Expanding the Computational Anatomy Gateway from clinical imaging to basic neuroscience research

D. Tward, Anthony Kolasny, Fatima Khan, J. Troncoso, M. Miller
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Abstract

The Computational Anatomy Gateway, powered largely by the Comet (San Diego Super-computer Center) and Stampede (Texas Advanced Computing Center) clusters through XSEDE, provides software as a service tools for atlas based analysis of human brain magnetic resonance images. This includes deformable registration, automatic labeling of tissue types, and morphometric analysis. Our goal is to extend these services to the broader neuroscience community, accommodating multiple model organisms and imaging modalities, as well as low quality or missing data. We developed a new approach to multimodality registration: by predicting one modality from another, we can replace ad hoc image similarity metrics (such as mutual information or normalized cross correlation) with a log likelihood under a noise model. This statistical approach enables us to account for missing data using the Expectation Maximization algorithm. For portability and scalability we have implemented this algorithm in tensorflow. For accessibility we have compiled and many working examples for multiple model organisms, imaging systems, and missing tissue or image anomaly situations. These examples are made easily usable in the form of Jupyter notebooks, and made publicly available through github. This framework will significantly reduce the barrier to entry for basic neuroscientists, enabling the community to benefit from atlas based computational image analysis techniques.
将计算解剖学门户从临床成像扩展到基础神经科学研究
计算解剖网关主要由Comet(圣地亚哥超级计算机中心)和Stampede(德克萨斯高级计算中心)集群通过XSEDE提供支持,为基于地图集的人脑磁共振图像分析提供软件即服务工具。这包括可变形注册、组织类型的自动标记和形态计量分析。我们的目标是将这些服务扩展到更广泛的神经科学社区,适应多种模式生物和成像模式,以及低质量或缺失的数据。我们开发了一种新的多模态配准方法:通过预测一种模态与另一种模态,我们可以用噪声模型下的对数似然取代临时图像相似性度量(如互信息或归一化互相关)。这种统计方法使我们能够使用期望最大化算法来解释丢失的数据。为了可移植性和可扩展性,我们在tensorflow中实现了该算法。为了便于访问,我们已经编译了许多用于多种模式生物、成像系统和缺失组织或图像异常情况的工作示例。这些示例以Jupyter笔记本的形式易于使用,并通过github公开提供。该框架将大大降低基础神经科学家的进入门槛,使社区受益于基于地图集的计算图像分析技术。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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