build: go 1.24

We were running behind and there were quite some deprecations to update.
This was mostly in the upstream copy/pasta package but seems quite
minimal.

vendor/github.com/charmbracelet/x/ansi/method.go

@@ -0,0 +1,172 @@
+package ansi
+
+// Method is a type that represents the how the renderer should calculate the
+// display width of cells.
+type Method uint8
+
+// Display width modes.
+const (
+	WcWidth Method = iota
+	GraphemeWidth
+)
+
+// StringWidth returns the width of a string in cells. This is the number of
+// cells that the string will occupy when printed in a terminal. ANSI escape
+// codes are ignored and wide characters (such as East Asians and emojis) are
+// accounted for.
+func (m Method) StringWidth(s string) int {
+	return stringWidth(m, s)
+}
+
+// Truncate truncates a string to a given length, adding a tail to the end if
+// the string is longer than the given length. This function is aware of ANSI
+// escape codes and will not break them, and accounts for wide-characters (such
+// as East-Asian characters and emojis).
+func (m Method) Truncate(s string, length int, tail string) string {
+	return truncate(m, s, length, tail)
+}
+
+// TruncateLeft truncates a string to a given length, adding a prefix to the
+// beginning if the string is longer than the given length. This function is
+// aware of ANSI escape codes and will not break them, and accounts for
+// wide-characters (such as East-Asian characters and emojis).
+func (m Method) TruncateLeft(s string, length int, prefix string) string {
+	return truncateLeft(m, s, length, prefix)
+}
+
+// Cut the string, without adding any prefix or tail strings. This function is
+// aware of ANSI escape codes and will not break them, and accounts for
+// wide-characters (such as East-Asian characters and emojis). Note that the
+// [left] parameter is inclusive, while [right] isn't.
+func (m Method) Cut(s string, left, right int) string {
+	return cut(m, s, left, right)
+}
+
+// Hardwrap wraps a string or a block of text to a given line length, breaking
+// word boundaries. This will preserve ANSI escape codes and will account for
+// wide-characters in the string.
+// When preserveSpace is true, spaces at the beginning of a line will be
+// preserved.
+// This treats the text as a sequence of graphemes.
+func (m Method) Hardwrap(s string, length int, preserveSpace bool) string {
+	return hardwrap(m, s, length, preserveSpace)
+}
+
+// Wordwrap wraps a string or a block of text to a given line length, not
+// breaking word boundaries. This will preserve ANSI escape codes and will
+// account for wide-characters in the string.
+// The breakpoints string is a list of characters that are considered
+// breakpoints for word wrapping. A hyphen (-) is always considered a
+// breakpoint.
+//
+// Note: breakpoints must be a string of 1-cell wide rune characters.
+func (m Method) Wordwrap(s string, length int, breakpoints string) string {
+	return wordwrap(m, s, length, breakpoints)
+}
+
+// Wrap wraps a string or a block of text to a given line length, breaking word
+// boundaries if necessary. This will preserve ANSI escape codes and will
+// account for wide-characters in the string. The breakpoints string is a list
+// of characters that are considered breakpoints for word wrapping. A hyphen
+// (-) is always considered a breakpoint.
+//
+// Note: breakpoints must be a string of 1-cell wide rune characters.
+func (m Method) Wrap(s string, length int, breakpoints string) string {
+	return wrap(m, s, length, breakpoints)
+}
+
+// DecodeSequence decodes the first ANSI escape sequence or a printable
+// grapheme from the given data. It returns the sequence slice, the number of
+// bytes read, the cell width for each sequence, and the new state.
+//
+// The cell width will always be 0 for control and escape sequences, 1 for
+// ASCII printable characters, and the number of cells other Unicode characters
+// occupy. It uses the uniseg package to calculate the width of Unicode
+// graphemes and characters. This means it will always do grapheme clustering
+// (mode 2027).
+//
+// Passing a non-nil [*Parser] as the last argument will allow the decoder to
+// collect sequence parameters, data, and commands. The parser cmd will have
+// the packed command value that contains intermediate and prefix characters.
+// In the case of a OSC sequence, the cmd will be the OSC command number. Use
+// [Cmd] and [Param] types to unpack command intermediates and prefixes as well
+// as parameters.
+//
+// Zero [Cmd] means the CSI, DCS, or ESC sequence is invalid. Moreover, checking the
+// validity of other data sequences, OSC, DCS, etc, will require checking for
+// the returned sequence terminator bytes such as ST (ESC \\) and BEL).
+//
+// We store the command byte in [Cmd] in the most significant byte, the
+// prefix byte in the next byte, and the intermediate byte in the least
+// significant byte. This is done to avoid using a struct to store the command
+// and its intermediates and prefixes. The command byte is always the least
+// significant byte i.e. [Cmd & 0xff]. Use the [Cmd] type to unpack the
+// command, intermediate, and prefix bytes. Note that we only collect the last
+// prefix character and intermediate byte.
+//
+// The [p.Params] slice will contain the parameters of the sequence. Any
+// sub-parameter will have the [parser.HasMoreFlag] set. Use the [Param] type
+// to unpack the parameters.
+//
+// Example:
+//
+//	var state byte // the initial state is always zero [NormalState]
+//	p := NewParser(32, 1024) // create a new parser with a 32 params buffer and 1024 data buffer (optional)
+//	input := []byte("\x1b[31mHello, World!\x1b[0m")
+//	for len(input) > 0 {
+//		seq, width, n, newState := DecodeSequence(input, state, p)
+//		log.Printf("seq: %q, width: %d", seq, width)
+//		state = newState
+//		input = input[n:]
+//	}
+func (m Method) DecodeSequence(data []byte, state byte, p *Parser) (seq []byte, width, n int, newState byte) {
+	return decodeSequence(m, data, state, p)
+}
+
+// DecodeSequenceInString decodes the first ANSI escape sequence or a printable
+// grapheme from the given data. It returns the sequence slice, the number of
+// bytes read, the cell width for each sequence, and the new state.
+//
+// The cell width will always be 0 for control and escape sequences, 1 for
+// ASCII printable characters, and the number of cells other Unicode characters
+// occupy. It uses the uniseg package to calculate the width of Unicode
+// graphemes and characters. This means it will always do grapheme clustering
+// (mode 2027).
+//
+// Passing a non-nil [*Parser] as the last argument will allow the decoder to
+// collect sequence parameters, data, and commands. The parser cmd will have
+// the packed command value that contains intermediate and prefix characters.
+// In the case of a OSC sequence, the cmd will be the OSC command number. Use
+// [Cmd] and [Param] types to unpack command intermediates and prefixes as well
+// as parameters.
+//
+// Zero [Cmd] means the CSI, DCS, or ESC sequence is invalid. Moreover, checking the
+// validity of other data sequences, OSC, DCS, etc, will require checking for
+// the returned sequence terminator bytes such as ST (ESC \\) and BEL).
+//
+// We store the command byte in [Cmd] in the most significant byte, the
+// prefix byte in the next byte, and the intermediate byte in the least
+// significant byte. This is done to avoid using a struct to store the command
+// and its intermediates and prefixes. The command byte is always the least
+// significant byte i.e. [Cmd & 0xff]. Use the [Cmd] type to unpack the
+// command, intermediate, and prefix bytes. Note that we only collect the last
+// prefix character and intermediate byte.
+//
+// The [p.Params] slice will contain the parameters of the sequence. Any
+// sub-parameter will have the [parser.HasMoreFlag] set. Use the [Param] type
+// to unpack the parameters.
+//
+// Example:
+//
+//	var state byte // the initial state is always zero [NormalState]
+//	p := NewParser(32, 1024) // create a new parser with a 32 params buffer and 1024 data buffer (optional)
+//	input := []byte("\x1b[31mHello, World!\x1b[0m")
+//	for len(input) > 0 {
+//		seq, width, n, newState := DecodeSequenceInString(input, state, p)
+//		log.Printf("seq: %q, width: %d", seq, width)
+//		state = newState
+//		input = input[n:]
+//	}
+func (m Method) DecodeSequenceInString(data string, state byte, p *Parser) (seq string, width, n int, newState byte) {
+	return decodeSequence(m, data, state, p)
+}