Aquilion one 320 slice ct scanner

Manufactured by Toshiba

Sourced in Japan

The Aquilion One 320 Slice CT Scanner is a diagnostic imaging device manufactured by Toshiba. It is capable of capturing high-resolution, three-dimensional images of the body using advanced computed tomography (CT) technology. The scanner's core function is to provide detailed anatomical information to support medical diagnosis and treatment planning.

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3 protocols using aquilion one 320 slice ct scanner

Foot CT Scanning Protocol for 60 Subjects

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Subjects were scanned using Aquilion One 320 Slice CT Scanner (Toshiba, Japan). The scan settings were as follows: tube voltage of 120 kV, tube current exposure time of 50 mAs, layer distance of 0.45–50 mm, pixel size of 0.46 ± 0.02 mm, and automatic threshold between -1024 and 4145 Hounsfield units (HU). The scanning was conducted along the transect of both feet, from top to bottom. The scanning posture of 60 subjects is shown in Supplementary File I; Figures S1A, B.

Liu Y., Antonijević D., Li R., Fan Y., Dukić K., Mićić M., Yu G., Li Z., Djurić M, & Fan Y. (2021). Study of Sexual Dimorphism in Metatarsal Bones: Geometric and Inertial Analysis of the Three-Dimensional Reconstructed Models. Frontiers in Endocrinology, 12, 734362.

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Computational Modeling of Kawasaki Disease Patients

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Six KD patients were modeled in this pilot study, of whom five had coronary aneurysms (A–E) and one (F) did not, and served as the control. A brief clinical history was collected for all patients (Table 1), and clinical data used for simulations were obtained at or near the time of the performance of the computed tomography angiogram (CTA) that was used for the patient-specific modeling (Table 3). Patient-specific geometry was obtained from clinically indicated CT angiograms, with patient A–D and F imaged at UCSD (CT750 HD 64-slice CT scanner, GE Medical, Milwaukee, WI), and patient E imaged at Sechenov First Moscow State University (Aquilion ONE 320 slice CT scanner, Toshiba, Tokyo, Japan). This study was approved by the Institutional Review Board at UCSD and First Moscow State University, and written subject consent or assent and parental consent were obtained as appropriate for the imaging and simulation studies.

Sengupta D., Kahn A.M., Kung E., Moghadam M.E., Shirinsky O., Lyskina G.A., Burns J.C, & Marsden A.L. (2014). Thrombotic risk stratification using computational modeling in patients with coronary artery aneurysms following Kawasaki disease. Biomechanics and modeling in mechanobiology, 13(6), 1261-1276.

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Cardiac Calcium Scoring from CT

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CACS was computed from ECG‐gated cardiac CT scan (Toshiba Aquilion One, 320 slice CT scanner, Canon, Japan) using a standard clinical scan (120 keV and adjusted mAs). CACS was measured with the scoring system previously described by Agatston et al.²⁶ The system is semiautomatic and image analysis was blinded from all clinical information and evaluated by a trained physician. Additionally, an experienced CT cardiologist examined 15% randomly selected images, and 8% with uncertain primary evaluation.

Kempel M.K., Winding T.N., Lynggaard V., Brantlov S., Andersen J.H, & Böttcher M. (2021). Traditional and novel cardiometabolic risk markers across strata of body mass index in young adults. Obesity Science & Practice, 7(6), 727-737.

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