276 lines
10 KiB
Python
276 lines
10 KiB
Python
from ChocolateBirdData.reference_implementation import get_base_structarraytypes, parse_struct_definitions_from_tsv_filename, get_structarraytype, LeftoverBits, ReadBuffer, WriteBuffer
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# Singular values may be decimal (no prefix), or any of the prefixes python accepts normally (0x for hex, 0b for binary, 0o for octal)
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# Additionally, hexadecimals may be prefixed with '#' or '$', or suffixed with 'h', e.g. 0x10 #10 $10 10h are all parsed as 16
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# For nested IDs, the format is ONLY like IP addresses:
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# decimal with '.' separator, e.g. 16.127.1
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# hexadecimal with ':' separator, e.g. 10:7f:1
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# Nested IDs do not support prefixes.
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def try_int(v):
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try:
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if v[0] in '#$': # Maybe % too?
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return int(v[1:], 16)
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if v[-1] == 'h':
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return int(v[:-1], 16)
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return int(v, 0)
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except:
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if v == '':
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return None
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return v
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def get_max_number_width(container, fmt: str = 'd') -> int:
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return len(f'{len(container)-1:{fmt}}')
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def get_number_zero_pad(container, fmt: str = 'd') -> str:
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max_digits = len(f'{len(container)-1:{fmt}}') # Could instead call get_max_number_width
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return f'0{max_digits}{fmt}'
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def encode_nested_ids(values: list[int], max_digits: list[int] = None, fmt: str = 'd') -> str:
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delimiter = ':' if fmt in 'Xx' else '.'
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if max_digits:
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return delimiter.join([f'{value:0{digits}{fmt}}' for value, digits in zip(values, max_digits)])
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else:
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return delimiter.join([f'{value:{fmt}}' for value in values])
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def decode_nested_ids(string: str) -> list[int]:
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hex = ':' in string
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delimiter = ':' if hex else '.'
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return [int(i, 16 if hex else 10) for i in string.split(delimiter)]
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def flatten_keys(container: dict | list, prefix: str = '') -> dict:
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output = {}
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def flatten_item(k: str, v):
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if isinstance(v, dict) or isinstance(v, list):
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flat = flatten_keys(v, f'{prefix}{k}.')
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for k2, v2 in flat.items():
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output[k2] = v2
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else:
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output[f'{prefix}{k}'] = v
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if isinstance(container, list):
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fmt = get_number_zero_pad(container, 'd') # Zero pad all of the indices to the same decimal string length as the final one
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for k, v in enumerate(container):
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flatten_item(f'{k:{fmt}}', v)
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elif isinstance(container, dict):
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for k, v in container.items():
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flatten_item(k, v)
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else:
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raise ValueError(f'flatten_keys is undefined for container type "{container}"')
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return output
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def flatten_table(table: list, id_fmt: str = 'x') -> list:
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if len(table) < 1:
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return table # Empty
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if isinstance(table[0], dict): # A simple table
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return [flatten_keys(d) for d in table]
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if isinstance(table[0], list): # Nested lists are bad when expanded as columns, so we'll expand
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print(table[0])
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flattened_table = []
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def flatten_list(data, ids: list[int], id_max_digits: list[int]) -> None:
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if isinstance(data, list):
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max_digits = id_max_digits + [get_max_number_width(data, id_fmt)]
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for id, sub in enumerate(data):
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flatten_list(sub, ids + [id], max_digits)
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else:
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entry = {'ID': encode_nested_ids(ids, id_max_digits, id_fmt)}
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entry.update(flatten_keys(data))
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flattened_table.append(entry)
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flatten_list(table, [], [])
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return flattened_table
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else:
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raise NotImplementedError(table[0])
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def unflatten_keys(d: dict) -> dict:
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output = {}
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for k, v in d.items():
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keysplit = k.split('.')
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target_dict = output
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for prefix in keysplit[:-1]:
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if prefix not in target_dict:
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target_dict[prefix] = {}
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target_dict = target_dict[prefix]
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target_dict[k] = v
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return output
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def unflatten_table(headers: list[str], entries: list):
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if 'ID' not in headers:
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return entries
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# This could be an array of an array of an array of an...
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id0 = entries[0]['ID']
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if '.' not in id0 and ':' not in id0:
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return entries
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# Treat this as a nested array
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table = {tuple(decode_nested_ids(entry['ID'])): entry for entry in entries}
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output = []
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def unflatten_arrays(id_split: tuple[int], cur_array: list, value):
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i, *remainder = id_split
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if len(remainder) > 0:
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while len(cur_array) <= i: # Make sure our array has the index we're about to jump into
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cur_array.append([])
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unflatten_arrays(remainder, cur_array[i], value)
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else:
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while len(cur_array) <= i: # Make sure our array has the index we're about to overwrite
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cur_array.append(None)
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cur_array[i] = value
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for id_split in sorted(table.keys()):
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unflatten_arrays(id_split, output, table[id_split])
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return output
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def dump_tsv(filename, table, id_column=True) -> None:
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table_flat = flatten_table(table)
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with open(filename, 'w') as file:
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headers = list(table_flat[0].keys())
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if id_column and 'ID' not in headers: # Some flattened tables build their own ID column!
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# See how long the hex representation of the last number will be, so we can zero-pad the rest to match.
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fmt = get_number_zero_pad(table_flat, 'X')
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file.write('\t'.join(['ID'] + headers) + '\n')
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for i, entry in enumerate(table_flat):
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file.write('\t'.join([f'0x{i:{fmt}}'] + [str(entry[key]) for key in headers]) + '\n')
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else:
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file.write('\t'.join(headers) + '\n')
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for i, entry in enumerate(table_flat):
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file.write('\t'.join([str(entry[key]) for key in headers]) + '\n')
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def load_tsv(filename) -> list:
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with open(filename, 'r') as file:
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lines = file.read().rstrip().split('\n')
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if len(lines) < 2:
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return []
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headers = lines[0].split('\t')
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# Simple line-by-line unflatten
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entries = []
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for line in lines[1:]:
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entry = {key: try_int(value) for key, value in zip(headers, line.split('\t'))}
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entries.append(unflatten_keys(entry))
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return unflatten_table(headers, entries)
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def load_ff5_snes_struct_definitions() -> dict:
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existing_structs = get_base_structarraytypes()
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parse_struct_definitions_from_tsv_filename('ChocolateBirdData/structs_SNES_stubs.tsv', existing_structs)
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parse_struct_definitions_from_tsv_filename('ChocolateBirdData/5/structs/SNES_stubs.tsv', existing_structs)
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parse_struct_definitions_from_tsv_filename('ChocolateBirdData/5/structs/SNES.tsv', existing_structs)
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parse_struct_definitions_from_tsv_filename('ChocolateBirdData/5/structs/SNES_save.tsv', existing_structs)
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return existing_structs
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class FF5SNESHandler:
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struct_definitions: dict = load_ff5_snes_struct_definitions()
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addresses: dict = {entry['Label']: entry for entry in load_tsv('ChocolateBirdData/5/addresses_SNES_PSX.tsv')}
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def extract(self, table: str, in_buffer) -> list[dict]:
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# Deserialize a table
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leftover_bits = LeftoverBits()
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entry = self.addresses[table] # Remember to try/catch
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offset = entry['SNES']
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buf = ReadBuffer(in_buffer, offset)
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return get_structarraytype(entry['format'], self.struct_definitions).get_value(buf, leftover_bits)
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def build(self, table: str, new_data: list[dict], out_buffer):
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# Serialize complete data. This WILL fail if the input data is incomplete.
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leftover_bits = LeftoverBits()
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entry = self.addresses[table] # Remember to try/catch
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offset = entry['SNES']
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buf = WriteBuffer(out_buffer, offset)
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get_structarraytype(entry['format'], self.struct_definitions).put_value(buf, new_data, leftover_bits)
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def build_partial(self, table: str, new_data: list[dict], in_buffer, out_buffer):
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# Safely merge partial data over the existing data, then serialize it.
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existing_data = self.extract(table, in_buffer)
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for i, new in enumerate(new_data):
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id = new.get('ID', i)
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for k, v in new.items():
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if k != 'ID' and v is not None: # Allow holes in the table for values we don't care about overwriting
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existing_data[id][k] = v
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self.build(table, existing_data, out_buffer)
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if __name__ == '__main__':
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from argparse import ArgumentParser
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parser = ArgumentParser(description='The ROMhacking Table Compiler.')
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parser.add_argument('action', choices=['extract', 'build'])
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parser.add_argument('rom', help='The ROM to use as a basis for extracting data.')
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parser.add_argument('project', help='The project folder to extract data to, or compile data from.')
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parser.add_argument('tables', nargs='*', help='Specify which tables to extract or compile, separated by spaces. If left empty, nothing will be extracted, or all tables in a project will be compiled. See the labels in https://git.ufeff.net/birdulon/ChocolateBirdData/src/branch/master/5/addresses_SNES_PSX.tsv for a list of values which may be used, though bear in mind things such as graphics and maps are currently not supported in a sensible way.')
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args = parser.parse_args()
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if args.project:
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project_folder = args.project.rstrip('/') + '/'
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project_folder_len = len(project_folder)
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from glob import glob
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from configparser import ConfigParser
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config = ConfigParser()
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config['TabComp.Project'] = {'Game': 'Final Fantasy V', 'Platform': 'SNES', 'Region': 'any'}
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try:
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with open(f'{project_folder}project.ini', 'r') as configfile:
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config.read_file(configfile)
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except FileNotFoundError:
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pass
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with open(f'{project_folder}project.ini', 'w') as configfile:
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config.write(configfile)
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def run():
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game = config['TabComp.Project']['Game']
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platform = config['TabComp.Project']['Platform']
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if game != 'Final Fantasy V' or platform != 'SNES':
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print(f'Unsupported ROM for project - "{game}" on "{platform}"')
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return
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handler = FF5SNESHandler()
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if not args.rom:
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print('No ROM specified!')
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return
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with open(args.rom, 'rb') as file:
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rom_bytes = file.read()
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in_buffer = bytearray(rom_bytes)
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match args.action:
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case 'extract':
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if not args.tables:
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print('Must specify tables to extract!')
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return
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tables = [table for table in args.tables]
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print(f'Attempting to extract tables {tables}')
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for table in tables:
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data = handler.extract(table, in_buffer)
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dump_tsv(f'{project_folder}{table}.tsv', data)
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print('Done extracting!')
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case 'build':
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tables = [table for table in args.tables]
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if not args.tables:
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# Find all .tsv files in project folder
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tables = [file[project_folder_len:-4] for file in glob(f'{project_folder}*.tsv')]
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print(f'Attempting to build tables {tables}')
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out_buffer = bytearray(rom_bytes)
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for table in tables:
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data = load_tsv(f'{project_folder}{table}.tsv')
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handler.build_partial(table, data, in_buffer, out_buffer)
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out_filename = f'{project_folder}rom.sfc'
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with open(out_filename, 'wb') as file:
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file.write(out_buffer)
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print(f'Compiled to "{out_filename}", make your own .ips from this')
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case _:
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'Invalid action!'
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return
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run()
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