Preparing for your next FPGAArchitecture DefinitionArchitecture Definition

Develop a robust, custom hardware and control platform from scratch to enable high-precision monitoring in demanding mining environments, requiring seamless integration between physical interfaces and complex communication protocols.

Build a robust radiation-monitoring device that integrates a Geiger detector with proper signal conditioning, runs local processing, and meets reliability/MAIT requirements for deployment in critical environments

Develop a high-performance, industrial-grade hardware platform capable of accurately digitizing and synthesizing high-speed signals for advanced systems like radar test benches.

Specialized, custom digital logic required within the automotive supply chain.

Specialized, high-reliability data conversion and custom digital logic required within the automotive supply chain.

Optimize multiple live data streams under variable bandwidth, maintain QoS, and expose control/monitoring while sustaining high-throughput, low-latency operation.

Design a highly reliable and reusable CAN protocol core (based on CANopen and MilCAN) specifically tailored for demanding aerospace applications.

Accurately emulate complex channels and targets for the calibration and testing of a SAR (Synthetic Aperture Radar) system, demanding high-precision, sub-clock period timing resolution.

Design, develop, and integrate a comprehensive suite of complex subsystems essential for the operation and data management of a Synthetic Aperture Radar (SAR) Payload on an Earth observation satellite.

Design and develop critical, high-reliability electronic modules for the OBC of the LEO smallsat SABIAMAR

Design and develop critical, high-reliability electronic modules and FPGA cores for the VIS NIR and NIR SWIR Cameras, payload of the SABIAMAR Satellite

Adapt and validate an existing FPGA-based SDR (Software Defined Radio) platform (Ettus USRP) to function as a multi-purpose radar system.

Develop equipment to measure wall thickness at multiple points around seamless pipes in real time. Build a bridge PCB between the sensor front-end and a suitable processing unit (to be selected), then implement the algorithm in FPGA (SoC PL), hand off through the microcontroller/SoC (PS), and forward to the data processor for analysis and visualization.

Build a benchtop evaluation platform to validate a MIPI C-PHY/D-PHY retimer ASIC at multi-lane, up to 16 Gbps rates—capturing traffic, enabling configuration/diagnostics, and providing remote pattern testing and frame analysis—while meeting tight signal-integrity constraints and accelerating post-silicon bring-up.