Develop a digital mammography detector where medical certification and qualification typically increase development costs, and time to market.
- Integrate flexibility into the design to extend the product lifecycle.
- Implement technologies that favor re-use in multiple applications
The Breakthrough Innovation
To overcome these challenges, Orthogone implemented a universal, highly versatile platform based on FPGA with embedded ARM processors. The design favors technology re-use across a wide range of product lines and multiple applications.
The system was also architected to allow SW engineers and researchers to easily develop and implement their new, constantly evolving image processing algorithms without having to know anything about the FPGA implementation.
Electronic design of a high-speed, ultra-low noise Printed Circuit Board (PCB), including:
- Hardware and mechanical design concept and architecture
- Low-noise hardware design of analog circuits
- Hardware design based on Xilinx UltraScale+ MPSoC and multiple peripherals (DDR-4 memory banks, USB Type-C, sensor interfaces, etc.)
- Post-layout simulations of high-speed mixed-signal circuits
- FPGA Design of a highly programmable image processing engine. The system is partitioned to easily decouple the SW based algorithms development from the highly optimized HW acceleration performed by the FPGA fabric
- FPGA Hardware acceleration of image processing algorithms
- Board Support Package and device drivers (Xilinx MPSoC, USB Type-C, I2C, QSPI Flash, DMA transfers, SW/FW upgrades, etc.)
- OS Platform Supported: Linux, Mentor Embedded Linux, Nucleus RTOS
- Software development and optimization of fully HW accelerated image processing functions (from acquisition sensors to external communication interface, e.g. Host PC)
- Xilinx MPSoC UltraScale+
- Ultra-low noise analog design
- USB Type-C
- HW Accelerated (FPGA) Image Processing Algorithms