MEDICAL: TRENDS
and reducing unwanted outcomes in the real world. Continued advances in AI models and data centres will continue to push digital twins as we move forward, helping healthcare providers to predict patient outcomes, optimise treatments, and create more resilient workflows that can better adapt to a sudden demand caused by natural disasters or pandemics. 8. Edge computing in healthcare Edge computing is a technological trend that simultaneously impacts a wide number of markets. It is already an integral part of the healthcare landscape, particularly in MIoT and wearable applications. By processing data locally, Edge computing can help to reduce latency in life-saving situations compared to cloud-backed alternatives. Edge AI or ML models can potentially decrease device communication by locally processing data, resulting in reduced transmitted data, or through intelligent local processing to determine data transmission requirements. For instance, instead of sending continuous data, a device could transmit information only when a person’s vitals are abnormal. 9. VR, AR, and MR in healthcare Virtual reality (VR), augmented reality (AR), and mixed reality (MR) technologies are finding new applications in healthcare, ranging from surgical training (Figure 3) to patient education. By combining digital images or even complex digital twins, these technologies provide a virtual world for simulation where mistakes cannot harm patients. Advances in tracking and imaging technology are enabling newer VR/AR systems to track movement more accurately and therefore reflect real-world situations. Bosch’s BHI360 Programmable Inertia Measuring Unit (IMU) Smart Sensor
System is a compact, ultra-low-power solution designed to provide AR/VR/ MR headsets and controllers with high-precision and low-latency motion tracking. It can allow smoother and more accurate VR experiences, enhancing the value of surgical training or increasing the end-user experience in patient education scenarios. 10. 3D printing in medical devices The use of 3D printing and additive manufacturing has been on the rise in medical facilities, particularly after notable successes in recent years. 3D printers are also driving significant advancements in personalised prosthetics and will continue to provide impetus to this field in the coming years. 3D printing is transforming the way medical devices are manufactured, allowing for the rapid production of lower cost but more customised prosthetics, both within traditional clinical settings and beyond. Charities worldwide are now adopting 3D printing technology to improve the accessibility of prosthetics, especially in times of conflict or emergencies, thanks to its ease of use and fast processing capabilities. Conclusion As we can see, a series of transformative trends is shaping the future of medical technology. As these trends continue to evolve, design engineers will seek robust and reliable technologies that meet the complex demands of modern healthcare systems. Mouser Electronics offers a wide range of components that are designed to support engineers as they create the next generation of medical devices that not only improve patient outcomes but also enable more efficient, personalised, and accessible healthcare solutions.
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