xiuos/APP_Framework/lib/JerryScript/jerryscript/tools/gen-unicode.py

804 lines
31 KiB
Python

#!/usr/bin/env python
# Copyright JS Foundation and other contributors, http://js.foundation
#
# 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
#
# Unless required by applicable law or agreed to in writing, software
# distributed under the License is distributed on an "AS IS" BASIS
# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
# See the License for the specific language governing permissions and
# limitations under the License.
from __future__ import print_function
import argparse
import csv
import itertools
import os
import re
import warnings
from gen_c_source import LICENSE, format_code
from settings import PROJECT_DIR
UNICODE_DATA_FILE = 'UnicodeData.txt'
SPECIAL_CASING_FILE = 'SpecialCasing.txt'
DERIVED_PROPS_FILE = 'DerivedCoreProperties.txt'
PROP_LIST_FILE = 'PropList.txt'
CASE_FOLDING_FILE = 'CaseFolding.txt'
RANGES_C_SOURCE = os.path.join(PROJECT_DIR, 'jerry-core/lit/lit-unicode-ranges.inc.h')
RANGES_SUP_C_SOURCE = os.path.join(PROJECT_DIR, 'jerry-core/lit/lit-unicode-ranges-sup.inc.h')
CONVERSIONS_C_SOURCE = os.path.join(PROJECT_DIR, 'jerry-core/lit/lit-unicode-conversions.inc.h')
CONVERSIONS_SUP_C_SOURCE = os.path.join(PROJECT_DIR, 'jerry-core/lit/lit-unicode-conversions-sup.inc.h')
FOLDING_C_SOURCE = os.path.join(PROJECT_DIR, 'jerry-core/lit/lit-unicode-folding.inc.h')
FOLDING_SUP_C_SOURCE = os.path.join(PROJECT_DIR, 'jerry-core/lit/lit-unicode-folding-sup.inc.h')
UNICODE_PLANE_TYPE_BASIC = 0
UNICODE_PLANE_TYPE_SUPPLEMENTARY = 1
# common code generation
class UnicodeBasicSource(object):
# pylint: disable=too-many-instance-attributes
def __init__(self, filepath, character_type="uint16_t", length_type="uint8_t"):
self._filepath = filepath
self._header = [LICENSE, ""]
self._data = []
self._table_name_suffix = ""
self.character_type = character_type
self.length_type = length_type
self._range_table_types = [self.character_type,
self.length_type,
self.character_type]
self._range_table_names = ["interval_starts",
"interval_lengths",
"chars"]
self._range_table_descriptions = ["Character interval starting points for",
"Character interval lengths for",
"Non-interval characters for"]
self._conversion_range_types = [self.character_type,
self.length_type]
self._conversion_range_names = ["ranges",
"range_lengths"]
def complete_header(self, completion):
self._header.append(completion)
self._header.append("") # for an extra empty line
def add_whitepace_range(self, category, categorizer, units):
self.add_range(category, categorizer.create_tables(units))
def add_range(self, category, tables):
idx = 0
for table in tables:
self.add_table(table,
"/**\n * %s %s.\n */" % (self._range_table_descriptions[idx], category),
self._range_table_types[idx],
category,
self._range_table_names[idx])
idx += 1
def add_conversion_range(self, category, tables, descriptions):
self.add_named_conversion_range(category, tables, self._conversion_range_names, descriptions)
def add_named_conversion_range(self, category, tables, table_names, descriptions):
idx = 0
for table in tables:
self.add_table(table,
descriptions[idx],
self._conversion_range_types[idx],
category,
table_names[idx])
idx += 1
def add_table(self, table, description, table_type, category, table_name):
if table and sum(table) != 0:
self._data.append(description)
self._data.append("static const %s lit_unicode_%s%s%s[] JERRY_ATTR_CONST_DATA ="
% (table_type,
category.lower(),
"_" + table_name if table_name else "",
self._table_name_suffix))
self._data.append("{")
self._data.append(format_code(table, 1, 6 if self._table_name_suffix else 4))
self._data.append("};")
self._data.append("") # for an extra empty line
def generate(self):
with open(self._filepath, 'w') as generated_source:
generated_source.write("\n".join(self._header))
generated_source.write("\n".join(self._data))
class UnicodeSupplementarySource(UnicodeBasicSource):
def __init__(self, filepath):
UnicodeBasicSource.__init__(self, filepath, "uint32_t", "uint16_t")
self._table_name_suffix = "_sup"
def add_whitepace_range(self, category, categorizer, units):
self.add_range(category, categorizer.create_tables(units))
class UnicodeBasicCategorizer(object):
def __init__(self):
self._length_limit = 0xff
self.extra_id_continue_units = set([0x200C, 0x200D])
#pylint: disable=no-self-use
def in_range(self, i):
return i >= 0x80 and i < 0x10000
def _group_ranges(self, units):
"""
Convert an increasing list of integers into a range list
:return: List of ranges.
"""
for _, group in itertools.groupby(enumerate(units), lambda q: (q[1] - q[0])):
group = list(group)
yield group[0][1], group[-1][1]
def create_tables(self, units):
"""
Split list of ranges into intervals and single char lists.
:return: A tuple containing the following info:
- list of interval starting points
- list of interval lengths
- list of single chars
"""
interval_sps = []
interval_lengths = []
chars = []
for element in self._group_ranges(units):
interval_length = element[1] - element[0]
if interval_length == 0:
chars.append(element[0])
elif interval_length > self._length_limit:
for i in range(element[0], element[1], self._length_limit + 1):
length = min(self._length_limit, element[1] - i)
interval_sps.append(i)
interval_lengths.append(length)
else:
interval_sps.append(element[0])
interval_lengths.append(interval_length)
return interval_sps, interval_lengths, chars
def read_units(self, file_path, categories, subcategories=None):
"""
Read the Unicode Derived Core Properties file and extract the ranges
for the given categories.
:param file_path: Path to the Unicode "DerivedCoreProperties.txt" file.
:param categories: A list of category strings to extract from the Unicode file.
:param subcategories: A list of subcategory strings to restrict categories.
:return: A dictionary each string from the :param categories: is a key and for each
key list of code points are stored.
"""
# Create a dictionary in the format: { category[0]: [ ], ..., category[N]: [ ] }
units = {}
for category in categories:
units[category] = []
# Formats to match:
# <HEX> ; <category> #
# <HEX>..<HEX> ; <category> # <subcategory>
matcher = r"(?P<start>[\dA-F]+)(?:\.\.(?P<end>[\dA-F]+))?\s+; (?P<category>[\w]+) # (?P<subcategory>[\w&]{2})"
with open(file_path, "r") as src_file:
for line in src_file:
match = re.match(matcher, line)
if (match
and match.group("category") in categories
and (not subcategories or match.group("subcategory") in subcategories)):
start = int(match.group("start"), 16)
# if no "end" found use the "start"
end = int(match.group("end") or match.group("start"), 16)
matching_code_points = [
code_point for code_point in range(start, end + 1) if self.in_range(code_point)
]
units[match.group("category")].extend(matching_code_points)
return units
def read_case_mappings(self, unicode_data_file, special_casing_file):
"""
Read the corresponding unicode values of lower and upper case letters and store these in tables.
:param unicode_data_file: Contains the default case mappings (one-to-one mappings).
:param special_casing_file: Contains additional informative case mappings that are either not one-to-one
or which are context-sensitive.
:return: Upper and lower case mappings.
"""
lower_case_mapping = {}
upper_case_mapping = {}
# Add one-to-one mappings
with open(unicode_data_file) as unicode_data:
reader = csv.reader(unicode_data, delimiter=';')
for line in reader:
letter_id = int(line[0], 16)
if not self.in_range(letter_id):
continue
capital_letter = line[12]
small_letter = line[13]
if capital_letter:
upper_case_mapping[letter_id] = parse_unicode_sequence(capital_letter)
if small_letter:
lower_case_mapping[letter_id] = parse_unicode_sequence(small_letter)
# Update the conversion tables with the special cases
with open(special_casing_file) as special_casing:
reader = csv.reader(special_casing, delimiter=';')
for line in reader:
# Skip comment sections and empty lines
if not line or line[0].startswith('#'):
continue
# Replace '#' character with empty string
for idx, fragment in enumerate(line):
if fragment.find('#') >= 0:
line[idx] = ''
letter_id = int(line[0], 16)
condition_list = line[4]
if not self.in_range(letter_id) or condition_list:
continue
original_letter = parse_unicode_sequence(line[0])
small_letter = parse_unicode_sequence(line[1])
capital_letter = parse_unicode_sequence(line[3])
if small_letter != original_letter:
lower_case_mapping[letter_id] = small_letter
if capital_letter != original_letter:
upper_case_mapping[letter_id] = capital_letter
return lower_case_mapping, upper_case_mapping
class UnicodeSupplementaryCategorizer(UnicodeBasicCategorizer):
def __init__(self):
UnicodeBasicCategorizer.__init__(self)
self._length_limit = 0xffff
self.extra_id_continue_units = set()
def in_range(self, i):
return i >= 0x10000
def generate_ranges(script_args, plane_type):
if plane_type == UNICODE_PLANE_TYPE_SUPPLEMENTARY:
c_source = UnicodeSupplementarySource(RANGES_SUP_C_SOURCE)
categorizer = UnicodeSupplementaryCategorizer()
else:
c_source = UnicodeBasicSource(RANGES_C_SOURCE)
categorizer = UnicodeBasicCategorizer()
header_completion = ["/* This file is automatically generated by the %s script" % os.path.basename(__file__),
" * from %s. Do not edit! */" % (DERIVED_PROPS_FILE),
""]
c_source.complete_header("\n".join(header_completion))
derived_props_path = os.path.join(script_args.unicode_dir, DERIVED_PROPS_FILE)
units = categorizer.read_units(derived_props_path, ["ID_Start", "ID_Continue"])
units["ID_Continue"] = sorted(set(units["ID_Continue"]).union(categorizer.extra_id_continue_units)
- set(units["ID_Start"]))
for category, unit in units.items():
c_source.add_range(category, categorizer.create_tables(unit))
prop_list_path = os.path.join(script_args.unicode_dir, PROP_LIST_FILE)
white_space_units = categorizer.read_units(prop_list_path, ["White_Space"], ["Zs"])["White_Space"]
c_source.add_whitepace_range("White_Space", categorizer, white_space_units)
c_source.generate()
# functions for unicode conversions
def make_char(hex_val):
"""
Create a unicode character from a hex value
:param hex_val: Hex value of the character.
:return: Unicode character corresponding to the value.
"""
try:
return unichr(hex_val)
except NameError:
return chr(hex_val)
def parse_unicode_sequence(raw_data):
"""
Parse unicode sequence from raw data.
:param raw_data: Contains the unicode sequence which needs to parse.
:return: The parsed unicode sequence.
"""
result = ''
for unicode_char in raw_data.split(' '):
if unicode_char == '':
continue
# Convert it to unicode code point (from hex value without 0x prefix)
hex_val = int(unicode_char, 16)
result += make_char(hex_val)
return result
def extract_ranges(letter_case, reverse_letter_case=None):
"""
Extract ranges from case mappings
(the second param is optional, if it's not empty, a range will contains bidirectional conversions only).
:param letter_id: An integer, representing the unicode code point of the character.
:param letter_case: case mappings dictionary which contains the conversions.
:param reverse_letter_case: Comparable case mapping table which contains the return direction of the conversion.
:return: A table with the start points and their mapped value, and another table with the lengths of the ranges.
"""
in_range = False
range_position = -1
ranges = []
range_lengths = []
for letter_id in sorted(letter_case.keys()):
prev_letter_id = letter_id - 1
# One-way conversions
if reverse_letter_case is None:
if len(letter_case[letter_id]) > 1:
in_range = False
continue
if prev_letter_id not in letter_case or len(letter_case[prev_letter_id]) > 1:
in_range = False
continue
# Two way conversions
else:
if not is_bidirectional_conversion(letter_id, letter_case, reverse_letter_case):
in_range = False
continue
if not is_bidirectional_conversion(prev_letter_id, letter_case, reverse_letter_case):
in_range = False
continue
conv_distance = calculate_conversion_distance(letter_case, letter_id)
prev_conv_distance = calculate_conversion_distance(letter_case, prev_letter_id)
if conv_distance != prev_conv_distance:
in_range = False
continue
if in_range:
range_lengths[range_position] += 1
else:
in_range = True
range_position += 1
# Add the start point of the range and its mapped value
ranges.extend([prev_letter_id, ord(letter_case[prev_letter_id])])
range_lengths.append(2)
# Remove all ranges from the case mapping table.
for idx in range(0, len(ranges), 2):
range_length = range_lengths[idx // 2]
for incr in range(range_length):
del letter_case[ranges[idx] + incr]
if reverse_letter_case is not None:
del reverse_letter_case[ranges[idx + 1] + incr]
return ranges, range_lengths
def extract_character_pair_ranges(letter_case, reverse_letter_case):
"""
Extract two or more character pairs from the case mapping tables.
:param letter_case: case mappings dictionary which contains the conversions.
:param reverse_letter_case: Comparable case mapping table which contains the return direction of the conversion.
:return: A table with the start points, and another table with the lengths of the ranges.
"""
start_points = []
lengths = []
in_range = False
element_counter = -1
for letter_id in sorted(letter_case.keys()):
# Only extract character pairs
if not is_bidirectional_conversion(letter_id, letter_case, reverse_letter_case):
in_range = False
continue
if ord(letter_case[letter_id]) == letter_id + 1:
prev_letter_id = letter_id - 2
if not is_bidirectional_conversion(prev_letter_id, letter_case, reverse_letter_case):
in_range = False
if in_range:
lengths[element_counter] += 2
else:
element_counter += 1
start_points.append(letter_id)
lengths.append(2)
in_range = True
else:
in_range = False
# Remove all found case mapping from the conversion tables after the scanning method
for idx, letter_id in enumerate(start_points):
conv_length = lengths[idx]
for incr in range(0, conv_length, 2):
del letter_case[letter_id + incr]
del reverse_letter_case[letter_id + 1 + incr]
return start_points, lengths
def extract_character_pairs(letter_case, reverse_letter_case):
"""
Extract character pairs. Check that two unicode value are also a mapping value of each other.
:param letter_case: case mappings dictionary which contains the conversions.
:param reverse_letter_case: Comparable case mapping table which contains the return direction of the conversion.
:return: A table with character pairs.
"""
character_pairs = []
for letter_id in sorted(letter_case.keys()):
if is_bidirectional_conversion(letter_id, letter_case, reverse_letter_case):
mapped_value = letter_case[letter_id]
character_pairs.extend([letter_id, ord(mapped_value)])
# Remove character pairs from case mapping tables
del letter_case[letter_id]
del reverse_letter_case[ord(mapped_value)]
return character_pairs
def extract_special_ranges(letter_case):
"""
Extract special ranges. It contains start points of one-to-two letter case ranges
where the second character is always the same.
:param letter_case: case mappings dictionary which contains the conversions.
:return: A table with the start points and their mapped values, and a table with the lengths of the ranges.
"""
special_ranges = []
special_range_lengths = []
range_position = -1
for letter_id in sorted(letter_case.keys()):
mapped_value = letter_case[letter_id]
if len(mapped_value) != 2:
continue
prev_letter_id = letter_id - 1
if prev_letter_id not in letter_case:
in_range = False
continue
prev_mapped_value = letter_case[prev_letter_id]
if len(prev_mapped_value) != 2:
continue
if prev_mapped_value[1] != mapped_value[1]:
continue
if (ord(prev_mapped_value[0]) - prev_letter_id) != (ord(mapped_value[0]) - letter_id):
in_range = False
continue
if in_range:
special_range_lengths[range_position] += 1
else:
range_position += 1
in_range = True
special_ranges.extend([prev_letter_id, ord(prev_mapped_value[0]), ord(prev_mapped_value[1])])
special_range_lengths.append(1)
# Remove special ranges from the conversion table
for idx in range(0, len(special_ranges), 3):
range_length = special_range_lengths[idx // 3]
letter_id = special_ranges[idx]
for incr in range(range_length):
del letter_case[special_ranges[idx] + incr]
return special_ranges, special_range_lengths
def extract_conversions(letter_case):
"""
Extract conversions. It provide the full (or remained) case mappings from the table.
The counter table contains the information of how much one-to-one, one-to-two or one-to-three mappings
exists successively in the conversion table.
:return: A table with conversions, and a table with counters.
"""
unicodes = [[], [], []]
unicode_lengths = [0, 0, 0]
# 1 to 1 byte
for letter_id in sorted(letter_case.keys()):
mapped_value = letter_case[letter_id]
if len(mapped_value) != 1:
continue
unicodes[0].extend([letter_id, ord(mapped_value)])
del letter_case[letter_id]
# 1 to 2 bytes
for letter_id in sorted(letter_case.keys()):
mapped_value = letter_case[letter_id]
if len(mapped_value) != 2:
continue
unicodes[1].extend([letter_id, ord(mapped_value[0]), ord(mapped_value[1])])
del letter_case[letter_id]
# 1 to 3 bytes
for letter_id in sorted(letter_case.keys()):
mapped_value = letter_case[letter_id]
if len(mapped_value) != 3:
continue
unicodes[2].extend([letter_id, ord(mapped_value[0]), ord(mapped_value[1]), ord(mapped_value[2])])
del letter_case[letter_id]
unicode_lengths = [int(len(unicodes[0]) / 2), int(len(unicodes[1]) / 3), int(len(unicodes[2]) / 4)]
return list(itertools.chain.from_iterable(unicodes)), unicode_lengths
def is_bidirectional_conversion(letter_id, letter_case, reverse_letter_case):
"""
Check that two unicode value are also a mapping value of each other.
:param letter_id: An integer, representing the unicode code point of the character.
:param other_case_mapping: Comparable case mapping table which possible contains
the return direction of the conversion.
:return: True, if it's a reverible conversion, false otherwise.
"""
if letter_id not in letter_case:
return False
# Check one-to-one mapping
mapped_value = letter_case[letter_id]
if len(mapped_value) > 1:
return False
# Check two way conversions
mapped_value_id = ord(mapped_value)
if mapped_value_id not in reverse_letter_case or len(reverse_letter_case[mapped_value_id]) > 1:
return False
if ord(reverse_letter_case[mapped_value_id]) != letter_id:
return False
return True
def calculate_conversion_distance(letter_case, letter_id):
"""
Calculate the distance between the unicode character and its mapped value
(only needs and works with one-to-one mappings).
:param letter_case: case mappings dictionary which contains the conversions.
:param letter_id: An integer, representing the unicode code point of the character.
:return: The conversion distance.
"""
if letter_id not in letter_case or len(letter_case[letter_id]) > 1:
return None
return ord(letter_case[letter_id]) - letter_id
def generate_conversions(script_args, plane_type):
if plane_type == UNICODE_PLANE_TYPE_SUPPLEMENTARY:
c_source = UnicodeSupplementarySource(CONVERSIONS_SUP_C_SOURCE)
categorizer = UnicodeSupplementaryCategorizer()
else:
c_source = UnicodeBasicSource(CONVERSIONS_C_SOURCE)
categorizer = UnicodeBasicCategorizer()
header_completion = ["/* This file is automatically generated by the %s script" % os.path.basename(__file__),
" * from %s and %s files. Do not edit! */" % (UNICODE_DATA_FILE, SPECIAL_CASING_FILE),
""]
c_source.complete_header("\n".join(header_completion))
unicode_data_path = os.path.join(script_args.unicode_dir, UNICODE_DATA_FILE)
special_casing_path = os.path.join(script_args.unicode_dir, SPECIAL_CASING_FILE)
# Read the corresponding unicode values of lower and upper case letters and store these in tables
lower_case, upper_case = categorizer.read_case_mappings(unicode_data_path, special_casing_path)
c_source.add_conversion_range("character_case",
extract_ranges(lower_case, upper_case),
[("/* Contains start points of character case ranges "
"(these are bidirectional conversions). */"),
"/* Interval lengths of start points in `character_case_ranges` table. */"])
c_source.add_conversion_range("character_pair",
extract_character_pair_ranges(lower_case, upper_case),
["/* Contains the start points of bidirectional conversion ranges. */",
"/* Interval lengths of start points in `character_pair_ranges` table. */"])
c_source.add_table(extract_character_pairs(lower_case, upper_case),
"/* Contains lower/upper case bidirectional conversion pairs. */",
c_source.character_type,
"character_pairs",
"")
c_source.add_conversion_range("upper_case_special",
extract_special_ranges(upper_case),
[("/* Contains start points of one-to-two uppercase ranges where the "
"second character\n"
" * is always the same.\n"
" */"),
"/* Interval lengths for start points in `upper_case_special_ranges` table. */"])
c_source.add_conversion_range("lower_case",
extract_ranges(lower_case),
["/* Contains start points of lowercase ranges. */",
"/* Interval lengths for start points in `lower_case_ranges` table. */"])
c_source.add_named_conversion_range("lower_case",
extract_conversions(lower_case),
["conversions", "conversion_counters"],
[("/* The remaining lowercase conversions. The lowercase variant can "
"be one-to-three character long. */"),
("/* Number of one-to-one, one-to-two, and one-to-three lowercase "
"conversions. */")])
c_source.add_named_conversion_range("upper_case",
extract_conversions(upper_case),
["conversions", "conversion_counters"],
[("/* The remaining uppercase conversions. The uppercase variant can "
"be one-to-three character long. */"),
("/* Number of one-to-one, one-to-two, and one-to-three uppercase "
"conversions. */")])
if lower_case:
warnings.warn('Not all elements extracted from the lowercase table!')
if upper_case:
warnings.warn('Not all elements extracted from the uppercase table!')
c_source.generate()
def generate_folding(script_args, plane_type):
if plane_type == UNICODE_PLANE_TYPE_SUPPLEMENTARY:
c_source = UnicodeSupplementarySource(FOLDING_SUP_C_SOURCE)
categorizer = UnicodeSupplementaryCategorizer()
else:
c_source = UnicodeBasicSource(FOLDING_C_SOURCE)
categorizer = UnicodeBasicCategorizer()
header_completion = ["/* This file is automatically generated by the %s script" % os.path.basename(__file__),
" * from the %s file. Do not edit! */" % (CASE_FOLDING_FILE),
""]
c_source.complete_header("\n".join(header_completion))
unicode_data_path = os.path.join(script_args.unicode_dir, UNICODE_DATA_FILE)
special_casing_path = os.path.join(script_args.unicode_dir, SPECIAL_CASING_FILE)
case_folding_path = os.path.join(script_args.unicode_dir, CASE_FOLDING_FILE)
# Read the corresponding unicode values of lower and upper case letters and store these in tables
lower_case, upper_case = categorizer.read_case_mappings(unicode_data_path, special_casing_path)
folding = {}
with open(case_folding_path, 'r') as case_folding:
case_folding_re = re.compile(r'(?P<code_point>[^;]*);\s*(?P<type>[^;]*);\s*(?P<folding>[^;]*);')
for line in case_folding:
match = case_folding_re.match(line)
if match and match.group('type') in ('S', 'C'):
code_point = int(match.group('code_point'), 16)
if categorizer.in_range(code_point):
folding[code_point] = parse_unicode_sequence(match.group('folding'))
should_to_upper = []
should_skip_to_lower = []
for code_point in lower_case:
if code_point not in folding:
should_skip_to_lower.append(code_point)
for code_point, folded in folding.items():
if lower_case.get(code_point, make_char(code_point)) != folded:
should_to_upper.append(code_point)
if upper_case.get(code_point, '') == folded:
should_skip_to_lower.append(code_point)
c_source.add_range('folding_skip_to_lower', categorizer.create_tables(should_skip_to_lower))
c_source.add_range('folding_to_upper', categorizer.create_tables(should_to_upper))
c_source.generate()
# entry point
def main():
parser = argparse.ArgumentParser(description='lit-unicode-{conversions,ranges}-{sup}.inc.h generator',
epilog='''
The input data must be retrieved from
http://www.unicode.org/Public/<VERSION>/ucd/UCD.zip.
The last known good version is 13.0.0.
''')
def check_dir(path):
if not os.path.isdir(path) or not os.access(path, os.R_OK):
raise argparse.ArgumentTypeError('The %s directory does not exist or is not readable!' % path)
return path
parser.add_argument('--unicode-dir', metavar='DIR', action='store', required=True,
type=check_dir, help='specify the unicode data directory')
script_args = parser.parse_args()
generate_ranges(script_args, UNICODE_PLANE_TYPE_BASIC)
generate_ranges(script_args, UNICODE_PLANE_TYPE_SUPPLEMENTARY)
generate_conversions(script_args, UNICODE_PLANE_TYPE_BASIC)
generate_conversions(script_args, UNICODE_PLANE_TYPE_SUPPLEMENTARY)
generate_folding(script_args, UNICODE_PLANE_TYPE_BASIC)
# There are currently no code points in the supplementary planes that require special folding
# generate_folding(script_args, UNICODE_PLANE_TYPE_SUPPLEMENTARY)
if __name__ == "__main__":
main()