247 lines
11 KiB
Python
247 lines
11 KiB
Python
import json
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import re
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import string
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from collections import OrderedDict
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from collections import defaultdict
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#传输技术参数需求的时候后处理
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def extract_matching_keys(data, good_list, special_keys=None, parent_key=''):
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import re
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from collections import defaultdict
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def get_suffix(n):
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"""
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根据数字n返回对应的字母后缀。
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1 -> 'a', 2 -> 'b', ..., 26 -> 'z', 27 -> 'aa', 28 -> 'ab', ...
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"""
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suffix = ''
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while n > 0:
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n, r = divmod(n - 1, 26)
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suffix = chr(97 + r) + suffix
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return suffix
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def count_matching_keys(data, patterns, special_keys, counter=None):
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"""递归统计匹配键的出现次数，仅统计值为列表的键"""
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if counter is None:
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counter = defaultdict(int)
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if isinstance(data, dict):
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for key, value in data.items():
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clean_key = key.replace(" ", "") # 去除键中的空格
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if isinstance(value, list):
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if clean_key not in special_keys and any(pattern.match(clean_key) for pattern in patterns):
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counter[clean_key] += 1
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elif isinstance(value, dict):
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count_matching_keys(value, patterns, special_keys, counter)
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elif isinstance(data, list):
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for item in data:
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if isinstance(item, (dict, list)):
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count_matching_keys(item, patterns, special_keys, counter)
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return counter
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def process_data(data, patterns, special_keys, key_counter, suffix_map, filtered_data, parent_key):
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"""递归处理数据并构建结果"""
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def get_suffix_label(key):
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suffix_map[key] += 1
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return get_suffix(suffix_map[key])
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if isinstance(data, dict):
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for key, value in data.items():
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clean_key = key.replace(" ", "") # 去除键中的空格
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if isinstance(value, list):
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# 处理值为列表的键
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if any(pattern.match(clean_key) for pattern in patterns):
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new_key = generate_key(clean_key, parent_key, key_counter, suffix_map, special_keys)
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filtered_data[new_key] = value
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elif isinstance(value, dict):
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# 继续递归处理嵌套字典
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new_parent_key = clean_key if parent_key == '' else f"{parent_key}的{clean_key}"
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process_data(value, patterns, special_keys, key_counter, suffix_map,
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filtered_data, new_parent_key)
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elif isinstance(data, list):
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for item in data:
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if isinstance(item, (dict, list)):
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process_data(item, patterns, special_keys, key_counter, suffix_map,
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filtered_data, parent_key)
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def generate_key(key, parent_key, key_counter, suffix_map, special_keys):
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"""生成新的键名"""
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if key in special_keys and parent_key:
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return f"{parent_key}的{key}"
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elif key_counter[key] > 1:
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suffix = get_suffix(suffix_map[key] + 1)
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suffix_map[key] += 1
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return f"{key}-{suffix}"
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return key
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if special_keys is None:
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special_keys = ["系统功能"] # 默认值为 ["系统功能"]
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# 去除 good_list 中的空格
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clean_good_list = [g.replace(" ", "") for g in good_list]
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# 构建匹配的正则表达式
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patterns = [re.compile(r'^' + re.escape(g) + r'(?:-\d+)?$') for g in clean_good_list]
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# 先统计所有匹配键的出现次数，仅统计值为列表的键
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key_counter = count_matching_keys(data, patterns, special_keys)
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# 初始化后缀映射
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suffix_map = {key: 0 for key, count in key_counter.items() if count > 1}
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# 用于存储最终结果
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filtered_data = {}
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# 递归处理数据
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process_data(data, patterns, special_keys, key_counter, suffix_map, filtered_data, parent_key)
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return filtered_data
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def postprocess(data):
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"""递归地转换字典中的值为列表，如果所有键对应的值都是'/', '{}' 或 '未知'"""
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def convert_dict(value):
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# 如果所有值是'/', '{}' 或 '未知'
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if all(v in ['/', '未知', {}] for v in value.values()):
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return list(value.keys())
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else:
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# 如果不满足条件，则递归处理嵌套的字典
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return {k: convert_dict(v) if isinstance(v, dict) else v for k, v in value.items()}
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# 递归处理顶层数据
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return {key: convert_dict(val) if isinstance(val, dict) else val for key, val in data.items()}
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def all_postprocess(data):
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temp = restructure_data(data)
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def recursive_process(item):
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if isinstance(item, dict):
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return {k: recursive_process(v) for k, v in item.items()}
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elif isinstance(item, list):
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return remove_common_prefixes(item)
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else:
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return item
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processed_data = recursive_process(temp)
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return processed_data
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def restructure_data(data):
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"""
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重构数据以标准化嵌套层级至三层。
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- 如果所有顶层键的值都是列表（两层结构），直接返回原数据。
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- 如果存在混合的两层和三层结构，或更深层级，则将所有数据统一为三层结构。
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"""
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def get_max_depth(d, current_depth=1):
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"""
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计算字典的最大嵌套深度。
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"""
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if not isinstance(d, dict) or not d:
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return current_depth
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return max(get_max_depth(v, current_depth + 1) for v in d.values())
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# 检查是否所有顶层键的值都是列表（即两层结构）
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all_two_layers = all(isinstance(value, list) for value in data.values())
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if all_two_layers:
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# 所有数据都是两层结构，直接返回
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return data
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# 否则，存在混合或更深层级，需要重构为三层结构
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structured_data = {}
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for key, value in data.items():
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if isinstance(value, dict):
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# 检查是否有子值是字典（即原始深度 >=4）
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has_deeper = any(isinstance(sub_value, dict) for sub_value in value.values())
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if has_deeper:
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# 如果存在更深层级，展开至三层
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for sub_key, sub_value in value.items():
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if isinstance(sub_value, dict):
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# 保留为三层
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structured_data[sub_key] = sub_value
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elif isinstance(sub_value, list):
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# 将两层结构转换为三层结构
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structured_data[sub_key] = {sub_key: sub_value}
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else:
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raise ValueError(f"键'{sub_key}'的数据格式异常: {type(sub_value)}")
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else:
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# 已经是三层结构，保持不变
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structured_data[key] = value
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elif isinstance(value, list):
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# 将两层结构转换为三层结构
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structured_data[key] = {key: value}
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else:
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raise ValueError(f"键'{key}'的数据格式异常: {type(value)}")
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# 检查重构后的数据深度
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max_depth = get_max_depth(structured_data)
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if max_depth > 3:
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# 递归调用以进一步重构
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return restructure_data(structured_data)
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else:
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return structured_data
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# 定义获取所有以'：'结尾的前缀的函数
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def get_prefixes(s):
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prefixes = []
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for i in range(len(s)):
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if s[i] == '：':
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prefixes.append(s[:i+1])
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return prefixes
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# 定义删除公共前缀的函数
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def remove_common_prefixes(string_list):
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# 构建前缀到字符串集合的映射
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prefix_to_strings = {}
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for s in string_list:
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prefixes = get_prefixes(s)
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unique_prefixes = set(prefixes)
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for prefix in unique_prefixes:
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if prefix not in prefix_to_strings:
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prefix_to_strings[prefix] = set()
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prefix_to_strings[prefix].add(s)
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# 找出至少在两个字符串中出现的前缀
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prefixes_occuring_in_multiple_strings = [prefix for prefix, strings in prefix_to_strings.items() if len(strings) >=2]
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# 对每个字符串，找到其匹配的最长前缀并删除
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new_string_list = []
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for s in string_list:
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applicable_prefixes = [prefix for prefix in prefixes_occuring_in_multiple_strings if s.startswith(prefix)]
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if applicable_prefixes:
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# 找到最长的前缀
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longest_prefix = max(applicable_prefixes, key=len)
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# 删除前缀
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new_s = s[len(longest_prefix):]
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new_string_list.append(new_s)
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else:
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new_string_list.append(s)
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return new_string_list
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if __name__ == "__main__":
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# 示例数据
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sample_data = {
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"交通信号机": [
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"★应采用区域控制信号机，并应与广水市交通信号控制系统兼容，信号机能接入已有系统平台，实现联网优化功能。",
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"1、控制功能：（1）区域协调控制：可对单个孤立交叉口、干道多个交叉口和关联性较强的交叉口群进行综合性地信号控制。",
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"1、控制功能：（2）线性协调控制：可对干道多个相邻交叉口进行协调控制。",
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"1、控制功能：（3）多时段控制：可根据交叉口的交通状况，将每天划分为多个不同的时段，每个时段配置不同的控制方案，能设置至少 10个时段、10种以上不同控制方案，能根据不同周日类型对方案进行调整。信号机能够根据内置时钟选择各个时段的控制方案，实现交叉口的合理控制。",
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"2、采集功能：（1）信号机支持接入线圈、地磁、视频、微波、超声波检测器、RFID等多种检测方式。",
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"2、采集功能：（2）信号机支持交通信息采集与统计,并支持交通流量共享。",
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"3、运维功能：（1）信号机能够自动检测地磁故障，若故障，能够自动上传故障信息至监控中心。"
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],
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"高清视频抓拍像机": [
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"1：摄像机：有效像素：≥900W像素",
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"1：摄像机：最低照度：彩色≤0.001lx",
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"1：摄像机：传感器类型：≥1英寸全局曝光 COMS/GMOS/GS COMS",
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"1：摄像机：电子快门：至少满足 1/25s至 1/100,000s，可调",
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"2：视频图像：视频压缩标准：至少支持 H264、H265等",
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"2：视频图像：视频分辨率：≥4096×2160，向下可设置",
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],
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}
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# 处理数据
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result = all_postprocess(sample_data)
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# 输出处理结果
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print(json.dumps(result,ensure_ascii=False,indent=4))
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