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  • Modular & Flexible

    The Cobra PXIe High Speed Recorder is a unique solution for high speed data recording and playback. The system utilizes the PXI Express system architecture to provide a modular, flexible solution that can be customized to nearly any requirement. The main recording engine, Cobra, is a PXIe board with high speed RAM and a high performance Xilinx FPGA. This board manages the data movement to and from storage devices and also provides optical fiber channels for high speed data input or output. The Cobra board can be used alone or in concert with additional Cobra boards to reach data streaming performance of 20 GB/s (160 Gbps).

    A typical system configuration will include an Intel processor based controller, one or more Cobra boards, and one or more SSD based storage boards. The PXI Express backplane allows numerous configurations and combinations of storage and recorder boards to match nearly any requirement. Extended systems can also employ an additional chassis to provide additional storage capacity if desired.

    Peer-to-Peer PCI Express

    Conduant’s StreamStor® architecture provides the capability to move data on the PCI Express fabric using Peer-to-Peer techniques. This allows direct hardware data streaming from A/D or other PCI Express sources to or from the data storage without being impaired by system bottlenecks. The system can also accept data from multiple PCI Express sources simultaneously.


    The system can operate independently from a host computer with command/control performed over a network connection. Control can also be automated from a software application using the StreamStor® software API on a network connected computer. A cabled PCI Express option provides connectivity to a host computer for command/control and/or high-speed data access. The cabled PCI Express option provides a 64 Gbps link that can be optionally extended to support long distance links using a PCI Express fiber optic cable.

    Solid State Storage

    The standard storage devices used in the Cobra system are M.2 NVMe PCI Express solid state drives. These devices are installed with up to 4 per PXI Express slot. These drives are available in capacities up to 4 TB each, with even higher capacities expected in the future. The use of solid state drives provides consistent performance even with high levels of shock and vibration. Current standard configurations support up to 128 TB of storage in a 4U 22″ deep chassis. Check with your Conduant sales representative for the latest available storage offerings compatible with the Cobra system.

    High Speed Serial (Optical)

    The Xilinx FPGA on the Cobra board optionally includes up to 24 channels (48 fibers) of high speed optical and can be configured to support many different high speed serial protocols. The protocols possible over these interfaces include ODI (Optical Data Interface), Interlaken, Serial FPDP, and Aurora. Other interfaces can be added according to customer requirements.

    The optical interfaces can also be used to extend the recorder performance. For example, an ODI recorder is capable of 160 Gbps using 4 recorders and a 12 x 14.1 Gbps interface. The optical interface provides a high speed data path that is daisy chained to each recorder so that the speed capability is aggregated across the cooperating recorders.

    The 24 optical fibers can be tailored to customer requirements by bonding channels to create higher speed channels or used independently to record large numbers of slower channels. The Xilinx FPGA also allows Conduant the flexibility to customize an implementation for a particular protocol.

    Trigger/Sync Capability

    The Cobra hardware is connected to the PXI Express backplane instrumentation signals and also has front panel signal connectors. These signal sources can be adapted to customer requirements to provide unique capabilities required for a customer application—triggers, event marking, etc.

    Software API

    The included software development kit (SDK) includes support for .NET development environments. This includes languages such as C#, Visual Basic, and C++ CLI. The SDK also includes a complete “C” based interface to facilitate usage of nearly any programming language. This includes programming environments such as LabVIEW and MATLAB.

    The SDK includes support for features such as wrap mode (circular buffer) for very long duration recording, playback looping, and multiple recording (file) management. Additional features are added regularly and the software can be customized as needed.

  • The Big River™ DM-4M.2-3U PXI Express storage unit provides up to 15.2 TB of NVME SSD storage in a single PXI Express slot. The DM-4M.2 has a PCI Express Gen3 x8 host interface (up to 8GB/s). With the latest NVME SSD storage, the board delivers high speed data rates for sequential writes of 7.1 GB/s and for sequential reads of 7.1 GB/s in Gen3 PXI Express based systems.

    The single slot design of the DM-4M.2 increases the availability of valuable chassis slots when compared to other solutions and allows for maximum storage flexibility. The DM-4M.2 complies with PCIe Gen3 protocol standards and uses industry standard NVME SSD storage devices. The DM-4M.2 operates under Windows 7, 8.1, and 10, and can utilize the software RAID feature of Windows to combine up to 4 devices on the board into a single addressable device.

  • The Big River® DM-825-3U storage units provide disk storage resources to PXIe based systems. By providing an internal enclosure for disk storage, the DM-825-3U allows high speed storage applications to be designed around a standard configuration. With capacities of up to 30TB in a single unit (24TB if SSD storage is desired), the DM-825-3U can provide abundant storage in a small enclosure.

    The DM-825-3U integrates with the operating system to provide additional storage capacity in a JBOD or software RAID configuration. It is designed for use in a PXIe 3U chassis with 4, 6, or 8 drives.

  • The Big River® DM-8M-3U mSATA storage unit provides disk storage resources to PXI Express based systems. By providing an internal enclosure for solid state storage, the DM-8M-3U allows high speed storage applications to be designed around a standard PXIe chassis. With capacities of up to 8TB in a single slot, the DM-8M-3U can provide abundant storage in a very small enclosure.

    The DM-8M-3U integrates with the operating system to provide additional storage capacity within a software RAID configuration.

    The DM-8M-3U is designed for use in a single PXIe slot in a 3U chassis.

  • The Conduant HSS-8324 Optical FPGA board provides the user with a hardware platform that is able to sustain full-duplex high-bandwidth transfers through its 8-lane Gen3 PXI Express (PXIe) interface and its 24-lane optical interface. The PXIe interface provides a theoretical maximum throughput of 8GB/s (simultaneous in and out).

    The board provides both 8GB of high-speed DDR3 SDRAM and 8MB of QDR II+ SRAM. At the center of the design is a Xilinx Kintex Ultrascale (XCKU095-FFVB1760-2-E) FPGA which interconnects all ports and other devices while supplying the additional resources that are available within the FPGA. Other models of Kintex or Virtex Ultrascale FPGAs may be available; check with your Conduant sales representative.

    With up to 48 optical fibers available, the board can be used for numerous applications that require high speed data connectivity. Each lane of optical fiber (transmit or receive) can operate independently. There are also dual Interlaken cores available in the FPGA which can be used to create dual 150 Gbps Interlaken connections (12 x 12.5 Gbps). Other optical protocols (i.e. Serial FPDP, Aurora, etc.) can also be used and a copper cabling option is available.

    At power-on, the Kintex Ultrascale FPGA is quickly configured with the user program by using the SPI x4 serial flash memory device. This provides the fast wake-up required for PCI Express. The user content can be encrypted using a key that is either permanently programmed in a non-volatile manner into the FPGA (eFUSE) or can be preserved in a volatile manner so long as the on-board battery is not removed. This feature makes this product particularly attractive for applications in which protecting the FPGA intellectual property from cloning or reverse engineering is important.

    The board includes a microcontroller for power management and an on-board I2C interface connecting the uC, FPGA, and optical transceivers.

    For users who need more FPGA resources than are available in the XCKU095-FFVB1760-2-E, the pinout has been chosen to support migration to other, pin-compatible, Virtex/Kintex Ultrascale components. These variations can be provided by request.

  • The StreamStor® SFPDP mezzanine board can be used with compatible StreamStor® controllers to provide direct data input from Serial FPDP (Serial Front Panel Data Port) or other optical data protocols. When combined with a StreamStor® controller such as Amazon, this interface can provide data input performance of up to 500 MB/s.

    With its four independent optical ports, the SFPDP mezzanine board can support recording of up to four incoming data streams. The board can be ordered with support for data rates from 1.06 to 2.5 Gbps and wavelengths of 850nm or 1300nm to support cable lengths of up to 25km. The board uses industry standard LC optical connector style for easy connection to compatible data sources.

    Standard support is provided for the Serial FPDP protocol (ANSI/VITA 17.1-2003), which is a highly specialized protocol optimized for maximum data rates and minimum overhead. With all packet formation and management performed by the hardware, there is no latency or other delays to affect data transmission performance. Combined with StreamStor® storage controllers, this data interface provides a reliable and sustainable high speed data recording and playback solution. Other protocols can be supported with updates to the on-board Altera Stratix FPGA hardware. The flexibility of programmable logic makes it possible to customize the hardware to each unique application.

    Serial FPDP

    The serial FPDP protocol is defined by the ANSI / VITA 17.1-2003 standard. The standard is available for a small fee online at Conduant Corporation also provides hardware source code to customers who wish to implement Serial FPDP on their own FPGA-based circuit boards. Please contact your Conduant sales representative for more details.


    • SFPDP-4240 (4 port, 850nm, 2.5 Gb) ……………….. PN 400300040
    • SFPDP-4100 (4 port, 850nm, 1.06 Gb) ………………. PN 400300041
    • SFPDP-2240 (2 port, 850nm, 2.5 Gb) ……………….. PN 400300035