[2602.15660] Bayesian Optimization for Design Parameters of 3D Image Data Analysis
Summary
This paper presents a novel 3D data Analysis Optimization Pipeline that utilizes Bayesian Optimization to enhance segmentation and classification in biomedical imaging, addressing key challenges in model selection and parameter tuning.
Why It Matters
The study is significant as it tackles the inefficiencies in analyzing 3D biomedical images, where manual methods are often impractical. By automating model selection and parameter optimization, the proposed pipeline can streamline workflows, reduce manual effort, and improve the accuracy of image analysis, which is crucial for advancing medical research and applications.
Key Takeaways
- Introduces a 3D data Analysis Optimization Pipeline for biomedical imaging.
- Utilizes Bayesian Optimization for model selection and parameter tuning.
- Includes a novel segmentation quality metric for performance evaluation.
- Features an assisted class-annotation workflow to minimize manual tracking.
- Demonstrated effectiveness through four case studies.
Computer Science > Computer Vision and Pattern Recognition arXiv:2602.15660 (cs) [Submitted on 17 Feb 2026] Title:Bayesian Optimization for Design Parameters of 3D Image Data Analysis Authors:David Exler, Joaquin Eduardo Urrutia Gómez, Martin Krüger, Maike Schliephake, John Jbeily, Mario Vitacolonna, Rüdiger Rudolf, Markus Reischl View a PDF of the paper titled Bayesian Optimization for Design Parameters of 3D Image Data Analysis, by David Exler and 7 other authors View PDF HTML (experimental) Abstract:Deep learning-based segmentation and classification are crucial to large-scale biomedical imaging, particularly for 3D data, where manual analysis is impractical. Although many methods exist, selecting suitable models and tuning parameters remains a major bottleneck in practice. Hence, we introduce the 3D data Analysis Optimization Pipeline, a method designed to facilitate the design and parameterization of segmentation and classification using two Bayesian Optimization stages. First, the pipeline selects a segmentation model and optimizes postprocessing parameters using a domain-adapted syntactic benchmark dataset. To ensure a concise evaluation of segmentation performance, we introduce a segmentation quality metric that serves as the objective function. Second, the pipeline optimizes design choices of a classifier, such as encoder and classifier head architectures, incorporation of prior knowledge, and pretraining strategies. To reduce manual annotation effort, this stage ...