Detection of intracranial hemorrhage with susceptibility-weighted MR sequences

Author(s): Liang L, Korogi Y, Sugahara T, Shigematsu Y, Okuda T, et al.

Abstract

Background and purpose:Detection of hemorrhage is important in the diagnosis and management of a variety of intracranial diseases. We evaluated the sensitivity of the following sequences for depicting chronic hemorrhagic foci associated with susceptibility dephasing: gradient-recalled echo (GRE) imaging, GRE-type single-shot echo-planar imaging (GRE-EPI), spin-echo-type single-shot echo-planar imaging (SE-EPI), turbo spin-echo (TSE) imaging, half-Fourier single-shot turbo spin-echo (HASTE) imaging, and segmented HASTE (s-HASTE) imaging. To our knowledge, no previous comparison has been made with these techniques in the same patient.

Methods:Fifty patients with suspected chronic hemorrhage were examined prospectively with the above six sequences. Contrast-to-noise ratio (CNR), sensitivity to detection of lesions, conspicuity of internal architecture, and sensitivity to small hemorrhagic foci were evaluated.

Results:Hemorrhagic foci were found in 35 patients. The CNR of the GRE, GRE-EPI, SE-EPI, TSE, s-HASTE, and HASTE sequences was 30.9, 23.7, 3.6, 6.1, -29.3, and -13.1, respectively; the number of small hemorrhagic foci detected was 85, 96, 44, 22, two, and one, respectively, for the supratentorial white matter; 70, 40, 19, four, zero, and zero, respectively, for the supratentorial cortical/subcortical region; and 73, 50, 26, 37, zero, and zero, respectively, for the infratentorial/skull-base region.

Conclusion:The GRE sequence was best for detecting susceptibility dephasing associated with chronic intracranial hemorrhage. GRE-EPI, while comparable to GRE in the supratentorial compartment, was reduced in its sensitivity near the skull base, and may be used as an alternative to GRE in uncooperative, unsedated, pediatric, or claustrophobic patients. SE-EPI should not be used in screening for intracranial hemorrhage.

Similar Articles

Working memory in patients with mild traumatic brain injury: functional MR imaging analysis

Author(s): Chen CJ, Wu CH, Liao YP, Hsu HL, Tseng YC, et al.

Prevalence of cerebral microhemorrhages in amateur boxers as detected by 3T MR imaging

Author(s): Hähnel S, Stippich C, Weber I, Darm H, Schill T, et al.

Cerebral microhemorrhages detected by susceptibility-weighted imaging in amateur boxers

Author(s): Hasiloglu ZI, Albayram S, Selcuk H, Ceyhan E, Delil S, et al.

Head injury in athletes

Author(s): Bailes JE, Cantu RC

Susceptibility weighted imaging (SWI)

Author(s): Haacke EM, Xu Y, Cheng YC, Reichenbach JR

Detection of traumatic cerebral microbleeds by susceptibility-weighted image of MRI

Author(s): Park JH, Park SW, Kang SH, Nam TK, Min BK, et al.

Emerging imaging tools for use with traumatic brain injury research

Author(s): Hunter JV, Wilde EA, Tong KA, Holshouser BA

Cerebral microbleeds: a guide to detection and interpretation

Author(s): Greenberg SM, Vernooij MW, Cordonnier C, Viswanathan A, Al-Shahi Salman R, et al.

MRI of cerebral microhemorrhages

Author(s): Blitstein MK, Tung GA

Cerebral microbleeds: histopathological correlation of neuroimaging

Author(s): Shoamanesh A, Kwok CS, Benavente O

Neurobehavioral functioning and magnetic resonance imaging findings in young boxers

Author(s): Levin HS, Lippold SC, Goldman A, Handel S, High WM, et al.

Magnetic resonance imaging in amateur boxers

Author(s): Jordan BD, Zimmerman RD

Diffusion anisotropy changes in the brains of professional boxers

Author(s): Zhang L, Heier LA, Zimmerman RD, Jordan B, Uluq AM

Susceptibility-weighted MRI in mild traumatic brain injury

Author(s): Huang YL, Kuo YS, Tseng YC, Chen DY, Chiu WT, et al.