Definitions

Warranted specifications describe the performance of a model under stated operating conditions and are covered by the model warranty.

Characteristics describe values that are relevant to the use of the model under stated operating conditions but are not covered by the model warranty.

  • Typical specifications describe the performance met by a majority of models.
  • Nominal describes an attribute that is based on design, conformance testing, or supplemental testing.
Specifications are Typical unless otherwise noted.

Conditions

Specifications are valid at 25 °C unless otherwise noted.

PXIe-6383 Pinout



Table 1. Default Counter/Timer Terminals
Counter/Timer Signal Default PFI Terminal
CTR 0 SRC PFI 8
CTR 0 GATE PFI 9
CTR 0 AUX PFI 10
CTR 0 OUT PFI 12
CTR 0 A PFI 8
CTR 0 Z PFI 9
CTR 0 B PFI 10
CTR 1 SRC PFI 3
CTR 1 GATE PFI 4
CTR 1 AUX PFI 11
CTR 1 OUT PFI 13
CTR 1 A PFI 3
CTR 1 Z PFI 4
CTR 1 B PFI 11
CTR 2 SRC PFI 0
CTR 2 GATE PFI 1
CTR 2 AUX PFI 2
CTR 2 OUT PFI 14
CTR 2 A PFI 0
CTR 2 Z PFI 1
CTR 2 B PFI 2
CTR 3 SRC PFI 5
CTR 3 GATE PFI 6
CTR 3 AUX PFI 7
CTR 3 OUT PFI 15
CTR 3 A PFI 5
CTR 3 Z PFI 6
CTR 3 B PFI 7
FREQ OUT PFI 14
Table 2. Signal Descriptions
Signal Reference Description

AI GND

Analog Input Ground—These terminals are the reference point for single-ended AI measurements in RSE mode and the bias current return point for DIFF measurements. All ground references—AI GND, AO GND, and D GND—are connected on the device. Though AI GND, AO GND, and D GND are connected on the device, they are connected by small traces to reduce crosstalk between subsystems. Each ground has a slight difference in potential.

AI <0..31>

Varies

Analog Input ChannelsFor single-ended measurements, each signal is an analog input voltage channel. In RSE mode, AI GND is the reference for these signals. In NRSE mode, the reference for each AI signal is an AI SENSE.

For differential measurements, AI 0 and AI 8 are the positive and negative inputs of differential analog input channel 0. Similarly, the following signal pairs also form differential input channels: AI <1,9>, AI <2,10>, and so on.

AI SENSE, AI SENSE 2

Analog Input SenseIn NRSE mode, the reference for each AI <0..15> signal is AI SENSE; the reference for each AI <16..31> signal is AI SENSE 2.

AO <0..3>

AO GND

Analog Output Channels—These terminals supply voltage output.

AO GND

Analog Output GroundAO GND is the reference for AO. All ground references—AI GND, AO GND, and D GND—are connected on the device. Though AI GND, AO GND, and D GND are connected on the device, they are connected by small traces to reduce crosstalk between subsystems. Each ground has a slight difference in potential.

D GND

Digital GroundD GND supplies the reference for port 0, port 1, port 2 digital channels, PFI, and +5 V. All ground references—AI GND, AO GND, and D GND—are connected on the device. Though AI GND, AO GND, and D GND are connected on the device, they are connected by small traces to reduce crosstalk between subsystems. Each ground has a slight difference in potential.

P0.<0..31>

D GND

Port 0 Digital I/O ChannelsYou can configure each signal individually as an input or output.

APFI <0,1>

AO GND or AI GND

Analog Programmable Function Interface ChannelsEach APFI signal can be used as AO external reference inputs for AO, or as an analog trigger input. APFI are referenced to AI GND when they are used as analog trigger inputs. APFI are referenced to AO GND when they are used as AO external offset or reference inputs.

+5 V

D GND

+5 V Power Source—These terminals provide a fused +5 V power source.

PFI <0..7>/P1.<0..7>, PFI <8..15>/P2.<0..7>

D GND

Programmable Function Interface or Digital I/O Channels—Each of these terminals can be individually configured as a PFI terminal or a digital I/O terminal.

As an input, each PFI terminal can be used to supply an external source for AI, AO, DI, and DO timing signals or counter/timer inputs. As a PFI output, you can route many different internal AI, AO, DI, or DO timing signals to each PFI terminal. You can also route the counter/timer outputs to each PFI terminal. As a port 1 or port 2 digital I/O signal, you can individually configure each signal as an input or output.

Analog Input

Number of channels 16 differential or 32 single ended
ADC resolution 18 bits
DNL No missing codes guaranteed
INL Refer to AI Absolute Accuracy.
Sample rate
Single channel maximum 625 kS/s
Multichannel maximum (aggregate) 500 kS/s
Minimum No minimum
Timing resolution 10 ns
Timing accuracy 50 ppm of sample rate
Input coupling DC
Input range ±0.1 V, ±0.2 V, ±0.5 V, ±1 V, ±2 V, ±5 V, ±10 V
Maximum working voltage for analog inputs (signal + common mode) ±11 V of AI GND
CMRR (DC to 60 Hz) 110 dB
Input impedance
Device on
AI+ to AI GND >10 GΩ in parallel with 100 pF
AI- to AI GND >10 GΩ in parallel with 100 pF
Device off
AI+ to AI GND 820 Ω
AI- to AI GND 820 Ω
Input bias current ±100 pA
Crosstalk (at 100 kHz)
Adjacent channels -75 dB
Non-adjacent channels -95 dB
Small signal bandwidth (-3 dB) 750 kHz filter off, 40 kHz filter on
Input FIFO size 2,047 samples
Scan list memory 4,095 entries
Data transfers DMA (scatter-gather), programmed I/O
Overvoltage protection for all analog input and sense channels
Device on ±25 V for up to eight AI pins
Device off ±15 V for up to eight AI pins
Input current during overvoltage condition ±20 mA maximum/AI pin

Settling Time for Multichannel Measurements

Table 3. Settling Time for Multichannel Measurements
Range Filter Off ±15 ppm of Step (±4 LSB for Full-Scale Step) Filter Off ±4 ppm of Step (±1 LSB for Full-Scale Step) Filter On ±4 ppm of Step (±1 LSB for Full-Scale Step)
±5 V, ±10 V 2 μs 8 μs 50 μs
±0.5 V, ±1 V, ±2 V 2.5 μs 8 μs 50 μs
±0.1 V, ±0.2 V 3 μs 8 μs 50 μs

Typical Performance Graphs

Figure 1. AI Settling Error versus Time for Different Source Impedances


Figure 2. AI Small Signal Bandwidth


Figure 3. AI CMRR


AI Absolute Accuracy

AI Absolute Accuracy (Filter On)

Note Accuracies listed are valid for up to two years from the device external calibration.
Table 4. AI Absolute Accuracy (Filter On)
Nominal Range Positive Full Scale Nominal Range Negative Full Scale Residual Gain Error (ppm of Reading) Residual Offset Error (ppm of Range) Offset Tempco (ppm of Range/°C) Random Noise, σ (μVrms) Absolute Accuracy at Full Scale (μV) Sensitivity (μV)
10 -10 40 8 11 60 980 24
5 -5 45 8 11 30 510 12
2 -2 45 8 13 12 210 4.8
1 -1 55 15 15 7 120 2.8
0.5 -0.5 55 30 20 4 70 1.6
0.2 -0.2 75 45 35 3 39 1.2
0.1 -0.1 120 60 60 2 28 0.8
Note Sensitivity is the smallest voltage change that can be detected. It is a function of noise.
Table 5. AI Absolute Accuracy Values (Filter On)
Gain tempco 17 ppm/°C
Reference tempco 1 ppm/°C
INL error 10 ppm of range

AI Absolute Accuracy (Filter Off)

Note Accuracies listed are valid for up to two years from the device external calibration.
Table 6. AI Absolute Accuracy (Filter Off)
Nominal Range Positive Full Scale Nominal Range Negative Full Scale Residual Gain Error (ppm of Reading) Residual Offset Error (ppm of Range) Offset Tempco (ppm of Range/°C) Random Noise, σ (μVrms) Absolute Accuracy at Full Scale (μV) Sensitivity (μV)
10 -10 45 10 11 70 1,050 28.0
5 -5 50 10 11 35 550 14.0
2 -2 50 10 13 15 230 6.0
1 -1 60 17 15 12 130 4.8
0.5 -0.5 60 32 20 10 80 4.0
0.2 -0.2 80 47 35 9 43 3.6
0.1 -0.1 120 62 60 9 31 3.6
Note Sensitivity is the smallest voltage change that can be detected. It is a function of noise.
Table 7. AI Absolute Accuracy Values (Filter Off)
Gain tempco 17 ppm/°C
Reference tempco 1 ppm/°C
INL error 10 ppm of range

AI Absolute Accuracy Equation

AbsoluteAccuracy = Reading · (GainError) + Range · (OffsetError) + NoiseUncertainty

  • GainError = ResidualAIGainError + GainTempco · (TempChangeFromLastInternalCal) + ReferenceTempco · (TempChangeFromLastExternalCal)
  • OffsetError = ResidualAIOffsetError + OffsetTempco · (TempChangeFromLastInternalCal) + INLError
  • NoiseUncertainty =
    RandomNoise3100
    for a coverage factor of 3 σ and averaging 100 points.

AI Absolute Accuracy Example

Absolute accuracy at full scale on the analog input channels is determined using the following assumptions:

  • TempChangeFromLastExternalCal = 10 °C
  • TempChangeFromLastInternalCal = 1 °C
  • number_of_readings = 100
  • CoverageFactor = 3 σ

For example, on the 10 V range of the Filter On accuracy table, the absolute accuracy at full scale is as follows:

  • GainError = 40 ppm + 17 ppm · 1 + 1 ppm · 10 = 67 ppm
  • OffsetError = 8 ppm + 11 ppm · 1 + 10 ppm = 29 ppm
  • NoiseUncertainty =
    60µV3100
    = 18 µV
  • AbsoluteAccuracy = 10 V · (GainError) + 10 V · (OffsetError) + NoiseUncertainty = 980 µV

Analog Triggers

Number of triggers 1
Source AI <0..31>, APFI <0..1>
Functions Start Trigger, Reference Trigger, Pause Trigger, Sample Clock, Convert Clock, Sample Clock Timebase
Resolution 16 bits
Modes Analog edge triggering, analog edge triggering with hysteresis, and analog window triggering
Accuracy ±1% of range
Table 8. Source Level
AI <0..31> ±Full scale
APFI <0..1> ±10 V
Table 9. Bandwidth (-3 db)
AI <0..31> 700 kHz filter off, 40 kHz filter on
APFI <0..1> 5 MHz
Table 10. APFI <0..1> characteristics
Input impedance 10 kΩ
Coupling DC
Protection, power on ±30 V
Protection, power off ±15 V

Analog Output

Number of channels 4
DAC resolution 16 bits
DNL ±1 LSB
Monotonicity 16 bit guaranteed
Accuracy Refer to the AO Absolute Accuracy table.
Maximum update rate
1 channel 2.86 MS/s
2 channels 2.00 MS/s
3 channels 1.54 MS/s
4 channels 1.25 MS/s
Timing accuracy 50 ppm of sample rate
Timing resolution 10 ns
Output range (offset ± reference)
Calibrated range ±1 V, ±2 V, ±5 V, ±10 V
Offset sources 0 V, 5 V, APFI <0,1> , AO <0,3>[1]1 An AO channel cannot be a reference or offset to itself.
Reference sources 1 V, 2 V, 5 V, 10 V, APFI <0,1>, AO <0,3>[2]2 An AO channel cannot be a reference or offset to itself.
Maximum output level ±11 V
Output coupling DC
Output impedance 0.2 Ω
Output current drive ±5 mA
Overdrive protection ±25 V
Overdrive current 20 mA
Power-on state ±5 mV
Power-on/off glitch 1.25 V peak for 3.5 µs
Output FIFO size 8,191 samples shared among channels used
Data transfers DMA (scatter-gather), programmed I/O
AO waveform modes Non-periodic waveform, periodic waveform regeneration mode from onboard FIFO, periodic waveform regeneration from host buffer including dynamic update
Settling time, full-scale step, 15 ppm (1 LSB) 3 μs
Slew rate 20 V/μs
Glitch energy at midscale transition, ±10 V range 15 mV magnitude, 0.5 μs duration

External Reference

Table 11. APFI <0..1> characteristics
SpecificationValue
Input impedance 10 kΩ
Coupling DC
Protection, device on ±30 V
Protection, device off ±15 V
Range ±11 V
Slew rate 20 V/μs
Figure 4. AO External Reference Bandwidth


AO Absolute Accuracy

Absolute accuracy at full-scale numbers is valid immediately following internal calibration and assumes the device is operating within 10 °C of the last external calibration.

Note Accuracies listed are valid for up to two years from the device external calibration.
Table 12. AO Absolute Accuracy
Nominal Range Positive Full Scale Nominal Range Negative Full Scale Residual Gain Error (ppm of Reading) Gain Tempco (ppm/°C) Residual Offset Error (ppm of Range) Offset Tempco (ppm of Range/°C) Absolute Accuracy at Full Scale (μV)
10 -10 55 15 30 12 1,540
5 -5 60 15 30 17 820
2 -2 65 25 40 30 404
1 -1 85 25 57 50 259
Table 13. AO Absolute Accuracy Values
Reference tempco 1 ppm/°C
INL error 32 ppm of range

AO Absolute Accuracy Equation

AbsoluteAccuracy = OutputValue · (GainError) + Range · (OffsetError)

  • GainError = ResidualGainError + GainTempco · (TempChangeFromLastInternalCal) + ReferenceTempco · (TempChangeFromLastExternalCal)
  • OffsetError = ResidualOffsetError + AOOffsetTempco · (TempChangeFromLastInternalCal) + INLError

Digital I/O/PFI

Static Characteristics

Number of channels 48 total, 32 (P0.<0..31>), 16 (PFI <0..7>/P1, PFI <8..15>/P2)
Ground reference D GND
Direction control Each terminal individually programmable as input or output
Pull-down resistor 50 kΩ typical, 20 kΩ minimum
Input voltage protection ±20 V on up to two pins
Notice Stresses beyond those listed under the Input voltage protection specification may cause permanent damage to the device.

Waveform Characteristics (Port 0 Only)

Terminals used Port 0 (P0.<0..31>)
Port/sample size Up to 32 bits
Waveform generation (DO) FIFO 2,047 samples
Waveform acquisition (DI) FIFO 255 samples
DI or DO Sample Clock source[3]3 The digital subsystem does not have its own dedicated internal timing engine. Therefore, a sample clock must be provided from another subsystem on the device or an external source. Any PFI, AI Sample or Convert Clock, AO Sample Clock, Ctr n Internal Output, and many other signals
DI Sample Clock Frequency 0 MHz to 10 MHz, system and bus activity dependent
Regenerate from FIFO 0 MHz to 10 MHz
Streaming from memory 0 to 10 MHz, system and bus activity dependent
Data Transfers DMA (scatter-gather), interrupts, programmed I/O
Digital line filter settings 160 ns, 10.24 μs, 5.12 ms, disable

PFI/Port 1/Port 2 Functionality

Functionality Static digital input, static digital output, timing input, timing output
Timing output sources Many AI, AO, counter, DI, DO timing signals
Debounce filter settings 90 ns, 5.12 µs, 2.56 ms, custom interval, disable; programmable high and low transitions; selectable per input

Recommended Operating Conditions

Input high voltage (VIH)
Minimum 2.2 V
Maximum 5.25 V
Input low voltage (VIL)
Minimum 0 V
Maximum 0.8 V
Output high current (IOH)
P0.<0..31> -24 mA maximum
PFI <0..15>/P1/P2 -16 mA maximum
Output low current (IOL)
P0.<0..31> 24 mA maximum
PFI <0..15>/P1/P2 16 mA maximum

Digital I/O Characteristics

Positive-going threshold (VT+) 2.2 V maximum
Negative-going threshold (VT-) 0.8 V minimum
Delta VT hysteresis (VT+ - VT-) 0.2 V minimum
IIL input low current (VIN = 0 V) -10 μA maximum
IIH input high current (VIN = 5 V) 250 μA maximum
Figure 5. P0.<0..31>:: IOH versus VOH


Figure 6. P0.<0..31>: IOL versus VOL


Figure 7. PFI <0..15>/P1/P2: IOH versus VOH


Figure 8. PFI <0..15>/P1/P2: IOL versus VOL


General-Purpose Counters

Number of counter/timers 4
Resolution 32 bits
Counter measurements Edge counting, pulse, pulse width, semi-period, period, two-edge separation
Position measurements X1, X2, X4 quadrature encoding with Channel Z reloading; two-pulse encoding
Output applications Pulse, pulse train with dynamic updates, frequency division, equivalent time sampling
Internal base clocks 100 MHz, 20 MHz, 100 kHz
External base clock frequency 0 MHz to 25 MHz; 0 MHz to 100 MHz on PXIe_DSTAR <A,B>
Base clock accuracy 50 ppm
Inputs Gate, Source, HW_Arm, Aux, A, B, Z, Up_Down, Sample Clock
Routing options for inputs Any PFI, PXIe_DSTAR<A,B>, PXI_TRIG<0..7>, PXI_STAR, analog trigger, many internal signals
FIFO 127 samples per counter
Data transfers Dedicated scatter-gather DMA controller for each counter/timer, programmed I/O

Frequency Generator

Number of channels 1
Base clocks 20 MHz, 10 MHz, 100 kHz
Divisors 1 to 16
Base clock accuracy 50 ppm

Phase-Locked Loop (PLL)

Number of PLLs 1
Output of PLL 100 MHz Timebase; other signals derived from 100 MHz Timebase including 20 MHz and 100 kHz Timebases.
Table 14. Reference Clock Locking Frequencies
Reference Signal PXI Express Locking Input Frequency (MHz)
PXIe_DSTAR<A,B> 10, 20, 100
PXI_STAR 10, 20
PXIe_CLK100 100
PXI_TRIG <0..7> 10, 20
PFI <0..15> 10, 20

External Digital Triggers

Source Any PFI, PXIe_DSTAR<A,B>, PXI_TRIG<0..7>, PXI_STAR
Polarity Software-selectable for most signals
Analog input function Start Trigger, Reference Trigger, Pause Trigger, Sample Clock, Convert Clock, Sample Clock Timebase
Analog output function Start Trigger, Pause Trigger, Sample Clock, Sample Clock Timebase
Counter/timer functions Gate, Source, HW_Arm, Aux, A, B, Z, Up_Down, Sample Clock
Digital waveform generation (DO) function Start Trigger, Pause Trigger, Sample Clock, Sample Clock Timebase
Digital waveform acquisition (DI) function Start Trigger, Reference Trigger, Pause Trigger, Sample Clock, Sample Clock Timebase

Device-to-Device Trigger Bus

Input source PXI_TRIG <0..7>, PXI_STAR, PXIe_DSTAR<A,B>
Output destination PXI_TRIG <0..7>, PXIe_DSTARC
Output selections 10 MHz Clock, frequency generator output, many internal signals
Debounce filter settings 90 ns, 5.12 μs, 2.56 ms, custom interval, disable; programmable high and low transitions; selectable per input

Bus Interface

Form factor x1 PXI Express peripheral module, specification rev. 1.0 compliant
Slot compatibility x1 and x4 PXI Express or PXI Express hybrid slots
DMA channels 8: analog input, analog output, digital input, digital output, counter/timer 0, counter/timer 1, counter/timer 2, counter/timer 3

Devices may be installed in PXI Express slots or PXI Express hybrid slots.

Power Requirements

Table 15. Power Specifications
PXIe Bus Voltage/current rating

0.49 A at 3.3 V DC

2.20 A at 12 V DC

Power rating 26.4 W

Physical Characteristics

Table 16. Dimensions and Weight
Device dimensions 3U, one-slot, PXI Express/Compact PCI Express module
Weight 186 g (6.6 oz)

Calibration

Recommended warm-up time 15 minutes
Calibration interval 2 years

Current Limits

Notice Exceeding the current limits may cause unpredictable device behavior.
Table 17. Current Limits
+5 V terminal (connector 0) 1 A maximum
+5 V terminal (connector 1) 1 A maximum
P0/PFI/P1/P2 and +5 V terminals combined 2 A maximum
Note Each +5 V terminal is protected by a self-resetting fuse that opens if the current exceeds 1 A.

Safety Voltages

Table 18. Rated Voltages
AI+ or AI- to GND ±10 V DC
AO to GND ±10 V DC
DIO-to-GND +5 V DC
+5V pin to GND +5 V DC
Caution Any external sources must be limited to not exceed these maximum rated voltages.
Attention Les sources externes doivent être limitées pour ne pas dépasser ces tensions nominales maximales.

Current Ratings

DIO Maximum continuous current Per channel ±10 mA
Sum of all channels ±160 mA
AO Maximum continuous current Per channel 2 mA
Caution

Any external sources must be limited to not exceed these maximum rated currents.

Attention

Les sources externes doivent être limitées pour ne pas dépasser ces tensions nominales maximales.

Environmental Guidelines

Notice Failure to follow the mounting instructions in the product documentation can cause temperature derating.
Notice This product is intended for use in indoor applications only.

Environmental Characteristics

Temperature Operating 0 °C to 55 °C
Storage -40 °C to 71 °C
Humidity Operating 10% RH to 90% RH, noncondensing
Storage 5% RH to 95% RH, noncondensing
Pollution Degree 2
Maximum altitude 2000 m

Shock and Vibration

Operational shock 30 g peak, half-sine, 11 ms pulse (Tested in accordance with IEC 60068-2-27. Test profile developed in accordance with MIL-PRF-28800F.)
Table 19. Random vibration
Operating 5 Hz to 500 Hz, 0.3 g RMS
Nonoperating 5 Hz to 500 Hz, 2.4 g RMS (Tested in accordance with IEC 60068-2-64. Nonoperating test profile exceeds the requirements of MIL-PRF-28800F, Class 3.)

Measurement Category

This product is rated for Measurement Category I (or other non-MAINS circuits).

Caution Do not connect the product to signals or use for measurements within Measurement Categories II, III, or IV.
Attention Ne pas connecter le produit à des signaux dans les catégories de mesure II, III ou IV et ne pas l'utiliser pour effectuer des mesures dans ces catégories.

Measurement Category I is for measurements performed on circuits not directly connected to the electrical distribution system referred to as MAINS voltage. MAINS is a hazardous live electrical supply system that powers equipment. This category is for measurements of voltages from specially protected secondary circuits. Such voltage measurements include signal levels, special equipment, limited-energy parts of equipment, circuits powered by regulated low-voltage sources, and electronics.

Note Measurement Categories CAT I and CAT O are equivalent. These test and measurement circuits are for other circuits not intended for direct connection to the MAINS building installations of Measurement Categories CAT II, CAT III, or CAT IV.

1 An AO channel cannot be a reference or offset to itself.

2 An AO channel cannot be a reference or offset to itself.

3 The digital subsystem does not have its own dedicated internal timing engine. Therefore, a sample clock must be provided from another subsystem on the device or an external source.