Vendor Update (#14496)

* update code.gitea.io/sdk/gitea v0.13.1 -> v0.13.2

* update github.com/go-swagger/go-swagger v0.25.0 -> v0.26.0

* update github.com/google/uuid v1.1.2 -> v1.2.0

* update github.com/klauspost/compress v1.11.3 -> v1.11.7

* update github.com/lib/pq 083382b7e6fc -> v1.9.0

* update github.com/markbates/goth v1.65.0 -> v1.66.1

* update github.com/mattn/go-sqlite3 v1.14.4 -> v1.14.6

* update github.com/mgechev/revive 246eac737dc7 -> v1.0.3

* update github.com/minio/minio-go/v7 v7.0.6 -> v7.0.7

* update github.com/niklasfasching/go-org v1.3.2 -> v1.4.0

* update github.com/olivere/elastic/v7 v7.0.21 -> v7.0.22

* update github.com/pquerna/otp v1.2.0 -> v1.3.0

* update github.com/xanzy/go-gitlab v0.39.0 -> v0.42.0

* update github.com/yuin/goldmark v1.2.1 -> v1.3.1
This commit is contained in:
6543 2021-01-28 17:56:38 +01:00 committed by GitHub
parent e45bf12a34
commit d1353e1f7c
No known key found for this signature in database
GPG key ID: 4AEE18F83AFDEB23
403 changed files with 29737 additions and 14357 deletions

21
vendor/github.com/rivo/uniseg/LICENSE.txt generated vendored Normal file
View file

@ -0,0 +1,21 @@
MIT License
Copyright (c) 2019 Oliver Kuederle
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in all
copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
SOFTWARE.

62
vendor/github.com/rivo/uniseg/README.md generated vendored Normal file
View file

@ -0,0 +1,62 @@
# Unicode Text Segmentation for Go
[![Godoc Reference](https://img.shields.io/badge/godoc-reference-blue.svg)](https://godoc.org/github.com/rivo/uniseg)
[![Go Report](https://img.shields.io/badge/go%20report-A%2B-brightgreen.svg)](https://goreportcard.com/report/github.com/rivo/uniseg)
This Go package implements Unicode Text Segmentation according to [Unicode Standard Annex #29](http://unicode.org/reports/tr29/) (Unicode version 12.0.0).
At this point, only the determination of grapheme cluster boundaries is implemented.
## Background
In Go, [strings are read-only slices of bytes](https://blog.golang.org/strings). They can be turned into Unicode code points using the `for` loop or by casting: `[]rune(str)`. However, multiple code points may be combined into one user-perceived character or what the Unicode specification calls "grapheme cluster". Here are some examples:
|String|Bytes (UTF-8)|Code points (runes)|Grapheme clusters|
|-|-|-|-|
|Käse|6 bytes: `4b 61 cc 88 73 65`|5 code points: `4b 61 308 73 65`|4 clusters: `[4b],[61 308],[73],[65]`|
|🏳️‍🌈|14 bytes: `f0 9f 8f b3 ef b8 8f e2 80 8d f0 9f 8c 88`|4 code points: `1f3f3 fe0f 200d 1f308`|1 cluster: `[1f3f3 fe0f 200d 1f308]`|
|🇩🇪|8 bytes: `f0 9f 87 a9 f0 9f 87 aa`|2 code points: `1f1e9 1f1ea`|1 cluster: `[1f1e9 1f1ea]`|
This package provides a tool to iterate over these grapheme clusters. This may be used to determine the number of user-perceived characters, to split strings in their intended places, or to extract individual characters which form a unit.
## Installation
```bash
go get github.com/rivo/uniseg
```
## Basic Example
```go
package uniseg
import (
"fmt"
"github.com/rivo/uniseg"
)
func main() {
gr := uniseg.NewGraphemes("👍🏼!")
for gr.Next() {
fmt.Printf("%x ", gr.Runes())
}
// Output: [1f44d 1f3fc] [21]
}
```
## Documentation
Refer to https://godoc.org/github.com/rivo/uniseg for the package's documentation.
## Dependencies
This package does not depend on any packages outside the standard library.
## Your Feedback
Add your issue here on GitHub. Feel free to get in touch if you have any questions.
## Version
Version tags will be introduced once Golang modules are official. Consider this version 0.1.

8
vendor/github.com/rivo/uniseg/doc.go generated vendored Normal file
View file

@ -0,0 +1,8 @@
/*
Package uniseg implements Unicode Text Segmentation according to Unicode
Standard Annex #29 (http://unicode.org/reports/tr29/).
At this point, only the determination of grapheme cluster boundaries is
implemented.
*/
package uniseg

3
vendor/github.com/rivo/uniseg/go.mod generated vendored Normal file
View file

@ -0,0 +1,3 @@
module github.com/rivo/uniseg
go 1.12

268
vendor/github.com/rivo/uniseg/grapheme.go generated vendored Normal file
View file

@ -0,0 +1,268 @@
package uniseg
import "unicode/utf8"
// The states of the grapheme cluster parser.
const (
grAny = iota
grCR
grControlLF
grL
grLVV
grLVTT
grPrepend
grExtendedPictographic
grExtendedPictographicZWJ
grRIOdd
grRIEven
)
// The grapheme cluster parser's breaking instructions.
const (
grNoBoundary = iota
grBoundary
)
// The grapheme cluster parser's state transitions. Maps (state, property) to
// (new state, breaking instruction, rule number). The breaking instruction
// always refers to the boundary between the last and next code point.
//
// This map is queried as follows:
//
// 1. Find specific state + specific property. Stop if found.
// 2. Find specific state + any property.
// 3. Find any state + specific property.
// 4. If only (2) or (3) (but not both) was found, stop.
// 5. If both (2) and (3) were found, use state and breaking instruction from
// the transition with the lower rule number, prefer (3) if rule numbers
// are equal. Stop.
// 6. Assume grAny and grBoundary.
var grTransitions = map[[2]int][3]int{
// GB5
{grAny, prCR}: {grCR, grBoundary, 50},
{grAny, prLF}: {grControlLF, grBoundary, 50},
{grAny, prControl}: {grControlLF, grBoundary, 50},
// GB4
{grCR, prAny}: {grAny, grBoundary, 40},
{grControlLF, prAny}: {grAny, grBoundary, 40},
// GB3.
{grCR, prLF}: {grAny, grNoBoundary, 30},
// GB6.
{grAny, prL}: {grL, grBoundary, 9990},
{grL, prL}: {grL, grNoBoundary, 60},
{grL, prV}: {grLVV, grNoBoundary, 60},
{grL, prLV}: {grLVV, grNoBoundary, 60},
{grL, prLVT}: {grLVTT, grNoBoundary, 60},
// GB7.
{grAny, prLV}: {grLVV, grBoundary, 9990},
{grAny, prV}: {grLVV, grBoundary, 9990},
{grLVV, prV}: {grLVV, grNoBoundary, 70},
{grLVV, prT}: {grLVTT, grNoBoundary, 70},
// GB8.
{grAny, prLVT}: {grLVTT, grBoundary, 9990},
{grAny, prT}: {grLVTT, grBoundary, 9990},
{grLVTT, prT}: {grLVTT, grNoBoundary, 80},
// GB9.
{grAny, prExtend}: {grAny, grNoBoundary, 90},
{grAny, prZWJ}: {grAny, grNoBoundary, 90},
// GB9a.
{grAny, prSpacingMark}: {grAny, grNoBoundary, 91},
// GB9b.
{grAny, prPreprend}: {grPrepend, grBoundary, 9990},
{grPrepend, prAny}: {grAny, grNoBoundary, 92},
// GB11.
{grAny, prExtendedPictographic}: {grExtendedPictographic, grBoundary, 9990},
{grExtendedPictographic, prExtend}: {grExtendedPictographic, grNoBoundary, 110},
{grExtendedPictographic, prZWJ}: {grExtendedPictographicZWJ, grNoBoundary, 110},
{grExtendedPictographicZWJ, prExtendedPictographic}: {grExtendedPictographic, grNoBoundary, 110},
// GB12 / GB13.
{grAny, prRegionalIndicator}: {grRIOdd, grBoundary, 9990},
{grRIOdd, prRegionalIndicator}: {grRIEven, grNoBoundary, 120},
{grRIEven, prRegionalIndicator}: {grRIOdd, grBoundary, 120},
}
// Graphemes implements an iterator over Unicode extended grapheme clusters,
// specified in the Unicode Standard Annex #29. Grapheme clusters correspond to
// "user-perceived characters". These characters often consist of multiple
// code points (e.g. the "woman kissing woman" emoji consists of 8 code points:
// woman + ZWJ + heavy black heart (2 code points) + ZWJ + kiss mark + ZWJ +
// woman) and the rules described in Annex #29 must be applied to group those
// code points into clusters perceived by the user as one character.
type Graphemes struct {
// The code points over which this class iterates.
codePoints []rune
// The (byte-based) indices of the code points into the original string plus
// len(original string). Thus, len(indices) = len(codePoints) + 1.
indices []int
// The current grapheme cluster to be returned. These are indices into
// codePoints/indices. If start == end, we either haven't started iterating
// yet (0) or the iteration has already completed (1).
start, end int
// The index of the next code point to be parsed.
pos int
// The current state of the code point parser.
state int
}
// NewGraphemes returns a new grapheme cluster iterator.
func NewGraphemes(s string) *Graphemes {
l := utf8.RuneCountInString(s)
codePoints := make([]rune, l)
indices := make([]int, l+1)
i := 0
for pos, r := range s {
codePoints[i] = r
indices[i] = pos
i++
}
indices[l] = len(s)
g := &Graphemes{
codePoints: codePoints,
indices: indices,
}
g.Next() // Parse ahead.
return g
}
// Next advances the iterator by one grapheme cluster and returns false if no
// clusters are left. This function must be called before the first cluster is
// accessed.
func (g *Graphemes) Next() bool {
g.start = g.end
// The state transition gives us a boundary instruction BEFORE the next code
// point so we always need to stay ahead by one code point.
// Parse the next code point.
for g.pos <= len(g.codePoints) {
// GB2.
if g.pos == len(g.codePoints) {
g.end = g.pos
g.pos++
break
}
// Determine the property of the next character.
nextProperty := property(g.codePoints[g.pos])
g.pos++
// Find the applicable transition.
var boundary bool
transition, ok := grTransitions[[2]int{g.state, nextProperty}]
if ok {
// We have a specific transition. We'll use it.
g.state = transition[0]
boundary = transition[1] == grBoundary
} else {
// No specific transition found. Try the less specific ones.
transAnyProp, okAnyProp := grTransitions[[2]int{g.state, prAny}]
transAnyState, okAnyState := grTransitions[[2]int{grAny, nextProperty}]
if okAnyProp && okAnyState {
// Both apply. We'll use a mix (see comments for grTransitions).
g.state = transAnyState[0]
boundary = transAnyState[1] == grBoundary
if transAnyProp[2] < transAnyState[2] {
g.state = transAnyProp[0]
boundary = transAnyProp[1] == grBoundary
}
} else if okAnyProp {
// We only have a specific state.
g.state = transAnyProp[0]
boundary = transAnyProp[1] == grBoundary
// This branch will probably never be reached because okAnyState will
// always be true given the current transition map. But we keep it here
// for future modifications to the transition map where this may not be
// true anymore.
} else if okAnyState {
// We only have a specific property.
g.state = transAnyState[0]
boundary = transAnyState[1] == grBoundary
} else {
// No known transition. GB999: Any x Any.
g.state = grAny
boundary = true
}
}
// If we found a cluster boundary, let's stop here. The current cluster will
// be the one that just ended.
if g.pos-1 == 0 /* GB1 */ || boundary {
g.end = g.pos - 1
break
}
}
return g.start != g.end
}
// Runes returns a slice of runes (code points) which corresponds to the current
// grapheme cluster. If the iterator is already past the end or Next() has not
// yet been called, nil is returned.
func (g *Graphemes) Runes() []rune {
if g.start == g.end {
return nil
}
return g.codePoints[g.start:g.end]
}
// Str returns a substring of the original string which corresponds to the
// current grapheme cluster. If the iterator is already past the end or Next()
// has not yet been called, an empty string is returned.
func (g *Graphemes) Str() string {
if g.start == g.end {
return ""
}
return string(g.codePoints[g.start:g.end])
}
// Bytes returns a byte slice which corresponds to the current grapheme cluster.
// If the iterator is already past the end or Next() has not yet been called,
// nil is returned.
func (g *Graphemes) Bytes() []byte {
if g.start == g.end {
return nil
}
return []byte(string(g.codePoints[g.start:g.end]))
}
// Positions returns the interval of the current grapheme cluster as byte
// positions into the original string. The first returned value "from" indexes
// the first byte and the second returned value "to" indexes the first byte that
// is not included anymore, i.e. str[from:to] is the current grapheme cluster of
// the original string "str". If Next() has not yet been called, both values are
// 0. If the iterator is already past the end, both values are 1.
func (g *Graphemes) Positions() (int, int) {
return g.indices[g.start], g.indices[g.end]
}
// Reset puts the iterator into its initial state such that the next call to
// Next() sets it to the first grapheme cluster again.
func (g *Graphemes) Reset() {
g.start, g.end, g.pos, g.state = 0, 0, 0, grAny
g.Next() // Parse ahead again.
}
// GraphemeClusterCount returns the number of user-perceived characters
// (grapheme clusters) for the given string. To calculate this number, it
// iterates through the string using the Graphemes iterator.
func GraphemeClusterCount(s string) (n int) {
g := NewGraphemes(s)
for g.Next() {
n++
}
return
}

1658
vendor/github.com/rivo/uniseg/properties.go generated vendored Normal file

File diff suppressed because it is too large Load diff