Segmentation of the inferior longitudinal fasciculus in the human brain: A white matter dissection and diffusion tensor tractography study

被引:79
|
作者
Latini, Francesco [1 ]
Martensson, Johanna [2 ]
Larsson, Elna-Marie [2 ]
Fredrikson, Mats [3 ,4 ]
Ahs, Fredrik [3 ,4 ]
Hjortberg, Mats [5 ]
Aldskogius, Haan [6 ]
Ryttlefors, Mats [1 ]
机构
[1] Uppsala Univ, Neurosurg, Dept Neurosci, S-75185 Uppsala, Sweden
[2] Uppsala Univ, Dept Surg Sci, Radiol, Uppsala, Sweden
[3] Uppsala Univ, Dept Psychol, Uppsala, Sweden
[4] Karolinska Inst, Dept Clin Neurosci, Stockholm, Sweden
[5] Uppsala Univ, Dept Med Cell Biol, Educ, Uppsala, Sweden
[6] Uppsala Univ, Dept Neurosci, Regenerat Neurobiol, Uppsala, Sweden
关键词
DIT; ILF; White matter; Occipital-temporal connectivity; Social cognition; Visual memory; FRONTO-OCCIPITAL FASCICULUS; OBJECT-BASED ATTENTION; DISCONNECTION; LANGUAGE; TRACTS; RECOGNITION; INSIGHTS; CORTEX; MEMORY; MRI;
D O I
10.1016/j.brainres.2017.09.005
中图分类号
Q189 [神经科学];
学科分类号
071006 ;
摘要
The inferior longitudinal fascicle (ILF) is one of the major occipital-temporal association pathways. Several studies have mapped its hierarchical segmentation to specific functions. There is, however, no consensus regarding a detailed description of ILF fibre organisation. The aim of this study was to establish whether the ILF has a constant number of subcomponents. A secondary aim was to determine the quantitative diffusion proprieties of each subcomponent and assess their anatomical trajectories and connectivity patterns. A white matter dissection of 14 post-mortem normal human hemispheres was conducted to define the course of the ILF and its subcomponents. These anatomical results were then investigated in 24 right-handed, healthy volunteers using in vivo diffusion tensor imaging (DTI) and streamline tractography. Fractional anisotropy (FA), volume, fibre length and the symmetry coefficient of each fibre group were analysed. In order to show the connectivity pattern of the ILF, we also conducted an analysis of the cortical terminations of each segment. We confirmed that the main structure of the ILF is composed of three constant components reflecting the occipital terminations: the fusiform, the lingual and the dorsolateral-occipital. ILF volume was significantly lateralised to the right. The examined indices of ILF subcomponents did not show any significant difference in lateralisation. The connectivity pattern and the quantitative distribution of ILF subcomponents suggest a pivotal role for this bundle in integrating information from highly specialised modular visual areas with activity in anterior temporal territory, which has been previously shown to be important for memory and emotions. (C) 2017 Elsevier B.V. All rights reserved.
引用
收藏
页码:102 / 115
页数:14
相关论文
共 50 条
  • [1] A Quantitative Tractography Study Into the Connectivity, Segmentation and Laterality of the Human Inferior Longitudinal Fasciculus
    Panesar, Sandip S.
    Yeh, Fang-Cheng
    Jacquesson, Timothee
    Hula, William
    Fernandez-Miranda, Juan C.
    FRONTIERS IN NEUROANATOMY, 2018, 12
  • [2] Atlas-based segmentation of white matter tracts of the human brain using diffusion tensor tractography and comparison with classical dissection
    Lawes, I. Nigel C.
    Barrick, Thomas R.
    Murugam, Vengadasalam
    Spierings, Natalia
    Evans, David R.
    Song, Marie
    Clark, Chris A.
    NEUROIMAGE, 2008, 39 (01) : 62 - 79
  • [3] The anatomical characteristics of superior longitudinal fasciculus I in human brain: Diffusion tensor tractography study
    Jang, Sung Ho
    Hong, Ji Heon
    NEUROSCIENCE LETTERS, 2012, 506 (01) : 146 - 148
  • [4] The anatomical location of the arcuate fasciculus in the human brain: A diffusion tensor tractography study
    Hong, Ji Heon
    Kim, Seong Ho
    Ahn, Sang Ho
    Jang, Sung Ho
    BRAIN RESEARCH BULLETIN, 2009, 80 (1-2) : 52 - 55
  • [5] Diffusion Tensor Imaging Tractography of White Matter Tracts in the Equine Brain
    Boucher, Samuel
    Arribarat, Germain
    Cartiaux, Benjamin
    Lallemand, Elodie Anne
    Peran, Patrice
    Deviers, Alexandra
    Mogicato, Giovanni
    FRONTIERS IN VETERINARY SCIENCE, 2020, 7
  • [6] Tracing superior longitudinal fasciculus connectivity in the human brain using high resolution diffusion tensor tractography
    Kamali, Arash
    Flanders, Adam E.
    Brody, Joshua
    Hunter, Jill V.
    Hasan, Khader M.
    BRAIN STRUCTURE & FUNCTION, 2014, 219 (01): : 269 - 281
  • [7] Diffusion Tensor Imaging Abnormalities in the Uncinate Fasciculus and Inferior Longitudinal Fasciculus in Phelan-McDermid Syndrome
    Bassell, Julia
    Srivastava, Siddharth
    Prohl, Anna K.
    Scherrer, Benoit
    Kapur, Kush
    Filip-Dhima, Rajna
    Berry-Kravis, Elizabeth
    Soorya, Latha
    Thurm, Audrey
    Powell, Craig M.
    Bernstein, Jonathan A.
    Buxbaum, Joseph D.
    Kolevzon, Alexander
    Warfield, Simon K.
    Sahin, Mustafa
    PEDIATRIC NEUROLOGY, 2020, 106 : 24 - 31
  • [8] Selective effects of aging on brain white matter microstructure: A diffusion tensor imaging tractography study
    Michielse, Stijn
    Coupland, Nick
    Camicioli, Richard
    Carter, Rawle
    Seres, Peter
    Sabino, Jennifer
    Malykhin, Nikolai
    NEUROIMAGE, 2010, 52 (04) : 1190 - 1201
  • [9] Principal eigenvector field segmentation for reproducible diffusion tensor tractography of white matter structures
    Rathore, Ram K. S.
    Gupta, Rakesh K.
    Agarwal, Shruti
    Trivedi, Richa
    Tripathi, Rajendra P.
    Awasthi, Rishi
    MAGNETIC RESONANCE IMAGING, 2011, 29 (08) : 1088 - 1100
  • [10] The trajectory of the medial longitudinal fasciculus in the human brain: A diffusion imaging-based tractography study
    Li, Mengjun
    Yeh, Fang-Cheng
    Zeng, Qingrun
    Wu, Xiaolong
    Wang, Xu
    Zhu, Zixin
    Liu, Xiaohai
    Liang, Jiantao
    Chen, Ge
    Zhang, Hongqi
    Feng, Yuanjing
    Li, Mingchu
    HUMAN BRAIN MAPPING, 2021, 42 (18) : 6070 - 6086