Every radiology department faces the same fundamental challenge: delivering fast, accurate diagnostics while managing patient throughput and controlling radiation exposure. The answer lies in how your digital radiography systems are designed, configured, and integrated into daily practice.
Stephanix develops a complete range of digital x-ray rooms engineered around the realities of modern medical imaging. Ceiling-suspended or floor-mounted tube supports, fixed or tilting wall Buckys, fixed or elevating examination tables: each component is selected to match your clinical volume and spatial constraints. The result? Imaging environments where radiographers work efficiently, patients are positioned comfortably, and diagnostic image quality remains consistent from one exam to the next.
From fully automated configurations to more manual setups, our rad rooms adapt to diverse clinical settings. Whether you operate a high-volume hospital radiology department, a specialized imaging center, or a multidisciplinary clinic, our modular systems means you do not compromise on performance to fit your available space. Some facilities have consolidated two separate rooms into a single versatile digital x-ray room, gaining both floor area and workflow speed.
What sets these systems apart is the integration of advanced flat panel detector technology with intuitive software platforms. Our rad rooms are designed to deliver clear and accurate digital radiography images across all types of digital x-ray rooms. Equipped with advanced digital imaging systems and state-of-the-art digital x-ray units, they provide healthcare professionals with the tools needed for fast, reliable, and accurate diagnostics.
Digital x-ray equipment tailored to your practice :
Choosing the right digital radiography system starts with understanding your clinical workflow. How many patients per day? Which examinations are most frequent? What level of automation does your team actually need? These questions shape every recommendation Stephanix makes, because a system that fits your practice outperforms a system that simply checks specification boxes.
Our portfolio spans three tube support families: column tubestand solutions for compact installations, ceiling-suspended systems for maximum positioning freedom, and universal units that combine versatility with ergonomic precision. Each can be paired with digital flat panel detectors, advanced image processing software, and customizable table and Bucky configurations.
Digital radiography, commonly abbreviated DR, is a medical imaging technology that captures x-ray data using flat panel detectors and converts it directly into digital images. Unlike older film-based radiography, there are no cassettes to handle, no chemical processing to manage, and no waiting for film to develop. The x-ray signal is converted into a high-resolution digital image almost instantaneously, typically within five seconds of exposure.
This speed transforms clinical workflow. Radiographers can verify image quality on screen immediately, reducing the need for repeat exposures. Clinicians receive diagnostic images faster, which accelerates clinical decision-making, particularly in emergency and high-throughput settings. The digital format also means images are stored electronically, shared across networks via PACS, and archived without the physical storage demands of traditional film libraries.
At the core of every DR system sits the flat panel detector. Two main technologies exist: direct conversion detectors, which use amorphous selenium to transform x-ray photons directly into electrical signals, and indirect conversion detectors, which first convert x-rays into visible light using scintillator materials like cesium iodide (CsI) or gadolinium oxysulfide (GOS) before converting that light into electrical signals. Both approaches deliver superior image resolution and dose efficiency compared to older computed radiography plates.
Beyond the detector, a digital radiography system includes the x-ray tube and generator, mechanical positioning components (tube support, table, wall Bucky), image processing software, and a diagnostic workstation. Together, these elements form an integrated imaging chain where each component influences final image quality and departmental productivity.
Stephanix digital radiography systems are built around a set of core capabilities that directly impact diagnostic performance and daily usability in the x-ray room.
Advanced flat panel detector technology delivers high-resolution x-ray images with excellent contrast and detail. Wide dynamic range means a single exposure can clearly visualize both dense bony structures and soft tissues, reducing the need for repeat imaging and keeping patient dose to a minimum. How significant is the dose advantage? DR systems can achieve two to three times greater dose efficiency compared to computed radiography, and up to ten times the dose reduction compared to conventional film, depending on the examination and equipment configuration.
Rapid image preview is another defining characteristic. Images appear on the acquisition workstation within seconds, allowing technologists to confirm positioning and exposure quality before the patient leaves the room. This immediate feedback loop virtually eliminates wasted examinations and repeat visits.
Image processing tools enhance diagnostic value after acquisition. Contrast adjustment, edge enhancement, magnification, and measurement functions give clinicians the ability to extract maximum information from every exposure. All image management runs through intuitive software interfaces designed to minimize clicks and reduce learning curves for new staff.
Modular room configurations round out the package. Ceiling-suspended or floor-mounted tube stands, fixed or tilting wall Buckys, fixed or elevating tables: these mechanical components can be combined and customized to match your room dimensions, patient flow patterns, and clinical specialization. The flexibility to tailor each installation means no two Stephanix DR rooms need to be identical, even within the same facility.
Computed radiography (CR) and digital radiography (DR) both produce digital images, but they do so through fundamentally different processes.
CR uses reusable phosphor imaging plates housed in cassettes. After x-ray exposure, a technologist physically carries the cassette to a dedicated CR reader, which scans the plate with a laser to extract the stored image data. The plate is then erased and reused. This workflow mirrors the traditional film-based process, which made CR an accessible first step toward digital imaging when it was introduced. The trade-off: additional handling steps, slower image availability, and generally lower spatial resolution compared to modern DR panels.
DR eliminates the cassette entirely. The flat panel detector is built into the x-ray room, capturing images directly and transmitting them to the workstation in real time. There is nothing to carry, nothing to scan, nothing to erase. Images are available for review in seconds rather than minutes. This speed difference may sound modest on paper, but multiply it across dozens of examinations per day and the cumulative time savings reshape departmental throughput.
Image quality also favors DR. Flat panel detectors deliver higher spatial resolution, better contrast-to-noise ratio, and wider dynamic range than CR imaging plates. Combined with superior dose efficiency, DR provides clearer diagnostic images at lower radiation levels. For high-volume radiology departments, emergency rooms, and imaging centers where speed and precision directly affect patient outcomes, DR has become the reference technology.
CR still has a role in certain contexts, particularly in facilities with lower examination volumes or budget constraints that make a full DR installation impractical in the short term. However, the global trend is unmistakable: DR adoption continues to accelerate, and CR systems are progressively being phased out as flat panel technology becomes more accessible.
