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Switches Service Information Type SyncCap Power Quality Switch Installation and Operation Instructions Figure 1. Kyle® Type SyncCap Power Quality Switch. S260-16-1 020097KM Contents Safety Information ..................................................... 2 Grounded-Wye Capacitor Rack Application ........... 8 Hazard Statement Definitions ................................ 2 Ungrounded-Wye Capacitor Rack Application .......10 Safety Instructions .................................................. 2 Installation Procedure ..............................................14 Product Information .................................................. 3 Check Nameplate....................................................14 Introduction ............................................................ 3 Cycle the Switch ....................................................14 Acceptance and Initial Inspection .......................... 3 Install the Switch ....................................................14 Handling and Storage ............................................. 3 High-Voltage Connections ......................................14 Description of Operation ........................................ 3 Control Wiring ........................................................15 Dimensions ................................................................. 4 Service Information ...................................................17 Ratings and Specifications ...................................... 5 Service Requirements ............................................17 Check Switch Ratings Prior to Installation ............. 5 Frequency of Inspection .........................................17 Application Configuration ......................................... 6 High-Potential Withstand Testing ...........................17 Set SyncCap for The Appropriate Application......... 6 Inspection of SyncCap Module ..............................17 Synchronizing Voltage ............................................ 7 Testing and Troubleshooting ....................................18 Sample Field Worksheets .........................................19 December 2002 • Supersedes 3/01 Printed in USA 1 Type SyncCap Power Quality Switch Installation and Operation Instructions ! SAFETY FOR LIFE ! SAFETY FOR LIFE SAFETY FOR LIFE Cooper Power Systems products meet or exceed all applicable industry standards relating to product safety. We actively promote safe practices in the use and maintenance of our products through our service literature, instructional training programs, and the continuous efforts of all Cooper Power Systems employees involved in product design, manufacture, marketing, and service. We strongly urge that you always follow all locally approved safety procedures and safety instructions when working around high voltage lines and equipment and support our “Safety For Life” mission. SAFETY INFORMATION The instructions in this manual are not intended as a substitute for proper training or adequate experience in the safe operation of the equipment described. Only competent technicians who are familiar with this equipment should install, operate, and service it. A competent technician has these qualifications: • Is thoroughly familiar with these instructions. • Is trained in industry-accepted high- and low-voltage safe operating practices and procedures. • Is trained and authorized to energize, de-energize, clear, and ground power distribution equipment. • Is trained in the care and use of protective equipment such as flash clothing, safety glasses, face shield, hard hat, rubber gloves, hotstick, etc. Following is important safety information. For safe installation and operation of this equipment, be sure to read and understand all cautions and warnings. Safety Instructions Following are general caution and warning statements that apply to this equipment. Additional statements, related to specific tasks and procedures, are located throughout the manual. DANGER: Hazardous voltage. Contact with hazardous voltage will cause death or severe personal injury. Follow all locally approved safety procedures when working around high and low voltage lines and equipment. G103.3 ! WARNING: Before installing, operating, maintaining, or testing this equipment, carefully read and understand the contents of this manual. Improper operation, handling or maintenance can result in death, severe personal injury, and equipment damage. G101.0 ! Hazard Statement Definitions This manual may contain four types of hazard statements: DANGER: Indicates an imminently hazardous situation which, if not avoided, will result in death or serious injury. ! WARNING: Indicates a potentially hazardous situation which, if not avoided, could result in death or serious injury. ! CAUTION: Indicates a potentially hazardous situation which, if not avoided, may result in minor or moderate injury. ! CAUTION: Indicates a potentially hazardous situation which, if not avoided, may result in equipment damage only. 2 WARNING: This equipment is not intended to protect human life. Follow all locally approved procedures and safety practices when installing or operating this equipment. Failure to comply can result in death, severe personal injury and equipment damage. ! G102.1 WARNING: Power distribution equipment must be properly selected for the intended application. It must be installed and serviced by competent personnel who have been trained and understand proper safety procedures. These instructions are written for such personnel and are not a substitute for adequate training and experience in safety procedures. Failure to properly select, install, or maintain power distribution equipment can result in death, severe personal injury, and equipment damage. G122.2 ! ! S260-16-1 SAFETY FOR LIFE PRODUCT INFORMATION Introduction Electrical Operation Service Information S260-16-1 provides installation and operation instructions for the Kyle Type SyncCap Power Quality Switch. The SyncCap Power Quality Switch is opened and closed through electrical operation only. Electrical operation is achieved by applying rated control voltage to the proper terminals of the receptacle for a minimum of 300 ms. Read This Manual First Read and understand the contents of this manual and follow all locally approved procedures and safety practices before installing or operating this equipment. The SyncCap switch has a yellow contact position indicator under the sleet hood as shown in Figure 4. Note: The position indicator cannot be used as a manual operating handle. Additional Information These instructions cannot cover all details or variations in the equipment, procedures, or process described nor provide directions for meeting every possible contingency during installation or operation. When additional information is desired to satisfy a problem not covered sufficiently for the user's purpose, please contact your Cooper Power Systems representative. Acceptance and Initial Inspection Each switch is completely assembled, tested, and inspected at the factory. It is in good condition when accepted by the carrier for shipment. Upon receipt, inspect the shipping container for signs of damage. Unpack the switch and inspect it thoroughly for damage incurred during shipment. If damage is discovered, file a claim with the carrier immediately. Handling and Storage Be careful during handling and storage of the switch to minimize the possibility of damage. If the switch is to be stored for any length of time prior to installation, provide a clean, dry storage area. WARNING: Hazardous Voltage. Do not rely on the open position of the contact position indicator; it does not ensure that the line has been de-energized. Always establish a visible disconnect. Failure to follow proper safety practices can result in contact with high voltage, which will cause death or severe personal injury. G123.0 ! Synchronous Operation SyncCap utilizes a microprocessor-based control and exclusive closed-loop position feedback system to precisely control vacuum contacts with a voice coil operating mechanism. The microprocessor-based control continually monitors system voltage to detect voltage zero crosses. The closed-loop position feedback system constantly measures contact position during the close operation. With input from the feedback system, the SyncCap control can adjust the velocity of the switch’s operation by regulating current flow through the voice coil operating mechanism. The voice coil instantly responds to adjustments from the control for dynamic motion control resulting in repeatable synchronous operation. Standards ap Control energ iz ncC Sy voice coil to begin es e p o r a e t s i o o n cl The Quality System at the Cooper Power Systems, Kyle Distribution Switchgear plant is certified to the following standards: ISO 9001 CAN/CSA ISO 9001 BS EN ISO 9001 ANSI/ASQC Q9001 Description of Operation The Kyle Type SyncCap Power Quality Switch is a singlephase, electrically operated vacuum switch with synchronous closing intelligence and mechanism that permits closing of the switch at voltage zero (synchronous closing). See Figure 2. Polemounted capacitor control issues close signal SyncCap control utilizes closed-loop position feedback monitoring, continually surveying system voltage and contact position SY NCH ontrol adjusts current flow ap C ncC l as necessary to en Sy gh coi su u p r t r e r e c ou ontac re m int ts thr cuu va esired voltage ze at d ro ite un Quality Standards ontrol process ap C e ncC system volt s Sy signal, age e t p c o , a s s t i n tion clo nd co a Kyle switches are designed and tested in accordance with IEC 60265-1 and ANSI C37.66, where applicable. R e s u lt: SE R ONOUS CLO Figure 2. Synchronous operation of the SyncCap Power Quality Switch. 3 Type SyncCap Power Quality Switch Installation and Operation Instructions DIMENSIONS Lifting Provision (2) 395 (15.55) Bushing Terminal Connector #10 to 350 MCM Cable Range 284 (11.18) 76 (2.99) 27 (1.06) Ground Terminal Connector #8 Solid to 2/0 Stranded Cable Range 76 (2.99) 27 (1.06) 208 (8.19) 217 (8.54) A Bushing Terminal Connector 1/0 to 500 MCM Cable Range Sleet Hood Receptacle 11,1 (0.44) 4-HOLES 32 (1.26) Mounting Hole for 16 (0.625) Bolt 35 (1.38) 70 (2.76) 362 (14.25) 32 (1.26) 153 (6.02 ) 174 (6.85) 232 (9.13) 181 (7.13) 244 9.61) Dim A SyncCap 15.5 kV, 110 kV BIL 910 (35.83) SyncCap 15.5 kV, 125 kV BIL 971 (38.23) Figure 3. Type SyncCap dimensions. 4 Note: 52 (2.05) All dimensions are approximate. Dimensions shown are mm (in). ! S260-16-1 SAFETY FOR LIFE RATINGS AND SPECIFICATIONS Check Switch Ratings Prior to Installation The SyncCap switch must be applied within its specified ratings. Check nameplate ratings and compare with the system characteristics at the point of application, prior to installation. Tables 1 through 6 list the specifications and ratings of the SyncCap Power Quality Switch. TABLE 1 General Specifications 15.5 kV, 110 kV BIL 15.5 kV, 125 kV BIL Creepage Distance, minimum mm (in) . . . . . . . . . . . . . . . . . 610 (24) 790 (31) Mass kg (Weight lb) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 37 (82) 38 (84) Mechanical Operations without Maintenance (C-O) . . . . . . . 25,000 25,000 Operating Temperature Range, °C . . . . . . . . . . . . . . . . . . . . -40° to +65° -40° to +65° Zero-Volt Closing Tolerance, milliseconds . . . . . . . . . . . . . . . ±0.5 ±0.5 TABLE 3 Power Requirement TABLE 2 Duty Cycle (per ANSI C37.66) Standard 120 Vac Operation 200 A . . . . . . . . . . . . . . . . . . . . . . . . . . . 400 Operations 100 A . . . . . . . . . . . . . . . . . . . . . . . . . . . 400 Operations 40 A . . . . . . . . . . . . . . . . . . . . . . . . . . . 400 Operations Operating Voltage Rating Accessory 240 Vac Operation 107 to 127 Vac 214 to 254 Vac Current (peak, ac) . . . . . . 3A 1.5 A Current (continuous, nominal, ac) 20 mA 10 mA TABLE 4 Voltage Ratings 15.5 kV, 110 kV BIL 15.5 kV, 125 kV BIL Maximum Voltage . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 15.5 kV 15.5 kV Rated Basic Impulse Voltage . . . . . . . . . . . . . . . . . . . . . . . . 110 kV 125 kV Radio Noise Test Voltage (100 µV max noise) . . . . . . . . . . . 9.41 kV 16.4 kV Dry, 1-minute . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 50 kV 60 kV Wet, 10 seconds . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 45 kV 50 kV 60 Hz Withstand TABLE 6 Control Wiring Specification TABLE 5 Current Ratings Rated Asymmetrical Making Current . . . . . . . . . 9000 A Rated Continuous Current . . . . . . . . . . . . . . . . . 200 A Load Interrupting Ability (Inductive) 10% to 100% Power Factor . . . . . . . . . . . . . . 200 A Capacitive Current (max) . . . . . . . . . . . . . . . . . 200 A Short-Time Currents Asymmetrical (10 cycles) . . . . . . . . . . . . . . . . 9000 A Symmetrical (0.5 second) . . . . . . . . . . . . . . . . 6000 A Symmetrical (1 second) . . . . . . . . . . . . . . . . . 4500 A Accessory Plug Catalog Number Number of Pins Cable Range O.D. Maximum Wire Size AWG KA48NR 5 11–14 mm (0.437–0.562 in) 12 KA98NR 6 13–16 mm (0.500–0.625 in) 16 5 Type SyncCap Power Quality Switch Installation and Operation Instructions APPLICATION CONFIGURATION Set SyncCap for the Appropriate Application IMPORTANT: The Kyle Type SyncCap Power Quality Switch will not operate until it is correctly configured. Note: Refer to the Sample Field Worksheets section of this manual. The sample worksheets may be copied and used to set up the SyncCap switch. The SyncCap switch must be configured for the phase rotation requirements of the application prior to installation. All SyncCap switches have two toggle switches (SW1 and SW2) located under the sleet hood and behind the nameplate. These switches are used to set the appropriate delay and sequence for the closing of each switch according to the phase rotation and voltage reference method used in the field installation. See Figure 4. B. While holding the contact position indicator in the OPEN position, move toggle switch SW1 to its proper position, depending on application. See Figures 5 and 6. Note: The toggle switch must lock into the proper position upon release. C. While holding the contact position indicator in the OPEN position, move toggle switch SW2 to its proper position, depending on application. See Figures 5 and 6. Note: The toggle switch must lock into the proper position upon release. D. Slowly release the contact position indicator to the CLOSED position. SyncCap Sleet Hood POS1 POS1 POS2 POS2 POS3 POS3 SW1 SW2 O P E N 020098KM Kyle ® SyncCap Nameplate POW Type S ER QU yn ALIT cCapY SW ITCH OPEN/CLOSED Contact Position Indicator (shown in OPEN position) 15 Toggle Switches Figure 4. SyncCap sleet hood with nameplate partially removed to expose toggle switches. Figure 5. Hold the yellow position indicator down in the OPEN position while setting toggle switches. The toggle switches on every SyncCap switch are factoryset in the OFF (SW1 and SW2 in POS2) position. The SyncCap switch will not operate until the toggle switches are set per the following procedure: 1. Completely remove one screw and loosen the other screw so the nameplate swings freely to expose the toggle switches. See Figure 4. 2. Position the toggle switches as described below: A. With one hand, grab the yellow contact position indicator flag and apply light downward pressure to move the indicator flag into the OPEN position as shown in Figure 5. Note: All SyncCap switches are shipped in the CLOSED position. Manually rotating the indicator will not open the switch contacts. IMPORTANT: The yellow contact position indicator flag serves as an indicator of contact position only, it is not intended to trip or close the switch. 6 Figure 6. To operate the toggle switches located under the SyncCap sleet hood, pull the switch out and move upward or downward per application need. 3. After the appropriate application has been set, reposition the nameplate and reattach and tighten the screws. ! S260-16-1 SAFETY FOR LIFE Synchronizing Voltage An input voltage must be provided to the SyncCap Power Quality Switch for use as a synchronizing voltage via the standard five-pin (or accessory six-pin) control cable receptacle. Refer to Figure 19 or 20. When applying SyncCap switches in a three-phase installation, the synchronizing voltage may be provided from each phase independently or from just one reference phase. If the synchronizing voltage is provided independently from each phase, then each SyncCap switch is configured to close on its respective reference voltage zero point. If just one reference phase voltage will be used for the installation, then each SyncCap must be appropriately configured to close relative to the one common reference voltage zero point. The range of settings for the SyncCap switch is shown in Table 7 (refer to Figure 7). Note: Unless there is a specific reason to supply the reference voltage from each phase independently (three potential transformers), it is recommended that only one reference voltage be used. This manual does not cover the case of three independent phase reference voltages. There are three application considerations leading to the proper configuration of the SyncCap switch: • Connection of the capacitor rack, grounded or ungrounded. • Primary connection of the transformer supplying the reference voltage, phase-to-ground or phase-tophase. • System phase rotation. POS1 POS1 POS2 POS2 POS3 POS3 SW1 SW2 Figure 7. Switch settings. TABLE 7 SyncCap Close Phase Switch Settings Degree Lag From Voltage Zero SW1 Switch Position SW2 Switch Position 0° POS 1 POS 3 30° POS 2 POS 1 60° POS1 POS 1 90° POS 1 POS 2 120° POS 3 POS 3 150° POS 2 POS 3 180° POS 3 POS 1 OFF POS 2 POS 2 * POS 3 POS 2 * Reserved for future use. Switch is OFF. 7 Type SyncCap Power Quality Switch Installation and Operation Instructions Grounded-Wye Capacitor Rack Application Transformer Secondary; Synchronizing Voltage A A typical grounded-wye capacitor rack installation includes the capacitors, mounting rack, controller, switches, overcurrent protection, and a single-phase distribution transformer connected phase-to-ground to power the capacitor controller, switches, and other ancillary equipment. See Figure 8. The secondary from this transformer is also used to provide the synchronizing voltage for the SyncCap switches. SyncCap Switch Distribution Transformer Each SyncCap switch will close independently at its respective phase’s voltage zero point. The SyncCap switch connected to the leading phase will lag the reference phase zero crossing by 60 electrical degrees to close at its phase’s voltage zero. Next, the SyncCap switch connected to the lagging phase will lag the reference phase zero crossing by 120 electrical degrees to close at its phase’s voltage zero. Finally, the SyncCap switch connected to the reference phase itself will lag the reference phase zero crossing by 180 electrical degrees to close at its phase’s voltage zero. Refer to Figure 9. Note: The SyncCap switch that is connected to the reference phase CAN be set for either a zero degree lag or a 180 degree lag. The preferred setting is 180 degree lag for the following reason: It is desirable to assure that the reference voltage signal is free of any disturbances during the complete closing sequence. If the switch connected to the reference phase closes first, the reference voltage will increase due the switched-in capacitance in that phase. Since this same reference voltage is being fed to the two switches in the other phases, the disturbance may upset the control feedback loop. Grounded-Wye Capacitor Bank SyncCap Switch B SyncCap Switch C Figure 8. Circuit diagram for grounded-wye capacitor racks (ABC rotation). Knowledge of the system’s phase rotation is critical to the proper installation and operation of the SyncCap switch. There are two phase rotations in three-phase electrical power distribution. Labeling the three phases ABC, the two phase rotations are A-B-C and C-B-A (B-C-A and CA-B rotations are equivalent to A-B-C; A-C-B and B-A-C rotations are equivalent to C-B-A). VA Reference phase zero crossing: set for 180° lag VB Lagging phase zero crossing: set for 120° lag VC Leading phase zero crossing: set for 60° lag VA Reference phase zero crossing A A C VLG B 60° 120° 180° 0 60 120 180 240 300 360 420 480 Electrical Degrees Note: Choice of reference phase is arbitrary. Figure 9. Closing characteristics for grounded-wye capacitor racks (ABC rotation). 8 ! S260-16-1 SAFETY FOR LIFE TABLE 8 Phase designations for systems with A-B-C phase rotation, phase-to-ground connected reference voltage transformer, and grounded-wye capacitor racks. Phase Energizing Reference Voltage Transformer Reference Voltage Phase Leading Reference Phase Lagging Reference Reference Phase 60° Switch setting for: 120° 180° VAN C B A B VBN A C B C VCN B A C A TABLE 9 Phase designations for systems with A-C-B phase rotation, phase-to-ground connected reference voltage transformer, and grounded-wye capacitor racks. Phase Energizing Reference Voltage Transformer Reference Voltage Phase Leading Reference Phase Lagging Reference Reference Phase 60° Switch setting for: 120° 180° VAN B C A B VBN C A B C VCN A B C A Reference Phase Preferred: 180° Lag (Lags Reference Zero by 180°) Leading Phase 60° Lag: (Lags Reference closing by 60°) Lagging Phase 120° Lag: (Lags Reference closing by 120°) POS1 POS1 POS1 POS1 POS1 POS1 POS2 POS2 POS2 POS2 POS2 POS2 POS3 POS3 POS3 POS3 POS3 SW1 SW2 SW1 SW2 For SyncCap use on the reference phase, SW1 in POS 3 and SW2 in POS 1. For SyncCap use on the leading phase, both SW1 and SW2 in POS 1. POS3 SW1 SW2 For SyncCap use on the lagging phase, both SW1 and SW2 in POS 3. Reference Phase Alternate: 0° Lag (Closes at Reference Zero) POS1 POS1 POS2 POS2 POS3 POS3 SW1 SW2 For SyncCap use on the reference phase, SW1 in POS 1 and SW2 in POS 3. Figure 10. Toggle switch positions for reference, leading, and lagging phases in a grounded-wye capacitor rack. Use Tables 8 and 9 to determine each phase’s characteristic (reference, leading, or lagging) based on the phase energizing the rack’s distribution transformer. Refer to the Set SyncCap for the Appropriate Application section of this manual for procedures to operate the toggle switches. The two toggle switches located under the sleet hood are used to configure SyncCap switches to the appropriate phase of the phase rotation of the given application. See Figure 10. 9 Type SyncCap Power Quality Switch Installation and Operation Instructions Ungrounded-Wye Capacitor Rack Application A typical ungrounded-wye capacitor rack installation includes the capacitors, mounting rack, controller, switches, overcurrent protection, and a single-phase distribution transformer connected to the system to power the capacitor controller, switches, and other ancillary equipment. The secondary from this transformer is also used to provide the synchronizing voltage for the SyncCap switches. reference LL voltage. This switch is set to 60° lag which places it at the point where the voltage difference between the first two switches to close is zero, or where the VCA is at a zero crossing. Finally, the last switch to close (B phase in this example) is set to 150° lag where it crosses its natural zero (VBN). Note: The primary connection of the single-phase distribution transformer is an important consideration in the ungrounded-wye capacitor rack installation. Connecting the transformer phase-to-phase or phase-to-ground will affect each switch’s setting. Phase-to-Phase Connected Distribution Transformer In this installation, synchronous closing occurs when the second of two switches closes at the point when the voltage difference between their two phases is zero followed by the closing of the third pole at that phase’s voltage zero (90 electrical degrees after the operation of the other two). Note: The SyncCap will operate on the first available zero crossing of the reference voltage regardless of the slope of the wave. Figure 12 illustrates the zero crossing on a negative slope. It will operate just as well on the positive slope, in which case everything is shifted by 180 electrical degees. One outcome of this characteristic is that the polarity of the distribution transformer as it is connected to the primary phases will not affect the settings of the switches. However, it is important to have a common ground on the switch and transformer secondary. Transformer Secondary; Synchronizing Voltage A B Figures 11 and 13 illustrate the case of an ABC phase sequence with the phase-to-phase transformer connected to A and B phases giving a reference voltage VAB. The two phases that energize the distribution transformer are used as the synchronizing reference voltage in switching the ungrounded-wye capacitor rack. This is a line-to-line voltage. Refer to Figures 11 and 13. C The first switch to close is chosen to be the first phase that lags the reference LL voltage (VA in Figure 13). This switch is set to 30° lag. Lag is referenced to VAB. The second switch to close is the third phase that lags the 30° Lag (Lags Voltage Zero by 30°) Ungrounded-Wye Capacitor Bank Distribution Transformer The timing of the first switch closing is not important since no current can flow, and no disturbance can occur, until a second switch closes. Referring to Figure 13, VAB is the reference line-to-line voltage and each phase line-to-neutral voltage is referenced to VAB. VAN lags the reference by 30°, VBN lags by 150°, and VCN lags by 60°. The reference zero crossing is the point where the voltage difference between phase A and phase B is zero; this is the point where VAB crosses zero as noted in the figure. SyncCap Switch SyncCap Switch SyncCap Switch Figure 11. Circuit diagram for ungrounded-wye capacitor racks. (ABC phase rotation, phase-to-phase connected distribution transformer.) Use Tables 10 and 11 to determine each phase’s characteristics (1st, 2nd, or 3rd phase lagging) with respect to the reference voltage. The two toggle switches under the sleet hood are used to select appropriate application on each phase of the phase rotation. Refer to Figure 12. Refer to the Set SyncCap for the Appropriate Application section of this manual for procedures to operate the toggle switches. 60° Lag (Lags Voltage Zero by 60°) 150° Lag (Lags Voltage Zero by 150°) POS1 POS1 POS1 POS1 POS1 POS1 POS2 POS2 POS2 POS2 POS2 POS2 POS3 POS3 POS3 POS3 POS3 POS3 SW1 SW2 SW1 SW2 SW1 SW2 For SyncCap use on 30° Lag, SW1 in POS2 and SW2 in POS1. For SyncCap use on 60° Lag, SW1 in POS1 and SW2 in POS1. For SyncCap use on 150° Lag, SW1 in POS2 and SW2 in POS3. Figure 12. Toggle switch positions for use in an ungrounded-wye capacitor rack with a phase-to-phase connected distribution transformer. 10 ! S260-16-1 SAFETY FOR LIFE VAB VB Second lagging phase: set for 150° lag* VC Third lagging phase: set for 60° lag* VA First lagging phase: set for 30° lag* Reference phase zero crossing VCA VAB C * with respect to the reference L-L voltage, VAB VCA VBC C B VLN and VLL A 30° 60° 150° 0 60 120 180 240 300 Electrical Degrees 360 420 480 Figure 13. Closing characteristics for ungrounded-wye capacitor racks (ABC phase rotation, phase-to-phase connected distribution transformer). TABLE 10 Phase designations for systems with A-B-C phase rotation, phase-to-phase connected reference voltage transformer, and ungrounded-wye capacitor racks. Phase Energizing Reference Voltage Transformer Reference Voltage 1st Phase Lagging Reference 3rd Phase Lagging Reference 2nd Phase Lagging Reference 30° Switch setting for: 60° 150° A to B VAB A C B B to C VBC B A C C to A VCA C B A TABLE 11 Phase designations for systems with A-C-B phase rotation, phase-to-ground connected reference voltage transformer, and grounded-wye capacitor racks. Phase Energizing Reference Voltage Transformer Reference Voltage 1st Phase Lagging Reference 3rd Phase Lagging Reference 2nd Phase Lagging Phase 30° Switch setting for: 60° 150° B C A to C VAC A C to B VCB C A B B to A VBA B C A 11 Type SyncCap Power Quality Switch Installation and Operation Instructions Phase-to-Ground Connected Distribution Transformer A In the ungrounded-wye capacitor rack installation that includes a phase-to-ground connected transformer, the phase that energizes the transformer is the last to close. Figures 14 and 15 illustrate the case of an ABC phase sequence with the phase-to-ground transformer connected to C phase giving a reference voltage VC.The distribution transformer is connected from phase C to ground making VC the reference voltage, see Figures 14 and 15. The first switch to close is connected to the phase that leads the reference phase, VB in this example. Its voltage zero lags the voltage zero of the reference phase by 60 electrical degrees and is set for 60° lag. Next, the switch connected to the phase lagging the reference phase, VA in this example, is set to close 90° after the reference phase which is the point where the voltage difference between the first two phases to close is zero. Finally, the third switch lags the reference voltage point by 180° (the next voltage zero point for the reference phase). SyncCap Switch Ungrounded-Wye Capacitor Bank SyncCap Switch B Transformer Secondary; Synchronizing Voltage SyncCap Switch C Distribution Transformer Figure 14. Closing characteristics for ungrounded-wye capacitor racks. (ABC phase rotation, phase-to-ground connected distribution transformer.) Use Tables 12 and 13 to determine each phase’s characteristics (1st, 2nd, or 3rd phase lagging) with respect to the reference voltage. See Figure 16 for the configuration of toggle switches SW1 and SW2 for proper application. Refer to the Set SyncCap for the Appropriate Application section of this manual for procedures to operate the toggle switches. VC Reference phase: set for 180° lag VA Lagging phase zero crossing: set for 90° lag VB Leading phase zero crossing:set for 60° lag VC Reference phase zero crossing A Choice of reference phase is arbitrary. B C VLN C Note: 60° 90° 180° 0 60 120 180 240 300 360 420 480 Electrical Degrees Figure 15. Closing characteristics for ungrounded-wye capacitor racks with phase-to-ground connected transformer. 12 ! S260-16-1 SAFETY FOR LIFE Leading Phase 60° Lag (Lags Reference Voltage Point by 60°) Lagging Phase 90° Lag (Lags Reference Voltage Point by 90°) Reference Phase 180° Lag (Lags Reference Voltage Point by 180°) POS1 POS1 POS1 POS1 POS1 POS1 POS2 POS2 POS2 POS2 POS2 POS2 POS3 POS3 POS3 POS3 POS3 SW1 SW2 For SyncCap use on 60° Lag, both SW1 and SW2 in POS1. For SyncCap use on 90° Lag, SW1 in POS1 and SW2 in POS2. POS3 SW1 SW2 SW1 SW2 For SyncCap use on 180° Lag, SW1 in POS3 and SW2 in POS1. Figure 16. Toggle switch positions for use in an ungrounded-wye capacitor rack with a phase-to-ground connected distribution transformer. TABLE 12 Phase designations for systems with A-B-C phase rotation, phase-to-ground connected reference voltage transformer, and ungrounded-wye capacitor racks. Phase Energizing Reference Voltage Transformer 1st Phase Lagging Reference 3rd Phase Lagging Reference 2nd Phase Lagging Reference 60° Switch setting for: 90° 180° VAN C B A B VBN A C B C VCN B A C A Reference Voltage TABLE 13 Phase designations for systems with A-C-B phase rotation,phase-to-ground connected reference voltage transformer, and ungrounded wye-capacitor racks. Phase Energizing Reference Voltage Transformer 1st Phase Lagging Reference 3rd Phase Lagging Reference 2nd Phase Lagging Reference 60° Switch setting for: 90° 180° VAN B C A B VBN C A B C VCN A B C A Reference Voltage 13 Type SyncCap Power Quality Switch Installation and Operation Instructions INSTALLATION PROCEDURE WARNING: This equipment is not intended to protect human life. Follow all locally approved procedures and safety practices when installing or operating this equipment. Failure to comply can result in death, severe personal injury and equipment damage. ! G102.1 CAUTION: Follow all locally approved safety practices when lifting and mounting the equipment. Use the lifting lugs provided (see Figure 3). Lift the unit smoothly and do not allow the unit to shift. Improper lifting can result in equipment damage. G106.2 ! WARNING: Hazardous voltage. Solidly ground all equipment. Failure to comply can result in death, severe personal injury, and equipment damage. T223.2 ! CAUTION: Personal injury. Bushings have sharp edges. Wear protective gloves when handling the unit. Failure to do so can result in cuts and abrasions. T258.0 ! Check Nameplate Make sure that ratings on the nameplate are correct for the planned installation. See Figure 17. IMPORTANT: The Kyle Type SyncCap Power Quality Switch will not operate until it is properly configured. See Set SyncCap for the Appropriate Application section of this manual. Cycle the Switch The SyncCap switch must be energized and cycled through an open-close-open cycle before installing. The purpose of these operations is to establish the precise closing stroke to contact make. The control will store (remember) this parameter for the next operation. The procedure is as follows. Refer to Figure 18. 1. Apply 120 Vac to receptacle pins A and B. the switch, immediately retorque the head-to-tank mounting bolts in an alternating pattern to 19–34 N•m (14–25 ft•lbs). IMPORTANT: Verify that the tank is properly centered on and seated to the head casting. Misalignment will cause interference with the magnetic circuit causing misoperation. Misalignment may also lead to entry of moisture. 2. Bushing terminal adjustment. Bushing terminals may also be rotated about their axis for optimum alignment to high-voltage conductors. If terminal rotation is required, use the following procedure: A. Loosen the terminal clamp. B. Rotate terminal to desired location. C. Retighten the terminal clamp. Torque to 20–23 N•m (15–17 ft•lbs). 3. Install the switch. Follow all locally approved installation procedures. The SyncCap switch includes a mounting bracket welded to the tank with a keyway opening for simple mounting and installation. See Figure 3. High-Voltage Connections CAUTION : Equipment Damage. Ground connection to the SyncCap switch must be made only at the ground terminal located upon the switch head casting. Failure to comply can result in equipment damage and misoperation of the switch. T279.0 1. Ground the switch. Make the ground connection to the ground terminal. The ground terminal is located on the switch head casting as shown in Figures 3 and 17. 2. Make line connections. Connect the primary leads to the switch terminals. The universal clamp-type terminals accommodate #10 solid through 350 MCM conductor. See Figure 3. 2. Open the SyncCap switch by connecting a jumper lead across receptacle pins A and D. 3. Close the SyncCap switch by connecting a jumper lead across receptacle pins A and C. 4. Open the SyncCap switch by connecting a jumper lead across receptacle pins A and D. 5. Disconnect the power to the SyncCap switch while in the open position. Install the Switch 1. Reorient switch position if required for installation. Loosen the head-to-tank mounting bolts only if it is necessary to reorient the position of the switch to make high-voltage line connections. After reorienting 14 Nameplate Ground Terminal Figure 17. SyncCap switch ground terminal. 020099KM ! S260-16-1 SAFETY FOR LIFE Control Wiring SyncCap Connections to the SyncCap switch are made through the standard five-pin (or optional six-pin) receptacle on the head casting. The six-pin receptacle is provided when the auxiliary switch accessory is ordered with the SyncCap. Refer to Figures 19-22. Voice Coil Operator Microprocessor Logic Input Circuitry The polarity of the transformer connections providing the reference voltage to pins A and B is not important to the operation of the SyncCap switch. However, the secondary connection to receptacle pin B must be connected to a common ground with the head casting of the switch. Refer to Figure 17. 5-Pin Receptacle IMPORTANT: Be sure that the reference voltage connection to receptacle B is grounded. A Mating plugs for the receptacle must be ordered separately. Maximum cable and wire sizes accommodated by the plugs are listed in Table 6. B Pin orientation diagrams for the receptacles are shown in Figure 18. C D E OPEN CLOSE KEY Synchronizing Voltage F E A D C B 5-pin Receptacle E A D B Control Voltage Neutral Figure 19. Connection diagram for three-wire control. SyncCap C Auxiliary Switch Voice Coil Operator 6-pin Receptacle Microprocessor Logic Figure 18. Receptacle pin orientation. "A" Contact Input Circuitry Three Wire Control The basic device for remote control of the Type SyncCap switch is a single-pole, double-throw switch (three-wire control) supplied by the customer. Any manual switch, time switch, voltage-, current-, or photoelectric-controlled switch, or similar device can be used, provided the control circuit is energized for a minimum of 300 ms for each operation. Note: 6-Pin Receptacle A B C D E F OPEN CLOSE Pin A provides the synchronizing voltage and control power to the SyncCap and must be continually energized for proper operation. Connection diagrams for a standard three-wire control, with and without auxiliary switch accessory, are shown in Figures 19 and 20. Neutral Synchronizing Voltage Control Voltage Ratings for Auxiliary Switch Maximum Voltage 220 Vdc, 250 Vac Maximum Switching Power 125 VA Maximum Switching Current 2A Figure 20. Connection diagram for three-wire control with auxiliary switch accessory. 15 Type SyncCap Power Quality Switch Installation and Operation Instructions Two-Wire Control The control can also be operated by an SPST device (two-wire control). A factory-installed accessory is required for two-wire control operation. SyncCap Voice Coil Operator Auxiliary Switch Microprocessor Logic The control circuit (pin D) must be closed for a minimum of 300 ms and maintained closed for a close operation. The SyncCap switch will open as soon as the control voltage is removed from pin D. Both the synchronizing voltage signal and the control power are provided through pin A and must be maintained at all times for proper operation. Input Circuitry "A" Contact "B" Contact Connection diagrams for the two-wire control, with and without auxiliary switch accessory, are shown in Figures 21 and 22. 6-Pin Receptacle A B D E C F SyncCap Voice Coil Operator Microprocessor Logic Input Circuitry Control Voltage Neutral Synchronizing Voltage 5-Pin Receptacle A B Neutral Synchronizing Voltage C D Control Voltage Figure 21. Connection diagram for two-wire control. 16 E Ratings for Auxiliary Switch Maximum Voltage 220 Vdc, 250 Vac Maximum Switching Power 125 VA Maximum Switching Current 2A Figure 22. Connection diagram for two-wire control with auxiliary switch accessory. ! S260-16-1 SAFETY FOR LIFE SERVICE INFORMATION Service Requirements 4. Apply proper test voltage to the ungrounded bushing. The switch should withstand the test voltage for 60 seconds. IMPORTANT: The SyncCap switch must be in the closed position prior to transporting the switch. Failure to do so can result in misoperation of the SyncCap Switch. 5. Reverse the test and ground connections to the bushings. The Kyle Type SyncCap Power Quality switch is calibrated at the factory for proper operation. There are no userserviceable components on the SyncCap. The switch has been designed with a minimum mechanical life of 25,000 operations. It requires routine inspection to check for physical damage and to verify operation. Frequency of Inspection WARNING: Hazardous voltage. The switchgear and high voltage transformer must be in a test cage or similar protective device to prevent accidental contact with high voltage parts. Solidly ground all equipment. Failure to comply can result in death, severe personal injury, and equipment damage. T221.3 ! CAUTION: Radiation. At voltages up to the specified test voltages, the radiation emitted by the vacuum interrupter is negligible. However, above these voltages, radiation injurious to personnel can be emitted. See Service Information S280-90-1, Vacuum Interrupter Withstand Test Voltage Ratings Information for further information. G109.2 ! Because these switches are applied under widely varying operation and climatic conditions, service intervals are best determined by the user based upon actual operating experience. High-Potential Withstand Testing Use the following procedures to perform high-potential withstand tests at 75% of the rated low-frequency withstand voltage for one minute. See Table 14. To prevent damage to the SyncCap circuitry during testing, ground the control receptacle by wiring the pins together and connecting to ground. Closed Contacts Test 1. Close the switch contacts. 2. Ground the switch. 3. Apply proper test voltage to the bushing terminal. The switch should withstand the test voltage for 60 seconds. Open Contacts Test 1. Open the switch contacts. 2. Ground the switch. 3. Ground the bushing on one side of the switch. 6. Apply proper test voltage to the ungrounded bushing. The switch should withstand the voltage for 60 seconds. Withstand Test Results The high-potential withstand tests provide information on the dielectric condition of the switch. If the switch passes the closed-contacts test and fails the open-contacts test, the cause is likely to be in the interrupter assembly. If the switch fails the closed contacts test, the cause is likely to be diminished electrical clearance or failed insulation. TABLE 14 Type SyncCap Vacuum Interrupter Withstand Test Voltage Ratings Information Description 75% of Rated Low-Frequency Withstand Voltage (1 minute dry) (kV rms) SyncCap, 15.5 kV, 110 kV BIL 37.5 SyncCap, 15.5 kV, 125 kV BIL 45 Inspection of SyncCap Module If the SyncCap module was exposed to an external flashover, an inspection process is recommended to assure proper operation of the switch. Should the SyncCap exhibit external flashover attributes (carbon tracking or discoloration), the following procedure is recommended to restore the encapsulation back to its original condition: 1. Remove device from service. 2. Inspect module for damage to the terminals. Remove any damaged terminals and replace. 3. Inspect module for damage to the module rods. If there is damage to the module rods, the module must be replaced. 4. Verify through careful inspection that there is no damage to the housing or head casting that could inhibit proper operation. 5. Clean the damaged module with isopropyl alcohol and a scratch-free, nylon scouring pad to remove any carbon deposit. 6. With a clean rag, apply a thin coat of dielectric silicone grease to the cleaned areas. 7. Confirm the dielectric strength of the module by performing high-potential withstand testing. Confirm both phase-to-ground and phase-to-phase conditions. See the High-Potential Withstand Testing section of this manual. 17 Type SyncCap Power Quality Switch Installation and Operation Instructions TESTING AND TROUBLESHOOTING Testing Guidelines The recommended method to test a SyncCap switch is to use a dc testing voltage higher than the nominal 20 V arc voltage of the switch. This assures that a normal arc is established at contact make and break. Lower voltages will give inconsistent results. SyncCap switches are tested in production with a low-impedance 24 Vdc supply. Certain precautions should be observed to ensure valid test results. 1. Do not use the auxiliary contacts for timing purposes. The contacts are not guaranteed to have a consistent timing with switch opening and closing. 2. Do not use low-voltage, high-impedance circuits to detect switch closure. The vacuum switch contacts will make or break the low-signal circuit under very slight movement or vibration, giving a false interruption and closure indication. 3. Passing ac signals through the switch to detect close is not recommended. The switch is designed to close at or near voltage zero. Trying to verify zero-closing with low-magnitude, near-zero signal can be, at best, difficult. 4. The SyncCap can never be more accurate than the reference signal it is monitoring. It uses the powering voltage to maintain its phase lock. If the powering voltage is not in exact phase with the switch voltage, the SyncCap will not operate at maximum accuracy. 5. Vacuum contacts become less effective with repeated no-load mechanical operations. That is, if they do not interrupt current their performance degrades. This is due to the forming and breaking of cold welds on the contact surfaces. The SyncCap is intentionally set to interrupt at a current peak to clean the contact surfaces without causing undue wear on the contacts. After many no-load operations, it may be necessary to operate the switches under normal switching load several times before accurate closing is re-established. 18 Unit Will Not Respond to Control Signals • Check all cables for proper connection. • Verify that the switch has power. • Verify that the toggle switches under the sleet hood are locked in the proper position for the required application. If the three steps above do not resolve the problem, contact your Cooper Power Systems representative. There are no user-serviceable components on the SyncCap. ! S260-16-1 SAFETY FOR LIFE Field Worksheet Installation Variables: Grounded Cap Bank; Positive Phase Rotation As Planned (assumed) Field Condition Basis of Determination System Phase Rotation A-B-C Bank Grounding Solidly Grounded Reference Voltage phase connection A ph LG SyncCap Toggle Switch A phase: S1/S2 Zero (ref): 1/3 B phase: S1/S2 120° lag: 3/3 C phase: S1/S2 60° lag: 1/1 VA Reference phase zero crossing: set for 180° lag VB Lagging phase zero crossing: set for 120° lag VC Leading phase zero crossing: set for 60° lag VA Reference phase zero crossing A A C VLG B 60° 120° 180° 0 60 120 180 240 300 360 420 480 Electrical Degrees Note: Choice of reference phase is arbitrary. 19 Type SyncCap Power Quality Switch Installation and Operation Instructions Field Worksheet Installation Variables: Grounded Cap Bank; Negative Phase Rotation As Planned (assumed) Field Condition Basis of Determination System Phase Rotation A-C-B Bank Grounding Solidly Grounded Reference Voltage phase connection A ph LG SyncCap Toggle Switch A phase: S1/S2 Zero (ref): 1/3 B phase: S1/S2 60° lag: 1/1 C phase: S1/S2 120° lag: 3/3 VA Reference phase zero crossing: set for 180° lag VC Lagging phase zero crossing: set for 120° lag VB Leading phase zero crossing: set for 60° lag VA Reference phase zero crossing A A B VLG C 60° 120° 180° 0 60 120 180 240 300 Electrical Degrees 20 360 420 480 ! S260-16-1 SAFETY FOR LIFE Field Worksheet Installation Variables: Ungrounded Cap Bank; Positive Phase Rotation As Planned (assumed) Field Condition Basis of Determination System Phase Rotation A-B-C Bank Grounding Ungrounded Reference Voltage phase connection A and B phases LL SyncCap Toggle Switch 30° lag: 2/1 B phase: S1/S2 150° lag: 2/3 C phase: S1/S2 60° lag: 1/1 VB Second lagging phase: set for 150° lag* VC Third lagging phase: set for 60° lag* VA First lagging phase: set for 30° lag* Reference phase zero crossing VCA VAB C * with respect to the reference L-L voltage, VAB VCA VBC C B A VLN and VLL VAB A phase: S1/S2 30° 60° 150° 0 60 120 180 240 300 360 420 480 Electrical Degrees 21 Type SyncCap Power Quality Switch Installation and Operation Instructions Field Worksheet Installation Variables: Ungrounded Cap Bank; Negative Phase Rotation As Planned (assumed) Field Condition Basis of Determination System Phase Rotation A-C-B Bank Grounding Ungrounded Reference Voltage phase connection A and B phases LL SyncCap Toggle Switch A phase: S1/S2 150° lag: 2/3 B phase: S1/S2 30° lag: 2/1 C phase: S1/S2 60° lag: 1/1 VA Second lagging phase: set for 150° lag* VC Third lagging phase: set for 60° lag* VB First lagging phase: set for 30° lag* VBA Reference phase zero crossing VCB VBA C * with respect to the reference LL voltage, VBA VCB VAC C A VLN and VLL B 30° 60° 150° 0 60 120 180 240 300 Electrical Degrees 22 360 420 480 ! SAFETY FOR LIFE S260-16-1 23 Type SyncCap Power Quality Switch Installation and Operation Instructions ! SAFETY FOR LIFE ©2002 Cooper Power Systems, Inc. Kyle® is a registered trademark of Cooper Industries, Inc. KA2048-493 Rev: 01 P.O. Box 1640 Waukesha, WI 53187 www.cooperpower.com KMG 12/02