da vinci code
Mastering Da Vinci Code: A Comparative Study of Transformer, LLM, and PPO-based Agents
Zhang, LeCheng, Wang, Yuanshi, Shen, Haotian, Wang, Xujie
The Da Vinci Code, a game of logical deduction and imperfect information, presents unique challenges for artificial intelligence, demanding nuanced reasoning beyond simple pattern recognition. This paper investigates the efficacy of various AI paradigms in mastering this game. We develop and evaluate three distinct agent architectures: a Transformer-based baseline model with limited historical context, several Large Language Model (LLM) agents (including Gemini, DeepSeek, and GPT variants) guided by structured prompts, and an agent based on Proximal Policy Optimization (PPO) employing a Transformer encoder for comprehensive game history processing. Performance is benchmarked against the baseline, with the PPO-based agent demonstrating superior win rates ($58.5\% \pm 1.0\%$), significantly outperforming the LLM counterparts. Our analysis highlights the strengths of deep reinforcement learning in policy refinement for complex deductive tasks, particularly in learning implicit strategies from self-play. We also examine the capabilities and inherent limitations of current LLMs in maintaining strict logical consistency and strategic depth over extended gameplay, despite sophisticated prompting. This study contributes to the broader understanding of AI in recreational games involving hidden information and multi-step logical reasoning, offering insights into effective agent design and the comparative advantages of different AI approaches.
Development and Application of a Monte Carlo Tree Search Algorithm for Simulating Da Vinci Code Game Strategies
Zhang, Ye, Zhu, Mengran, Gui, Kailin, Yu, Jiayue, Hao, Yong, Sun, Haozhan
In this study, we explore the efficiency of the Monte Carlo Tree Search (MCTS), a prominent decision-making algorithm renowned for its effectiveness in complex decision environments, contingent upon the volume of simulations conducted. Notwithstanding its broad applicability, the algorithm's performance can be adversely impacted in certain scenarios, particularly within the domain of game strategy development. This research posits that the inherent branch divergence within the Da Vinci Code board game significantly impedes parallelism when executed on Graphics Processing Units (GPUs). To investigate this hypothesis, we implemented and meticulously evaluated two variants of the MCTS algorithm, specifically designed to assess the impact of branch divergence on computational performance. Our comparative analysis reveals a linear improvement in performance with the CPU-based implementation, in stark contrast to the GPU implementation, which exhibits a non-linear enhancement pattern and discernible performance troughs. These findings contribute to a deeper understanding of the MCTS algorithm's behavior in divergent branch scenarios, highlighting critical considerations for optimizing game strategy algorithms on parallel computing architectures.
Multi-Document Summarization with Determinantal Point Process Attention
Perez-Beltrachini, Laura, Lapata, Mirella
The ability to convey relevant and diverse information is critical in multi-document summarization and yet remains elusive for neural seq-to-seq models whose outputs are often redundant and fail to correctly cover important details. In this work, we propose an attention mechanism which encourages greater focus on relevance and diversity. Attention weights are computed based on (proportional) probabilities given by Determinantal Point Processes (DPPs) defined on the set of content units to be summarized. DPPs have been successfully used in extractive summarisation, here we use them to select relevant and diverse content for neural abstractive summarisation. We integrate DPP-based attention with various seq-to-seq architectures ranging from CNNs to LSTMs, and Transformers. Experimental evaluation shows that our attention mechanism consistently improves summarization and delivers performance comparable with the state-of-the-art on the MultiNews dataset.
Bestselling author Dan Brown, of 'The Da Vinci Code,' discusses his latest work
On Monday's St. Louis on the Air, world-renowned author Dan Brown, most famous for "The Da Vinci Code," joined host Don Marsh to discuss his most recent novel, "Origin." The book, featuring the famous character Robert Langdon again, will be released on Oct. 3 and centers heavily on new technology. "I've spent a lot of time talking to scientists in the field talking about artificial intelligence, and they really disagree about whether it will be a boon for humanity," Brown said. "Will it solve problems like scarcity, pollution, over population? A.I. could have a very positive role. At the same time, it could have an ominous role. It is powerful and could get more powerful. Will this technology be used for harm?" Brown said that, starting book, he knew very little about artificial intelligence.
SAPVoice: The Da Vinci Code to the Internet of Things
Opinions expressed by Forbes Contributors are their own. The author is a Forbes contributor. The opinions expressed are those of the writer. Over the holiday, I spent a great afternoon at the Boston Museum of Science, which is currently running an exhibition called "Da Vinci – The Genius." The exhibition brings to life the genius of Leonardo da Vinci as an inventor, scientist, engineer, architect, sculptor, and artist.