National Instruments cDAQ-9133, cDAQ-9132, cDAQ-9136, cDAQ-9137, cDAQ-9134 User Manual

...

NI cDAQ

-9132/9133/9134/

9135/9136/9137

User Manual

NI CompactDAQ Controller

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

January 2019 371800E-01

Support

Worldwide Technical Support and Product Information

ni.com

Worldwide Offices

ni.com/niglobal to access the branch office websites, which provide up-to-date

Visit contact information, support phone numbers, email addresses, and current events.

National Instruments Corporate Headquarters

11500 North Mopac Expressway Austin, Texas 78759-3504 USA Tel: 512 683 0100

For further support information, refer to the Technical Support and Professional Services appendix. To comment on National Instruments documentation, refer to the National Instruments Web site at ni.com/info and enter the Info Code feedback.

Legal Information

Limited Warranty

This document is provided ‘as is’ and is subject to being changed, without notice, in future editions. For the latest version, refer to

ni.com/manuals. NI reviews this document carefully for technical accuracy; however, NI MAKES NO EXPRESS

OR IMPLIED WARRANTIES AS TO THE ACCURACY OF THE INFORMATION CONTAINED HEREIN AND SHALL NOT BE LIABLE FOR ANY ERRORS.

NI warrants that its hardware products will be free of defects in materials and workmanship that cause the product to fail to substantially conform to the applicable NI published specifications for one (1) year from the date of invoice.

For a period of ninety (90) days from the date of invoice, NI warrants that (i) its software products will perform substantially in accordance with the applicable documentation provided with the software and (ii) the software media will be free from defects in materials and workmanship.

If NI receives notice of a defect or non-conformance during the applicable warranty period, NI will, in its discretion: (i) repair or replace the affected product, or (ii) refund the fees paid for the affected product. Repaired or replaced Hardware will be warranted for the remainder of the original warranty period or ninety (90) days, whichever is longer. If NI elects to repair or replace the product, NI may use new or refurbished parts or products that are equivalent to new in performance and reliability and are at least functionally equivalent to the original part or product.

You must obtain an RMA number from NI before returning any product to NI. NI reserves the right to charge a fee for examining and testing Hardware not covered by the Limited Warranty.

This Limited Warranty does not apply if the defect of the product resulted from improper or inadequate maintenance, installation, repair, or calibration (performed by a party other than NI); unauthorized modification; improper environment; use of an improper hardware or software key; improper use or operation outside of the specification for the product; improper voltages; accident, abuse, or neglect; or a hazard such as lightning, flood, or other act of nature.

THE REMEDIES SET FORTH ABOVE ARE EXCLUSIVE AND THE CUSTOMER’S SOLE REMEDIES, AND SHALL APPLY EVEN IF SUCH REMEDIES FAIL OF THEIR ESSENTIAL PURPOSE.

EXCEPT AS EXPRESSLY SET FORTH HEREIN, PRODUCTS ARE PROVIDED "AS IS" WITHOUT WARRANTY OF ANY KIND AND NI DISCLAIMS ALL WARRANTIES, EXPRESSED OR IMPLIED, WITH RESPECT TO THE PRODUCTS, INCLUDING ANY IMPLIED WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE, TITLE OR NON-INFRINGEMENT, AND ANY WARRANTIES THAT MAY ARISE FROM USAGE OF TRADE OR COURSE OF DEALING. NI DOES NOT WARRANT, GUARANTEE, OR MAKE ANY REPRESENTATIONS REGARDING THE USE OF OR THE RESULTS OF THE USE OF THE PRODUCTS IN TERMS OF CORRECTNESS, ACCURACY, RELIABILITY, OR OTHERWISE. NI DOES NOT WARRANT THAT THE OPERATION OF THE PRODUCTS WILL BE UNINTERRUPTED OR ERROR FREE.

In the event that you and NI have a separate signed written agreement with warranty terms covering the products, then the warranty terms in the separate agreement shall control.

Copyright

Under the copyright laws, this publication may not be reproduced or transmitted in any form, electronic or mechanical, including photocopying, recording, storing in an information retrieval system, or translating, in whole or in part, without the prior written consent of National Instruments Corporation.

National Instruments respects the intellectual property of others, and we a sk ou r us ers to do the sam e. NI sof twa re i s pro tec ted by copyright and other intellectual property laws. Where NI software may be used to reproduce software or other materials belonging to others, you may use NI software only to reproduce materials that you may reproduce in accordance with the terms of any applicable license or other legal restriction.

End-User License Agreements and Third-Party Legal Notices

You can find end-user license agreements (EULAs) and third-party legal notices in the following locations:

• Notices are located in the directories.

• EULAs are located in the

•Review

<National Instruments>\_Legal Information.txt for information on including legal information in

installers built with NI products.

U.S. Government Restricted Rights

If you are an agency, department, or other entity of the United States Government (“Government”), the use, duplication, reproduction, release, modification, disclosure or transfer of the technical data included in this manual is governed by the Restricted Rights provisions under Federal Acquisition Regulation 52.227-14 for civilian agencies and Defense Federal Acquisition Regulation Supplement Section 252.227-7014 and 252.227-7015 for military agencies.

Trademarks

Refer to the NI Trademarks and Logo Guidelines at ni.com/trademarks for more information on National Instruments trademarks.

ARM, Keil, and µVision are trademarks or registered of ARM Ltd or its subsidiaries.

LEGO, the LEGO logo, WEDO, and MINDSTORMS are trademarks of the LEGO Group.

TETRIX by Pitsco is a trademark of Pitsco, Inc.

FIELDBUS FOUNDATION

<National Instruments>\_Legal Information and <National Instruments>

<National Instruments>\Shared\MDF\Legal\license directory.

™

and FOUNDATION™ are trademarks of the Fieldbus Foundation.

EtherCAT® is a registered trademark of and licensed by Beckhoff Automation GmbH.

CANopen

DeviceNet

Go!, SensorDAQ, and Vernier are registered trademarks of Vernier Software & Technology. Vernier Software & Technology and

is a registered Community Trademark of CAN in Automation e.V.

™

and EtherNet/IP™ are trademarks of ODVA.

vernier.com are trademarks or trade dress.

Xilinx is the registered trademark of Xilinx, Inc.

Taptite and Trilobular are registered trademarks of Research Engineering & Manufacturing Inc.

is the registered trademark of Apple Inc.

FireWire

Linux

is the registered trademark of Linus Torvalds in the U.S. and other countries.

Handle Graphics trademarks, and TargetBox

Tektronix

The Bluetooth

The ExpressCard license.

The mark LabWindows is used under a license from Microsoft Corporati on. Wi ndows is a re gistered trade mark o f Micr osoft Corporation in the United States and other countries.

, MATLAB®, Real-Time Workshop®, Simulink®, Stateflow®, and xPC TargetBox® are registered

™

, Tek, and Tektronix, Enabling Technology are registered trademarks of Tektronix, Inc.

word mark is a registered trademark owned by the Bluetooth SIG, Inc.

™

and Target Language Compiler™ are trademarks of The MathWorks, Inc.

word mark and logos are owned by PCMCIA and any use of such marks by National Instruments is under

Other product and company names mentioned herein are trademarks or trade names of their respective companies.

Members of the National Instruments Alliance Partner Program are business entities independent from National Instruments and have no agency, partnership, or joint-venture relationship with National Instruments.

Patents

For patents covering National Instruments products/technology, refer to the appropriate location: Help»Patents in your software, the

patents.txt file on your media, or the National Instruments Patent Notice at ni.com/patents.

Export Compliance Information

Refer to the Export Compliance Information at ni.com/legal/export-compliance for the National Instruments global trade compliance policy and how to obtain relevant HTS codes, ECCNs, and other import/export data.

WARNING REGARDING USE OF NATIONAL INSTRUMENTS PRODUCTS

YOU ARE ULTIMATELY RESPONSIBLE FOR VERIFYING AND VALIDATING THE SUITABILITY AND RELIABILITY OF THE PRODUCTS WHENEVER THE PRODUCTS ARE INCORPORATED IN YOUR SYSTEM OR APPLICATION, INCLUDING THE APPROPRIATE DESIGN, PROCESS, AND SAFETY LEVEL OF SUCH SYSTEM OR APPLICATION.

PRODUCTS ARE NOT DESIGNED, MANUFACTURED, OR TESTED FOR USE IN LIFE OR SAFETY CRITICAL SYSTEMS, HAZARDOUS ENVIRONMENTS OR ANY OTHER ENVIRONMENTS REQUIRING FAIL-SAFE PERFORMANCE, INCLUDING IN THE OPERATION OF NUCLEAR FACILITIES; AIRCRAFT NAVIGATION; AIR TRAFFIC CONTROL SYSTEMS; LIFE SAVING OR LIFE SUSTAINING SYSTEMS OR SUCH OTHER MEDICAL DEVICES; OR ANY OTHER APPLICATION IN WHICH THE FAILURE OF THE PRODUCT OR SERVICE COULD LEAD TO DEATH, PERSONAL INJURY, SEVERE PROPERTY DAMAGE OR ENVIRONMENTAL HARM (COLLECTIVELY, “HIGH-RISK USES”). FURTHER, PRUDENT STEPS MUST BE TAKEN TO PROTECT AGAINST FAILURES, INCLUDING PROVIDING BACK-UP AND SHUT-DOWN MECHANISMS. NI EXPRESSLY DISCLAIMS ANY EXPRESS OR IMPLIED WARRANTY OF FITNESS OF THE PRODUCTS OR SERVICES FOR HIGH-RISK USES.

Chapter 1 Getting Started with the cDAQ Controller

Safety Guidelines..............................................................................................................1-3

Electromagnetic Compatibility Guidelines ...................................................................... 1-4

Special Guidelines for Marine Applications ............................................................ 1-5

Hardware Symbol Definitions .......................................................................................... 1-5

Unpacking......................................................................................................................... 1-6

Installing the cDAQ Controller for Windows .................................................................. 1-6

Installing the cDAQ Controller for LabVIEW Real-Time ............................................... 1-9

Connecting to the Network through the Ethernet Port ............................................. 1-14

Troubleshooting Network Communication in the LabVIEW Real-Time Controller1-14

Wiring Power to the cDAQ Controller............................................................................. 1-15

Powering Down the cDAQ Controller ............................................................................. 1-17

Controller Startup Options................................................................................................ 1-17

Removing Modules from the cDAQ Controller ............................................................... 1-18

Mounting the cDAQ Controller........................................................................................ 1-18

Mounting the cDAQ Controller on a Panel .............................................................. 1-21

Using the cDAQ Controller on a Desktop ................................................................ 1-24

Mounting the cDAQ Controller on a DIN Rail ........................................................ 1-26

Mounting the cDAQ Controller on a Rack............................................................... 1-27

Installing the Module Immobilization Accessory .................................................... 1-28

cDAQ Controller Features................................................................................................ 1-30

Mini DisplayPort Connector..................................................................................... 1-30

USB Host Ports......................................................................................................... 1-31

USB Device Port ...................................................................................................... 1-32

RESET Button .......................................................................................................... 1-33

Power Button ............................................................................................................ 1-33

LEDs......................................................................................................................... 1-34

Ethernet Ports ........................................................................................................... 1-36

Ethernet LEDs .................................................................................................. 1-37

Ethernet Cabling ............................................................................................... 1-37

NI-XNET CAN/LIN Connector ............................................................................... 1-38

PFI 0 SMB Connector .............................................................................................. 1-39

RS-232 Serial Port .................................................................................................... 1-39

Power Connector ...................................................................................................... 1-39

SD Card Removable Storage .................................................................................... 1-39

SD Card LEDs .................................................................................................. 1-40

SD Card Slot Cover .......................................................................................... 1-40

USER1 Button .......................................................................................................... 1-41

Chassis Grounding Screw......................................................................................... 1-41

CMOS Battery and CMOS Reset Button ................................................................. 1-41

Resetting the System CMOS and BIOS Settings ............................................. 1-41

Contents

Cables and Accessories..................................................................................................... 1-42

Using the cDAQ Controller .............................................................................................. 1-44

C Series Module........................................................................................................ 1-45

Parallel versus Serial DIO Modules.................................................................. 1-45

cDAQ Module Interface ........................................................................................... 1-45

STC3 ......................................................................................................................... 1-45

Processor and Ports ................................................................................................... 1-46

Chapter 2 Analog Input

Analog Input Triggering Signals ...................................................................................... 2-1

Analog Input Timing Signals............................................................................................2-1

AI Sample Clock Signal ........................................................................................... 2-2

Routing the Sample Clock to an Output Terminal ........................................... 2-2

AI Sample Clock Timebase Signal ........................................................................... 2-2

AI Convert Clock Signal Behavior For Analog Input Modules ............................... 2-2

Scanned Modules.............................................................................................. 2-3

Simultaneous Sample-and-Hold Modules ........................................................2-3

Sigma-Delta Modules ....................................................................................... 2-3

Slow Sample Rate Modules..............................................................................2-4

AI Start Trigger Signal ............................................................................................. 2-4

Using a Digital Source ...................................................................................... 2-5

Using an Analog Source ................................................................................... 2-5

Routing AI Start Trigger to an Output Terminal .............................................. 2-5

AI Reference Trigger Signal..................................................................................... 2-5

Using a Digital Source ...................................................................................... 2-6

Using an Analog Source ................................................................................... 2-6

Routing the Reference Trigger Signal to an Output Terminal..........................2-6

AI Pause Trigger Signal............................................................................................ 2-7

Using a Digital Source ...................................................................................... 2-7

Using an Analog Source ................................................................................... 2-7

Getting Started with AI Applications in Software............................................................ 2-7

Chapter 3 Analog Output

Analog Output Data Generation Methods ........................................................................ 3-1

Software-Timed Generations .................................................................................... 3-1

Hardware-Timed Generations................................................................................... 3-2

Buffered Analog Output ................................................................................... 3-2

Analog Output Triggering Signals.................................................................................... 3-3

Analog Output Timing Signals ......................................................................................... 3-3

AO Sample Clock Signal .......................................................................................... 3-3

Routing AO Sample Clock to an Output Terminal........................................... 3-4

AO Sample Clock Timebase Signal .........................................................................3-4

vi | ni.com

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

AO Start Trigger Signal............................................................................................ 3-4

Using a Digital Source...................................................................................... 3-4

Using an Analog Source ................................................................................... 3-4

Routing AO Start Trigger Signal to an Output Terminal ................................. 3-5

AO Pause Trigger Signal .......................................................................................... 3-5

Using a Digital Source...................................................................................... 3-5

Using an Analog Source ................................................................................... 3-6

Minimizing Glitches on the Output Signal....................................................................... 3-6

Getting Started with AO Applications in Software .......................................................... 3-6

Chapter 4 Digital Input/Output and PFI

Digital Input/Output ......................................................................................................... 4-1

Serial DIO versus Parallel DIO Modules ................................................................. 4-1

Static DIO ................................................................................................................. 4-2

Digital Input.............................................................................................................. 4-2

Digital Input Triggering Signals....................................................................... 4-2

Digital Input Timing Signals ............................................................................ 4-2

Digital Input Filters .......................................................................................... 4-6

Getting Started with DI Applications in Software............................................ 4-7

Change Detection Event ........................................................................................... 4-7

Routing Change Detection Event to an Output Terminal................................. 4-7

Change Detection Acquisition.......................................................................... 4-7

Digital Output ........................................................................................................... 4-8

Digital Output Data Generation Methods......................................................... 4-8

Digital Output Triggering Signals .................................................................... 4-9

Digital Output Timing Signals ......................................................................... 4-10

Getting Started with DO Applications in Software.......................................... 4-13

Digital Input/Output Configuration for NI 9401 ...................................................... 4-13

PFI .................................................................................................................................... 4-13

PFI Filters ................................................................................................................. 4-13

Chapter 5 Counters

Counter Timing Engine .................................................................................................... 5-2

Counter Input Applications .............................................................................................. 5-3

Counting Edges......................................................................................................... 5-3

Single Point (On-Demand) Edge Counting ...................................................... 5-3

Buffered (Sample Clock) Edge Counting......................................................... 5-4

Controlling the Direction of Counting.............................................................. 5-5

Pulse-Width Measurement ....................................................................................... 5-5

Single Pulse-Width Measurement .................................................................... 5-5

Implicit Buffered Pulse-Width Measurement................................................... 5-6

Sample Clocked Buffered Pulse-Width Measurement ..................................... 5-6

Contents

Pulse Measurement ................................................................................................... 5-7

Single Pulse Measurement ................................................................................ 5-8

Implicit Buffered Pulse Measurement .............................................................. 5-8

Sample Clocked Buffered Pulse Measurement ................................................ 5-9

Semi-Period Measurement........................................................................................ 5-9

Single Semi-Period Measurement ....................................................................5-10

Implicit Buffered Semi-Period Measurement ................................................... 5-10

Pulse versus Semi-Period Measurements .........................................................5-10

Frequency Measurement........................................................................................... 5-11

Low Frequency with One Counter.................................................................... 5-11

High Frequency with Two Counters................................................................. 5-12

Large Range of Frequencies with Two Counters ............................................. 5-12

Sample Clocked Buffered Frequency Measurement ........................................ 5-13

Choosing a Method for Measuring Frequency .................................................5-14

Which Method Is Best?.....................................................................................5-16

Period Measurement ................................................................................................. 5-18

Position Measurement............................................................................................... 5-19

Measurements Using Quadrature Encoders...................................................... 5-19

Channel Z Behavior .................................................................................................. 5-20

Measurements Using Two Pulse Encoders....................................................... 5-21

Buffered (Sample Clock) Position Measurement ............................................. 5-21

Two-Signal Edge-Separation Measurement ............................................................. 5-22

Single Two-Signal Edge-Separation Measurement .......................................... 5-22

Implicit Buffered Two-Signal Edge-Separation Measurement ........................ 5-23

Sample Clocked Buffered Two-Signal Separation Measurement .................... 5-23

Counter Output Applications ............................................................................................ 5-24

Simple Pulse Generation........................................................................................... 5-24

Single Pulse Generation.................................................................................... 5-24

Single Pulse Generation with Start Trigger ...................................................... 5-25

Pulse Train Generation ............................................................................................. 5-25

Finite Pulse Train Generation ........................................................................... 5-25

Retriggerable Pulse or Pulse Train Generation................................................. 5-26

Continuous Pulse Train Generation .................................................................. 5-27

Buffered Pulse Train Generation ......................................................................5-28

Finite Implicit Buffered Pulse Train Generation .............................................. 5-28

Continuous Buffered Implicit Pulse Train Generation ..................................... 5-29

Finite Buffered Sample Clocked Pulse Train Generation ................................ 5-29

Continuous Buffered Sample Clocked Pulse Train Generation .......................5-30

Frequency Generation............................................................................................... 5-30

Using the Frequency Generator ........................................................................5-30

Frequency Division.............................................

......................................................5-31

Pulse Generation for ETS ......................................................................................... 5-32

viii | ni.com

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

Counter Timing Signals.................................................................................................... 5-32

Counter n Source Signal ........................................................................................... 5-33

Routing a Signal to Counter n Source .............................................................. 5-33

Routing Counter n Source to an Output Terminal............................................ 5-34

Counter n Gate Signal............................................................................................... 5-34

Routing a Signal to Counter n Gate.................................................................. 5-34

Routing Counter n Gate to an Output Terminal ............................................... 5-34

Counter n Aux Signal ............................................................................................... 5-34

Routing a Signal to Counter n Aux .................................................................. 5-35

Counter n A, Counter n B, and Counter n Z Signals ................................................ 5-35

Routing Signals to A, B, and Z Counter Inputs................................................ 5-35

Routing Counter n Z Signal to an Output Terminal ......................................... 5-35

Counter n Up_Down Signal ..................................................................................... 5-35

Counter n HW Arm Signal ....................................................................................... 5-35

Routing Signals to Counter n HW Arm Input .................................................. 5-36

Counter n Sample Clock Signal................................................................................ 5-36

Using an Internal Source .................................................................................. 5-36

Using an External Source ................................................................................. 5-37

Routing Counter n Sample Clock to an Output Terminal ................................ 5-37

Counter n Internal Output and Counter n TC Signals .............................................. 5-37

Routing Counter n Internal Output to an Output Terminal .............................. 5-37

Frequency Output Signal .......................................................................................... 5-37

Routing Frequency Output to a Terminal......................................................... 5-37

Default Counter/Timer Routing........................................................................................ 5-37

Counter Triggering ........................................................................................................... 5-38

Other Counter Features.........................................

Cascading Counters .................................................................................................. 5-38

Prescaling.................................................................................................................. 5-39

Synchronization Modes ............................................................................................ 5-39

80 MHz Source Mode....................................................................................... 5-39

External or Internal Source Less than 20 MHz ................................................ 5-40

............................................................ 5-38

Chapter 6 Digital Routing and Clock Generation

Digital Routing ................................................................................................................. 6-1

Clock Routing................................................................................................................... 6-1

80 MHz Timebase .................................................................................................... 6-2

20 MHz Timebase .................................................................................................... 6-2

100 kHz Timebase .................................................................................................... 6-2

Contents

Appendix A Controller Operating System and BIOS Configuration

Appendix B Where to Go from Here

Appendix C Technical Support and Professional Services

Index

x | ni.com

Getting Started with the cDAQ Controller

The National Instruments four-slot CompactDAQ cDAQ-9132, cDAQ-9134, and cDAQ-9136 controllers and the eight-slot CompactDAQ cDAQ-9133, cDAQ-9135, and cDAQ-9137 controllers are available as a Windows Embedded Standard 7 (WES7) or a LabVIEW Real-Time system. NI cDAQ-9132/9133/9134/9135 controllers feature the dual-core 1.33 GHz Intel Atom processor. NI cDAQ-9136/9137 controllers feature the quad-core 1.91 GHz Intel Atom processor.

This chapter contains information about getting started with the cDAQ controller with Windows and with LabVIEW Real-Time:

• For NI cDAQ-9132/9133/9134/9135/9136/9137 for Windows, refer to the Installing the

cDAQ Controller for Windows section

• For NI cDAQ-9132/9133/9134/9135/9136/9137 for LabVIEW Real-Time, refer to the

Installing the cDAQ Controller for LabVIEW Real-Time section

The cDAQ controller features a number of standard interfaces and combines with C Series modules to measure a broad range of analog and digital I/O signals that can be logged to the local hard drive or an SD card. For specifications, refer to the specifications document for your cDAQ controller. For module specifications, refer to the documentation included with your C Series module(s) or go to

ni.com/manuals.

Chapter 1 Getting Started with the cDAQ Controller

ACT/ LINK

NI-XNET CAN/LIN

10/100 /1000

INPUT 9–30V 40W MAX

PFI 0

1: SD ACT 2: SD IN USE

1 2

V1 C V2 C

PUSH TO EJECT

DO NOT SEPARATE CONNECTORS WHEN

ENERGIZED IN HAZARDOUS LOCATIONS

NI CompactDAQ

NI cDAQ-9134

USER1

RS-232

1234

RESET

1: POWER 2: STATUS 3: USER1 4: USER2

234

NATIONAL

INSTRUMENTS

Figure 1-1 shows the NI cDAQ-9132/9134/9136 controller. Figure 1-2 shows the NI cDAQ-9133/9135/9137 controller.

Figure 1-1. NI cDAQ-9132/9134/9136 Controller

1 POWER, STATUS, USER1, and USER2 LEDs 2 NI-XNET CAN/LIN Connector (cDAQ-9134 Only) 3 RJ-45 Ethernet Ports 1 and 2,

ACT/LINK and 10/100/1000 Ethernet LEDs

4 Power Connector 5 Installed C Series I/O Module 6 Module Slots 7 CMOS Reset Button 8 Chassis Grounding Screw 9 USER1 Button

10 SD Card Removable Storage and SD Card Slot

Cover Mounting Holes

11 SD ACT and SD IN USE LEDs 12 RS-232 Serial Port 13 PFI 0 SMB Connector 14 Mini DisplayPort Connector 15 USB Host Ports and USB Retention Standoffs 16 USB Device Port and USB Retention Bracket 17 RESET Button 18 Power Button

1-2 | ni.com

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

Figure 1-2. NI cDAQ-9133/9135/9137 Controller

54321 6

1 POWER, STATUS, USER1, and USER2 LEDs 2 NI-XNET CAN/LIN Connector (cDAQ-9135 Only) 3 RJ-45 Ethernet Ports 1 and 2,

ACT/LINK and 10/100/1000 Ethernet LEDs

4 Power Connector 5 Module Slots 6 Installed C Series I/O Modules 7 CMOS Reset Button 8 Chassis Grounding Screw 9 USER1 Button

NI CompactDAQ

NI cDAQ-9135

Safety Guidelines

Caution Do not operate the NI cDAQ-9132/9133/9134/9135/9136/9137 controller

in a manner not specified in these operating instructions. Product misuse can result in a hazard. You can compromise the safety protection built into the product if the product is damaged in any way. If the product is damaged, return it to National Instruments for repair.

NI 9263 NI 9263 NI 9263 NI 9263

7891213

10 SD Card Removable Storage and SD Card Slot

Cover Mounting Holes

Note Because some C Series modules may have more stringent certification

standards than the NI cDAQ-9132/9133/9134/9135/9136/9137 controller, the combined system may be limited by individual component restrictions. Refer to the specifications document for your cDAQ controller for more details.

Hot Surface This icon denotes that the component may be hot. Touching this

component may result in bodily injury.

Chapter 1 Getting Started with the cDAQ Controller

Electromagnetic Compatibility Guidelines

This product was tested and complies with the regulatory requirements and limits for electromagnetic compatibility (EMC) stated in the product specifications. These requirements and limits provide reasonable protection against harmful interference when the product is operated in the intended operational electromagnetic environment.

This product is intended for use in industrial locations. However, harmful interference may occur in some installations or when the product is connected to a peripheral device or a test object. To minimize interference with radio and television reception and prevent unacceptable performance degradation, install and use this product in strict accordance with the instructions in the product documentation.

Furthermore, any modifications to the product not expressly approved by National Instruments could void your authority to operate it under your local regulatory rules.

Caution To ensure the specified EMC performance, product installation requires

either special considerations or user-installed add-on devices. Refer to the Installing

the cDAQ Controller for Windows section or Installing the cDAQ Controller for LabVIEW Real-Time section for further information.

Caution To ensure the specified EMC performance, operate this product only with

shielded cables and accessories. Note that the input DC power cables may be unshielded.

1-4 | ni.com

Caution To ensure the specified EMC performance, do not connect V2 to a DC

mains supply or to any supply requiring a connecting cable longer than 3 m (10 ft). A DC mains supply is a local DC electricity supply network in the infrastructure of a site or building.

Caution To ensure the specified EMC performance, the length of any cable

connected to the video and USB host ports must be no longer than 3 m (10 ft). The length of any cable connected to the RS-232 port must be no longer than 30 m (100 ft).

Caution The USB device port is intended for use in device configuration,

application deployment, debug, and maintenance.

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

⬉ᄤֵᙃѻક∵ᶧ᥻ࠊㅵ⧚ࡲ⊩ ˄Ё೑ ˅

Ё೑ᅶ᠋

National Instruments

ヺড়Ё೑⬉ᄤֵᙃѻકЁ䰤ࠊՓ⫼ᶤѯ᳝ᆇ⠽䋼ᣛҸ

(RoHS)

Ǆ݇Ѣ

National InstrumentsЁ೑RoHS

ড়㾘ᗻֵᙃˈ䇋ⱏᔩ

ni.com/

environment/rohs_china

(For information about China RoHS compliance,

go to

ni.com/environment/rohs_china

Special Guidelines for Marine Applications

Some products are Lloyd’s Register (LR) Type Approved for marine (shipboard) applications. To verify Lloyd’s Register certification for a product, visit

ni.com/certification and

search for the LR certificate, or look for the Lloyd’s Register mark on the product label.

Caution In or der to m eet the EMC req uir ements for marine applications, install the

product in a shielded enclosure with shielded and/or filtered power and input/output ports. In addition, take precautions when designing, selecting, and installing measurement probes and cables to ensure that the desired EMC performance is attained.

Hardware Symbol Definitions

The following symbols are marked on your cDAQ controller.

Caution When this symbol is marked on a product, refer to the Safety Guidelines

section for information about precautions to take.

ESD When this symbol is marked on a product, the product could be damaged if subjected to Electrostatic Discharge (ESD) on the connector pins of any I/O port. To prevent damage, industry-standard ESD prevention measures must be employed during installation, maintenance, and operation.

EU Customers At the end of the product life cycle, all products must be sent to a WEEE recycling center. For more information about WEEE recycling centers, National Instruments WEEE initiatives, and compliance with WEEE Directive 2002/96/EC on Waste and Electronic Equipment, visit

weee

ni.com/environment/

Battery Directive This device contains a long-life coin cell battery. If you need

Cd/Hg/Pb

to replace it, use the Return Material Authorization (RMA) process or contact an authorized National Instruments service representative. For more information about compliance with the EU Battery Directives 2006/66/EC about Batteries and Accumulators and Waste Batteries and Accumulators, visit

environment/batterydirective

ni.com/

Chapter 1 Getting Started with the cDAQ Controller

Unpacking

The cDAQ controller ships in an antistatic package to prevent electrostatic discharge (ESD). ESD can damage several components on the device.

Caution Never touch the exposed pins of connectors.

To avoid ESD damage in handling the device, take the following precautions:

• Ground yourself with a grounding strap or by touching a grounded object.

• Touch the antistatic package to a metal part of your computer chassis before removing the device from the package.

Remove the device from the package and inspect it for loose components or any other signs of damage. Notify NI if the device appears damaged in any way. Do not install a damaged device in your computer or controller.

Store the device in the antistatic package when the device is not in use.

Installing the cDAQ Controller for Windows

(NI cDAQ-9132/9133/9134/9135/9136/9137 for Windows) The

NI cDAQ-9132/9133/9134/9135/9136/9137 for Windows ships with preloaded Windows Embedded Standard 7 (WES7), LabVIEW (evaluation version), and NI-DAQmx driver software. NI cDAQ-9134/9135 for Windows controllers also ship with preloaded NI-XNET software. The cDAQ controller and C Series module(s) are packaged separately.

You will need the following items to set up the NI cDAQ-9132/9133/9134/9135/9136/9137 for Windows controller:

• Power connector (packaged with the cDAQ controller)

• Ferrites (packaged with the cDAQ controller)

• Power supply

• Monitor

• Compatible mini DisplayPort cable (and adapter if necessary)

• Computer mouse and keyboard

• Number 1 and number 2 Phillips screwdrivers

• C Series module(s)

1-6 | ni.com

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

Note Table 1-1 lists the earliest supported driver version for each cDAQ controller

for Windows.

Table 1-1. cDAQ Controller NI-DAQmx Software Support

cDAQ Controller Earliest NI-DAQmx Support

NI cDAQ-9132/9134 for Windows NI-DAQmx 14.0

NI cDAQ-9133/9135 for Windows NI-DAQmx 14.5

NI cDAQ-9136/9137 for Windows NI-DAQmx 15.1

The NI-DAQmx driver software preloaded onto your cDAQ controller is available for download

ni.com/support. The documentation for NI-DAQmx is available from Start»

at All Programs»National Instruments»NI-DAQmx.

Note If you reinstall the cDAQ controller operating system, all software must also

be reinstalled.

Refer to Figure 1-1 or 1-2 while completing the following assembly steps.

1. (Optional) Mount the cDAQ controller to a panel, wall, rack, or DIN rail, or attach the desktop mounting kit, as described in the Mounting the cDAQ Controller section.

2. Connect a video monitor to the mini DisplayPort connector with a cable (and adapter if necessary). Refer to the Mini DisplayPort Connector section for more information about this connector.

3. Power on the monitor.

4. Connect a computer keyboard and mouse to the USB host ports on the cDAQ controller. Use one of the ferrites around both USB cables as described in the USB Host Ports section.

5. Attach a ring lug to a 1.31 mm

(16 AWG) or larger wire. Remove the ground screw from the ground terminal on the front panel. Attach the ring lug to the ground terminal and tighten the grounding screw to 0.5 N · m (4.4 lb · in.) of torque. Attach the other end of the wire to chassis safety ground using a method appropriate for the application, as shown in Figure 1-3. Refer to the Chassis Grounding Screw section for more information about earth ground.

Note If you use shielded cabling to connect to a C Series module with a plastic

connector, you must attach the cable shield to the chassis grounding terminal using

1.31 mm2 (16 AWG) or larger wire. Use shorter wire for better EMC performance.

Chapter 1 Getting Started with the cDAQ Controller

I Com

ctD

I Co

ctD

-9

134N

-9

134

Figure 1-3. Ring Lug Attached to Ground Terminal

Note Make sure that no I/O-side power is connected to the module. If the controller

is in a nonhazardous location, the controller power can be on when you install modules.

6. Align the module with a cDAQ controller slot.

7. Squeeze the latches and insert the module into the module slot, and press firmly on the connector side of the module until the latches lock the module into place.

Repeat Steps 6 and 7 to install additional modules.

8. Wire your external power source and install the remaining ferrite as outlined in the Wiring

Power to the cDAQ Controller section. The cDAQ controller requires an external power

supply that meets the specifications listed in the specifications document for your cDAQ controller.

9. Turn on the external power supply.

When the cDAQ controller powers on, the POWER LED lights and the controller runs a power-on self test (POST). When the POST is complete, the operating system is loaded.

10. Go through the steps on the Set Up Windows screen that opens on your monitor. Windows prepares your desktop.

1-8 | ni.com

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

11. Wire the C Series module as indicated in the C Series module documentation, available

ni.com/manuals.

from

12. Self-test your controller in Measurement & Automation Explorer (NI MAX) by double-clicking the NI MAX icon on the desktop to open MAX. Expand Devices and Interfaces, right-click NI cDAQ-<model number>, and select Self-Test. Self-test performs a brief test to determine successful controller installation.

13. Run a Test Panel in MAX by expanding Devices and Interfaces»NI cDAQ-<model number>, right-clicking your C Series module, and selecting Test Panels to open a test panel for the selected module.

If the test panel displays an error message, refer to

New users can view and use the Voltage - Continuous Input VI, available in the LabVIEW Example Finder. Experienced users can use the LabVIEW Sample Projects, Finite Measurement (NI-DAQmx) and Continuous Measurement and Logging (NI-DAQmx).

Caution Removing power without shutting down the cDAQ controller can corrupt

the embedded Windows system drive. For information about how to improve robustness on the Windows system, go to ni.com/info and enter the Info Code

extxxx.

Note When in use, the cDAQ controller may become warm to the touch. This is

normal.

Note The network behavior is determined by the Windows network drivers. Refer

to the Windows documentation for information about configuring IP settings.

ni.com/support.

Installing the cDAQ Controller for LabVIEW Real-Time

(NI cDAQ-9132/9133/9134/9135/9136/9137 for LabVIEW Real-Time) The

NI cDAQ-9132/9133/9134/9135/9136/9137 for LabVIEW Real-Time features a hard drive formatted for LabVIEW Real-Time. The cDAQ controller and C Series module(s) are packaged separately.

You will need the following items to set up the NI cDAQ-9132/9133/9134/9135/9136/9137 for LabVIEW Real-Time controller:

• Power connector (packaged with the cDAQ controller)

• USB cable (packaged with the cDAQ controller)

• Ferrites (packaged with the cDAQ controller)

• Host computer running Windows (check your driver and ADE readme files for specific version compatibility)

• LabVIEW software

Chapter 1 Getting Started with the cDAQ Controller

• LabVIEW Real-Time software

• NI-DAQmx driver (packaged with the cDAQ controller)

•

(NI cDAQ-9134/9135) NI-XNET software (packaged with the cDAQ controller)

• Power supply

• Number 1 and number 2 Phillips screwdrivers

• C Series module(s)

Refer to Figure 1-1 or 1-2 while completing the following assembly steps.

1. Install LabVIEW on your host computer, as described in the LabVIEW Installation Guide.

2. Install LabVIEW Real-Time on your host computer, as described in the LabVIEW Real-Time Module Release and Upgrade Notes.

3. Install NI-DAQmx driver software on your host computer, as described in the Read Me First: NI-DAQmx and DAQ Device Installation Guide.

Note Table 1-2 lists the earliest supported driver version for each cDAQ controller

for LabVIEW for Real-Time.

Table 1-2. cDAQ Controller NI-DAQmx Software Support

cDAQ Controller Earliest NI-DAQmx Support

NI cDAQ-9132/9134 for LabVIEW Real-Time NI-DAQmx 14.1

NI cDAQ-9133/9135 for LabVIEW Real-Time NI-DAQmx 14.5

NI cDAQ-9136/9137 for LabVIEW Real-Time NI-DAQmx 15.1

The NI-DAQmx driver software is included on the media shipped with your kit and is available for download at

ni.com/support. The documentation for NI-DAQmx is

available after installation from Start»All Programs»National Instruments» NI-DAQmx.

4. (NI cDAQ-9134/9135) Install NI-XNET on your host computer, as described in the NI-XNET Hardware and Software Installation Guide.

Note Table 1-3 lists the earliest supported driver version for each cDAQ controller

for LabVIEW Real-Time.

Table 1-3. cDAQ Controller NI-XNET Software Support

cDAQ Controller Earliest NI-XNET Support

NI cDAQ-9134 for LabVIEW Real-Time NI-XNET 14.1

NI cDAQ-9135 for LabVIEW Real-Time NI-XNET 14.5

1-10 | ni.com

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

5. Power on the host computer.

6. (Optional) Mount the cDAQ controller to a panel, wall, rack, or DIN rail, or attach the desktop mounting kit, as described in the Mounting the cDAQ Controller section.

7. Attach a ring lug to a 1.31 mm

Note If you use shielded cabling to connect to a C Series module with a plastic

connector, you must attach the cable shield to the chassis grounding terminal using

1.31 mm

Note Make sure that no I/O-side power is connected to the module. If the controller

(16 AWG) or larger wire. Use shorter wire for better EMC performance.

is in a nonhazardous location, the controller power can be on when you install modules.

8. Align the module with a cDAQ controller slot.

9. Squeeze the latches and insert the module into the module slot, and press firmly on the connector side of the module until the latches lock the module into place.

Repeat Steps 8 and 9 to install additional modules.

10. Wire your external power source and install the remaining ferrite as outlined in the Wiring

Power to the cDAQ Controller section. The cDAQ controller requires an external power

supply that meets the specifications listed in the specifications document for your cDAQ controller.

11. Turn on the external power supply.

When the cDAQ controller powers on, the POWER LED lights and the controller runs a power-on self test (POST). When the POST is complete, the operating system is loaded.

12. Use a USB A-to-B cable (included in the shipping kit) to connect the USB device port of the cDAQ controller to a USB port on the host computer.

Caution National Instruments requires a locking USB cable, such as part number

157788-01, in order to meet the shock and vibration specifications of this product.

Note Alternatively, you can connect the cDAQ controller to the host computer

using RJ-45 Ethernet port 1. Refer to the Connecting to the Network through the

Ethernet Port section for more information.

13. Wire the C Series module as indicated in the C Series module documentation.

Chapter 1 Getting Started with the cDAQ Controller

14. Launch Measurement & Automation Explorer (MAX) by double-clicking the NI MAX icon on the host computer desktop. Expand Remote Systems and select NI-cDAQ<model number>-<serial number>.

Click the System Settings tab and verify that the System State reads Connected - Safe

Mode (No Software Installed)

Figure 1-4. cDAQ Controller System Settings in MAX

1 cDAQ Controller under Remote Systems 2 USB Device Port IP Address 3 Ethernet Port 1 IP Address

4 Ethernet Port 2 IP Address 5 Controller Status

Note If you are connecting through the RJ-45 Ethernet port instead of the USB

device port and cannot find the system in the MAX configuration tree, refer to the

Troubleshooting Network Communication in the LabVIEW Real-Time Controller

section.

1-12 | ni.com

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

15. Expand NI-cDAQ<model number>-<serial number>. Right-click Software and select Add/Remove Software.

Figure 1-5. Adding Software in MAX

16. Click OK in the Log In window. The password is blank by default.

17. In the window that opens, select NI-DAQmx, and then select Install the feature. Other required dependencies will be selected automatically.

18.

(NI cDAQ-9134/9135) Select NI-XNET and then select Install the feature.

19. Click Next to confirm the requested software features.

20. Click Next to install the software. After the installation completes, the cDAQ controller reboots.

21. Click Finish.

22. In MAX, expand Remote Systems and select NI-cDAQ<model number>-<serial number>. Click the System Settings tab and verify that the System State reads

Connected - Running.

23. Self-test your controller in MAX by expanding NI-cDAQ<model number>-<serial number>»Devices and Interfaces. Right-click NI cDAQ-<model number> and select

Self-Test. Self-test performs a brief test to determine successful controller installation.

24. Run a Test Panel in MAX by expanding NI-cDAQ<model number>-<serial number>» Devices and Interfaces»NI cDAQ-<model number>, right-clicking your C Series module, and selecting Test Panels to open a test panel for the selected module.

If the test panel displays an error message, refer to

ni.com/support.

New users can view and use the Voltage - Continuous Input VI, available in the LabVIEW Example Finder. Experienced users can use the LabVIEW Sample Projects, LabVIEW Real-Time Control (NI-DAQmx) and LabVIEW Waveform Acquisition and Logging (NI-DAQmx).

Chapter 1 Getting Started with the cDAQ Controller

Note You can configure network settings using MAX on a host computer. Refer to

the LabVIEW Real-Time Target Configuration topic of the Measurement & Automation Explorer Help for information.

Note You can configure the cDAQ controller to launch an embedded stand-alone

LabVIEW RT application each time you boot the controller. Refer t o the Building and Deploying a Stand-Alone Real-Time Application topic of the LabVIEW Real-Time Module Help for more information about startup applications.

Connecting to the Network through the Ethernet Port

(NI cDAQ-9132/9133/9134/9135/9136/9137 for LabVIEW Real-Time) Use a shielded

straight through Category 5 Ethernet cable to connect the cDAQ chassis to an Ethernet network.1 Connect one end to RJ-45 Ethernet port 1 on the controller, and the other end directly to your computer or any network connection on the same subnet as your computer. Refer to the Ethernet

Cabling section for information about the Ethernet cable.

Caution To prevent data loss and to maintain the integrity of your Ethernet

installation, do not use a cable longer than 100 m.

The cDAQ controller attempts to initiate a DHCP network connection at powerup. If the cDAQ controller is unable to obtain an IP address, it connects to the network with a link-local IP address with the form a standard Ethernet connection.

169.254.x.x. The host computer communicates with the cDAQ controller over

Troubleshooting Network Communication in the LabVIEW Real-Time Controller

(NI cDAQ-9132/9133/9134/9135/9136/9137 for LabVIEW Real-Time) If the cDAQ

controller cannot communicate with the network, you can perform the following troubleshooting steps.

Note Windows XP users may be required to manually install the USB driver on the

host computer. The USB driver is installed in the National Instruments\

CompactRIO\Staging\USBLAN

1. Use a USB A-to-B cable to connect the USB device port of the cDAQ controller shown in Figure 1-1, to a USB port on the host computer.

When you connect the cDAQ controller to the host computer, the USB driver creates a virtual network interface card and assigns an IP address to the cDAQ controller in the format of 172.22.11.x.

You can either use a shielded straight through Category 5 Ethernet cable or an Ethernet crossover cable to

connect the cDAQ chassis directly to your computer.

1-14 | ni.com

directory.

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

2. Launch MAX. Expand Remote Systems and select NI-cDAQ<model number>-<serial number>. Configure the IP and other network settings in MAX.

3. (Optional) At this point, you can reconnect the cDAQ controller to the host computer using RJ-45 Ethernet port 1. The cDAQ controller attempts to initiate a DHCP network connection at powerup. If the cDAQ controller is unable to obtain an IP address, it connects to the network with a link-local IP address with the form computer communicates with the cDAQ controller over a standard Ethernet connection.

If you are still experiencing networking issues, complete the following steps.

1. Hold the RESET button down for five seconds and then release it. The STATUS LED lights and then starts blinking three times every few seconds. The controller is now in safe mode with output from the serial port enabled. You can use a RS-232 serial port terminal to read the IP address of the controller or you can connect a monitor to the mini DisplayPort and view the IP address.

2. To set a new DHCP connection, hold the RESET button down for five seconds and then release it. The STATUS LED repeats the same behavior. The cDAQ controller attempts to establish a new DHCP connection. If it fails, it assigns itself a link-local IP address. If the DHCP connection is successful and appropriate for your application, skip to step 4.

3. Launch MAX. Expand Remote Systems and select NI-cDAQ<model number>-<serial number>. Configure the IP and other network settings in MAX.

4. Press and release the RESET button to reboot the controller.

For more information about troubleshooting network communication, refer to the MAX Remote

Systems Help or Finding a Network DAQ Device in MAX topic in the Measurement & Automation Explorer Help.

169.254.x.x. The host

Wiring Power to the cDAQ Controller

The cDAQ controller requires an external power source as described in the Power Requirements section of the specifications document for your cDAQ controller. Some suggested NI power supplies are listed in Table 1-10. The cDAQ controller filters and regulates the supplied power and provides power to all of the modules. The cDAQ controller has a primary power input, V1, and a secondary power input, V2. The POWER LED on the front panel identifies the power input in use. When the LED is lit green, V1 is in use; when the LED is lit yellow, V2 is in use.

Caution Do not connect V2 to a DC mains supply or to any supply requiring a

connecting cable longer than 3 m (10 ft). A DC mains supply is a local DC electricity supply network in the infrastructure of a site or building.

Chapter 1 Getting Started with the cDAQ Controller

Complete the following steps to connect a power source to the cDAQ controller.

1. Make sure the power source is turned off.

2. Install the ferrite (National Instruments part number 711849-01, included in the shipping kit) across the negative and positive leads of the power source, approximately 50 to 75 mm (2 to 3 in.) from the ends of the leads near the cDAQ controller, as shown in Figure 1-6.

Figure 1-6. Installing the Ferrite on the Power Leads

3. Loosen the connector screw flanges and remove the power screw terminal connector plug from the cDAQ controller. Figure 1-7 shows the terminal screws, wh ich secure th e wi res in the screw terminals, and the connector screw flanges, which secure the connector plug on the front panel.

Figure 1-7. Power Screw Terminal Connector Plug

1 Terminal Screw 2 Connector Screw Flanges

Caution Do not tighten or loosen the terminal screws on the power connector while

the power is on.

4. Connect the positive lead of the primary power source to the V1 terminal of the power connector plug and tighten the terminal screw.

5. Connect the negative lead of the primary power source to one of the C terminals of the power screw terminal connector plug and tighten the terminal screw.

6. Optionally, you can connect the positive lead of a secondary power source to the V2 terminal and the negative lead to the other C terminal.

7. Install the power connector plug on the front panel of the cDAQ controller and tighten the connector screw flanges.

8. Turn on the external power source(s).

1-16 | ni.com

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

The cDAQ controller uses V1 if the voltage across V1 and C is 9 V or greater. If the V1-to-C voltage drops below 9 V, the cDAQ controller switches to V2. If the V2-to-C voltage is less than 9 V, operation may be interrupted.

Note If the cDAQ controller is using V1 and a secondary power source is

connected to V2, there is a small leakage current on V2. The leakage current depends on the V2-to-C voltage. Refer to the Power Requirements section of the specifications document for your cDAQ controller for nominal values of this leakage current.

If the power source is connected to the power connector using long wiring with high DC resistance, the voltage at the power connector may be significantly lower than the specified voltage of the power source.

The C terminals are internally connected to each other but are not connected to chassis ground. You can connect the C terminals to chassis ground externally. Refer to the Power Requirements section of the specifications document for your cDAQ controller for information about the power supply input range. Refer to the Safety Voltages section of the specifications document for your cDAQ controller for information about the maximum voltage from terminal to chassis ground.

Powering Down the cDAQ Controller

There are two methods for safely powering down the cDAQ controller:

• Power Button—Pressing and releasing the power button, shown in Figure 1-1 or 1-2, shuts down the cDAQ controller. This default behavior for the cDAQ controller is configured in the BIOS and the Windows operating system.

• Windows Software—Shut down the cDAQ-9132/9133/9134/9135/9136/9137 for Windows controller through the Windows start menu.

Caution Removing power without shutting down the cDAQ controller can corrupt

the embedded Windows system drive. For information about how to improve robustness on the Windows system, go to ni.com/info and enter the Info Code

extxxx.

Controller Startup Options

(NI cDAQ-9132/9133/9134/9135/9136/9137 for LabVIEW Real-Time) You can configure

controller startup options in MAX. Select the controller under Remote Systems in the MAX configuration tree and then select the System Settings tab. You can configure the following options under Startup Settings.

• Safe Mode—When you reboot the controller with this setting on, the controller starts without launching LabVIEW RT or any startup applications. In safe mode the controller launches only the services necessary for updating configuration and installing software.

Chapter 1 Getting Started with the cDAQ Controller

• Console Out—When you reboot the controller with this setting on, the controller redirects output to the RS-232 serial port. You can use a serial-port terminal program to read the IP address and firmware version of the controller. Use a null-modem cable to connect the RS-232 serial port to a computer. Make sure that the serial-port terminal program is configured to the following settings:

– 115,200 bits per second

– Eight data bits

– No parity

– One stop bit

– No flow control

• Disable RT Startup App—Rebooting the controller with this setting on prevents any LabVIEW startup applications from running.

• Enable Secure Shell (SSH) Logins—Rebooting the controller with this setting on starts

sshd on the controller. Starting sshd enables logins over SSH, an encrypted

communication protocol. For information about SSH, go to ni.com/info and enter the Info Code openssh.

• Embedded User Interface—You can use a single real-time VI to iteratively develop both your user interface and system logic. For more information, refer to the Using the Embedded UI to Access RT Target VIs topic in the LabVIEW Help.

Removing Modules from the cDAQ Controller

Complete the following steps to remove a C Series module from the cDAQ controller.

1. Make sure that no I/O-side power is connected to the module. If the controller is in a nonhazardous location, the controller power can be on when you remove modules.

2. Squeeze the latches on both sides of the module and pull the module out of the controller.

Mounting the cDAQ Controller

You can use the cDAQ controller on a desktop or mount it to a panel, wall, DIN rail, or rack. For accessory ordering information, refer to the pricing section of the cDAQ controller product page

ni.com.

Note The cDAQ controller was designed and tested in multiple mounting

configurations. The varied mounting orientations or configurations can reduce the maximum allowable ambient temperature and can affect the accuracy of C Series modules in the controller. Visit

cdaqmounting for more information about mounting and accuracy.

The following sections contain mounting method information. Before using any of these mounting methods, record the serial number from the side of the controller. You may be unable to read the serial number after you have mounted the controller.

1-18 | ni.com

ni.com/info and enter the Info Code

NI cDAQ-9132/9133/9134/9135/9136/9137 User Manual

NI cDAQ-9134NI cDAQ-9134

NI CompactDAQNI CompactDAQ

NI cDAQ-9135NI cDAQ-9135

NI CompactDAQNI CompactDAQ

Caution You must mount the controller horizontally on a flat, vertical, metallic

surface to achieve the maximum allowable operating ambient temperature

. Mounting the controller in a different orientation or on a nonmetallic surface reduces the maximum allowable ambient temperature and can affect the measurement accuracy of modules in the controller. Figures 1-8 and 1-9 show the controller mounted horizontally. Refer to the Mounting the cDAQ Controller section for complete panel mounting instructions.

Measure the ambient temperature at each side of the controller, 63.5 mm (2.5 in.) from the side and 38.1 mm (1.5 in.) forward from the rear of the controller, as shown in Figures 1-10 and 1-11.

For more information about how different mounting configurations can cause temperature derating, go to

ni.com/info and enter the Info Code cdaqmounting.

Figure 1-8. NI cDAQ-9132/9134/9136 Mounted Horizontally with Panel Mount Kit

Figure 1-9. NI cDAQ-9133/9135/9137 Mounted Horizontally with Panel Mount Kit

The allowable operating ambient temperature for the cDAQ-9132/9133/9136/9137 is -20 to 55 °C. The allowable operating ambient temperature for the cDAQ-9134/9135 is -40 to 70 °C.

Chapter 1 Getting Started with the cDAQ Controller

25.4 mm (1.00 in.)

Cooling Dimensions

25.4 mm (1.00 in.)

Cooling Dimensions

RS-232

PFI 0

NI-XNET

CAN/LIN

USER1

1: SD ACT

1 2

2: SD IN USE

10/100

/1000

ACT/ LINK

4: USER2

RESET

3: USER1

2 3 4

2: STATUS

1: POWER

PUSH TO EJECT

DO NOT SEPERATE CONNECTORS WHEN

ENERGIZED IN HAZARDOUS LOCATIONS

63.5 mm (2.50 in.)

38.1 mm (1.50 in.)

Measure Ambient Temperature Here

27.8 mm

(1.09 in.)

50.8 mm (2.00 in.)

63.5 mm (2.50 in.)

50.80 mm (2.00 in.) Cabling Clearance

8.1

(1.

)

Figure 1-10. NI cDAQ-9132/9134/9136 Temperature, Cooling, and Cabling Dimensions

(NI cDAQ-9134 Shown)

25.4 mm (1.00 in.)

Cooling Dimensions

1: POWER

2: STATUS

3: USER1

4: USER2

RESET

NI CompactDAQ

NI cDAQ-9134

50.80 mm (2.00 in.) Cabling Clearance

10/100 /1000

ACT/

LINK

10/100 /1000

ACT/

1: SD ACT

LINK

2: SD IN USE

NI-XNET

CAN/LIN

PFI 0

PUSH TO EJECT

DO NOT SEPERATE CONNECTORS WHEN

RS-232

ENERGIZED IN HAZARDOUS LOCATIONS

USER1

25.4 mm (1.00 in.)

Cooling Dimensions

(1.

1-20 | ni.com

Measure Ambient Temperature Here

50 in.)

63.5 mm

(2.50 in.)

Measure

50.8 mm

27.8 mm (1.09 in.)

63.5 mm

(2.50 in.)

(2.00 in.)

Ambient Temperature Here

38.1 mm (1.50 in.)

+ 115 hidden pages

National Instruments cDAQ-9133, cDAQ-9132, cDAQ-9136, cDAQ-9137, cDAQ-9134 User Manual

Specifications and Main Features

Frequently Asked Questions

User Manual

User Manual

Support

Worldwide Technical Support and Product Information

Worldwide Offices

National Instruments Corporate Headquarters

Legal Information

Limited Warranty

Copyright

End-User License Agreements and Third-Party Legal Notices

U.S. Government Restricted Rights

Trademarks

Patents

Export Compliance Information

WARNING REGARDING USE OF NATIONAL INSTRUMENTS PRODUCTS

Contents

Figure 1-1. NI cDAQ-9132/9134/9136 Controller

Figure 1-2. NI cDAQ-9133/9135/9137 Controller

Safety Guidelines

Electromagnetic Compatibility Guidelines

Special Guidelines for Marine Applications

Hardware Symbol Definitions

Unpacking

Installing the cDAQ Controller for Windows

Table 1-1. cDAQ Controller NI-DAQmx Software Support

Figure 1-3. Ring Lug Attached to Ground Terminal

Installing the cDAQ Controller for LabVIEW Real-Time

Table 1-2. cDAQ Controller NI-DAQmx Software Support

Table 1-3. cDAQ Controller NI-XNET Software Support

Figure 1-4. cDAQ Controller System Settings in MAX

Figure 1-5. Adding Software in MAX

Connecting to the Network through the Ethernet Port

Troubleshooting Network Communication in the LabVIEW Real-Time Controller

Wiring Power to the cDAQ Controller

Figure 1-6. Installing the Ferrite on the Power Leads

Figure 1-7. Power Screw Terminal Connector Plug

Powering Down the cDAQ Controller

Controller Startup Options

Removing Modules from the cDAQ Controller

Mounting the cDAQ Controller

Figure 1-8. NI cDAQ-9132/9134/9136 Mounted Horizontally with Panel Mount Kit

Figure 1-9. NI cDAQ-9133/9135/9137 Mounted Horizontally with Panel Mount Kit