedFields(t *testing.T) {
var rt0 RT0
- rt0.a = 17
- rt0.b = "hello"
- rt0.c = 3.14159
+ rt0.A = 17
+ rt0.B = "hello"
+ rt0.C = 3.14159
b := new(bytes.Buffer)
NewEncoder(b).Encode(rt0)
dec := NewDecoder(b)
// Wire type is RT0, local type is RT1.
err := dec.Decode(&rt1)
if err != nil {
- t.Error("decode error:", err)
+ t.Fatal("decode error:", err)
}
- if rt0.a != rt1.a || rt0.b != rt1.b || rt0.c != rt1.c {
+ if rt0.A != rt1.A || rt0.B != rt1.B || rt0.C != rt1.C {
t.Errorf("rt1->rt0: expected %v; got %v", rt0, rt1)
}
}
// Like an RT0 but with fields we'll ignore on the decode side.
type IT0 struct {
- a int64
- b string
- ignore_d []int
- ignore_e [3]float
- ignore_f bool
- ignore_g string
- ignore_h []byte
- ignore_i *RT1
- ignore_m map[string]int
- c float
+ A int64
+ B string
+ Ignore_d []int
+ Ignore_e [3]float
+ Ignore_f bool
+ Ignore_g string
+ Ignore_h []byte
+ Ignore_i *RT1
+ Ignore_m map[string]int
+ C float
}
func TestIgnoredFields(t *testing.T) {
var it0 IT0
- it0.a = 17
- it0.b = "hello"
- it0.c = 3.14159
- it0.ignore_d = []int{1, 2, 3}
- it0.ignore_e[0] = 1.0
- it0.ignore_e[1] = 2.0
- it0.ignore_e[2] = 3.0
- it0.ignore_f = true
- it0.ignore_g = "pay no attention"
- it0.ignore_h = []byte("to the curtain")
- it0.ignore_i = &RT1{3.1, "hi", 7, "hello"}
- it0.ignore_m = map[string]int{"one": 1, "two": 2}
+ it0.A = 17
+ it0.B = "hello"
+ it0.C = 3.14159
+ it0.Ignore_d = []int{1, 2, 3}
+ it0.Ignore_e[0] = 1.0
+ it0.Ignore_e[1] = 2.0
+ it0.Ignore_e[2] = 3.0
+ it0.Ignore_f = true
+ it0.Ignore_g = "pay no attention"
+ it0.Ignore_h = []byte("to the curtain")
+ it0.Ignore_i = &RT1{3.1, "hi", 7, "hello"}
+ it0.Ignore_m = map[string]int{"one": 1, "two": 2}
b := new(bytes.Buffer)
NewEncoder(b).Encode(it0)
if err != nil {
t.Error("error: ", err)
}
- if int(it0.a) != rt1.a || it0.b != rt1.b || it0.c != rt1.c {
- t.Errorf("rt1->rt0: expected %v; got %v", it0, rt1)
+ if int(it0.A) != rt1.A || it0.B != rt1.B || it0.C != rt1.C {
+ t.Errorf("rt0->rt1: expected %v; got %v", it0, rt1)
}
}
}
type Indirect struct {
- a ***[3]int
- s ***[]int
- m ****map[string]int
+ A ***[3]int
+ S ***[]int
+ M ****map[string]int
}
type Direct struct {
- a [3]int
- s []int
- m map[string]int
+ A [3]int
+ S []int
+ M map[string]int
}
func TestIndirectSliceMapArray(t *testing.T) {
// Marshal indirect, unmarshal to direct.
i := new(Indirect)
- i.a = new(**[3]int)
- *i.a = new(*[3]int)
- **i.a = new([3]int)
- ***i.a = [3]int{1, 2, 3}
- i.s = new(**[]int)
- *i.s = new(*[]int)
- **i.s = new([]int)
- ***i.s = []int{4, 5, 6}
- i.m = new(***map[string]int)
- *i.m = new(**map[string]int)
- **i.m = new(*map[string]int)
- ***i.m = new(map[string]int)
- ****i.m = map[string]int{"one": 1, "two": 2, "three": 3}
+ i.A = new(**[3]int)
+ *i.A = new(*[3]int)
+ **i.A = new([3]int)
+ ***i.A = [3]int{1, 2, 3}
+ i.S = new(**[]int)
+ *i.S = new(*[]int)
+ **i.S = new([]int)
+ ***i.S = []int{4, 5, 6}
+ i.M = new(***map[string]int)
+ *i.M = new(**map[string]int)
+ **i.M = new(*map[string]int)
+ ***i.M = new(map[string]int)
+ ****i.M = map[string]int{"one": 1, "two": 2, "three": 3}
b := new(bytes.Buffer)
NewEncoder(b).Encode(i)
dec := NewDecoder(b)
if err != nil {
t.Error("error: ", err)
}
- if len(d.a) != 3 || d.a[0] != 1 || d.a[1] != 2 || d.a[2] != 3 {
- t.Errorf("indirect to direct: d.a is %v not %v", d.a, ***i.a)
+ if len(d.A) != 3 || d.A[0] != 1 || d.A[1] != 2 || d.A[2] != 3 {
+ t.Errorf("indirect to direct: d.A is %v not %v", d.A, ***i.A)
}
- if len(d.s) != 3 || d.s[0] != 4 || d.s[1] != 5 || d.s[2] != 6 {
- t.Errorf("indirect to direct: d.s is %v not %v", d.s, ***i.s)
+ if len(d.S) != 3 || d.S[0] != 4 || d.S[1] != 5 || d.S[2] != 6 {
+ t.Errorf("indirect to direct: d.S is %v not %v", d.S, ***i.S)
}
- if len(d.m) != 3 || d.m["one"] != 1 || d.m["two"] != 2 || d.m["three"] != 3 {
- t.Errorf("indirect to direct: d.m is %v not %v", d.m, ***i.m)
+ if len(d.M) != 3 || d.M["one"] != 1 || d.M["two"] != 2 || d.M["three"] != 3 {
+ t.Errorf("indirect to direct: d.M is %v not %v", d.M, ***i.M)
}
// Marshal direct, unmarshal to indirect.
- d.a = [3]int{11, 22, 33}
- d.s = []int{44, 55, 66}
- d.m = map[string]int{"four": 4, "five": 5, "six": 6}
+ d.A = [3]int{11, 22, 33}
+ d.S = []int{44, 55, 66}
+ d.M = map[string]int{"four": 4, "five": 5, "six": 6}
i = new(Indirect)
b.Reset()
NewEncoder(b).Encode(d)
dec = NewDecoder(b)
err = dec.Decode(&i)
if err != nil {
- t.Error("error: ", err)
+ t.Fatal("error: ", err)
}
- if len(***i.a) != 3 || (***i.a)[0] != 11 || (***i.a)[1] != 22 || (***i.a)[2] != 33 {
- t.Errorf("direct to indirect: ***i.a is %v not %v", ***i.a, d.a)
+ if len(***i.A) != 3 || (***i.A)[0] != 11 || (***i.A)[1] != 22 || (***i.A)[2] != 33 {
+ t.Errorf("direct to indirect: ***i.A is %v not %v", ***i.A, d.A)
}
- if len(***i.s) != 3 || (***i.s)[0] != 44 || (***i.s)[1] != 55 || (***i.s)[2] != 66 {
- t.Errorf("direct to indirect: ***i.s is %v not %v", ***i.s, ***i.s)
+ if len(***i.S) != 3 || (***i.S)[0] != 44 || (***i.S)[1] != 55 || (***i.S)[2] != 66 {
+ t.Errorf("direct to indirect: ***i.S is %v not %v", ***i.S, ***i.S)
}
- if len(****i.m) != 3 || (****i.m)["four"] != 4 || (****i.m)["five"] != 5 || (****i.m)["six"] != 6 {
- t.Errorf("direct to indirect: ****i.m is %v not %v", ****i.m, d.m)
+ if len(****i.M) != 3 || (****i.M)["four"] != 4 || (****i.M)["five"] != 5 || (****i.M)["six"] != 6 {
+ t.Errorf("direct to indirect: ****i.M is %v not %v", ****i.M, d.M)
}
}
// A struct with interfaces in it.
type InterfaceItem struct {
- i int
- sq1, sq2, sq3 Squarer
- f float
- sq []Squarer
+ I int
+ Sq1, Sq2, Sq3 Squarer
+ F float
+ Sq []Squarer
}
// The same struct without interfaces
type NoInterfaceItem struct {
- i int
- f float
+ I int
+ F float
}
func TestInterface(t *testing.T) {
if err != nil {
t.Fatal("decode:", err)
}
- if item2.i != item1.i {
+ if item2.I != item1.I {
t.Error("normal int did not decode correctly")
}
- if item2.sq1 == nil || item2.sq1.Square() != iVal.Square() {
+ if item2.Sq1 == nil || item2.Sq1.Square() != iVal.Square() {
t.Error("Int did not decode correctly")
}
- if item2.sq2 == nil || item2.sq2.Square() != fVal.Square() {
+ if item2.Sq2 == nil || item2.Sq2.Square() != fVal.Square() {
t.Error("Float did not decode correctly")
}
- if item2.sq3 == nil || item2.sq3.Square() != vVal.Square() {
+ if item2.Sq3 == nil || item2.Sq3.Square() != vVal.Square() {
t.Error("Vector did not decode correctly")
}
- if item2.f != item1.f {
+ if item2.F != item1.F {
t.Error("normal float did not decode correctly")
}
// Now check that we received a slice of Squarers correctly, including a nil element
- if len(item1.sq) != len(item2.sq) {
- t.Fatalf("[]Squarer length wrong: got %d; expected %d", len(item2.sq), len(item1.sq))
+ if len(item1.Sq) != len(item2.Sq) {
+ t.Fatalf("[]Squarer length wrong: got %d; expected %d", len(item2.Sq), len(item1.Sq))
}
- for i, v1 := range item1.sq {
- v2 := item2.sq[i]
+ for i, v1 := range item1.Sq {
+ v2 := item2.Sq[i]
if v1 == nil || v2 == nil {
if v1 != nil || v2 != nil {
t.Errorf("item %d inconsistent nils", i)
type String string
type PtrInterfaceItem struct {
- str interface{} // basic
- Str interface{} // derived
+ Str1 interface{} // basic
+ Str2 interface{} // derived
}
// We'll send pointers; should receive values.
t.Fatal("decode:", err)
}
// Hand test for correct types and values.
- if v, ok := item2.str.(string); !ok || v != str1 {
+ if v, ok := item2.Str1.(string); !ok || v != str1 {
t.Errorf("basic string failed: %q should be %q", v, str1)
}
- if v, ok := item2.Str.(String); !ok || v != str2 {
+ if v, ok := item2.Str2.(String); !ok || v != str2 {
t.Errorf("derived type String failed: %q should be %q", v, str2)
}
}
if err != nil {
t.Fatal("decode:", err)
}
- if item2.i != item1.i {
+ if item2.I != item1.I {
t.Error("normal int did not decode correctly")
}
- if item2.f != item2.f {
+ if item2.F != item2.F {
t.Error("normal float did not decode correctly")
}
}
+type U struct {
+ A int
+ B string
+ c float
+ D uint
+}
+
+func TestUnexportedFields(t *testing.T) {
+ var u0 U
+ u0.A = 17
+ u0.B = "hello"
+ u0.c = 3.14159
+ u0.D = 23
+ b := new(bytes.Buffer)
+ NewEncoder(b).Encode(u0)
+ dec := NewDecoder(b)
+ var u1 U
+ u1.c = 1234.
+ err := dec.Decode(&u1)
+ if err != nil {
+ t.Fatal("decode error:", err)
+ }
+ if u0.A != u0.A || u0.B != u1.B || u0.D != u1.D {
+ t.Errorf("u1->u0: expected %v; got %v", u0, u1)
+ }
+ if u1.c != 1234. {
+ t.Error("u1.c modified")
+ }
+}
+
// A type that won't be defined in the gob until we send it in an interface value.
type OnTheFly struct {
- a int
+ A int
}
type DT struct {
// X OnTheFly
- a int
- b string
- c float
- i interface{}
- j interface{}
- i_nil interface{}
- m map[string]int
- r [3]int
- s []string
+ A int
+ B string
+ C float
+ I interface{}
+ J interface{}
+ I_nil interface{}
+ M map[string]int
+ T [3]int
+ S []string
}
func TestDebug(t *testing.T) {
}
Register(OnTheFly{})
var dt DT
- dt.a = 17
- dt.b = "hello"
- dt.c = 3.14159
- dt.i = 271828
- dt.j = OnTheFly{3}
- dt.i_nil = nil
- dt.m = map[string]int{"one": 1, "two": 2}
- dt.r = [3]int{11, 22, 33}
- dt.s = []string{"hi", "joe"}
+ dt.A = 17
+ dt.B = "hello"
+ dt.C = 3.14159
+ dt.I = 271828
+ dt.J = OnTheFly{3}
+ dt.I_nil = nil
+ dt.M = map[string]int{"one": 1, "two": 2}
+ dt.T = [3]int{11, 22, 33}
+ dt.S = []string{"hi", "joe"}
b := new(bytes.Buffer)
err := NewEncoder(b).Encode(dt)
if err != nil {
func printWireType(wire *wireType) {
fmt.Printf("type definition {\n")
switch {
- case wire.arrayT != nil:
- printCommonType("array", &wire.arrayT.commonType)
- fmt.Printf("\tlen %d\n\telemid %d\n", wire.arrayT.Len, wire.arrayT.Elem)
- case wire.mapT != nil:
- printCommonType("map", &wire.mapT.commonType)
- fmt.Printf("\tkeyid %d\n", wire.mapT.Key)
- fmt.Printf("\telemid %d\n", wire.mapT.Elem)
- case wire.sliceT != nil:
- printCommonType("slice", &wire.sliceT.commonType)
- fmt.Printf("\telemid %d\n", wire.sliceT.Elem)
- case wire.structT != nil:
- printCommonType("struct", &wire.structT.commonType)
- for i, field := range wire.structT.field {
- fmt.Printf("\tfield %d:\t%s\tid=%d\n", i, field.name, field.id)
+ case wire.ArrayT != nil:
+ printCommonType("array", &wire.ArrayT.CommonType)
+ fmt.Printf("\tlen %d\n\telemid %d\n", wire.ArrayT.Len, wire.ArrayT.Elem)
+ case wire.MapT != nil:
+ printCommonType("map", &wire.MapT.CommonType)
+ fmt.Printf("\tkeyid %d\n", wire.MapT.Key)
+ fmt.Printf("\telemid %d\n", wire.MapT.Elem)
+ case wire.SliceT != nil:
+ printCommonType("slice", &wire.SliceT.CommonType)
+ fmt.Printf("\telemid %d\n", wire.SliceT.Elem)
+ case wire.StructT != nil:
+ printCommonType("struct", &wire.StructT.CommonType)
+ for i, field := range wire.StructT.Field {
+ fmt.Printf("\tfield %d:\t%s\tid=%d\n", i, field.Name, field.Id)
}
}
fmt.Printf("}\n")
}
-func printCommonType(kind string, common *commonType) {
- fmt.Printf("\t%s %q\n\tid: %d\n", kind, common.name, common._id)
+func printCommonType(kind string, common *CommonType) {
+ fmt.Printf("\t%s %q\n\tid: %d\n", kind, common.Name, common.Id)
}
func (dec *Decoder) debugPrint(indent int, id typeId) {
wire, ok := dec.wireType[id]
- if ok && wire.structT != nil {
+ if ok && wire.StructT != nil {
dec.debugStruct(indent+1, id, wire)
} else {
dec.debugSingle(indent+1, id, wire)
errorf("type id %d not defined\n", id)
}
switch {
- case wire.arrayT != nil:
+ case wire.ArrayT != nil:
dec.printArray(indent, wire)
- case wire.mapT != nil:
+ case wire.MapT != nil:
dec.printMap(indent, wire)
- case wire.sliceT != nil:
+ case wire.SliceT != nil:
dec.printSlice(indent, wire)
- case wire.structT != nil:
+ case wire.StructT != nil:
dec.debugStruct(indent, id, wire)
}
}
func (dec *Decoder) printArray(indent int, wire *wireType) {
- elemId := wire.arrayT.Elem
+ elemId := wire.ArrayT.Elem
n := int(decodeUint(dec.state))
for i := 0; i < n && dec.err == nil; i++ {
dec.printItem(indent, elemId)
}
- if n != wire.arrayT.Len {
+ if n != wire.ArrayT.Len {
tab(indent)
- fmt.Printf("(wrong length for array: %d should be %d)\n", n, wire.arrayT.Len)
+ fmt.Printf("(wrong length for array: %d should be %d)\n", n, wire.ArrayT.Len)
}
}
func (dec *Decoder) printMap(indent int, wire *wireType) {
- keyId := wire.mapT.Key
- elemId := wire.mapT.Elem
+ keyId := wire.MapT.Key
+ elemId := wire.MapT.Elem
n := int(decodeUint(dec.state))
for i := 0; i < n && dec.err == nil; i++ {
dec.printItem(indent, keyId)
}
func (dec *Decoder) printSlice(indent int, wire *wireType) {
- elemId := wire.sliceT.Elem
+ elemId := wire.SliceT.Elem
n := int(decodeUint(dec.state))
for i := 0; i < n && dec.err == nil; i++ {
dec.printItem(indent, elemId)
func (dec *Decoder) debugStruct(indent int, id typeId, wire *wireType) {
tab(indent)
- fmt.Printf("%s struct {\n", id.Name())
- strct := wire.structT
+ fmt.Printf("%s struct {\n", id.name())
+ strct := wire.StructT
state := newDecodeState(dec, dec.state.b)
state.fieldnum = -1
for dec.err == nil {
break
}
fieldNum := state.fieldnum + delta
- if fieldNum < 0 || fieldNum >= len(strct.field) {
+ if fieldNum < 0 || fieldNum >= len(strct.Field) {
errorf("field number out of range")
break
}
tab(indent)
- fmt.Printf("%s(%d):\n", wire.structT.field[fieldNum].name, fieldNum)
- dec.printItem(indent+1, strct.field[fieldNum].id)
+ fmt.Printf("%s(%d):\n", wire.StructT.Field[fieldNum].Name, fieldNum)
+ dec.printItem(indent+1, strct.Field[fieldNum].Id)
state.fieldnum = fieldNum
}
tab(indent)
- fmt.Printf(" } // end %s struct\n", id.Name())
+ fmt.Printf(" } // end %s struct\n", id.name())
}
func tab(indent int) {
"math"
"os"
"reflect"
+ "unicode"
"unsafe"
+ "utf8"
)
var (
switch t := typ.(type) {
case *reflect.ArrayType:
name = "element of " + name
- elemId := dec.wireType[wireId].arrayT.Elem
+ elemId := dec.wireType[wireId].ArrayT.Elem
elemOp, elemIndir := dec.decOpFor(elemId, t.Elem(), name)
ovfl := overflow(name)
op = func(i *decInstr, state *decodeState, p unsafe.Pointer) {
case *reflect.MapType:
name = "element of " + name
- keyId := dec.wireType[wireId].mapT.Key
- elemId := dec.wireType[wireId].mapT.Elem
+ keyId := dec.wireType[wireId].MapT.Key
+ elemId := dec.wireType[wireId].MapT.Elem
keyOp, keyIndir := dec.decOpFor(keyId, t.Key(), name)
elemOp, elemIndir := dec.decOpFor(elemId, t.Elem(), name)
ovfl := overflow(name)
if tt, ok := builtinIdToType[wireId]; ok {
elemId = tt.(*sliceType).Elem
} else {
- elemId = dec.wireType[wireId].sliceT.Elem
+ elemId = dec.wireType[wireId].SliceT.Elem
}
elemOp, elemIndir := dec.decOpFor(elemId, t.Elem(), name)
ovfl := overflow(name)
switch {
case wire == nil:
panic("internal error: can't find ignore op for type " + wireId.string())
- case wire.arrayT != nil:
- elemId := wire.arrayT.Elem
+ case wire.ArrayT != nil:
+ elemId := wire.ArrayT.Elem
elemOp := dec.decIgnoreOpFor(elemId)
op = func(i *decInstr, state *decodeState, p unsafe.Pointer) {
- state.dec.ignoreArray(state, elemOp, wire.arrayT.Len)
+ state.dec.ignoreArray(state, elemOp, wire.ArrayT.Len)
}
- case wire.mapT != nil:
- keyId := dec.wireType[wireId].mapT.Key
- elemId := dec.wireType[wireId].mapT.Elem
+ case wire.MapT != nil:
+ keyId := dec.wireType[wireId].MapT.Key
+ elemId := dec.wireType[wireId].MapT.Elem
keyOp := dec.decIgnoreOpFor(keyId)
elemOp := dec.decIgnoreOpFor(elemId)
op = func(i *decInstr, state *decodeState, p unsafe.Pointer) {
state.dec.ignoreMap(state, keyOp, elemOp)
}
- case wire.sliceT != nil:
- elemId := wire.sliceT.Elem
+ case wire.SliceT != nil:
+ elemId := wire.SliceT.Elem
elemOp := dec.decIgnoreOpFor(elemId)
op = func(i *decInstr, state *decodeState, p unsafe.Pointer) {
state.dec.ignoreSlice(state, elemOp)
}
- case wire.structT != nil:
+ case wire.StructT != nil:
// Generate a closure that calls out to the engine for the nested type.
enginePtr, err := dec.getIgnoreEnginePtr(wireId)
if err != nil {
return fw == tInterface
case *reflect.ArrayType:
wire, ok := dec.wireType[fw]
- if !ok || wire.arrayT == nil {
+ if !ok || wire.ArrayT == nil {
return false
}
- array := wire.arrayT
+ array := wire.ArrayT
return t.Len() == array.Len && dec.compatibleType(t.Elem(), array.Elem)
case *reflect.MapType:
wire, ok := dec.wireType[fw]
- if !ok || wire.mapT == nil {
+ if !ok || wire.MapT == nil {
return false
}
- mapType := wire.mapT
- return dec.compatibleType(t.Key(), mapType.Key) && dec.compatibleType(t.Elem(), mapType.Elem)
+ MapType := wire.MapT
+ return dec.compatibleType(t.Key(), MapType.Key) && dec.compatibleType(t.Elem(), MapType.Elem)
case *reflect.SliceType:
// Is it an array of bytes?
if t.Elem().Kind() == reflect.Uint8 {
if tt, ok := builtinIdToType[fw]; ok {
sw = tt.(*sliceType)
} else {
- sw = dec.wireType[fw].sliceT
+ sw = dec.wireType[fw].SliceT
}
elem, _ := indirect(t.Elem())
return sw != nil && dec.compatibleType(elem, sw.Elem)
return
}
+// Is this an exported - upper case - name?
+func isExported(name string) bool {
+ rune, _ := utf8.DecodeRuneInString(name)
+ return unicode.IsUpper(rune)
+}
+
func (dec *Decoder) compileDec(remoteId typeId, rt reflect.Type) (engine *decEngine, err os.Error) {
defer catchError(&err)
srt, ok := rt.(*reflect.StructType)
if t, ok := builtinIdToType[remoteId]; ok {
wireStruct, _ = t.(*structType)
} else {
- wireStruct = dec.wireType[remoteId].structT
+ wireStruct = dec.wireType[remoteId].StructT
}
if wireStruct == nil {
errorf("gob: type mismatch in decoder: want struct type %s; got non-struct", rt.String())
}
engine = new(decEngine)
- engine.instr = make([]decInstr, len(wireStruct.field))
+ engine.instr = make([]decInstr, len(wireStruct.Field))
// Loop over the fields of the wire type.
- for fieldnum := 0; fieldnum < len(wireStruct.field); fieldnum++ {
- wireField := wireStruct.field[fieldnum]
+ for fieldnum := 0; fieldnum < len(wireStruct.Field); fieldnum++ {
+ wireField := wireStruct.Field[fieldnum]
+ if wireField.Name == "" {
+ errorf("gob: empty name for remote field of type %s", wireStruct.Name)
+ }
+ ovfl := overflow(wireField.Name)
// Find the field of the local type with the same name.
- localField, present := srt.FieldByName(wireField.name)
- ovfl := overflow(wireField.name)
+ localField, present := srt.FieldByName(wireField.Name)
// TODO(r): anonymous names
- if !present {
- op := dec.decIgnoreOpFor(wireField.id)
+ if !present || !isExported(wireField.Name) {
+ op := dec.decIgnoreOpFor(wireField.Id)
engine.instr[fieldnum] = decInstr{op, fieldnum, 0, 0, ovfl}
continue
}
- if !dec.compatibleType(localField.Type, wireField.id) {
- errorf("gob: wrong type (%s) for received field %s.%s", localField.Type, wireStruct.name, wireField.name)
+ if !dec.compatibleType(localField.Type, wireField.Id) {
+ errorf("gob: wrong type (%s) for received field %s.%s", localField.Type, wireStruct.Name, wireField.Name)
}
- op, indir := dec.decOpFor(wireField.id, localField.Type, localField.Name)
+ op, indir := dec.decOpFor(wireField.Id, localField.Type, localField.Name)
engine.instr[fieldnum] = decInstr{op, fieldnum, indir, uintptr(localField.Offset), ovfl}
engine.numInstr++
}
}
engine := *enginePtr
if st, ok := rt.(*reflect.StructType); ok {
- if engine.numInstr == 0 && st.NumField() > 0 && len(dec.wireType[wireId].structT.field) > 0 {
+ if engine.numInstr == 0 && st.NumField() > 0 && len(dec.wireType[wireId].StructT.Field) > 0 {
name := rt.Name()
return os.ErrorString("gob: type mismatch: no fields matched compiling decoder for " + name)
}
description, constructed from these types:
type wireType struct {
- s structType
+ ArrayT *ArrayType
+ SliceT *SliceType
+ StructT *StructType
+ MapT *MapType
}
- type arrayType struct {
- commonType
+ type ArrayType struct {
+ CommonType
Elem typeId
Len int
}
- type commonType {
- name string // the name of the struct type
- _id int // the id of the type, repeated for so it's inside the type
+ type CommonType {
+ Name string // the name of the struct type
+ Id int // the id of the type, repeated so it's inside the type
}
- type sliceType struct {
- commonType
+ type SliceType struct {
+ CommonType
Elem typeId
}
- type structType struct {
- commonType
- field []*fieldType // the fields of the struct.
+ type StructType struct {
+ CommonType
+ Field []*fieldType // the fields of the struct.
}
- type fieldType struct {
- name string // the name of the field.
- id int // the type id of the field, which must be already defined
+ type FieldType struct {
+ Name string // the name of the field.
+ Id int // the type id of the field, which must be already defined
}
- type mapType struct {
- commonType
+ type MapType struct {
+ CommonType
Key typeId
Elem typeId
}
complex 7
interface 8
// gap for reserved ids.
- wireType 16
- arrayType 17
- commonType 18
- sliceType 19
- structType 20
- fieldType 21
+ WireType 16
+ ArrayType 17
+ CommonType 18
+ SliceType 19
+ StructType 20
+ FieldType 21
// 22 is slice of fieldType.
- mapType 23
+ MapType 23
Finally, each message created by a call to Encode is preceded by an encoded
unsigned integer count of the number of bytes remaining in the message. After
}
}
+func encNoOp(i *encInstr, state *encoderState, p unsafe.Pointer) {
+}
+
// Byte arrays are encoded as an unsigned count followed by the raw bytes.
func encUint8Array(i *encInstr, state *encoderState, p unsafe.Pointer) {
b := *(*[]byte)(p)
for fieldnum := 0; fieldnum < srt.NumField(); fieldnum++ {
f := srt.Field(fieldnum)
op, indir := enc.encOpFor(f.Type)
+ if !isExported(f.Name) {
+ op = encNoOp
+ }
engine.instr[fieldnum] = encInstr{op, fieldnum, indir, uintptr(f.Offset)}
}
engine.instr[srt.NumField()] = encInstr{encStructTerminator, 0, 0, 0}
)
type ET2 struct {
- x string
+ X string
}
type ET1 struct {
- a int
- et2 *ET2
- next *ET1
+ A int
+ Et2 *ET2
+ Next *ET1
}
// Like ET1 but with a different name for a field
type ET3 struct {
- a int
- et2 *ET2
- differentNext *ET1
+ A int
+ Et2 *ET2
+ DifferentNext *ET1
}
// Like ET1 but with a different type for a field
type ET4 struct {
- a int
- et2 float
- next int
+ A int
+ Et2 float
+ Next int
}
func TestEncoderDecoder(t *testing.T) {
b := new(bytes.Buffer)
enc := NewEncoder(b)
et1 := new(ET1)
- et1.a = 7
- et1.et2 = new(ET2)
+ et1.A = 7
+ et1.Et2 = new(ET2)
err := enc.Encode(et1)
if err != nil {
t.Error("encoder fail:", err)
b := new(bytes.Buffer)
enc := NewEncoder(b)
et1 := new(ET1)
- et1.a = 7
- et1.et2 = new(ET2)
+ et1.A = 7
+ et1.Et2 = new(ET2)
err := enc.Encode(et1)
if err != nil {
t.Error("encoder fail:", err)
func TestTypeToPtrType(t *testing.T) {
// Encode a T, decode a *T
type Type0 struct {
- a int
+ A int
}
t0 := Type0{7}
t0p := (*Type0)(nil)
func TestPtrTypeToType(t *testing.T) {
// Encode a *T, decode a T
type Type1 struct {
- a uint
+ A uint
}
t1p := &Type1{17}
var t1 Type1
func TestTypeToPtrPtrPtrPtrType(t *testing.T) {
type Type2 struct {
- a ****float
+ A ****float
}
t2 := Type2{}
- t2.a = new(***float)
- *t2.a = new(**float)
- **t2.a = new(*float)
- ***t2.a = new(float)
- ****t2.a = 27.4
+ t2.A = new(***float)
+ *t2.A = new(**float)
+ **t2.A = new(*float)
+ ***t2.A = new(float)
+ ****t2.A = 27.4
t2pppp := new(***Type2)
if err := encAndDec(t2, t2pppp); err != nil {
- t.Error(err)
+ t.Fatal(err)
}
- if ****(****t2pppp).a != ****t2.a {
- t.Errorf("wrong value after decode: %g not %g", ****(****t2pppp).a, ****t2.a)
+ if ****(****t2pppp).A != ****t2.A {
+ t.Errorf("wrong value after decode: %g not %g", ****(****t2pppp).A, ****t2.A)
}
}
func TestSlice(t *testing.T) {
type Type3 struct {
- a []string
+ A []string
}
t3p := &Type3{[]string{"hello", "world"}}
var t3 Type3
func TestArray(t *testing.T) {
type Type5 struct {
- a [3]string
- b [3]byte
+ A [3]string
+ B [3]byte
}
type Type6 struct {
- a [2]string // can't hold t5.a
+ A [2]string // can't hold t5.a
}
t5 := Type5{[3]string{"hello", ",", "world"}, [3]byte{1, 2, 3}}
var t5p Type5
// Regression test for bug: must send zero values inside arrays
func TestDefaultsInArray(t *testing.T) {
type Type7 struct {
- b []bool
- i []int
- s []string
- f []float
+ B []bool
+ I []int
+ S []string
+ F []float
}
t7 := Type7{
[]bool{false, false, true},
func TestStructNonStruct(t *testing.T) {
type Struct struct {
- a string
+ A string
}
type NonStruct string
s := Struct{"hello"}
type gobType interface {
id() typeId
setId(id typeId)
- Name() string
+ name() string
string() string // not public; only for debugging
safeString(seen map[typeId]bool) string
}
}
// Name returns the name of the type associated with the typeId.
-func (t typeId) Name() string {
+func (t typeId) name() string {
if t.gobType() == nil {
return "<nil>"
}
- return t.gobType().Name()
+ return t.gobType().name()
}
// Common elements of all types.
-type commonType struct {
- name string
- _id typeId
+type CommonType struct {
+ Name string
+ Id typeId
}
-func (t *commonType) id() typeId { return t._id }
+func (t *CommonType) id() typeId { return t.Id }
-func (t *commonType) setId(id typeId) { t._id = id }
+func (t *CommonType) setId(id typeId) { t.Id = id }
-func (t *commonType) string() string { return t.name }
+func (t *CommonType) string() string { return t.Name }
-func (t *commonType) safeString(seen map[typeId]bool) string {
- return t.name
+func (t *CommonType) safeString(seen map[typeId]bool) string {
+ return t.Name
}
-func (t *commonType) Name() string { return t.name }
+func (t *CommonType) name() string { return t.Name }
// Create and check predefined types
// The string for tBytes is "bytes" not "[]byte" to signify its specialness.
// Some magic numbers to make sure there are no surprises.
checkId(16, tWireType)
checkId(17, mustGetTypeInfo(reflect.Typeof(arrayType{})).id)
- checkId(18, mustGetTypeInfo(reflect.Typeof(commonType{})).id)
+ checkId(18, mustGetTypeInfo(reflect.Typeof(CommonType{})).id)
checkId(19, mustGetTypeInfo(reflect.Typeof(sliceType{})).id)
checkId(20, mustGetTypeInfo(reflect.Typeof(structType{})).id)
checkId(21, mustGetTypeInfo(reflect.Typeof(fieldType{})).id)
// Array type
type arrayType struct {
- commonType
+ CommonType
Elem typeId
Len int
}
func newArrayType(name string, elem gobType, length int) *arrayType {
- a := &arrayType{commonType{name: name}, elem.id(), length}
+ a := &arrayType{CommonType{Name: name}, elem.id(), length}
setTypeId(a)
return a
}
func (a *arrayType) safeString(seen map[typeId]bool) string {
- if seen[a._id] {
- return a.name
+ if seen[a.Id] {
+ return a.Name
}
- seen[a._id] = true
+ seen[a.Id] = true
return fmt.Sprintf("[%d]%s", a.Len, a.Elem.gobType().safeString(seen))
}
// Map type
type mapType struct {
- commonType
+ CommonType
Key typeId
Elem typeId
}
func newMapType(name string, key, elem gobType) *mapType {
- m := &mapType{commonType{name: name}, key.id(), elem.id()}
+ m := &mapType{CommonType{Name: name}, key.id(), elem.id()}
setTypeId(m)
return m
}
func (m *mapType) safeString(seen map[typeId]bool) string {
- if seen[m._id] {
- return m.name
+ if seen[m.Id] {
+ return m.Name
}
- seen[m._id] = true
+ seen[m.Id] = true
key := m.Key.gobType().safeString(seen)
elem := m.Elem.gobType().safeString(seen)
return fmt.Sprintf("map[%s]%s", key, elem)
// Slice type
type sliceType struct {
- commonType
+ CommonType
Elem typeId
}
func newSliceType(name string, elem gobType) *sliceType {
- s := &sliceType{commonType{name: name}, elem.id()}
+ s := &sliceType{CommonType{Name: name}, elem.id()}
setTypeId(s)
return s
}
func (s *sliceType) safeString(seen map[typeId]bool) string {
- if seen[s._id] {
- return s.name
+ if seen[s.Id] {
+ return s.Name
}
- seen[s._id] = true
+ seen[s.Id] = true
return fmt.Sprintf("[]%s", s.Elem.gobType().safeString(seen))
}
// Struct type
type fieldType struct {
- name string
- id typeId
+ Name string
+ Id typeId
}
type structType struct {
- commonType
- field []*fieldType
+ CommonType
+ Field []*fieldType
}
func (s *structType) safeString(seen map[typeId]bool) string {
if s == nil {
return "<nil>"
}
- if _, ok := seen[s._id]; ok {
- return s.name
+ if _, ok := seen[s.Id]; ok {
+ return s.Name
}
- seen[s._id] = true
- str := s.name + " = struct { "
- for _, f := range s.field {
- str += fmt.Sprintf("%s %s; ", f.name, f.id.gobType().safeString(seen))
+ seen[s.Id] = true
+ str := s.Name + " = struct { "
+ for _, f := range s.Field {
+ str += fmt.Sprintf("%s %s; ", f.Name, f.Id.gobType().safeString(seen))
}
str += "}"
return str
func (s *structType) string() string { return s.safeString(make(map[typeId]bool)) }
func newStructType(name string) *structType {
- s := &structType{commonType{name: name}, nil}
+ s := &structType{CommonType{Name: name}, nil}
setTypeId(s)
return s
}
}
field[i] = &fieldType{f.Name, gt.id()}
}
- strType.field = field
+ strType.Field = field
return strType, nil
default:
func checkId(want, got typeId) {
if want != got {
fmt.Fprintf(os.Stderr, "checkId: %d should be %d\n", int(want), int(got))
- panic("bootstrap type wrong id: " + got.Name() + " " + got.string() + " not " + want.string())
+ panic("bootstrap type wrong id: " + got.name() + " " + got.string() + " not " + want.string())
}
}
if present {
panic("bootstrap type already present: " + name + ", " + rt.String())
}
- typ := &commonType{name: name}
+ typ := &CommonType{Name: name}
types[rt] = typ
setTypeId(typ)
checkId(expect, nextId)
// To maintain binary compatibility, if you extend this type, always put
// the new fields last.
type wireType struct {
- arrayT *arrayType
- sliceT *sliceType
- structT *structType
- mapT *mapType
+ ArrayT *arrayType
+ SliceT *sliceType
+ StructT *structType
+ MapT *mapType
}
func (w *wireType) string() string {
return unknown
}
switch {
- case w.arrayT != nil:
- return w.arrayT.name
- case w.sliceT != nil:
- return w.sliceT.name
- case w.structT != nil:
- return w.structT.name
- case w.mapT != nil:
- return w.mapT.name
+ case w.ArrayT != nil:
+ return w.ArrayT.Name
+ case w.SliceT != nil:
+ return w.SliceT.Name
+ case w.StructT != nil:
+ return w.StructT.Name
+ case w.MapT != nil:
+ return w.MapT.Name
}
return unknown
}
t := info.id.gobType()
switch typ := rt.(type) {
case *reflect.ArrayType:
- info.wire = &wireType{arrayT: t.(*arrayType)}
+ info.wire = &wireType{ArrayT: t.(*arrayType)}
case *reflect.MapType:
- info.wire = &wireType{mapT: t.(*mapType)}
+ info.wire = &wireType{MapT: t.(*mapType)}
case *reflect.SliceType:
// []byte == []uint8 is a special case handled separately
if typ.Elem().Kind() != reflect.Uint8 {
- info.wire = &wireType{sliceT: t.(*sliceType)}
+ info.wire = &wireType{SliceT: t.(*sliceType)}
}
case *reflect.StructType:
- info.wire = &wireType{structT: t.(*structType)}
+ info.wire = &wireType{StructT: t.(*structType)}
}
typeInfoMap[rt] = info
}