BioMicroAgents: A Co-evolutionary Multi-Agent Framework for High-Fidelity Biomicroscopy Imaging
Abstract
Biomicroscopy imaging involves the complex coordination of multiple procedures, such as focusing, illumination, and staining. Traditional unitary methods struggle with dynamical environments, while hybrid models pre-trained on natural images tend to introduce artifacts for higher perceptual metrics. Notably, biological imaging is not a one-off task. It is an iterative process similar to human expert’s observation, verification and adjustment. They can benefit from history, remembering which processing strategies are suitable and can also identify issues such as artifacts and mis-staining from verification. To this end, we propose BioMicroAgents, the first multi-agent framework with co-evolutionary capabilities designed to simulate and optimize whole biomicro imaging process including brightening, denoising, deblur, super-resolution, and virtual staining. Through reinforcement learning, the model can reflect based on historical experience to reduce artifacts and mis-staining, while enhancing edge and structural features to improve the accuracy of downstream tasks. Specifically, BioMicroAgents includes: (i) Multi-modal Analytical Agents, which utilize multimodal RAG to provide template images and biomicro knowledge, and employ the memory mechanism to analyze optimal processing paths; (ii) We propose three biomicro fidelity metrics and utilize three agent groups (MicroNavigator, MicroProcessor, and MicroAuthenticator) to perform rigorous analysis, processing, and verification. (iii) Co-evolutionary ability, which achieves dynamic policy and self-correction through interactive feedback strategies and memory mechanisms, allowing the agent to evolve from history and other agents. We test model across 12 biomicro tasks, BioMicroAgents achieved improvements in perceptual quality while adhering to strict fidelity in sub-cellular features. It also enhances the accuracy of downstream tasks such as segmentation and cell counting, showcasing the potential of general-purpose visual agents in bioscience.