Field Programmable Gate Arrays (FPGAs) are becoming a top choice in medical device development due to their flexibility and cost efficiency. Unlike ASICs, FPGAs avoid high upfront NRE costs and large order requirements. They allow reprogramming, enabling quick updates and design improvements.
Compared to ASSPs, FPGAs offer better customization and integration. This helps manufacturers create unique products and adapt quickly to market changes. FPGAs also support long product lifecycles with field upgrades, reducing the risk of obsolescence.
At the same time, AI is reshaping healthcare with real-time image analysis, continuous monitoring, and personalized care. FPGAs are ideal for accelerating these AI tasks at the point of care. They deliver high performance, low power use, and adaptability. This makes healthcare solutions smarter and more responsive to evolving needs.
FPGAs enable fast image processing in MRI, CT, and ultrasound systems. With AI integration, they deliver real-time insights during scans and procedures, improving diagnostic speed and accuracy. On-device processing reduces delays and supports faster, smarter decisions.
FPGAs are highly customizable, allowing hardware to be tailored for imaging, genomics, or surgical systems. Their parallel processing powers high-speed data analysis, while scalable design supports diverse product lines and faster innovation.
Low power and small form factor FPGAs can be more energy efficient than general-purpose processors which are crucial for portable or implanted medical devices such as patient monitors, infusion pumps, and pacemakers
FPGAs enable AI-driven analysis of patient data, allowing for enhanced diagnostics and customized treatment plans. By processing data directly at the edge, FPGAs can support personalized treatment recommendations based on real-time insights into patient conditions. This capability helps providers offer more targeted and effective care, leading to improved health outcomes.
FPGAs facilitate localized AI processing, allowing continuous monitoring of vital signs without cloud dependency. This on-device processing reduces latency and enhances privacy, enabling timely detection of anomalies like arrhythmias or respiratory changes, even in remote or home-care settings.