Cantor
C
Cantor
Overview :
Cantor is a multimodal chain-of-thought (CoT) framework that leverages a perception-decision architecture to combine visual context acquisition with logical reasoning, effectively solving complex visual reasoning tasks. Acting as a decision generator, Cantor integrates visual input to analyze images and questions, ensuring tighter alignment with real-world scenarios. Furthermore, Cantor utilizes the advanced cognitive capabilities of large language models (LLMs) as multi-faceted experts to deduce higher-level information, enriching the CoT generation process. Extensive experiments on two challenging visual reasoning datasets demonstrate the effectiveness of the proposed framework. Notably, Cantor achieves significant improvements in multimodal CoT performance without requiring fine-tuning or real-world reasoning, surpassing existing baselines."
Target Users :
Cantor is designed for professionals in the education and research fields, particularly researchers and educators tackling complex visual reasoning tasks. Cantor's multimodal chain-of-thought (CoT) framework empowers them to analyze images and questions more effectively, leading to more accurate decisions and answers, ultimately enhancing research and teaching quality.
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Use Cases
Educators use Cantor to analyze scientific questions, enhancing the accuracy of their teaching materials
Researchers leverage Cantor's multimodal CoT framework to solve challenges in the field of visual reasoning
Students learn to integrate visual information and logical reasoning through Cantor, improving their problem-solving skills
Features
Perception-decision architecture effectively integrates visual context and logical reasoning
Decision generation stage considers and deploys the question
Modular execution stage calls upon various expert modules and provides supplementary information
Comprehensive execution stage summarizes supplementary information and generates the final answer through a well-reasoned and detailed thought process
On the ScienceQA dataset, using GPT-3.5 as the base LLM, Cantor achieved an accuracy of 82.39%, outperforming CoT-prompting GPT-3.5 by 4.08%
On the MathVista dataset, Cantor significantly outperformed baselines on nearly all question types, showcasing the power of correct decision-making and modular experts in fostering its refined, in-depth visual understanding and combinatorial reasoning capabilities
Cantor makes significant strides in the domain of multimodal reasoning. Based on GPT-3.5, Cantor surpasses baselines on various tasks, even outperforming renowned LLMs such as SPHINX and LLaVA-1.5
How to Use
Visit Cantor's official website or GitHub page
Read Cantor's introduction and background information to understand its functionalities and advantages
Select the appropriate large language model (LLM) as the base based on your needs
Upload or select the images and questions you want to analyze
Cantor will automatically perform decision generation and modular execution
Review the final answers and reasoning process generated by Cantor
Conduct further research or teaching activities based on the outputs from Cantor
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