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PXIe-7856

The National Instruments PXIe-7856 is a multifunction reconfigurable I/O module with 8 analog inputs, 8 analog outputs, 48 digital I/Os, a 1 MS/s sample rate, a Kintex-

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    Description

    The National Instruments PXIe-7856 is a high-performance PXI Multifunction Reconfigurable I/O Module featuring eight analog inputs and outputs, as well as 48 digital input/output channels.

    It has part numbers PXIe-7856R and 784145-01, and is capable of a sample rate of 1 MS/s, allowing for rapid data acquisition and processing.

    Equipped with a powerful Kintex-7 160T FPGA, this module offers substantial computational capabilities right on the hardware itself.

    The integration of two 68-pin VHDCI I/O connectors facilitates extensive connectivity options, while each channel’s dedicated Digital-to-Analog Converter (DAC) ensures precise control over signal outputs.

    With 2 LVTTL, LVCMOS compatible digital I/O connectors, it accommodates a wide range of digital signals, and the logic level can be easily set via software, defaulting at 3.3V.

    The module’s first digital I/O connector supports signals with a maximum frequency of up to 10 MHz across 16 channels, whereas the second connector accommodates higher-speed signals of up to 80 MHz on 32 channels.

    Feature Specification
    Product Type National Instruments PXIe-7856 PXI Multifunction Reconfigurable I/O Module
    Part Numbers PXIe-7856R, 784145-01
    Analog Inputs Eight
    Analog Outputs Eight
    Digital Input/Outputs 48
    Sample Rate 1 MS/s
    FPGA Kintex-7 160T FPGA
    I/O Connectors Two 68-pin VHDCI
    DAC per Channel Dedicated Digital-to-Analog-Converter (DAC) per channel
    Digital I/O Connectors 2 LVTTL, LVCMOS compatible
    Logic Level Software-selectable, default at 3.3V
    Max Frequency (Connector 0) Up to 10 MHz
    Channels (Connector 0) 16 digital channels
    Max Frequency (Connector 1) Up to 80 MHz
    Channels (Connector 1) 32 channelsQuestion 1: What type of FPGA is integrated into the National Instruments PXIe-7856 module, and how does it contribute to the module’s computational capabilities?
    Answer 1: The National Instruments PXIe-7856 module integrates a Kintex-7 160T FPGA, which contributes to the module’s computational capabilities by allowing for high-speed data processing and real-time execution of complex algorithms directly on the hardware.

    Question 2: What is the maximum sample rate of the National Instruments PXIe-7856, and how does its onboard Kintex-7 160T FPGA enhance its data processing capabilities?
    Answer 2: The National Instruments PXIe-7856 module features eight analog inputs and outputs, 48 digital I/O channels, a Kintex-7 160T FPGA for advanced computation, two 68-pin VHDCI connectors for extensive connectivity, dedicated DACs for precise signal control, and compatibility with 2 LVTTL, LVCMOS digital I/O connectors. It supports a sample rate of 1 MS/s, a default logic level of 3.3V, signal frequencies of

    Question 3: What are the capabilities and features of the National Instruments PXIe-7856 module in terms of analog and digital I/O channels, FPGA specifications, connectivity, and supported signal frequencies and levels?
    Answer 3: The first digital I/O connector of the National Instruments PXIe-7856 module supports a maximum frequency of up to 10 MHz across 16 channels.

    Question 4: What is the maximum frequency supported by the first digital I/O connector on the National Instruments PXIe-7856 module, and on how many channels is this frequency available?
    Answer 4: The first digital I/O connector on the National Instruments PXIe-7856 module supports a maximum frequency of up to 10 MHz across 16 channels.

    Question 5: What is the maximum frequency supported by the first digital I/O connector of the National Instruments PXIe-7856 module, and how many channels does it support at this frequency?
    Answer 5: The maximum sample rate of the National Instruments PXIe-7856 is 1 MS/s, and its onboard Kintex-7 160T FPGA enhances its data processing capabilities by enabling substantial computational power directly on the hardware, allowing for rapid and efficient data acquisition and processing.