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General| Sampling Rate | 500 kS/s |
|---|---|
| Resolution | 16-bit |
| Counter/Timer | 4 |
| Analog Outputs | 2 |
| Output Range | ±10 V |
| Power Supply | USB powered |
| Communication Interface | USB |
| Operating Temperature | 0 °C to 45 °C |
| Storage Temperature Range | -20 to 70 °C |
Guidelines for operating NI 63xx X Series devices and modules safely.
Steps for installing application software, NI-DAQmx, and hardware.
Using NI-DAQmx driver software to program measurement devices.
Description of signals found on the I/O connectors. Not all signals are available on all devices.
Overview of analog input circuitry for MIO X Series devices.
Description of differential, referenced single-ended, and non-referenced single-ended input settings.
Programming AI channels to acquire data with different ground references using software.
Ensuring fast settling times by using signal sources with low impedance.
Performing analog input measurements using software-timed or hardware-timed acquisitions.
Guidance on connecting floating signal sources to the DAQ device.
When to use DIFF input connections for floating signal sources based on signal conditions.
When to use NRSE input connections for floating signal sources based on signal conditions.
When to use RSE input connections for floating signal sources, highlighting recommendations.
Detailed instructions for differential connections of floating signal sources with bias resistors.
Instructions for NRSE connections of floating signal sources, including bias resistor configurations.
Instructions for RSE connections of floating signal sources, highlighting potential issues.
Guidance on connecting ground-referenced signal sources to the DAQ device.
When to use DIFF connections for ground-referenced signals based on conditions.
When to use NRSE connections for ground-referenced signals based on conditions.
Why RSE connections are not recommended for ground-referenced sources and alternatives.
Overview of analog input timing signals and the flexible timing engine.
Using the AI Sample Clock signal to initiate measurements and configure sources.
Using the AI Convert Clock signal to initiate A/D conversions.
Using the AI Start Trigger signal to begin a measurement acquisition.
Using AI Reference Trigger to stop a measurement acquisition.
Using the AI Pause Trigger signal to pause and resume a measurement acquisition.
Using MIO X Series devices for analog input applications and programming.
Overview of analog input circuitry for Simultaneous MIO X Series devices.
Simultaneous MIO X Series devices support only differential input mode.
Explanation of input range for Simultaneous MIO X Series devices and its effect on resolution.
Triggering actions for AI tasks on PXIe-6386/6396 devices.
Connecting ground-referenced signals to a channel on Simultaneous MIO X Series device.
Connecting floating signal sources to a channel on Simultaneous MIO X Series device.
Setting the analog output range by selecting the AO reference voltage.
Performing analog output operations using software-timed or hardware-timed generations.
Start trigger and pause trigger actions supported by analog output.
Summary of analog output timing options provided by the timing engine.
Using AO Start Trigger to initiate a waveform generation.
Using AO Pause Trigger to mask off samples in a DAQ sequence.
Using AO Sample Clock to initiate AO samples and update DAC outputs.
Signals that can be routed as the AO Sample Clock Timebase.
Using X Series devices for analog output applications and programming.
Acquiring digital input measurements using software-timed or hardware-timed methods.
Acquisition rate controlled by a digital hardware signal (DI Sample Clock).
Start trigger, reference trigger, and pause trigger actions for digital input.
Acquiring digital waveforms on Port 0 DIO lines using the DI waveform acquisition FIFO.
Using the DI Sample Clock signal to sample Port 0 terminals.
Signals that can be routed as the DI Sample Clock Timebase.
Using the DI Start Trigger signal to begin a measurement acquisition.
Using the DI Reference Trigger signal to stop a measurement acquisition.
Using the DI Pause Trigger signal to pause and resume a measurement acquisition.
Generating digital waveforms using software-timed or hardware-timed methods.
Generation rate controlled by a digital hardware signal.
Start trigger and pause trigger actions for digital output.
Generating digital waveforms on Port 0 DIO lines using the DO waveform generation FIFO.
Using the DO Sample Clock signal to update DO terminals.
Signals that can be routed as the DO Sample Clock Timebase.
Using the DO Start Trigger signal to initiate a waveform generation.
Using the DO Pause Trigger signal to mask off samples in a DAQ sequence.
Using X Series devices for digital I/O applications and programming.
Explanation of counter timing engine capabilities and clock source requirements.
List of various counter input applications available on X Series devices.
Measuring the width of a pulse on the Gate input signal.
Measuring high and low time of a pulse on the Gate input signal.
Measuring frequency using counters in several different ways.
Selecting the best frequency measurement method based on signal characteristics and accuracy needs.
Performing position measurements with quadrature encoders or two-pulse encoders.
Measuring time between edges on two signals (Aux and Gate).
List of various counter output applications available on X Series devices.
Generating trains of pulses with programmable frequency and duty cycle.
Generating frequencies using a counter or the frequency generator circuit.
Features of counter timing signals and their filtering.
Using Counter n Sample Clock for sample clocked acquisitions and generations.
Default NI-DAQmx counter/timer inputs and outputs routed to PFI pins.
Arm Start Trigger, Start Trigger, and Pause Trigger actions for counters.
Routing external timing signals to X Series functions using PFI terminals.
Overview of the clock routing circuitry of an X Series device.
Using an external reference clock to synchronize internal timebases to an external clock.
Information on synchronizing multiple X Series devices.
Synchronizing PXI Express devices using PXIe_CLK100 or PXI_STAR.
Synchronizing multiple PCI Express devices using RTSI and PFI buses.
Synchronizing multiple USB devices using PFI bus and initiator device.
Using RTSI bus for common clock and trigger sharing among multiple devices.
Primary ways to transfer data across the PCI Express and PXI Express buses.
Method for fastest data transfer without CPU involvement, using DMA controllers.
Primary ways to transfer data across the USB bus.
Method using USB bulk transfers without microcontroller intervention.
Generating a trigger on a digital signal by specifying source and edge.
Generating a trigger on an analog signal; refer to device specifications for options.
Configuring analog trigger circuitry to different triggering modes.
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