The authors explain that LLMs are crucial for understanding user interactions and task requirements, but they may struggle with lengthy language descriptions. To overcome this limitation, the coordinator must precisely transform the enriched information into executable code, while also incorporating specific keywords to facilitate word matching. The response from the LLM in this step must be affirmative, based on the user’s instruction, and include the keyword "Yes."
In steps 5 and 6, the coordinator prompts the LLM to generate a summary of the user’s instructions to search for relevant historical scripts stored in long-term memory. This search process involves comparing the semantic content of the user’s instructions, but the original task description may suffer from low quality or be mixed with various linguistic habits. The LLM may also require additional information, such as environment information, API documentation of AI modules and IoT devices, and example codes, to aid in the transformation.
The article highlights the importance of AI modules, which can encompass various AI techniques such as computer vision, natural language processing, speech recognition, sentiment analysis, and recommendation systems. Each module is trained and optimized for its specific task, enabling it to provide highly accurate and specialized results. The coordinator can use these modules to perform complex tasks by combining their capabilities, allowing the system to adapt and evolve rapidly in response to emerging challenges and advancements in AI technologies.
In conclusion, the article provides a comprehensive overview of the role of LLMs in AI systems, including their limitations and potential solutions. By leveraging contextual information and developing specialized AI modules, the authors propose a novel approach to enhancing the performance and capabilities of language models in AI.
Computer Science, Information Theory