Spaces:
Sleeping
Sleeping
import gradio as gr | |
import ctranslate2 | |
from transformers import AutoTokenizer | |
from huggingface_hub import snapshot_download | |
from codeexecutor import get_majority_vote | |
import re | |
# Define the model and tokenizer loading | |
model_prompt = "Explain and solve the following mathematical problem step by step, showing all work: " | |
tokenizer = AutoTokenizer.from_pretrained("AI-MO/NuminaMath-7B-TIR") | |
model_path = snapshot_download(repo_id="Makima57/deepseek-math-Numina") | |
generator = ctranslate2.Generator(model_path, device="cpu", compute_type="int8") | |
iterations = 10 | |
# Function to generate predictions using the model | |
def get_prediction(question): | |
input_text = model_prompt + question | |
input_tokens = tokenizer.tokenize(input_text) | |
results = generator.generate_batch( | |
[input_tokens], | |
max_length=512, | |
sampling_temperature=0.7, | |
sampling_topk=40, | |
) | |
output_tokens = results[0].sequences[0] | |
predicted_answer = tokenizer.convert_tokens_to_string(output_tokens) | |
return predicted_answer | |
# Function to parse the prediction to extract the answer and steps | |
def parse_prediction(prediction): | |
lines = prediction.strip().split(' | |
') | |
answer = None | |
steps = [] | |
for line in lines: | |
# Check for "Answer:" or "answer:" | |
match = re.match(r'^\s*(?:Answer|answer)\s*[:=]\s*(.*)', line) | |
if match: | |
answer = match.group(1).strip() | |
else: | |
steps.append(line) | |
if answer is None: | |
# If no "Answer:" found, assume last line is the answer | |
answer = lines[-1].strip() | |
steps = lines[:-1] | |
steps_text = ' | |
'.join(steps).strip() | |
return answer, steps_text | |
# Function to perform majority voting and get steps | |
def majority_vote_with_steps(question, num_iterations=10): | |
all_predictions = [] | |
all_answers = [] | |
steps_list = [] | |
for _ in range(num_iterations): | |
prediction = get_prediction(question) | |
answer, steps = parse_prediction(prediction) | |
all_predictions.append(prediction) | |
all_answers.append(answer) | |
steps_list.append(steps) | |
# Get the majority voted answer | |
majority_voted_ans = get_majority_vote(all_answers) | |
# Find the steps corresponding to the majority voted answer | |
for i, ans in enumerate(all_answers): | |
if ans == majority_voted_ans: | |
steps_solution = steps_list[i] | |
break | |
else: | |
steps_solution = "No steps found" | |
return majority_voted_ans, steps_solution | |
# Gradio interface for user input and output | |
def gradio_interface(question, correct_answer): | |
final_answer, steps_solution = majority_vote_with_steps(question, iterations) | |
return { | |
"Question": question, | |
"Majority-Voted Answer": final_answer, | |
"Steps to Solve": steps_solution, | |
"Correct Solution": correct_answer | |
} | |
# Custom CSS for enhanced design (unchanged) | |
# Gradio app setup | |
interface = gr.Interface( | |
fn=gradio_interface, | |
inputs=[ | |
gr.Textbox(label="π§ Math Question", placeholder="Enter your math question here...", elem_id="math_question"), | |
gr.Textbox(label="β Correct Answer", placeholder="Enter the correct answer here...", elem_id="correct_answer"), | |
], | |
outputs=[ | |
gr.JSON(label="π Results"), # Display the results in a JSON format | |
], | |
title="π’ Math Question Solver", | |
description="Enter a math question to get the model's majority-voted answer and steps to solve the problem.", | |
) | |
if __name__ == "__main__": | |
interface.launch() | |