Try Before You Buy: Solving Multi-Model Complex Tasks by Model Competitions

Multi-modal large language models (MLLMs) are expanded from large language models (LLMs) with additional capabilities to infer multi-modal data. Current MLLM workflows, when dealing with complex tasks, typically begin by using an LLM to decompose the task into multiple subtasks, then heuristically select a specific pre-trained model to complete a subtask to get a result, and finally integrate all the results to obtain the final response. However, heuristically binding one model to one subtask may generate a less satisfying subtask result, thereby affecting the overall performance. Therefore, we propose CompeMLLM, which introduces an innovative method of dynamic orchestration of the workflows. It allows different models to compete on the same subtask instead of statically binding them. By dynamically integrating the results from diverse models, the optimal subtask result is determined, thereby improving the overall performance of MLLM. Specifically, given a certain complex task, CompeMLLM first decomposes it into subtasks, then employs multiple pre-trained models to execute the same subtask in parallel to compete, and then the optimal subtask result is chosen by dynamically evaluating these results using ensemble learning idea, and finally integrates these optimal results into a complete workflow, thus obtaining the best overall performance. We conducted extensive experiments using six advanced MLLMs as baselines across seven diverse datasets. The experimental results robustly demonstrate that CompeMLLM achieves significantly improved performance on all datasets, demonstrating its effectiveness.

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Publication Details

Published
2025-03-12
DOI
https://doi.org/10.1109/icassp49660.2025.10890450
Primary Topic
Spreadsheets and End-User Computing
Type
article
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article

Try Before You Buy: Solving Multi-Model Complex Tasks by Model Competitions

Zhi Jin, Yongqiang Zhao, Lianwei Wu, Zhenyu Li et al.
Spreadsheets and End-User Computing
article

Try Before You Buy: Solving Multi-Model Complex Tasks by Model Competitions

Zhi Jin, Yongqiang Zhao, Lianwei Wu, Zhenyu Li, Xinhai Xu, Donghong Liu, Feng Zhang
article en

Abstract

Multi-modal large language models (MLLMs) are expanded from large language models (LLMs) with additional capabilities to infer multi-modal data. Current MLLM workflows, when dealing with complex tasks, typically begin by using an LLM to decompose the task into multiple subtasks, then heuristically select a specific pre-trained model to complete a subtask to get a result, and finally integrate all the results to obtain the final response. However, heuristically binding one model to one subtask may generate a less satisfying subtask result, thereby affecting the overall performance. Therefore, we propose CompeMLLM, which introduces an innovative method of dynamic orchestration of the workflows. It allows different models to compete on the same subtask instead of statically binding them. By dynamically integrating the results from diverse models, the optimal subtask result is determined, thereby improving the overall performance of MLLM. Specifically, given a certain complex task, CompeMLLM first decomposes it into subtasks, then employs multiple pre-trained models to execute the same subtask in parallel to compete, and then the optimal subtask result is chosen by dynamically evaluating these results using ensemble learning idea, and finally integrates these optimal results into a complete workflow, thus obtaining the best overall performance. We conducted extensive experiments using six advanced MLLMs as baselines across seven diverse datasets. The experimental results robustly demonstrate that CompeMLLM achieves significantly improved performance on all datasets, demonstrating its effectiveness.

Northwestern Polytechnical University (CN), Peking University (CN)
Openalex Percentile: Top 96%
Spreadsheets and End-User Computing
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Try Before You Buy: Solving Multi-Model Complex Tasks by Model Competitions — Zhi Jin, Yongqiang Zhao, et al. · (2025) | TGRS Research Map | TGRS