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癫痫患者猝死中的海马形态计量学研究。

Hippocampal morphometry in sudden and unexpected death in epilepsy.

机构信息

From the Department of Clinical and Experimental Epilepsy, UCL Queen Square Institute of Neurology, Queen Square, London, UK.

出版信息

Neurology. 2019 Aug 20;93(8):e804-e814. doi: 10.1212/WNL.0000000000007969. Epub 2019 Jul 25.

Abstract

OBJECTIVE

To determine hippocampal morphometric measures, including granule cell dispersion and features of malrotation, as potential biomarkers for sudden unexpected death in epilepsy (SUDEP) from an archival postmortem series.

METHODS

In a retrospective study of 187 archival postmortems from 3 groups, SUDEP (68; 14 with hippocampal sclerosis [HS]), non-SUDEP epilepsy controls (EP-C = 66; 25 with HS), and nonepilepsy controls (NEC = 53), Nissl/hematoxylin & eosin-stained sections from left and right hippocampus from 5 coronal levels were digitized. Image analysis was carried out for granule cell layer (GCL) thickness and measurements of hippocampal dimensions (HD) for shape (width [HD1], height [HD2]) and medial hippocampal positioning in relation to the parahippocampal gyrus (PHG) length (HD3). A qualitative evaluation of hippocampal malrotational (HMAL) features, dentate gyrus invaginations (DGI), and subicular/CA1 folds (SCF) was also made.

RESULTS

GCL thickness was increased in HS more than those without ( < 0.001). In non-HS cases, increased GCL thickness was noted in EP-C compared to NEC ( < 0.05) but not between SUDEP and NEC. There was no difference in the frequency of DGI, SCF, measurements of hippocampal shape (HD1, HD2, or ratio), or medial positioning among SUDEP, EP-C, and NEC groups, when factoring in HS, coronal level, and age at death. Comparison between left and right sides within cases showed greater PHG lengths (HD3) on the right side in the SUDEP group only ( = 0.018).

CONCLUSIONS

No hippocampal morphometric features were identified in support of either excessive granule cell dispersion or features of HMAL as definitive biomarkers for SUDEP. Asymmetries in PHG measurements in SUDEP warrant further investigation as they may indicate abnormal central autonomic networks.

摘要

目的

从存档的尸检系列中确定海马形态计量测量值,包括颗粒细胞弥散和旋转不良特征,作为癫痫猝死 (SUDEP) 的潜在生物标志物。

方法

在对 3 组 187 例存档尸检的回顾性研究中,SUDEP(68 例;其中 14 例伴有海马硬化 [HS])、非 SUDEP 癫痫对照组 (EP-C = 66 例;其中 25 例伴有 HS) 和非癫痫对照组 (NEC = 53 例),对左、右海马的 5 个冠状层面的尼氏染色/苏木精和曙红染色切片进行数字化。对颗粒细胞层 (GCL) 厚度和海马形态 (宽度 [HD1]、高度 [HD2]) 及内侧海马相对于海马旁回长度 (HD3) 的测量进行图像分析。还对海马旋转不良 (HMAL) 特征、齿状回内陷 (DGI) 和下托/CA1 折叠 (SCF) 进行定性评估。

结果

HS 中 GCL 厚度增加大于无 HS 者 ( < 0.001)。在非 HS 病例中,EP-C 组的 GCL 厚度比 NEC 组增加 ( < 0.05),但与 SUDEP 组和 NEC 组相比无差异。在考虑 HS、冠状层面和死亡时年龄后,SUDEP、EP-C 和 NEC 组之间的 DGI、SCF、海马形态测量值 (HD1、HD2 或比值) 或内侧定位的频率无差异。病例内左右侧比较仅显示 SUDEP 组右侧 PHG 长度 (HD3) 更大 ( = 0.018)。

结论

没有发现海马形态计量特征支持过度颗粒细胞弥散或 HMAL 特征作为 SUDEP 的明确生物标志物。SUDEP 中 PHG 测量的不对称性值得进一步研究,因为它们可能表明异常的中枢自主神经网络。

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