Multi-Rigid Image Segmentation and Registration for the Analysis of Joint Motion From Three-Dimensional Magnetic Resonance Imaging

被引:12
作者
Hu, Yangqiu [1 ,2 ]
Ledoux, William R. [3 ,4 ,5 ]
Fassbind, Michael [3 ]
Rohr, Eric S. [3 ]
Sangeorzan, Bruce J. [3 ,5 ]
Haynor, David [1 ,2 ]
机构
[1] Univ Washington, Dept Bioengn, Seattle, WA 98195 USA
[2] Univ Washington, Dept Radiol, Seattle, WA 98195 USA
[3] VA Ctr Excellence Limb Loss Prevent & Prosthet En, Seattle, WA 98108 USA
[4] Univ Washington, Dept Mech Engn, Seattle, WA 98195 USA
[5] Univ Washington, Dept Orthopaed & Sports Med, Seattle, WA 98195 USA
来源
JOURNAL OF BIOMECHANICAL ENGINEERING-TRANSACTIONS OF THE ASME | 2011年 / 133卷 / 10期
关键词
joint motion; MRI; segmentation; registration; visualization; ANKLE; SUBTALAR; KINEMATICS; FOOT; MR;
D O I
10.1115/1.4005175
中图分类号
Q6 [生物物理学];
学科分类号
071011 ;
摘要
We report an image segmentation and registration method for studying joint morphology and kinematics from in vivo magnetic resonance imaging (MRI) scans and its application to the analysis of foot and ankle joint motion. Using an MRI-compatible positioning device, a foot was scanned in a single neutral and seven other positions ranging from maximum plantar flexion, inversion, and internal rotation to maximum dorsiflexion, eversion, and external rotation. A segmentation method combining graph cuts and level set was developed. In the subsequent registration step, a separate rigid body transformation for each bone was obtained by registering the neutral position dataset to each of the other ones, which produced an accurate description of the motion between them. The segmentation algorithm allowed a user to interactively delineate 14 foot bones in the neutral position volume in less than 30 min total (user and computer processing unit [CPU]) time. Registration to the seven other positions took approximately 10 additional minutes of user time and 5.25 h of CPU time. For validation, our results were compared with those obtained from 3DViewnix, a semiautomatic segmentation program. We achieved excellent agreement, with volume overlap ratios greater than 88% for all bones excluding the intermediate cuneiform and the lesser metatarsals. For the registration of the neutral scan to the seven other positions, the average overlap ratio is 94.25%, while the minimum overlap ratio is 89.49% for the tibia between the neutral position and position 1, which might be due to different fields of view (FOV). To process a single foot in eight positions, our tool requires only minimal user interaction time (less than 30 min total), a level of improvement that has the potential to make joint motion analysis from MRI practical in research and clinical applications. [DOI: 10.1115/1.4005175]
引用
收藏
页数:8
相关论文
共 50 条
[41]   Dynamic three-dimensional computed tomographic imaging facilitates evaluation of the equine cervical articular process joint in motion [J].
Schulze, Nicole ;
Werpy, Natasha ;
Gernhardt, Jennifer ;
Fritsch, Guido ;
Hildebrandt, Thomas ;
Vanderperren, Katrien ;
Klopfleisch, Robert ;
Ben Romdhane, Racem ;
Lischer, Christophorus ;
Ehrle, Anna .
EQUINE VETERINARY JOURNAL, 2023, 55 (01) :83-91
[42]   Registration-based segmentation with articulated model from multipostural magnetic resonance images for hand bone motion animation [J].
Chen, Hsin-Chen ;
Jou, I-Ming ;
Wang, Chien-Kuo ;
Su, Fong-Chin ;
Sun, Yung-Nien .
MEDICAL PHYSICS, 2010, 37 (06) :2670-2682
[43]   Towards Drug Delivery Control Using Iron Oxide Nanoparticles in Three-Dimensional Magnetic Resonance Imaging [J].
Almijalli, Mohammed ;
Saad, Ali ;
Alhussaini, Khalid ;
Aleid, Adham ;
Alwasel, Abdullatif .
NANOMATERIALS, 2021, 11 (08)
[44]   Repeatability of a novel technique for in vivo measurement of three-dimensional patellar tracking using magnetic resonance Imaging [J].
Fellows, RA ;
Hill, NA ;
MacIntyre, NJ ;
Harrison, MM ;
Ellis, RE ;
Wilson, DR .
JOURNAL OF MAGNETIC RESONANCE IMAGING, 2005, 22 (01) :145-153
[45]   Three-dimensional magnetic resonance imaging of rigid polymeric materials using single-point ramped imaging with T1 enhancement (SPRITE) [J].
Kennedy, CB ;
Balcom, BJ ;
Mastikhin, IV .
CANADIAN JOURNAL OF CHEMISTRY-REVUE CANADIENNE DE CHIMIE, 1998, 76 (11) :1753-1765
[46]   Quantitative three-dimensional ultrashort echo time cones imaging of the knee joint with motion correction [J].
Wu, Mei ;
Zhao, Wei ;
Wan, Lidi ;
Kakos, Lena ;
Li, Liang ;
Jerban, Saeed ;
Jang, Hyungseok ;
Chang, Eric Y. ;
Du, Jiang ;
Ma, Ya-Jun .
NMR IN BIOMEDICINE, 2020, 33 (01)
[47]   Urethral identification using three-dimensional magnetic resonance imaging and interfraction urethral motion evaluation for prostate stereotactic body radiotherapy [J].
Kato, Yutaka ;
Okumiya, Shintaro ;
Okudaira, Kuniyasu ;
Ito, Junji ;
Kumagai, Motoki ;
Kamomae, Takeshi ;
Noguchi, Yumiko ;
Kawamura, Mariko ;
Ishihara, Shunichi ;
Naganawa, Shinji .
NAGOYA JOURNAL OF MEDICAL SCIENCE, 2023, 85 (03) :504-517
[48]   Three-Dimensional In vivo Magnetic Resonance Imaging (MRI) of Mouse Facial Nerve Regeneration [J].
Wanner, Renate ;
Abaei, Alireza ;
Rasche, Volker ;
Knoell, Bernd .
FRONTIERS IN NEUROLOGY, 2019, 10
[49]   Characterisation of the guinea pig model of osteoarthritis by in vivo three-dimensional magnetic resonance imaging [J].
Tessier, JJ ;
Bowyer, J ;
Brownrigg, NJ ;
Peers, IS ;
Westwood, FR ;
Waterton, JC ;
Maciewicz, RA .
OSTEOARTHRITIS AND CARTILAGE, 2003, 11 (12) :845-853
[50]   Three-dimensional morphological magnetic resonance imaging in infants and children with congenital heart disease [J].
Fenchel, Michael ;
Greil, Gerald F. ;
Martirosian, Petros ;
Kramer, Ulrich ;
Schick, Fritz ;
Claussen, Claus D. ;
Sieverding, Ludger ;
Miller, Stephan .
PEDIATRIC RADIOLOGY, 2006, 36 (12) :1265-1272