Abstract
Intraarticular contrast material has long been used to delineate cartilage lesions with X-rays. The first reports of arthrography date back to 1905 [1]. Attempts were made to overcome the inherent limitations of arthrography (due to the projection of three-dimensional structures on a plane), using tomographic techniques [2] and various projections [3]. The advent of computed tomography (CT) enabled arthrography to develop further. First reported in 1979 for the study of cruciate ligaments [4], computed tomographic arthrography (CT arthrography) was very early proved to be useful for the study of cartilage [5–7]. Although magnetic resonance imaging (MRI) is now considered to be the technique of choice for the assessment of the structure of cartilage (including biochemical analysis) and intrachondral lesions [8, 9], CT arthrography gained new interest with the advent of multidetector computer tomography (MDCT). This technique provides true isotropic imaging, with the possibility of high-resolution multiplanar reformatting [10]. It thus allows the evaluation of the entire joint cartilage and not only of cartilage areas perpendicular to the acquisition plane as with conventional CT arthrography [11]. In comparison to magnetic resonance imaging arthrography (MR arthrography), studies have shown that CT arthrography is at least as accurate, sensitive, and specific for the evaluation of cartilage thickness [12, 13], surface cartilage lesions, and cartilage loss [14, 15]. CT arthrography is indicated for the study of joint surfaces whenever MR arthrography cannot be performed, either because it is less available as in some countries, or contraindicated, or technically impossible (e.g., with obese or claustrophobic patients; presence of metallic hardware) [16]. Its main drawbacks remain, however, the exposition to ionizing radiation and the need for a joint puncture.
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Omoumi, P., Berg, B.C.V., Lecouvet, F.E. (2011). Value of CT Arthrography in the Assessment of Cartilage Pathology. In: Link, T. (eds) Cartilage Imaging. Springer, New York, NY. https://doi.org/10.1007/978-1-4419-8438-8_5
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