Fidus Solution Portfolio

We took a AMD/Xilinx® ML605 development kit, an Avnet® HDMI FMC card, and a Panasonic® 1080p60 streaming camera, and made a video demo. The demo is set-up by recording four independent hi-def feeds into the onboard DDR3 memory. We then placed all four videos on the screen at one time, so before we store them into memory, we scale the feeds, and then dump them into memory. Next, we start the camera streaming live video. This live video is scaled, and overlayed onto the four simultaneous video playbacks. Building on this, we also decided to smoothly move the live video feed around the screen, rebounding as it comes to the edge of the display; all at full high definition 1080p60 rates.

This system consists of a AMD/Xilinx® MicroBlaze® soft core, a DDR3 memory controller, and a whole bunch of custom scaling, overlay, video processing, and movement code.

This solution has since been ported to the AMD/Xilinx® KC705 development kit.

The design utilized a DVI-D connector as well as a DVI-I connector. The DVI connectors were the connections to the outside world and directed data into and out of an FPGA. Both sides relied on a TMDS transceiver, and the analog portion of the DVI-I was accomplished using a Dual DAC. The FPGA was responsible for processing both the high-speed video data as well as the DDC (I²C) bus.

We were requested to develop FPGA code to enable a high-performance ADC (analog-to-digital converter) daughterboard to interface to an Altera® Stratix IV® evaluation board. This solution accomplishes two things: It provides our customer with an additional method of evaluating and experimenting with their chipset, and, it provides a piece of IP that their customers can directly incorporate into their end design.

The semiconductor manufacturer asked us to design a board that they could use to both validate functionality as well as characterize operation by placing a thermal hood over their IC. This board allowed our customer to validate I/O operation, internal register operation, and characterize their IC across temperature.

In this type of development, we minimize the support circuitry so that we can minimize project cost, schedule, and risk. This includes utilizing off-the-shelf system on modules (SOMs; in this case a RabbitCore®) in conjunction with simple GUIs, to control the ASIC.

We designed this ASIC emulation board so our customer could validate their RTL prior to committing to ASIC. Built around three AMD/Xilinx® Virtex-II PRO® FPGAs (the largest FPGAs in the world at the time), this board met all input/output requirements of the final ASIC, but also included the complexity associated with the multiple high-speed parallel links that allowed the FPGAs to communicate with each other. Note: This could now be done in a single AMD/Xilinx® Virtex-7® 2000T.

A multi-industry design intended to allow customers to evaluate and develop with AMD/Xilinx® Zynq™. Relying on our AMD Premier member status, we completed this design prior to the general availability of Zynq™, making this one of the first Zynq™ solutions ever created. This early adoption is a hallmark of Fidus’ technology-first attitude, and ensures that we can offer extremely early expertise in the latest pivotal technologies.

This robust, conduction cooled HPC FMC card was designed to interface to a large variety of host cards. It provides multiple ADC channel inputs, clock generation and low jitter distribution, power regulation and post filtering. Utilizing our lab equipment, the analog front-end was parameterized and characterized. This product passes high-speed serial data to the FPGA host card utilizing JEDEC’s JESD204B serial standard for data converters; the Xilinx® JESD204B IP core was utilized.

Fidus’ client needed an offline power card to assess the quality and condition of the mains. Fidus delivered this solution, complete with modified BIOS parameters. This project required knowledge in power supply design, x86 processors, BIOS and BSP design, FPGAs, and DSPs.

We assisted the customer with a number of items, including a RoHS bill of materials scrub/redesign of this mostly analog board. All modifications were carefully identified, the associated risks were assessed, and the appropriate updates were made. Clear concise reporting and documentation was critical due to medical industry requirements.

Having already developed an Automatic Identification System airborne receiver, we set out to design a compact AIS Class B Transponder for international maritime operation. Our AIS B solution utilized a AMD/Xilinx® Spartan-6® based software defined radio resulting in extremely clean transmit bursts, and an extremely sensitive AIS receiver. We wrote the AIS protocol stack to run on the onboard ARM processor. A vast number of different I/O options were supported. This system is a great example of Fidus delivering complex hardware, RF, FPGA, embedded software, and mechanical design- a real turnkey project.

This product was independently tested and complied with the international AIS protocol and RF performance requirements.