******************************************************************************** Step 1 ******************************************************************************** ------Action------ THOUGHT: None ACTION TYPE: None ACTION CONTENT: None -----Response----- RESPONSE (User Message): USER QUERY: "I have an image COCO_train2014_000000113236.jpg. Could you extract any text present in the image and then use that information to generate a detailed, contextual description about traffic rules and how it's related to this image? Then, analyze and identify the overall sentiment of the generated description." Any files mentioned in the query will be located at /root/input_data. E.g. if the query mentions example.png, it will be located at /root/input_data/example.png. Use the code base located at `/root/mnm/mnm` to solve this query. Your current directory is `/root/playground`. If the import path in retrieved code block says `testing/dir_name/file_name.py` and you want to import variable, function or class called `obj` from this file, then import using `from testing.dir_name.file_name import obj`. The code base path has either been installed via pip or has been already been added to the system path via ``` import sys sys.path.extend(['/root/mnm']) ``` ******************************************************************************** Step 2 ******************************************************************************** ------Action------ THOUGHT: First, I need to find a function that can transcribe text from an image, which is typically referred to as optical character recognition (OCR). I will search for a function in the codebase that can perform this task. Once I have the text, I will then look for a function that can generate a detailed description based on the text extracted. Finally, I will search for a function that can analyze the sentiment of the generated description. ACTION TYPE: search ACTION CONTENT: type: FUNCTION AND text: transcribe type: FUNCTION AND text: generate AND text: description type: FUNCTION AND text: sentiment -----Response----- RESPONSE (Retrieval Result): QUERY: type: FUNCTION AND text: transcribe CODE BLOCKS: --- file_path=mnm/tool_api.py lines=[195, 226] type=FUNCTION content={ def automatic_speech_recognition(audio: str, ckpt=MODEL_SELECTION['automatic_speech_recognition']): """ Performs automatic speech recognition on an audio file using a pre-trained model. Args: audio (str): The file path to the audio file to be transcribed. ckpt (str, optional): The checkpoint identifier of the pre-trained model to use. Defaults to the model specified in MODEL_SELECTION["automatic_speech_recognition"]. Returns: dict: A dictionary containing the transcription of the audio file with the key 'text'. Raises: ImportError: If the required libraries (librosa, transformers) are not installed. Examples: >>> transcription = automatic_speech_recognition("path/to/audio/file.wav") >>> print(transcription) {'text': 'The transcribed text of the audio.'} """ ... } --- file_path=mnm/tool_api.py lines=[413, 461] type=FUNCTION content={ def image_segmentation(image, ckpt=MODEL_SELECTION['image_segmentation']): """ Segments an image into different parts using a pre-trained MaskFormer model and outputs segmentation masks along with additional information for each segment. Args: image: The input image to be segmented. ckpt: A string or a dictionary key that specifies the pre-trained model checkpoint to be used for segmentation. Defaults to a pre-selected model checkpoint from a MODEL_SELECTION dictionary. Returns: A dictionary containing the original image and a list of objects. Each object in the list is a dictionary with keys 'mask', 'label', 'bbox', and 'inst_id', representing the segmentation mask, label, bounding box, and instance ID, respectively. Raises: ImportError: If required modules (numpy, torch, transformers, PIL) are not installed. Examples: # Assuming `image` is a PIL image and `MODEL_SELECTION` is defined segmentation_result = image_segmentation(image) for obj in segmentation_result['objects']: print(obj['label'], obj['bbox']) """ ... } --- file_path=mnm/tool_api.py lines=[228, 249] type=FUNCTION content={ def image_generation(text: str, ckpt=MODEL_SELECTION["image_generation"]): """ It takes a text prompt and generates an image that matches the text description. """ if ckpt == "stabilityai/stable-diffusion-xl-base-1.0": text = text_processing(text) from diffusers import DiffusionPipeline generator = DiffusionPipeline.from_pretrained( pretrained_model_name_or_path=ckpt, torch_dtype=torch.float16, use_safetensors=True, variant="fp16", ).to(DEVICE) result = generator(prompt=text).images[0] result_formatted = {"image": result} return result_formatted } --- (7 additional code blocks not shown. Search again with the same query to see additional results.) Prototypes for the next 7 out of 7 classes/functions found in unexpanded results (search again with the same query to see details): def visual_question_answering(image, question, ckpt=MODEL_SELECTION['visual_question_answering']): ... # mnm/tool_api.py def image_classification(image, ckpt=MODEL_SELECTION['image_classification']): ... # mnm/tool_api.py def object_detection(image, ckpt=MODEL_SELECTION['object_detection']): ... # mnm/tool_api.py def image_editing(image, prompt: str, ckpt=MODEL_SELECTION['image_editing']): ... # mnm/tool_api.py def question_answering(question: str, text: str, ckpt=MODEL_SELECTION['question_answering']): ... # mnm/tool_api.py def text_processing(file_path): ... # mnm/tool_api.py def optical_character_recognition(image, ckpt=MODEL_SELECTION['optical_character_recognition']): ... # mnm/tool_api.py QUERY: type: FUNCTION AND text: generate AND text: description CODE BLOCKS: --- file_path=mnm/tool_api.py lines=[251, 267] type=FUNCTION content={ def image_captioning( image, ckpt=MODEL_SELECTION["image_captioning"] ): # alternative: nlpconnect/vit-gpt2-image-captioning (testing, blip is better than vit-gpt2)z """ It takes an image and generates a text caption of the image. """ image = image_processing(image) pipe = pipeline("image-to-text", model=ckpt) result = pipe( image ) # [{'generated_text': 'there is a small white dog sitting next to a cell phone'}] result_formatted = {"text": result[0]["generated_text"]} return result_formatted } --- file_path=mnm/tool_api.py lines=[348, 375] type=FUNCTION content={ def visual_question_answering(image, question, ckpt=MODEL_SELECTION['visual_question_answering']): """ Processes an image and a question about the image, then generates an answer using a pre-trained model. Args: image: The image to be processed. question: The question related to the image. ckpt: The checkpoint or model identifier for the pre-trained model. Defaults to MODEL_SELECTION["visual_question_answering"]. Returns: A dictionary with a key 'text' containing the generated answer to the question. Examples: >>> answer = visual_question_answering(my_image, "What is in this image?") >>> print(answer['text']) "A cat sitting on a windowsill." """ ... } --- file_path=mnm/tool_api.py lines=[111, 141] type=FUNCTION content={ def text_generation(text: str, ckpt=MODEL_SELECTION['text_generation']): """ Generates a continuation of the given input text using a specified language model. Args: text (str): The input text prompt to be continued. ckpt (str, optional): The identifier for the language model to be used. Defaults to the model specified in MODEL_SELECTION["text_generation"]. Returns: dict: A dictionary containing the generated text under the key 'text'. Raises: KeyError: If the OPENAI_API_KEY environment variable is not set. APIError: If the OpenAI API encounters an issue with the request. Examples: >>> generated_text = text_generation("Once upon a time") >>> print(generated_text) {'text': '...continued text from the model...'} """ ... } --- (11 additional code blocks not shown. Search again with the same query to see additional results.) Prototypes for the next 7 out of 11 classes/functions found in unexpanded results (search again with the same query to see details): def search_movie(movie_title: str, movie_year: str, ckpt=None): ... # mnm/tool_api.py def image_editing(image, prompt: str, ckpt=MODEL_SELECTION['image_editing']): ... # mnm/tool_api.py def image_classification(image, ckpt=MODEL_SELECTION['image_classification']): ... # mnm/tool_api.py def get_location(city: str, ckpt=None): ... # mnm/tool_api.py def text_classification(text: str, ckpt=MODEL_SELECTION['text_classification']): ... # mnm/tool_api.py def emoji(image, object, emoji, ckpt=None): ... # mnm/tool_api.py def get_date_fact(date: str, ckpt=None): ... # mnm/tool_api.py QUERY: type: FUNCTION AND text: sentiment CODE BLOCKS: --- file_path=mnm/tool_api.py lines=[165, 176] type=FUNCTION content={ def text_classification(text: str, ckpt=MODEL_SELECTION['text_classification']): """ Classifies a given text into a category based on the model's vocabulary. Args: text (str): The text to be classified. ckpt: The model checkpoint to use for classification. Defaults to MODEL_SELECTION["text_classification"]. Returns: dict: A dictionary with the key 'text' and the value as the classification label. Examples: >>> text_classification("I love sunny days.") {'text': 'POSITIVE'} """ ... } --- file_path=mnm/tool_api.py lines=[491, 534] type=FUNCTION content={ def image_crop(image, object, ckpt=None): """ Crops an image to the region within a specified bounding box. Args: image: The image to be cropped. object: A dictionary containing the bounding box coordinates with the key 'bbox'. ckpt: Optional; a checkpoint or state to use for additional processing (not used in the current implementation). Returns: A dictionary with the key 'image' containing the cropped image. Raises: ValueError: If the bounding box is a string and cannot be converted to a list of coordinates. Examples: # Assuming `img` is an image object and `obj` is a dict with bbox coordinates cropped_image_result = image_crop(img, obj) cropped_image = cropped_image_result['image'] """ ... } --- file_path=mnm/tool_api.py lines=[840, 861] type=FUNCTION content={ def get_date_fact(date: str, ckpt=None): """ It provides interesting facts about dates. """ from dateutil import parser date_str = date dt = parser.parse(date_str) formatted_date = dt.strftime("%m/%d") url = f"https://numbersapi.p.rapidapi.com/{formatted_date}/date" params = {"fragment": "true", "json": "true"} headers = { "X-RapidAPI-Key": RAPID_API_KEY, "X-RapidAPI-Host": "numbersapi.p.rapidapi.com", } response = requests.get(url, headers=headers, params=params) result_formatted = response.json() return result_formatted } --- (12 additional code blocks not shown. Search again with the same query to see additional results.) Prototypes for the next 7 out of 12 classes/functions found in unexpanded results (search again with the same query to see details): def get_weather(lon: str, lat: str, ckpt=None): ... # mnm/tool_api.py def image_processing(img): ... # mnm/tool_api.py def text_summarization(text: str, ckpt=MODEL_SELECTION['text_summarization']): ... # mnm/tool_api.py def get_year_fact(year: str, ckpt=None): ... # mnm/tool_api.py def get_trivia_fact(number: str, ckpt=None): ... # mnm/tool_api.py def get_math_fact(number: str, ckpt=None): ... # mnm/tool_api.py def get_location(city: str, ckpt=None): ... # mnm/tool_api.py ******************************************************************************** Step 3 ******************************************************************************** ------Action------ THOUGHT: The search results returned a function named `optical_character_recognition` which seems to be the right function for extracting text from an image. Next, I found the `text_generation` function that can be used to generate a detailed description based on the extracted text. Finally, the `text_classification` function can be used to analyze the sentiment of the generated description. I will now write the code to perform these tasks step by step. ACTION TYPE: code ACTION CONTENT: from mnm.tool_api import optical_character_recognition, text_generation, text_classification # Step 1: Extract text from the image using OCR image_path = '/root/input_data/COCO_train2014_000000113236.jpg' extracted_text = optical_character_recognition(image=image_path) # Step 2: Generate a detailed, contextual description about traffic rules related to the extracted text description_prompt = f"{extracted_text['text']} Traffic rules" generated_description = text_generation(text=description_prompt) # Step 3: Analyze the overall sentiment of the generated description sentiment_analysis = text_classification(text=generated_description['text']) -----Response----- RESPONSE (Execution Result): STDOUT: {'text': '1. Obey all traffic signs and signals.\n2. Respect the speed limits.\n3. Use turn signals when changing lanes or making turns.\n4. Maintain a safe following distance between vehicles.\n5. Stop at stop signs and red lights.\n6. Yield to pedestrians and cyclists.\n7. Do not drive under the influence of drugs or alcohol.\n8. Wear your seatbelt at all times.\n9. Do not use your phone while driving.\n10. Keep your vehicle properly maintained and roadworthy.'} RELEVANT VARIABLES (only shown if string rep. has changed after code exec): {"optical_character_recognition": , "text_generation": , "text_classification": , "image_path": /root/input_data/COCO_train2014_000000113236.jpg, "extracted_text": {'text': 'STOP-'}, "description_prompt": STOP- Traffic rules, "generated_description": {'text': '1. Obey all traffic signs and signals.\n2. Respect the speed limits.\n3. Use turn signals when changing lanes or making turns.\n4. Maintain a safe following distance between vehicles.\n5. Stop at stop signs and red lights.\n6. Yield to pedestrians and cyclists.\n7. Do not drive under the influence of drugs or alcohol.\n8. Wear your seatbelt at all times.\n9. Do not use your phone while driving.\n10. Keep your vehicle properly maintained and roadworthy.'}, "sentiment_analysis": {'text': 'POSITIVE'}} ******************************************************************************** Step 4 ******************************************************************************** ------Action------ THOUGHT: The code execution was successful. The OCR function extracted the text "STOP-" from the image. Using this text, the `text_generation` function generated a detailed description about traffic rules. The sentiment analysis classified the sentiment of the description as 'POSITIVE'. I will now summarize the solution using the code_summary action. ACTION TYPE: code_summary ACTION CONTENT: from mnm.tool_api import optical_character_recognition, text_generation, text_classification output0 = optical_character_recognition(image='/root/input_data/COCO_train2014_000000113236.jpg') output1 = text_generation(text=f"{output0['text']} Traffic rules") output2 = text_classification(text=output1['text']) -----Response----- RESPONSE (User Message): Summary received and stored. ******************************************************************************** Step 5 ******************************************************************************** ------Action------ THOUGHT: The task has been completed successfully, and the user has acknowledged the receipt of the code summary. ACTION TYPE: done ACTION CONTENT: True -----Response----- None