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Research ArticleBRAIN

Diffusion Tensor Fiber Tractography for Arteriovenous Malformations: Quantitative Analyses to Evaluate the Corticospinal Tract and Optic Radiation

T. Okada, Y. Miki, K. Kikuta, N. Mikuni, S. Urayama, Y. Fushimi, A. Yamamoto, N. Mori, H. Fukuyama, N. Hashimoto and K. Togashi
American Journal of Neuroradiology June 2007, 28 (6) 1107-1113; DOI: https://doi.org/10.3174/ajnr.A0493
T. Okada
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Y. Miki
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K. Kikuta
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N. Mikuni
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S. Urayama
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Y. Fushimi
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A. Yamamoto
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N. Mori
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H. Fukuyama
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N. Hashimoto
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K. Togashi
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  • Fig 1.
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    Fig 1.

    A, ROI segmentation for corticospinal tract tractography. Polygonal ROIs are placed on transverse b = 0 images (TR/TE, 7000 ms/79 ms). The first “OR” ROI (blue) is placed at either side of the cerebral peduncle on the plane where the characteristic Ω shape of the central sulcus is at the center of cerebral hemisphere (top left). The second “AND” ROI (blue) is placed at the ipsilateral precentral gyrus (top right). Left and right ROI segmentations were separately performed. “NOT” ROIs (green) are placed on midline structures connecting right and left corticospinal tracts on sagittal reconstructed image (bottom left) and fibers projecting into ipsilateral cerebellar peduncle on coronal reconstructed image (bottom right). Examples of bilateral corticospinal tract overlaid on coronal reconstructed image are shown (bottom right).

    B, ROI segmentation for optic radiation tractography. The 4 kinds of ROIs (white polygon) are placed on coronal or sagittal color-coded maps. Cross lines indicate the orthogonal planes. The first “OR” ROI is placed at either side of the occipital lobe, including the calcarine cortex on the coronal plane through the anterior edge of the occipital-parietal sulcus (top left). The second “AND” ROI is placed at the ipsilateral temporal stem, including the Meyer loop on the sagittal plane (top right). Temporal stem is identified as green, and the Meyer loop is identified as a small red area inside the temporal stem (red arrow). The third and fourth “NOT” ROIs are placed on the same coronal plane through the dorsal end of the Sylvian fissure (bottom left). Bilateral Meyer loops are indicated as red arrows. Occipital-frontal connections medial to the Meyer loop and fibers projecting to the temporal horn passing through lateral to the Meyer loop are removed using the “NOT” operation. Examples of bilateral optic radiation overlaid on transverse b = 0 images (TR/TE, 7000 ms/79 ms) are shown (bottom right).

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    Fig 2.

    A, Corticospinal tract tractography. Patients were classified into 1 of 3 groups based on the distance between AVM nidus and tract and the presence of motor weakness. Three groups (A–C) are assigned from top row to bottom row. Left column displays transverse b = 0 images (TR/TE, 7000 ms/79 ms). Blue areas represent the voxel where fiber tracts penetrate the image. Middle column displays transverse maximum intensity projection (MIP) images of MR angiography. Red arrows indicate AVM nidus. Right column displays 3D reconstruction of fibers and MR angiography superimposed on b = 0 images. 3D reconstructions of AVM nidus (red) and hemorrhage (yellow) segmented from MR angiography were displayed by using shaded surface rendering. Patients in groups A and B are subjects without hemorrhage, and the group C patient is a subject with hemorrhage in this figure. In this group C patient, left corticospinal tract veers laterally, and projection fibers from the medial precentral gyrus are not visualized (green arrow).

    B, Optic radiation tractography. Patients were classified into 1 of 3 groups based on the distance between AVM nidus and tract and the presence of visual field defect. Optic radiation tractography is represented in green, and imaging methods are the same as explained in A. The group B patient is the same as the group A patient presented in A. In this group C patient, left optic radiation was disrupted around the occipital pole.

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    Fig 3.

    Results of statistical analysis with significant differences are demonstrated. Top row displays patients without intracranial hemorrhage, and bottom row displays patients with intracranial hemorrhage. Gray rhomboids indicate mean and its 95% confident intervals. Horizontal axes represent groups A–C, and vertical axes represent AIs. In patients without intracranial hemorrhage, AI of perinidal FA along corticospinal tract (left, P = .006) and optic radiation (middle, P = .01) and AI of optic radiation volume (right, P < .0001) differed significantly between groups. In patients with hemorrhage, AIs of perinidal FA (P = .04), tract volume (P = .01) of corticospinal tract, and AI of perinidal FA along optic radiation (P = .004) differed significantly between groups.

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    Table 1:

    Demographic data for 34 patients with untreated intracranial AVM

    Patient No.SexAge at MR Imaging (years)Location of NidusHemorrhagePerifocal HyperintensityNeurologic SymptomsSpetzler-Martin Grade
    1F29Right occipitalNoNoNo2
    2M31Right frontalNoNoNo1
    3F27Left occipitalNoYesRight homonymous hemianopsia3
    4M64Right occipitalNoNoNo2
    5M49Left frontalNoYesNo2
    6M72Left parietalNoNoNo1
    7M25Left occipitalNoNoNo2
    8M45Right frontalNoYesNo3
    9M28Left frontalNoNoNo3
    10M49Left putamenNoNoNo2
    11M25Right temporalNoYesNo2
    12M28Right occipitalNoNoLeft lower quadranopsia4
    13F5Left parietalNoNoNo1
    14M59Right frontalNoYesNo1
    15F28Right parietalNoNoNo2
    16M45Left cingulumNoNoNo2
    17F33Right cingulumNoNoNo4
    18F29Left frontalNoNoNo2
    19M28Right insulaNoNoNo4
    20F17Left cerebellumNoYesCerebellar ataxia3
    21F20Left frontalNoNoNo3
    22F45Right occipitalYesNoNo3
    23F29Left occipitalYesNoNo2
    24M22Right cerebellumYesNoCerebellar ataxia4
    25F15Right occipitalYesNoNo3
    26F56Right cerebellumYesYesCerebellar ataxia, right trigeminal palsy1
    27M45Right parietalYesYesRecent memory disturbance3
    28F21Right occipitalYesYesLeft upper quadranopsia2
    29F27Right parietalYesYesLeft hemianopsia2
    30F6Right frontalYesYesLeft hemiparesis (MMT4/5)2
    31M38Right parietalYesNoLeft hemiparesis (MMT 4/5)2
    32M50Left frontalYesYesMotor aphasia5
    33F23Right frontalYesYesLeft hemiparesis (MMT 4/5)2
    34M48Left parietalYesYesRight hemiparesis (MMT 3/5), right spatial neglect3
    • Note:—M indicates male; F, female; MMT, manual muscle testing. Patients 1–21 were without intracranial hemorrhage, and patients 22–34 displayed hemorrhage.

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    Table 2:

    Tractographic appearances and neurologic symptoms for corticospinal tract and optic radiation close to nidus

    VariableGroup BGroup C
    NonhemorrhagicHemorrhagicNonhemorrhagicHemorrhagic
    Corticospinal tract
        No change6002
        Compression1201
        Disruption0001
    Optic radiation
        No change1111
        Compression2102
        Penetration0100
        Disruption2010
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American Journal of Neuroradiology: 28 (6)
American Journal of Neuroradiology
Vol. 28, Issue 6
June 2007
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T. Okada, Y. Miki, K. Kikuta, N. Mikuni, S. Urayama, Y. Fushimi, A. Yamamoto, N. Mori, H. Fukuyama, N. Hashimoto, K. Togashi
Diffusion Tensor Fiber Tractography for Arteriovenous Malformations: Quantitative Analyses to Evaluate the Corticospinal Tract and Optic Radiation
American Journal of Neuroradiology Jun 2007, 28 (6) 1107-1113; DOI: 10.3174/ajnr.A0493

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Diffusion Tensor Fiber Tractography for Arteriovenous Malformations: Quantitative Analyses to Evaluate the Corticospinal Tract and Optic Radiation
T. Okada, Y. Miki, K. Kikuta, N. Mikuni, S. Urayama, Y. Fushimi, A. Yamamoto, N. Mori, H. Fukuyama, N. Hashimoto, K. Togashi
American Journal of Neuroradiology Jun 2007, 28 (6) 1107-1113; DOI: 10.3174/ajnr.A0493
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