Framer runtime.Framer
	// used to encode the watch stream event itself
	Encoder runtime.Encoder
	// used to encode the nested object in the watch stream
	EmbeddedEncoder runtime.Encoder

	MemoryAllocator      runtime.MemoryAllocator
	TimeoutFactory       TimeoutFactory
	ServerShuttingDownCh <-chan struct{}

	metricsScope string
}

// HandleHTTP serves a series of encoded events via HTTP with Transfer-Encoding: chunked.

            encoder.writeString(uid);
            MultiChoiceAddress multiChoiceAddress = (MultiChoiceAddress) address;
            new MultiChoiceAddressSerializer().write(encoder, multiChoiceAddress);
            encoder.writeString(daemonLog.getPath());
        } catch (IOException e) {
            throw new UncheckedIOException(e);
        }
        target.println(byteArrayOutputStream.toString());

func decode(encoded string) (string, error) {
	if encoded == "" {
		return "", nil
	}
	pos := 1 + strings.LastIndex(encoded, "-")
	if pos == 1 {
		return "", punyError(encoded)
	}
	if pos == len(encoded) {
		return encoded[:len(encoded)-1], nil
	}
	output := make([]rune, 0, len(encoded))
	if pos != 0 {
		for _, r := range encoded[:pos-1] {
			output = append(output, r)
		}
	}

	encoder := NewCodec(
		&mockSerializer{}, &mockSerializer{},
		&mockConvertor{}, nil,
		&mockTyper{gvks: []schema.GroupVersionKind{gvk1, gvk2}}, nil,
		gvk1.GroupVersion(), gvk2.GroupVersion(),
		"TestCacheableObject")

	runtimetesting.CacheableObjectTest(t, encoder)
}

func BenchmarkIdentifier(b *testing.B) {
	encoder := &mockSerializer{}

type Options struct {
	Quality int
}

// Encode writes the Image m to w in JPEG 4:2:0 baseline format with the given
// options. Default parameters are used if a nil *[Options] is passed.
func Encode(w io.Writer, m image.Image, o *Options) error {
	b := m.Bounds()
	if b.Dx() >= 1<<16 || b.Dy() >= 1<<16 {
		return errors.New("jpeg: image is too large to encode")
	}
	var e encoder
	if ww, ok := w.(writer); ok {
		e.w = ww

		return nil
	}
	info.encInit.Lock()
	defer info.encInit.Unlock()
	enc := info.encoder.Load()
	if enc == nil {
		if building == nil {
			building = make(map[*typeInfo]bool)
		}
		building[info] = true
		enc = compileEnc(ut, building)
		info.encoder.Store(enc)
	}
	return enc
}

func (enc *Encoder) encode(b *encBuffer, value reflect.Value, ut *userTypeInfo) {
	defer catchError(&enc.err)

	e.Int(position.Column)
}

type encoder struct {
	b           []byte
	stringTable []byte
	strings     map[string]int
}

func (e *encoder) Pos() int {
	return len(e.b)
}

func (e *encoder) Bytes(b []byte) {
	e.b = append(e.b, b...)
}

func (e *encoder) String(s string) {
	if n, ok := e.strings[s]; ok {
		e.Int(n)
		return
	}
	pos := len(e.stringTable)
	e.strings[s] = pos

func (e encodable) MarshalJSON() ([]byte, error) {
	return Encode(e.E, e.obj)
}

// NewEncodableList creates an object that will be encoded with the provided codec on demand.
// Provided as a convenience for test cases dealing with internal objects.
func NewEncodableList(e Encoder, objects []Object, versions ...schema.GroupVersion) []Object {
	out := make([]Object, len(objects))

	}

	// Now test with a running encoder/decoder pair that we recognize a type mismatch.
	err = enc.Encode(et1)
	if err != nil {
		t.Error("round 3: encoder fail:", err)
	}
	newEt2 := new(ET2)
	err = dec.Decode(newEt2)
	if err == nil {
		t.Fatal("round 3: expected `bad type' error decoding ET2")
	}
}

// Run one value through the encoder/decoder, but use the wrong type.

dec/DecoderException.class package org.apache.commons.codec; public synchronized class DecoderException extends Exception { public void DecoderException(String); } org/apache/commons/codec/Encoder.class package org.apache.commons.codec; public abstract interface Encoder { public abstract Object encode(Object) throws EncoderException; } org/apache/commons/codec/EncoderException.class package org.apache.commons.codec; public synchronized class EncoderException extends Exception { public void Encod...