Data conversion & FPGA Boards
FPGA modules, PCIe FPGA boards, and 3U VPX boards for high-performance embedded systems
FPGA modules, 3U VPX boards, and PCIe FPGA boards are essential building blocks for developing high-performance embedded systems. They offer the flexibility, scalability, and real-time processing capabilities required for the most demanding applications, whether in embedded artificial intelligence, RF processing, data conversion, or hardware acceleration.
FPGA SOMs (System-on-Modules) integrate an FPGA array, processors, memory, and interfaces into a compact module that can be easily mounted on a carrier board. This modular approach simplifies hardware development, accelerates prototyping, and reduces time to market. These modules are particularly well-suited for embedded AI, radar, industrial automation, and edge computing applications.
PCIe FPGA boards enable high-throughput, low-latency processing through a direct connection to host systems via PCIe Gen4 or Gen5. They also support ultra-high-speed network interfaces such as 100G and 400G Ethernet, making them an ideal solution for data centers, SmartNIC development, high-frequency trading, and real-time data processing.
3U VPX boards deliver high-performance data conversion and signal processing in a compact, rugged form factor suitable for the most demanding embedded environments. They are specifically designed for RF applications requiring high bandwidth and low latency.
For data conversion and RF processing applications, reflex ces also offers a range of SOSA-compliant boards and 3U VPX boards. Boards compliant with the SOSA (Sensor Open Systems Architecture) standard ensure better interoperability, increased scalability, and optimal compatibility with defense and aerospace architectures. They are perfectly suited to the needs of radar, electronic warfare, and advanced signal processing applications.
Whether you are developing a compact embedded system, an FPGA acceleration platform, a data conversion solution, or an RF architecture compliant with SOSA standards, reflex ces provides all the necessary components and platforms.
Versal™ RF – 16 ADC/DAC – Venus SoM
The Venus Versal™ RF module is a high-performance Small Form Factor (SFF) FPGA module designed for next-generation embedded systems requiring exceptional RF processing capabilities in a compact footprint.
Built around the latest AMD Versal™ RF adaptive SoCs, Venus combines high-speed data converters, powerful programmable logic, embedded processing engines and high-bandwidth memory on a single module.
Supporting up to 16 RF ADCs, 16 RF DACs, analog bandwidths up to 18 GHz, and an ultra-low jitter clock architecture, Venus enables the development of advanced software-defined radio (SDR), electronic warfare, radar, communications and test & measurement systems while significantly reducing integration complexity.
Vulcan carrier board
The Vulcan Versal™ Prime / AI Edge SoC Carrier Board is an evaluation board featuring PCIe Gen4 x8 connectivity, high-speed links up to 25Gbps, versatile interfaces including QSFP28, FMC+, and Ethernet, integrated NVMe storage (1TB), and robust industrial-grade operation from -40°C to +85°C.
The target applications of our Vulcan Versal™ Prime / AI Edge SoC Carrier Board are Aeronautics and Radar Systems.
The Vulcan carrier board is fully compatible with the Vulcan module.
Virtex® UltraScale+™ – XpressVUP-LP9PI2
The XpressVUP-LP9PI2 is a high-performance AMD VU9P board built around the AMD Virtex® UltraScale+™ VU9P FPGA. Designed as a low-profile PCIe accelerator, it combines exceptional processing capabilities with a rugged, fanless architecture, making it ideal for industrial systems and rugged defense deployments.
Powered by the Virtex® UltraScale+™ VU9P FPGA, the board provides the logic density, high-speed serial connectivity, and memory bandwidth required for demanding workloads. Its PCIe Gen3 x16 interface enables seamless integration into standard server and embedded computing platforms.
The XpressVUP-LP9PI2 integrates 16 GB of DDR4 SDRAM, 576 Mbit of QDR2+ SRAM, and dual QSFP28 interfaces supporting 10G, 40G and 100G Ethernet, delivering the high throughput needed for bandwidth-intensive applications. The combination of external memory and ultra-fast optical connectivity makes this VU9P FPGA board suitable for deterministic processing and low-latency data transfer.
Unlike conventional FPGA accelerator boards, the XpressVUP-LP9PI2 has been specifically engineered for harsh operating environments. Its industrial temperature-grade AMD Virtex UltraScale+ VU9P FPGA, passive dual-slot heatsink, conformal acrylic coating, and fanless design provide outstanding long-term reliability without compromising performance.
If you are looking for a standard single-slot PCIe board, with a passive heatsink, check the XpressVUP-LP5/9P Virtex™ Ultrascale+™ VU5P/VU9P FPGA PCIe board.
If you are looking for more processing performances, with an active dual-slot heatsink, check the XpressVUP-LP9PT3 Virtex™ Ultrascale+™ VU9P-3 FPGA PCIe board.
For a board mounted on a conduction-cooled heat spreader, with an acrylic coating, specially designed for fanless industrial and rugged defense system applications, check the XpressVUP-LP9PI Virtex™ Ultrascale+™ VU9P FPGA PCIe board.
Agilex™ 9 Direct RF – 8 ADC/DAC – Athena SoM
The Athena SoM is a Direct-RF system-on-module, based on the Altera® Agilex™ 9 AGRW027 FPGA SoC.
Its main advantage lies in its ultra-high-speed data conversion capabilities, with integrated 64 Gsps 10-bit ADCs and DACs, combined with an analog bandwidth of up to 36 GHz. This unique integration enables designers to handle demanding RF applications directly on chip, reducing system complexity, improving latency, and delivering unprecedented performance for advanced embedded systems.
The module integrates high-speed DDR4 memory and 56 Gbps PAM4 transceivers, making it a powerful and compact solution optimized for real-time, bandwidth-intensive applications. Leveraging a system-on-module approach simplifies design cycles and accelerates time-to-market, while ensuring reliability through pre-validated and production-ready components.
Target markets of the Athena Agilex™ 9 Direct-RF SoM include Phased-Array Radar Transmitter/Receiver systems, Electronic Warfare (ESM/ECM), Broadband Communication, Target Radar Simulator/Generator, and Airborne embedded systems.
➡️ We also offer the Athena carrier board for the Athena Agilex™ 9 Direct-RF module, fully developed and compatible with its SoM.
Versal™ RF – 8 ADC/DAC – AV155
The AV155 is a high-performance solution in our portfolio of Ultra Wideband Radar, ECM, and SIGINT systems, built on a rugged, conduction-cooled platform.
This 3U VPX board is powered by the AMD Versal™ RF VR1652 or VR1952, delivering exceptional processing capabilities for the most demanding applications. It features 4 or 8 channels of 32 Gsps 14-bit ADC (depending on the model) and 8 channels of 16 Gsps 14-bit DAC, with an analog bandwidth of up to 18 GHz. An ultra-low jitter clock synthesizer ensures precise timing, with support for both external and internal sampling clock references.
Designed in full compliance with the SOSA™ standard, the AV155 guarantees seamless interoperability across radar, electronic warfare, and communications systems, supporting smooth integration with diverse communication protocols and user-defined I/Os.
The board also includes 3×32-bit 64 Gb DDR5 memory running at 8533 Mbps LPDDR5X, providing ample bandwidth for real-time signal processing and high-speed data operations. Its conduction-cooled design makes it ideal for deployment in harsh environments.
The AV155 is perfectly suited for applications in Phased-Array Radar Transmitter/Receiver systems, Electronic Warfare (ESM/ECM), Broadband Communication, Target Radar Simulation/Generation, and airborne embedded systems, addressing the needs of the most demanding markets.
SOSA™ development chassis
Our 2-slot SOSA™ Development Set Up provides everything you need to start developing around our VPX SOSA™-aligned boards. Designed for engineers and system integrators, these kits include hardware, reference designs, and software tools that accelerate prototyping, testing, and integration.
By leveraging these development setups, you can quickly validate your applications, explore system-level interoperability, and optimize performance on our high-performance radar, ECM, and communications platforms. Whether you are working on phased-array radar, electronic warfare, or broadband communication systems, our SOSA™ Development Set Up ensures a smooth and efficient development experience.
Discover the different configurations available in the tabs below.
This development set up is fully compatible with our SOSA™ -aligned AV153 and AV155 boards, allowing you to start building and testing your applications right away.
Virtex™ UltraScale+™ – 4 ADC/DAC High res. – AV150
The AV150 is a component of our line of High-Speed data conversion and signal processing solutions, which adhere to the VITA 47, VPX standard.
Fully compliant with the OpenVPX standard, the AV150 supports a variety of communication protocols, including PCIe, Gigabit Ethernet and Aurora, as well as a large number of user-defined I/O.
The AV150 combines four 14-bit 3 Gsps ADCs and four 16-bit 6/12 Gsps DAC with ultra-high processing power delivered by an AMD Virtex™ Ultrascale+™ FPGA (VU7P/VU9P/VU13P).
AMD Virtex™ UltraScale+™ FPGAs provide the highest performance and integration capabilities in a 14 nm/16 nm FinFET node. In addition, they offer the highest transceiver bandwidth, highest DSP count, and highest on-chip and in-package memory available in the UltraScale™ architecture. Virtex™ UltraScale+™ FPGAs also provide numerous power options that deliver the optimum balance between the required system performance and the smallest power envelope.
Target markets of this AV150 VPX board include Phased-Array Radar Transmitter / Receiver, Electronic Warfare ESM /ECM, MIMO and Wideband Communication.
RFSoC Gen3 – 8 ADC/DAC High res. – AV145
The AV145 is a high-performance Zynq™ UltraScale+™ RFSoC Gen 3 VPX board designed for advanced RF applications requiring high-speed data conversion and real-time signal processing. Based on AMD RFSoC technology, the board integrates RF ADCs, RF DACs and FPGA processing capabilities into a single platform, reducing system complexity and enabling low-latency RF processing.
The AV145 is part of our range of High-Speed data conversion and signal processing solutions based on the VITA 46, VPX standard.
The AV145 is fully compliant with OpenVPX standard, accommodating various communication protocols such as PCIe, SRIO, 1 Gbit and XAUI 10 Gbit Ethernet, as well as non OpenVPX adopted standard such as Aurora.
The AV145 includes one AMD Zynq™ Ultrascale+™ RFSoC GEN 3 XCZU47DR with the minimum external resources for low power applications.
The AV145 features eight channels 14-bit 5 Gsps ADC and eight channels 14-bit 9.85 Gsps DAC with optimized analog performances, making it ideally suited for embedded signal processing applications such as Electronic Warfare, Wideband Radar Transmitter/Receivers or Wideband Communication applications.
The AV145 features one internal ultra-low jitter reference and two clock synthesizers and can be used with external reference for higher flexibility.
The AV145 AMD Zynq™ Ultrascale+™ RFSoC XCZU47DR provides an impressive processing capability of more than 5.5 TMACs (Multiply Accumulate per second), four 1333 MHz Arm Cortex-A53 cores, one 512M64 or 1G64 DDR4-2400 SDRAM memory for data processing, two 2 Gb synchronous FLASH memory for program boot and one 1TB NVMe embedded SSD.
The AV145 provides one GbE, one UART and one USB 2.0 interfaces.
The AV145 comes with an embedded Linux and all necessary cores to build user FPGA applications.
AC103 OpenVPX chassis
The AC103 is a 3U VPX desktop chassis with a 3 slot, 1″ slot pitch, OpenVPX BKP3-CEN03-15.2.9-3 backplane designed for development, test and commercial application deployment.
The AC103 backplane supports Rear Transition Modules (RTM) with access to all VPX P2 signals.
The chassis features a 600 W power supply and strong fans for adequate cooling capabilities
AC104 OpenVPX chassis
The AC104 is a 3U VPX 19” rackable chassis designed for development and deployment.
The AC104 is able to support up to 12-slot backplane with a 1″ slot pitch.
The AC104 backplane supports Rear Transition Modules (RTM) with access to all user defined VPX signals.
The chassis features a 1,200 W power supply and strong fans for adequate cooling capabilities.
Support for Conduction Cooled modules can be provided on demand.
Virtex™ Ultrascale+™ – 2 ADC/DAC low lat. – AV143
The AV143 is part of our range of High-Speed data conversion and signal processing solutions based on the VITA 46, VPX standard.
The AV143 is fully compliant with OpenVPX standard, accommodating various communication protocols such as PCIe, SRIO, 1 Gbit and XAUI 10 Gbit Ethernet, as well as non OpenVPX adopted standard such as Aurora.
The AV143 combines one dual channel 12-bit 3.2 Gsps / single channel 12-bit 6.4 Gsps ADC and one dual channel 12-bit 3.2 Gsps / single channel 12-bit 6.4 Gsps DAC with ultra-high processing power delivered by AMD Virtex™ Ultrascale+™ FPGA, making it ideally suited for embedded signal processing applications such as Electronic Warfare, Wideband Radar Transmitter/Receivers or Wideband Communication applications.
The AV143 features an internal ultra-low jitter reference and one clock synthesizer and can be used with either external clock or external reference for higher flexibility.
The AV143 includes one AMD Virtex™ Ultrascale+™ VU13P FPGA for an impressive processing capability of more than 19 TMACs (Multiply Accumulate per second), two 1G64 DDR4-2666 SDRAM memory for data processing and 2 Gb synchronous FLASH memory for multiple firmware storage. The AV143 can also be fitted with one AMD Virtex™ Ultrascale+™ VU7P or VU9P FPGA.
The AV143 provides a USB 2.0 interface and a USB to UART interfaces intended to be used for system monitoring and supervision.
The AV143 comes with complete software drivers for Windows and Linux. An FPGA Development Kit is provided including all necessary cores to build user FPGA application.