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Brandywine - PCI-SyncClock32 TURBO PCI Input/Output timing card with IRIG B, 1PPS and other time codes
- 3/4 length board (1/2 size available w/o GPS input)
- Optional Have Quick synchronization input
- IRIG’s A and B and NASA 36 time code inputs
- 1PPS sync input
- IRIG B output option
- 1PPS and time code inputs are redundant
- Single-slot including GPS option
- Zero latency time reads
- External Event input (optional eight or sixteen inputs)
- Match Time output
- Programmable Heartbeat rate
A staple product of bus level timing, Brandywine’s PCI card with optional GPS and IRIG B provides precision time with zero latency to the host computer over the PCI bus using the reference signal of your choice: IRIG B, 1PPS, IRIG A, NASA time codes, GPS or Have Quick. This PCI-Syncclock32 has a built-in microprocessor that automatically synchronizes the clock to the reference signal input. This timing card can be used as an IRIG–B timecode generator by setting the initial time via the PCI bus. The PCI syncclock timing module can free run and be set by commands from the host over the PCI bus.
More Product Information
- Support the most high-performance Camera Link cameras with available support for Full and 80-bit mode at up to 85 MHz
- Perform deterministic image acquisition by way of the jitter-free Camera Link 2.1 interface
- Maximize system compatibility with the choice of PCIe® 2.1 x1, x4 or x8 connectivity
- Eliminate missed frames with ample onboard buffering and PCIe bandwidth
- Optimize multi-camera applications via support for up to four Base or two Full/80-bit Camera Link cameras per board
- Minimize space requirements and maximize PC compatibility through a half-length design with mini Camera Link connectivity for true single-slot operation
- Improve and simplify system connectivity with Power-overCamera-Link (PoCL) support at extended cable lengths
- SOSA Aligned
- 3U VPX Form-Factor
- Reduced SWaP applications
- Ruggedization Level 200
- 11 Radial Clock Outputs
- OpenVPX Backplane support for 1000BASE-KX or 10GBASE-KR
- Optional Chip Scale Atomic Clock (CSAC) Holdover
- Optional Low Phase Noise (LPN) Analog output
- Optional secure GPS (M-code)
- Optional Timecode I/O
- IRIG A & B, NASA 36 and 1 PPS inputs
- HaveQuick sync option
- Propagation delay compensation
- Zero latency time reads
- Match time output
- External event time tags
- Three user programmable rates
- Conduction cooled
- Uses optical-pumping cesium technology rather than magnetic selection for higher stability and longevity.
- Fully compliant with ITU-T G.811 PRC / G.811.1 ePRC standards.
- Supports essential timing outputs such as BITS, PPS (1PPS), and analog frequency.
- Compact, modular design suitable for deployment in racks, enabling scalable deployment across telecom, defense, utilities, and data-center environments.
- Long service life and improved holdover performance — offering enhanced reliability even during extended GNSS disruptions.
- Remote and secure management capabilities, including support for SNMPv3 and integration with orchestration/management suites (e.g. Mosaic Controller).
- 3 isolated low phase noise 10MHz outputs
- Internal GPS Tracking Receiver
- External 1 PPS input
- Small footprint designed for easy integration
- Disciplined high stability OCXO
- 16 channel GPS SPS receiver (standard)
- IRIG B Time Code (standard)
- HaveQuick/1PPS from external GPS receiver (standard)
- Temperature Compensated Crystal Oscillator (TCXO) – option
- Oven Controlled Crystal Oscillator (OCXO) standard
- Atomic Rubidium Oscillator – option
- 1PPS 1 Pulse Per Second Signal Time Mark
- Have Quick Time Code
- IRIG B Time Code
- NTP
- OSA 3350 Cesium is the market’s first primary reference clock to utilize industry leading optical pumping technology
- Superior short-term and long-term stability compared to magnetic cesium
- Capable of 100 nanoseconds of holdover for a minimum of 30 days
- Compact, 3U 19” rackmount form-factor
- Guaranteed 10-year minimum life expectancy
- Tackle demanding imaging applications using an eighth-generation Intel Core processor
- Capture directly from GigE Vision® and USB3 Vision® cameras
- Broaden support for Camera Link® , CoaXPress® , DisplayPort, HDMI, and SDI video interfaces using Zebra frame grabbers
- Customize I/O capabilities through four PCIe slots accepting full-height, half-length cards
- Install in space-limited industrial environments given its small footprint and rugged design
- Streamline application development using the Aurora Design Assistant flowchart-based IDE or the Aurora Imaging Library SDK
- Tackle machine vision applications with utmost confidence using field-proven tools for analyzing, locating, classifying, measuring, reading, and verifying
- Leverage machine learning including deep learning to categorize image content
- Ready for deep learning training with suitably equipped and configured model
- Scale system performance from one to four computing clusters for demanding image acquisition and processing needs
- Support any camera interface type with the addition of appropriate Zebra frame grabber board(s)
- Exchange data between compute clusters internally at high speed through a PCIe Gen3 switched fabric backplane
- Maximize density in a 4U chassis with up to 10 full-length and one half-length, full-height PCIe Gen3 slots
- Tailor host data transfer bandwidth needs through PCIe x16, x8, and x4 interfaces
- Minimize the need for revalidation by utilizing a lifecycle-managed platform with consistent long-term availability
- Simplify system integration by using an integrated platform from a single vendor
- Solve applications rather than develop underlying tools by leveraging standard Microsoft® development tools and Aurora Imaging Library software
Brandywine Communications
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