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Diffusion tensor imaging tractography of the optic radiation for epilepsy surgical planning: A comparison of two methods

Winston, Gavin P., Mancini, Laura, Stretton, Jason, Ashmore, Jonathan, Symms, Mark R., Duncan, John S., Yousry, Tarek A.·2011·Epilepsy Research
DOI 10.1016/j.eplepsyres.2011.07.019PMC PMC3223565
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Figure 1 Method 1. Seed region in Meyer's loop near the LGN (red) in the axial (a) and coronal planes (c), with a close up of Meyer's loop (b). Waypoint in the lateral wall of the lateral ventricle (blue) identified in the coronal plane (d).
Figure 1 Method 1. Seed region in Meyer's loop near the LGN (red) in the axial (a) and coronal planes (c), with a close up of Meyer's loop (b). Waypoint in the lateral wall of the lateral ventricle (blue) identified in the coronal plane (d).CC BY · PubMed Central
Figure 2 Method 2. Seed regions in the optic tract (red) in the axial (a) and coronal planes (b). Large regions of interest (ROIs) including voxels above and below the calcarine fissure (red) lateral to the midline in the axial (a) and sagittal planes (c), used both as seed region for the identification of the LGN region and as an endpoint for the final identification of the optic radiation. Seed regions in the LGN region (pink) in axial (d) and coronal planes (e, and f), with the voxel (green) closest to the LGN where the optic tract and optic radiation overlap. Exclusion masks (green) in the midline encompassing both the thalamus and corpus callosum (h), in the thalamus in a coronal plane (i), at the level of the trigone (j) and all three shown in the axial plane (g).
Figure 2 Method 2. Seed regions in the optic tract (red) in the axial (a) and coronal planes (b). Large regions of interest (ROIs) including voxels above and below the calcarine fissure (red) lateral to the midline in the axial (a) and sagittal planes (c), used both as seed region for the identification of the LGN region and as an endpoint for the final identification of the optic radiation. Seed regions in the LGN region (pink) in axial (d) and coronal planes (e, and f), with the voxel (green) closest to the LGN where the optic tract and optic radiation overlap. Exclusion masks (green) in the midline encompassing both the thalamus and corpus callosum (h), in the thalamus in a coronal plane (i), at the level of the trigone (j) and all three shown in the axial plane (g).CC BY · PubMed Central
Figure 3 Optic radiation identified by Method 1 only (blue), Method 2 only (red) and both methods (yellow) in a control subject, overlaid on the T1-weighted image. The images are shown in radiological convention with axial slices from inferior to superior and sagittal slices from left to right.
Figure 3 Optic radiation identified by Method 1 only (blue), Method 2 only (red) and both methods (yellow) in a control subject, overlaid on the T1-weighted image. The images are shown in radiological convention with axial slices from inferior to superior and sagittal slices from left to right.CC BY · PubMed Central
Fig. 4 Optic radiation identified in patient 1 by Method 1 only (blue), Method 2 only (red) and both methods (yellow), overlaid on the T1-weighted image. The arrows indicate the right inferior parietal DNET. Image conventions as Fig. 3.
Fig. 4 Optic radiation identified in patient 1 by Method 1 only (blue), Method 2 only (red) and both methods (yellow), overlaid on the T1-weighted image. The arrows indicate the right inferior parietal DNET. Image conventions as Fig. 3.CC BY · PubMed Central
Fig. 5 Optic radiation identified in patient 2 by Method 1 only (blue), Method 2 only (red) and both methods (yellow) overlaid on the T1-weighted image. The arrows indicate the left temporal cavernoma. Image conventions as Fig. 3, with the coronal images being from anterior to posterior.
Fig. 5 Optic radiation identified in patient 2 by Method 1 only (blue), Method 2 only (red) and both methods (yellow) overlaid on the T1-weighted image. The arrows indicate the left temporal cavernoma. Image conventions as Fig. 3, with the coronal images being from anterior to posterior.CC BY · PubMed Central

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Citations

Cites

Research works printed but not linked: 28

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Metadata

Authors
Winston, G. P., Mancini, L., Stretton, J., Ashmore, J., Symms, M. R., Duncan, J. S., & Yousry, T. A.
Venue
Epilepsy Research
Publisher
Elsevier BV
Published
2011-11
Volume
97
Issue
1-2
Pages
124-132
ISSN
0920-1211
DOI
10.1016/j.eplepsyres.2011.07.019
PMC
PMC3223565
Cited by
32
References
1
Language
en
Licence
Funders
Wellcome Trust Programme

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