News | Computed Tomography (CT) | September 17, 2018

Siemens Healthineers Announces First U.S. Install of Somatom go.Top CT

Ohio State University Wexner Medical Center acquires latest addition to Somatom go. CT platform, which addresses advanced clinical fields and applications

Siemens Healthineers Announces First U.S. Install of Somatom go.Top CT

September 17, 2018 — The Ohio State University Wexner Medical Center in Columbus recently became the first healthcare facility in the United States to install the new Somatom go.Top computed tomography (CT) system from Siemens Healthineers. The 128-slice scanner expands the Somatom go. CT platform’s concept of patient-centric mobile workflow – which is controlled via tablet and remote – into advanced clinical fields and applications, including cardiology, CT-guided intervention and dual-energy spectral imaging.

In addition to a 0.33-second rotation time, Stellar detector technology and a robust 75 kW generator, the Somatom go.Top has a large detector with an acquisition speed of up to 175 mm in one second and an automated workflow. The system can deliver new levels of radiation dose personalization due to its high power and low kV scanning mode, along with automated tools that take the guesswork out of low-dose CT imaging. And with the system’s mobile, tablet-based workflow and the capability to off-load manual reconstruction tasks, technologists can spend more time focused on the patient.

Explaining his facility’s decision to select the Somatom go.Top, Richard D. White, M.D., chairman of the Department of Radiology at The Ohio State University Wexner Medical Center, said, “We were looking for an application of robust, tablet-based capabilities facilitating direct patient engagement and partnership while leveraging automated workflows to significantly reduce exam variability and error risk, as well as increase patient-specific image quality.”

The Ohio State Wexner Medical Center is also using the system’s Twin Beam Dual Energy capabilities to perform dose-neutral dual energy scans that support oncological workups for patients receiving cancer care. Finally, the Ohio State team is using a new feature of Somatom go. scanners – Guide&GO, the first tablet-based solution for CT-guided interventional work –  to enable touch-screen control in the intervention suite.

For more information: www.usa.healthcare.siemens.com

Related Content

The Mindways Solid phantom with volume of interest in the quality assurance phantom (red circles, left side). A participant's noncontrast-enhanced axial CT (right side) with volume of interest (yellow circles) in the trabecular bone compartment of three vertebrae for bone mineral density measurements. Image courtesy of Radiological Society of North America

The Mindways Solid phantom with volume of interest in the quality assurance phantom (red circles, left side). A participant's noncontrast-enhanced axial CT (right side) with volume of interest (yellow circles) in the trabecular bone compartment of three vertebrae for bone mineral density measurements. Image courtesy of Radiological Society of North America

News | Cardiac Imaging | July 15, 2020
July 15, 2020 — ...
Cardiac MR can offer data above and beyond anatomical imaging, which is the main reason why this system was installed at Baylor Scott White Heart Hospital in Dallas. The system is a dedicated heart MRI scanner.

Cardiac MR can offer data above and beyond anatomical imaging, which is the main reason why this system was installed at Baylor Scott White Heart Hospital in Dallas. The system is a dedicated heart MRI scanner.

News | Cardiac Imaging | June 29, 2020
June 29, 2020 — A type of smart magnetic r...
New Multimodality Cardiac Imaging Guidelines for Competitive Athletes Created. ASE SCCT and SCMR recommendations for imaging, screening atheletes.
News | Cardiac Imaging | May 11, 2020
May 11, 2020 – Competitive athletes are a rapidly growing population worldwide.
Figure 4 for the study. Images of a 65-year-old man (patient 6). (a) Cardiac MRI perfusion shows perfusion deficit of anterior/anterolateral wall attributed to left anterior descending artery/left circumflex artery (*). (b) CT coronary angiography. (c) Coronary angiography, left anterior oblique projection with caudal angulation. (d) Three-dimensional image fusion helped refine diagnosis: perfusion deficits (*) were most likely caused by narrow first diagonal branch and its first, stented side branch (arrow

Figure 4 for the study. Images of a 65-year-old man (patient 6). (a) Cardiac MRI perfusion shows perfusion deficit of anterior/anterolateral wall attributed to left anterior descending artery/left circumflex artery (*). (b) CT coronary angiography. (c) Coronary angiography, left anterior oblique projection with caudal angulation. (d) Three-dimensional image fusion helped refine diagnosis: perfusion deficits (*) were most likely caused by narrow first diagonal branch and its first, stented side branch (arrowhead). Retrospectively, denoted lesion could also be found at CT coronary angiography and coronary angiography (arrowheads in b and c, respectively). CT FFR = CT-derived fractional flow reserve, LGE = late gadolinium enhancement. Image courtesy of RSNA, Radiology.

News | Cardiac Imaging | May 04, 2020
May 4, 2020 – A new technique that combines computed tomography (CT) and magnetic resonance imaging MRI can bolster c
An example of a coronary computed tomography angiography (CCTA) exam. The CIAO study looked at patients who have a problem of blood flow limitation and chest pain symptoms in the absence of a 50 percent or more artery narrowing, known as ischemia with no obstructive CAD, or INOCA.

An example of a coronary computed tomography angiography (CCTA) exam. The CIAO study looked at patients who have a problem of blood flow limitation and chest pain symptoms in the absence of a 50 percent or more artery narrowing, known as ischemia with no obstructive CAD, or INOCA.

News | Cardiac Imaging | April 03, 2020
April 3, 2020 — Patients who experience chest pain and have abnormal results on a cardiac stress test but who do not
Schematic depiction of the automated process for assessing fat, muscle, liver, aortic calcification, and bone from original abdominal CT scan data

Figure 1: Depiction of the fully automated CT biomarkers tools used in this study. (A) Schematic depiction of the automated process for assessing fat, muscle, liver, aortic calcification, and bone from original abdominal CT scan data. (B) Case example in an asymptomatic 52-year-old man undergoing CT for colorectal cancer screening. At the time of CT screening, he had a body-mass index of 27·3 and Framingham risk score of 5% (low risk). However, several CT-based metabolic markers were indicative of underlying disease. Multivariate Cox model prediction based on these three CT-based results put the risk of cardiovascular event at 19% within 2 years, at 40% within 5 years, and at 67% within 10 years, and the risk of death at 4% within 2 years, 11% within 5 years, and 27% within 10 years. At longitudinal clinical follow-up, the patient suffered an acute myocardial infarction 3 years after this initial CT and died 12 years after CT at the age of 64 years. (C) Contrast-enhanced CT performed 7 months before death for minor trauma was interpreted as negative but does show significant progression of vascular calcification, visceral fat, and hepatic steatosis. HU=Hounsfield units.

News | Cardiac Imaging | March 06, 2020
March 6, 2020 — Researchers at the National Institutes of Health a
ASNC Announces Multisocietal Cardiac Amyloidosis Imaging Consensus
News | Cardiac Imaging | September 09, 2019
The American Society of Nuclear Cardiology (ASNC) published a new expert consensus document along with eight other...