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Versions: 2
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Contents
require 'set' require_relative 'base' require_relative '../encoding/windows_1252' module TTFunk module Subset class Windows1252 < Base def initialize(original) super @subset = Array.new(256) end def to_unicode_map Encoding::Windows1252::TO_UNICODE end def use(character) @subset[Encoding::Windows1252::FROM_UNICODE[character]] = character end def covers?(character) Encoding::Windows1252.covers?(character) end def includes?(character) code = Encoding::Windows1252::FROM_UNICODE[character] code && @subset[code] end def from_unicode(character) Encoding::Windows1252::FROM_UNICODE[character] end protected def new_cmap_table(options) mapping = {} @subset.each_with_index do |unicode, cp1252| mapping[cp1252] = unicode_cmap[unicode] if cp1252 end # yes, I really mean "mac roman". TTF has no cp1252 encoding, and the # alternative would be to encode it using a format 4 unicode table, which # is overkill. for our purposes, mac-roman suffices. (If we were building # a _real_ font, instead of a PDF-embeddable subset, things would probably # be different.) TTFunk::Table::Cmap.encode(mapping, :mac_roman) end def original_glyph_ids ([0] + @subset.map { |unicode| unicode && unicode_cmap[unicode] }).compact.uniq.sort end end end end
Version data entries
2 entries across 2 versions & 1 rubygems
Version | Path |
---|---|
ttfunk-1.4.0 | lib/ttfunk/subset/windows_1252.rb |
ttfunk-1.3.0 | lib/ttfunk/subset/windows_1252.rb |