Thanks to this new addition, Hospiten Bellevue University Hospital and Hospiten Lanzarote are able to provide more accurate results with less radiation and without the need for repeat tests
Hospiten Bellevue University Hospital and Hospiten Lanzarote are taking a decisive step forward in diagnostic imaging with the addition of a new (CT) scanner from Siemens Healthineers—a state-of-the-art technology designed to provide more accurate diagnoses, faster scans, and a much safer and more comfortable experience for patients.
The arrival of this equipment marks a significant change in how advanced radiological studies are conducted, especially in critical areas such as Emergency Medicine, Oncology, Cardiology, and Vascular Pathology. Thanks to its ability to operate simultaneously with two different X-ray energies, the system can distinguish with great precision between tissues and materials such as calcium, iodine, and fat, enabling the detection of minute lesions that might go unnoticed with conventional equipment.
The medical director of Hospiten Bellevue University Hospital, Dr. Tomás González, emphasized that the introduction of this technology “represents a very important advance in the center’s diagnostic capabilities and in the quality of care we offer our patients.”
“This new scanner allows us to see more and better, but above all, to do so more quickly, more safely, and less invasively. The most significant benefit is for the patient, who receives more accurate diagnoses, fewer repeat tests, and much faster care in critical situations,” he noted.
For his part, the head of the Radiology Department at Hospiten Lanzarote, Dr. Álvaro Morales, explained that Dual Energy spectral technology represents “a qualitative leap in diagnostic accuracy and in the ability to obtain relevant clinical information from the very first scan.”
“Until now, in certain cases it was necessary to supplement the study with additional tests to resolve diagnostic uncertainties. With this system, we obtain much more information in a single scan, which allows us to better characterize lesions, optimize clinical decision-making, and accelerate the start of treatment when necessary,” he stated.
For patients, this translates into more reliable and earlier diagnoses, fewer clinical uncertainties, and an increased ability for specialists to identify tumors, hemorrhages, inflammation, or vascular abnormalities with a significantly higher level of detail.
One of the major advances of this technology is its ability to generate multiple types of images from a single scan. The new scanner can create “virtual” images that allow, for example, the visual removal of bone or contrast material without the need to repeat the scan. This avoids additional scans and reduces both diagnostic time and the patient’s overall radiation exposure.
Reducing the time spent inside the scanner not only improves patient comfort but also allows for faster action in situations where every minute counts.
Another key feature of the new equipment is its maximum radiation safety profile. The system is designed to maintain a radiation dose equivalent to or even lower than that of a conventional CT scan, thanks to advanced filters and automatic dose modulation mechanisms.
Furthermore, the scanner intelligently adjusts acquisition parameters based on the patient’s weight, age, and the anatomical area being studied, ensuring optimal image quality even for complex cases such as pediatric patients or individuals with obesity. This customization also reduces the need to repeat studies due to image quality issues.
Advanced Functional Diagnostics in Oncology and Cardiology
Beyond displaying anatomical structures, the new spectral technology also provides advanced functional information. The system allows for real-time analysis of blood perfusion, tissue composition, and contrast concentration, offering a much more comprehensive view of certain pathologies.
These capabilities are particularly useful in oncology, where they facilitate more precise tumor characterization and better treatment planning; in cardiology, where they streamline coronary assessment; and in vascular and trauma studies, where they improve the detection of active bleeding and the visualization of complex structures.