DAQ 6023E/6024E/6025E Multifunction I/O Devices User Manual
Table Of Contents
- 6023E/6024E/6025E User Manual
- Support
- Important Information
- Contents
- About This Manual
- Chapter 1 Introduction
- Chapter 2 Installation and Configuration
- Chapter 3 Hardware Overview
- Chapter 4 Signal Connections
- I/O Connector
- Analog Input Signal Overview
- Analog Input Signal Connections
- Analog Output Signal Connections
- Digital I/O Signal Connections
- Programmable Peripheral Interface (PPI)
- Power Connections
- Timing Connections
- Field Wiring Considerations
- Chapter 5 Calibration
- Appendix A Specifications
- Appendix B Custom Cabling and Optional Connectors
- Appendix C Common Questions
- Appendix D Technical Support Resources
- Glossary
- Index
- Figures
- Figure 1-1. The Relationship Between the Programming Environment, NI-DAQ, and Your Hardware
- Figure 3-1. PCI-6023E, PCI-6024E, PCI-6025E, and PXI-6025E Block Diagram
- Figure 3-2. DAQCard-6024E Block Diagram
- Figure 3-3. Dithering
- Figure 3-4. CONVERT* Signal Routing
- Figure 3-5. PCI RTSI Bus Signal Connection
- Figure 3-6. PXI RTSI Bus Signal Connection
- Figure 4-1. I/O Connector Pin Assignment for the 6023E/6024E
- Figure 4-2. I/O Connector Pin Assignment for the 6025E
- Figure 4-3. Programmable Gain Instrumentation Amplifier (PGIA)
- Figure 4-4. Summary of Analog Input Connections
- Figure 4-5. Differential Input Connections for Ground Referenced Signals
- Figure 4-6. Differential Input Connections for Nonreferenced Signals
- Figure 4-7. Single Ended Input Connections for Nonreferenced or Floating Signals
- Figure 4-8. Single Ended Input Connections for Ground Referenced Signals
- Figure 4-9. Analog Output Connections
- Figure 4-10. Digital I/O Connections
- Figure 4-11. Digital I/O Connections Block Diagram
- Figure 4-12. DIO Channel Configured for High DIO Power-up State with External Load
- Figure 4-13. Timing Specifications for Mode 1 Input Transfer
- Figure 4-14. Timing Specifications for Mode 1 Output Transfer
- Figure 4-15. Timing Specifications for Mode 2 Bidirectional Transfer
- Figure 4-16. Timing I/O Connections
- Figure 4-17. Typical Posttriggered Acquisition
- Figure 4-18. Typical Pretriggered Acquisition
- Figure 4-19. SCANCLK Signal Timing
- Figure 4-20. EXTSTROBE* Signal Timing
- Figure 4-21. TRIG1 Input Signal Timing
- Figure 4-22. TRIG1 Output Signal Timing
- Figure 4-23. TRIG2 Input Signal Timing
- Figure 4-24. TRIG2 Output Signal Timing
- Figure 4-25. STARTSCAN Input Signal Timing
- Figure 4-26. STARTSCAN Output Signal Timing
- Figure 4-27. CONVERT* Input Signal Timing
- Figure 4-28. CONVERT* Output Signal Timing
- Figure 4-29. SISOURCE Signal Timing
- Figure 4-30. WFTRIG Input Signal Timing
- Figure 4-31. WFTRIG Output Signal Timing
- Figure 4-32. UPDATE* Input Signal Timing
- Figure 4-33. UPDATE* Output Signal Timing
- Figure 4-34. UISOURCE Signal Timing
- Figure 4-35. GPCTR0_SOURCE Signal Timing
- Figure 4-36. GPCTR0_GATE Signal Timing in Edge Detection Mode
- Figure 4-37. GPCTR0_OUT Signal Timing
- Figure 4-38. GPCTR1_SOURCE Signal Timing
- Figure 4-39. GPCTR1_GATE Signal Timing in Edge Detection Mode
- Figure 4-40. GPCTR1_OUT Signal Timing
- Figure 4-41. GPCTR Timing Summary
- Figure B-1. 68 Pin E Series Connector Pin Assignments
- Figure B-2. 68 Pin Extended Digital Input Connector Pin Assignments
- Figure B-3. 50 Pin E Series Connector Pin Assignments
- Figure B-4. 50-Pin Extended Digital Input Connector Pin Assignments
- Tables
- Table 3-1. Available Input Configurations
- Table 3-2. Measurement Precision
- Table 3-3. Pins Used by PXI E Series Device
- Table 4-1. I/O Connector Details
- Table 4-2. I/O Connector Signal Descriptions
- Table 4-3. I/O Signal Summary
- Table 4-4. Port C Signal Assignments
- Table 4-5. Signal Names Used in Timing Diagrams
Appendix C Common Questions
© National Instruments Corporation C-3 6023E/6024E/6025E User Manual
deglitching filter to remove some of these glitches, depending on the
frequency and nature of your output signal.
Can I synchronize a one-channel analog input data acquisition with a
one-channel analog output waveform generation on my PCI E Series
device?
Yes. One way to accomplish this is to use the waveform generation timing
pulses to control the analog input data acquisition. To do this, follow steps
1 through 4 below, in addition to the usual steps for data acquisition and
waveform generation configuration.
1. Enable the PFI5 line for output, as follows:
• If you are using NI-DAQ, call
Select_Signal(deviceNumber, ND_PFI_5,
ND_OUT_UPDATE, ND_HIGH_TO_LOW)
.
• If you are using LabVIEW, invoke the Route Signal VI with the
signal name set to PFI5 and the signal source set to AO Update.
2. Set up data acquisition timing so that the timing signal for A/D
conversion comes from PFI5, as follows:
• If you are using NI-DAQ, call
Select_Signal(deviceNumber, ND_IN_CONVERT,
ND_PFI_5, ND_HIGH_TO_LOW)
.
• If you are using LabVIEW, invoke AI Clock Config VI with clock
source code set to PFI pin, high to low, and clock source string set
to 5.
3. Initiate analog input data acquisition, which starts only when the
analog output waveform generation starts.
4. Initiate analog output waveform generation.
Timing and Digital I/O
What types of triggering can be hardware-implemented on my device?
Digital triggering is hardware-supported on every device.
Will the counter/timer applications that I wrote previously work with
the DAQ-STC?
If you are using NI-DAQ with LabVIEW, some of your applications drawn
using the CTR VIs will still run. However, there are many differences in the
counters between the E Series and other devices; the counter numbers are
different, timebase selections are different, and the DAQ-STC counters are