Upgrade logrus / testify to stable versions

1 files changed, 0 insertions, 509 deletions

diff --git a/vendor/github.com/BurntSushi/toml/decode.go b/vendor/github.com/BurntSushi/toml/decode.go
deleted file mode 100644
index b0fd51d5..00000000
--- a/vendor/github.com/BurntSushi/toml/decode.go
+++ /dev/null
@@ -1,509 +0,0 @@
-package toml
-
-import (
-	"fmt"
-	"io"
-	"io/ioutil"
-	"math"
-	"reflect"
-	"strings"
-	"time"
-)
-
-func e(format string, args ...interface{}) error {
-	return fmt.Errorf("toml: "+format, args...)
-}
-
-// Unmarshaler is the interface implemented by objects that can unmarshal a
-// TOML description of themselves.
-type Unmarshaler interface {
-	UnmarshalTOML(interface{}) error
-}
-
-// Unmarshal decodes the contents of `p` in TOML format into a pointer `v`.
-func Unmarshal(p []byte, v interface{}) error {
-	_, err := Decode(string(p), v)
-	return err
-}
-
-// Primitive is a TOML value that hasn't been decoded into a Go value.
-// When using the various `Decode*` functions, the type `Primitive` may
-// be given to any value, and its decoding will be delayed.
-//
-// A `Primitive` value can be decoded using the `PrimitiveDecode` function.
-//
-// The underlying representation of a `Primitive` value is subject to change.
-// Do not rely on it.
-//
-// N.B. Primitive values are still parsed, so using them will only avoid
-// the overhead of reflection. They can be useful when you don't know the
-// exact type of TOML data until run time.
-type Primitive struct {
-	undecoded interface{}
-	context   Key
-}
-
-// DEPRECATED!
-//
-// Use MetaData.PrimitiveDecode instead.
-func PrimitiveDecode(primValue Primitive, v interface{}) error {
-	md := MetaData{decoded: make(map[string]bool)}
-	return md.unify(primValue.undecoded, rvalue(v))
-}
-
-// PrimitiveDecode is just like the other `Decode*` functions, except it
-// decodes a TOML value that has already been parsed. Valid primitive values
-// can *only* be obtained from values filled by the decoder functions,
-// including this method. (i.e., `v` may contain more `Primitive`
-// values.)
-//
-// Meta data for primitive values is included in the meta data returned by
-// the `Decode*` functions with one exception: keys returned by the Undecoded
-// method will only reflect keys that were decoded. Namely, any keys hidden
-// behind a Primitive will be considered undecoded. Executing this method will
-// update the undecoded keys in the meta data. (See the example.)
-func (md *MetaData) PrimitiveDecode(primValue Primitive, v interface{}) error {
-	md.context = primValue.context
-	defer func() { md.context = nil }()
-	return md.unify(primValue.undecoded, rvalue(v))
-}
-
-// Decode will decode the contents of `data` in TOML format into a pointer
-// `v`.
-//
-// TOML hashes correspond to Go structs or maps. (Dealer's choice. They can be
-// used interchangeably.)
-//
-// TOML arrays of tables correspond to either a slice of structs or a slice
-// of maps.
-//
-// TOML datetimes correspond to Go `time.Time` values.
-//
-// All other TOML types (float, string, int, bool and array) correspond
-// to the obvious Go types.
-//
-// An exception to the above rules is if a type implements the
-// encoding.TextUnmarshaler interface. In this case, any primitive TOML value
-// (floats, strings, integers, booleans and datetimes) will be converted to
-// a byte string and given to the value's UnmarshalText method. See the
-// Unmarshaler example for a demonstration with time duration strings.
-//
-// Key mapping
-//
-// TOML keys can map to either keys in a Go map or field names in a Go
-// struct. The special `toml` struct tag may be used to map TOML keys to
-// struct fields that don't match the key name exactly. (See the example.)
-// A case insensitive match to struct names will be tried if an exact match
-// can't be found.
-//
-// The mapping between TOML values and Go values is loose. That is, there
-// may exist TOML values that cannot be placed into your representation, and
-// there may be parts of your representation that do not correspond to
-// TOML values. This loose mapping can be made stricter by using the IsDefined
-// and/or Undecoded methods on the MetaData returned.
-//
-// This decoder will not handle cyclic types. If a cyclic type is passed,
-// `Decode` will not terminate.
-func Decode(data string, v interface{}) (MetaData, error) {
-	rv := reflect.ValueOf(v)
-	if rv.Kind() != reflect.Ptr {
-		return MetaData{}, e("Decode of non-pointer %s", reflect.TypeOf(v))
-	}
-	if rv.IsNil() {
-		return MetaData{}, e("Decode of nil %s", reflect.TypeOf(v))
-	}
-	p, err := parse(data)
-	if err != nil {
-		return MetaData{}, err
-	}
-	md := MetaData{
-		p.mapping, p.types, p.ordered,
-		make(map[string]bool, len(p.ordered)), nil,
-	}
-	return md, md.unify(p.mapping, indirect(rv))
-}
-
-// DecodeFile is just like Decode, except it will automatically read the
-// contents of the file at `fpath` and decode it for you.
-func DecodeFile(fpath string, v interface{}) (MetaData, error) {
-	bs, err := ioutil.ReadFile(fpath)
-	if err != nil {
-		return MetaData{}, err
-	}
-	return Decode(string(bs), v)
-}
-
-// DecodeReader is just like Decode, except it will consume all bytes
-// from the reader and decode it for you.
-func DecodeReader(r io.Reader, v interface{}) (MetaData, error) {
-	bs, err := ioutil.ReadAll(r)
-	if err != nil {
-		return MetaData{}, err
-	}
-	return Decode(string(bs), v)
-}
-
-// unify performs a sort of type unification based on the structure of `rv`,
-// which is the client representation.
-//
-// Any type mismatch produces an error. Finding a type that we don't know
-// how to handle produces an unsupported type error.
-func (md *MetaData) unify(data interface{}, rv reflect.Value) error {
-
-	// Special case. Look for a `Primitive` value.
-	if rv.Type() == reflect.TypeOf((*Primitive)(nil)).Elem() {
-		// Save the undecoded data and the key context into the primitive
-		// value.
-		context := make(Key, len(md.context))
-		copy(context, md.context)
-		rv.Set(reflect.ValueOf(Primitive{
-			undecoded: data,
-			context:   context,
-		}))
-		return nil
-	}
-
-	// Special case. Unmarshaler Interface support.
-	if rv.CanAddr() {
-		if v, ok := rv.Addr().Interface().(Unmarshaler); ok {
-			return v.UnmarshalTOML(data)
-		}
-	}
-
-	// Special case. Handle time.Time values specifically.
-	// TODO: Remove this code when we decide to drop support for Go 1.1.
-	// This isn't necessary in Go 1.2 because time.Time satisfies the encoding
-	// interfaces.
-	if rv.Type().AssignableTo(rvalue(time.Time{}).Type()) {
-		return md.unifyDatetime(data, rv)
-	}
-
-	// Special case. Look for a value satisfying the TextUnmarshaler interface.
-	if v, ok := rv.Interface().(TextUnmarshaler); ok {
-		return md.unifyText(data, v)
-	}
-	// BUG(burntsushi)
-	// The behavior here is incorrect whenever a Go type satisfies the
-	// encoding.TextUnmarshaler interface but also corresponds to a TOML
-	// hash or array. In particular, the unmarshaler should only be applied
-	// to primitive TOML values. But at this point, it will be applied to
-	// all kinds of values and produce an incorrect error whenever those values
-	// are hashes or arrays (including arrays of tables).
-
-	k := rv.Kind()
-
-	// laziness
-	if k >= reflect.Int && k <= reflect.Uint64 {
-		return md.unifyInt(data, rv)
-	}
-	switch k {
-	case reflect.Ptr:
-		elem := reflect.New(rv.Type().Elem())
-		err := md.unify(data, reflect.Indirect(elem))
-		if err != nil {
-			return err
-		}
-		rv.Set(elem)
-		return nil
-	case reflect.Struct:
-		return md.unifyStruct(data, rv)
-	case reflect.Map:
-		return md.unifyMap(data, rv)
-	case reflect.Array:
-		return md.unifyArray(data, rv)
-	case reflect.Slice:
-		return md.unifySlice(data, rv)
-	case reflect.String:
-		return md.unifyString(data, rv)
-	case reflect.Bool:
-		return md.unifyBool(data, rv)
-	case reflect.Interface:
-		// we only support empty interfaces.
-		if rv.NumMethod() > 0 {
-			return e("unsupported type %s", rv.Type())
-		}
-		return md.unifyAnything(data, rv)
-	case reflect.Float32:
-		fallthrough
-	case reflect.Float64:
-		return md.unifyFloat64(data, rv)
-	}
-	return e("unsupported type %s", rv.Kind())
-}
-
-func (md *MetaData) unifyStruct(mapping interface{}, rv reflect.Value) error {
-	tmap, ok := mapping.(map[string]interface{})
-	if !ok {
-		if mapping == nil {
-			return nil
-		}
-		return e("type mismatch for %s: expected table but found %T",
-			rv.Type().String(), mapping)
-	}
-
-	for key, datum := range tmap {
-		var f *field
-		fields := cachedTypeFields(rv.Type())
-		for i := range fields {
-			ff := &fields[i]
-			if ff.name == key {
-				f = ff
-				break
-			}
-			if f == nil && strings.EqualFold(ff.name, key) {
-				f = ff
-			}
-		}
-		if f != nil {
-			subv := rv
-			for _, i := range f.index {
-				subv = indirect(subv.Field(i))
-			}
-			if isUnifiable(subv) {
-				md.decoded[md.context.add(key).String()] = true
-				md.context = append(md.context, key)
-				if err := md.unify(datum, subv); err != nil {
-					return err
-				}
-				md.context = md.context[0 : len(md.context)-1]
-			} else if f.name != "" {
-				// Bad user! No soup for you!
-				return e("cannot write unexported field %s.%s",
-					rv.Type().String(), f.name)
-			}
-		}
-	}
-	return nil
-}
-
-func (md *MetaData) unifyMap(mapping interface{}, rv reflect.Value) error {
-	tmap, ok := mapping.(map[string]interface{})
-	if !ok {
-		if tmap == nil {
-			return nil
-		}
-		return badtype("map", mapping)
-	}
-	if rv.IsNil() {
-		rv.Set(reflect.MakeMap(rv.Type()))
-	}
-	for k, v := range tmap {
-		md.decoded[md.context.add(k).String()] = true
-		md.context = append(md.context, k)
-
-		rvkey := indirect(reflect.New(rv.Type().Key()))
-		rvval := reflect.Indirect(reflect.New(rv.Type().Elem()))
-		if err := md.unify(v, rvval); err != nil {
-			return err
-		}
-		md.context = md.context[0 : len(md.context)-1]
-
-		rvkey.SetString(k)
-		rv.SetMapIndex(rvkey, rvval)
-	}
-	return nil
-}
-
-func (md *MetaData) unifyArray(data interface{}, rv reflect.Value) error {
-	datav := reflect.ValueOf(data)
-	if datav.Kind() != reflect.Slice {
-		if !datav.IsValid() {
-			return nil
-		}
-		return badtype("slice", data)
-	}
-	sliceLen := datav.Len()
-	if sliceLen != rv.Len() {
-		return e("expected array length %d; got TOML array of length %d",
-			rv.Len(), sliceLen)
-	}
-	return md.unifySliceArray(datav, rv)
-}
-
-func (md *MetaData) unifySlice(data interface{}, rv reflect.Value) error {
-	datav := reflect.ValueOf(data)
-	if datav.Kind() != reflect.Slice {
-		if !datav.IsValid() {
-			return nil
-		}
-		return badtype("slice", data)
-	}
-	n := datav.Len()
-	if rv.IsNil() || rv.Cap() < n {
-		rv.Set(reflect.MakeSlice(rv.Type(), n, n))
-	}
-	rv.SetLen(n)
-	return md.unifySliceArray(datav, rv)
-}
-
-func (md *MetaData) unifySliceArray(data, rv reflect.Value) error {
-	sliceLen := data.Len()
-	for i := 0; i < sliceLen; i++ {
-		v := data.Index(i).Interface()
-		sliceval := indirect(rv.Index(i))
-		if err := md.unify(v, sliceval); err != nil {
-			return err
-		}
-	}
-	return nil
-}
-
-func (md *MetaData) unifyDatetime(data interface{}, rv reflect.Value) error {
-	if _, ok := data.(time.Time); ok {
-		rv.Set(reflect.ValueOf(data))
-		return nil
-	}
-	return badtype("time.Time", data)
-}
-
-func (md *MetaData) unifyString(data interface{}, rv reflect.Value) error {
-	if s, ok := data.(string); ok {
-		rv.SetString(s)
-		return nil
-	}
-	return badtype("string", data)
-}
-
-func (md *MetaData) unifyFloat64(data interface{}, rv reflect.Value) error {
-	if num, ok := data.(float64); ok {
-		switch rv.Kind() {
-		case reflect.Float32:
-			fallthrough
-		case reflect.Float64:
-			rv.SetFloat(num)
-		default:
-			panic("bug")
-		}
-		return nil
-	}
-	return badtype("float", data)
-}
-
-func (md *MetaData) unifyInt(data interface{}, rv reflect.Value) error {
-	if num, ok := data.(int64); ok {
-		if rv.Kind() >= reflect.Int && rv.Kind() <= reflect.Int64 {
-			switch rv.Kind() {
-			case reflect.Int, reflect.Int64:
-				// No bounds checking necessary.
-			case reflect.Int8:
-				if num < math.MinInt8 || num > math.MaxInt8 {
-					return e("value %d is out of range for int8", num)
-				}
-			case reflect.Int16:
-				if num < math.MinInt16 || num > math.MaxInt16 {
-					return e("value %d is out of range for int16", num)
-				}
-			case reflect.Int32:
-				if num < math.MinInt32 || num > math.MaxInt32 {
-					return e("value %d is out of range for int32", num)
-				}
-			}
-			rv.SetInt(num)
-		} else if rv.Kind() >= reflect.Uint && rv.Kind() <= reflect.Uint64 {
-			unum := uint64(num)
-			switch rv.Kind() {
-			case reflect.Uint, reflect.Uint64:
-				// No bounds checking necessary.
-			case reflect.Uint8:
-				if num < 0 || unum > math.MaxUint8 {
-					return e("value %d is out of range for uint8", num)
-				}
-			case reflect.Uint16:
-				if num < 0 || unum > math.MaxUint16 {
-					return e("value %d is out of range for uint16", num)
-				}
-			case reflect.Uint32:
-				if num < 0 || unum > math.MaxUint32 {
-					return e("value %d is out of range for uint32", num)
-				}
-			}
-			rv.SetUint(unum)
-		} else {
-			panic("unreachable")
-		}
-		return nil
-	}
-	return badtype("integer", data)
-}
-
-func (md *MetaData) unifyBool(data interface{}, rv reflect.Value) error {
-	if b, ok := data.(bool); ok {
-		rv.SetBool(b)
-		return nil
-	}
-	return badtype("boolean", data)
-}
-
-func (md *MetaData) unifyAnything(data interface{}, rv reflect.Value) error {
-	rv.Set(reflect.ValueOf(data))
-	return nil
-}
-
-func (md *MetaData) unifyText(data interface{}, v TextUnmarshaler) error {
-	var s string
-	switch sdata := data.(type) {
-	case TextMarshaler:
-		text, err := sdata.MarshalText()
-		if err != nil {
-			return err
-		}
-		s = string(text)
-	case fmt.Stringer:
-		s = sdata.String()
-	case string:
-		s = sdata
-	case bool:
-		s = fmt.Sprintf("%v", sdata)
-	case int64:
-		s = fmt.Sprintf("%d", sdata)
-	case float64:
-		s = fmt.Sprintf("%f", sdata)
-	default:
-		return badtype("primitive (string-like)", data)
-	}
-	if err := v.UnmarshalText([]byte(s)); err != nil {
-		return err
-	}
-	return nil
-}
-
-// rvalue returns a reflect.Value of `v`. All pointers are resolved.
-func rvalue(v interface{}) reflect.Value {
-	return indirect(reflect.ValueOf(v))
-}
-
-// indirect returns the value pointed to by a pointer.
-// Pointers are followed until the value is not a pointer.
-// New values are allocated for each nil pointer.
-//
-// An exception to this rule is if the value satisfies an interface of
-// interest to us (like encoding.TextUnmarshaler).
-func indirect(v reflect.Value) reflect.Value {
-	if v.Kind() != reflect.Ptr {
-		if v.CanSet() {
-			pv := v.Addr()
-			if _, ok := pv.Interface().(TextUnmarshaler); ok {
-				return pv
-			}
-		}
-		return v
-	}
-	if v.IsNil() {
-		v.Set(reflect.New(v.Type().Elem()))
-	}
-	return indirect(reflect.Indirect(v))
-}
-
-func isUnifiable(rv reflect.Value) bool {
-	if rv.CanSet() {
-		return true
-	}
-	if _, ok := rv.Interface().(TextUnmarshaler); ok {
-		return true
-	}
-	return false
-}
-
-func badtype(expected string, data interface{}) error {
-	return e("cannot load TOML value of type %T into a Go %s", data, expected)
-}