ControlLLM: An AI Framework for Leveraging Multimodal Tools to Solve Complex Tasks

2023-11-08

LLM's performance in handling complex real-world tasks is impressive. However, they may need assistance in using the tools correctly due to ambiguous user prompts, incorrect tool selection, and improper parameter settings and scheduling. To address these challenges, a research team from the Hong Kong University of Science and Technology, OpenGVLab, Shanghai AI Lab, Tsinghua University, and SenseTime has proposed a groundbreaking framework called ControlLLM. The research aims to explore the importance of ControlLLM in improving the effectiveness of LLM.

LLM has made substantial progress in addressing planning, reasoning, and decision-making challenges for autonomous agents. Another direction of research focuses on enhancing LLM with external tools to obtain up-to-date information, reduce illusions, and achieve multimodal interaction. Tool-enhanced LLM utilizes zero or few-shot context learning of LLM to handle task decomposition, tool selection, and parameter completion without explicit fine-tuning. Challenges such as illusions and effective decomposition still exist. Efforts are being made to cultivate LLM with intrinsic multimodal capabilities, expanding their applicability to more complex real-world scenarios.

LLM has demonstrated its power in natural language understanding and is now expanding its capabilities to include multimodal interaction. Tool-enhanced LLM attempts to expand the functionality of LLM by integrating tools capable of handling tasks involving images, videos, audios, etc., although challenges such as task decomposition, tool selection, parameter allocation, and efficient execution scheduling need to be addressed. Previous approaches such as Chain-of-Thought, Tree-of-Thought, and self-consistency have handled these tasks by decomposing complex tasks into smaller subtasks.

The ControlLLM framework consists of three basic components: task decomposer, Thoughts-on-Graph method, and a versatile execution engine. The task decomposer decomposes complex user prompts into explicit subtasks with clear inputs and outputs. Thoughts-on-Graph explores the optimal solution path on a predefined tool graph, specifying tool parameters and dependencies. The execution engine interprets this path and efficiently executes actions on various computing devices.

Compared to existing methods, the ControlLLM framework performs exceptionally well in terms of accuracy, efficiency, and versatility, especially in various tasks involving image, audio, and video processing. It achieves a success evaluation rate of 98% in problem-solving, surpassing 59% of the best baseline performance. ControlLLM also significantly improves tool utilization efficiency, excelling in inferring and allocating tool parameters. In both simple and complex scenarios, ControlLLM seamlessly integrates various types of information to generate comprehensive and meaningful responses based on execution results.

In conclusion, the ControlLLM framework enables LLM to use multimodal tools to solve complex real-world tasks, providing outstanding accuracy, efficiency, and adaptability. Its components, including the task decomposer, Thoughts-on-Graph method, and versatile execution engine, collectively bring substantial improvements to tool utilization. ControlLLM showcases its strength through professional inference and allocation of tool parameters, achieving a high success rate in solution evaluation. Through extensive case studies, it reaffirms its task planning capabilities and offers diverse solutions to enhance user experience. ControlLLM integrates different sources of information to generate comprehensive and meaningful responses based on execution results.

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