build(deps): bump github.com/olekukonko/tablewriter from 1.1.3 to 1.1.4

Bumps [github.com/olekukonko/tablewriter](https://github.com/olekukonko/tablewriter) from 1.1.3 to 1.1.4.
- [Release notes](https://github.com/olekukonko/tablewriter/releases)
- [Commits](https://github.com/olekukonko/tablewriter/compare/v1.1.3...v1.1.4)

---
updated-dependencies:
- dependency-name: github.com/olekukonko/tablewriter
  dependency-version: 1.1.4
  dependency-type: direct:production
  update-type: version-update:semver-patch
...

Signed-off-by: dependabot[bot] <support@github.com>
This commit is contained in:
dependabot[bot]
2026-03-12 16:39:40 +01:00
committed by Ralf Haferkamp
parent 8d30364a82
commit 57fdbb2d4c
69 changed files with 6061 additions and 3434 deletions
+230 -30
View File
@@ -1,23 +1,34 @@
package displaywidth
import (
"strings"
"unicode/utf8"
"github.com/clipperhouse/stringish"
"github.com/clipperhouse/uax29/v2/graphemes"
)
// Options allows you to specify the treatment of ambiguous East Asian
// characters. When EastAsianWidth is false (default), ambiguous East Asian
// characters are treated as width 1. When EastAsianWidth is true, ambiguous
// East Asian characters are treated as width 2.
// characters and ANSI escape sequences.
type Options struct {
// EastAsianWidth specifies whether to treat ambiguous East Asian characters
// as width 1 or 2. When false (default), ambiguous East Asian characters
// are treated as width 1. When true, they are width 2.
EastAsianWidth bool
// ControlSequences specifies whether to ignore ECMA-48 escape sequences
// when calculating the display width. When false (default), ANSI escape
// sequences are treated as just a series of characters. When true, they are
// treated as a single zero-width unit.
//
// Note that this option is about *sequences*. Individual control characters
// are already treated as zero-width. With this option, ANSI sequences such as
// "\x1b[31m" and "\x1b[0m" do not count towards the width of a string.
ControlSequences bool
}
// DefaultOptions is the default options for the display width
// calculation, which is EastAsianWidth: false.
var DefaultOptions = Options{EastAsianWidth: false}
// calculation, which is EastAsianWidth false and ControlSequences false.
var DefaultOptions = Options{EastAsianWidth: false, ControlSequences: false}
// String calculates the display width of a string,
// by iterating over grapheme clusters in the string
@@ -29,19 +40,43 @@ func String(s string) int {
// String calculates the display width of a string, for the given options, by
// iterating over grapheme clusters in the string and summing their widths.
func (options Options) String(s string) int {
// Optimization: no need to parse grapheme
switch len(s) {
case 0:
return 0
case 1:
return asciiWidth(s[0])
width := 0
pos := 0
for pos < len(s) {
// Try ASCII optimization
asciiLen := printableASCIILength(s[pos:])
if asciiLen > 0 {
width += asciiLen
pos += asciiLen
continue
}
// Not ASCII, use grapheme parsing
g := graphemes.FromString(s[pos:])
g.AnsiEscapeSequences = options.ControlSequences
start := pos
for g.Next() {
v := g.Value()
width += graphemeWidth(v, options)
pos += len(v)
// Quick check: if remaining might have printable ASCII, break to outer loop
if pos < len(s) && s[pos] >= 0x20 && s[pos] <= 0x7E {
break
}
}
// Defensive, should not happen: if no progress was made,
// skip a byte to prevent infinite loop. Only applies if
// the grapheme parser misbehaves.
if pos == start {
pos++
}
}
width := 0
g := graphemes.FromString(s)
for g.Next() {
width += graphemeWidth(g.Value(), options)
}
return width
}
@@ -55,19 +90,43 @@ func Bytes(s []byte) int {
// Bytes calculates the display width of a []byte, for the given options, by
// iterating over grapheme clusters in the slice and summing their widths.
func (options Options) Bytes(s []byte) int {
// Optimization: no need to parse grapheme
switch len(s) {
case 0:
return 0
case 1:
return asciiWidth(s[0])
width := 0
pos := 0
for pos < len(s) {
// Try ASCII optimization
asciiLen := printableASCIILength(s[pos:])
if asciiLen > 0 {
width += asciiLen
pos += asciiLen
continue
}
// Not ASCII, use grapheme parsing
g := graphemes.FromBytes(s[pos:])
g.AnsiEscapeSequences = options.ControlSequences
start := pos
for g.Next() {
v := g.Value()
width += graphemeWidth(v, options)
pos += len(v)
// Quick check: if remaining might have printable ASCII, break to outer loop
if pos < len(s) && s[pos] >= 0x20 && s[pos] <= 0x7E {
break
}
}
// Defensive, should not happen: if no progress was made,
// skip a byte to prevent infinite loop. Only applies if
// the grapheme parser misbehaves.
if pos == start {
pos++
}
}
width := 0
g := graphemes.FromBytes(s)
for g.Next() {
width += graphemeWidth(g.Value(), options)
}
return width
}
@@ -107,9 +166,123 @@ func (options Options) Rune(r rune) int {
const _Default property = 0
// TruncateString truncates a string to the given maxWidth, and appends the
// given tail if the string is truncated.
//
// It ensures the visible width, including the width of the tail, is less than or
// equal to maxWidth.
//
// When [Options.ControlSequences] is true, ANSI escape sequences that appear
// after the truncation point are preserved in the output. This ensures that
// escape sequences such as SGR resets are not lost, preventing color bleed
// in terminal output.
func (options Options) TruncateString(s string, maxWidth int, tail string) string {
maxWidthWithoutTail := maxWidth - options.String(tail)
var pos, total int
g := graphemes.FromString(s)
g.AnsiEscapeSequences = options.ControlSequences
for g.Next() {
gw := graphemeWidth(g.Value(), options)
if total+gw <= maxWidthWithoutTail {
pos = g.End()
}
total += gw
if total > maxWidth {
if options.ControlSequences {
// Build result with trailing ANSI escape sequences preserved
var b strings.Builder
b.Grow(len(s) + len(tail)) // at most original + tail
b.WriteString(s[:pos])
b.WriteString(tail)
rem := graphemes.FromString(s[pos:])
rem.AnsiEscapeSequences = true
for rem.Next() {
v := rem.Value()
if len(v) > 0 && v[0] == 0x1B {
b.WriteString(v)
}
}
return b.String()
}
return s[:pos] + tail
}
}
// No truncation
return s
}
// TruncateString truncates a string to the given maxWidth, and appends the
// given tail if the string is truncated.
//
// It ensures the total width, including the width of the tail, is less than or
// equal to maxWidth.
func TruncateString(s string, maxWidth int, tail string) string {
return DefaultOptions.TruncateString(s, maxWidth, tail)
}
// TruncateBytes truncates a []byte to the given maxWidth, and appends the
// given tail if the []byte is truncated.
//
// It ensures the visible width, including the width of the tail, is less than or
// equal to maxWidth.
//
// When [Options.ControlSequences] is true, ANSI escape sequences that appear
// after the truncation point are preserved in the output. This ensures that
// escape sequences such as SGR resets are not lost, preventing color bleed
// in terminal output.
func (options Options) TruncateBytes(s []byte, maxWidth int, tail []byte) []byte {
maxWidthWithoutTail := maxWidth - options.Bytes(tail)
var pos, total int
g := graphemes.FromBytes(s)
g.AnsiEscapeSequences = options.ControlSequences
for g.Next() {
gw := graphemeWidth(g.Value(), options)
if total+gw <= maxWidthWithoutTail {
pos = g.End()
}
total += gw
if total > maxWidth {
if options.ControlSequences {
// Build result with trailing ANSI escape sequences preserved
result := make([]byte, 0, len(s)+len(tail)) // at most original + tail
result = append(result, s[:pos]...)
result = append(result, tail...)
rem := graphemes.FromBytes(s[pos:])
rem.AnsiEscapeSequences = true
for rem.Next() {
v := rem.Value()
if len(v) > 0 && v[0] == 0x1B {
result = append(result, v...)
}
}
return result
}
result := make([]byte, 0, pos+len(tail))
result = append(result, s[:pos]...)
result = append(result, tail...)
return result
}
}
// No truncation
return s
}
// TruncateBytes truncates a []byte to the given maxWidth, and appends the
// given tail if the []byte is truncated.
//
// It ensures the total width, including the width of the tail, is less than or
// equal to maxWidth.
func TruncateBytes(s []byte, maxWidth int, tail []byte) []byte {
return DefaultOptions.TruncateBytes(s, maxWidth, tail)
}
// graphemeWidth returns the display width of a grapheme cluster.
// The passed string must be a single grapheme cluster.
func graphemeWidth[T stringish.Interface](s T, options Options) int {
func graphemeWidth[T ~string | []byte](s T, options Options) int {
// Optimization: no need to look up properties
switch len(s) {
case 0:
@@ -118,6 +291,11 @@ func graphemeWidth[T stringish.Interface](s T, options Options) int {
return asciiWidth(s[0])
}
// Multi-byte grapheme clusters led by a C0 control (0x00-0x1F)
if s[0] <= 0x1F {
return 0
}
p, sz := lookup(s)
prop := property(p)
@@ -150,9 +328,31 @@ func asciiWidth(b byte) int {
return 1
}
// printableASCIILength returns the length of consecutive printable ASCII bytes
// starting at the beginning of s.
func printableASCIILength[T string | []byte](s T) int {
i := 0
for ; i < len(s); i++ {
b := s[i]
// Printable ASCII is 0x20-0x7E (space through tilde)
if b < 0x20 || b > 0x7E {
break
}
}
// If the next byte is non-ASCII (>= 0x80), back off by 1. The grapheme
// parser may group the last ASCII byte with subsequent non-ASCII bytes,
// such as combining marks.
if i > 0 && i < len(s) && s[i] >= 0x80 {
i--
}
return i
}
// isVS16 checks if the slice matches VS16 (U+FE0F) UTF-8 encoding
// (EF B8 8F). It assumes len(s) >= 3.
func isVS16[T stringish.Interface](s T) bool {
func isVS16[T ~string | []byte](s T) bool {
return s[0] == 0xEF && s[1] == 0xB8 && s[2] == 0x8F
}