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使用调和映射的表面约束体积脑图谱配准

Surface-constrained volumetric brain registration using harmonic mappings.

作者信息

Joshi Anand A, Shattuck David W, Thompson Paul M, Leahy Richard M

机构信息

Image Processing Institute, University of Southern California, Los Angeles, CA 90089, USA.

出版信息

IEEE Trans Med Imaging. 2007 Dec;26(12):1657-69. doi: 10.1109/tmi.2007.901432.

Abstract

In order to compare anatomical and functional brain imaging data across subjects, the images must first be registered to a common coordinate system in which anatomical features are aligned. Intensity-based volume registration methods can align subcortical structures well, but the variability in sulcal folding patterns typically results in misalignment of the cortical surface. Conversely, surface-based registration using sulcal features can produce excellent cortical alignment but the mapping between brains is restricted to the cortical surface. Here we describe a method for volumetric registration that also produces an accurate one-to-one point correspondence between cortical surfaces. This is achieved by first parameterizing and aligning the cortical surfaces using sulcal landmarks. We then use a constrained harmonic mapping to extend this surface correspondence to the entire cortical volume. Finally, this mapping is refined using an intensity-based warp. We demonstrate the utility of the method by applying it to T1-weighted magnetic resonance images (MRIs). We evaluate the performance of our proposed method relative to existing methods that use only intensity information; for this comparison we compute the intersubject alignment of expert-labeled subcortical structures after registration.

摘要

为了在不同受试者之间比较大脑的解剖学和功能成像数据,首先必须将图像配准到一个共同的坐标系中,使解剖特征对齐。基于强度的体积配准方法能够很好地对齐皮层下结构,但脑沟折叠模式的变异性通常会导致皮质表面的错位。相反,使用脑沟特征的基于表面的配准可以实现出色的皮质对齐,但大脑之间的映射仅限于皮质表面。在此,我们描述了一种体积配准方法,该方法还能在皮质表面之间产生精确的一一对应点。这是通过首先使用脑沟标志点对皮质表面进行参数化和对齐来实现的。然后,我们使用约束调和映射将这种表面对应扩展到整个皮质体积。最后,使用基于强度的变形对该映射进行优化。我们将该方法应用于T1加权磁共振图像(MRI),以证明其效用。我们相对于仅使用强度信息的现有方法评估了我们提出的方法的性能;为此比较,我们在配准后计算专家标记的皮层下结构的受试者间对齐情况。

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