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AC Adjustable Frequency Drives

Yaskawa AFD EtherNet/IP Communication & PLC Integration Guide

· 16 min read

Integrating Yaskawa AFDs with PLC Systems via EtherNet/IP: Configuration and Commissioning Guide

Yaskawa adjustable frequency drives (AFDs) can exchange run commands, speed references, status information, actual speed, faults, and other drive data with a PLC over EtherNet/IP when the appropriate communication interface is installed and configured correctly. The integration depends on three things being aligned: the Yaskawa drive and EtherNet/IP option, the PLC’s I/O and assembly configuration, and the drive parameters that determine whether commands and frequency references come from the network. This guide explains the architecture, configuration process, PLC data mapping, explicit messaging, commissioning procedure, and troubleshooting methods used to integrate Yaskawa AFDs into industrial control systems.

Yaskawa currently provides EtherNet/IP communication options across multiple drive families, including GA500, GA800, A1000, P1000, U1000, FP605 and other compatible platforms; the exact option card and mounting arrangement depend on the drive series.

Yaskawa’s current application documentation also specifically covers integration with Allen-Bradley ControlLogix and CompactLogix controllers using Studio 5000.

Important: EtherNet/IP communication does not automatically mean the PLC has authority to start the motor. The drive must be configured to accept the run command and frequency reference from the network, and the application’s safety circuit must remain independent of ordinary PLC communications.

What Is Yaskawa AFD EtherNet/IP Communication?

EtherNet/IP is an industrial Ethernet protocol based on the Common Industrial Protocol (CIP). In a typical Yaskawa AFD installation, the PLC acts as the EtherNet/IP controller/scanner while the drive’s communication interface operates as the network device/adapter.

The physical architecture is straightforward:

PLC → Ethernet switch → Yaskawa AFD → Motor

Multiple drives can share the same industrial Ethernet network, with each drive assigned a unique IP address.

The key advantage is that the PLC does not need separate hardwired analog and discrete signals for every basic drive function. Instead, cyclic network data can carry the command word and frequency reference to the drive while returning drive status and operating information to the PLC.

For example, a PLC can send:

  • Run forward

  • Run reverse

  • Fault reset

  • Network control enable

  • Frequency reference

  • Other supported command data

The drive can return:

  • Drive ready

  • Running forward

  • Running reverse

  • Faulted

  • Warning

  • Actual speed

  • Network-control status

  • Frequency-reference source status

  • Other supported monitor information

Yaskawa’s current EtherNet/IP documentation describes its communication options as the interface between compatible AC drives and an ODVA EtherNet/IP network.

Why EtherNet/IP Is Useful for AFD Applications

Hardwired control still has a place, particularly for safety functions and simple machines. However, networked control becomes much more valuable when a machine contains multiple drives or requires detailed diagnostics.

Instead of wiring a separate start signal, speed reference, running indication, fault indication and analog feedback signal for every drive, the control system can exchange structured data through the Ethernet network.

That creates a cleaner architecture and provides substantially more diagnostic information.

Yaskawa AFD EtherNet/IP Hardware and Compatibility

Before configuring Studio 5000 or another PLC platform, identify the exact Yaskawa drive model and communication option.

This step is frequently skipped, and it causes unnecessary commissioning problems.

Yaskawa’s EtherNet/IP product documentation lists different communication interfaces depending on the drive family. For example, the GA800 uses the JOHB-SMP3-MA family of options, while 1000-series drives such as the A1000 and P1000 support SI-EN3 and SI-EN3D options. GA500 configurations can use compatible EtherNet/IP options with the appropriate mounting arrangement.

Common Yaskawa Drives Used With EtherNet/IP

Depending on the application and generation of equipment, you may encounter:

  • GA500

  • GA800

  • A1000

  • P1000

  • U1000

  • FP605

  • V1000

  • Z1000

  • Older G-series drives

  • Other compatible Yaskawa drive platforms

Do not assume that an EtherNet/IP option from one drive family is interchangeable with another. Check the exact drive model, option designation, firmware requirements and applicable technical manual.

For example, Yaskawa publishes separate documentation for the SI-EN3 and SI-EN3D EtherNet/IP options. The SI-EN3D documentation covers the dual-port implementation.

EDS Files Matter

The Electronic Data Sheet, or EDS, describes a device’s EtherNet/IP characteristics to configuration software.

For older Yaskawa installations, an appropriate EDS file may be required to identify the EtherNet/IP option correctly. Yaskawa provides EDS files for compatible option revisions and drive families.

However, do not blindly install an EDS file simply because the filename contains “Yaskawa” or “SI-EN3.”

Verify:

  1. Drive family.

  2. Option card.

  3. Option firmware.

  4. EDS revision.

  5. PLC software compatibility.

  6. Assembly configuration.

A mismatch can produce a device that appears on the network but does not communicate correctly.

Yaskawa AFD EtherNet/IP Network Architecture

A practical network might look like this:

ControlLogix/CompactLogix PLC

↓

Managed Industrial Ethernet Switch

↓

Yaskawa Drive #1 — 192.168.10.21

Yaskawa Drive #2 — 192.168.10.22

Yaskawa Drive #3 — 192.168.10.23

Each drive should have a unique IP address within the appropriate subnet.

The IP-addressing plan should be established before commissioning. Do not assign addresses randomly from the keyboard and attempt to document them afterward.

Create a drive schedule containing:

Device IP Address Drive Function
AFD-01 192.168.10.21 GA800 Conveyor
AFD-02 192.168.10.22 GA500 Pump
AFD-03 192.168.10.23 A1000 Fan
AFD-04 192.168.10.24 P1000 Process Pump

The exact addressing scheme will depend on the plant’s controls network.

For a production system, also document the switch port, PLC connection, drive location, motor designation and electrical panel.

That information becomes extremely valuable when troubleshooting six months later.

Yaskawa AFD EtherNet/IP PLC Integration With Studio 5000

Yaskawa’s June 2026 application note specifically demonstrates integration with Allen-Bradley ControlLogix and CompactLogix PLCs using Studio 5000. The example uses a GA800 and explains I/O configuration, assembly mapping, RPI configuration, drive control and explicit messaging.

Step 1: Install and Verify the EtherNet/IP Option

Install the appropriate communication option according to the Yaskawa installation documentation.

Do not install or remove the option while the drive is energized.

After installation, verify:

  • Option card is seated correctly.

  • Network cable is connected.

  • Link/activity indicators behave normally.

  • Drive recognizes the communication option.

  • Option firmware is compatible.

  • Correct technical manual is being used.

Yaskawa specifically states that the applicable drive manual should be used for installation, parameter settings, diagnostics and tuning.

Step 2: Establish the Drive IP Address

Configure the drive’s network address according to the applicable Yaskawa option manual.

Record:

  • IP address

  • Subnet mask

  • Gateway, if applicable

  • Node/device name

  • MAC address

  • Option card revision

For a closed machine network, the gateway may not be required. For routed plant networks, the network administrator should define the addressing architecture.

Step 3: Verify Network Connectivity

Before blaming Studio 5000, verify basic Ethernet connectivity.

From a commissioning computer, confirm that the device is reachable.

Then verify:

  • Correct IP address

  • Correct subnet

  • Ethernet link

  • Switch port status

  • Cable integrity

  • Duplicate IP address absence

  • PLC network interface

  • Drive communication status

If the PLC cannot establish basic communication with the device, changing drive command logic will not solve the problem.

Configuring the Yaskawa Drive in Studio 5000

In Yaskawa’s current ControlLogix/CompactLogix example, the drive is added to the controller’s EtherNet/IP I/O configuration. The example uses the ETHERNET-MODULE module type and configures the drive’s IP address, assembly instances, data size and communication format.

The precise menu names can vary between Studio 5000 versions, so focus on the underlying configuration rather than memorizing a particular screen layout.

Configure the Device

Typical configuration information includes:

  • Device name

  • Description

  • IP address

  • Input assembly

  • Output assembly

  • Input size

  • Output size

  • Configuration assembly

  • Configuration size

  • Communication format

  • Requested Packet Interval

In Yaskawa’s example, the input assembly is 71, the output assembly is 21, and the configuration assembly is 1 with a size of 0. The example uses a Data-INT communication format.

These values are example-specific, not universal values for every Yaskawa drive and EtherNet/IP option. Always verify the assembly numbers and sizes against the technical manual for the exact drive and option combination.

Understanding EtherNet/IP Assembly Data

This is where many integration projects go wrong.

The PLC is not simply reading a collection of named Yaskawa parameters.

Cyclic EtherNet/IP I/O typically exchanges structured assembly data.

Think of it as two data streams:

Output Assembly

PLC → Yaskawa drive

Input Assembly

Yaskawa drive → PLC

The output data may contain a command word followed by a frequency or speed reference.

The input data may contain a status word followed by actual speed.

In Yaskawa’s documented example, assembly 21 carries the drive command and commanded speed, while assembly 71 returns drive status and actual speed.

Example Command Word

Yaskawa’s example identifies bits in the command word for functions such as:

  • Bit 0 — Run forward

  • Bit 1 — Run reverse

  • Bit 2 — Fault reset

  • Bit 5 — Network control

  • Bit 6 — Network frequency reference

The corresponding status word includes information such as:

  • Faulted

  • Warning

  • Running forward

  • Running reverse

  • Drive ready

  • Controlling from network

  • Frequency reference from network

  • At commanded speed

This is why a drive can be physically online but refuse to start.

The Ethernet connection can be healthy while the drive is configured to take its run command from the keypad or terminals rather than the network.

Configuring Yaskawa Drive Parameters for Network Control

The PLC cannot override an incorrectly configured command source.

The drive must be configured so that its frequency reference and run command come from the EtherNet/IP option.

For the drive families covered by the documented example, Yaskawa identifies b1-01 and b1-02 as important parameters for selecting the frequency reference and run-command source. In the example, both are set to 3: Option Card.

The exact parameter names and numbers vary between drive families and generations.

Therefore, do not copy parameters from an A1000 application into a GA800 project without checking the current manual.

A correct commissioning sequence is:

  1. Verify motor data.

  2. Verify motor-control mode.

  3. Verify minimum and maximum frequency.

  4. Verify acceleration and deceleration.

  5. Verify run-command source.

  6. Verify frequency-reference source.

  7. Verify communication-loss behavior.

  8. Verify fault-reset strategy.

  9. Verify external interlocks.

  10. Only then issue a network run command.

Yaskawa AFD PLC Data Mapping

Once the I/O connection is established, create meaningful PLC tags.

Avoid building a program that directly manipulates unexplained integers everywhere.

Instead, create a structured representation such as:

Yaskawa_Conveyor_01

  • CommandWord

  • SpeedCommand

  • StatusWord

  • ActualSpeed

  • Faulted

  • Warning

  • Ready

  • Running

  • NetworkControl

  • NetworkReference

  • AtSpeed

This makes the application substantially easier to troubleshoot.

For example:

Yaskawa_Conveyor_01.CommandWord Yaskawa_Conveyor_01.SpeedCommand Yaskawa_Conveyor_01.StatusWord Yaskawa_Conveyor_01.ActualSpeed

Then derive Boolean diagnostic tags from the appropriate status bits.

Yaskawa’s documented example uses controller tags in the form of input and output data arrays, with I.Data[0] representing the status word and I.Data[1] representing actual speed, while O.Data[0] represents the command word and O.Data[1] the commanded speed.

Frequency and Speed Scaling

Do not assume that a value of 3000 means 3,000 RPM.

The scaling depends on the selected monitor/reference configuration and drive family.

Yaskawa’s example demonstrates a value of 3000 corresponding to 30.00 Hz under one configuration and explains that another setting can represent speed in RPM.

That distinction matters.

If the PLC sends the wrong numerical scale, the drive may:

  • Run much faster than expected.

  • Run much slower than expected.

  • Appear to ignore the command.

  • Reach a frequency limit.

  • Generate confusing process behavior.

Document the engineering units in the PLC.

For example:

SpeedCommand_Hz SpeedFeedback_Hz

is clearer than:

Drive_Data[1] Drive_Data[1]

Requested Packet Interval and Network Performance

The Requested Packet Interval (RPI) determines how frequently cyclic I/O data is requested.

Yaskawa’s current ControlLogix/CompactLogix application example states that 100 ms is generally recommended for its example configuration.

That does not mean every machine should blindly use 100 ms.

The appropriate RPI depends on the process.

A basic ventilation fan may not need extremely fast cyclic updates. A coordinated machine process may have more demanding requirements.

Do not reduce RPI simply because “faster is better.”

An aggressive RPI increases network traffic and controller workload. Instead, determine the actual process requirement.

For ordinary speed control, monitoring and status exchange, a moderate RPI is often sufficient. For applications requiring tighter control loops, use the appropriate control architecture rather than trying to turn ordinary Ethernet I/O into a high-performance motion bus.

Using Explicit Messaging With a Yaskawa AFD

Cyclic I/O is ideal for normal command and monitoring data.

But what happens when the PLC needs access to a parameter that is not included in the cyclic assembly?

That is where CIP explicit messaging becomes useful.

Yaskawa’s application note demonstrates using a PLC Message instruction with:

  • CIP Generic message type

  • Get Attribute Single

  • Set Attribute Single

  • Class

  • Instance

  • Attribute

  • Destination tag

In the documented example, the PLC accesses a Yaskawa parameter using a CIP path consisting of Class 102 (66H), Instance 1 (01H) and Attribute 34 (22H).

The important point is architectural:

Cyclic I/O handles the data that needs to move continuously.

Explicit messaging handles additional parameter-level access when required.

Do not use explicit messaging for every piece of ordinary drive data. If the data belongs in the cyclic control path, configure the cyclic assembly appropriately.

Yaskawa AFD EtherNet/IP Commissioning Procedure

A disciplined commissioning process prevents hours of random troubleshooting.

Phase 1: Offline Configuration

Before energizing the motor:

  • Confirm drive model.

  • Confirm option card.

  • Confirm EDS/manual revision.

  • Create IP-address schedule.

  • Configure PLC I/O.

  • Verify assembly instances.

  • Verify data sizes.

  • Verify RPI.

  • Create PLC tags.

  • Program permissives.

  • Program fault handling.

Phase 2: Network Verification

With the drive powered:

  1. Verify Ethernet link.

  2. Verify IP address.

  3. Ping the drive where supported.

  4. Verify PLC discovery/connection.

  5. Check module status.

  6. Check for connection faults.

  7. Confirm input data changes when the drive state changes.

Phase 3: Command Verification

Do not immediately command full speed.

First verify:

  • Drive ready.

  • Network control active.

  • Network frequency reference active.

  • Zero-speed command.

  • Low-speed forward command.

  • Actual speed feedback.

  • Stop command.

  • Fault reset.

Then test reverse operation only if the mechanical application permits it.

Phase 4: Fault Testing

Test what happens when:

  • Network cable is disconnected.

  • PLC enters a fault state.

  • Drive faults.

  • Emergency stop is activated.

  • Network communication is interrupted.

  • Drive loses its command source.

Yaskawa documentation includes configurable behavior following communication errors, but the correct response is an application-level safety decision rather than a default assumption.

Yaskawa EtherNet/IP Troubleshooting Guide

When a Yaskawa AFD does not communicate with a PLC, troubleshoot from the bottom upward.

Do not start by rewriting ladder logic.

Problem 1: PLC Cannot See the Drive

Check:

  1. Drive power.

  2. Option card installation.

  3. Ethernet cable.

  4. Switch port.

  5. IP address.

  6. Subnet.

  7. Duplicate IP address.

  8. Option firmware.

  9. EDS/device configuration.

  10. PLC Ethernet interface.

If the physical and IP layers are not working, application-level troubleshooting is premature.

Problem 2: Drive Is Online but Will Not Run

This is usually a command-source or permissive issue.

Check:

  • Run command source.

  • Frequency reference source.

  • Network-control bit.

  • Network-reference bit.

  • Drive ready status.

  • External run permissive.

  • Base-block/input conditions.

  • Emergency-stop circuit.

  • Fault status.

  • Interlocks.

  • Motor permissives.

Yaskawa’s example specifically requires the drive’s run and frequency reference sources to be assigned to the option card before network control can operate as intended.

Problem 3: Speed Command Is Wrong

Check scaling first.

Confirm:

  • Reference unit.

  • Maximum frequency.

  • Frequency reference scaling.

  • RPM versus Hz interpretation.

  • PLC data type.

  • Integer versus floating-point handling.

  • Signed/unsigned interpretation.

A scaling error is often mistaken for a drive-control problem.

Problem 4: PLC Receives No Useful Feedback

Check the input assembly.

Verify:

  • Correct input instance.

  • Correct input size.

  • Correct data type.

  • Correct byte/word interpretation.

  • Controller connection status.

  • Drive network status.

Yaskawa’s example maps the status word and actual-speed data into the input assembly.

Problem 5: Communication Drops Intermittently

Do not immediately increase the RPI.

Investigate:

  • Bad Ethernet cables.

  • Poor connectors.

  • Industrial switch errors.

  • Network topology.

  • Duplicate IP addresses.

  • Excessive network traffic.

  • EMI.

  • Grounding/shielding problems.

  • Power instability.

  • Controller overload.

  • Firmware incompatibilities.

An intermittent network problem is often physical rather than logical.

Common Yaskawa EtherNet/IP Integration Mistakes

Using the Wrong EDS

An incorrect EDS can create configuration inconsistencies between the PLC project and the actual device.

Copying Assembly Numbers From Another Drive

Assembly 21 and 71 appear in Yaskawa’s documented example, but engineers should not treat those numbers as universal for every current or legacy Yaskawa configuration. Verify the exact manual.

Forgetting the Command Source

The PLC can send a perfect command word that the drive simply ignores if the drive is still configured for terminal or keypad control.

Ignoring Scaling

A numerical value has no meaning until its engineering units are established.

Using Network Communication for Safety

EtherNet/IP command control should not replace the machine’s required safety architecture. Yaskawa explicitly cautions that its products should not be incorporated as the exclusive or sole safety control. 

Treating a VFD Like a Motion Controller

A conventional AFD is primarily intended for variable-speed motor control. If the application requires tightly coordinated positioning or high-performance synchronization, use an architecture designed for that requirement.

Yaskawa AFD EtherNet/IP Integration Best Practices

A reliable installation should follow several principles.

First, standardize the PLC tag structure across every drive. If Drive 1 uses SpeedCommand, Drive 2 uses FreqRef, and Drive 3 uses CmdHz, troubleshooting becomes unnecessarily difficult.

Second, create a consistent diagnostic layer. Every drive should expose at least:

  • Communication healthy

  • Drive ready

  • Running

  • Faulted

  • Warning

  • Network control active

  • Network reference active

  • Commanded speed

  • Actual speed

  • Fault information

Third, document every drive’s IP address and configuration.

Fourth, keep a copy of the final PLC program and drive parameter backup.

Finally, document the exact Yaskawa option card and firmware revision. Yaskawa provides technical manuals, EDS files and application documentation for its EtherNet/IP products, so the commissioning package should identify which revision was used.

For engineers and maintenance teams sourcing the broader control-system hardware, Automation Pioneer maintains categories covering PLCs, VFDs, industrial communication hardware, HMIs, sensors and other automation components. Explore Automation Pioneer industrial automation categories

You can also review its broader industrial automation and process-control coverage when designing the complete control architecture rather than treating the drive as an isolated component. Explore Automation Pioneer industrial automation solutions

For applications centered on variable-speed motor control, its VFD technical content provides additional background on how PLCs, VFDs, sensors, HMI and SCADA systems work together. Read the Automation Pioneer VFD guide

For specific Yaskawa hardware, Automation Pioneer also lists products such as the A1000 and V1000 inverter families. View Yaskawa A1000 inverter information

Practical Yaskawa AFD EtherNet/IP Integration Checklist

Before handing a machine to operations, verify every item below.

Hardware

  • Correct Yaskawa drive selected

  • Correct EtherNet/IP option installed

  • Correct option firmware

  • Ethernet cabling verified

  • Industrial switch configured

  • Motor wiring verified

  • Safety circuit verified

Network

  • Unique IP address

  • Correct subnet

  • Gateway verified where required

  • PLC Ethernet interface operational

  • No duplicate IP addresses

  • Network connection stable

PLC

  • Correct controller selected

  • Drive added to I/O tree

  • Correct EDS/device definition

  • Correct input assembly

  • Correct output assembly

  • Correct data sizes

  • Correct RPI

  • Correct data type

  • PLC tags documented

Drive

  • Run command source configured

  • Frequency reference source configured

  • Motor data entered

  • Acceleration/deceleration verified

  • Frequency limits verified

  • Communication-loss behavior verified

  • Fault-reset strategy verified

Commissioning

  • Drive ready confirmed

  • Network control confirmed

  • Network reference confirmed

  • Forward operation tested

  • Reverse operation tested where applicable

  • Stop tested

  • Fault reset tested

  • Communication-loss response tested

  • Actual speed feedback verified

  • Final parameters backed up

Yaskawa AFD EtherNet/IP FAQ Questions

1. How do I connect a Yaskawa AFD to a PLC using EtherNet/IP?

Install the appropriate Yaskawa EtherNet/IP communication option, configure the drive’s Ethernet settings, assign a unique IP address, add the drive to the PLC’s EtherNet/IP I/O configuration, configure the correct assemblies and data sizes, and set the drive’s run and frequency reference sources to the network where required.

2. Which Yaskawa drives support EtherNet/IP?

Yaskawa provides EtherNet/IP options for multiple drive families, including GA500, GA800, A1000, P1000, U1000, FP605 and other compatible models. The exact communication option depends on the drive series.

3. What EtherNet/IP option card does a Yaskawa drive use?

The option depends on the drive family. Yaskawa’s current documentation lists options including SI-EN3, SI-EN3D and newer multi-protocol Ethernet options across different product families.

4. How do I configure a Yaskawa drive in Studio 5000?

Configure the drive under the PLC’s EtherNet/IP I/O tree, assign its IP address, select the appropriate module configuration, enter the correct input and output assembly instances and sizes, select the required data format, and configure the RPI. Yaskawa’s current application example demonstrates this process with ControlLogix and CompactLogix controllers.

5. What are Yaskawa EtherNet/IP assembly 21 and assembly 71?

In Yaskawa’s documented ControlLogix/CompactLogix example, assembly 21 is used for output data from the PLC to the drive, while assembly 71 is used for input data from the drive to the PLC. The example uses the output assembly for the command and speed reference and the input assembly for status and actual-speed data.

6. Why will my Yaskawa drive communicate but not start?

The most common areas to investigate are the run-command source, frequency-reference source, network-control command, drive-ready state, external permissives, faults, safety interlocks and command-word mapping. A healthy Ethernet connection alone does not authorize the motor to run.

Yaskawa’s current ControlLogix/CompactLogix application example generally recommends a 100 ms RPI for its example configuration. The correct value for a particular machine should be determined from the application’s control and monitoring requirements.

8. Can I read Yaskawa drive parameters through EtherNet/IP?

Yes. In addition to cyclic I/O, Yaskawa documents the use of CIP explicit messaging to access additional drive parameters. The PLC can use a CIP Generic Message instruction with the appropriate service, class, instance and attribute information.

9. Why is my Yaskawa AFD speed feedback incorrect in the PLC?

Check the assembly mapping, data type and scaling. The numerical value returned by the drive must be interpreted according to the applicable drive configuration; a value can represent frequency or speed depending on the selected monitor/reference settings.

10. Does EtherNet/IP replace the Yaskawa drive’s safety circuit?

No. EtherNet/IP provides communication and control functions; it should not automatically be treated as the machine’s safety system. The machine’s safety architecture must independently satisfy the applicable risk assessment, safety standards and design requirements. Yaskawa explicitly cautions against using its product as the exclusive or sole safety control.

Final Takeaway

A Yaskawa AFD EtherNet/IP integration is not difficult when the system is treated as three coordinated layers: network connectivity, cyclic I/O mapping, and drive command-source configuration. The most important commissioning mistake to avoid is assuming that because the PLC can see the drive, the drive is correctly configured to accept commands from the PLC. Verify the option card, IP configuration, EDS or device definition, assembly instances, data sizes, RPI, drive parameters, command/status bits and scaling before declaring the integration complete.

Yaskawa’s current documentation provides a useful reference architecture for ControlLogix and CompactLogix systems, including assembly-based I/O control and CIP explicit messaging for additional parameter access. The same fundamental methodology can then be applied to larger multi-drive systems, provided the exact Yaskawa drive and EtherNet/IP option manuals are used for the final parameter and assembly details.

Recommended Automation Pioneer Resources

To deepen your understanding of industrial automation, critical factory infrastructure, and digital transformation, explore these related resources on Automation Pioneer:

These articles offer additional technical insights into the automation, networking, monitoring, and control technologies that support modern industrial automation and mission-critical infrastructure.

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