Electromechanical Automation Technical Bulletin

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Electromechanical Automation Technical Bulletin Bulletin # TB438 Date: January 7, 2008 To: Distribution Product: TQ10, TQ10SD, TQ10X Subject: Upgrading TQ10 applications to Aries Parker Electromechanical Automation makes every effort to ensure our products exceed our customers expectations. We occasionally find a problem, limitation or application issue that hinders performance or otherwise needs to be addressed. When these issues arise, our engineers analyze the problem, implement improvement activity and provide information regarding the issue through these technical bulletins. This information is provided so that you may take appropriate action with users of Electromechanical Automation product. Symptom The TQ10, TQ10SD and TQ10X trapezoidal servo drive and servo drive/controller are no longer available. Problem Description This bulletin explains the upgrade path from the TQ10 series to the Aries series of servo amplifiers. Solution The TQ10 drives (including the TQ10, TQ10SD, and TQ10X) were trapezoidal servo drives, using hall-effect sensors to commutate the motor and close the torque loop. The TQ10 was an analog torque servo drive requiring a +/-10VDC torque demand signal. The TQ10SD required 5V step and direction command signals. The TQ10X was an X-language programmable drive/controller. We ll examine the upgrade path for each of these drives in order. Upgrading from a TQ10 to an AR-08AE The AR-08AE is the suggested replacement drive for the TQ10 amplifier.

The Aries can be configured in trapezoidal mode with only hall-effect feedback. The TQ10 was rated with six-state trapezoidal currents of 5A continuous and 10A peak. These values convert to 4.1A RMS continuous and 8.2A RMS peak. Therefore the AR-08AE is the recommended replacement which is rated at 4.5A RMS continuous and 13.5A RMS peak. In the Aries Support Tool, the Aries can be configured to run without an encoder in torque mode by selecting Trapezoidal commutation in step 3 of 5 of the Configuration Wizard. This is the same as typing the OHALL1 command in the terminal window. This will configure the Aries to commutate using the hall-effect feedback, giving similar trapezoidal performance as the TQ10. For Aries drives with firmware versions older than 3.11, disable feedback auto-detection by entering SFB2 in the terminal window and then issue a RESET command. In firmware 3.11 and higher, Trapezoidal mode automatically sets SFB2. Motor wiring TQ10 Pin Motor Color Aries Connection A Phase A Red/Yellow U B Phase B White/Yellow V C Phase C Black/Yellow W Motor Ground Motor Ground Green/Yellow GND Motor Ground Shield No insulation P-clip The above chart shows connection of the motor leads to the Aries drive, ABC is UVW. It is important to strip back the insulation on the motor cable to expose the cable s shield and make 360deg connection to the P-clip. Use copper tape if necessary.

Hall-Effect and Thermal Switch wiring TQ10 Pin Halls & Temp Color Aries Motor Feedback Pin 5 +5 VDC White/Blue 5 4 Hall power return White/Green 6 6 Hall 1 White/Brown 9 9 Thermal+ Yellow 10 10 Thermal Yellow 15 7 Hall 2 White/Orange 13 8 Hall 3 White/Violet 14 The above chart shows the hall wiring to the Aries, Halls 1/2/3 are in the same order as the TQ10. It is important to strip back the insulation on the motor cable to expose the cable s shield and make 360deg connection to the P-clip. Use copper tape if necessary. Control wiring TQ10 Aries Drive I/O Connector Pin Function Function Drive I/O Pin +5 or 24vdc ENABLE+ 1 1 ENABLE IN ENABLE 21 2 ENABLE GND 5 or 24vdc ref 3 FAULT OUT + FAULT OUT+ 9 4 FAULT OUT - FAULT OUT- 16 +5 or 24vdc RESET+ 18 5 RESET IN RESET 23 6 RESET GND 5 or 24vdc ref 7 COMMAND + AIN+ 14 8 COMMAND - AIN 15 9 COMMAND SHLD Shield Connector Casing 10 GND Digital Ground 17 The above chart shows the TQ10 pin crossed to the Aries pin. Note that the Enable and Reset circuits on the Aries are identical and are not pulled up internally like the TQ10. To make the Aries function similarly, connect voltage (5-30vdc) to Enable+ and Reset+. The wire that was connected to the TQ10 s Enable IN is then connected to the Aries Enable-. The wire connected for the TQ10 s Enable reference is then connected to the voltage reference. The Reset circuit is connected in the same manner. As the torque scale and encoder resolution is similar for the Aries and the TQ10, the controller s position and velocity loop gains should be similar. As with any servo system, slight adjustments of the controller s tuning may be necessary. Presuming that the controller and TQ10 were in the same control panel, it may be possible to connect the encoder feedback into the Aries. There are very good reasons to do this; the Aries replacement drive can use the encoder for commutation. The motor would run cooler and smoother as there is less current ripple. This will improve the motor s performance with approximately 18% more torque. The current loop update for the TQ10 series was 266usec; the Aries current loop update time is more than 8 times faster at 31.25usec. This will make the Aries easier to tune and tighter tuning loops will also be attainable. If this optional change to improve system performance is desired, the motor encoder inputs should be wired to the Aries drives

according to the following chart. The encoder outputs on the Aries Drive I/O connector then need to be wired into the servo controller to replace the motor feedback wires. Aries Feedback Input Pin Aries Drive I/O Encoder Output Pin Function Color ENCODER GND Black 3 n/c ENCODER +5 Red 4 n/c ENCODER A+ White 8 3 ENCODER A Yellow 7 4 ENCODER B+ Green 12 5 ENCODER B Blue 11 6 ENCODER Z+ Orange 1 7 ENCODER Z- Brown 2 8 Shield bare Connector Case Connector Case Upgrading from a TQ10SD to an AR-08SE The TQ10SD required encoder feedback and received a step and direction command signal. It used halleffect signals for commutation but encoder signals to close the velocity and position loops. The AR-08SE is the suggested replacement drive for the TQ10SD amplifier. As the encoder feedback is already wired into the amplifier, the Aries replacement drive can use this for commutation. The motor would run cooler and smoother as there is less current ripple. This will improve the motor s performance with approximately 18% more torque. The current loop update for the TQ10 series was 266usec; the Aries current loop update time is more than 8 times faster at 31.25usec. This will make the Aries easier to tune and tighter tuning loops will be attainable. In the Aries Support Tool, use the standard motor configuration which uses sinusoidal commutation as the default method. If the indexer/controller that is sending step and direction signals was also monitoring encoder position feedback, the Aries encoder outputs on the Drive I/O connector can be used. Controller and feedback wiring The TQ10SD required step and direction signals and encoder feedback in addition to the motor, hall-effect and enable/fault/reset signal wiring similar to the TQ10.

Motor wiring TQ10SD Pin Motor Color Aries SE Connection A Phase A Red/Yellow U B Phase B White/Yellow V C Phase C Black/Yellow W Motor Ground Motor Ground Green/Yellow GND Motor Ground Shield No insulation P-clip The above chart shows the hall wiring to the Aries, Halls 1/2/3 are in the same order as the TQ10. It is important to strip back the insulation on the motor cable to expose the cable s shield and make 360deg connection to the P-clip. Use copper tape if necessary. Hall-Effect and Thermal Switch wiring TQ10SD Pin Halls & Temp Color Aries SE Motor Feedback Pin 5 +5 VDC White/Blue 5 4 Hall power return White/Green 6 6 Hall 1 White/Brown 9 9 Thermal+ Yellow 10 10 Thermal Yellow 15 7 Hall 2 White/Orange 13 8 Hall 3 White/Violet 14 The above chart shows the hall wiring to the Aries, Halls 1/2/3 are in the same order as the TQ10SD. Encoder wiring Function Color Aries Feedback Input Pin Aries Drive I/O Encoder Output Pin ENCODER GND Black 3 n/c ENCODER +5 Red 4 n/c ENCODER A+ White 8 3 ENCODER A Yellow 7 4 ENCODER B+ Green 12 5 ENCODER B Blue 11 6 ENCODER Z+ Orange 1 7 ENCODER Z- Brown 2 8 Shield bare Connector Case Connector Case

Control wiring TQ10SD Aries Drive I/O Connector Pin Function Function Drive I/O Pin +5 or 24vdc ENABLE+ 1 Bottom 1 ENABLE IN ENABLE 21 Bottom 2 ENABLE GND 5 or 24vdc ref Bottom 3 FAULT OUT + FAULT OUT+ 9 Bottom 4 FAULT OUT - FAULT OUT- 16 +5 or 24vdc RESET+ 18 Bottom 5 RESET IN RESET 23 Bottom 6 RESET GND 5 or 24vdc ref Top 3 STEP+ STEP+ 10 Top 9 STEP- STEP- 11 Top 4 DIR+ DIR+ 12 Top 10 DIR- DIR- 13 Top 8 COMMAND SHLD Shield Connector Casing Top 8 GND Digital Ground 17 The Z pulse (reference mark) was not used by the TQ10 but can be used by the Aries; however, it is not necessary to connect them. Upgrading from thetq10x to an AR-08CE The TQ10X was a programmable servo drive/controller. It used hall-effect signals for commutation and encoder signals to close the velocity and position loops. It was a programmable drive using X-language and communicated via RS232. The AR-08CE is the suggested replacement drive for the TQ10X amplifier. The Aries Drive/Controller has a different programming language but is a much more powerful controller. Instead of RS-232 communication, it uses Ethernet 10/100 Base-T. The ViX500IE can also be used but has a lower bus voltage (80VDC vs 170VDC) which could limit the motor speed. The advantage of the ViX is that it offers a similar programming language to the TQ10X and communicates via RS-232. As the encoder feedback is already wired into the amplifier, the Aries replacement drive can use this for commutation. The motor would run cooler and smoother as there is less current ripple. This will improve the motor s performance with approximately 18% more torque. The current loop update for the TQ10 series was 266usec; the Aries current loop update time is more than 8 times faster at 31.25usec. This will make the Aries easier to tune and tighter tuning loops will be attainable.

In the Aries Support Tool, use the standard motor configuration which uses sinusoidal commutation as the default method. The connections for upgrading the TQ10X to the AR-08CE are the same as for the TQ10SD above. General upgrade notes: The Aries accepts either 120vac or 240vac. It is available in a full range of power-levels. If using a small motor, a smaller more cost-effective Aries amplifier could be used. See Parker System Solution Finder for matching specific motor and Aries power levels. Note that the SM16xB and SM23xB motors are not compatible with the Aries drives due to their low inductance. For these motors, we recommend using the ViX servo drive. The SM16xA and SM23xA are higher inductance and compatible with the Aries drives. The Neo/J series and BE series motors are all compatible with the Aries. See Parker System Solution Finder for further details. For any new applications where both the motor and drive are being replaced, it would be recommended to use the new standard PS connectors. With the TQ connector option, the hall-effect sensors are in with the motor phases, making them more susceptible to induced electrical noise. The PS connectors are an improved design having improved noise immunity and standard Aries braided cables as compared to the foil shielded cables originally sold with TQ10 drives. In replacing the TQ10 series drives, newer drive technologies typically have shorter current rise times even though the PWM switching frequency may be similar. With these faster rise times, newer drives can be susceptible to poor grounding. The motor shield was not exposed on the TQ motor cable. It is necessary to remove the insulation and ground at the Aries drive with the p-clip that provides a shield-to-earth RF ground. For applications where CE and UL are important for the entire system it is necessary to replace the motors with the PS connector option and matching cables. Bus sharing is not possible with the Aries but is not necessary. The AR08 at 120vac shouldn t need a regenerative resistor for the motors originally used with the TQ10. See the Aries User s Guide Appendix B for further details. If SW2-3 is ON for the TQ10, enable Current Foldback in the Aries (step 3 of 5 in configuration) or by using the DIFOLD1 command in the Aries Support Tool terminal window. The TQ10 had screw terminal access. For screw-terminal axis for the Aries drive input/output connector use the VM26-PM. For screw-terminal axis for the Aries feedback connector, use VM15- PM. Both the VM15 and VM26 can be mounted on Din rail. The Aries drives are configured using the Aries Support Tool software, which is supplied with each drive on CD-ROM or as a free download from the website, http://www.parkermotion.com. The Aries serial communication dongle (part number 71-021609-01) allows a standard null-modem (crossover) RS232 cable to connect. The Aries drives are digital. Like the TQ10 they use the thermal switch to protect the motor from overheating. Unlike the TQ10, the Aries has an additional software thermal model that monitors the thermal rise in the motor. This is a standard feature of the Aries and is setup when the motor s part

number is selected in the drive configuration. This gives faster response and better protection of the motor than solely relying on heat to build-up within the motor for the thermal switch to turn on. In torque mode, the Aries Support Tool automatically calculates current loop gains so that current loop tuning is not necessary in most applications. The TQ10, by contrast, required an external oscilloscope for tuning. If necessary, the Aries Support Tool has a software oscilloscope to tune the torque (current), velocity or position loops. This eliminates the need for an oscilloscope. Note the dimensions of the Aries are different than the TQ10. The below dimensions are not to scale.

If you have any questions, please contact: Technical Assistance, Applications Engineering Department (e-mail: emn_support@parker.com or call 800-358- 9070 North America, 707-584-7558 International)