PG Interface Card "OPC-E2-PG"

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Instruction Manual PG Interface Card "OPC-E2-PG" Thank you for purchasing this PG interface card "OPC-E2-PG." Installing this card to your inverter enables speed control with speed sensor and pulse train input. Installing this card disables pulse train inputs to the inverter's terminal [X5]. Remove the standard terminal board on inverter, and attach option board. 1. Check that: (1) A PG interface card is contained in the package. (2) The PG interface card is not damaged during transportation--no defective devices, dents or warps. (3) The model name "OPC-E2-PG" is printed on the front of the PG interface card as shown in Figure 2. Hooks CN1 If you suspect the product is not working properly or if you have any questions about your product, contact the shop where you bought the product or your local Fuji branch office. Model J1 Fig. 1 Fig. 2 2. Installation Method Before carrying out installation and wiring, wait ten minutes or longer after turning OFF the power. Finally, ensure that the LED monitor and charge lamp have turned OFF, and use a tester to confirm that the DC relay circuit voltage across main circuit terminals P(+) to N(-) has dropped to a safe level (+25 VDC or below). Failure to observe this could lead to electric shock. In order to prevent damage resulting from static electricity, when handling the card, either take antistatic prevention measures, or hold the hooks to prevent touching the PCB directly. (1) Remove the inverter unit cover to expose the interface board. Refer to the inverter unit instruction manual for details on how to remove the cover. (2) If the inverter unit is equipped with an interface board, (1) remove the short bar, (2) hold down the hooks, and then remove the interface board. (Fig. 3) (The removed interface board is not used.) (3) Insert connector CN1 (Fig. 2) on the PG interface card into connector CN1 on the inverter until it clicks into place, and then fit a short bar to the PLC, EN1, and EN2 terminals. Refer to the inverter unit instruction manual for details on the screw tightening torque to be applied when fitting short bars. (4) Wire the PG interface card. Refer to "3. Wiring". (5) Replace the inverter unit cover. Refer to the inverter unit instruction manual for details on how to reattach the cover. (2) Interface board CN1 Hooks Standard condition (1) Short bars Installed PG interface card Fig. 3 Removed condition Fig. 4-1 -

3. Wiring In general, the covers of the control signal wires are not specifically designed to withstand a high voltage (i.e., reinforced insulation is not applied). Therefore, if a control signal wire comes into direct contact with a live conductor of the main circuit, the insulation of the cover might break down, which would expose the signal wire to a high voltage of the main circuit. Make sure that the control signal wires will not come into contact with live conductors of the main circuit. Failure to observe this precaution could cause electric shock or an accident. Noise may be emitted from the inverter, motor and wires. Take appropriate measures to prevent the nearby sensors and devices from malfunctioning due to such noise. An accident could occur. Refer to the following connection terminal allocation drawing and terminal specifications when wiring to the PG interface card. Fig.5 Connection terminal allocation drawing Table 1 Terminal specifications Terminal size M2 Tightening torque (N m) 0.19 ±10% Recommended wire size * AWG16 24 Stripped wire length (mm) 5 * An insulated wire with allowable temperature of 105 (UL compliant product) is recommended. In order to avoid malfunctions caused by noise, wire the PG interface card as far from the main circuit wiring as possible. Secure the PG interface card wiring inside the inverter with cable ties to ensure that there is no direct contact with live parts on the main circuit (e.g., main circuit terminal block). Cut out FRN0072E2-4 example Cut out part of the wiring guide and pass through the wires from the PG interface card. FRN0203E2-4 example FRN0590E2-4 example Secure the wires from the PG interface card to the side plate amp base with a cable tie. - 2 -

4. Specifications 4-1. Specifications for pulse train inputs Item PG output pulse frequency PG pulse output circuit Input pulse threshold PG pulse input current 30 khz max. (Open collector) 30 khz max. (Complementary) Specifications Open collector circuit (Maximum cable length: 20 m) Complementary circuit (Maximum cable length: 20m) High level 3.5 VDC, Low level 1.5 VDC 8 ma or less 4-2. Specifications of applicable PG and PG interface card Item Encoder pulse resolution Pulse output circuit Input power requirements Pulse output current PG power supply* Specifications 20 to 3000 P/R, A, B and Z phase pulse trains in incremental format Open collector circuit (Maximum cable length: 20 m) Complementary circuit (Maximum cable length: 20m) High level 3.5 VDC, Low level 1.5 VDC 8 ma or less 5 VDC 10%, 200 ma or less * If a power level required by the PG exceeds 200mA/5V, use an external power supply. 5. Terminal Functions Table 2 lists terminal specifications. Table 2 Terminal Specifications Terminal symbol [P1] [PO] [CM] [XA] [XB] Name External power input*1 Power output to the PG PG power common A phase pulse input from reference PG B phase pulse input from reference PG [XZ] Not used. Functions Connects external power supply for the PG. +5 VDC 10% (Use the power supply which is 150 ma more than PG current consumption.) Connects the PG power input. +5 VDC 10%, 200 ma PG power common terminal (equipotent with [CM] terminal of the inverter) Input terminal for A phase signal fed back from the reference PG Input terminal for B phase signal fed back from the reference PG [YA] A phase pulse input from slave PG Input terminal for A phase signal fed back from the slave PG [YB] B phase pulse input from slave PG Input terminal for B phase signal fed back from the slave PG [YZ] Z phase pulse input from slave PG Input terminal for Z phase signal fed back from the slave PG *1 Use an external power supply if the PG current consumption exceeds 200mA/5V. When using an external power supply, turn the slide switch J1 shown below to the EXT position. SW1 INT J1 EXT To move a switch slider, use a tool with a narrow tip (e.g., tweezers). Be careful not to touch other electronic parts, etc. If the slider is in an ambiguous position, the circuit is unclear whether it is turned ON or OFF and the digital input remains in an undefined state. Be sure to place the slider so that it contacts either side of the switch. - 3 -

6. Drive Control For details of PG interface functions available, refer to the inverter User's Manual. 6-1. Pulse train input This function gives a frequency command to the inverter in pulse train format. Three types of formats are available--pulse train sign/pulse train input, run forward/run reverse pulse train, and 90 degree phase shifted A/B pulse trains. Use [XA] and [XB] terminals for the pulse train frequency command input. 6-1-1. Pulse train input format Table 3 lists pulse train input formats and operations of this option card. Table 3 Pulse Train Input Format and Operations Pulse input format Pulse train sign/pulse train input Run forward/run reverse pulse train 90 degree phase shifted A/B pulse trains Operations* Gives the speed command to the inverter, following the pulse input frequency on the [XB] terminal. Switching the terminal [XA] ON/OFF determines polarity of the speed command. Gives the run forward speed command to the inverter, following the pulse input frequency on the [XB] terminal, if any. Gives the run reverse speed command to the inverter, following the pulse input frequency on the [XA] terminal, if any. Gives the run forward or run reverse speed command to the inverter, following 90 degree phase shift and frequency information of two pulse inputs on [XA] and [XB] terminals. * Actual rotation direction of the motor is specified by a combination of the pulse input command polarity and FWD/REV command in the inverter. 6-1-2. Connection diagram examples Figure 8 shows the connection diagram example for pulse train input. Figure 8 Connection Diagrams for Pulse Train Input *1 For wiring between the encoder and the inverter, use a shielded cable. Basically, the shielded layer should be grounded. If any malfunction occurs due to noise, however, connecting the shielded layer to the terminal [CM] may reduce the problem. If the wiring between the encoder and the inverter is long, interference of A- and B-phases may cause encoder signal malfunctions, resulting in abnormal noise or torque pulsation. In such a case, minimizing the wiring length (by reviewing the wiring route) or using a cable with a smaller stray capacitance may reduce the problem. *2 When using the inverter internal power supply, turn the slide switch J1 on the PG interface card to the INT position; when using an external power supply, to the EXT position. - 4 -

6-2. Speed control (Vector control with speed sensor) The inverter detects the motor's rotational speed from PG feedback signals, decomposes the motor drive current into the exciting and torque current components, and controls each of components in vector. The vector control enables speed control with high accuracy and high response. For settings and adjustments of the vector control, refer to inverter User's Manual. 6-2-1. Control specifications Table 4 lists the specifications of vector control with speed sensor. Table 4 Specifications of Speed Control Item Specifications Remarks Maximum output frequency 25 to 200 Hz *2 Control specifications *1 Speed control range Speed control accuracy Minimum speed : Base speed = 1 : 1500 (For 4-pole motors: 1 to 1500 r/min) Analog setting: 0.2% or less of maximum frequency (at 25 10 C) Digital setting: 0.01% or less of maximum frequency (at -10 to +50 C) 1024 P/R operation *1 Specified values of the motor controllability will greatly vary depending on the pulse resolution, P/R (Pulses/Revolution). The recommended P/R is 1024 or more. *2 If the output frequency exceeds 200 Hz, the inverter trips with the alarm 0s. 6-2-2. Connection diagram examples Figure 9 shows the connection diagram example for speed control. Figure 9 Connection Diagrams for Speed Control *1 The terminal [YZ] is not used for control. If the PG issues Z phase outputs, there is no need to connect the PG wire to this terminal. *2 For wiring between the PG and the inverter, use a shielded cable. Basically, the shielded layer should be grounded. If any malfunction occurs due to noise, however, connecting the shielded layer to the terminal [CM] may reduce the problem. If the wiring between the PG and the inverter is long, interference of A- and B-phases may cause PG signal malfunctions, resulting in abnormal noise or torque pulsation. In such a case, minimizing the wiring length (by reviewing the wiring route) or using a cable with a smaller stray capacitance may reduce the problem. *3 The terminal SS of the VG motor should be opened. *4 When using the inverter internal power supply, turn the slide switch J1 on the PG interface card to the INT position; when using an external power supply, to the EXT position. - 5 -

Fuji Electric Co., Ltd. Gate City Ohsaki, East Tower, 11-2, Osaki 1-chome, Shinagawa-ku, Tokyo, 141-0032, Japan Phone: +81 3 5435 7058 Fax: +81 3 5435 7420 URL http://www.fujielectric.com/ INR-SI47-1795-E - 6 -