• Only BSDL files required to get the board up and running 
• Set up pin states – e.g. low, high, toggling 
• Trace shorts, opens and other signals 
• Easy low-level access to device pins/busses 
• Clear display of the pins/balls with variable zoom levels and split screen 
• View JTAG chain data as waveforms 
• Quickly find and monitor changing pins 
• Program devices with SVF and STAPL files 
• Real-time interaction 
• XJIntegration (use XJAnalyser functionality from other software)

OEM 6 channel DC source 

• Single Package 6-Pack of 600W power supplies 
• Complete self-contained controller operates independently once pre-set 
• Capable of ramps and sequences 
• Capable of inter-channel dependent operation 
• DeviceNet Interface 
• Solid State polarity switching

• Eight ports of 8 I/O bits each 
• High current capability for control of external relays, 300 mA sink 
• Simulate and receive digital data at up to 2 MHz sample rates 
• Selectable output voltages range from 3.3 V to 60 V 
• Setup outputs and scan inputs as part of EX1200 measurement sequencing engine

Transmission line probes are a special type of passive probe designed for use at very high frequencies. They replace the high impedance probe cable found in a traditional passive probe with a precision transmission line, with a characteristic impedance that matches the oscilloscope input (50 Ohm). This greatly reduces the input capacitance to a fraction of a picofarad, minimizing the loading of high frequency signals. A matching network at the tip increases the DC input resistance. While they have lower DC input resistance than a traditional passive probe (usually 500 Ohm) to 1kOhm), the input impedance of these probes remains nearly constant over their entire frequency range. A traditional /10 passive probe will have a 10 MOhm) input impedance at DC, however this impedance drops rapidly with frequency, passing below the input impedance of a transmission line probe at less than 100 MHz.

• 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