Advanced medical imaging offers improved image quality, fewer doses, and faster process timings. Medical imaging workstations have evolved dramatically over the past few years, which have compelled businesses to focus more on improving technology and provide public access to the software.


The application of workstations and IT in medical imaging is developing rapidly. Integration, however, is not yet in its final stages. While monitoring and interpreting the trends is difficult, it is important to make decisions to recognize the advantages of these systems and to make the transition from analog to digital imaging possible.

What are medical imaging workstations?

There are 2 different types of workstations. The first type is called Workstation "thick client." Such high-performance, high-resolution workstations are where radiologists spend much of their time and make the bulk of their choices. In comparison, there are "thin client" workstations that can be found on the clinic floor, on a physician's desk or in his or her home office, or as part of a portable system most recently. Such thin client workstations have Web browsers that are specially designed.

The thick client workstations are very similar to the common platforms of gaming. The gaming devices are fitted with high-performance computing capabilities and computer graphics equipment, all powered by local software. Similar to how we use thick client workstations in radiology, the gaming systems can run autonomously. Image sets can be downloaded to these workstations and they can also be operated locally (that is, without the need for a remote host machine to control the images).

The thin client portals are display stations such as those that you may have on your office or home desk or a wireless computer, such as a Web-enabled mobile phone or personal digital support. Such thin client displays use a remote collection of host computers to provide computing services. Imaging Web services are now everywhere to be found, particularly in a modern hospital or medical center.

Different kinds of modalities:

Computed Tomography (CT)

Giants in the deep learning field are developing advanced full body technology that can use AI to process CT scans. AI-powered medical imaging technology can show any suspicious findings on the medical scan of a patient so that radiologists can examine them. The AI systems seek to provide support for radiologists who focus on areas such as the chest, abdomen, spine, and head.

Magnetic Resonance Imaging (MRI)

The new advancements in magnetic resonance imaging (MRI) technology were on the software side, allowing for quicker contrast scans, significantly simplifying cardiac imaging workflows and enabling lung MR scans. In recent years, advancements in medical implant technology have significantly expanded the number of patients with these instruments, which has complicated MRI scanning of these patients. MR-conditional procedures include knee and hip replacements, spine procedures, pacemakers and cardioverter (ICD) implantable defibrillators.


This cancer detection technology allows the breast tissue to be replicated in three-dimensions (3D), which can then be viewed across the breast as sequential slices. This new technique eliminates error and allows even dense tissue to be studied in detail. Tomosynthesis helps detect minute lung nodules and chest pathologies which can go undetected using traditional methods. This 3D imaging helps outline the anatomy of cancer in patients and more specifically assess the stage of the disease.

Medical industry trends that outline the advancements in medical imaging workstations market:

Virtual Reality & 3D Imaging

The medical imaging workstations industry is flooded with the Virtual Reality (VR) technology right now. Not only are VR and 3D imaging technologies useful for entertainment but they do have important consequences in the medical imaging industry. As amazing as MRIs and CT scans are, their presentation in 2D actually allows physicians to use their imaginations to mentally sew a complete image of the part of the 3D organ or body together. Now, modern virtual reality technologies, such as EchoPixel True 3D, have allowed radiologists or physicists to take slices of MRI images and produce a 3D image that physicians can view with 3D glasses, a VR headset, or even print using a 3D printer and special plastic.

 Automated CT Scanners

The diagnostic imaging market has seen major technological developments in the field of computed tomography over the last decade, including the advent of low-dose, automated CT scanners. These instruments deliver high image quality, with increased spatial resolution and low patient and surgeon sensitivity to radiation. These advanced CT devices have a simple screen, provide ease of operation and provide minimum space requirements for affordable installation. These factors drive the acceptance of these products by health care practitioners and researchers across major global healthcare markets.

AI as a supplemental lens for medical image analysis

Over several years, Artificial Intelligence dominated session tracks and names at picture conferences and industry headlines. Although it has the potential to significantly alter medical imaging in the long term, there are currently few FDA-cleaned requirements for the use of AI in DR; and overall acceptance in the healthcare sector has been sluggish.

AI would play a role as a supplementary lens for medical image processing in the near term by detecting subtler changes in scans while reducing the preparation time for care by analyzing large quantities of data. AI also has a lot of potential to improve operational performance, freeing experts from boring and repetitive tasks. Using AI and switching to 3D imaging complement each other because the images provide a vast amount of information that could be processed by a computer and shown to the radiologist or referring doctor.

To sum up

Although several innovations influence healthcare, this year AI dominated, with a smaller emphasis on 3-D imaging and printing. Other areas like cybersecurity are also starting to appear in radiology, and the protection of patient information is also an essential subject in radiology. The medical profession is no longer following prototyped practice, diagnosis, or treatment lines. This is a revolutionary development, as it has helped to improve many medical technologies.

Free Valuable Insights: Global Medical Imaging Workstations Market to reach a market size of USD 6.2 billion by 2025

In healthcare IT, ideation has become the norm of the day. All of these variables indicate a promising growth rate in the workstation medical imaging industry. A dedicated medical imaging workstation allows for detailed analysis and diagnosis. Moreover, the use of 3D medical imaging technology has added a new aspect to the radiology domain.

Votes: 0
E-mail me when people leave their comments –

Knowledge Based Value (KBV) Research is a global brand and consulting firm serving all kinds of business verticals, government and non-governmental organizations, and not-for-profit organizations. Our motto is to extend our services that will have a lasting impact on our clients who trust us with their business goals.

You need to be a member of Global Risk Community to add comments!

Join Global Risk Community

    About Us

    The GlobalRisk Community is a thriving community of risk managers and associated service providers. Our purpose is to foster business, networking and educational explorations among members. Our goal is to be the worlds premier Risk forum and contribute to better understanding of the complex world of risk.

    Business Partners

    For companies wanting to create a greater visibility for their products and services among their prospects in the Risk market: Send your business partnership request by filling in the form here!