Group 1 - The article highlights several upcoming AI events worth participating in, including the Bol Research Intelligent Agent Development Competition and the Yuan Chuang Camp AI Agent Innovation Competition [2][10] - The Bol Research Intelligent Agent Development Competition is organized by Deep Sense Technology, Beijing Science and Intelligence Research Institute, and Shanghai Jiao Tong University, with two phases scheduled from September 11 to October 10, 2025, and October to December 2025 [4] - The Yuan Chuang Camp AI Agent Innovation Competition focuses on AI and interactive entertainment, offering a total prize pool of 1 million yuan, with the first evaluation awarding 200,000 yuan and the second 800,000 yuan [9][10] Group 2 - The S Innovation Monthly Roadshow will take place on October 24, featuring 10 future intelligence projects, with the top two advancing to the S Innovation Shanghai 2026 Science and Technology Conference [11] - The EquatorQ AI Global Future Summit is scheduled for October 17-18, showcasing nearly a hundred industry experts and offering deep discussions on innovative projects and AI research reports [12] - NVIDIA is currently recruiting for its startup acceleration program, providing members with access to free deep learning training, SDKs, and business networking opportunities [14][15]

Core Insights - The article presents a comprehensive guide for constructing scientific agents based on large language models (LLMs), emphasizing the integration of AI in scientific research and addressing the epistemological and methodological gaps between AI and natural sciences [2][4]. Summary by Sections Overview of Scientific Agents - The guide aims to provide a structured approach to building scientific agents, detailing the levels of agent capabilities and construction strategies throughout the entire scientific research lifecycle [2][4]. Levels of Scientific Agents - Scientific agents are categorized into three levels: - **Agent as Assistant**: Limited to specific tasks within a domain, constructed using small models through post-training or fine-tuning, with high performance in specialized tasks but lacking comprehensive operational capabilities [8]. - **Agent as Partner**: Integrates various tools for enhanced capabilities, utilizing closed-source large models and modular design to independently perform tasks like literature consultation and hypothesis generation, though still limited in self-validation and reliability [8]. - **Agent as Avatar**: Focuses on multi-dimensional capability enhancement, featuring strong reasoning, memory, and collaboration skills, capable of providing comprehensive support across various research stages [8]. Construction Process of Scientific Agents - The construction process involves three main components: - **Knowledge Organization**: Structuring scientific information for effective understanding and reasoning, including unstructured sequences, structured data, instructions, and knowledge graphs [12][14]. - **Knowledge Injection**: Embedding domain-specific expertise into agents through explicit or implicit methods to enhance their problem-solving capabilities [12][14]. - **Tool Integration**: Expanding agent functionalities by incorporating external tools for specialized tasks, enabling autonomous operation and coordination of resources [12][14]. Capability Enhancement of Scientific Agents - Enhancements focus on: - **Memory Enhancement**: Essential for maintaining context and executing multi-step reasoning, utilizing various memory structures to support complex tasks [19]. - **Reasoning Enhancement**: Addressing limitations of LLMs through structured reasoning chains and domain-specific optimizations to improve output reliability [19]. - **Collaboration Enhancement**: Improving interactions between multi-agent systems and human researchers to optimize research outcomes [19]. Benchmarking and Evaluation - Benchmarks are categorized into knowledge-intensive and experiment-driven tasks, each emphasizing different aspects of scientific research processes [17][18]. - **Knowledge-Intensive Tasks**: Focus on complex, domain-specific tasks requiring deep expertise [17]. - **Experiment-Driven Tasks**: Evaluate the agent's ability to design and validate experiments autonomously [18]. Future Research Directions - Future efforts should focus on: - Ensuring empirical accuracy in scientific experiment designs and integrating verification tools [23]. - Designing flexible frameworks for complex task adaptation in specific research areas [23]. - Incorporating self-reflection and iterative mechanisms for continuous improvement [23]. - Optimizing interactions between agents and human researchers to enhance scientific discovery [23].