Use vendored go-swagger (#8087)

* Use vendored go-swagger

* vendor go-swagger

* revert un wanteed change

* remove un-needed GO111MODULE

* Update Makefile

Co-Authored-By: techknowlogick <matti@mdranta.net>
This commit is contained in:
Antoine GIRARD 2019-09-04 21:53:54 +02:00 committed by Lauris BH
parent 4cb1bdddc8
commit 9fe4437bda
686 changed files with 143379 additions and 17 deletions

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// Copyright (C) MongoDB, Inc. 2017-present.
//
// Licensed under the Apache License, Version 2.0 (the "License"); you may
// not use this file except in compliance with the License. You may obtain
// a copy of the License at http://www.apache.org/licenses/LICENSE-2.0
//
// Based on gopkg.in/mgo.v2/bson by Gustavo Niemeyer
// See THIRD-PARTY-NOTICES for original license terms.
package primitive
import (
"fmt"
"strconv"
"strings"
)
// Decimal128 holds decimal128 BSON values.
type Decimal128 struct {
h, l uint64
}
// NewDecimal128 creates a Decimal128 using the provide high and low uint64s.
func NewDecimal128(h, l uint64) Decimal128 {
return Decimal128{h: h, l: l}
}
// GetBytes returns the underlying bytes of the BSON decimal value as two uint16 values. The first
// contains the most first 8 bytes of the value and the second contains the latter.
func (d Decimal128) GetBytes() (uint64, uint64) {
return d.h, d.l
}
// String returns a string representation of the decimal value.
func (d Decimal128) String() string {
var pos int // positive sign
var e int // exponent
var h, l uint64 // significand high/low
if d.h>>63&1 == 0 {
pos = 1
}
switch d.h >> 58 & (1<<5 - 1) {
case 0x1F:
return "NaN"
case 0x1E:
return "-Infinity"[pos:]
}
l = d.l
if d.h>>61&3 == 3 {
// Bits: 1*sign 2*ignored 14*exponent 111*significand.
// Implicit 0b100 prefix in significand.
e = int(d.h>>47&(1<<14-1)) - 6176
//h = 4<<47 | d.h&(1<<47-1)
// Spec says all of these values are out of range.
h, l = 0, 0
} else {
// Bits: 1*sign 14*exponent 113*significand
e = int(d.h>>49&(1<<14-1)) - 6176
h = d.h & (1<<49 - 1)
}
// Would be handled by the logic below, but that's trivial and common.
if h == 0 && l == 0 && e == 0 {
return "-0"[pos:]
}
var repr [48]byte // Loop 5 times over 9 digits plus dot, negative sign, and leading zero.
var last = len(repr)
var i = len(repr)
var dot = len(repr) + e
var rem uint32
Loop:
for d9 := 0; d9 < 5; d9++ {
h, l, rem = divmod(h, l, 1e9)
for d1 := 0; d1 < 9; d1++ {
// Handle "-0.0", "0.00123400", "-1.00E-6", "1.050E+3", etc.
if i < len(repr) && (dot == i || l == 0 && h == 0 && rem > 0 && rem < 10 && (dot < i-6 || e > 0)) {
e += len(repr) - i
i--
repr[i] = '.'
last = i - 1
dot = len(repr) // Unmark.
}
c := '0' + byte(rem%10)
rem /= 10
i--
repr[i] = c
// Handle "0E+3", "1E+3", etc.
if l == 0 && h == 0 && rem == 0 && i == len(repr)-1 && (dot < i-5 || e > 0) {
last = i
break Loop
}
if c != '0' {
last = i
}
// Break early. Works without it, but why.
if dot > i && l == 0 && h == 0 && rem == 0 {
break Loop
}
}
}
repr[last-1] = '-'
last--
if e > 0 {
return string(repr[last+pos:]) + "E+" + strconv.Itoa(e)
}
if e < 0 {
return string(repr[last+pos:]) + "E" + strconv.Itoa(e)
}
return string(repr[last+pos:])
}
func divmod(h, l uint64, div uint32) (qh, ql uint64, rem uint32) {
div64 := uint64(div)
a := h >> 32
aq := a / div64
ar := a % div64
b := ar<<32 + h&(1<<32-1)
bq := b / div64
br := b % div64
c := br<<32 + l>>32
cq := c / div64
cr := c % div64
d := cr<<32 + l&(1<<32-1)
dq := d / div64
dr := d % div64
return (aq<<32 | bq), (cq<<32 | dq), uint32(dr)
}
var dNaN = Decimal128{0x1F << 58, 0}
var dPosInf = Decimal128{0x1E << 58, 0}
var dNegInf = Decimal128{0x3E << 58, 0}
func dErr(s string) (Decimal128, error) {
return dNaN, fmt.Errorf("cannot parse %q as a decimal128", s)
}
//ParseDecimal128 takes the given string and attempts to parse it into a valid
// Decimal128 value.
func ParseDecimal128(s string) (Decimal128, error) {
orig := s
if s == "" {
return dErr(orig)
}
neg := s[0] == '-'
if neg || s[0] == '+' {
s = s[1:]
}
if (len(s) == 3 || len(s) == 8) && (s[0] == 'N' || s[0] == 'n' || s[0] == 'I' || s[0] == 'i') {
if s == "NaN" || s == "nan" || strings.EqualFold(s, "nan") {
return dNaN, nil
}
if s == "Inf" || s == "inf" || strings.EqualFold(s, "inf") || strings.EqualFold(s, "infinity") {
if neg {
return dNegInf, nil
}
return dPosInf, nil
}
return dErr(orig)
}
var h, l uint64
var e int
var add, ovr uint32
var mul uint32 = 1
var dot = -1
var digits = 0
var i = 0
for i < len(s) {
c := s[i]
if mul == 1e9 {
h, l, ovr = muladd(h, l, mul, add)
mul, add = 1, 0
if ovr > 0 || h&((1<<15-1)<<49) > 0 {
return dErr(orig)
}
}
if c >= '0' && c <= '9' {
i++
if c > '0' || digits > 0 {
digits++
}
if digits > 34 {
if c == '0' {
// Exact rounding.
e++
continue
}
return dErr(orig)
}
mul *= 10
add *= 10
add += uint32(c - '0')
continue
}
if c == '.' {
i++
if dot >= 0 || i == 1 && len(s) == 1 {
return dErr(orig)
}
if i == len(s) {
break
}
if s[i] < '0' || s[i] > '9' || e > 0 {
return dErr(orig)
}
dot = i
continue
}
break
}
if i == 0 {
return dErr(orig)
}
if mul > 1 {
h, l, ovr = muladd(h, l, mul, add)
if ovr > 0 || h&((1<<15-1)<<49) > 0 {
return dErr(orig)
}
}
if dot >= 0 {
e += dot - i
}
if i+1 < len(s) && (s[i] == 'E' || s[i] == 'e') {
i++
eneg := s[i] == '-'
if eneg || s[i] == '+' {
i++
if i == len(s) {
return dErr(orig)
}
}
n := 0
for i < len(s) && n < 1e4 {
c := s[i]
i++
if c < '0' || c > '9' {
return dErr(orig)
}
n *= 10
n += int(c - '0')
}
if eneg {
n = -n
}
e += n
for e < -6176 {
// Subnormal.
var div uint32 = 1
for div < 1e9 && e < -6176 {
div *= 10
e++
}
var rem uint32
h, l, rem = divmod(h, l, div)
if rem > 0 {
return dErr(orig)
}
}
for e > 6111 {
// Clamped.
var mul uint32 = 1
for mul < 1e9 && e > 6111 {
mul *= 10
e--
}
h, l, ovr = muladd(h, l, mul, 0)
if ovr > 0 || h&((1<<15-1)<<49) > 0 {
return dErr(orig)
}
}
if e < -6176 || e > 6111 {
return dErr(orig)
}
}
if i < len(s) {
return dErr(orig)
}
h |= uint64(e+6176) & uint64(1<<14-1) << 49
if neg {
h |= 1 << 63
}
return Decimal128{h, l}, nil
}
func muladd(h, l uint64, mul uint32, add uint32) (resh, resl uint64, overflow uint32) {
mul64 := uint64(mul)
a := mul64 * (l & (1<<32 - 1))
b := a>>32 + mul64*(l>>32)
c := b>>32 + mul64*(h&(1<<32-1))
d := c>>32 + mul64*(h>>32)
a = a&(1<<32-1) + uint64(add)
b = b&(1<<32-1) + a>>32
c = c&(1<<32-1) + b>>32
d = d&(1<<32-1) + c>>32
return (d<<32 | c&(1<<32-1)), (b<<32 | a&(1<<32-1)), uint32(d >> 32)
}

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// Copyright (C) MongoDB, Inc. 2017-present.
//
// Licensed under the Apache License, Version 2.0 (the "License"); you may
// not use this file except in compliance with the License. You may obtain
// a copy of the License at http://www.apache.org/licenses/LICENSE-2.0
//
// Based on gopkg.in/mgo.v2/bson by Gustavo Niemeyer
// See THIRD-PARTY-NOTICES for original license terms.
package primitive
import (
"bytes"
"crypto/rand"
"encoding/binary"
"encoding/hex"
"encoding/json"
"errors"
"fmt"
"io"
"sync/atomic"
"time"
)
// ErrInvalidHex indicates that a hex string cannot be converted to an ObjectID.
var ErrInvalidHex = errors.New("the provided hex string is not a valid ObjectID")
// ObjectID is the BSON ObjectID type.
type ObjectID [12]byte
// NilObjectID is the zero value for ObjectID.
var NilObjectID ObjectID
var objectIDCounter = readRandomUint32()
var processUnique = processUniqueBytes()
// NewObjectID generates a new ObjectID.
func NewObjectID() ObjectID {
return NewObjectIDFromTimestamp(time.Now())
}
// NewObjectIDFromTimestamp generates a new ObjectID based on the given time.
func NewObjectIDFromTimestamp(timestamp time.Time) ObjectID {
var b [12]byte
binary.BigEndian.PutUint32(b[0:4], uint32(timestamp.Unix()))
copy(b[4:9], processUnique[:])
putUint24(b[9:12], atomic.AddUint32(&objectIDCounter, 1))
return b
}
// Timestamp extracts the time part of the ObjectId.
func (id ObjectID) Timestamp() time.Time {
unixSecs := binary.BigEndian.Uint32(id[0:4])
return time.Unix(int64(unixSecs), 0).UTC()
}
// Hex returns the hex encoding of the ObjectID as a string.
func (id ObjectID) Hex() string {
return hex.EncodeToString(id[:])
}
func (id ObjectID) String() string {
return fmt.Sprintf("ObjectID(%q)", id.Hex())
}
// IsZero returns true if id is the empty ObjectID.
func (id ObjectID) IsZero() bool {
return bytes.Equal(id[:], NilObjectID[:])
}
// ObjectIDFromHex creates a new ObjectID from a hex string. It returns an error if the hex string is not a
// valid ObjectID.
func ObjectIDFromHex(s string) (ObjectID, error) {
b, err := hex.DecodeString(s)
if err != nil {
return NilObjectID, err
}
if len(b) != 12 {
return NilObjectID, ErrInvalidHex
}
var oid [12]byte
copy(oid[:], b[:])
return oid, nil
}
// MarshalJSON returns the ObjectID as a string
func (id ObjectID) MarshalJSON() ([]byte, error) {
return json.Marshal(id.Hex())
}
// UnmarshalJSON populates the byte slice with the ObjectID. If the byte slice is 64 bytes long, it
// will be populated with the hex representation of the ObjectID. If the byte slice is twelve bytes
// long, it will be populated with the BSON representation of the ObjectID. Otherwise, it will
// return an error.
func (id *ObjectID) UnmarshalJSON(b []byte) error {
var err error
switch len(b) {
case 12:
copy(id[:], b)
default:
// Extended JSON
var res interface{}
err := json.Unmarshal(b, &res)
if err != nil {
return err
}
str, ok := res.(string)
if !ok {
m, ok := res.(map[string]interface{})
if !ok {
return errors.New("not an extended JSON ObjectID")
}
oid, ok := m["$oid"]
if !ok {
return errors.New("not an extended JSON ObjectID")
}
str, ok = oid.(string)
if !ok {
return errors.New("not an extended JSON ObjectID")
}
}
if len(str) != 24 {
return fmt.Errorf("cannot unmarshal into an ObjectID, the length must be 12 but it is %d", len(str))
}
_, err = hex.Decode(id[:], []byte(str))
if err != nil {
return err
}
}
return err
}
func processUniqueBytes() [5]byte {
var b [5]byte
_, err := io.ReadFull(rand.Reader, b[:])
if err != nil {
panic(fmt.Errorf("cannot initialize objectid package with crypto.rand.Reader: %v", err))
}
return b
}
func readRandomUint32() uint32 {
var b [4]byte
_, err := io.ReadFull(rand.Reader, b[:])
if err != nil {
panic(fmt.Errorf("cannot initialize objectid package with crypto.rand.Reader: %v", err))
}
return (uint32(b[0]) << 0) | (uint32(b[1]) << 8) | (uint32(b[2]) << 16) | (uint32(b[3]) << 24)
}
func putUint24(b []byte, v uint32) {
b[0] = byte(v >> 16)
b[1] = byte(v >> 8)
b[2] = byte(v)
}

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// Copyright (C) MongoDB, Inc. 2017-present.
//
// Licensed under the Apache License, Version 2.0 (the "License"); you may
// not use this file except in compliance with the License. You may obtain
// a copy of the License at http://www.apache.org/licenses/LICENSE-2.0
// Package primitive contains types similar to Go primitives for BSON types can do not have direct
// Go primitive representations.
package primitive // import "go.mongodb.org/mongo-driver/bson/primitive"
import (
"bytes"
"encoding/json"
"fmt"
"time"
)
// Binary represents a BSON binary value.
type Binary struct {
Subtype byte
Data []byte
}
// Equal compaes bp to bp2 and returns true is the are equal.
func (bp Binary) Equal(bp2 Binary) bool {
if bp.Subtype != bp2.Subtype {
return false
}
return bytes.Equal(bp.Data, bp2.Data)
}
// Undefined represents the BSON undefined value type.
type Undefined struct{}
// DateTime represents the BSON datetime value.
type DateTime int64
// MarshalJSON marshal to time type
func (d DateTime) MarshalJSON() ([]byte, error) {
return json.Marshal(d.Time())
}
// Time returns the date as a time type.
func (d DateTime) Time() time.Time {
return time.Unix(int64(d)/1000, int64(d)%1000*1000000)
}
// NewDateTimeFromTime creates a new DateTime from a Time.
func NewDateTimeFromTime(t time.Time) DateTime {
return DateTime(t.UnixNano() / 1000000)
}
// Null repreesnts the BSON null value.
type Null struct{}
// Regex represents a BSON regex value.
type Regex struct {
Pattern string
Options string
}
func (rp Regex) String() string {
return fmt.Sprintf(`{"pattern": "%s", "options": "%s"}`, rp.Pattern, rp.Options)
}
// Equal compaes rp to rp2 and returns true is the are equal.
func (rp Regex) Equal(rp2 Regex) bool {
return rp.Pattern == rp2.Pattern && rp.Options == rp.Options
}
// DBPointer represents a BSON dbpointer value.
type DBPointer struct {
DB string
Pointer ObjectID
}
func (d DBPointer) String() string {
return fmt.Sprintf(`{"db": "%s", "pointer": "%s"}`, d.DB, d.Pointer)
}
// Equal compaes d to d2 and returns true is the are equal.
func (d DBPointer) Equal(d2 DBPointer) bool {
return d.DB == d2.DB && bytes.Equal(d.Pointer[:], d2.Pointer[:])
}
// JavaScript represents a BSON JavaScript code value.
type JavaScript string
// Symbol represents a BSON symbol value.
type Symbol string
// CodeWithScope represents a BSON JavaScript code with scope value.
type CodeWithScope struct {
Code JavaScript
Scope interface{}
}
func (cws CodeWithScope) String() string {
return fmt.Sprintf(`{"code": "%s", "scope": %v}`, cws.Code, cws.Scope)
}
// Timestamp represents a BSON timestamp value.
type Timestamp struct {
T uint32
I uint32
}
// Equal compaes tp to tp2 and returns true is the are equal.
func (tp Timestamp) Equal(tp2 Timestamp) bool {
return tp.T == tp2.T && tp.I == tp2.I
}
// CompareTimestamp returns an integer comparing two Timestamps, where T is compared first, followed by I.
// Returns 0 if tp = tp2, 1 if tp > tp2, -1 if tp < tp2.
func CompareTimestamp(tp, tp2 Timestamp) int {
if tp.Equal(tp2) {
return 0
}
if tp.T > tp2.T {
return 1
}
if tp.T < tp2.T {
return -1
}
// Compare I values because T values are equal
if tp.I > tp2.I {
return 1
}
return -1
}
// MinKey represents the BSON minkey value.
type MinKey struct{}
// MaxKey represents the BSON maxkey value.
type MaxKey struct{}
// D represents a BSON Document. This type can be used to represent BSON in a concise and readable
// manner. It should generally be used when serializing to BSON. For deserializing, the Raw or
// Document types should be used.
//
// Example usage:
//
// primitive.D{{"foo", "bar"}, {"hello", "world"}, {"pi", 3.14159}}
//
// This type should be used in situations where order matters, such as MongoDB commands. If the
// order is not important, a map is more comfortable and concise.
type D []E
// Map creates a map from the elements of the D.
func (d D) Map() M {
m := make(M, len(d))
for _, e := range d {
m[e.Key] = e.Value
}
return m
}
// E represents a BSON element for a D. It is usually used inside a D.
type E struct {
Key string
Value interface{}
}
// M is an unordered, concise representation of a BSON Document. It should generally be used to
// serialize BSON when the order of the elements of a BSON document do not matter. If the element
// order matters, use a D instead.
//
// Example usage:
//
// primitive.M{"foo": "bar", "hello": "world", "pi": 3.14159}
//
// This type is handled in the encoders as a regular map[string]interface{}. The elements will be
// serialized in an undefined, random order, and the order will be different each time.
type M map[string]interface{}
// An A represents a BSON array. This type can be used to represent a BSON array in a concise and
// readable manner. It should generally be used when serializing to BSON. For deserializing, the
// RawArray or Array types should be used.
//
// Example usage:
//
// primitive.A{"bar", "world", 3.14159, primitive.D{{"qux", 12345}}}
//
type A []interface{}