import re import duckdb import textwrap from typing import List, Tuple import argparse def _parse_answer(text: str) -> List[List[str]]: """ Converts text to lowercase. Then interprets ";" as a separator between alternatives. Within each alternative, interprets "," and "-->" as separators for elements of a set. Within each set, drops all non-alphanumeric characters and returns that set. Another way to describe this is that we interpret adjacent words as phrases that must be present literally. However, comma and arrow separate distinct phrases that may be present in any order. All other characters are dropped. """ text = text.lower() alternatives = re.split(r';', text) result = [ ] for alternative in alternatives: groups = re.split(r'-->|,', alternative) result.append([" ".join(re.findall(r'\b\w+\b', group)) for group in groups]) return result def _answer_without_thoughts(completion: str) -> str: if "" not in completion[:200]: return completion chunks = completion.split("") if len(chunks) <= 1: return "" return chunks[-1].strip() def _check_answer(completion: str, answer: str) -> bool: """ Check that all the phrases that must appear in the answer appear in the completion. We ignore "thoughts", capitalization, and punctuation. """ completion = _answer_without_thoughts(completion).lower() alternative_answers = _parse_answer(answer) for answer_phrases in alternative_answers: if all(phrase in completion for phrase in answer_phrases): return True return False def _clip_text(text: str, width: int) -> str: return text if len(text) <= width else text[:width] + "..." def _wrap_text(text: str, width: int) -> str: return textwrap.fill(text, width=width) def load_results(): conn = duckdb.connect(":memory:") conn.execute("ATTACH DATABASE 'results.duckdb' AS results (READ_ONLY)") conn.execute("CREATE TABLE challenges as SELECT * FROM 'puzzles_cleaned.csv'") conn.create_function("check_answer", _check_answer) conn.create_function("clip_text", _clip_text) conn.create_function("wrap_text", _wrap_text) return conn def r1_accuracy_by_completion_length(conn): """ For the responses from the completions-r1 model: 1. We calculate completion length and correctness for each problem. 2. We sort by length. 3. We compute cumulative number of correct responses. """ # Use CTEs r1_completions = conn.sql(""" WITH LengthsAndCorrectness AS ( SELECT LENGTH(results.completion) AS length, CAST(check_answer(results.completion, challenges.answer) AS INT32) AS correct FROM results.completions results JOIN challenges ON results.prompt_id = challenges.ID WHERE results.parent_dir = 'completions-r1' ) SELECT length, COUNT(*) OVER (ORDER BY length) AS cumulative_correct FROM LengthsAndCorrectness """) return r1_completions def accuracy_by_model_and_time(conn): model_accuracies = conn.sql(""" WITH ChallengesWithDates AS ( SELECT ID, answer, EXTRACT(YEAR FROM CAST(date AS DATE)) AS year FROM challenges ), DateAnswerCheck AS ( SELECT results.parent_dir AS model, dates.year, COUNT(*) AS total, SUM(CAST(check_answer(results.completion, dates.answer) AS INTEGER)) AS correct FROM results.completions results JOIN ChallengesWithDates dates ON results.prompt_id = dates.ID GROUP BY results.parent_dir, dates.year ) SELECT model, year, total, correct, ROUND(correct / total, 2) AS accuracy FROM DateAnswerCheck ORDER BY model, year """) return model_accuracies def accuracy_by_model(conn): return conn.sql(""" WITH AnswerCheck AS ( SELECT results.parent_dir AS model, COUNT(*) AS total, SUM(CAST(check_answer(results.completion, challenges.answer) AS INTEGER)) AS correct FROM results.completions results JOIN challenges challenges ON results.prompt_id = challenges.ID GROUP BY results.parent_dir ) SELECT model, total, correct, ROUND(correct / total, 2) AS accuracy FROM AnswerCheck """) def main(): parser = argparse.ArgumentParser() parser.add_argument("--by-model-and-time", action="store_true") args = parser.parse_args() conn = load_results() if args.by_model_and_time: print(accuracy_by_model_and_time(conn)) else: print(accuracy_by_model(conn)) if __name__ == "__main__": main()