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FRENIC-Multi
Advanced technology makes a brand new appearance for high-energy frequency converters suitable for all purposes
Product details
- environment protection
- Simple operation and wiring
- Abundant capacity and diverse models
- Thorough consideration and comprehensive protection of surrounding equipment
- Excellent performance and high-quality standards
- more function
- Suitable for vertical and horizontal handling actions
- Rich network correspondence
- Simple and comprehensive maintenance
- Meeting global needs
![]() After the autumn of 2005, products were restricted from using six hazardous substances (except for the soldering area inside the power module), in compliance with the European RoHS directive (Directive on the Restriction of the Use of Certain Hazardous Substances in Electrical and Electronic Equipment). <Six harmful substances> Lead, mercury, cadmium, hexavalent chromium, polybrominated biphenyls, polybrominated diphenyl ethers <RoHS Directive> Directive 2002/98/EC issued by the European Union on the restriction of the use of certain hazardous substances in electronic and electrical equipment. |
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![]() The various lifespan components inside have an expected service life of 10 years. Shortened the equipment maintenance cycle. |
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![]() By using the built-in EMC filter series, the interference generated by the frequency converter can be effectively suppressed, reducing the impact on surrounding equipment. |
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![]() The button type structure that can be easily disassembled with one touch allows for remote operation by removing the control panel. Simply install the special inner cover that comes with it, connect the LAN cable, and it can be easily installed on the cabinet surface of the control cabinet. |
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![]() ·The terminal block for control signals adopts detachable interface cards, making wiring operations simple. ·The following optional cards are available for you to choose from. |
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![]() In the selection of accessories, we have prepared a multifunctional operation panel for you. It has a large 7-segment LED represented by five digits and a liquid crystal display screen with a large backlight, with high visual recognition. In addition, the LCD screen can display the operation guide, allowing users to operate while reading the guide, making it simple and easy (with a copy function). |
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![]() You can download software for Windows interface usage for free from our company's website, and easily set and manage functional codes. |
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![]() Equipped with an analog frequency converter output alarm information function, it can easily confirm the sequential action status of peripheral devices in the control cabinet using the frequency converter. |
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● Standard series ![]() ● Standard series
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![]() When multiple frequency converters are used in the control cabinet, they can be installed side by side horizontally, with a compact and seamless structure, achieving space saving design. (Below 3.7kW) |
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![]() Our company's FRENIC Multi series (FRENIC Mini series, FRENIC-VP series, 11 series) has a standard built-in surge current suppression resistor, which can effectively suppress the surge current when the power is turned on. Compared to directly connecting the electric motor to the power supply, low capacity peripheral devices can be selected. |
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![]() As one of the external cooling methods, the optional external cooling fan can be used, which is easy to install and can also be configured as standard for power above 5.5 kW. |
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In the same level of products, a high-level CPU is used, which doubles the processing power and improves the speed control accuracy compared to previous products. |
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![]() In the past, the energy-saving function of frequency converters was to minimize the losses of the motor unit based on the load state. The newly developed FRENIC Multi series has updated its focus, considering the frequency converter itself as one of the electrical products.Not only does it minimize the losses of the motor, but it also controls the power consumption of the frequency converter to the lowest level (suitable for smaller power consumption control). |
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![]() When starting the frequency converter, the introduction function is used, and the frequency converter can automatically detect the direction and speed of the motor's rotation during free rotation, smoothly and quickly transitioning from power frequency drive operation to frequency converter drive operation. |
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![]() When the PID controller is used for temperature, pressure, and flow control, it adds the function of deviation alarm and absolute value alarm output, combined with the anti reset termination function to prevent PID control overshoot, PID output limiter, and integral hold/reset signal, making the PID control function more comprehensive and easier to use. When the PID regulator is used for floating roller tension control, the PID output limiter and integral hold/reset signal can be greatly utilized. |
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![]() Due to mechanical vibration of the equipment, poor circuit contact, disconnection, and other reasons, frequency signals (0-10V, 4-20mA, multi-stage speed operation signals, communication signals, etc.) are blocked and commands disappear. At this point, the frequency converter outputs a signal indicating the loss of instructions. By using the command loss detection function, the output frequency of the frequency converter can be pre-set when the command is lost, effectively preventing the motor from continuing to operate when the signal is blocked. |
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![]() When the load of the equipment driven by the frequency converter increases sharply, in order to prevent equipment failure, the overload stop function can be used to slow down and stop the frequency converter, or to rotate freely. |
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![]() Foreign objects entering the interior of the fan or pulley can cause an increase in load, a sharp rise in temperature inside the frequency converter, or a sharp rise in ambient temperature, resulting in the frequency converter being in an overloaded state. The overload avoidance function can be used to reduce the motor speed and ensure its continuous operation without stopping. |
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![]() There are two options available: [torque limit] and [current limit].
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![]() Standard configuration includes one RS-485 communication interface (RJ-45 connector, used for communication with the control panel), which can be easily connected with a LAN cable (10BASE). |
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![]() Select various specialized interface cards from the optional accessories, which can correspond to the following networks. ·DeviceNet ·PROFIBUS-DP (recently launched) ·CC-Link |
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![]() The RS-485 communication card has 2 communication interfaces, which can achieve branch line connection.
■ Composition diagram with peripheral devices ![]() |
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![]() The button style structure that can be disassembled with just one touch allows you to easily replace the cooling fan. (Above 5.5kW) |
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![]() Not only does it provide information about the frequency converter, but it also provides maintenance status of the equipment. |
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![]() You can view the specific content records of the past 4 alarms. |
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The product information recorded on this website is for reference in selecting the model. Please read the 'User Manual' carefully before using it correctly in practice. |
- Standard Specifications -3-phase 200V Series
- Standard Specifications -3-phase 400V Series
- Standard Specification - Single Phase 200V Series
- Standard specification PG interface card built-in type -3-phase 200V series
- Standard specification PG interface card built-in type -3-phase 400V series
- Standard specification PG interface card built-in type - single-phase 200V series
- Standard specification RS-485 communication built-in type -3-phase 200V series
- Standard specification RS-485 communication built-in type -3-phase 400V series
- Standard specification RS-485 communication built-in type - single-phase 200V series
- Standard specification EMC filter integrated -3-phase 200V series
- Standard specification EMC filter integrated -3-phase 400V series
- Standard specification EMC filter integrated - single-phase 200V series
- General specifications
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) refers to the value of the average braking torque when using an external braking unit (optional/standard model). |
(* 8) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 9) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) refers to the value of the average braking torque when using an external braking unit (optional/standard model). |
(* 8) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 9) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3 cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) refers to the value of the average braking torque when using an external braking unit (optional/standard model). |
(* 8) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 9) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 8) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 8) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 8) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 8) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 8) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 8) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 8) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 8) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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(* 1) The standard applicable motor refers to Fuji Electric's 4-pole standard motor. |
(* 2) Rated capacity refers to the situation where 200V series: 220V rated/400V series: 440V rated. |
(* 3) Cannot output voltage higher than the power supply voltage. |
(* 4) refers to the situation where the carrier frequency (function code F26) is set to below 3kHz. When the carrier frequency is above 4kHz, please use a current below () for 100% continuous operation. |
(* 5) represents the value when using a DC reactor (DCR). |
(* 6) The average braking torque of the motor unit when decelerating from 60Hz under AVR control OFF. (Changes with the efficiency of the electric motor.) |
(* 7) Phase to phase imbalance rate [%]=(maximum voltage [V] - minimum voltage [V])/3-phase average voltage (V) × 67 (refer to IEC61800-3) When using with an imbalance rate of 2-3%, please use an AC reactor (ACR: optional accessory). |
(* 8) refers to the calculated value when the power supply capacity is 500kVA (10 times the capacity of the frequency converter when the capacity exceeds 50kVA) and connected to a power supply with% X=5%. |
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Note 1) The PG interface card built-in type and RS-485 communication card built-in type have the same size as the standard type. Note 2) The * * at the end of the model may sometimes be English letters and numbers depending on the model. **: None (standard type), 1P (PG interface card built-in type), 12 (RS-485 communication card built-in type). |
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Note 1) The PG interface card built-in type and RS-485 communication card built-in type have the same size as the standard type. Note 2) The * * at the end of the model may sometimes be English letters and numbers depending on the model. **: None (standard type), 1P (PG interface card built-in type), 12 (RS-485 communication card built-in type). |
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■ Use the control panel to operate, stop, and set the frequency | |
[Wiring sequence] (1) Perform wiring for the main circuit section. |
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[Operation Method] (1) Operation and stop: operated through the buttons on the control panel( ![]() (2) Frequency setting: Utilizing ![]() |
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Note 1) | When connecting the DC reactor (DCR) (optional), please remove the short-circuit piece between terminals P1-P (+) and connect it. |
Note 2) | To protect the wiring on the input side (primary side) of the frequency converter, please install our recommended circuit breaker (MCCB) or residual current circuit breaker (ELCB) (with overcurrent protection function) on each frequency converter. Please do not use circuit breakers with recommended capacity or higher. |
Note 3) | When disconnecting the frequency converter separately from the power supply, an electromagnetic contactor (MC) must be used. Please choose the MC we recommend according to the actual usage situation. When the coil of the MC or solenoid is installed near the frequency converter, please use a surge absorber and be sure to connect it in parallel with the coil. |
Note 4) | The "THR" function can be used by assigning code data "9" (external alarm) to terminals X1 to X5, FWD, or REV (function codes E01 to E05, E98, or E99). |
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Using external signals for operation, stopping, and frequency setting | |
[Wiring sequence] (1) Perform wiring for the main circuit section and control circuit section. (2) Convert the functional code ![]() ![]() ![]() ![]() ![]() |
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[Operation Method] (1) Operation and Stop: Operate when there is a short circuit between terminals FWD-CM, and stop when disconnected. (2) Frequency setting: Voltage input (DC 0~+10V), current input (DC+4~20mA), etc. |
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Note 1) | When connecting the DC reactor (DCR) (optional), please remove the short-circuit piece between terminals P1-P (+) and connect it. |
Note 2) | To protect the wiring on the input side (primary side) of the frequency converter, please install the recommended circuit breaker (MCCB) or residual current circuit breaker (ELCB) (with overcurrent protection function) on each frequency converter. Please do not use circuit breakers with recommended capacity or higher. |
Note 3) | When disconnecting the frequency converter separately from the power supply, an electromagnetic contactor (MC) must be used. Please choose the MC we recommend according to the actual usage situation. When the coil of the MC or solenoid is installed near the frequency converter, please use a surge absorber and be sure to connect it in parallel with the coil. |
Note 4) | The "THR" function can be used by assigning code data "9" (external alarm) to terminals X1 to X5, FWD, or REV (function codes E01 to E05, E98, or E99). |
Note 5) | Voltage signals (DC 0~+10V, 0~+5V,+1~+5V) can be input between terminals 12-11, or a frequency setter (external potentiometer) can be connected between terminals 13, 12, and 11 to set the preset frequency. |
Note 6) | Please use twisted pair or shielded wire for the control signal line, and ground the shielding layer. To prevent misoperation caused by noise, please try to stay away from the main circuit wiring and never put it in the same cable tray. (It is recommended to maintain a distance of at least 10 (cm) between them). When crossing, please form a right angle with the main circuit wiring. |
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Using external signals for operation, stopping, and frequency setting | |
[Wiring sequence] (1) Perform wiring for the main circuit section and control circuit section. (2) Convert the functional code ![]() ![]() ![]() ![]() ![]() |
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[Operation Method] (1) Operation and Stop: Operate when there is a short circuit between terminals FWD-CM, and stop when disconnected. (2) Frequency setting: voltage input (terminal 12), current input (terminal C1), etc. |
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Note 1) | When connecting the DC reactor (DCR) (optional), please remove the short-circuit piece between terminals P1-P (+) and connect it. |
Note 2) | To protect the wiring on the input side (primary side) of the frequency converter, please install the recommended circuit breaker (MCCB) or residual current circuit breaker (ELCB) (with overcurrent protection function) on each frequency converter. Please do not use circuit breakers with recommended capacity or higher. |
Note 3) | When disconnecting the frequency converter separately from the power supply, an electromagnetic contactor (MC) must be used. Please choose the MC we recommend according to the actual usage situation. When the coil of the MC or solenoid is installed near the frequency converter, please use a surge absorber and be sure to connect it in parallel with the coil. |
Note 4) | The "THR" function can be used by assigning code data "9" (external alarm) to terminals X1 to X5, FWD, or REV (function codes E01 to E05, E98, or E99). |
Note 5) | Voltage signals (DC 0~+10V or 0~+5V) can be input between terminals 12-11, or a frequency setter (external potentiometer) can be connected between terminals 13, 12, and 11 to set the preset frequency. |
Note 6) | Please use twisted pair or shielded wire for the control signal line, and ground the shielding layer. To prevent misoperation caused by noise, please try to stay away from the main circuit wiring and never put it in the same cable tray. (It is recommended to maintain a distance of at least 10 (cm) between them). When crossing, please form a right angle with the main circuit wiring. |
Note 7) | To prevent interference when connecting the motor, we recommend using a 3-phase 4-wire cable connection. Please connect the grounding wire of the motor to the grounding terminal G of the frequency converter. |
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Using external signals for operation, stopping, and frequency setting | |
[Wiring sequence] (1) Perform wiring for the main circuit section and control circuit section. (2) Convert the functional code ![]() ![]() ![]() ![]() ![]() |
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[Operation Method] (1) Operation and Stop: Operate when there is a short circuit between terminals FWD-CM, and stop when disconnected. (2) Frequency setting: voltage input (terminal 12), current input (terminal C1), etc. |
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Note 1) | When connecting the DC reactor (DCR) (optional), please remove the short-circuit piece between terminals P1-P (+) and connect it. |
Note 2) | To protect the wiring on the input side (primary side) of the frequency converter, please install the recommended circuit breaker (MCCB) or residual current circuit breaker (ELCB) (with overcurrent protection function) on each frequency converter. Please do not use circuit breakers with recommended capacity or higher. |
Note 3) | When disconnecting the frequency converter separately from the power supply, an electromagnetic contactor (MC) must be used. Please choose the MC we recommend according to the actual usage situation. When the coil of the MC or solenoid is installed near the frequency converter, please use a surge absorber and be sure to connect it in parallel with the coil. |
Note 4) | The "THR" function can be used by assigning code data "9" (external alarm) to terminals X1 to X5, FWD, or REV (function codes E01 to E05, E98, or E99). |
Note 5) | Voltage signals (DC 0~+10V or 0~+5V) can be input between terminals 12-11, or a frequency setter (external potentiometer) can be connected between terminals 13, 12, and 11 to set the preset frequency. |
Note 6) | Please use twisted pair or shielded wire for the control signal line, and ground the shielding layer. To prevent misoperation caused by noise, please try to stay away from the main circuit wiring and never put it in the same cable tray. (It is recommended to maintain a distance of at least 10 (cm) between them). When crossing, please form a right angle with the main circuit wiring. |
Note 7) | To prevent interference when connecting the motor, we recommend using a 3-phase 4-wire cable connection. Please connect the grounding wire of the motor to the grounding terminal G of the frequency converter. |
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