SGDV EtherCAT

SGDV EtherCAT - YAIMOB

10W to 55kW, 1.6 kHz Bandwidth

The Sigma-5 servo amplifier delivers the highest performance in the industry due its unmatched frequency response, reduced settling times and more precise control. In addition it provides a faster set up, simpler tuning, and vibration suppression. With a wide range of models and options to it can match your individual application requirements.

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Question	Posted Date
Will non-Renishaw or non-Heidenhain encoders work with Yaskawa serial converters? Posted Date: 03/17/2016 Answer: Please see attached document for details. Attachments: 192KB Product Group/Line: SGDV Analog, Servo Products, SGDV EtherCAT, SGDV Indexer, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III, SGDV MP2600iec, SGDV SigmaLogic, SGLT Series, SGLG Series, SGLF Series Topic/Sub Topic: Wiring, Ask a Technical Question Document Number: SRV-K07R01 Published Date: 03/17/2016	03/17/2016
Why is the SGMVV motor's cooling fan stopped after only a few minutes of running? Posted Date: 08/20/2013 Answer: The 3-phase AC power to the fan is incorrectly wired. L1, L2, L3 of the 3-phase AC input to the fan must be in the correct sequence, otherwise the fan will be running backwards which causes the fan motor to overheat and trips its internal thermal protector causing the fan to shutdown. Check the L1, L2, L3 wiring, and check the airflow of the fan to ensure it is blowing in the direction of the indication arrow marked on its housing. Correct the L1, L2, L3 wiring if necessary. This also applies to SGMVH motor's cooling fan. Product Group/Line: Servo Products, SGDV Analog, SGDV EtherCAT, SGDV Indexer, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III, SGDV MP2600iec, SGDV SigmaLogic Topic/Sub Topic: Ask a Technical Question, Troubleshooting Document Number: MTN-9AQRE5 Published Date: 08/20/2013	08/20/2013
Why do the ethercat objects Homing Speeds (object 6099h) and Homing Acceleration (609Ah) affect the final position when homing is completed? Posted Date: 06/21/2016 Answer: See attached document Attachments: 86KB Product Group/Line: SGD7S EtherCAT, Servo Products, SGDV EtherCAT Topic/Sub Topic: Applications, Ask a Technical Question, Operation, Parameters, Programming Document Number: SRV-4JY8XS Published Date: 06/21/2016	06/21/2016
Why does the SGDV not recognize the functional safety module attached to the SERVOPACK? Posted Date: 03/02/2015 Answer: The CN-8 (Hardware BaseBlock) jumper must be removed from the SERVOPACK before the functional safety module is recognized. The CN-8 connector must remain unconnected for the function safety module to operate properly. Product Group/Line: Servo Products, SGDV Indexer, SGDV MECHATROLINK-II, SGDV EtherCAT, SGDV Analog, SGDV MECHATROLINK-III, SGDV SigmaLogic Topic/Sub Topic: Ask a Technical Question, Operation Document Number: SRV-4G6G9O Published Date: 03/02/2015	03/02/2015
Why Does the Servo Motor Exceed Set Safe Speed Limits? Posted Date: 02/21/2019 Answer: See attached document. Attachments: 213KB Product Group/Line: SGD7S Analog, Servo Products, SGD7S EtherCAT, SGD7S Mechatrolink-III, SGD7S MP2600iec, SGD7S Option Type, SGD7S Sigma-7Siec, SGD7W EtherCAT, SGD7W Mechatrolink-III, SGDV Analog, SGDV EtherCAT, SGDV Indexer, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III, SGDV MP2600iec, SGDV SigmaLogic, SGM7A Sigma-7, SGM7G Sigma-7, SGM7J Sigma-7, SGM7P Sigma-7, SGMGV Sigma-5, SGMJV Sigma-5, SGMSV Sigma-5, SGMAV Sigma-5 Topic/Sub Topic: Ask a Technical Question, Motors Document Number: SRV-H5ER5H Published Date: 02/21/2019	02/21/2019
Why doesn’t the EtherCAT SERVOPACK retain Pn20E and Pn210? Posted Date: 02/01/2017 Answer: The Yaskawa EtherCAT SERVOPACK controls the electronic gear parameters Pn20E and Pn210. Changes made by the user have no effect. After a power cycle they are overwritten by the SERVOPACK. For the SGDV EtherCAT SERVOPACK, Pn20E and Pn210 are always set to 1. For the SGD7S EtherCAT SERVOPACK, Pn20E and Pn210 are set so that the resolution is 1,048,576 increments per rotation. When using motors with 24-bit encoders (SGM7J, SGM7A, or SGM7G) Pn20E will be set to 16 and Pn210 will be set to 1. To adjust the reference units seen by the EtherCAT Master use objects 2701:01h and 2702:02h (PnB02 and PnB04). Product Group/Line: SGDV EtherCAT, Servo Products, SGD7S EtherCAT Topic/Sub Topic: Ask a Technical Question Document Number: SRV-2I6WB2 Published Date: 02/01/2017	02/01/2017
Why does my EtherCAT Master report incorrect feedback position from a Sigma-7 SERVOPACK / servomotor? Posted Date: 05/03/2017 Answer: 1. The feedback position is correct; however, for firmware version 8.03 and earlier, the low four bits of position data are not available. 2. Future firmware versions will not allow writing to Pn20E and Pn210, but instead will enable a full-single-turn resolution mode via a new CoE object. Product Group/Line: SGD7S EtherCAT, Servo Products, SGDV EtherCAT Topic/Sub Topic: Ask a Technical Question, Troubleshooting Document Number: SRV-MNMPR6 Published Date: 05/03/2017	05/03/2017
What voltage levels will cause an overvoltage or undervoltage alarm? Posted Date: 02/06/2009 Answer: All Yaskawa Sigma and LEGEND series amplifiers input power specifications are +10% to -15%. 10% above the highest voltage input specified will cause an overvoltage alarm, while 15% below the lowest voltage specified will cause an undervoltage alarm. For a 100-115 amplifier +10% / -15% equates to 85 VAC and 126 VAC respectively. For a 200-230 amplifier +10% / -15% equates to 170 VAC and 253 VAC respectively. For a 400-480 amplifier +10% / -15% equates to 340 VAC and 528 VAC respectively. Product Group/Line: Servo Products, SGDG LEGEND, SGDH Sigma II, SGDS, SGDV Analog, SGDV EtherCAT, SGDV Indexer, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III, SGDV MP2600iec, SGDV SigmaLogic Topic/Sub Topic: Ask a Technical Question, Document Clarification, Specifications, Troubleshooting Document Number: MTN-79NT2N Published Date: 02/06/2009	02/06/2009
What should be done with the CN8 connection when using the Safety Option Module (SGDV-OSA01A)? Posted Date: 06/09/2023 Answer: For Sigma-5 (SGDV) and Sigma-7 100/200V (SGD7S-*F, SGD7S-A): There should be nothing connected to the CN8* connection when using the Safety Option Module (SGDV-OSA01A). If the safety function jumper is plugged into the CN8, alarms (A.E74 or A.EB3) will occur. Please remove it before commissioning the SERVOPACK. For more information, please refer to the Sigma-5 & Sigma-7 Safety Module User Manual (SIEPC72082906). Note: When using the Sigma-7 400V FT900 Safety Option Module (SGDV-OSA01A000FT900) the CN8 connection is active and can be used for STO. See SRV-E7PQJT For Sigma-7 400V (SGD7-D): The safety function jumper must remain in CN8 (in the case of dual-axis, in CN8A). If the safety function jumper is removed from CN8, or if the safety jumper does not exist when the SERVOPACK is powered on, A.EB3 occurs. Please insert the safety function jumper before commissioning the SERVOPACK. For more information, please refer to the Sigma-5 & Sigma-7 Safety Module User Manual (SIEPC72082906). Note: When using the Sigma-7 400V FT900 Safety Option Module (SGDV-OSA01A000FT900) the CN8** connection is active and can be used for STO. See SRV-E7PQJT Product Group/Line: SGDV Analog, Servo Products, SGDV EtherCAT, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III, SGD7S Analog, SGD7S EtherCAT, SGD7S Mechatrolink-III Topic/Sub Topic: Alarm, Ask a Technical Question, Wiring Document Number: SRV-O82XI4 Published Date: 06/09/2023	06/09/2023
What parameter must be set when using a DC power supply for a SERVOPACK’s main circuit power supply? Posted Date: 02/26/2019 Answer: Pn001 must be set. See attached document for details. Attachments: 200KB Product Group/Line: SGD7S Analog, Servo Products, SGD7S EtherCAT, SGD7S Mechatrolink-III, SGD7S MP2600iec, SGD7S Option Type, SGD7S Sigma-7Siec, SGD7W EtherCAT, SGD7W Mechatrolink-III, SGDV Analog, SGDV EtherCAT, SGDV Indexer, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III Topic/Sub Topic: Ask a Technical Question, Parameters Document Number: SRV-96T65O Published Date: 02/26/2019	02/26/2019
What options are available to stop the motor using EtherCAT commands? Posted Date: 12/22/2015 Answer: First, decide if the drive should be in "Operation Enabled" state or "Switch On Disabled" state after the stop is commanded. If the drive should be in "Operation Enabled" (servo enabled), then use the Halt command (described below, option A). If the drive should be in "Switch On Disabled" (servo disabled), then use the Quick Stop command (option B). Option A: To use the Halt command: First, set up the halt method, in object 605Dh, as "3". Second, set the torque limit to maximum for the application. Then, issue Halt (bit 8) of the Controlword for the stop. Note: Higher values for torque limit will produce faster stopping. Option B: To use the Quick Stop Command: First, set up the stop method, in object 605Ah, as "3". Second, set the torque limit to maximum for the application. Then, issue the Quick Stop command (with the Controlword) for the stop. Note: Higher values for torque limit will produce faster stopping. Another method other than stopping, is to command motion in the opposite direction before commanding Quick Stop or Halt. Refer to Yaskawa.com FAQ# SRV-76V18C for torque limit options. Product Group/Line: Servo Products, SGD7S EtherCAT, SGDV EtherCAT, Network-Comm-EtherCAT Topic/Sub Topic: Ask a Technical Question, Options, Starting - Stopping Document Number: SRV-M541Y1 Published Date: 12/22/2015	12/22/2015
What options are available to limit torque on the SGDV CANopen over EtherCAT SERVOPACK? Posted Date: 07/15/2015 Answer: Refer to section 5.4 Limiting Torque of SIEPC72082904 Σ-V Series EtherCAT (CoE) Network Module User’s Manual. Precautions for limiting torque: 1. A torque limit setting may result in insufficient torque during acceleration and deceleration. 2. Excessive Position Error Alarm Level Pn520 may need to be increased to prevent the alarm from occurring during normal operations. The excessive position error alarm in a torque limited situation may be due to insufficient torque available to perform the move within the position error level. 3. The SERVOPACK uses the set minimum torque from all of the torque limit methods to limit the output. Regarding all torque limit methods: 1. Torque limit settings are applicable in all modes (Position, Speed, and Torque). Limiting method 1: Torque limited by parameter setting only. Applicable parameters: • Pn402 (CoE object 2402h) Forward Torque Limit • Pn403 (CoE object 2403h) Reverse Torque Limit Setting these parameters enforces torque limit under the following conditions: • The applied torque limit is directional. For example: If only one of the two parameters is set, torque is only limited in one of the two directions (forward or reverse). The changes are effective immediately. The parameters may be set through SigmaWin, Digital Operator, or EtherCAT. The units are in % rated torque. The default values are 800 (800% rated torque). However, the maximum torque of the servomotor (depends on the model) is applied whenever the value exceeds the maximum torque. For example: For a motor capable of 350% rated torque, the default setting of 800 does not mean the motor is torque limited to 800% rated torque. The default setting of 800 means the maximum torque of the servomotor (350% in this example) is applied. Limiting method 2: Torque limit set by parameter enabled by I/O input signal. Applicable parameters: • Pn404 (CoE object 2404h) Forward External Torque Limit • Pn405 (CoE object 2405h) Reverse External Torque Limit • Pn50B.2 (CoE object 250Bh, 3rd rightmost Hexadecimal character) /P-CL Signal Mapping • Pn50B.3 (CoE object 250Bh, 4th rightmost Hexadecimal character) /N-CL Signal Mapping Setting these parameters enforces torque limit under the following conditions: • A physical signal (/P-CL or /N-CL) must be triggered for the torque to be limited. • The signal (/P-CL or /N-CL) must be assigned to a SERVOPACK input for the torque to be limited by the triggering of the signal. • The applied torque limit is directional. For example: If only one of the two signals is triggered, torque is only limited in one of the two directions (forward or reverse), assuming the torque limit parameters (Pn404 [2404h], Pn405 [2404h]) have been set. The changes to the torque limit parameters (Pn404 [2404h], Pn405 [2405h]) are effective immediately. However, the change to signal input assignment (Pn50B.2 [250Bh], Pn50B.3 [250Bh]) requires either (A) The use of User Parameter Configuration (CoE object 2700h) or (B) Storage to EEPROM then drive reset. The parameters may be set through SigmaWin, Digital Operator, or EtherCAT. The units of the torque limit parameters (Pn404 [2404h], Pn405 [2404h]) are in % rated torque. The default values of the torque limit parameters (Pn404 [2404h], Pn405 [2404h]) are 800 (800% rated torque). However, the maximum torque of the servomotor (depends on the model) is applied whenever the value exceeds the maximum torque. For example: For a motor capable of 350% rated torque, the default setting of 800 does not mean the motor is torque limited to 800% rated torque. The default setting of 800 means the maximum torque of the servomotor (350% in this example) is applied. Limiting method 3: Torque limit set by parameter enabled by command from controller. Applicable parameters & objects: • Pn404 (CoE object 2404h) Forward External Torque Limit • Pn405 (CoE object 2405h) Reverse External Torque Limit • CoE object 6040h, Controlword (PnB11) Setting these parameters & objects enforces torque limit under the following conditions: • Controlword (CoE object 6040h) bits 11 (Positive Torque Limit) and/or 12 (Negative Torque Limit) must be set to 1 for the torque to be limited. • The applied torque limit is directional. For example: If only one of the two Controlword bits is set to 1, torque is only limited in one of the two directions (forward or reverse), assuming the torque limit parameters (Pn404 [2404h], Pn405 [2404h]) have been set. The changes to the torque limit parameters (Pn404 [2404h], Pn405 [2404h]) and the Controlword (CoE object 6040h) are effective immediately. The torque limit parameters (Pn404 [2404h], Pn405 [2404h]) may be set through SigmaWin, Digital Operator, or EtherCAT. However, the Controlword (CoE object 6040h) must be set through EtherCAT. The units of the torque limit parameters (Pn404 [2404h], Pn405 [2404h]) are in % rated torque. The default values of the torque limit parameters (Pn404 [2404h], Pn405 [2404h]) are 800 (800% rated torque). However, the maximum torque of the servomotor (depends on the model) is applied whenever the value exceeds the maximum torque. For example: For a motor capable of 350% rated torque, the default setting of 800 does not mean the motor is torque limited to 800% rated torque. The default setting of 800 means the maximum torque of the servomotor (350% in this example) is applied. Limiting method 4a: Torque limit controlled from controller. Applicable parameters & objects: • PnB80 (CoE object 60E0h) Forward Torque Limit • PnB82 (CoE object 60E1h) Reverse Torque Limit • PnB94 (CoE object 2704:01h) Torque User Unit Numerator [Revision Number 6.00 and higher] • PnB96 (CoE object 2704:02h) Torque User Unit Denominator [Revision Number 6.00 and higher] * Refer to AN.MTN.06.ETHERCAT to determine how to read Revision Number. Setting these parameters & objects enforces torque limit under the following conditions: • The torque is limited according to the applied Torque User Units. For Revision Number 5.04 and below, Torque User Units is fixed at 0.1% rated torque. For all Revision Numbers, Torque User Units default is 0.1% rated torque. • The applied torque limit is directional. For example: If only one of the two torque limit parameters is set, torque is only limited in one of the two directions (forward or reverse). The changes to the torque limit parameters (PnB80 [60E0h], PnB82 [60E1h]) are effective immediately. However, a change to the Torque User Units (PnB94 [2704:01h], PnB96 [2704:02h]) requires either (A) The use of User Parameter Configuration (CoE object 2700h) or (B) Storage to EEPROM then drive reset. The torque limit parameters (PnB80 [60E0h], PnB82 [60E1h]) may be set through SigmaWin, Digital Operator, or EtherCAT. However, the Torque User Units (PnB94 [2704:01h], PnB96 [2704:02h]) must be set through EtherCAT or Digital Operator until a version of SigmaWin can display those parameters (as of SigmaWin version 5.72, the parameters are not displayed). The units of the torque limit parameters (PnB80 [60E0h], PnB82 [60E1h]) are in Torque User Units (PnB94 [2704:01h], PnB96 [2704:02h]). The default Torque User Units (PnB94 [2704:01h], PnB96 [2704:02h]) is 0.1% rated torque. The default values of the torque limit parameters (PnB80 [60E0h], PnB82 [60E1h]) are 8000 (800% rated torque if default Torque User Units are applied). The default torque limit parameter (PnB80 [60E0h], PnB82 [60E1h]) values are not automatically changed if Torque User Units are changed. Also, the maximum torque of the servomotor (depends on the model) is applied whenever the value exceeds the maximum torque. For example: For a motor capable of 350% rated torque, the default setting of 800 does not mean the motor is torque limited to 800% rated torque. The default setting of 800 means the maximum torque of the servomotor (350% in this example) is applied. Limiting method 4b: Torque limit controlled from controller. Applicable parameters & objects: • PnB38 (CoE object 6072h) Max Torque • PnB94 (CoE object 2704:01h) Torque User Unit Numerator [Revision Number 6.00 and higher] • PnB96 (CoE object 2704:02h) Torque User Unit Denominator [Revision Number 6.00 and higher] * Refer to AN.MTN.06.ETHERCAT to determine how to read Revision Number. Setting these parameters & objects enforces torque limit under the following conditions: • The torque is limited according to the applied Torque User Units. For Revision Number 5.04 and below, Torque User Units is fixed at 0.1% rated torque. For all Revision Numbers, Torque User Units default is 0.1% rated torque. • The torque limit is unidirectional. The changes to the max torque parameter (PnB38 [6072h]) is effective immediately. However, a change to the Torque User Units (PnB94 [2704:01h], PnB96 [2704:02h]) requires either (A) The use of User Parameter Configuration (CoE object 2700h) or (B) Storage to EEPROM then drive reset. The max torque parameter (PnB38 [6072h]) may be set through SigmaWin, Digital Operator, or EtherCAT. However, the Torque User Units (PnB94 [2704:01h], PnB96 [2704:02h]) must be set through EtherCAT or Digital Operator until a version of SigmaWin can display those parameters (as of SigmaWin version 5.72, the parameters are not displayed). The units of the max torque parameter (PnB38 [6072h]) is in Torque User Units (PnB94 [2704:01h], PnB96 [2704:02h]). The default Torque User Units (PnB94 [2704:01h], PnB96 [2704:02h]) is 0.1% rated torque. The default value of the max torque parameter (PnB38 [6072h]) is the connected motor’s maximum torque (dependent on the motor model) in units of 0.1% rated torque. For example: The value of 3330 means the motor’s maximum torque is 333.0% rated torque. The default max torque parameter (PnB38 [6072h]) value is not automatically changed if Torque User Units are changed. For example: If PnB96 [2704:02h] = 10, PnB94 [2704:01h] = 1, and PnB38 [6072h] has a default value of 3240, then the max torque applied is 324% rated torque. However, if PnB96 [2704:02h] = 100, PnB94 [2704:01h] = 1, and PnB38 [6072h] has a default value of 3240, then max torque applied is 32.40%. Also, the maximum torque of the servomotor (depends on the model) is applied whenever the value exceeds the maximum torque. For example: For a motor capable of 350% rated torque, the setting for Max Torque (PnB38 [6072h]) of 6553.5% rated torque does not mean the motor is torque limited to 6553.5% rated torque. The setting of 6553.5% rated torque means the maximum torque of the servomotor (350% in this example) is applied. Product Group/Line: Servo Products, SGDV EtherCAT, Network-Comm-EtherCAT Topic/Sub Topic: Operation, Ask a Technical Question, Adjustments, Inputs - Outputs, Network Communications, Parameters, Programming, Sizing, Speed Control, Starting - Stopping, Troubleshooting, Tuning Document Number: SRV-76V18C Published Date: 07/15/2015	07/15/2015
What is the warranty determination for new product? Posted Date: 05/22/2014 Answer: 1. Yaskawa America, Inc (YAI, Drives & Motion Division (hereinafter D&M), warrants at the time of shipment, new and unused product sold by D&M shall be free from defects in materials and workmanship. D&M warrants that for a period of one (1) year from the date the product is first used by Buyer, or 18 months from the date of shipment, whichever occurs first, if any product or part is found by D&M to be defective, D&M will, at its sole discretion and as Buyer's exclusive remedy, either repair, replace or return the purchase price paid to D&M; provided that the subject product is used under normal conditions for which it was designed and installed, operated and maintained in accordance with D&M's instructions and in accordance with generally accepted industrial practices. Products repaired or replaced during the warranty period shall be covered by the foregoing warranty for the remainder of the original warranty period or ninety (90) days from date of the repair or shipment of the replacement, whichever is longer. D&M warrants, for a period of ninety (90) days, that services shall be performed in a workmanlike manner. Buyer's sole remedy for a breach of this service warranty is limited to further service or a refund or credit of amounts paid by Buyer, at Seller's option. 2. D&M's warranty obligation shall be conditioned upon receipt by D&M of written notice of any alleged defects within sixty (60) days after discovery. D&M will not be responsible for unauthorized repairs to any products, even if defective. D&M shall not be responsible for any products which have been altered, abused, misused, or improperly installed or repaired, or for any loss, damage, defect, claim or non-performance resulting from or attributable to Buyer's specifications. D&M does not guarantee production rates or the quality of goods made using D&M's products or services, nor shall any longer warranty periods apply, except as agreed in writing signed by an authorized D&M representative. 3. Where Buyer orders non-stock products or parts manufactured by a third-party, D&M will, to the extent permitted, pass through to Buyer any warranty of the manufacturer. As to such items, Buyer's sole remedy for breach of warranty shall be the remedy offered by and available from the manufacturer, if any. 4. D&M's warranty herein is in lieu of and excludes all other warranties of D&M and any parent or affiliated companies of D&M. D&M disclaims all other warranties, whether express, implied or statutory, including, but not limited to, any implied warranties of merchantability and/or fitness for a particular purpose or use. 5. Under no circumstances shall D&M, or any parent or affiliated company of D&M, be liable to buyer or any entity for any special, indirect or consequential damages, whether arising from breach of contract, tort, negligence, misrepresentation, strict liability or otherwise, including for lost profits, impairment of goods, work stoppage or otherwise, in any way arising out of or related to products or services supplied by D&M or any transaction to which these standard terms apply. The maximum liability of D&M, including, but not limited to, with respect to the design, manufacture, sale, delivery, resale, inspection, assembly, installation, testing, repair, replacement, maintenance or use of any product or the performance of any service, shall not exceed the purchase price paid to D&M. Product Group/Line: Inverter Drives, Controllers, Servo Products, General Controllers, General Inverter Drives, General Servo, MP2300Siec, MP2310iec, MP2600iec, MP2200, MP2300, MP3200iec, MP3300iec, Yaskawa Remote IO Modules, A1000 Configured, A1000 Drive, D1000 Regenerative Converter, G7 Drive, iQpump Micro, iQpump Micro Configured, iQpump1000, iQpump1000 Bypass, iQpump1000 Configured, J1000 Drive, L1000A Drive, L1000E Drive, MV1000 Drive, P1000 Drive, R1000 Regenerative Unit, U1000 Industrial Matrix Drive, U1000 Oil and Gas MATRIX Drive, V1000 Drive, V1000-4X Drive, Z1000 Bypass, Z1000 Configured, Z1000 Drive, Z1000 Redundant, Z1000U Matrix Bypass, Z1000U Matrix Configured, Z1000U Matrix Drive, SGDV Analog, SGDV EtherCAT, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III, SGDV MP2600iec, SGDV SigmaLogic, SGLF Series, SGLG Series, SGLT Series, SGMAV Sigma-5, SGMCS Direct Drive, SGMGV Sigma-5, SGMJV Sigma-5, SGMMV Sigma-5 Mini, SGMPH Sigma II, SGMSV Sigma-5, SGMVV Sigma-5, SGT Sigma Trac, SJDE Junma, SJME Junma, SLIO Modules, SGM7E Direct Drive, SGM7D Direct Drive, SGM7F Direct Drive Topic/Sub Topic: Ask a Technical Question, Warranty Document Number: DRV-9BJPJ9 Published Date: 05/22/2014	05/22/2014
What is the life expectancy of a Sigma-5 motor when operating above 40 degrees Celsius (104 F)? Posted Date: 10/18/2010 Answer: The Sigma-5 motor's class F insulation system is rated at 155 degrees Celsius (311 F) maximum internal operating temperature. Every 10 degree C increase of actual temperature above this maximum specification will decrease the life of the insulation system by 50%. The internal temperature of a motor producing rated torque, operating at or below an ambient temperature of 40 degrees Celsius, and mounted to the recommended heat sink should not normally exceed this 155 degrees Celsius limit. Within the rated operating conditions, Yaskawa America Inc. recommends that the bearings be serviced every 20,000 hours. If the ambient temperature exceeds 40 degrees Celsius, the usable life of the bearings and the motor can be decreased but there is no other information available on the bearing life degradation in elevated temperature conditions. The recommended service schedule can be found in the Safety Precaution pamphlet manual that is shipped with every motor ( Manual No. C230200 00B). Please see the attached document for other safety precautions and service schedules. Attachments: 253KB Product Group/Line: Servo Products, SGMAV Sigma-5, SGMGV Sigma-5, SGMJV Sigma-5, SGMSV Sigma-5, SGDV Analog, SGDV EtherCAT, SGDV Indexer, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III, SGDV MP2600iec, SGDV SigmaLogic Topic/Sub Topic: Ask a Technical Question, Environment, Hardware, Operation, Quality, Repair, Specifications, Start Up - Installation, Troubleshooting, Warranty Document Number: MTN-888Q64 Published Date: 10/18/2010	10/18/2010
What is the correct procedure to write parameters PnCA0 to PnCA7 with SigmaWin's Write Parameters function? Posted Date: 07/07/2017 Answer: As described in the user's manual (Doc# SIEPS80000155), The PDO mapping objects (indexes 1600h to 1603h and 1A00h to 1A03h) and the Sync Manager PDO assignment objects (index 1C12h and 1C13h) can be written only in Pre-Operational state. To set the SERVOPACK in Pre-Operational state, refer to the documentation of the EtherCAT master that is communicating to the EtherCAT SERVOPACK. Attachments: 44KB Product Group/Line: Servo Products, SGD7S EtherCAT, SGDV EtherCAT, Network-Comm-EtherCAT Topic/Sub Topic: Ask a Technical Question Document Number: SRV-O8Y12Y Published Date: 07/07/2017	07/07/2017
What is the color code for the JZSP-CVH03 CN8 Safety Cable? Posted Date: 01/09/2018 Answer: The color code documentation can be found in the Sigma-5 Series Product Catalog (YEA-KAEPS80000042) or the Sigma-7 Peripheral Device Selection Manual (SIEPS80000132). The attached PDF has an image of the color code for the cable as shown in the Sigma-5 Series Product Catalog. Attachments: 98KB Product Group/Line: SGDV SigmaLogic, Servo Products, SGDV MP2600iec, SGDV MECHATROLINK-III, SGDV MECHATROLINK-II, SGDV Indexer, SGDV EtherCAT, SGDV Analog, SGD7S Analog, SGD7S EtherCAT, SGD7S Mechatrolink-III, SGD7S MP2600iec, SGD7S Option Type, SGD7S Sigma-7Siec, SGD7W EtherCAT, SGD7W Mechatrolink-III, SigmaLogic7 Compact, SigmaLogic7 Modbus Topic/Sub Topic: Ask a Technical Question Document Number: SRV-84MTJM Published Date: 01/09/2018 Related Files: Sigma-5 Series Product Catalog Sigma-7 with 200V Input Peripheral Device Selection Manual	01/09/2018
What is the battery current draw of the absolute encoder of the Sigma-5 motors with and without control power? Posted Date: 06/18/2013 Answer: The Sigma-5 absolute encoder's current draw when control power OFF is 20uA approximately and 30uA maximum with surrounding temperature at 25°C. Conversely, the Sigma-5 absolute encoder's current draw reduces to 3uA when control power is ON with surrounding temperature at 25°C . It is recommended to use lithium battery where its capacity depends on the number of axes used. Product Group/Line: Servo Products, SGDV EtherCAT, SGDV Indexer, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III, SGDV MP2600iec, SGDV SigmaLogic Topic/Sub Topic: Ask a Technical Question, Specifications Document Number: MTN-97WJQX Published Date: 06/18/2013	06/18/2013
What is California's Proposition 65? Posted Date: 06/01/2020 Answer: California Proposition 65 is a standalone program that affects commercial goods sold in the state of CA. This was enacted in 1986 as "The safe Drinking Water and Toxic Enforcement Act of 1986". Businesses, including manufacturers, producers, packagers, importers, suppliers and distributors, are required to provide warnings required under the California Code of Regulations (the “Code”) if their products or facilities can expose consumers or workers to a listed chemical above identified threshold levels, known to the state of California to cause cancer or reproductive harm. The chemical list contains more than 900 substances, and this list is updated every year. Read Full Policy Product Group/Line: Controllers, Inverter Drives, Servo Products, Spindle Products, General Servo, General Spindle, General Controllers, MP3300iec, Sigma-7Siec, MP3300iec-RBT, Panel PC, smartPanel, SLIO Modules, Yaskawa Remote IO Modules, MP3200, General Inverter Drives, GA800 Drive, GA800 Configured, A1000 Drive, A1000 Configured, U1000 Industrial Matrix Drive, G7 Drive, GA500 Drive, V1000 Drive, V1000-4X Drive, J1000 Drive, P1000 Drive, P1000 Bypass, P1000 Configured, Z1000 Drive, Z1000 Bypass, Z1000 Configured, Z1000 Redundant, Z1000U Matrix Drive, Z1000U Matrix Bypass, Z1000U Matrix Configured, iQpump1000, iQpump1000 Bypass, iQpump1000 Configured, iQpump Micro, iQpump Micro Configured, U1000 iQpump, U1000 iQpump Configured, L1000A Drive, L1000E Drive, D1000 Regenerative Converter, R1000 Regenerative Unit, MV1000 Drive, MV1000 NEMA 3R, SGD7W Mechatrolink-III, SGD7S Mechatrolink-III, SGD7W EtherCAT, SGD7S EtherCAT, SGD7S Analog, SGD7S Sigma-7Siec, SGD7S MP2600iec, SigmaLogic7 Compact, SigmaLogic7 Modbus, SGM7J Sigma-7, SGM7A Sigma-7, SGM7P Sigma-7, SGM7G Sigma-7, S7J Gear Motors, S7A Gear Motors, S7P Gear Motors, S7G Gear Motors, SGM7F Direct Drive, SGM7D Direct Drive, SGMCS Direct Drive, SGLF2 Series, SGLG Series, SGLT Series, Sigma Trac II, SGDV MECHATROLINK-III, SGDV MECHATROLINK-II, SGDV EtherCAT, SGDV Analog, SGDV SigmaLogic, SGDV MP2600iec, SGMMV Sigma-5 Mini, SGMJV Sigma-5, SGMAV Sigma-5, SGMGV Sigma-5, SGMSV Sigma-5, SGMVV Sigma-5, SGLF Series, Sigma SD Spindle Drive, Sigma SD Spindle Motor, HV600 Drive, HV600 Enclosed Bypass, HV600 Enclosed Configured, HV600 Narrow Bypass, HV600 Narrow Configured, FP605, SGM7E Direct Drive Topic/Sub Topic: Ask a Technical Question, Environment Document Number: CNT-INV-SRV-SPN-322SVA Published Date: 06/01/2020	06/01/2020
What is an A.F50 Alarm? Posted Date: 03/03/2015 Answer: A.F50 is a Servomotor disconnection alarm. Cause: The detected torque is 10% or less, but the commanded torque reference is 90% or more for 10ms. This alarm is not activated in cases of BB due to hardware issues. In those cases, an A.F6 or A.b3 is generated instead. Alarm Reset is available Corrective Actions: Check the servomotor power line wiring. Tighten the motor power connection. Replace the servo amplifier. Product Group/Line: Servo Products, SGDV EtherCAT, SGDV Indexer, SGDV MECHATROLINK-II, SGDV MECHATROLINK-III, SGDV Analog, SGDV MP2600iec, SGDV SigmaLogic Topic/Sub Topic: Ask a Technical Question, Alarm Document Number: SRV-C12WSD Published Date: 03/03/2015	03/03/2015
What could cause motion commands sent to an EtherCAT axis to be executed by a different axis than intended? Posted Date: 03/07/2014 Answer: With an EtherCAT configuration, the connection order of the servopacks is important. EtherCAT Input should be connected to CN11A and EtherCAT Output to the next servopack in the network should be connected at CN11B. If connections are interchanged after initial commissioning, like in the case of a servopack replacement, the master may reassign addresses in a different physical order at the next power-up. To assist this situation, the servopack provides a means to set EtherCAT secondary addresses (aliases) via rotary dip switches S11 and S12. See Section 4.4.4 of the user manual for more information on these settings. For more information refer to SIEPC72082904 the Sigma-5 User Manual: EtherCAT (CoE) Network Module. Attachments: 8KB Product Group/Line: Servo Products, SGDV EtherCAT, Network-Comm-EtherCAT Topic/Sub Topic: Ask a Technical Question, Applications, Hardware, Procedure - Policy, Start Up - Installation Document Number: MTN-9BGTDG Published Date: 03/07/2014	03/07/2014

Showing 1 to 20 of 48 entries.

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Please read and understand the product instruction manual before installing, servicing or operating Yaskawa products. FAQ content and illustrations are provided as technical advice to augment the information in manual, not supersede it. It is not possible to give detailed instructions for all types of installation or support activities. The information described in the FAQs are subject to change without notice to improve the product or FAQ. Yaskawa assumes no responsibility for errors or omissions or damages resulting from the use of the information contained in any FAQ. All warnings, cautions and product instruction for product use must be followed. Installation, operation and maintenance should be carried out by qualified personnel. Failure to observe these and other precautions highlighted in the product manuals will expose the user to high voltages resulting in, serious injury or death. Qualified personnel are defined as individuals who are familiar with the installation, starting, operation and maintenance of Yaskawa products of the type described and have proper qualifications to perform the work.

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