Core Insights - The article presents a novel approach called Code2Logic, which utilizes game code to synthesize multimodal reasoning data, enhancing the reasoning capabilities of visual language models (VLMs) [47][48]. - The research indicates that training AI using game scenarios can significantly improve its performance in geometric and graphical reasoning tasks [1][24]. Data and Model - The scarcity of high-quality multimodal reasoning data limits the advancement of VLMs' complex reasoning abilities, prompting the need for a cost-effective method to generate such data [4]. - The research team from Fudan University and ByteDance proposes leveraging game code to automatically synthesize visual reasoning data, capitalizing on the structured nature of games [12][13]. Methodology - The Code2Logic method involves three core steps: generating game code using large language models (LLMs), designing question-answer templates from the game code, and constructing an automated data engine to generate Q&A instances [13][14][15]. - The GameQA dataset created through this method encompasses 30 games, 158 reasoning tasks, and 140,000 Q&A pairs, showcasing its scalability and diversity [18]. Training and Performance - Training on GameQA data leads to significant performance improvements in both in-domain and out-of-domain tasks, demonstrating the generalization capabilities of models trained with this dataset [24][25]. - The study reveals that models trained with GameQA outperform those trained on traditional geometric reasoning datasets, indicating the cognitive diversity and reasoning complexity inherent in game data [28][29]. Scaling Effects - The research identifies two scaling effects: increased game variety enhances out-of-domain generalization, and sample diversity correlates positively with generalization performance [37][38]. - These findings suggest that the diversity and scalability of GameQA contribute to stronger generalization in reasoning tasks [39]. Limitations and Challenges - The analysis highlights key limitations in VLMs' reasoning capabilities, particularly in 3D spatial perception, pattern recognition, and strategic planning [42][45]. - The study emphasizes the need for further improvements in models' abilities to handle complex reasoning tasks effectively [46].