MRI of the axial skeletal manifestations of ankylosing spondylitis

Slides:



Advertisements
Similar presentations
Arcot Chandrasekhar, M.D. Ashok Kumar, M.D. November 5, 2013
Advertisements

The cervical spine. Normal anatomy, variants and pathology.
Spine and spinal cord injuries
Radiographic Anatomy RAD 242
Lecture MRI Spine.
Anatomy of the Lumbar Spine Physician Name Physician Institution Date.
L3 L4 Axial CT Scan and Coronal Reformatted View reveal a Markedly Comminuted Fracture of the Atlas with Lateral Displacement of the Left Lateral.
Anatomy of the Thoracolumbar Spine Physician Name Physician Institution Date.
X ray spine.
OSCE 4 KIANI.A M.D. Interprete the X-ray name the sign.
LOUISIANA STATE UNIVERSITY MEDICAL CENTER School of Medicine in New Orleans LOUISIANA STATE UNIVERSITY MEDICAL CENTER School of Medicine in New Orleans.
SYB Case 1 By: Amy.
CT Scan coronal reconstruction of the cervical spine illustrating a fracture of the bodies of C4 and C5. These are two reformatted CT images.
Copyright © 2013 Wolters Kluwer Health | Lippincott Williams & Wilkins Introduction to Sectional Anatomy, 3/e Chapter 3: Spine.
Normal Radiographic Spinal Anatomy
1 Chapter 43 Scoliosis and Kyphosis in Osteogenesis Imperfecta Copyright © 2014 Elsevier Inc. All rights reserved.
Wrong-Level Spine Surgery by Bennett D. Grimm, Eric B. Laxer, Brian J. Blessinger, Alfred L. Rhyne, and Bruce V. Darden JBJS Reviews Volume 2(3):e2 March.
Vertebral Column. Objectives Know the organization of the vertebrae and normal curvatures in the vertebral column. Identify the characteristic features.
© 2013 Pearson Education, Inc. Vertebral Column: Curvatures Increase resilience and flexibility of spine –Cervical and lumbar curvatures Concave posteriorly.
PowerPoint ® Lecture Slides prepared by Leslie Hendon University of Alabama, Birmingham C H A P T E R Copyright © 2011 Pearson Education, Inc. Part 4 7.
Characteristics of Ossified Lesions in the Upper Cervical Spine Associated with Ossification of the Posterior Longitudinal Ligament in the Lower Cervical.
VERTEBRAL COLUMN DR N SATYANARAYANA. Vertebral column Made up of 33 vertebrae, forms the major part of axial skeleton Extends from skull to the pelvis.
MR Imaging of Spinal Trauma: What a Radiology Resident Needs to Know ? K Hooda, MBBS; Kochar P, MD; Sapire J, MD; Muro G, MD; Y Kumar, MD; D Hayashi, MBBS,
THORACO-LUMBAR FRACTURES OF SPINE Presenter : Dr. Sunil santhosh.g Ms Ortho Narayana medical college.
Lumbar Stenosis.
Copyright- Frontiers of Ikeja Surgery 2017; Volume 3:2
Thoracolumbar Spine Dr. Vohra. Thoracolumbar Spine Dr. Vohra.
Mid and lower cervical spine fractures. (A–C) Cervical burst fracture
Role of MRI for the diagnosis and prognosis of multiple myeloma
Volume 19, Issue 2, Pages (May 2013)
Radiologic Evaluation of Musculoskeletal Dİsorders
NEURORADIOLOGY OF SPINE
Imaging findings prevent unnecessary surgery in vasitis: An under-reported condition mimicking inguinal hernia  K. Eddy, D. Connell, B. Goodacre, R. Eddy 
Thoracolumbar Spine By : Dr. Sanaa& Dr.Vohra. Thoracolumbar Spine By : Dr. Sanaa& Dr.Vohra.
Thoracolumbar Spine Dr. Vohra. Thoracolumbar Spine Dr. Vohra.
Volume 69, Issue 2, Pages (February 2014)
Case 1 79F with CAD, dementia, one week post colostomy for perf diverticulitis, open abdominal wound. Transferred for management of spine fracture.
A: In this patient at T12, there is a pathologic fracture through a large metastatic lesion. The sagittal T1-weighted sequence shows replacement of normal.
الالفية العلمية للاشعة الطبية
Diagnosis and Treatment of Vertebral Column Metastases
The role of imaging modalities in the diagnosis, differential diagnosis and clinical assessment of peripheral joint osteoarthritis  C.Y.J. Wenham, A.J.
Ann Noelle Poncelet and Andrew P. Rose-Innes
Vertebral Column Transmits weight of trunk to lower limbs
Radiology of Osteoporosis
Lumbar disc nomenclature: version 2.0
The Spectrum of Imaging Findings of Brucellosis: A Pictorial Essay
Radiology of Osteoporosis
Diagnosis and Treatment of Vertebral Column Metastases
Diagnostic imaging of psoriatic arthritis
Calcific Tendinitis: A Pictorial Review
Volume 1, Issue 3, Pages (May 2015)
Imaging of non-osteochondral tissues in osteoarthritis
MR images and plain radiograph of an 82-year-old woman who had compression fractures and osteonecrosis at the L3 vertebral body. MR images and plain radiograph.
7th International Workshop on Osteoarthritis Imaging report: “imaging in OA – now is the time to move ahead”  A. Guermazi, F. Eckstein, D. Hunter, F.
Magnetic Resonance Imaging of Cruciate Ligament Injuries of the Knee
Longitudinal stress fracture of the femur: A rare presentation
Radiology Anatomy of the Spine and Upper Extremity
Vertebral osteomyelitis after cardiac surgery
SPOTS.
D. Hayashi, F.W. Roemer, A. Guermazi  Osteoarthritis and Cartilage 
Calcification of the linea aspera: A systematic narrative review
Three sagittal images of short-tau inversion recovery (STIR)-weighted magnetic resonance imaging (MRI), T1-weighted MRI, and computed tomography of the.
Spinal Cord Infarction Mimicking Angina Pectoris
ANATOMY OF THE SPINE.
ANATOMY OF THE SPINE BY DR.SANAA ALSHAARAWY.
T2 weighted sagittal MRI scans of the cervical spine.
February 1998 (age 14 years and 8 months).
A 54-year-old man with biopsy-proved hyperplastic hematopoietic bone marrow in the T11 vertebral body. A 54-year-old man with biopsy-proved hyperplastic.
Presentation transcript:

MRI of the axial skeletal manifestations of ankylosing spondylitis D.S Levine, S.M Forbat, A Saifuddin  Clinical Radiology  Volume 59, Issue 5, Pages 400-413 (May 2004) DOI: 10.1016/j.crad.2003.11.011

Figure 1 Early sacroiliitis. (a) Coronal oblique STIR image and (b) axial T2W fast spin-echo images of the sacroiliac joints showing sacral bone marrow oedema parallel to the sacroiliac joints. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 2 Established sacroiliitis. Axial proton density weighted image through the sacroiliac joints demonstrating subchondral sclerosis either side of the joints. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 3 Ankylosis of the sacroiliac joints. Axial proton density weighted image through the sacroiliac joints demonstrating continuous medullary bone across the obliterated joint, more clearly demonstrated on the right side. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 4 Romanus lesion. (a) Sagittal T1W spin-echo and (b) T2W fast spin-echo sequence at the thoracolumbar junction demonstrating focal oedema at the anterior discovertebral junction (arrows). Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 5 Syndesmophytes. (a) Sagittal T1W spin-echo and (b) T2W fast spin-echo sequence of the lower thoracic and lumbar spine showing lower thoracic kyphosis and ossification of the anterior annulus resulting in vertebral body fusion from T7 to T10. Discovertebral lesions and hyperintense nuclear disc calcification are also noted in the lumbar region (arrows). Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 6 Type 1 discovertebral lesion. (a) Sagittal T1W spin-echo and (b) fat-suppressed T2W fast spin-echo sequence of the lower thoracic and lumbar spine showing a Schmorl's node in the inferior end-plate of T9 with marrow oedema on both sides of the disc space. (c) Pre- and (d) post-contrast axial T1W images through the inferior end-plate of T9 showing enhancement within the herniated disc and also of the marrow oedema. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 6 Type 1 discovertebral lesion. (a) Sagittal T1W spin-echo and (b) fat-suppressed T2W fast spin-echo sequence of the lower thoracic and lumbar spine showing a Schmorl's node in the inferior end-plate of T9 with marrow oedema on both sides of the disc space. (c) Pre- and (d) post-contrast axial T1W images through the inferior end-plate of T9 showing enhancement within the herniated disc and also of the marrow oedema. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 7 Type 3 discovertebral lesion. (a) Sagittal T1W spin-echo and (b) fat-suppressed T2W fast spin-echo sequence of the lower thoracic and lumbar spine showing a chronic type 3 discovertebral lesion at L1/2. The disc space is narrowed and irregular with foci of hyperintensity on T2. A combination of fatty and oedematous end-plate changes is present. An acute fracture is seen at T10/11. This is differentiated from disc calcification since the disc shows normal SI on T1W while being hyperintense on T2W due to oedema. Solid-type disc calcification is also present at several levels (arrows). Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 8 Annular calcification. (a) Sagittal T1W spin-echo and (b) T2W fast spin-echo sequence of the lumbar spine showing hyperintensity on both T1W and T2W in the anterior and posterior annulus of the upper lumbar discs, consistent with calcification. Ankylosis has not yet occurred. A Romanus lesion is seen at L4/5. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 9 Disc calcification. (a) T2W fast spin-echo sequence of the lumbar spine showing hyperintensity in the L2/3, L3/4 and L5/S1 intervertebral discs due to radiographically occult disc calcification. (b) Lateral radiograph of the mid-lumbar spine shows anterior ligamentous ossification only. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 10 Costovertebral joint arthropathy. (a) Sagittal T1W spin-echo MRI and (b) sagittal CT MPR of the thoracic spine showing sclerosis in the posteroinferior margin of the vertebral body. This is manifest as low SI on T1W MRI and corresponding medullary sclerosis on CT. (c) Axial T2W MRI and (d) CT showing irregularity and subchondral sclerosis affecting the left costovertebral joint. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 10 Costovertebral joint arthropathy. (a) Sagittal T1W spin-echo MRI and (b) sagittal CT MPR of the thoracic spine showing sclerosis in the posteroinferior margin of the vertebral body. This is manifest as low SI on T1W MRI and corresponding medullary sclerosis on CT. (c) Axial T2W MRI and (d) CT showing irregularity and subchondral sclerosis affecting the left costovertebral joint. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 11 Costovertebral joint ankylosis. Axial T1W spin-echo MRI through the mid-thoracic region showing bilateral costovertebral joint ankylosis, manifest as obliteration of the joint space and continuous medullary bone across the joint. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 12 Facet joint and neurocentral joint ankylosis. (a) Parasagittal T1W spin-echo MRI through the cervical spine demonstrates multilevel ankylosis of the facet joints. (b) Parasagittal T1W spin-echo MRI through the cervical vertebral bodies demonstrates multi-level ankylosis of the neurocentral joints of Luschka (arrows). Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 13 Ligamentum flavum ossification. Axial T2W MRI through the lumbar spine demonstrates bilateral ossification of the ligamentum flavum (arrows). Note also facet ankylosis. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 14 Erosion of the dens. Sagittal T1W spin-echo MRI shows chronic erosion of the odontoid peg. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 15 Atlanto-axial fusion. Sagittal T2W MRI of the cervical spine demonstrates spontaneous atlanto-axial fusion. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 16 Cervical spine fracture. (a) Sagittal CT MPR of the cervical spine demonstrates a fracture through the C5/6 disc space. (b) Sagittal T1W MRI demonstrates fracture of the ossified anterior longitudinal ligament (arrow). Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)

Figure 17 Thoracic fracture with cord compression. (a) Sagittal T1W spin-echo and (b) T2W fast spin-echo MRI through the lower thoracic region demonstrates a fracture through the subchondral region extending posteriorly through the ossified interspinous ligament. Compression of the cauda equina and tip of conus is evident. Clinical Radiology 2004 59, 400-413DOI: (10.1016/j.crad.2003.11.011)