Page 1 INVERTER FR-A700 INSTRUCTION MANUAL (Applied) FR-A720-0.4K to 90K FR-A740-0.4K to 500K OUTLINE WIRING PRECAUTIONS FOR USE OF THE INVERTER PARAMETERS PROTECTIVE FUNCTIONS PRECAUTIONS FOR MAINTENANCE AND INSPECTION SPECIFICATIONS...
Page 2 Thank you for choosing this Mitsubishi Inverter. This Instruction Manual provides instructions for advanced use of the FR-A700 series inverters. Incorrect handling might cause an unexpected fault. Before using the inverter, always read this Instruction Manual and the Instruction Manual (basic) [IB-0600225ENG] packed with the product carefully to use the equipment to its optimum.
Page 3 CAUTION CAUTION (2) Wiring • Do not install a power factor correction capacitor, surge • The electronic thermal relay function does not guarantee suppressor or radio noise filter on the inverter output side. protection of the motor from overheating. It is recommended to These devices on the inverter output side may be overheated install both an external thermal and PTC thermistor for or burn out.
Page 4: Table Of Contents
CONTENTS OUTLINE Product checking and parts identification ............2 Inverter and peripheral devices ................3 1.2.1 Peripheral devices ........................4 Method of removal and reinstallation of the front cover........6 Installation of the inverter and enclosure design ..........8 1.4.1 Inverter installation environment....................
Page 5 2.5.7 Connection of power regeneration converter (MT-RC)............49 2.5.8 Connection of the power factor improving DC reactor (FR-HEL) ..........49 PRECAUTIONS FOR USE OF THE INVERTER EMC and leakage currents ................52 3.1.1 Leakage currents and countermeasures ................. 52 3.1.2 EMC measures ........................54 3.1.3 Power supply harmonics......................
Page 6 4.4.8 Notch filter (Pr. 862, Pr. 863) ....................118 Torque control by Real sensorless vector control, vector control .... 119 4.5.1 Torque control ........................119 4.5.2 Setting procedure of Real sensorless vector control (torque control) ........123 4.5.3 Setting procedure of vector control (torque control) ............124 4.5.4 Torque command (Pr.
Page 7 4.11.3 Input compensation of multi-speed and remote setting (Pr. 28) ........... 169 4.11.4 Remote setting function (Pr. 59) ................... 169 4.12 Setting of acceleration/deceleration time and acceleration/deceleration pattern ..............172 4.12.1 Setting of the acceleration and deceleration time (Pr. 7, Pr. 8, Pr. 20, Pr. 21, Pr.
Page 8 4.16.1 Speed display and speed setting (Pr. 37, Pr. 144, Pr. 505, Pr. 811) ........251 4.16.2 DU/PU, FM, AM terminal monitor display selection (Pr. 52, Pr. 54, Pr. 158, Pr. 170, Pr. 171, Pr. 268, Pr. 563, Pr. 564, Pr. 891) ................253 4.16.3 Reference of the terminal FM (pulse train output) and AM (analog voltage output) (Pr.
Page 9 4.23 Selection of operation mode and operation location ........313 4.23.1 Operation mode selection (Pr. 79)..................313 4.23.2 Operation mode at power ON (Pr. 79, Pr. 340) ..............321 4.23.3 Start command source and frequency command source during communication operation (Pr. 338, Pr. 339, Pr. 550, Pr. 551)..........322 4.24 Communication operation and setting............
Page 10 4.30 Check and clear of the faults history ............399 PROTECTIVE FUNCTIONS Reset method of protective function ............. 402 List of fault or alarm display ................403 Causes and corrective actions ............... 404 Correspondences between digital and actual characters ......418 Check first when you have a trouble .............
Page 11 6.2.5 Measurement of inverter input power factor ................438 6.2.6 Measurement of converter output voltage (across terminals P/+ - N/-) ......... 439 6.2.7 Measurement of inverter output frequency ................439 6.2.8 Insulation resistance test using megger ................439 6.2.9 Pressure test.......................... 439 SPECIFICATIONS Inverter rating ....................442 Motor rating ......................444...
Page 12: Outline
OUTLINE This chapter describes the basic "OUTLINE" for use of this product. Always read the instructions before using the equipment. 1.1 Product checking and parts identification....2 1.2 Inverter and peripheral devices .......3 1.3 Method of removal and reinstallation of the front cover ...............6 1.4 Installation of the inverter and enclosure design ..8 <Abbreviations>...
Page 13: Product Checking And Parts Identification
Product checking and parts identification 1.1 Product checking and parts identification Unpack the inverter and check the capacity plate on the front cover and the rating plate on the inverter side face to ensure that the product agrees with your order and the inverter is intact. •...
Page 14: Inverter And Peripheral Devices
Inverter and peripheral devices 1.2 Inverter and peripheral devices USB connector Three-phase AC power supply A personal computer and an inverter can Use within the permissible power supply be connected with a USB (Ver1. 1) cable. specifications of the inverter. (Refer to page 360) (Refer to page 442) Inverter (FR-A700)
Page 15: Peripheral Devices
Motor Output (NF or NV type) (kW) Applicable Inverter Model Power factor improving Power factor improving (AC or DC) reactor (AC or DC) reactor without with without with FR-A720-0.4K S-N10 S-N10 0.75 FR-A720-0.75K S-N10 S-N10 FR-A720-1.5K S-N10 S-N10 FR-A720-2.2K S-N10 S-N10 FR-A720-3.7K...
Page 16 Inverter and peripheral devices 400V class Moulded Case Circuit Breaker (MCCB) or Earth Leakage Input Side Magnetic Contactor Circuit Breaker (ELB) Motor Output (NF or NV type) (kW) Applicable Inverter Model Power factor improving Power factor improving (AC or DC) reactor (AC or DC) reactor without with...
Page 17: Method Of Removal And Reinstallation Of The
Method of removal and reinstallation of the front cover 1.3 Method of removal and reinstallation of the front cover •Removal of the operation panel 1) Loosen the two screws on the operation panel. 2) Push the left and right hooks of the operation panel (These screws cannot be removed.) and pull the operation panel toward you to remove.
Page 18 Method of removal and reinstallation of the front cover 30K or higher • Removal 1) Remove mounting screws on the 2) Loosen the mounting 3) Pull the front cover 2 toward you to remove front cover 1 to remove the front screws of the front cover 2.
Page 19: Installation Of The Inverter And Enclosure Design
Installation of the inverter and enclosure design 1.4 Installation of the inverter and enclosure design When an inverter enclosure is to be designed and manufactured, heat generated by contained equipment, etc., the environment of an operating place, and others must be fully considered to determine the enclosure structure, size and equipment layout.
Page 20 Installation of the inverter and enclosure design (3) Dust, dirt, oil mist Dust and dirt will cause such faults as poor contact of contact points, reduced insulation or reduced cooling effect due to moisture absorption of accumulated dust and dirt, and in-enclosure temperature rise due to clogged filter. In the atmosphere where conductive powder floats, dust and dirt will cause such faults as malfunction, deteriorated insulation and short circuit in a short time.
Page 21: Cooling System Types For Inverter Enclosure
Installation of the inverter and enclosure design 1.4.2 Cooling system types for inverter enclosure From the enclosure that contains the inverter, the heat of the inverter and other equipment (transformers, lamps, resistors, etc.) and the incoming heat such as direct sunlight must be dissipated to keep the in-enclosure temperature lower than the permissible temperatures of the in-enclosure equipment including the inverter.
Page 22 Installation of the inverter and enclosure design (2) Clearances around the inverter To ensure ease of heat dissipation and maintenance, leave at least the shown clearances around the inverter. At least the following clearances are required under the inverter as a wiring space, and above the inverter as a heat dissipation space. (front) Surrounding air temperature and humidity Clearances...
Page 23 MEMO...
Page 24: Wiring
WIRING This chapter describes the basic "WIRING" for use of this product. Always read the instructions before using the equipment. 2.1 Wiring ..............14 2.2 Main circuit terminal specifications......16 2.3 Control circuit specifications........25 2.4 Connection of motor with encoder (vector control) .33 2.5 Connection of stand-alone option units ....40...
Page 25: Wiring
ON/OFF Jumper S1/L21 connecter Earth (Ground) *2. To supply power to the Main circuit *9.The FR-A720-0.4K and 0.75K control circuit separately, are not provided with the EMC remove the jumper across Earth filter ON/OFF connector. (Always on) Control circuit R1/L11 and S1/L21.
Page 26: Emc Filter
ON/OFF connector The FR-A720-0.4K and 0.75K are not provided with the EMC filter ON/OFF connector. (The EMC filter is always valid.) <How to disconnect the connector> (1) Before removing a front cover, check to make sure that the indication of the inverter operation panel is OFF, wait for at least 10 minutes after the power supply has been switched OFF, and check that there are no residual voltage using a tester or the like.
Page 27: Main Circuit Terminal Specifications
· When connecting a dedicated brake resistor (FR-ABR) and brake unit (FR-BU2, FR-BU, BU) remove jumpers across terminals PR-PX (7.5K or lower). For details, refer to page 40. 2.2.2 Terminal arrangement of the main circuit terminal, power supply and the motor wiring. FR-A720-0.4K, 0.75K FR-A720-1.5K to 3.7K FR-A740-0.4K to 3.7K Jumper Jumper...
Page 28 Main circuit terminal specifications FR-A720-5.5K, 7.5K FR-A720-11K FR-A740-5.5K, 7.5K FR-A740-11K, 15K R1/L11 S1/L21 Charge lamp Jumper Charge lamp Jumper P/+ PR Jumper Jumper R1/L11 S1/L21 R/L1 S/L2 T/L3 R/L1 S/L2 T/L3 Power supply Motor Power supply Motor FR-A720-15K to 22K FR-A720-30K to 45K FR-A740-18.5K, 22K FR-A740-30K to 45K...
Page 29 Main circuit terminal specifications FR-A740-75K, 90K FR-A720-75K, 90K FR-A740-110K to 185K R1/L11 S1/L21 R1/L11 S1/L21 Charge lamp Charge lamp Jumper Jumper R/L1 S/L2 T/L3 N/- R/L1 S/L2 T/L3 Power Motor supply DC reactor Power Motor supply DC reactor For option FR-A740-220K to 500K R1/L11 S1/L21 Charge lamp...
Page 30: Cables And Wiring Length
U, V, W P/+, P1 U, V, W U, V, W S/L2, S/L2, (grounding) S/L2, S/L2, (grounding) T/L3 T/L3 cable T/L3 T/L3 cable FR-A720-0.4K to 2.2K FR-A720-3.7K 5.5-4 5.5-4 FR-A720-5.5K M5(M4) 5.5-5 5.5-5 FR-A720-7.5K M5(M4) 14-5 FR-A720-11K 14-5 14-5 FR-A720-15K...
Page 31 Main circuit terminal specifications For the 55K or lower, the cable size is that of the cable (HIV cable (600V class 2 vinyl-insulated cable) etc.) with continuous maximum permissible temperature of 75°C. Assumes that the surrounding air temperature is 50°C or less and the wiring distance is 20m or less. For the 75K or higher, the recommended cable size is that of the cable (LMFC (heat resistant flexible cross-linked polyethylene insulated cable) etc.) with continuous maximum permissible temperature of 90°C.
Page 32 Main circuit terminal specifications (2) Notes on earthing (grounding) Always earth (ground) the motor and inverter. 1)Purpose of earthing (grounding) Generally, an electrical apparatus has an earth (ground) terminal, which must be connected to the ground before use. An electrical circuit is usually insulated by a insulating material and encased. However, it is impossible to manufacture an insulating material that can shut off a leakage current completely, and actually, a slight current flow into the case.
Page 33 Main circuit terminal specifications (3) Total wiring length The overall wiring length for connection of a single motor or multiple motors should be within the value in the table below. (The wiring length should be 100m maximum for vector control.) Pr.
Page 34: When Connecting The Control Circuit And The Main Circuit Separately To The Power Supply
Do not connect the power cable to incorrect terminals. Doing so may R1/L11 damage the inverter. S1/L21 Remove the jumper • FR-A720-0.4K to 3.7K, FR-A740-0.4K to 3.7K 1) Loosen the upper screws. 2) Remove the lower screws. 3) Remove the jumper 4) Connect the separate power...
Page 35 Main circuit terminal specifications • FR-A720-11K or higher, FR-A740-11K or higher 1) Remove the upper screws. 2) Remove the lower screws. L21 Power supply 3) Pull the jumper toward you to terminal block remove. for the control circuit Power supply terminal block 4) Connect the separate power supply for the control circuit R/L1S/L2 T/L3...
Page 36: Control Circuit Specifications
Control circuit specifications 2.3 Control circuit specifications 2.3.1 Control circuit terminals indicates that terminal functions can be selected using Pr. 178 to Pr. 196 (I/O terminal function selection) (Refer to page 231.) (1) Input signals Terminal Terminal Rated Refer to Description Symbol Name...
Page 37 Control circuit specifications Terminal Terminal Rated Refer to Description Symbol Name Specifications page External Connect this terminal to the power supply common terminal of a transistor transistor output (open collector output) device, such as a common programmable controller, in the sink logic to avoid malfunction by Power supply (sink) undesirable currents.
Page 38 Control circuit specifications Terminal Terminal Rated Refer to Description Symbol Name Specifications page Switched low when the inverter output frequency is equal to or Inverter higher than the starting frequency (initial value 0.5Hz). Switched running high during stop or DC injection brake operation. Switched low when the output Permissible load frequency reaches within the range of...
Page 39: Changing The Control Logic
Control circuit specifications 2.3.2 Changing the control logic The input signals are set to sink logic (SINK) when shipped from the factory. To change the control logic, the jumper connector on the back of the control circuit terminal block must be moved to the other position.
Page 40 Control circuit specifications 4) Sink logic and source logic ⋅ In sink logic, a signal switches ON when a current flows from the corresponding signal input terminal. Terminal SD is common to the contact input signals. Terminal SE is common to the open collector output signals. ⋅...
Page 41: Wiring Of Control Circuit
Control circuit specifications 2.3.3 Wiring of control circuit (1) Control circuit terminal layout Control circuit terminal * C2 10E 10 Terminal screw size: M3.5 Tightening torque: 1.2N·m * Refer to instruction manuals of STOP options for the available control terminals other than the standard control circuit terminal.
Page 42: Wiring Instructions
Control circuit specifications 2.3.4 Wiring instructions It is recommended to use the cables of 0.75mm gauge for connection to the control circuit terminals. If the cable gauge used is 1.25mm or more, the front cover may be lifted when there are many cables running or the cables are run improperly, resulting in an operation panel contact fault.
Page 43: Mounting The Operation Panel (Fr-Du07) Or Parameter Unit (Fr-Pu07) On The Enclosure Surface
Control circuit specifications 2.3.5 Mounting the operation panel (FR-DU07) or parameter unit (FR-PU07) on the enclosure surface Having an operation panel or a parameter unit on the enclosure surface is convenient. With a connection cable, you can mount the operation panel (FR-DU07) or the parameter unit (FR-PU07) to the enclosure surface, and connect it to the inverter.
Page 44: Connection Of Motor With Encoder (Vector Control)
Connection of motor with encoder (vector control) 2.4 Connection of motor with encoder (vector control) Orientation control and encoder feedback control, and speed control, torque control and position control by full-scale vector control operation can be performed using a motor with encoder and a plug-in option FR-A7AP. (1) Structure of the FR-A7AP Mounting Terminal...
Page 45 Connection of motor with encoder (vector control) (3) Switches of the FR-A7AP • Encoder specification selection switch (SW1) Differential line Select either differential line driver or complementary driver (initial status) It is initially set to the differential line driver. Switch its position according to output circuit.
Page 46 Connection of motor with encoder (vector control) (4) Encoder Cable SF-JR Motor with Encoder SF-V5RU, SF-THY Inverter side Encoder side F-DPEVSB 12P 0.2mm MS3057-12A MS3057-12A connector Approx. 140mm F-DPEVSB 12P 0.2mm Earth cable Earth cable 60mm 60mm MS3106B20-29S MS3106B20-29S Type Length L (m) ⋅...
Page 47: Speed Control
Connection of motor with encoder (vector control) Connection terminal compatibility table Motor SF-V5RU, SF-THY SF-JR/HR/JRCA/HRCA (with Encoder) Encoder cable FR-V7CBL FR-JCBL Keep this open. Keep this open. FR-A7AP terminal Keep this open. (5) Wiring • Speed control Vector control dedicated motor Standard motor with encoder (SF-JR), 5V differential line driver (SF-V5RU, SF-THY), 12V complementary...
Page 48 Connection of motor with encoder (vector control) • Position control Vector control dedicated motor (SF-V5RU, SF-THY), 12V complementary MCCB SF-V5RU, SF-THY Three-phase AC power supply MCCB Positioning unit Three-phase R/L1 MELSEQ-Q QD75P1 Inverter AC power S/L2 supply T/L3 Earth (ground) Thermal External thermal protector...
Page 49: Initial Setting
Connection of motor with encoder (vector control) (6) Instructions for encoder cable wiring Example of parallel connection • Use shielded twisted pair cables (0.2mm or larger) to connect the FR-A7AP with two cables and position detector. Cables to terminals PG and SD should be connected in (with complementary encoder output) parallel or be larger in size according to the cable length.
Page 50 Connection of motor with encoder (vector control) ♦Parameters referred to♦ Vector control (speed control) Refer to page 98. Vector control (torque control) Refer to page 124. Vector control (position control) Refer to page 132. Orientation control Refer to page 220. Encoder feedback control Refer to page 381.
Page 51: Connection Of Stand-Alone Option Units
⋅ Pr. 30 Regenerative function selection = "1" ⋅ Pr. 70 Special regenerative brake duty = "7.5K or lower: 10%, 11K or higher: 6%" (Refer to page 207) FR-A720-0.4K to 0.75K FR-A720-1.5 to 3.7K, FR-A740-0.4K to 3.7K 1) Remove the screws in terminals...
Page 52 Connection of stand-alone option units FR-A720-11K, FR-A740-11K, 15K FR-A720-15K to 22K, FR-A740-18.5K, 22K Connect the brake resistor Connect the brake resistor across terminals P/+ and PR. across terminals P/+ and PR. Jumper * Terminal PR Terminal P/+ Terminal PR Terminal P/+ Jumper Brake resistor Brake resistor...
Page 53: Connection Of The Brake Unit (Fr-Bu2)
Connection of stand-alone option units 2.5.2 Connection of the brake unit (FR-BU2) Connect the brake unit (FR-BU2) as shown below to improve the braking capability at deceleration. (1) Connection example with the GRZG type discharging resistor OCR contact GRZG type discharging resistor MCCB External thermal...
Page 54 Connection of stand-alone option units (2) FR-BR-(H) connection example with resistor unit FR-BR MCCB Motor R/L1 Three phase AC S/L2 power supply T/L3 FR-BU2 Inverter 5m or less Connect the inverter terminals (P/+, N/-) and brake unit (FR-BU2) terminals so that their terminal names match with each other. (Incorrect connection will damage the inverter and brake unit.) When the power supply is 400V class, install a step-down transformer.
Page 55: Connection Of The Brake Unit (Fr-Bu/Mt-Bu5)
Connection of stand-alone option units 2.5.3 Connection of the brake unit (FR-BU/MT-BU5) When connecting the brake unit (FR-BU(H)/MT-BU5) to improve the brake capability at deceleration, make connection as shown below. (1) Connection with the FR-BU (55K or lower) FR-BR MCCB Motor R/L1 Three-phase AC...
Page 56 Connection of stand-alone option units (2) Connection with the MT-BU5 (75K or higher) After making sure that the MT-BU5 is properly connected, set the following parameters. Pr. 30 Regenerative function selection = "1" Pr. 70 Special regenerative brake duty = "10%" (Refer to page 207) MCCB Motor R/L1...
Page 57: Connection Of The Brake Unit (Bu Type)
Connection of stand-alone option units 2.5.4 Connection of the brake unit (BU type) Connect the brake unit (BU type) correctly as shown below. Incorrect connection will damage the inverter. Remove the jumper across terminals HB-PC and terminals TB-HC of the brake unit and fit it across terminals PC-TB. Inverter MCCB Motor...
Page 58 Connection of stand-alone option units (2) Connection with the MT-HC (75K or higher) After making sure the wiring is correct, set the following parameters. Pr. 19 Base frequency voltage (under V/F control) or Pr. 83 Rated motor voltage (under a control method other than V/F control) = "rated motor voltage"...
Page 59: Connection Of The Power Regeneration Common Converter (Fr-Cv)
Connection of stand-alone option units 2.5.6 Connection of the power regeneration common converter (FR-CV) When connecting the power regeneration common converter (FR-CV), make connection so that the inverter terminals (P/+, N/-) and the terminal symbols of the power regeneration common converter (FR-CV) are the same (55K or lower). After making sure that the wiring is correct, set "2"...
Page 60: Connection Of Power Regeneration Converter (Mt-Rc)
Connection of stand-alone option units 2.5.7 Connection of power regeneration converter (MT-RC) When connecting a power regeneration converter (MT-RC), perform wiring securely as shown below. Incorrect connection will damage the regeneration converter and inverter (75K or higher). After connecting securely, set "1" in Pr. 30 Regenerative function selection and "0"...
Page 61 MEMO...
Page 62: Precautions For Use Of The Inverter
PRECAUTIONS FOR USE OF THE INVERTER This chapter explains the "PRECAUTIONS FOR USE OF THE INVERTER" for use of this product. Always read the instructions before using the equipment. 3.1 EMC and leakage currents........52 3.2 Installation of a reactor ..........60 3.3 Power-off and magnetic contactor (MC)....61 3.4 Inverter-driven 400V class motor ......62 3.5 Precautions for use of the inverter ......63...
Page 63: Emc And Leakage Currents
EMC and leakage currents 3.1 EMC and leakage currents 3.1.1 Leakage currents and countermeasures Capacitances exist between the inverter I/O cables, other cables and earth and in the motor, through which a leakage current flows. Since its value depends on the static capacitances, carrier frequency, etc., low acoustic noise operation at the increased carrier frequency of the inverter will increase the leakage current.
Page 64 22(1)* Phase grounding Earthed-neutral system *For the FR-A720-0.4K and 0.75K, the EMC filter is always valid. The leakage current is 1mA. CAUTION ⋅ Install the earth leakage breaker (ELB) on the input side of the inverter. ⋅ In the connection earthed-neutral system, the sensitivity current is blunt against an earth (ground) fault in the inverter output side.
Page 65: Emc Measures
EMC and leakage currents 3.1.2 EMC measures Some electromagnetic noises enter the inverter to malfunction it and others are radiated by the inverter to malfunction peripheral devices. Though the inverter is designed to have high immunity performance, it handles low-level signals, so it requires the following basic techniques.
Page 66 EMC and leakage currents Noise Propagation Measures Path When devices that handle low-level signals and are liable to malfunction due to electromagnetic noises, e.g. instruments, receivers and sensors, are contained in the enclosure that contains the inverter or when their signal cables are run near the inverter, the devices may be malfunctioned by air-propagated electromagnetic noises.
Page 67: Power Supply Harmonics
EMC and leakage currents 3.1.3 Power supply harmonics The inverter may generate power supply harmonics from its converter circuit to affect the power generator, power capacitor etc. Power supply harmonics are different from noise and leakage currents in source, frequency band and transmission path.
Page 68: Harmonic Suppression Guidelines
EMC and leakage currents 3.1.4 Harmonic Suppression Guidelines Harmonic currents flow from the inverter to a power receiving point via a power transformer. The Harmonic Suppression Guidelines were established to protect other consumers from these outgoing harmonic currents. The three-phase 200V input specifications 3.7kW or less are previously covered by "Harmonic Suppression Guidelines for Household Appliances and General-purpose Products"...
Page 69 EMC and leakage currents 1) Calculation of equivalent capacity P0 of harmonic generating equipment The "equivalent capacity" is the capacity of a 6-pulse converter converted from the capacity of consumer's harmonic generating equipment and is calculated with the following equation. If the sum of equivalent capacities is higher than the limit in Table 3, harmonics must be calculated with the following procedure: P0 = Σ...
Page 70 EMC and leakage currents 3) Harmonic suppression technique requirement If the outgoing harmonic current is higher than the maximum value per 1kW (contract power) × contract power, a harmonic suppression technique is required. 4) Harmonic suppression techniques Item Description Reactor installation Install an AC reactor (FR-HAL) on the AC side of the inverter or a DC reactor (FR-HEL) on (FR-HAL, FR-HEL) its DC side or both to suppress outgoing harmonic currents.
Page 71: Installation Of A Reactor
Installation of a reactor 3.2 Installation of a reactor When the inverter is connected near a large-capacity power transformer (1000kVA or more) or when a power capacitor is to be switched over, an excessive peak current may flow in the power input circuit, damaging the converter circuit. To prevent this, always install the optional AC reactor (FR-HAL) AC reactor Inverter...
Page 72: Power-Off And Magnetic Contactor (Mc)
Power-off and magnetic contactor (MC) 3.3 Power-off and magnetic contactor (MC) (1) Inverter input side magnetic contactor (MC) On the inverter input side, it is recommended to provide an MC for the following purposes. Refer to page 4 for selection.) 1) To release the inverter from the power supply when a fault occurs or when the drive is not functioning (e.g.
Page 73: Inverter-Driven 400V Class Motor
Inverter-driven 400V class motor 3.4 Inverter-driven 400V class motor In the PWM type inverter, a surge voltage attributable to wiring constants is generated at the motor terminals. Especially for a 400V class motor, the surge voltage may deteriorate the insulation. When the 400V class motor is driven by the inverter, consider the following measures: Measures It is recommended to take either of the following measures:...
Page 74: Precautions For Use Of The Inverter
Precautions for use of the inverter 3.5 Precautions for use of the inverter The FR-A700 series is a highly reliable product, but using incorrect peripheral circuits or incorrect operation/handling methods may shorten the product life or damage the product. Before starting operation, always recheck the following items. (1) Use crimping terminals with insulation sleeve to wire the power supply and motor.
Page 75 Precautions for use of the inverter (13) Provide electrical and mechanical interlocks for MC1 and MC2 which are used for bypass operation. Interlock When the wiring is incorrect or if there is an electronic bypass Power R/L1 circuit as shown on the right, the inverter will be damaged by supply S/L2 leakage current from the power supply when it is connected to...
Page 76: Failsafe Of The System Which Uses The Inverter
Failsafe of the system which uses the inverter 3.6 Failsafe of the system which uses the inverter When a fault occurs, the inverter trips to output a fault signal. However, a fault output signal may not be output at an inverter fault occurrence when the detection circuit or output circuit fails, etc.
Page 77 Failsafe of the system which uses the inverter 4) Checking the motor operating status by the start signal input to the inverter and inverter output current detection signal. The output current detection signal (Y12 signal) is output when the inverter operates and currents flows in the motor. Check if Y12 signal is output when inputting the start signal to the inverter (forward signal is STF signal and reverse signal is STR signal).
Page 78: Parameters
4 PARAMETERS This chapter explains the "PARAMETERS" for use of this product. Always read this instructions before use. The following marks are used to indicate the controls as below..V/F control .. Advanced magnetic flux vector control Magnetic flux Magnetic flux Magnetic flux ..
Page 79: Operation Panel (Fr-Du07)
Operation panel (FR-DU07) 4.1 Operation panel (FR-DU07) 4.1.1 Parts of the operation panel (FR-DU07) Operation mode indicator PU: Lit to indicate PU operation mode. EXT: Lit to indicate External operation mode. NET: Lit to indicate Network operation mode. Rotation direction indicator FWD: Lit when forward rotation REV: Lit when reverse rotation Forward/reverse operation...
Page 80: Basic Operation (Factory Setting)
Operation panel (FR-DU07) 4.1.2 Basic operation (factory setting) Operation mode switchover At power-ON (External operation mode) PU Jog operation mode (Refer to page 70) (Example) Value change and frequency flicker. PU operation mode Frequency setting has been (output frequency monitor) written and completed!! Output current monitor Output voltage monitor...
Page 81: Changing The Parameter Setting Value
Operation panel (FR-DU07) 4.1.3 Changing the parameter setting value Changing example Change the Pr. 1 Maximum frequency . Operation Screen at power-ON The monitor display appears. Operation mode change Press to choose the PU operation mode. [PU] indicator is lit. Parameter setting mode Press to choose the parameter setting mode.
Page 82: Parameter List
Parameter List 4.2 Parameter List 4.2.1 Parameter list For simple variable-speed operation of the inverter, the initial value of the parameters may be used as they are. Set the necessary parameters to meet the load and operational specifications. Parameter setting, change and check can be made from the operation panel (FR-DU07).
Page 83 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page Up-to-frequency sensitivity 0 to 100% 0.1% Output frequency detection 0 to 400Hz 0.01Hz Output frequency detection for reverse 0 to 400Hz, 9999 0.01Hz 9999 rotation Second acceleration/deceleration time...
Page 84 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page 148, 0.4 to 55kW, 9999/ Motor capacity 0.01/0.1kW 9999 0 to 3600kW, 9999 148, 2, 4, 6, 8, 10, 12, 14, 16, Number of motor poles 9999 18, 20, 9999 0.01/0.1A...
Page 85 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page PID control automatic switchover 0.01Hz 9999 0 to 400Hz, 9999 frequency 10, 11, 20, 21, 50, 51, 60, PID action selection PID proportional band 0.1 to 1000%, 9999 0.1% 100%...
Page 86 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page Output current detection signal 0 to 10s, 9999 0.1s 0.1s retention time Output current detection operation 0, 1 selection ⎯ Parameter for manufacturer setting. Do not set. ⎯...
Page 87 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page RUN terminal function selection 0 to 8, 10 to 20, 25 to 28, 30 to 36, 39, 41 to 47, 55, SU terminal function selection 64, 70, 83 to 85, 90 to 99, 100 to 108, 110 to 116, IPF terminal function selection...
Page 88 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page Power failure stop selection 0, 1, 2, 11, 12 Subtracted frequency at deceleration 0.01Hz 0 to 20Hz start 0.01Hz Subtraction starting frequency 0 to 120Hz, 9999 0.1/0.01s Power-failure deceleration time 1 0 to 3600/360s...
Page 89 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page RS-485 communication station number 0 to 31(0 to 247) 3, 6, 12, 24, RS-485 communication speed 48, 96, 192, 384 RS-485 communication stop bit length 0, 1, 10, 11 RS-485 communication parity check 0, 1, 2...
Page 90 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page Orientation selection Orientation speed gain (P term) 0 to 1000 0.001s 0.333s Orientation speed integral time 0 to 20s Orientation speed gain (D term) 0 to 100 Orientation deceleration ratio 0 to 1000...
Page 91 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page Digital position control sudden stop 0 to 360s 0.1s deceleration time First position feed amount lower 4 digits 0 to 9999 First position feed amount upper 4 digits 0 to 9999 Second position feed amount lower 4 digits 0 to 9999 Second position feed amount upper 4 digits 0 to 9999...
Page 92 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page Current average time 0.1 to 1.0s 0.1s 0.1s Data output mask time 0.0 to 20s Rated Current average value monitor signal 0 to 500/0 to 3600A 0.01/0.1A inverter output reference current...
Page 93 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page Speed control P gain 1 0 to 1000% Speed control integral time 1 0 to 20s 0.001s 0.333s Speed setting filter 1 0 to 5s, 9999 0.001s 9999 0.001s...
Page 94 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page Speed feed forward control/model 0, 1, 2 adaptive speed control selection 0.01s Speed feed forward filter 0 to 1s 0.1% 150% Speed feed forward torque limit 0 to 400% 105, 7 times...
Page 95 Parameter List Minimum Refer Func- Customer Parameter Name Setting Range Setting Initial Value tion Setting Increments Page 0.01Hz Terminal 1 bias frequency (speed) 0 to 400Hz (917) Terminal 1 bias (speed) 0 to 300% 0.1% (917) Terminal 1 gain frequency (speed) 0 to 400Hz 0.01Hz (918)
Page 96 Parameters according to purposes Control mode 4.3.1 What is vector control?..........................89 4.3.2 Change the control method (Pr. 80, Pr. 81, Pr. 451, Pr. 800) ..............92 Speed control by Real sensorless vector control, vector control 4.4.1 Setting procedure of Real sensorless vector control (speed control) ............98 4.4.2 Setting procedure of vector control (speed control) ...................
Page 97 Pr. 516 to Pr. 519) ............................ 176 4.12.4 Shortest acceleration/deceleration and optimum acceleration/deceleration (automatic acceleration/deceleration) (Pr. 61 to Pr. 63, Pr. 292, Pr. 293) ..........180 4.13 Selection and protection of a motor 4.13.1 Motor protection from overheat (Electronic thermal relay function) (Pr. 9, Pr. 51) ........183 4.13.2 Applied motor (Pr.
Page 98 (Pr. 74, Pr. 822, Pr. 826, Pr. 832, Pr. 836, Pr. 849) .................. 292 4.21.5 Bias and gain of frequency setting voltage (current) (Pr. 125, Pr. 126, Pr. 241, C2(Pr. 902) to C7(Pr. 905), C12(Pr. 917) to C15(Pr. 918))......294 4.21.6 Bias and gain of torque (magnetic flux) setting voltage (current) (Pr.
Page 99: Control Mode
Control mode Control mode V/F control (initial setting), Advanced magnetic flux vector control, Real sensorless vector control and vector control are available with this inverter. V/F control ⋅ It controls frequency and voltage so that the ratio of frequency (F) to voltage (V) is constant when changing frequency. Advanced magnetic flux vector control ⋅...
Page 100: What Is Vector Control
Control mode 4.3.1 What is vector control? Vector control is one of the control techniques for driving an induction motor. To help explain vector control, the fundamental equivalent circuit of an induction motor is shown below: r1 : Primary resistance r2 : Secondary resistance : Primary leakage inductance : Secondary leakage inductance...
Page 101 Control mode Block diagram of Real sensorless vector control modulation magnetic pre-excitation φ 2 flux current output control control voltage conversion torque ω speed ω 0 current control control ω FB ω 0 ω FB ω s current conversion slip calculation φ...
Page 102 Control mode (1) Speed control Speed control operation is performed to zero the difference between the speed command (ω*) and actual rotation detection value (ωFB). At this time, the motor load is found and its result is transferred to the torque current controller as a torque current command (iq*).
Page 103: Change The Control Method (Pr. 80, Pr. 81, Pr. 451, Pr. 800)
Control mode 4.3.2 Change the control method (Pr. 80, Pr. 81, Pr. 451, Pr. 800) Set when selecting the Advanced magnetic flux vector control, Real sensorless vector control or vector control. Select a control mode from speed control mode, torque control mode and position control mode under Real sensorless vector control or vector control.
Page 104 Control mode Vector control test operation (Pr. 800 = "9") ⋅ Speed control test operation can be performed even when the motor is not connected. The speed calculation value changes to track the speed command and the transition can be checked with the operation panel and analog signal output at FM and AM.
Page 105 Control mode Switching the control method from the external terminal (MC signal) ⋅ When "12 (2)" is set in Pr. 800 (Pr. 451 ), speed control is selected when the control mode switching signal (MC) is OFF, and torque control is selected when the signal is OFF under Real sensorless vector control and vector control.
Page 106 Control mode Terminal 4 function according to control Real Sensorless Vector Control (Pr. 800 = 12), Vector Control (Pr. 800 = 2) Pr. 858 Setting Speed control (MC signal-OFF) Torque control (MC signal-ON) 0 (initial value) Speed command (AU signal-ON) Speed limit (AU signal-ON) Magnetic flux command * Magnetic flux command *...
Page 107: Speed Control By Real Sensorless Vector Control, Vector Control
Speed control by Real sensorless vector control, vector control 4.4 Speed control by Real sensorless vector control, vector control Purpose Parameter that should be Set Refer to Page Pr. 22, Pr. 803, Pr. 810, To perform torque limit during speed control Torque limit Pr.
Page 108 Speed control by Real sensorless vector control, vector control Speed feed forward control Speed feed forward Speed feed torque limit forward [Pr. 879] filter [Pr. 878] Load inertia ratio Speed feed forward gain [Pr. 880] [Pr. 881] Model adaptive speed control J [Pr.
Page 109: Setting Procedure Of Real Sensorless Vector Control (Speed Control)
Speed control by Real sensorless vector control, vector control 4.4.1 Setting procedure of Real sensorless vector control (speed control) Sensorless Sensorless Sensorless Perform secure wiring. (Refer to page 14.) Set the motor. (Pr. 71) (Refer to page 187.) Set "3" (standard motor) or "13" (constant-torque motor) in Pr. 71 Applied motor.
Page 110: Setting Procedure Of Vector Control (Speed Control)
Speed control by Real sensorless vector control, vector control 4.4.2 Setting procedure of vector control (speed control) Vector Vector Vector Perform secure wiring. (Refer to page 36.) Mount the FR-A7AP/FR-A7AL (option). Set the motor and encoder. (Pr. 71, Pr. 359, Pr. 369) Set Pr.
Page 111: Torque Limit Level Setting For Speed Control (Pr. 22, Pr. 157, Pr. 803, Pr. 810 To Pr. 817, Pr. 858, Pr. 868, Pr. 874)
Speed control by Real sensorless vector control, vector control 4.4.3 Torque limit level setting for speed control (Pr. 22, Pr. 157, Pr. 803, Pr. 810 to Pr. 817, Pr. 858, Pr. 868, Pr. 874) Sensorless Sensorless Sensorless Vector Vector Vector This function limits the output torque to the predetermined value during speed control under Real sensorless vector control or vector control.
Page 112 Speed control by Real sensorless vector control, vector control (1) Torque limit block diagram <Vector control> Torque limit Iq current control Speed control Speed command + Encoder (2) Selection of torque limit input method (Pr. 810) ⋅ Set Pr. 810 Torque limit input method selection to select the method to limit output torque during speed control. Torque limit by parameter setting is initially set.
Page 113 Speed control by Real sensorless vector control, vector control Terminal 1, 4 function according to control ( ⎯ : without function) Real Sensorless Vector Control, Vector Control (Speed Control) Pr. 858 Setting Pr. 868 Setting Terminal 4 function Terminal 1 function Speed setting auxiliary (initial value) Magnetic flux command...
Page 114 Speed control by Real sensorless vector control, vector control (6) Set a torque limit value during acceleration and deceleration individually (Pr. 816, Pr. 817 ) ⋅ You can set torque limit during acceleration and deceleration individually. The following chart shows torque limit according to the settings of Pr. 816 Torque limit level during acceleration and Pr. 817 Torque limit level during deceleration.
Page 115 Speed control by Real sensorless vector control, vector control (9) Trip when torque limit is activated (Pr. 874 ) ⋅ This function can cause a trip if the torque limit is activated Torque to stall the motor. ⋅ The motor stalls if the torque limit is activated under a high load applied during speed control or position control.
Page 116: To Perform High Accuracy/Fast Response Operation (Gain Adjustment Of Real Sensorless Vector Control And Vector Control) (Pr. 818 To Pr. 821, Pr. 830, Pr. 831, Pr. 880)
Speed control by Real sensorless vector control, vector control 4.4.4 To perform high accuracy/fast response operation (gain adjustment of Real sensorless vector control and vector control) (Pr. 818 to Pr. 821, Pr. 830, Pr. 831, Pr. 880) Sensorless Sensorless Sensorless Vector Vector Vector...
Page 117 Speed control by Real sensorless vector control, vector control (2) Easy gain tuning execution procedure (Pr. 819 = "1" load inertia ratio automatic estimation) Easy gain tuning (load inertia ratio automatic estimation) is valid only in the speed control or Pr.
Page 118 Speed control by Real sensorless vector control, vector control (4) Parameters automatically set by easy gain tuning The following table indicates the relationship between easy gain tuning function and gain adjustment parameter. Easy Gain Tuning Selection (Pr. 819 ) Setting a) Inertia estimation result (RAM) by easy gain tuning is displayed.
Page 119 Speed control by Real sensorless vector control, vector control (5) Manual input speed control gain adjustment · Make adjustment when any of such phenomena as unusual machine vibration/noise, low response level and overshoot has occurred. Proportional gain · Pr. 820 Speed control P gain 1 = "60%" (initial value) is equivalent to 120rad/s (speed response of the motor alone).
Page 120 Speed control by Real sensorless vector control, vector control (6) When using a multi-pole motor (8 poles or more) Specially when using a multi-pole motor with more than 8 poles under Real sensorless vector control or vector control, adjust Pr. 820 Speed control P gain 1 and Pr. 824 Torque control P gain 1 according to the motor referring to the following methods.
Page 121 Speed control by Real sensorless vector control, vector control (8) Troubleshooting (speed) Phenomenon Cause Countermeasures (1) The motor wiring is wrong (1) Wiring check Select V/F control (set "9999" in Pr. 80 or Pr. 81 ) and check the rotation direction of the motor. For the SF-V5RU (1500r/min series), set "170V(340V)"...
Page 122 Speed control by Real sensorless vector control, vector control Phenomenon Cause Countermeasures (1) The speed command varies. (1) -1 Check that a correct speed command comes from the command device. (Take measures against noises.) (1) -2 Decrease Pr. 72 PWM frequency selection. (1) -3 Increase Pr.
Page 123: Speed Feed Forward Control, Model Adaptive Speed Control (Pr. 828, Pr. 877 To Pr. 881)
Speed control by Real sensorless vector control, vector control 4.4.5 Speed feed forward control, model adaptive speed control (Pr. 828, Pr. 877 to Pr. 881) Sensorless Sensorless Sensorless Vector Vector Vector By making parameter setting, select the speed feed forward control or model adaptive speed control. The speed feed forward control enhances the trackability of the motor in response to a speed command change.
Page 124 Speed control by Real sensorless vector control, vector control (2) Model adaptive speed control (Pr. 877 = "2") ⋅ The motor's model speed is calculated to feed back the model side speed controller. This model speed is also used as the actual speed controller command. ⋅...
Page 125: Torque Biases (Pr. 840 To Pr. 848)
Speed control by Real sensorless vector control, vector control 4.4.6 Torque biases (Pr. 840 to Pr. 848) Vector Vector Vector This function accelerates the rise of the torque at a start. Adjust the torque at a motor start using the contact signals or analog signals .
Page 126 Speed control by Real sensorless vector control, vector control (2) Setting torque bias amount with the contact input (Pr. 840 = "0") ⋅ Select the torque bias amount in the table below according to the combination of contact signals. ⋅ Set "42" in Pr. 178 to Pr. 189 (input terminal function selection) for the terminal used for X42 signal input and set "43" for the terminal used for X43 signal input to assign functions.
Page 127 Speed control by Real sensorless vector control, vector control (4) Setting torque bias amount with terminal 1 (Pr. 840 = "3") ⋅ C16 Terminal 1 bias command (torque/magnetic flux), C17 Terminal 1 bias (torque/magnetic flux), C18 Terminal 1 gain command (torque/magnetic flux), C19 Terminal 1 gain (torque/magnetic flux), and Pr. 846 Torque bias balance compensation can be set automatically according to the load.
Page 128: Prevent The Motor From Overrunning (Pr. 285, Pr. 853, Pr. 873)
Speed control by Real sensorless vector control, vector control 4.4.7 Prevent the motor from overrunning (Pr. 285, Pr. 853, Pr. 873) Vector Vector Vector This function prevents the motor from overrunning when the load torque is too large and incorrect number of the encoder is set.
Page 129: Notch Filter (Pr. 862, Pr. 863)
Speed control by Real sensorless vector control, vector control 4.4.8 Notch filter (Pr. 862, Pr. 863) Sensorless Sensorless Sensorless Vector Vector Vector You can reduce the response level of speed control in the resonance frequency band of the mechanical system to avoid mechanical resonance.
Page 130: Torque Control By Real Sensorless Vector Control, Vector Control
Torque control by Real sensorless vector control, vector control 4.5 Torque control by Real sensorless vector control, vector control Purpose Parameter that must be Set Refer to Page Selection of torque command source and setting of torque Torque command Pr. 803 to Pr. 806 command value Prevent the motor overspeed Speed limit...
Page 131 Torque control by Real sensorless vector control, vector control Speed limit Analog input offset adjustment Terminal 2 bias [C2, C3 (Pr. 902)] [Pr. 849] Terminal 2 gain [Pr. 125, C4 (Pr. 903)] Terminal 2 Analog input Terminal 4 bias [C5, C6 (Pr. 904)] selection Terminal 4 gain [Pr.
Page 132 Torque control by Real sensorless vector control, vector control (2) Operation transition Speed limit value is increased up to preset value according to the Pr.7 Speed limit value is decreased Speed limit value Acceleration time setting. down to zero according to the Pr.8 Deceleration time setting.
Page 133 Torque control by Real sensorless vector control, vector control (3) Operation example (when Pr. 804 = "0") Torque control is enabled if the actual speed is less than the speed limit value. When the actual speed reaches or exceeds the speed limit value, speed limit operation starts, torque control is stopped, and speed control (proportional control) starts.
Page 134: Setting Procedure Of Real Sensorless Vector Control (Torque Control)
Torque control by Real sensorless vector control, vector control 4.5.2 Setting procedure of Real sensorless vector control (torque control) Sensorless Sensorless Sensorless Perform secure wiring. (Refer to page 14.) Set the motor. (Pr. 71) (Refer to page 187.) Set "3" (standard motor) or "13" (constant torque motor) in Pr. 71 Applied motor.
Page 135: Setting Procedure Of Vector Control (Torque Control)
Torque control by Real sensorless vector control, vector control 4.5.3 Setting procedure of vector control (torque control) Vector Vector Vector Perform secure wiring. (Refer to page 36.) Mount the FR-A7AP/FR-A7AL (option). Set the motor and encoder. (Pr. 71, Pr. 359, Pr. 369) Set Pr.
Page 136: Torque Command (Pr. 803 To Pr. 806)
Torque control by Real sensorless vector control, vector control 4.5.4 Torque command (Pr. 803 to Pr. 806) Sensorless Sensorless Sensorless Vector Vector Vector Torque command source for torque control can be selected. Parameter Initial Setting Name Description Number Value Range Constant motor output Constant power range Select the torque command in the...
Page 137 Torque control by Real sensorless vector control, vector control (3) Torque command using parameters (Pr. 804 = "1") ⋅ Torque command value can be set by setting Pr. 805 Torque command value Torque command value (RAM) or Pr. 806 Torque command value (RAM,EEPROM) .
Page 138: Speed Limit (Pr. 807 To Pr. 809)
Torque control by Real sensorless vector control, vector control (7) Change the torque characteristics in the constant power (Pr. 803) ⋅ Due to the motor characteristics, torque is reduced at or Torque Constant power range above the base frequency. Set "1" in Pr. 803 Constant Constant torque range Pr.
Page 139 Torque control by Real sensorless vector control, vector control (2) Use the speed command for speed control (Pr. 807 = "0" initial value) The speed setting Speed value is a speed ⋅ Set the speed limit in the same method as speed setting Forward rotation limit value.
Page 140 Torque control by Real sensorless vector control, vector control (4) Forward rotation/reverse rotation speed limit (Pr. 807 = "2") ⋅ When making a speed limit using analog input from terminal 1, the speed limit of the forward and reverse rotation can be switched according to the polarity of voltage.
Page 141: Gain Adjustment Of Torque Control (Pr. 824, Pr. 825, Pr. 834, Pr. 835)
Torque control by Real sensorless vector control, vector control 4.5.6 Gain adjustment of torque control (Pr. 824, Pr. 825, Pr. 834, Pr. 835) Sensorless Sensorless Sensorless Vector Vector Vector Although stable operation is possible with the initial value, make adjustment when any of such phenomena as unusual motor and machine vibration/noise and overcurrent has occurred.
Page 142 Torque control by Real sensorless vector control, vector control (4) Adjustment procedure Make adjustment when any of such phenomena as unusual motor and machine vibration/noise/current and overcurrent has occurred. 1)Check the conditions and simultaneously change the Pr. 824 value. 2)If you cannot make proper adjustment, change the Pr. 825 value and repeat step 1). Adjustment Method Set Pr.
Page 143: Position Control By Vector Control
Position control by vector control 4.6 Position control by vector control Purpose Parameter that must be Set Refer to Page Simple position control by Position command by Pr. 419, Pr. 464 to Pr. 494 parameter setting parameter Position control by pulse train input Position command by Pr.
Page 144 Position control by vector control (2) Control block diagram Position command source selection Pr. 4 to 6 Position feed Pr. 465 to Pr. 494 forward Pr. 24 to 27 Pr. 419 travel Position feed command filter Multi-speed, Pr. 232 to 239 forward gain communication Pr.
Page 145: Simple Position Feed Function By Contact Input (Pr. 419, Pr. 464 To Pr. 494)
Position control by vector control REMARKS ⋅ For the servo ON signal (LX), set "23" in Pr. 178 to Pr. 189 (input terminal function selection) to assign the function. ⋅ For the in-position signal (Y36), set "36" in Pr. 190 to Pr. 196 (output terminal function selection) to assign the function. CAUTION Changing the terminal function using any of Pr.
Page 146 Position control by vector control Parameter Setting Name Initial Value Description Number Range Eighth position feed 0 to 9999 amount lower 4 digits × × × 8 speed (Pr. 232) Eighth position feed 0 to 9999 amount upper 4 digits Ninth position feed 0 to 9999 amount lower 4 digits...
Page 147 Position control by vector control (1) Setting of position feed amount by parameter ⋅Set position feed amount in Pr. 465 to Pr. 494 . ⋅The feed amount set in each parameter is selected by multi-speed terminal (RH, RM, RL, REX). ⋅Set (encoder resolution ×...
Page 148: Position Control (Pr. 419, Pr. 428 To Pr. 430) By Inverter Pulse Train Input
Position control by vector control 4.6.3 Position control (Pr. 419, Pr. 428 to Pr. 430) by inverter pulse train input Vector Vector Vector Simple position pulse train command can be input by pulse train input and sign signal (NP) to the JOG terminal. Parameter Setting Name...
Page 149 Position control by vector control (3) Selection of clear signal (Pr. 429, CLR signal) ⋅ Use this function to zero the droop pulse for home position operation, etc. ⋅ When "0" is set in Pr. 429 , the deviation counter is cleared at the edge of turning ON of the clear signal (CLR). In addition, the CLR signal turns ON in synchronization with zero pulse signal of the encoder at home position operation, etc., deviation counter is cleared.
Page 150: Setting Of The Electronic Gear (Pr. 420, Pr. 421, Pr. 424)
Position control by vector control 4.6.4 Setting of the electronic gear (Pr. 420, Pr. 421, Pr. 424) Vector Vector Vector Set the ratio of the machine side gear and the motor side gear. Parameter Setting Name Initial Value Description Number Range Command pulse scaling 0 to 32767 *...
Page 151: Setting Of Positioning Adjustment Parameter (Pr. 426, Pr. 427)
Position control by vector control Relationship between position resolution Δ and overall accuracy Since overall accuracy (positioning accuracy of machine) is the sum of electrical error and mechanical error, normally take measures to prevent the electrical system error from affecting the overall error. As a guideline, refer to the following relationship.
Page 152: Gain Adjustment Of Position Control (Pr. 422, Pr. 423, Pr. 425)
Position control by vector control 4.6.6 Gain adjustment of position control (Pr. 422, Pr. 423, Pr. 425) Vector Vector Vector Easy gain tuning is available as an easy tuning method. Refer to page 105 for easy gain tuning. If it does not produce any effect, make fine adjustment by using the following parameters. Set "0"...
Page 153 Position control by vector control (3) Troubleshooting (Position) Phenomenon Cause Countermeasures (1) The phase sequence of the (1) Check the wiring. (Refer to page 36 ) motor or encoder wiring is wrong. (2) The control mode selection Pr. (2) Check the Pr. 800 setting. (Refer to page 92 ) 800 setting is improper.
Page 154: Trouble Shooting For When Position Control Is Not Exercised Normally
Position control by vector control 4.6.7 Trouble shooting for when position control is not exercised normally Vector Vector Vector Position control is not exercised normally Have you checked the speed control items? Check the speed control measures. Position shift occurs. Have you made the electronic gear setting?
Page 155: Adjustment Of Real Sensorless Vector Control, Vector Control
Adjustment of Real sensorless vector control, vector control 4.7 Adjustment of Real sensorless vector control, vector control Purpose Parameter that should be Set Refer to Page Speed detection filter Stabilize speed and feedback signal Pr. 823, Pr. 827, Pr. 833, Pr. 837 Torque detection filter Change the excitation ratio Excitation ratio...
Page 156: Excitation Ratio (Pr. 854)
Adjustment of Real sensorless vector control, vector control 4.7.2 Excitation ratio (Pr. 854) Sensorless Sensorless Sensorless Sensorless Sensorless Sensorless Sensorless Sensorless Sensorless Vector Vector Vector Decrease the excitation ratio when you want to improve efficiency under light load. (Motor magnetic noise decreases.) Parameter Name...
Page 157: Adjustment Of The Output Torque (Current) Of The Motor
Adjustment of the output torque (current) of the motor 4.8 Adjustment of the output torque (current) of the motor Purpose Parameter that must be Set Refer to Page Set starting torque manually Manual torque boost Pr. 0, Pr. 46, Pr. 112 Pr.
Page 158 Adjustment of the output torque (current) of the motor (2) Set multiple torque boost (RT signal, X9 signal, Pr. 46, Pr. 112) ⋅ Use the second (third) torque boost when changing the torque boost according to application or when using multiple motors by switching between them by one inverter.
Page 159: Advanced Magnetic Flux Vector Control (Pr. 71, Pr. 80, Pr. 81, Pr. 89, Pr. 450, Pr. 451, Pr. 453, Pr. 454, Pr. 569, Pr. 800)
Adjustment of the output torque (current) of the motor 4.8.2 Advanced magnetic flux vector control (Pr. 71, Pr. 80, Pr. 81, Pr. 89, Pr. 450, Pr. 451, Pr. 453, Pr. 454, Pr. 569, Pr. 800) Magnetic flux Magnetic flux Magnetic flux Advanced magnetic flux vector control can be selected by setting the capacity, number and type of motor to be used in Pr.
Page 160: Test Run
Adjustment of the output torque (current) of the motor (1) Selection method of Advanced magnetic flux vector control Perform secure wiring. (Refer to page 14) Set the motor. (Pr. 71) Motor Pr. 71 Setting REMARKS SF-JR 0 (initial value) Mitsubishi standard SF-JR 4P 1.5kW or lower motor Mitsubishi high...
Page 161 Adjustment of the output torque (current) of the motor CAUTION · Uneven rotation slightly increases as compared to the V/F control. (It is not suitable for machines such as grinding machine and wrapping machine which requires less uneven rotation at low speed.) ·...
Page 162: Slip Compensation (Pr. 245 To Pr. 247)
Adjustment of the output torque (current) of the motor 4.8.3 Slip compensation (Pr. 245 to Pr. 247) The inverter output current may be used to assume motor slip to keep the motor speed constant. Parameter Name Initial Value Setting Range Description Number 0.01 to 50%...
Page 163: Stall Prevention Operation
Adjustment of the output torque (current) of the motor 4.8.4 Stall prevention operation (Pr. 22, Pr. 23, Pr. 48, Pr. 49, Pr. 66, Pr. 114, Pr. 115, Pr. 148, Pr. 149, Pr. 154, Pr. 156, Pr. 157, Pr. 858, Pr. 868) Magnetic flux Magnetic flux Magnetic flux...
Page 164 Adjustment of the output torque (current) of the motor CAUTION ⋅ If an overload status lasts long, an inverter trip (e.g. electronic thermal relay function (E.THM)) may occur. ⋅ When Pr. 156 has been set to activate the fast response current limit (initial value), the Pr. 22 setting should not be higher than 170%.
Page 165 Adjustment of the output torque (current) of the motor (4) Set multiple stall prevention operation levels (Pr. 48, Pr. 49, Pr. 114, Pr. 115) ⋅ Setting "9999" in Pr. 49 Second stall prevention operation frequency and turning the RT signal ON make Pr. 48 Second stall prevention operation current valid.
Page 166 Adjustment of the output torque (current) of the motor (5) Stall prevention operation level setting by terminal 1 (terminal 4) (analog variable) (Pr. 148, Pr. 149, Pr. 858, Pr. 868) ⋅ To set the stall prevention operation level using terminal 1 (analog input), set Pr. 868 Terminal 1 Current limit level (%) Set the current limit level at 10V/5V input function assignment to "4".
Page 167 Adjustment of the output torque (current) of the motor (7) Limit the stall prevention operation and fast response current limit operation according to the operating status (Pr. 156) ⋅ Refer to the following table and select whether fast response current limit operation will be performed or not and the operation to be performed at OL signal output.
Page 168: Limiting The Output Frequency
Limiting the output frequency 4.9 Limiting the output frequency Purpose Parameter that must be Set Refer to Page Set upper limit and lower limit of Maximum/minimum Pr. 1, Pr. 2, Pr. 18 output frequency frequency Perform operation by avoiding Frequency jump Pr.
Page 169: Avoiding Mechanical Resonance Points (Frequency Jump) (Pr. 31 To Pr. 36)
Limiting the output frequency 4.9.2 Avoiding mechanical resonance points (Frequency jump) (Pr. 31 to Pr. 36) When it is desired to avoid resonance attributable to the natural frequency of a mechanical system, these parameters allow resonant frequencies to be jumped. Parameter Name Initial Value...
Page 170: V/F Pattern
V/F pattern 4.10 V/F pattern Purpose Parameter that must be Set Refer to Page Base frequency, base Set motor ratings Pr. 3, Pr. 19, Pr. 47, Pr. 113 frequency voltage Select a V/F pattern according to Load pattern selection Pr. 14 applications Automatically set a V/F pattern for Elevator mode (automatic...
Page 171 V/F pattern (3) Base frequency voltage setting (Pr. 19) ⋅ Use Pr. 19 Base frequency voltage to set the base voltage (e.g. rated motor voltage). ⋅ If the setting is less than the power supply voltage, the maximum output voltage of the inverter is as set in Pr. 19. ⋅...
Page 172: Load Pattern Selection (Pr. 14)
V/F pattern 4.10.2 Load pattern selection (Pr. 14) You can select the optimum output characteristic (V/F characteristic) for the application and load characteristics. Parameter Name Initial Value Setting Range Description Number For constant torque load For variable-torque load For constant torque elevators (at reverse rotation boost of 0%) For constant torque elevators (at forward rotation boost of 0%)
Page 173 V/F pattern (4) Change load pattern selection using Pr. 14 RT(X17) Signal Output Characteristics Setting terminal (Pr. 14 = "4, 5") For constant torque load ⋅ Output characteristic can be switched between for (same as when the setting constant torque load and for elevator using the RT is "0") signal or X17 signal.
Page 174: Elevator Mode (Automatic Acceleration/Deceleration) (Pr. 61, Pr. 64, Pr. 292)
V/F pattern 4.10.3 Elevator mode (automatic acceleration/deceleration) (Pr. 61, Pr. 64, Pr. 292) Operation matching a load characteristic of elevator with counterweight can be performed. Parameter Initial Name Setting Range Description Number Value 55K or lower 0 to 500A Set the reference current for elevator mode. Reference current 9999 75K or higher...
Page 175: Adjustable 5 Points V/F (Pr. 71, Pr. 100 To Pr. 109)
V/F pattern 4.10.4 Adjustable 5 points V/F (Pr. 71, Pr. 100 to Pr. 109) A dedicated V/F pattern can be made by freely setting the V/F characteristic between a startup and the base frequency and base voltage under V/F control (frequency voltage/frequency). The torque pattern that is optimum for the machine's characteristic can be set.
Page 176: Frequency Setting By External Terminals
Frequency setting by external terminals 4.11 Frequency setting by external terminals Purpose Parameter that must be Set Refer to Page Make frequency setting by Pr. 4 to Pr. 6, Pr. 24 to Pr. 27, Multi-speed operation combination of terminals Pr. 232 to Pr. 239 Perform jog operation Jog operation Pr.
Page 177 Frequency setting by external terminals (2) Multi-speed setting for 4 or more speeds (Pr. 24 to Pr. 27, Pr. 232 to Pr. 239) ⋅ Frequency from speed 4 to speed 15 can be set according to the combination of the RH, RM, RL and REX signals. Set the running frequencies in Pr.
Page 178: Jog Operation (Pr. 15, Pr. 16)
Frequency setting by external terminals 4.11.2 Jog operation (Pr. 15, Pr. 16) You can set the frequency and acceleration/deceleration time for Jog operation. Jog operation can be performed from either the outside or PU. Can be used for conveyor positioning, test operation, etc. Parameter Initial Name...
Page 179 Frequency setting by external terminals (2) Jog operation from PU Inverter ⋅ Set the PU (FR-DU07/FR-PU07/FR-PU04) to the jog operation mode. Operation is performed only Three-phase AC Motor power supply while the start button is pressed. FR-DU07 Operation Indication Confirmation of the RUN indicator and operation mode indicator The monitor mode should have been selected.
Page 180: Input Compensation Of Multi-Speed And Remote Setting (Pr. 28)
Frequency setting by external terminals 4.11.3 Input compensation of multi-speed and remote setting (Pr. 28) By inputting the frequency setting compensation signal (terminal 1, 2), the speed (frequency) can be compensated for relative to the multi-speed setting or the speed setting by remote setting function. Parameter Name Initial Value...
Page 181 Frequency setting by external terminals (1) Remote setting function ⋅ Use Pr. 59 to select whether the remote setting function is used or not and whether the frequency setting storage function in the remote setting mode is used or not. When Pr.
Page 182 Frequency setting by external terminals REMARKS During Jog operation or PID control operation, the remote setting function is invalid. Setting frequency is "0" ⋅ Even when the remotely-set Remotely-set frequency stored last time frequency is cleared by turning ON the RL (clear) signal after Within 1 minute turn OFF (on) of both the RH Remotely-set frequency stored last time...
Page 183: Setting Of Acceleration/Deceleration Time And Acceleration/Deceleration Pattern
Setting of acceleration/deceleration time and acceleration/deceleration pattern 4.12 Setting of acceleration/deceleration time and acceleration/deceleration pattern Purpose Parameter that must be Set Refer to Page Motor acceleration/deceleration time Pr. 7, Pr. 8, Pr. 20, Pr. 21, Acceleration/deceleration time setting Pr. 44, Pr. 45, Pr. 110, Pr. 111 Starting frequency and start- Starting frequency Pr.
Page 184 Setting of acceleration/deceleration time and acceleration/deceleration pattern (1) Acceleration time setting (Pr. 7, Pr. 20) Pr.20 ⋅ Use Pr. 7 Acceleration time to set the acceleration time required to reach Pr. (60Hz) Running 20 Acceleration/deceleration reference frequency from 0Hz. frequency ⋅...
Page 185 Setting of acceleration/deceleration time and acceleration/deceleration pattern Output frequency (Hz) frequency Pr. 147 Setting Time Pr.7 Pr.44 Pr.111 Pr.44 Pr.8 Pr.44 Pr.8 Pr.110 Pr.44 Pr.7 (Pr.45) (Pr.45) RT signal X9 signal ⋅ Switching frequency for each control method Control Method Switching frequency V/F control Output frequency...
Page 186: Starting Frequency And Start-Time Hold Function (Pr. 13, Pr. 571)
Setting of acceleration/deceleration time and acceleration/deceleration pattern 4.12.2 Starting frequency and start-time hold function (Pr. 13, Pr. 571) You can set the starting frequency and hold the set starting frequency for a certain period of time. Set these functions when you need the starting torque or want to smooth motor drive at a start. Parameter Name Initial Value...
Page 187: Acceleration/Deceleration Pattern (Pr. 29, Pr. 140 To Pr. 143, Pr. 380 To Pr. 383, Pr. 516 To Pr. 519)
Setting of acceleration/deceleration time and acceleration/deceleration pattern 4.12.3 Acceleration/deceleration pattern (Pr. 29, Pr. 140 to Pr. 143, Pr. 380 to Pr. 383, Pr. 516 to Pr. 519) You can set the acceleration/deceleration pattern suitable for application. You can also set the backlash measures that stop acceleration/deceleration once at the parameter-set frequency and time during acceleration/deceleration.
Page 188 Setting of acceleration/deceleration time and acceleration/deceleration pattern (3) S-pattern acceleration/deceleration B (Pr. 29 = "2") Setting value "2" [S-pattern acceleration ⋅ For prevention of load shifting in conveyor and other applications /deceleration B] Since acceleration/deceleration is always made in an S shape from current frequency (f2) to target frequency (f1), this function eases shock produced at acceleration/deceleration and is effective for load collapse prevention, etc.
Page 189 Setting of acceleration/deceleration time and acceleration/deceleration pattern (6) S-pattern acceleration/deceleration D (Pr. 29 = "5", Pr. 516 to Pr. 519) ⋅ Set the time taken for S-pattern operation of S-pattern acceleration/deceleration using Pr. 516 to Pr. 519. Set each S-pattern operation time for acceleration start (Pr. 516), acceleration completion (Pr.
Page 190 Setting of acceleration/deceleration time and acceleration/deceleration pattern CAUTION ⋅ When the acceleration/deceleration time (Pr. 7, Pr. 8, etc.) setting under Real sensorless vector control or vector control is 0s, the S-pattern acceleration/deceleration A to D (Pr. 29 = "1, 2, 4, 5") is linear acceleration/deceleration. ⋅...
Page 191: Shortest Acceleration/Deceleration And Optimum Acceleration/Deceleration (Automatic Acceleration/Deceleration) (Pr. 61 To Pr. 63, Pr. 292, Pr. 293)
Setting of acceleration/deceleration time and acceleration/deceleration pattern 4.12.4 Shortest acceleration/deceleration and optimum acceleration/deceleration (automatic acceleration/deceleration) (Pr. 61 to Pr. 63, Pr. 292, Pr. 293) The inverter operates in the same conditions as when appropriate values are set in each parameter even if acceleration/deceleration time and V/F pattern are not set.
Page 192 Setting of acceleration/deceleration time and acceleration/deceleration pattern (2) Optimum acceleration/deceleration mode (Pr. 292 = "3", Pr. 293) ⋅ The optimum operation within the rating range where the inverter can be continuously used regardless of the inverter capability is performed. Automatically set torque boost and acceleration/deceleration time so that the average current during acceleration/ deceleration is the rated current by the self-learning of the inverter.
Page 193 Setting of acceleration/deceleration time and acceleration/deceleration pattern (3) Adjustment of shortest and optimum acceleration/deceleration mode (Pr. 61 to Pr. 63) ⋅ By setting the adjustment parameters Pr. 61 to Pr. 63, the application range can be made wider. Parameter Name Setting Range Description Number...
Page 194: Selection And Protection Of A Motor
Selection and protection of a motor 4.13 Selection and protection of a motor Purpose Parameter that must be Set Refer to Page Motor protection from overheat Electronic thermal O/L relay Pr. 9, Pr. 51 Use the constant torque motor Applied motor Pr.
Page 195 Selection and protection of a motor (2) Electronic thermal relay function operation characteristic (THT) Electronic thermal relay function (transistor protection thermal) operation characteristics of the inverter when the ratio of the motor current to the inverter rated current is presented as transverse is shown. Transverse is calculated as follows: (motor current [A]/inverter rated current [A]) ×...
Page 196 Selection and protection of a motor (3) Set multiple electronic thermal relay functions (Pr. 51) Use this function when rotating two motors of different rated currents individually by a single inverter. (When rotating two motors together, use external thermal relays.) ⋅...
Page 197 Selection and protection of a motor (5) External thermal relay input (OH signal) ⋅ To protect the motor against overheat, use the OH signal when using an external Thermal relay protector thermal relay or the built-in thermal protector of the motor. Inverter ⋅...
Page 198: Applied Motor (Pr. 71, Pr. 450)
Selection and protection of a motor 4.13.2 Applied motor (Pr. 71, Pr. 450) Setting of the used motor selects the thermal characteristic appropriate for the motor. Setting is necessary when using a constant-torque motor. Thermal characteristic of the electronic thermal relay function suitable for the motor is set.
Page 199 Selection and protection of a motor REMARKS ⋅ When performing offline auto tuning, set "3, 7, 8, 13, 17, 18, 23, 33, 43, 53" in Pr. 71. (Refer to page 189 for offline auto tuning) ⋅ For the 5.5K and 7.5K, the Pr. 0 Torque boost and Pr. 12 DC injection brake operation voltage settings are automatically changed according to the Pr.
Page 200: Offline Auto Tuning (Pr. 71, Pr. 80 To Pr. 84, Pr. 90 To Pr. 94, Pr. 96, Pr. 450, Pr. 453 To Pr. 463, Pr. 684, Pr. 859, Pr. 860)
Selection and protection of a motor 4.13.3 Offline auto tuning (Pr. 71, Pr. 80 to Pr. 84 , Pr. 90 to Pr. 94 , Pr. 96 , Pr. 450, Pr. 453 to Pr. 463, Pr. 684, Pr. 859, Pr. 860 Magnetic flux Magnetic flux Magnetic flux...
Page 201 Selection and protection of a motor Parameter Initial Name Setting Range Description Number Value 55K or lower 0.4 to 55kW Set the capacity of the second motor. Second motor capacity 9999 75K or higher 0 to 3600kW 9999 V/F control Number of second 2, 4, 6, 8, 10 Set the number of poles of the second motor.
Page 202 Selection and protection of a motor POINT This function is valid only when a value other than "9999" is set in Pr. 80 and Pr. 81 and Advanced magnetic flux · vector control, Real sensorless vector control or vector control is selected. ·...
Page 203 Selection and protection of a motor (2) Setting 1) Select the Advanced magnetic flux vector control, Real sensorless vector control or vector control (refer to page 92 ). 2) Set "1" or "101" in Pr. 96 Auto tuning setting/status . When the setting is "1"...
Page 204 Selection and protection of a motor (3) Execution of tuning CAUTION · Before performing tuning, check the monitor display of the operation panel (FR-DU07) or parameter unit (FR-PU04/FR- PU07) if the inverter is in the state ready for tuning. (Refer to 2) below) When the start command is turned ON under V/F control, the motor starts.
Page 205 Selection and protection of a motor 3)When offline auto tuning ends, press of the operation panel during PU operation. For External operation, turn OFF the start signal (STF signal or STR signal). This operation resets the offline auto tuning and the PU's monitor display returns to the normal indication. (Without this operation, next operation cannot be started.) REMARKS ·...
Page 206 Selection and protection of a motor (4) Utilizing or changing offline auto tuning data for use The data measured in the offline auto tuning can be read and utilized or changed. <Operating procedure> 1)Set Pr. 71 according to the motor used. Motor Pr.
Page 207 Selection and protection of a motor (5) Method to set the motor constants without using the offline auto tuning data The Pr. 92 and Pr. 93 motor constants may either be entered in [Ω] or in [mH]. Before starting operation, confirm which motor constant unit is used.
Page 208 Selection and protection of a motor • To enter the Pr. 92 and Pr. 93 motor constants in [mH] <Operating procedure> 1) Set Pr. 71 according to the motor used. Motor Pr.71 Setting Mitsubishi standard SF-JR motor SF-JR 4P 1.5kW or lower Mitsubishi high SF-HR efficiency motor...
Page 209 Selection and protection of a motor (6) Tune second applied motor · When you want to switch two motors with one inverter, set the second motor in Pr. 450 Second applied motor (refer to page 187). Initial setting is without second applied motor. ·...
Page 210: Online Auto Tuning (Pr. 95, Pr. 574)
Selection and protection of a motor 4.13.4 Online auto tuning (Pr. 95, Pr. 574) Magnetic flux Magnetic flux Magnetic flux Sensorless Sensorless Sensorless Vector Vector Vector When online auto tuning is selected under Advanced magnetic flux vector control, Real sensorless vector control or vector control, excellent torque accuracy is provided by temperature compensation even if the secondary resistance value of the motor varies with the rise of the motor temperature.
Page 211 Selection and protection of a motor (2) Magnetic flux observer (normal tuning) (Pr. 95 = "2") · When exercising vector control using a motor with encoder, it is effective for torque accuracy improvement. The current flowing in the motor and the inverter output voltage are used to estimate/observe the magnetic flux in the motor.
Page 212 Selection and protection of a motor (3) Start-time online auto tuning from external terminal (X28 signal, Y39 signal) · By turning ON the start-time tuning signal (X28) before the start signal (STF or STR) turns ON (at a stop), online tuning is performed and a starting delay after start signal turns ON due to tuning can be avoided.
Page 213: Parameter Description
Selection and protection of a motor (4) Tune second applied motor · When you want to switch two motors with one inverter, set the second motor in Pr. 450 Second applied motor.(Initial setting is without second applied motor. (Refer to page 187)) Perform tuning using Pr.
Page 214: Motor Brake And Stop Operation
Motor brake and stop operation 4.14 Motor brake and stop operation Purpose Parameter that must be Set Refer to Page DC injection brake and zero speed Pr. 10 to Pr. 12, Motor braking torque adjustment control, servo lock Pr. 802, Pr. 850 Improve the motor braking torque Selection of a regenerative brake Pr.
Page 215 Motor brake and stop operation When Pr. 11 = "0.1 to 10s" (1) Operation frequency setting (Pr. 10) ⋅ When the frequency at which the DC injection brake (zero speed control, servo lock) operates is set in Pr. 10, the DC injection brake (zero speed control, servo lock) is operated when this frequency is reached during deceleration.
Page 216 Motor brake and stop operation (5) Magnetic flux decay output shutoff (Pr. 850 = "2") ⋅ Frequent starts/stops (inching) under Real sensorless vector control may cause an inverter failure or create a difference in operation with the motor. The reason is that some magnetic flux is left in the motor at shutoff of the inverter output.
Page 217 Motor brake and stop operation (6) Brake operation selection under vector control (Pr. 802) ⋅ When pre-excitation is performed, select zero speed control or servo lock using Pr. 802. Pr. 802 Setting Pre-excitation Description Even under load, an attempt is made to maintain 0r/min to keep the motor shaft stopped. Note that 0 (initial value) Zero speed control if the shaft is overcome and turned by external force, it does not return to the original position.
Page 218: Selection Of Regenerative Brake And Dc Feeding (Pr. 30, Pr. 70)
Setting Setting The regenerative brake duty is as follows. R/L1, S/L2, T/L3 ⋅ FR-A720-0.4K to 3.7K ..3% (initial value) Built-in brake (7.5K or lower), ⋅ FR-A720-5.5K, 7.5K ..2% P/+, N/- ⎯...
Page 219 GRZG/FR-BR, or the BU/FR-BU operation. The Pr.70 setting becomes invalid. At this time, the regenerative brake duty is as follows. (The built-in brake resistor is provided for the 7.5K or lower.) ⋅ FR-A720-0.4K to 3.7K ....3% ⋅ FR-A720-5.5K, 7.5K ....2% ⋅...
Page 220 Motor brake and stop operation (5) When using the high power factor converter (FR-HC, MT-HC) or power regeneration common converter (FR-CV) ⋅ Set "2" in Pr. 30. The Pr. 70 setting is invalid. ⋅ Use any of Pr. 178 to Pr. 189 (input terminal function assignment) to assign the following signals to the contact input terminals.
Page 221 Motor brake and stop operation (7) DC feeding mode 2 (Pr. 30 = "20, 21") ⋅ When "20 or 21" is set in Pr. 30, operation is performed with AC power supply normally and with DC power supply such as battery at power failure. ⋅...
Page 222 Motor brake and stop operation ⋅ Operation example 1 at power failure Control power AC power supply DC power supply supply AC power supply Y85(MC) STF(STR) Motor Output coasting frequency (Hz) Time Approx. 150ms Back up operation ⋅ Operation example 2 at power failure (when DC power is restored) Control power supply Power restoration...
Page 223 Motor brake and stop operation (8) Power supply specification at DC feeding Rated input DC voltage 283VDC to 339VDC 200V class Permissible fluctuation 240VDC to 373VDC Rated input DC voltage 537VDC to 679VDC 400V class Permissible fluctuation 457VDC to 740VDC CAUTION ⋅...
Page 224: Stop Selection (Pr. 250)
Motor brake and stop operation 4.14.3 Stop selection (Pr. 250) Use this function to select the stopping method (deceleration to a stop or coasting) when the start signal turns OFF. Use this function to stop the motor with a mechanical brake, etc. together with switching OFF of the start signal.
Page 225: Stop-On Contact Control Function (Pr. 6, Pr. 48, Pr. 270, Pr. 275, Pr. 276)
Motor brake and stop operation 4.14.4 Stop-on contact control function (Pr. 6, Pr. 48, Pr. 270, Pr. 275, Pr. 276) Magnetic flux Magnetic flux Magnetic flux Sensorless Sensorless Sensorless To ensure accurate positioning at the upper limit etc. of <Without stop-on-contact control> <With stop-on-contact control>...
Page 226 Motor brake and stop operation (1) Set stop-on-contact control ⋅ Make sure that the inverter is in External operation mode. (Refer to page 313 ) ⋅ Select either Real sensorless vector control or Advanced magnetic flux vector control. ⋅ Set "1, 3, 11 or 13" in Pr. 270 Stop-on contact/load torque high-speed frequency control selection . ⋅...
Page 227 Motor brake and stop operation (3) Set frequency when stop-on-contact control (Pr. 270 = 1, 3, 11 or 13) is selected ⋅ The following table lists the frequencies set when the input terminals (RH, RM, RL, RT, JOG) are selected together. Bold frame indicates stop-on-contact control is valid.
Page 228: Brake Sequence Function (Pr. 278 To Pr. 285, Pr. 292)
Motor brake and stop operation 4.14.5 Brake sequence function (Pr. 278 to Pr. 285, Pr. 292) Magnetic flux Magnetic flux Magnetic flux Sensorless Sensorless Sensorless Vector Vector Vector This function is used to output from the inverter the mechanical brake operation timing signal in vertical lift and other applications.
Page 229 Motor brake and stop operation (1) Set the brake sequence mode ⋅ Select either Real sensorless vector control, vector control (speed control) or Advanced magnetic flux vector control. The brake sequence function is valid only when the External operation mode, External/PU combined operation mode 1 or Network operation mode is selected.
Page 230 Motor brake and stop operation REMARKS ⋅ Even if brake sequence mode has been selected, inputting the jog signal (jog operation), RT signal (second function selection) or X9 signal (third function selection) during an inverter stop will switch to the normal operation and give priority to jog operation or second and third function selection.
Page 231: Orientation Control (Pr. 350 To Pr. 366, Pr. 369, Pr. 393, Pr. 396 To Pr. 399)
Motor brake and stop operation 4.14.6 Orientation control (Pr. 350 to Pr. 366, Pr. 369, Pr. 393, Pr. 396 to Pr. 399) Magnetic flux Magnetic flux Magnetic flux Vector Vector Vector This function is used with a position detector (encoder) installed to the spindle of a machine tool, etc. to allow a rotation shaft to be stopped at the specified position (oriented).
Page 232 Motor brake and stop operation Parameter Initial Setting Name Description Number Value Range Orientation fault signal (ORM) is output when the encoder remains stopped for the set time without orientation complete in the state where no orientation complete signal Encoder stop check time 0.5s 0 to 5.0s (ORA) is output.
Page 233 Motor brake and stop operation (1) Connection example For complementary type (SF-V5RU) MCCB SF-V5RU SF-JR motor with encoder MCCB Inverter Three-phase R/L1 AC power Three-phase supply S/L2 AC power T/L3 supply Inverter Forward rotation start Earth (Ground) FR-A7AP Reverse rotation start Earth (Ground) External Orientation command...
Page 234 Motor brake and stop operation (3) Selecting stop position command (Pr. 350 Stop position command selection ) ⋅ Select either the internal stop position command (Pr. 356) or the external stop position command (16-bit data using the FR-A7AX). Pr. 350 Setting Stop Position Command Source Internal stop position command (Pr.
Page 235 Motor brake and stop operation • Relationship between stop position command and 16-bit data Operation Pr. 350 Pr. 360 Stop position 16-bit data 16-bit data selection Stop position command Speed command command selection (FR-A7AX) 0: speed command Internal (Pr. 356) Speed command 16 bit data 0: internal...
Page 236 Motor brake and stop operation (6) Orientation operation (under V/F control, Advanced magnetic flux vector control) Orientation during running 1) When the orientation command (X22) is input, the motor speed decreases to the orientation speed set in Pr. 351 Orientation speed . (Pr. 351 initial value: 2Hz) 2) After the speed reaches the orientation speed, the speed decreases to the creep speed set in Pr.
Page 237 Motor brake and stop operation Orientation from stop After turning ON the orientation command (X22), turning ON the start signal will increase the motor speed to the orientation speed set in Pr. 351 Orientation speed, then orientation operation same as when "orientation during running" is performed.
Page 238 Motor brake and stop operation Servo torque selection (Pr. 358 ) Valid only under V/F control and Advanced magnetic flux vector control. Pr. 358 Setting Remarks Function 0 1 2 3 4 5 6 7 8 9 10 11 12 13 1) Servo torque function selection With servo torque function ×...
Page 239 Motor brake and stop operation Position loop gain (Pr. 362 ) When servo torque function is selected using Pr. 358 Servo torque selection , output frequency for generating servo torque increases to the creep speed of Pr. 352 Creep speed gradually according to the slope set in Pr. 362 Orientation position loop gain .
Page 240 Motor brake and stop operation 3) Orientation from the reverse rotation direction • If the motor is running in the reverse rotation direction, it will make an orientation stop with the same method as "orientation from the current rotation direction". Speed (forward rotation) •...
Page 241 Motor brake and stop operation Pr. 399 Orientation deceleration ratio (initial value is 20) • Make adjustments as shown below according to the orientation status. (Refer to the Pr. 396 and Pr. 397 details also.) Generally adjust Pr. 362 in the range from 5 to 20, and Pr. 399 from 5 to 50. Adjustment Procedure Phenomenon REMARKS...
Page 242: Function Assignment Of External Terminal And Control
Function assignment of external terminal and control 4.15 Function assignment of external terminal and control Purpose Parameter that must be Set Refer to Page Input terminal function Assign function to input terminal Pr. 178 to Pr. 189 selection Set MRS signal (output shutoff) to MRS input selection Pr.
Page 243 Function assignment of external terminal and control (1) Input terminal function assignment ⋅ Use Pr. 178 to Pr. 189 to set the functions of the input terminals. ⋅ Refer to the following table and set the parameters: Signal Refer to Setting Function Related Parameters...
Page 244 Function assignment of external terminal and control Signal Refer to Setting Function Related Parameters Name Page Simple position droop pulse clear (for FR-A7AP/FR-A7AL) Pr. 291, Pr. 419 to Pr. 430, Pr. 464 DC feeding operation permission Pr. 30, Pr. 70 DC feeding cancel Pr.
Page 245: Inverter Output Shutoff Signal (Mrs Signal, Pr. 17)
Function assignment of external terminal and control 4.15.2 Inverter output shutoff signal (MRS signal, Pr. 17) The inverter output can be shut off from the MRS signal. The logic of the MRS signal can also be selected. Parameter Initial Setting Name Description Number...
Page 246: Condition Selection Of Function Validity By The Second Function Selection Signal (Rt) And Third Function Selection Signal (X9) (Rt Signal, X9 Signal, Pr. 155)
Function assignment of external terminal and control 4.15.3 Condition selection of function validity by the second function selection signal (RT) and third function selection signal (X9) (RT signal, X9 signal, Pr. 155) You can select the second (third) function using the RT(X9) signal. You can also set the condition (reflection condition) where the second function and third function become valid.
Page 247: Start Signal Operation Selection (Stf, Str, Stop Signal, Pr. 250)
Function assignment of external terminal and control 4.15.4 Start signal operation selection (STF, STR, STOP signal, Pr. 250) You can select the operation of the start signal (STF/STR). You can select the stopping method (deceleration to a stop or coasting) when the start signal turns OFF. You can stop the motor with a mechanical brake, etc.
Page 248 Function assignment of external terminal and control (2) 3-wire type (STF, STR, STOP signal) ⋅ A three-wire type connection is shown below. ⋅ The start self-holding selection becomes valid when the STOP signal is turned ON. In this case, the forward/ reverse rotation signal functions only as a start signal.
Page 249: Magnetic Flux Decay Output Shutoff Signal (X74 Signal)
Function assignment of external terminal and control 4.15.5 Magnetic flux decay output shutoff signal (X74 signal) Performing frequent start/stop (inching operation) during Real sensorless vector control may cause an inverter fault (electronic thermal relay function fault: E.THT, etc) due to residual magnetic flux and an error in monitor output (running speed, motor torque, load meter, torque command, torque current command, motor output).
Page 250: Output Terminal Function Selection (Pr. 190 To Pr. 196)
Function assignment of external terminal and control 4.15.6 Output terminal function selection (Pr. 190 to Pr. 196) You can change the functions of the open collector output terminal and relay output terminal. Parameter Initial Name Initial signal Setting Range Number Value RUN terminal RUN (inverter running)
Page 251 Function assignment of external terminal and control Setting Signal Related Refer Function Operation Positive Negative Name Parameters to Page Logic Logic Output when the output power is lower than the Zero current detection Pr. 152 setting for longer than the time set in Pr. Pr.
Page 252 Function assignment of external terminal and control Setting Signal Related Refer Function Operation Positive Negative Name Parameters to Page Logic Logic During PID control Pr. 127 to Pr. 134, Output during PID control. activated Pr. 575 to Pr. 577 Motor temperature Output when the temperature of the vector detection (for FR- control dedicated motor with thermistor (SF-...
Page 253: Vector Control
Function assignment of external terminal and control CAUTION ⋅ When terminal assignment is changed using Pr. 190 to Pr. 196 (output terminal function selection), the other functions may be affected. Set parameters after confirming the function of each terminal. ⋅ Do not assign signals which repeat frequent ON/OFF to A1, B1, C1, A2, B2, C2. Otherwise, the life of the relay contact decreases.
Page 254 Function assignment of external terminal and control Under Real sensor less vector control, vector control ⋅ When the inverter is ready to operate, the output of the operation ready signal (RY) is ON. (It is also on during inverter running.) ⋅...
Page 255 Function assignment of external terminal and control (3) Forward rotation and reverse rotation signal (Y30, Y31 signal) ⋅ The status during forward rotation (Y30) and reverse Pre-excitation rotation (Y31) are output from the actual motor speed under vector control. Forward Actual ⋅...
Page 256 Function assignment of external terminal and control (5) Fault output signal (ALM, ALM2 signal) ⋅ If the inverter comes to trip, the ALM and ALM2 signals are Inverter fault occurrence output. (trip) ⋅ The ALM2 signal remains on during a reset period after fault occurrence.
Page 257: Detection Of Output Frequency (Su, Fu, Fu2 , Fu3, Fb, Fb2, Fb3, Ls Signal, Pr. 41 To Pr. 43, Pr. 50, Pr. 116, Pr. 865)
Function assignment of external terminal and control 4.15.7 Detection of output frequency (SU, FU, FU2 , FU3, FB, FB2, FB3, LS signal, Pr. 41 to Pr. 43, Pr. 50, Pr. 116, Pr. 865) The inverter output frequency is detected and output to the output signal. Parameter Initial Setting...
Page 258 Function assignment of external terminal and control (3) Low speed detection (LS signal, Pr. 865) ⋅ The low speed detection signal (LS) is output when the output frequency drops below the Pr. 865 Low speed detection setting. Pr.865 ⋅ When speed control is performed by Real sensorless vector control or vector control, a fault (E.OLT) is Time displayed and the inverter trips if frequency drops to the...
Page 259: Output Current Detection Function (Y12 Signal, Y13 Signal, Pr. 150 To Pr. 153, Pr. 166, Pr. 167)
Function assignment of external terminal and control 4.15.8 Output current detection function (Y12 signal, Y13 signal, Pr. 150 to Pr. 153, Pr. 166, Pr. 167) The output power during inverter running can be detected and output to the output terminal. Parameter Name Initial Value...
Page 260: Detection Of Output Torque (Tu Signal, Pr. 864)
Function assignment of external terminal and control (2) Zero current detection (Y13 signal, Pr. 152, Pr. 153) Pr. 167 = 0 or 1 ⋅ If the output current remains lower than the Pr. 152 setting Output during inverter operation for longer than the time set in Pr. current 153, the zero current detection (Y13) signal is output from Pr.152...
Page 261: Remote Output Function (Rem Signal, Pr. 495 To Pr. 497)
Function assignment of external terminal and control 4.15.10 Remote output function (REM signal, Pr. 495 to Pr. 497) You can utilize the ON/OFF of the inverter's output signals instead of the remote output terminal of the programmable logic controller. Parameter Initial Setting Name...
Page 262: Monitor Display And Monitor Output Signal
Monitor display and monitor output signal 4.16 Monitor display and monitor output signal Purpose Parameter that must be Set Refer to Page Display motor speed Speed display and speed Pr. 37, Pr. 144, Pr. 505, Pr. 811 Set speed setting DU/PU main display data Change PU monitor display data selection...
Page 263 Monitor display and monitor output signal ⋅ To display the machine speed, set in Pr. 37 the machine speed for operation with frequency set in Pr. 505. For example, when Pr. 505 = "60Hz" and Pr. 37 = "1000", "1000" is displayed on the running speed monitor when the running frequency is 60Hz.
Page 264: Du/Pu, Fm, Am Terminal Monitor Display Selection (Pr. 52, Pr. 54, Pr. 158, Pr. 170, Pr. 171, Pr. 268, Pr. 563, Pr. 564, Pr. 891)
Monitor display and monitor output signal 4.16.2 DU/PU, FM, AM terminal monitor display selection (Pr. 52, Pr. 54, Pr. 158, Pr. 170, Pr. 171, Pr. 268, Pr. 563, Pr. 564, Pr. 891) The monitor to be displayed on the main screen of the operation panel (FR-DU07)/parameter unit (FR-PU04/FR- PU07) can be selected.
Page 265 Monitor display and monitor output signal Pr. 52 Setting Full-scale Pr. 54 (FM) Value of the Types of Monitor Increments Pr. 158 (AM) Description PU main Terminal FM DU LED Setting monitor and AM Frequency setting 0.01Hz Display the set frequency. Pr.
Page 266 Monitor display and monitor output signal Pr. 52 Setting Full-scale Pr. 54 (FM) Value of the Types of Monitor Increments Pr. 158 (AM) Description PU main Terminal FM DU LED Setting monitor and AM Torque current 0.1% Pr. 866 Display torque current command value command Multiply the motor speed by the then output 0.01kW/...
Page 267 Monitor display and monitor output signal REMARKS ⋅ By setting "0" in Pr. 52, the monitoring of output frequency to fault display can be selected in sequence by ⋅ When the operation panel (FR-DU07) is used, the displayed units are Hz, V and A only and the others are not displayed. ⋅...
Page 268 Monitor display and monitor output signal (3) Operation panel (FR-DU07) I/O terminal monitor (Pr. 52) ⋅ When Pr. 52 is set to any of "55 to 57", the I/O terminal states can be monitored on the operation panel (FR-DU07). ⋅ The I/O terminal monitor is displayed on the third monitor. ⋅...
Page 269 Monitor display and monitor output signal (4) Cumulative power monitor and clear (Pr. 170, Pr. 891) ⋅ On the cumulative power monitor (Pr. 52 = "25"), the output power is added up and updated every hour. ⋅ The operation panel (FR-DU07), parameter unit (FR-PU04 FR-PU07) and communication (RS-485 communication, display increments and display ranges are as indicated below.
Page 270: Reference Of The Terminal Fm (Pulse Train Output) And Am (Analog Voltage Output) (Pr. 55, Pr. 56, Pr. 291, Pr. 866, Pr. 867)
Monitor display and monitor output signal 4.16.3 Reference of the terminal FM (pulse train output) and AM (analog voltage output) (Pr. 55, Pr. 56, Pr. 291, Pr. 866, Pr. 867) Two types of monitor output, pulse train output from the terminal FM and analog voltage output from the terminal AM, are available.
Page 271 Monitor display and monitor output signal High speed pulse train output circuit • When Pr. 291 Pulse train I/O selection = "10, 11, 20, 21, 100", (connection example with a pulse counter) high speed pulse train is output by open collector output. Pulse train of maximum of 55k pulses/s is output.
Page 272 Monitor display and monitor output signal (2) Frequency monitoring reference (Pr. 55) • Set the full scale value when outputting the frequency monitor from terminal FM or AM. • For the calibration of terminal FM, set the full-scale value of the connected meter when the pulse speed of terminal FM is 1440 pulse/s (50k pulse/s).
Page 273 Monitor display and monitor output signal (4) Reference of torque monitor (Pr. 866) • Set the full scale value when outputting the torque monitor from terminal FM or AM. • For calibration of terminal FM, set the full-scale value of the connected torque meter when the pulse speed of terminal FM is 1440 pulse/s (50k pulse/s).
Page 274: Terminal Fm, Am Calibration (Calibration Parameter C0 (Pr. 900), C1 (Pr. 901))
Monitor display and monitor output signal 4.16.4 Terminal FM, AM calibration (Calibration parameter C0 (Pr. 900), C1 (Pr. 901)) By using the operation panel or parameter unit, you can calibrate terminal FM and terminal AM to full scale deflection. Parameter Name Initial Value Setting Range...
Page 275 Monitor display and monitor output signal (2) AM terminal calibration (C1 (Pr. 901)) ⋅ Terminal AM is factory-set to provide a 10VDC output in the full-scale status of the corresponding monitor item. Calibration parameter C1 (Pr. Inverter 901) allows the output voltage ratios (gains) to be adjusted according to the meter scale.
Page 276 Monitor display and monitor output signal (3) How to calibrate the terminal FM when using the operation panel (FR-DU07) Display Operation (When Pr. 54=1) Confirmation of the RUN indicator and operation mode indicator The parameter Press to choose the parameter number read setting mode.
Page 277: Operation Selection At Power Failure And Instantaneous Power Failure
Operation selection at power failure and instantaneous power failure 4.17 Operation selection at power failure and instantaneous power failure Purpose Parameter that must be Set Refer to Page At instantaneous power failure Automatic restart operation Pr. 57, Pr. 58, Pr. 162 to Pr. 165, occurrence, restart inverter without after instantaneous power Pr.
Page 278 Operation selection at power failure and instantaneous power failure (1) Automatic restart after instantaneous power failure operation ⋅ When instantaneous power failure protection (E.IPF) and undervoltage 15ms to 100ms protection (E.UVT) are activated, the inverter trips. (Refer to page 411 for Power E.IPF and E.UVT.) supply...
Page 279: Operation Selection At Power Failure
Operation selection at power failure and instantaneous power failure Without frequency search When Pr. 162 = 1, 11 (without frequency search) When Pr. 162 = "1" or "11", automatic restart operation is performed in a reduced voltage system, where the voltage is V/F control, Advanced magnetic flux vector control gradually risen with the output frequency unchanged from prior to an instantaneous power failure independently of the...
Page 280 Operation selection at power failure and instantaneous power failure (4) Restart coasting time (Pr. 57) ⋅ Coasting time is the time from when the motor speed is detected until automatic restart control is started. ⋅ Set Pr. 57 to "0" to perform automatic restart operation. The coasting time is automatically set to the value below. Generally this setting will pose no problems.
Page 281: Power Failure-Time Deceleration-To-Stop Function (Pr. 261 To Pr. 266, Pr. 294 )
Operation selection at power failure and instantaneous power failure 4.17.2 Power failure-time deceleration-to-stop function (Pr. 261 to Pr. 266, Pr. 294 ) When a power failure or undervoltage occurs, the inverter can be decelerated to a stop or can be decelerated and re-accelerated to the set frequency.
Page 282 Operation selection at power failure and instantaneous power failure (3) Power failure stop function (Pr. 261 = "1, 11") ⋅ If power is restored during power failure deceleration, deceleration to Pr.261 = 1 Power a stop is continued and the inverter remains stopped. To restart, turn supply OFF the start signal once, then turn it ON again.
Page 283 Operation selection at power failure and instantaneous power failure (6) Power failure deceleration signal (Y46 signal) ⋅ After deceleration at an instantaneous power failure, inverter cannot start even if the start command is given. In this case, check the power failure deceleration signal (Y46 signal). (at occurrence of input phase failure protection (E.ILF), etc.) ⋅...
Page 284: Operation Setting At Fault Occurrence
Operation setting at fault occurrence 4.18 Operation setting at fault occurrence Refer to Purpose Parameter that must be Set Page Recover by retry operation at fault Retry operation Pr. 65, Pr. 67 to Pr. 69 occurrence Output fault code from terminal Fault code output function Pr.
Page 285 Operation setting at fault occurrence ⋅ Using Pr. 65 you can select the fault that will cause a retry to be executed. No retry will be made for the fault not indicated. (Refer to page 404 for the fault description.) indicates the errors selected for retry.
Page 286: Fault Code Output Selection (Pr. 76)
Operation setting at fault occurrence 4.18.2 Fault code output selection (Pr. 76) At fault occurrence, its description can be output as a 4-bit digital signal from the open collector output terminals. The fault code can be read by a programmable controller, etc., and its corrective action can be shown on a display, etc.
Page 287: Input/Output Phase Loss Protection Selection (Pr. 251, Pr. 872)
Operation setting at fault occurrence 4.18.3 Input/output phase loss protection selection (Pr. 251, Pr. 872) You can disable the output phase loss protection function that trips the inverter if one phase of the inverter output side (load side) three phases (U, V, W) is lost. The input phase loss protection function of the inverter input side (R/L1, S/L2, T/L3) can be valid.
Page 288: Fault Definition (Pr. 875)
Operation setting at fault occurrence 4.18.6 Fault definition (Pr. 875) When motor thermal protection is activated, a fault can be output after the motor decelerates to a stop. Initial Parameter Setting Name Description Number Range Value Normal operation Fault definition The motor decelerates to stop when motor thermal protection is activated.
Page 289: Energy Saving Operation And Energy Saving Monitor
Energy saving operation and energy saving monitor 4.19 Energy saving operation and energy saving monitor Refer to Purpose Parameter that must be Set Page Energy saving operation Energy saving operation Pr. 60 Pr. 52, Pr. 54, Pr. 158, How much energy can be saved Energy saving monitor Pr.
Page 290: Energy Saving Monitor (Pr. 891 To Pr. 899)
Energy saving operation and energy saving monitor 4.19.2 Energy saving monitor (Pr. 891 to Pr. 899) From the power consumption estimated value during commercial power supply operation, the energy saving effect by use of the inverter can be monitored/output. Parameter Initial Name Setting Range...
Page 291 Energy saving operation and energy saving monitor (1) Energy saving monitor list ⋅ The following provides the items that can be monitored by the power saving monitor (Pr. 52, Pr. 54, Pr. 158 = "50"). (Only 1) power saving and 3) power saving average value can be output to Pr. 54 (terminal FM) and Pr. 158 (terminal AM)) Parameter Setting Energy Saving...
Page 292 Energy saving operation and energy saving monitor (2) Power saving instantaneous monitor ( 1) power savings, 2) power saving rate ) ⋅ On the power saving monitor ( 1)), an energy saving effect as compared to the power consumption during commercial power supply operation (estimated value) is calculated and displays on the main monitor.
Page 293 Energy saving operation and energy saving monitor (5) Power estimated value of commercial power supply operation (Pr. 892, Pr. 893, Pr. 894) ⋅ Select the commercial power supply operation pattern from among the four patterns of discharge damper control (fan), inlet damper control (fan), valve control (pump) and commercial power supply drive, and set it to Pr. 894 Control selection during commercial power-supply operation.
Page 294 Energy saving operation and energy saving monitor (6) Annual power saving amount, power cost (Pr. 899) ⋅ By setting the operation time rate [%] (ratio of time when the motor is actually driven by the inverter during a year) in Pr. 899, the annual energy saving effect can be predicted. ⋅...
Page 295: Motor Noise, Emi Measures
Motor noise, EMI measures 4.20 Motor noise, EMI measures 4.20.1 PWM carrier frequency and Soft-PWM control (Pr. 72, Pr. 240) You can change the motor sound. Parameter Initial Name Setting Range Description Number Value PWM carrier frequency can be changed. 55K or lower 0 to 15 The setting displayed is in [kHz].
Page 296: Frequency/Torque Setting By Analog Input (Terminal 1, 2, 4)
Frequency/torque setting by analog input (terminal 1, 2, 4) 4.21 Frequency/torque setting by analog input (terminal 1, 2, 4) Purpose Parameter that must be Set Refer to Page Function assignment of analog input Terminal 1 and terminal 4 function Pr. 858, Pr. 868 terminal assignment Selection of voltage/current input...
Page 297: Analog Input Selection (Pr. 73, Pr. 267)
Frequency/torque setting by analog input (terminal 1, 2, 4) REMARKS ⋅ When "1 or 4" is set in both Pr. 868 and Pr. 858, terminal 1 is valid and terminal 4 has no function. ⋅ When "1" (magnetic flux), "4" (stall prevention/torque limit) is set in Pr. 868, functions of terminal 4 become valid independently of whether the AU terminal is ON or OFF.
Page 298 Frequency/torque setting by analog input (terminal 1, 2, 4) ⋅ Refer to the following table and set Pr. 73 and Pr. 267. ( indicates the main speed setting) Terminal 4 Input Compensation Input Pr. 73 Terminal 2 Terminal 1 Pr. 73 Terminal and Polarity Setting...
Page 299 Frequency/torque setting by analog input (terminal 1, 2, 4) (2) Perform operation by analog input voltage Inverter Forward ⋅ The frequency setting signal inputs 0 to 5VDC (or 0 to 10VDC) to across rotation Voltage/current the terminals 2 and 5. The 5V (10V) input is the maximum output input switch frequency.
Page 300 Frequency/torque setting by analog input (terminal 1, 2, 4) (3) Perform operation by analog input current Inverter ⋅ When the pressure or temperature is controlled constant by a fan, pump, Forward etc., automatic operation can be performed by inputting the output signal rotation Voltage/current input switch...
Page 301: Analog Input Compensation (Pr. 73, Pr. 242, Pr. 243, Pr. 252, Pr. 253)
Frequency/torque setting by analog input (terminal 1, 2, 4) 4.21.3 Analog input compensation (Pr. 73, Pr. 242, Pr. 243, Pr. 252, Pr. 253) A fixed ratio of analog compensation (override) can be made by the added compensation or terminal 2 as an auxiliary input for multi-speed operation or the speed setting signal (main speed) of the terminal 2 or terminal 4.
Page 302 Frequency/torque setting by analog input (terminal 1, 2, 4) (2) Override function (Pr. 252, Pr. 253) ⋅ Use the override function to change the main speed at a fixed ratio. ⋅ Set any of "4, 5, 14, 15" in Pr. 73 to select an override. ⋅...
Page 303: Response Level Of Analog Input And Noise Elimination (Pr. 74, Pr. 822, Pr. 826, Pr. 832, Pr. 836, Pr. 849)
Frequency/torque setting by analog input (terminal 1, 2, 4) 4.21.4 Response level of analog input and noise elimination (Pr. 74, Pr. 822, Pr. 826, Pr. 832, Pr. 836, Pr. 849) Response level and stability of frequency reference command and torque reference command by analog input (terminal 1, 2, 4) signal can be adjusted.
Page 304 Frequency/torque setting by analog input (terminal 1, 2, 4) (2) Time constant of analog input (Pr. 74) ⋅ Effective for eliminating noise in the frequency setting circuit. ⋅ Increase the filter time constant if steady operation cannot be performed due to noise. A larger setting results in slower response (The time constant can be set between approximately 5ms to 1s with the setting of 0 to 8).
Page 305: Bias And Gain Of Frequency Setting Voltage (Current) (Pr. 125, Pr. 126, Pr. 241, C2(Pr. 902) To C7(Pr. 905), C12(Pr. 917) To C15(Pr. 918))
Frequency/torque setting by analog input (terminal 1, 2, 4) 4.21.5 Bias and gain of frequency setting voltage (current) (Pr. 125, Pr. 126, Pr. 241, C2(Pr. 902) to C7(Pr. 905), C12(Pr. 917) to C15(Pr. 918)) You can set the magnitude (slope) of the output frequency as desired in relation to the frequency setting signal (0 to 5V, 0 to 10V or 0 to 20mADC).
Page 306 Frequency/torque setting by analog input (terminal 1, 2, 4) (1) The relationship between analog input terminal and calibration parameter Terminal 1 functional calibration parameter Calibration Parameters Pr. 868 Terminal Function Setting Bias setting Gain setting C2(Pr. 902) Terminal 2 frequency setting bias frequency Pr.
Page 307 Frequency/torque setting by analog input (terminal 1, 2, 4) (2) Change frequency maximum Initial value analog input. (Pr. 125, Pr. 126) 60Hz ⋅ Set a value in Pr. 125 (Pr. 126) when changing only the frequency setting (gain) of the maximum analog input power (current).
Page 308 Frequency/torque setting by analog input (terminal 1, 2, 4) (5) Frequency setting voltage (current) bias/gain adjustment method (a)Method to adjust any point by application of voltage (current) to across the terminals 2 and 5 (4 and 5). Operation Display Confirm the RUN indicator and operation mode indicator.
Page 309 Frequency/torque setting by analog input (terminal 1, 2, 4) (b) Method to adjust any point without application of a voltage (current) across terminals 2 and 5(4 and 5). (To change from 4V (80%) to 5V (100%)) Operation Display Confirm the RUN indicator and operation mode indicator.
Page 310 Frequency/torque setting by analog input (terminal 1, 2, 4) (c) Method to adjust only the frequency without adjustment of a gain voltage (current). (When changing the gain frequency from 60Hz to 50Hz) Operation Display Pr. 125) or Terminal 2 input Terminal 4 input (Pr.
Page 311: Bias And Gain Of Torque (Magnetic Flux) Setting Voltage (Current) (Pr. 241, C16(Pr. 919) To C19(Pr. 920), C38 (Pr. 932) To C41 (Pr. 933))
Frequency/torque setting by analog input (terminal 1, 2, 4) 4.21.6 Bias and gain of torque (magnetic flux) setting voltage (current) (Pr. 241, C16(Pr. 919) to C19(Pr. 920), C38 (Pr. 932) to C41 (Pr. 933)) Sensorless Sensorless Sensorless Vector Vector Vector You can set the magnitude (slope) of the torque as desired in relation to the torque setting signal (0 to 5VDC, 0 to 10V or 4 to 20mA).
Page 312 Frequency/torque setting by analog input (terminal 1, 2, 4) Terminal 4 functional calibration parameter Calibration Parameters Pr. 858 Terminal Function Setting Bias setting Gain setting Frequency (speed) C5(Pr. 904) Terminal 4 frequency setting bias frequency Pr. 126 Terminal 4 frequency setting gain frequency (initial command/speed C6(Pr.
Page 313 Frequency/torque setting by analog input (terminal 1, 2, 4) (6) Adjustment method of torque setting voltage (current) bias and gain a) Method to adjust any point without application of a voltage (current) across terminals 1 and 5(4 and 5) Operation Display Confirm the RUN indicator and operation mode indicator.
Page 314 Frequency/torque setting by analog input (terminal 1, 2, 4) b) Method to adjust any point without application of a voltage (current) across terminals 1 and 5(4 and 5) (To change from 8V (80%) to 10V (100%)) Operation Display Confirm the RUN indicator and operation mode indicator.
Page 315 Frequency/torque setting by analog input (terminal 1, 2, 4) c) Method to adjust torque only without adjustment of gain voltage (current) (when changing gain torque from 150% to 130%) Operation Display Pr.920) or Terminal 1 input Terminal 4 input (Pr.933) appears. Press to show the present set value.
Page 316: Misoperation Prevention And Parameter Setting Restriction
Misoperation prevention and parameter setting restriction 4.22 Misoperation prevention and parameter setting restriction Purpose Parameter that must be Set Refer to Page Limit reset function Reset selection/disconnected Trips when PU is disconnected Pr. 75 PU detection/PU stop selection Stop from PU Parameter write disable Prevention of parameter rewrite Pr.
Page 317 Misoperation prevention and parameter setting restriction (2) Disconnected PU detection • This function detects that the PU (FR-DU07/FR-PU04/FR-PU07) has been disconnected from the inverter for longer than 1s and causes the inverter to provide a fault output (E.PUE) and come to trip. •...
Page 318: Parameter Write Selection (Pr. 77)
Misoperation prevention and parameter setting restriction 4.22.2 Parameter write selection (Pr. 77) You can select whether write to various parameters can be performed or not. Use this function to prevent parameter values from being rewritten by misoperation. Parameter Setting Name Initial Value Description Number...
Page 319: Reverse Rotation Prevention Selection (Pr. 78)
Misoperation prevention and parameter setting restriction 4.22.3 Reverse rotation prevention selection (Pr. 78) This function can prevent reverse rotation fault resulting from the incorrect input of the start signal. Parameter Name Initial Value Setting Range Description Number Both forward and reverse rotations enabled Reverse rotation prevention selection...
Page 320 Misoperation prevention and parameter setting restriction (2) User group function (Pr. 160, Pr. 172 to Pr. 174) ⋅ The user group function is designed to display only the parameters necessary for setting. ⋅ From among all parameters, a maximum of 16 parameters can be registered to a user group. When Pr. 160 is set to "1", only the parameters registered to the user group can be accessed.
Page 321: Password Function (Pr. 296, Pr. 297)
Misoperation prevention and parameter setting restriction 4.22.5 Password function (Pr. 296, Pr. 297) Registering a 4-digit password can restrict parameter reading/writing. Parameter Name Initial Value Setting Range Description Number 0 to 6, 99, 100 to Select restriction level of parameter reading/ writing when a password is registered.
Page 322 Misoperation prevention and parameter setting restriction (2) Password lock/unlock (Pr.296, Pr.297) <Lock> 1) Set parameter reading/writing restriction level. (Pr. 296 ≠ 9999) Restriction of Password Pr.296 Setting Pr.297 Display Unlock Error 0 to 6, 99 No restriction Always 0 Displays error count 100 to 106, 199 Restricted at fifth error (0 to 5)
Page 323 Misoperation prevention and parameter setting restriction (3) Parameter operation during password locked/unlocked Password Unlocked Password Registered Password Locked Pr. 296 ≠ 9999 Parameter Pr. 296 = 100 to 106, 199 Pr. 296 ≠ 9999 Pr. 296 = 9999 Operation Pr. 297 = 0 to 4 Pr.
Page 324: Selection Of Operation Mode And Operation Location
Selection of operation mode and operation location 4.23 Selection of operation mode and operation location Refer to Purpose Parameter that must be Set Page Operation mode selection Operation mode selection Pr. 79 Started in Network operation mode Operation mode at power on Pr.
Page 325 Selection of operation mode and operation location (1) Operation mode basics ⋅ The operation mode is to specify the source of inputting start command frequency command of the inverter. Personal computer ⋅ Basically, there are following operation modes. PU operation External operation mode: For inputting start mode command and frequency command by an external...
Page 326 Selection of operation mode and operation location (3) Operation mode selection flow In the following flowchart, select the basic parameter setting and terminal connection related to the operation mode. START Connection Parameter setting Operation Where is the start command source? From external (STF/STR terminal) Where is the frequency set?
Page 327 Selection of operation mode and operation location (4) External operation mode (setting "0" (initial value), "2") ⋅ Select the External operation mode when the start command and the frequency command are applied from a frequency setting potentiometer, start switch, etc. externally and connecting them to the control circuit terminals of the inverter.
Page 328 Selection of operation mode and operation location (6) PU/External combined operation mode 1 (setting "3") ⋅ Select the PU/External combined operation mode 1 when applying frequency command from the operation panel (FR-DU07) or parameter unit (FR-PU04/FR- PU07) and inputting the start command with the external start switch.
Page 329 Selection of operation mode and operation location (8) Switchover mode (setting "6") ⋅ While continuing operation, you can switch among PU operation, External operation and Network operation (when RS-485 terminals or communication option is used). Operation Mode Switching Switching Operation/Operating Status Select the PU operation mode with the operation panel or parameter unit.
Page 330 Selection of operation mode and operation location (10) Switching of operation mode by external signal (X16 signal) ⋅ When external operation and operation from the operation panel are used together, use of the PU-external operation switching signal (X16) allows switching between the PU operation mode and External operation mode during a stop (during a motor stop, start command off).
Page 331 Selection of operation mode and operation location (11) Switching of operation mode by external terminal (X65, X66 signal) ⋅ When Pr. 79 = any of "0, 2, 6", the operation mode switching signals (X65, X66) can be used to change the PU or External operation mode to Network operation mode during a stop (during a motor stop or start command off).
Page 332: Operation Mode At Power On (Pr. 79, Pr. 340)
Selection of operation mode and operation location 4.23.2 Operation mode at power ON (Pr. 79, Pr. 340) When power is switched ON or when power comes back ON after instantaneous power failure, the inverter can be started up in Network operation mode. After the inverter has started up in the Network operation mode, parameter write and operation can be performed from a program.
Page 333: Start Command Source And Frequency Command Source During Communication Operation (Pr. 338, Pr. 339, Pr. 550, Pr. 551)
Selection of operation mode and operation location 4.23.3 Start command source and frequency command source during communication operation (Pr. 338, Pr. 339, Pr. 550, Pr. 551) When the RS-485 terminals or communication option is used, the external operation command and speed command can be valid.
Page 334 Selection of operation mode and operation location (2) Select the command source of the PU operation mode (Pr. 551) ⋅ Any of the PU connector, RS-485 terminals, or USB connector can be specified as the command source in the PU operation mode.
Page 335 Selection of operation mode and operation location (3) Controllability through communication Operation External/PU External/PU NET Operation NET Operation Condition Combined Combined Mode Operation External (when RS-485 (when (Pr. 551 Operation Mode Operation communication Location Operation Operation terminals are Mode 2 Setting) option is used) used)
Page 336 Selection of operation mode and operation location Operation External/PU External/PU NET Operation NET Operation Condition Combined Combined Mode Operation External (when RS-485 (when (Pr. 551 Operation Mode Operation communication Location Operation Operation terminals are Mode 2 Setting) option is used) used) Item (Pr.
Page 337 Selection of operation mode and operation location (5) Selection of command source in Network operation mode (Pr. 338, Pr. 339) ⋅ There are two control sources: operation command source, which controls the signals related to the inverter start command and function selection, and speed command source, which controls signals related to frequency setting. ⋅...
Page 338 Selection of operation mode and operation location Pr. 338 Communication operation command 0: NET 1: External Operation source Location Remarks Pr. 339 Communication speed command Selection 0: NET 1:External 2:External 0: NET 1:External 2:External source Torque bias selection 1 External External Torque bias selection 2 External...
Page 339: Communication Operation And Setting
Communication operation and setting 4.24 Communication operation and setting Refer to Purpose Parameter that must be Set Page Initial setting of computer link Communication operation from PU connector Pr. 117 to Pr. 124 communication (PU connector) Initial setting of computer link Pr.
Page 340: System Configuration
Communication operation and setting (2) PU connector communication system configuration and wiring System configuration Station 0 Station 0 Computer Computer Inverter Inverter Inverter RS-232C FR-DU07 connector Operation RS-232C RS-485 panel connector Maximum connector cable interface/ connector connector terminals FR-ADP RS-232C-RS-485 (option) converter RJ-45...
Page 341: Wiring And Arrangement Of Rs-485 Terminals
Communication operation and setting 4.24.2 Wiring and arrangement of RS-485 terminals (1) RS-485 terminal layout Name Description RDA1 OPEN Inverter receive+ (RXD1+) RDB1 Inverter receive- Terminating resistor switch (RXD1-) Factory-set to "OPEN". RDA2 Inverter receive+ Set only the terminating resistor switch of (RXD2+) (for branch) 100Ω...
Page 342 Communication operation and setting (3) RS-485 terminal system configuration Connection of a computer to the inverter (1:1 connection) Computer Computer Inverter Inverter RS-485 RS-485 RS-485 terminals terminals Maximum RS-232C interface/ cable terminals Converter Twisted pair cable Twisted pair cable *Set the terminating resistor switch to the "100Ω" position. Combination of computer and multiple inverters (1:n connection) Station 0 Station 1...
Page 343 Communication operation and setting (4) RS-485 terminal wiring method Wiring of one RS-485 computer and one inverter Computer Wiring of one RS-485 computer and "n" inverters (several inverters) Computer Station 0 Station 1 Station n Make connections in accordance with the manual of the computer used. Fully check the terminal numbers of the computer since they change with the model.
Page 344: Initial Settings And Specifications Of Rs-485 Communication
Communication operation and setting 4.24.3 Initial settings and specifications of RS-485 communication (Pr. 117 to Pr. 124, Pr. 331 to Pr. 337, Pr. 341, Pr. 549) Use the following parameters to perform required settings for communication between the inverter and personal computer.
Page 345: Communication Eeprom Write Selection (Pr. 342)
Communication operation and setting [RS-485 terminal communication related parameter] Parameter Initial Name Setting Range Description Number Value RS-485 communication station Set the inverter station number. (same 0 to 31 (0 to 247) number specifications as Pr. 117) *1 *5 3, 6, 12, 24, 48, Used to select the communication speed.
Page 346: Mitsubishi Inverter Protocol (Computer Link Communication)
Communication operation and setting 4.24.5 Mitsubishi inverter protocol (computer link communication) You can perform parameter setting, monitor, etc. from the PU connector or RS-485 terminals of the inverter using the Mitsubishi inverter protocol (computer link communication). (1) Communication specifications ⋅ The communication specifications are given below. Related Item Description...
Page 347 Communication operation and setting (3) Communication operation presence/absence and data format types ⋅ Data communication between the computer and inverter is made in ASCII code (hexadecimal code). ⋅ Communication operation presence/absence and data format types are as follows: Running Parameter Inverter Parameter Operation...
Page 348 Communication operation and setting (4) Data definitions 1) Control codes Signal Name ASCII Code Description Start Of Text (start of data) End Of Text (end of data) Enquiry (communication request) Acknowledge (no data error detected) Line Feed Carriage Return Negative Acknowledge (data error detected) 2) Inverter station number Specify the station number of the inverter which communicates with the computer.
Page 349 Communication operation and setting 7) Error Code If any error is found in the data received by the inverter, its definition is sent back to the computer together with the NAK code. Error Error Item Error Description Inverter Operation Code The number of errors consecutively detected in communication Computer NAK error request data from the computer is greater than allowed number of...
Page 350 Communication operation and setting (6) Retry count setting (Pr. 121, Pr. 335) ⋅ Set the permissible number of retries at occurrence of a data receive error. (Refer to page 338 for data receive error for retry) ⋅ When data receive errors occur consecutively and exceed the permissible number of retries set, an inverter trip (E.PUE) may occur and stops the motor.
Page 351 Communication operation and setting (8) Instructions for the program 1) When data from the computer has any error, the inverter does not accept that data. Hence, in the user program, always insert a retry program for data error. 2) All data communication, e.g. run command or monitoring, are started when the computer gives a communication request.
Page 352 Communication operation and setting General flowchart Port open Communication setting Time out setting Send data processing Data setting Sum code calculation Data transmission Receive data waiting Receive data processing Data retrieval Screen display CAUTION Always set the communication check time interval before starting operation to prevent hazardous conditions. Data communication is not started automatically but is made only once when the computer provides a communication request.
Page 353 Communication operation and setting (9) Setting items and set data After completion of parameter setting, set the instruction codes and data then start communication from the computer to allow various types of operation control and monitoring. Number of Read/ Instruction Item Data Description Data Digits...
Page 354 Communication operation and setting Number of Read/ Instruction Item Data Description Data Digits Write Code (format) All parameters return to the initial values. Whether to clear communication parameters or not can be : Clear, ×: Not clear) selected according to data. ( Refer to page 466 for parameter clear, all clear, and communication parameters.
Page 355 Communication operation and setting List of calibration parameters Instruction Instruction Instruction code code code Para Para Para Name Name Name meter meter meter Terminal 2 frequency Terminal 1 bias Terminal 4 bias 5E DE 1 11 91 (902) setting bias frequency (917) frequency (speed) command (torque/...
Page 356 Communication operation and setting [Fault data] Refer to page 403 for details of fault description. Data Description Data Description Data Description Fault record display example (instruction code H74) No alarm E.PTC E.OD E.OC1 E.OPT E.MB1 For read data H30A0 (Previous fault ..THT) E.OC2 E.OP3 E.MB2...
Page 357 Communication operation and setting [Inverter status monitor] Instruction Item Description Example Code Length b0:RUN (inverter running)* [Example 1] H02 During forward b1:Forward rotation rotation b2:Reverse rotation Inverter b3:SU (up to frequency) * status 8 bits b4:OL (overload) * monitor [Example 2] H80 Stop at fault b5:IPF (instantaneous power failure) * occurrence...
Page 358: Modbus-Rtu Communication Specifications (Pr. 331, Pr. 332, Pr. 334, Pr. 343, Pr. 539, Pr. 549)
Communication operation and setting 4.24.6 Modbus-RTU communication specifications (Pr. 331, Pr. 332, Pr. 334, Pr. 343, Pr. 539, Pr. 549) Using the Modbus-RTU communication protocol, communication operation or parameter setting can be performed from the RS-485 terminals of the inverter. Parameter Name Initial Value...
Page 359 Communication operation and setting (2) Outline The Modbus protocol is the communication protocol developed by Modicon for programmable controller. The Modbus protocol performs serial communication between the master and slave using the dedicated message frame. The dedicated message frame has the functions that can perform data read and write. Using the functions, you can read and write the parameter values from the inverter, write the input command of the inverter, and check the operating status.
Page 360 Communication operation and setting (4) Message frame (protocol) Communication method Basically, the master sends a query message (question) and the slave returns a response message (response). When communication is normal, Device Address and Function Code are copied as they are, and when communication is abnormal (function code or data code is illegal), bit 7 (= 80h) of Function Code is turned ON and the error code is set to Data Bytes.
Page 361 Communication operation and setting (5) Message format types The message formats corresponding to the function codes in Table 1 on page 349 will be explained. Read holding register data (H03 or 03) Can read the description of 1) system environment variables, 2) real-time monitor, 3) faults history, and 4) inverter parameters assigned to the holding register area (refer to the register list (page 355)).
Page 362 Communication operation and setting Write multiple holding register data (H06 or 06) You can write the description of 1) system environment variables and 4) inverter parameters assigned to the holding register area (refer to the register list (page 355)). Query message 1) Slave Address 2) Function 3) Register Address...
Page 363 Communication operation and setting Function diagnosis (H08 or 08) A communication check can be made since the query message sent is returned unchanged as a response message (function of subfunction code H00). Subfunction code H00 (Return Query Data) Query Message 1) Slave Address 2) Function 3) Subfunction 4) Date...
Page 364 Communication operation and setting ⋅ Description of normal response 1) to 4) (including CRC check) of the normal response are the same as those of the query message. Example) To write 0.5s (H05) to 41007 (Pr. 7) at the slave address 25 (H19) and 1s (H0A) to 41008 (Pr. 8). Query Message Slave Starting...
Page 365 Communication operation and setting Error response An error response is returned if the query message received from the master has an illegal function, address or data. No response is returned for a parity, CRC, overrun, framing or busy error. CAUTION No response message is sent in the case of broadcast communication also.
Page 366 Communication operation and setting (6) Modbus registers System environment variable Register Definition Read/Write Remarks 40002 Inverter reset Write Any value can be written 40003 Parameter clear Write Set H965A as a written value. 40004 All parameter clear Write Set H99AA as a written value. 40006 Parameter clear Write...
Page 367 Communication operation and setting Real-time monitor Refer to page 253 for details of the monitor description. Register Definition Increments Register Definition Increments Register Definition Increments Output frequency/ 0.01kW/ Torque current 40201 0.01Hz/1 40213 Input power 40233 0.1% speed 0.1kW command 0.01A/ 0.01kW/ 0.01/...
Page 368 Communication operation and setting Parameter Parameters Register Parameter Name Read/Write Remarks 41000 to Refer to the parameter list (page 71) for The parameter number + 41000 is the 0 to 999 Read/write 41999 the parameter names. register number. Terminal 2 frequency setting bias C2(902) 41902 Read/write...
Page 369 Communication operation and setting Faults history Register Definition Read/Write Remarks 40501 Fault history 1 Read/write 40502 Fault history 2 Read Being 2 bytes in length, the data is stored as 40503 Fault history 3 Read "H00 ". Refer to the lowest 1 byte for the fault 40504 Fault history 4 Read...
Page 370 Communication operation and setting (9) Signal loss detection (Pr. 539 Modbus-RTU communication check time interval) If a signal loss (communication stop) is detected between the inverter and master as a result of a signal loss detection, a communication fault (E.SER) occurs and the inverter trips. ·...
Page 371: Usb Communication (Pr. 547, Pr. 548)
Communication operation and setting 4.24.7 USB communication (Pr. 547, Pr. 548) Inverter setup can be easily performed using the FR Configurator by connecting the inverter and personal computer with a USB cable. A personal computer and inverter can be easily connected with one USB cable. Parameter Name Initial Value...
Page 372: Special Operation And Frequency Control
Special operation and frequency control 4.25 Special operation and frequency control Refer Purpose Parameter that must be Set to Page Perform process control such as pump and air Pr. 127 to Pr. 134, PID control volume. Pr. 575 to Pr. 577 Switch between the inverter operation and Bypass-inverter switchover Pr.
Page 373 Special operation and frequency control Parameter Initial Setting Name Description Number Value Range For deviation lamp input, time (Td) required for providing only 0.01 to the manipulated variable for the proportional (P) action. As the 10.00s differential time increases, greater response is made to a PID differential time 9999 deviation change.
Page 374 Special operation and frequency control (2) PID action overview 1) PI action A combination of P action (P) and I action (I) for providing a Deviation Set point manipulated variable in response to deviation and changes with time. Measured value [Operation example for stepped changes of measured value] P action (Note) PI action is the sum of P and I actions.
Page 375 Special operation and frequency control 4)Reverse action Increases the manipulated variable (output frequency) if deviation X = (set point - measured value) is positive, and decreases the manipulated variable if deviation is negative. Deviation Set point [Heating] X>0 Cold Increase Decrease X<0 point...
Page 376 Special operation and frequency control (4) I/O signals and parameter setting ⋅ Turn ON the X14 signal to perform PID control. When this signal is OFF, PID action is not performed and normal inverter operation is performed. (Note that it is not necessary to turn ON X14 signal when performing PID control with using LONWORKS or CC-Link communication.
Page 377 Special operation and frequency control (5) PID control automatic switchover control (Pr. 127) ⋅ The inverter can be started up without PID control only at a start. ⋅ When the frequency is set to Pr. 127 PID control automatic switchover frequency within the range of 0 to 400Hz, the system starts up without PID control from a start until Pr.
Page 378 Special operation and frequency control (8) Adjustment procedure Adjust the PID control parameters, Pr. 127 to Pr. 134 and Pr. 575 to Pr. 577. Parameter setting Set the I/O terminals for PID control. (Pr. 178 to Pr. 189 (input terminal Terminal setting function selection), Pr.
Page 379 Special operation and frequency control <Set point input calibration> 1. Apply the input voltage of 0% set point setting (e.g. 0V) across terminals 2 and 5. 2. Enter in C2 (Pr. 902) the frequency which should be output by the inverter at the deviation of 0% (e.g. 0Hz). 3.
Page 380: Bypass-Inverter Switchover Function (Pr. 57, Pr. 58, Pr. 135 To Pr. 139, Pr. 159)
Special operation and frequency control 4.25.2 Bypass-inverter switchover function (Pr. 57, Pr. 58, Pr. 135 to Pr. 139, Pr. 159) The complicated sequence circuit for bypass operation is built in the inverter. Hence, merely inputting the start, stop or automatic switchover selection signal facilitates the interlock operation of the switchover magnetic contactor.
Page 381 Special operation and frequency control (1) Connection diagram ⋅ The following shows the connection diagram of a typical electronic bypass sequence. Sink logic, Pr. 185 = "7", Pr. 192 = "17", Pr. 193 = "18", Pr. 194 = "19" Take caution for the capacity of the sequence output terminal. The used terminal changes depending on the setting of Pr.
Page 382 Special operation and frequency control ⋅ The input signals are as indicated below. MC Operation Signal Terminal Used Function Operation ON ..Bypass-inverter operation ⎯ ⎯ enabled Operation enable/disable selection OFF ... Bypass-inverter operation × disabled change × ON..Inverter operation Inverter/bypass ×...
Page 383 Special operation and frequency control (2) Electronic bypass operation sequence ⋅ Operation sequence example when there is no automatic switchover sequence (Pr. 139 = "9999") Power supply Operation interlock ON : Operation enabled (MRS) OFF: Operation disabled Inverter run command ON : Forward rotation (STF) OFF: Stop...
Page 384 Special operation and frequency control (3) Operating procedure 1)Procedure for operation Operation pattern ⋅ Pr. 135 = "1" (open collector output terminal of inverter) Power supply ON ⋅ Pr. 136 = "2.0s" ⋅ Pr. 137 = "1.0s" (Set the time longer than the time from when Setting the parameters MC3 actually turns ON until the inverter and motor are connected.
Page 385: Load Torque High Speed Frequency Control (Pr. 4, Pr. 5, Pr. 270 To Pr. 274)
Special operation and frequency control 4.25.3 Load torque high speed frequency control (Pr. 4, Pr. 5, Pr. 270 to Pr. 274) Load torque high speed frequency control is a function <Without high-speed <With high-speed which automatically sets the operational maximum frequency control>...
Page 386 Special operation and frequency control (1) Load torque high speed frequency control setting · Set "2, 3 or 13" in Pr. 270 Stop-on contact/load torque high-speed frequency control selection. · When operating with the load torque high speed frequency function selection signal (X19) ON, the inverter automatically changes the maximum frequency within the setting range of Pr.
Page 387: Droop Control (Pr. 286 To Pr. 288)
Special operation and frequency control CAUTION When the load is light, the motor may suddenly accelerate to 120Hz maximum, causing hazard. Securely provide mechanical interlock on the machine side to perform. ♦ Parameters referred to ♦ Pr. 4 to Pr. 6, Pr. 24 to Pr. 27 (multi-speed setting) Refer to page 165 Pr.
Page 388 Special operation and frequency control (2) Limit the frequency after droop compensation (0 limit) · Setting Pr. 288 under Real sensorless vector control or vector control can limit the frequency command when the frequency after droop compensation is negative. Description Pr.
Page 389: Frequency Setting By Pulse Train Input (Pr. 291, Pr. 384 To Pr. 386)
Special operation and frequency control 4.25.5 Frequency setting by pulse train input (Pr. 291, Pr. 384 to Pr. 386) The inverter speed can be set by inputting pulse train from terminal JOG. In addition, synchronous speed operation of inverters can be performed by combining pulse train I/O. Parameter Initial Setting...
Page 390 Special operation and frequency control * When the wiring length of the open collector output connection is long, input pulse cannot be recognized because of a pulse shape deformation due to the stray capacitances of the wiring. When wiring length is long (10m or more of 0.75mm twisted cable is recommended), connect an open collector output signal and power supply using a pull up resistance.
Page 391 Special operation and frequency control (4) Synchronous speed operation by pulse I/O Inverter (master) To next inverter (slave) Pull up resistance* Speed Speed Pulse train command command input To next inverter (slave) Pulse train Pulse train output output * When the wiring length between FM and JOG is long, a pulse shape is deformed due to the stray capacitances of the wiring and input pulse cannot be recognized.
Page 392: Encoder Feedback Control (Pr. 144, Pr. 285, Pr. 359, Pr. 367 To Pr. 369)
Special operation and frequency control 4.25.6 Encoder feedback control (Pr. 144, Pr. 285, Pr. 359, Pr. 367 to Pr. 369) Magnetic flux Magnetic flux Magnetic flux This controls the inverter output frequency so that the motor speed is constant to the load variation by detecting the motor speed with the speed detector (encoder) to feed it back to the inverter.
Page 393 Special operation and frequency control (2) Selection of encoder feedback control (Pr. 367 ) ⋅ When a value other than "9999" is set in Pr. 367 Speed feedback range, encoder feedback control is valid. Regeneration load Speed feedback range Driven load Using the set point (frequency at which stable speed operation is performed) as reference, set the higher and Set value...
Page 394: Regeneration Avoidance Function (Pr. 665, Pr. 882 To Pr. 886)
Special operation and frequency control 4.25.7 Regeneration avoidance function (Pr. 665, Pr. 882 to Pr. 886) This function detects a regenerative status and increases the frequency to avoid the regenerative status. Possible to avoid regeneration by automatically increasing the frequency and continue operation if the fan happens to rotate faster than the set speed due to the effect of another fan in the same duct.
Page 395 Special operation and frequency control (2) To detect the regenerative status during deceleration faster (Pr. 884) ⋅ As the regeneration avoidance function cannot respond to an abrupt voltage change by detection of the bus voltage level, the ratio of bus voltage change is detected to stop deceleration if the bus voltage is less than Pr. 883 Regeneration avoidance operation level.
Page 396: Useful Functions
Useful functions 4.26 Useful functions Refer to Purpose Parameter that must be Set Page Increase cooling fan life Cooling fan operation selection Pr. 244 Inverter part life display Pr. 255 to Pr. 259 To determine the maintenance time Maintenance output function Pr.
Page 397: Display Of The Life Of The Inverter Parts (Pr. 255 To Pr. 259)
Useful functions 4.26.2 Display of the life of the inverter parts (Pr. 255 to Pr. 259) Degrees of deterioration of main circuit capacitor, control circuit capacitor, cooling fan and inrush current limit circuit can be diagnosed by monitor. When any part has approached the end of its life, an alarm can be output by self diagnosis to prevent a fault. (Use the life check of this function as a guideline since the life except the main circuit capacitor is calculated theoretically.) For the life check of the main circuit capacitor, the alarm signal (Y90) will not be output if a measuring method of...
Page 398 Useful functions (1) Life alarm display and signal output (Y90 signal, Pr. 255) ⋅ Whether any of the control circuit capacitor, main circuit capacitor, cooling fan and inrush current limit circuit has reached the life alarm output level or not can be checked by Pr. 255 Life alarm status display and life alarm signal (Y90). •...
Page 399 Useful functions (4) Main circuit capacitor life display (Pr. 258, Pr. 259) ⋅ The deterioration degree of the main circuit capacitor is displayed in Pr. 258 as a life. ⋅ On the assumption that the main circuit capacitor capacitance at factory shipment is 100%, the capacitor life is displayed in Pr.
Page 400: Maintenance Timer Alarm (Pr. 503, Pr. 504)
Useful functions 4.26.3 Maintenance timer alarm (Pr. 503, Pr. 504) When the cumulative energization time of the inverter reaches the parameter set time, the maintenance timer output signal (Y95) is output. (MT) is displayed on the operation panel (FR-DU07). This can be used as a guideline for the maintenance time of peripheral devices. Parameter Initial Setting...
Page 401: Current Average Value Monitor Signal (Pr. 555 To Pr. 557)
Useful functions 4.26.4 Current average value monitor signal (Pr. 555 to Pr. 557) The average value of the output current during Programmable controller constant speed operation and the maintenance Output Input timer value are output as a pulse to the current unit unit average value monitor signal (Y93).
Page 402 Useful functions (3) Setting of Pr. 557 Current average value monitor signal output reference current Set the reference (100%) for outputting the signal of the current average value. Obtain the time to output the signal from the following formula. Output current average value ×...
Page 403: Free Parameter (Pr. 888, Pr. 889)
Useful functions 4.26.5 Free parameter (Pr. 888, Pr. 889) You can input any number within the setting range 0 to 9999. For example, the number can be used: ⋅ As a unit number when multiple units are used. ⋅ As a pattern number for each operation application when multiple units are used. ⋅...
Page 404: Setting Of The Parameter Unit And Operation Panel
Setting of the parameter unit and operation panel 4.27 Setting of the parameter unit and operation panel Purpose Parameter that must be Set Refer to Page Switch the display language of the PU display language selection Pr. 145 parameter unit Use the setting dial of the operation panel like a potentiometer for Operation panel operation selection...
Page 405: Operation Display
Setting of the parameter unit and operation panel (1) Using the setting dial like a potentiometer to set the frequency. Operation example Changing the frequency from 0Hz to 60Hz during operation Operation Display Screen at power-ON The monitor display appears. PU indicator is lit.
Page 406: Buzzer Control (Pr. 990)
Setting of the parameter unit and operation panel (2) Disable the setting dial and key operation of the operation panel (Press [MODE] long (2s)) ⋅ Operation using the setting dial and key of the operation panel can be invalid to prevent parameter change, and unexpected start or frequency setting.
Page 407: Parameter Clear And All Parameter Clear
Parameter clear and all parameter clear 4.28 Parameter clear and all parameter clear POINT · Set "1" in Pr. CL parameter clear or ALLC All parameter clear to initialize all parameters. (Parameters are not cleared when "1" is set in Pr. 77 Parameter write selection. Calibration parameters are not cleared with Pr.CL either. In addition, calibration parameters are not cleared.) ·...
Page 408: Parameter Copy And Parameter Verification
Parameter copy and parameter verification 4.29 Parameter copy and parameter verification PCPY Setting Description Cancel Copy the source parameters to the operation panel. Write the parameters copied to the operation panel into the destination inverter. Verify parameters in the inverter and operation panel. (Refer to page 398.) REMARKS ·...
Page 409: Parameter Verification
Parameter copy and parameter verification 4.29.2 Parameter verification Whether same parameter values are set in other inverters or not can be checked. Operation Move the operation panel to the inverter to be verified. Move it during a stop. Screen at power-ON The monitor display appears.
Page 410: Check And Clear Of The Faults History
Check and clear of the faults history 4.30 Check and clear of the faults history (1) Check for the faults history Monitor/frequency setting Parameter setting [Operation panel is used [Parameter setting change] for operation] Faults history [Operation for displaying faults history] Eight past faults can be displayed with the setting dial.
Page 411 Check and clear of the faults history (2) Clearing procedure POINT · The faults history can be cleared by setting "1" in Er.CL Faults history clear. Operation Screen at power-ON The monitor display appears. Parameter setting mode Press to choose the parameter setting mode. (The parameter number previously read appears.) Selecting the parameter number Turn...
Page 412: Protective Functions
5 PROTECTIVE FUNCTIONS This chapter describes the basic "PROTECTIVE FUNCTION" for use of this product. Always read the instructions before using the equipment. 5.1 Reset method of protective function......402 5.2 List of fault or alarm display ........403 5.3 Causes and corrective actions ........404 5.4 Correspondences between digital and actual characters ...............418 5.5 Check first when you have a trouble .......419...
Page 413: Reset Method Of Protective Function
Reset method of protective function When a fault occurs in the inverter, the inverter trips and the PU display automatically changes to one of the following fault or alarm indications. If the fault does not correspond to any of the following faults or if you have any other problem, please contact your sales representative.
Page 414: List Of Fault Or Alarm Display
List of fault or alarm display 5.2 List of fault or alarm display Operation Panel Refer Operation Panel Refer Name Name Indication Indication Output side earth (ground) E.GF E - - - Faults history fault overcurrent HOLD Operation panel lock E.LF Output phase loss LOCD...
Page 415: Causes And Corrective Actions
Causes and corrective actions 5.3 Causes and corrective actions (1) Error message A message regarding operational troubles is displayed. Output is not shut off. Operation Panel HOLD Indication Name Operation panel lock Description Operation lock mode is set. Operation other than is invalid.
Page 416 Causes and corrective actions Operation Panel Indication Name Mode designation error · Appears if a parameter setting is attempted in the External or NET operation mode with Pr. 77 ≠ "2". Description · Appears if a parameter setting is attempted when the command source is not at the operation panel. (FR- DU07).
Page 417 Causes and corrective actions (2) Warning When the protective function is activated, the output is not shut off. Operation Panel FR-PU04 Indication FR-PU07 Name Stall prevention (overcurrent) When the output current (output torque during Real sensorless vector control or vector control) of the inverter exceeds the stall prevention operation level (Pr.
Page 418 Causes and corrective actions Operation Panel FR-PU04 Indication FR-PU07 Name Regenerative brake pre-alarm Appears if the regenerative brake duty reaches or exceeds 85% of the Pr. 70 Special regenerative brake duty value. When the setting of Pr. 70 Special regenerative brake duty is the initial value (Pr. 70 = "0"), this warning does not occur.
Page 419 Causes and corrective actions (3) Alarm When an alarm occurs, the output is not shut off. You can also output an alarm signal by making parameter setting. (Set "98" in any of Pr. 190 to Pr. 196 (output terminal function selection). (Refer to page Operation Panel FR-PU04 Indication...
Page 420 Causes and corrective actions Operation Panel FR-PU04 E.OC3 OC During Dec Indication FR-PU07 Name Overcurrent trip during deceleration or stop When the inverter output current reaches or exceeds approximately 220% of the rated inverter current Description during deceleration (other than acceleration or constant speed), the protective circuit is activated to stop the inverter output.
Page 421 Causes and corrective actions Operation Panel FR-PU04 E.THT Inv. Ovrload Indication FR-PU07 Name Inverter overload trip (electronic thermal relay function) If a current not less than 150% of the rated output current flows and overcurrent trip does not occur Description (220% or less), the electronic thermal relay activates to stop the inverter output in order to protect the output transistors.
Page 422 Causes and corrective actions FR-PU04 Operation Panel E.BE Br. Cct. Fault Indication FR-PU07 Name Brake transistor alarm detection This function stops the inverter output if an alarm occurs in the brake circuit, e.g. damaged brake transistors. Description In this case, the inverter must be powered OFF immediately. ·...
Page 423 Causes and corrective actions FR-PU04 Operation Panel E.LF E.LF Indication FR-PU07 Name Output phase loss This function stops the inverter output if one of the three phases (U, V, W) on the inverter's output side Description (load side) is lost. ·...
Page 424 Causes and corrective actions Operation Panel FR-PU04 E.OP3 Option3 Fault Indication FR-PU07 Name Communication option fault Description Stops the inverter output when a communication line error occurs in the communication option. · Check for a wrong option function setting and operation. ·...
Page 425 Causes and corrective actions Operation Panel FR-PU04 E.RET Retry No Over Indication FR-PU07 Name Retry count excess If operation cannot be resumed properly within the number of retries set, this function trips the inverter. Description This function is available only when Pr. 67 Number of retries at fault occurrence is set. When the initial value (Pr.
Page 426 Causes and corrective actions Operation Panel FR-PU04 E.OSD E.OSd Indication FR-PU07 Name Speed deviation excess detection Trips the inverter if the motor speed is increased or decreased under the influence of the load etc. during vector control with Pr. 285 Excessive speed deviation detection frequency set and cannot be Description controlled in accordance with the speed command value.
Page 427 Causes and corrective actions Operation Panel FR-PU04 E.P24 E.P24 Indication FR-PU07 Name 24VDC power output short circuit When the 24VDC power output from the PC terminal is shorted, this function shuts off the power output. Description At this time, all external contact inputs switch OFF. The inverter cannot be reset by entering the RES signal.
Page 428 Causes and corrective actions Operation Panel FR-PU04 E.11 Fault 11 Indication FR-PU07 Name Opposite rotation deceleration fault The speed may not decelerate during low speed operation if the rotation direction of the speed command and the estimated speed differ when the rotation is changing from forward to reverse or from Description reverse to forward during torque control under Real sensorless vector control.
Page 429: Correspondences Between Digital And Actual Characters
Correspondences between digital and actual characters 5.4 Correspondences between digital and actual characters There are the following correspondences between the actual alphanumeric characters and the digital characters displayed on the operation panel. Actual Digital Actual Digital Actual Digital...
Page 430: Check First When You Have A Trouble
Check first when you have a trouble Check first when you have a trouble page 110 (speed control), page 131 (torque control) and page 143 (position control) in Refer to troubleshooting on addition to the following check points. POINT · If the cause is still unknown after every check, it is recommended to initialize the parameters (initial value) then reset the required parameter values and check again.
Page 431 Check first when you have a trouble Refer Check Possible Cause Countermeasures points page During the External operation mode, check the method of was pressed. restarting from a input stop from PU. (Operation panel indication is (PS).) Check the connection. Two-wire or three-wire type connection is wrong.
Page 432: Motor Or Machine Is Making Abnormal Acoustic Noise
Check first when you have a trouble 5.5.2 Motor or machine is making abnormal acoustic noise Even if the carrier frequency (Pr. 72) is set to a value higher than 3kHz for a 55K or lower capacity inverter, the carrier frequency is automatically lowered to as low as 2kHz in an overloaded operation at a low speed (output frequency lower than 3Hz).
Page 433: Motor Rotates In The Opposite Direction
Check first when you have a trouble 5.5.5 Motor rotates in the opposite direction Refer Check Possible Cause Countermeasures points page Main Phase sequence of output terminals U, V and W is Connect phase sequence of the output cables (terminal Circuit incorrect.
Page 434: Speed Varies During Operation
Check first when you have a trouble 5.5.8 Speed varies during operation When Advanced magnetic flux vector control, Real sensorless vector control, vector control or encoder feedback control is exercised, the output frequency varies with load fluctuation between 0 and 2Hz. This is a normal operation and is not a fault. Refer Check Possible Cause...
Page 435: Operation Mode Is Not Changed Properly
Check first when you have a trouble 5.5.9 Operation mode is not changed properly Refer Check Possible Cause Countermeasures points page Check that the STF and STR signals are OFF. Input Start signal (STF or STR) is ON. When either is ON, the operation mode cannot be signal changed.
Page 436: Speed Does Not Accelerate
Check first when you have a trouble 5.5.12 Speed does not accelerate Refer Check Possible Cause Countermeasures points page Check if the start command and the frequency Start command and frequency command are chattering. — command are correct. Input The wiring length used for analog frequency command Perform analog input bias/gain calibration.
Page 437 MEMO...
Page 438: Precautions For Maintenance And Inspection
PRECAUTIONS FOR MAINTENANCE AND INSPECTION This chapter provides the "PRECAUTIONS FOR MAINTENANCE AND INSPECTION" of this product. Always read the instructions before using the equipment. 6.1 Inspection item ............428 6.2 Measurement of main circuit voltages, currents and powers..............435...
Page 439: Inspection Item
Inspection item The inverter is a static unit mainly consisting of semiconductor devices. Daily inspection must be performed to prevent any fault from occurring due to the adverse effects of the operating environment, such as temperature, humidity, dust, dirt and vibration, changes in the parts with time, service life, and other factors. •...
Page 440: Daily And Periodic Inspection
Inspection item 6.1.3 Daily and periodic inspection Interval Corrective Action at Inspection Item Description Alarm Occurrence Surrounding Check the surrounding air temperature, humidity, Improve environment environment dirt, corrosive gas, oil mist , etc. Check alarm location and Check for unusual vibration and noise. retighten General Overall unit...
Page 441: Display Of The Life Of The Inverter Parts
Inspection item 6.1.4 Display of the life of the inverter parts The self-diagnostic alarm is output when the life span of the control circuit capacitor, cooling fan, each parts of the inrush current limit circuit is near its end. It gives an indication of replacement time . The life alarm output can be used as a guideline for life judgement.
Page 442: Replacement Of Parts
Inspection item 6.1.7 Replacement of parts The inverter consists of many electronic parts such as semiconductor devices. The following parts may deteriorate with age because of their structures or physical characteristics, leading to reduced performance or fault of the inverter. For preventive maintenance, the parts must be replaced periodically. Use the life check function as a guidance of parts replacement.
Page 443 Inspection item • Reinstallation (FR-A720-1.5K to 90K, FR-A740-2.2K to 132K) 1)After confirming the orientation of the fan, reinstall the fan so that the arrow on the left of "AIR FLOW" faces up. AIR FLOW <Fan side face> 2)Reconnect the fan connectors. FR-A720-5.5K to 11K FR-A720-1.5K to 3.7K FR-A740-5.5K to 15K...
Page 444 Inspection item • Removal (FR-A740-160K or higher) 1) Remove a fan cover. 2) After removing a fan connector, remove a fan block. 3) Remove the fan. (Make sure to remove the fan cable from the clamp of the fan block beforehand.) Fan * Fan connection connector...
Page 445: Inverter Replacement
Inspection item (3) Smoothing capacitors A large-capacity aluminum electrolytic capacitor is used for smoothing in the main circuit DC section, and an aluminum electrolytic capacitor is used for stabilizing the control power in the control circuit. Their characteristics are deteriorated by the adverse effects of ripple currents, etc.
Page 446: Measurement Of Main Circuit Voltages, Currents And Powers
Measurement of main circuit voltages, currents and powers 6.2 Measurement of main circuit voltages, currents and powers Since the voltages and currents on the inverter power supply and output sides include harmonics, measurement data depends on the instruments used and circuits measured. When instruments for commercial frequency are used for measurement, measure the following circuits with the instruments given on the next page.
Page 447 Measurement of main circuit voltages, currents and powers Measuring points and instruments Item Measuring Point Measuring Instrument Remarks (Reference Measured Value) Across R/L1 and S/L2, Commercial power supply Power supply voltage S/L2 and T/L3, Moving-iron type AC voltmeter Within permissible AC voltage fluctuation T/L3 and R/L1 (Refer to page 444) Power supply side...
Page 448: Measurement Of Powers
Measurement of main circuit voltages, currents and powers 6.2.1 Measurement of powers Use digital power meters (for inverter) for the both of inverter input and output side. Alternatively, measure using electrodynamic type single-phase wattmeters for the both of inverter input and output side in two-wattmeter or three- wattmeter method.
Page 449: Measurement Of Currents
Measurement of main circuit voltages, currents and powers 6.2.3 Measurement of currents Use a moving-iron type meter on both the input and output sides of the inverter. However, if the carrier frequency exceeds 5kHz, do not use that meter since an overcurrent losses produced in the internal metal parts of the meter will increase and the meter may burn out.
Page 450: Measurement Of Converter Output Voltage (Across Terminals P/+ - N/-)
Measurement of main circuit voltages, currents and powers 6.2.6 Measurement of converter output voltage (across terminals P/+ - N/-) The output voltage of the converter is developed across terminals P/+ and N/- and can be measured with a moving-coil type meter (tester). Although the voltage varies according to the power supply voltage, approximately 270V to 300V (approximately 540V to 600V for the 400V class) is output when no load is connected and voltage decreases when a load is connected.
Page 451 MEMO...
Page 452: Specifications
7 SPECIFICATIONS This chapter provides the "SPECIFICATIONS" of this product. Always read the instructions before using the equipment. 7.1 Rating ..............442 7.2 Motor rating .............444 7.3 Common specifications ...........446 7.4 Outline dimension drawings ........447 7.5 Heatsink protrusion attachment procedure .....459...
Page 453: Inverter Rating
Inverter rating 7.1 Inverter rating 200V class Model FR-A720- 0.4 0.75 1.5 18.5 22 Applicable motor capacity (kW) 0.75 18.5 Rated capacity (kVA) 12.6 17.6 23.3 110 132 Rated current (A) 17.5 115 145 175 215 (245) (294) Overload current rating 150% 60s, 200% 3s (inverse-time characteristics) surrounding air temperature 50°C Rated voltage Three-phase 200 to 240V...
Page 454 Inverter rating 400V class Model FR-A740- 0.75 18.5 Applicable motor capacity (kW) 0.75 18.5 Rated capacity (kVA) 17.5 23.6 32.8 43.4 Rated current (A) Overload current rating 150% 60s, 200% 3s (inverse-time characteristics) surrounding air temperature 50°C Rated voltage Three-phase 380 to 480V Regenerative Maximum value/ 100% torque/2%ED...
Page 455: Motor Rating
Inverter rating 7.2 Motor rating (1) SF-V5RU 200V class (Mitsubishi dedicated motor [SF-V5RU (1500r/min series)]) Motor type SF-V5RU Applicable inverter model 18.5 FR-A720- Rated output (kW) 18.5 · 9.55 14.1 23.6 35.0 47.7 70.0 95.5 Rated torque (N Maximum torque 150% 14.3 21.1 35.4...
Page 456 Inverter rating (2) SF-THY Motor type SF-THY FR-A720- FR-A740- Applicable inverter Rated output (kW) · 48.7 48.7 58.4 71.4 85.7 103.9 129.9 162.3 Rated torque (kgf · 1018 1273 1591 · 73.0 73.0 87.6 107.1 128.5 155.8 194.8 243.4 Maximum torque(kgf ·...
Page 457: Common Specifications
Common specifications 7.3 Common specifications Soft-PWM control/high carrier frequency PWM control (V/F control, Advanced magnetic flux vector control and Real sensorless Control method vector control are available) / vector control Output frequency range 0.2 to 400Hz (The maximum frequency is 120Hz under Real sensorless vector control and vector control 0.015Hz/60Hz (terminal 2, 4: 0 to 10V/12bit) Frequency Analog input...
Page 458: Outline Dimension Drawings
Outline dimension drawings 7.4 Outline dimension drawings 7.4.1 Inverter outline dimension drawings FR-A720-0.4K, 0.75K 2-φ6 hole Inverter Model FR-A720-0.4K FR-A720-0.75K Unit: mm FR-A720-1.5K, 2.2K, 3.7K FR-A740-0.4K, 0.75K, 1.5K, 2.2K, 3.7K 2-φ6 hole * The FR-A740-0.4K to 1.5K are not provided with a cooling fan.
Page 459 Outline dimension drawings FR-A720-5.5K, 7.5K, 11K FR-A740-5.5K, 7.5K, 11K, 15K 2-φ6 hole Inverter Model FR-A720-5.5K, 7.5K FR-A740-5.5K, 7.5K FR-A720-11K 101.5 FR-A740-11K, 15K Unit: mm FR-A720-15K, 18.5K, 22K FR-A740-18.5K, 22K 2-φ10 hole 10.5 Unit: mm...
Page 460 Outline dimension drawings FR-A720-30K, 37K, 45K, 55K FR-A740-30K, 37K, 45K, 55K 2-φd hole Inverter Model FR-A720-30K FR-A740-30K FR-A720-37K, 45K FR-A740-37K, 45K, 55K FR-A720-55K Unit: mm FR-A740-75K, 90K DC reactor supplied 2-φ12hole Rating plate 2-terminal (for M12 bolt) P1, P 4-mounting hole (for M6 screw) Within D Earth (ground) terminal...
Page 461 Outline dimension drawings FR-A720-75K, 90K FR-A740-110K, 132K 2-φ12 hole DC reactor supplied Rating plate 2-terminal (for M12 bolt) 4-mounting hole (for S screw) Within Earth (ground) terminal (for M6 screw) DC Reactor Model Mass (kg) FR-HEL-75K (FR-A720-75K) FR-HEL-90K (FR-A720-90K) FR-HEL-H110K (FR-A740-110K) FR-HEL-H132K (FR-A740-132K) Unit: mm FR-A740-160K, 185K...
Page 462 Outline dimension drawings FR-A740-220K, 250K, 280K 3-φ12 hole DC reactor supplied Rating plate 2-M6 eye nut (only for FR-HEL-H220K) 2-terminal (for M12 bolt) 150 1 4-mounting hole (for M8 screw) 175 2 Within 240 Earth (ground) terminal (for M6 screw) * Remove the eye nut after installation of the product.
Page 463 Outline dimension drawings FR-A740-400K, 450K, 500K 4-φ12 hole R/L1 S/L2 T/L3 N/- DC reactor supplied DC reactor supplied Rating plate Rating plate 2-M8 eye nut 2-terminal 4- 15 hole 2-terminal 4- 15 hole Earth (ground) terminal (for M12 screw) * Remove the eye nut after installation of the product. Within 245 2-M12 eye nut 4-mounting hole...
Page 464 Outline dimension drawings Operation panel (FR-DU07) <Outline drawing> <Panel cutting dimension drawing> Panel 27.8 FR-DU07 3.2max Air- bleeding hole Cable 2-M3 screw Operation panel connection connector (FR-ADP option) Unit: mm Parameter unit (option) (FR-PU07) <Outline drawing> <Panel cutting dimension drawing> 25.05 (14.2) (11.45)
Page 465: Dedicated Motor Outline Dimension Drawings
Outline dimension drawings 7.4.2 Dedicated motor outline dimension drawings Dedicated motor (SF-V5RU(H)) outline dimension drawings (standard horizontal type) Frame Number 90L Frame Number 100L, 112M, 132S, 132M SF-V5RU(H) SF-V5RU(H) Connector (for encoder) Connector (for encoder) MS3102A20-29P MS3102A20-29P Exhaust Exhaust Suction Suction Direction of Direction of...
Page 466 Outline dimension drawings Dedicated motor (SF-V5RU(H)) outline dimension drawings (standard horizontal type with brake) Frame Number 90L Frame Number 100L, 112M, 132S, 132M SF-V5RU(H) SF-V5RU(H) Connector (for encoder) Connector (for encoder) MS3102A20-29P Terminal box for cooling fan MS3102A20-29P Terminal box for cooling fan Main Exhaust terminal box...
Page 467 Outline dimension drawings Dedicated motor (SF-V5RU(H)) outline dimension drawings (flange type) Frame Number 90L Frame Number 100L, 112M, 132S, 132M SF-V5RUF(H) SF-V5RUF(H) Connector (for encoder) Connector (for encoder) MS3102A20-29P MS3102A20-29P LN LZ Exhaust LN LZ Section Exhaust Section Suction Suction Direction of cooling fan wind Earth (ground) terminal (M5)
Page 468 Outline dimension drawings Dedicated motor (SF-V5RU(H)) outline dimension drawings (flange type with brake) Frame Number 90L Frame Number 100L, 112M, 132S, 132M SF-V5RUF(H) SF-V5RUF(H) Connector (for encoder) Connector (for encoder) Terminal box for cooling fan MS3102A20-29P Terminal box for cooling fan MS3102A20-29P Exhaust Exhaust...
Page 469 Outline dimension drawings Dedicated motor (SF-THY) outline dimension drawings (1500r/min series) Frame Number 250MD, 280MD 75kW to 160kW PF4 Class B screw Connector (for encoder) Terminal box for cooling fan MS3102A20-29P Suction Exhaust Direction of cooling fan wind 4-φZ hole This hole is not used.
Page 470: Heatsink Protrusion Attachment Procedure
Heatsink protrusion attachment procedure 7.5 Heatsink protrusion attachment procedure When encasing the inverter in an enclosure, the generated heat amount in an enclosure can be greatly reduced by installing the heatsink portion of the inverter outside the enclosure. When installing the inverter in a compact enclosure, etc., this installation method is recommended.
Page 471 Heatsink protrusion attachment procedure (2) Shift and removal of a rear side installation frame • FR-A740-160K to 280K Shift One installation frame is attached to each of the upper and lower parts of the inverter. Change the position of the rear side Upper installation installation frame on the upper and lower sides of the inverter to...
Page 472 Heatsink protrusion attachment procedure (3) Installation of the inverter Push the inverter heatsink portion outside the enclosure and fix the enclosure and inverter with upper and lower instal- lation frame. * For the FR-A740-160K or higher, there are finger Enclosure guards behind the enclosure.
Page 473 MEMO...
Page 474: Appendices
APPENDICES This chapter provides the "APPENDICES" of this product. Always read the instructions before using the equipment.
Page 475: Appendix 1 For Customers Who Are Replacing The Older Model With This Inverter
Appendix 1 For customers who are replacing the older model with this inverter Appendix 1-1 Replacement of the FR-A500 series (1) Instructions for installation 1) Removal procedure of the front cover was changed. (with screws) Please note. (Refer to page 6.) 2) Removal procedure of the operation panel was changed.
Page 476: Appendix 1-2 Replacement Of The Fr-A200 Series
Built into the inverter FR-A5NR (RS-485 terminals, relay output 2 points) · FR-A720-0.4K to 90K, FR-A740-0.4K to 7.5K, 18.5K to 55K, 110K, 160K are compatible in mounting dimensions. For the FR-A740-11K, 15K, an optional intercompatibility attachment (FR-AAT) is necessary. Installation size ·...
Page 477: Appendix 2 Control Mode-Based Parameter (Function) Correspondence Table And Instruction Code List
Appendix 2 Control mode-based parameter (function) correspondence table and instruction code list These instruction codes are used for parameter read and write by using Mitsubishi inverter protocol with the RS-485 communication. (Refer to page 333 for RS-485 communication) Validity and invalidity according to operation mode are as follows: :Usable parameter ×...
Page 478 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Δ Multi-speed setting (speed 6) Δ Multi-speed setting (speed 7) Multi-speed input ×...
Page 479 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Number of retries at fault × occurrence × Retry waiting time ×...
Page 480 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Third stall prevention × × × × × operation current Third stall prevention ×...
Page 481 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Stall prevention level at 0V × × × × × input Stall prevention level at 10V ×...
Page 482 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control RT terminal function × selection AU terminal function × selection JOG terminal function ×...
Page 483 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control × Override bias × Override gain × × × Life alarm status display Inrush current limit circuit life ×...
Page 484 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Droop function activation × × × × × selection × × Pulse train I/O selection Automatic acceleration/ ×...
Page 485 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Digital input unit × × selection RS-485 communication station number RS-485 communication speed RS-485 communication stop bit length...
Page 486 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Orientation position loop × × × × gain Completion signal output ×...
Page 487 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Motor temperature detection filter Motor thermistor selection Encoder pulse division ratio Position command source ×...
Page 488 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control × × × × × Second motor constant (R1) × × ×...
Page 489 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Eleventh position feed × × × × × × amount lower 4 digits Eleventh position feed amount upper 4...
Page 490 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control DA2 output selection DA2 scale DA3 output selection DA3 scale DA4 output selection DA4 scale DA5 output selection DA5 scale...
Page 491 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Acceleration time at a × × × restart Regeneration avoidance × ×...
Page 492 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Speed detection filter 2 × × × × × × × Torque control P gain 2 ×...
Page 493 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Speed feed forward torque × × × × limit × × ×...
Page 494 Instruction Control Mode-based Correspondence Table Code Real sensorless Advanced Vector control Name vector control magnetic flux control Speed Torque Position Speed Torque vector control control control control control control Terminal 1 bias frequency × × × (917) (speed) × × ×...
Page 495: Appendix 3 Specification Change
Appendix 3 Specification change Appendix 3-1 Changed functions (1) Addition of X74 signal The change applies to the July 2006 production or later. Magnetic flux decay output shutoff signal (X74) becomes a valid input by setting "74" in any of Pr. 178 to Pr. 189 (input terminal function selection).
Page 496 (6) Motor temperature monitor output (when using a dedicated vector motor with thermistor and FR-A7AZ) The change applies to the December 2010 production or later. When using a dedicated vector motor with thermistor (SF-V5RU T/A) and FR-A7AZ, motor temperature monitoring is available from PU, DU, terminal AM, terminal FM, RS-485 communication, output options and communication options.
Page 497 REVISIONS *The manual number is given on the bottom left of the back cover. Print Date Revision Manual Number Aug. 2005 IB(NA)-0600226ENG-A First edition Oct. 2005 IB(NA)-0600226ENG-B Addition FR-A720-75K, 90K FR-A740-0.4K to 500K FR-A7AP is supported • Vector control • Orientation control •...
Page 498 FR-A 700 Series Instruction Manual Supplement The FR-A700 series that has the SERIAL on page 24 or later are compatible with the following specifications. Check the serial number printed on the rating plate of the inverter. In the following sections, indicates the functions that are driven by PM sensorless vector control.
Page 499 Setting procedure of PM sensorless vector control · This inverter is set for a general-purpose motor in the initial setting. Follow the following procedure to change the setting for the PM sensorless vector control. Driving an MM-CF IPM motor Perform IPM parameter initialization by selecting IPM in the parameter setting mode on the operation panel.* (Refer to page 3) Set "3003"...
Page 500: Operation Display
PM sensorless vector control setting by selecting IPM in the parameter setting mode on the operation panel POINT · The parameters required to drive an MM-CF IPM motor are automatically changed as a batch. (Refer to page 6) Operation Initialize the parameter setting for an MM-CF IPM motor by selecting IPM in the parameter setting mode on the example operation panel.
Page 501 (2) PM sensorless vector control display and PM sensorless vector control signal P.RUN on the operation panel (FR-DU07) is lit and the PM sensorless vector control signal (IPM) is output during PM sensorless vector control. For the terminal to output the PM sensorless vector control signal, assign the function by setting "57 (positive logic)"...
Page 502 (1) IPM parameter initialization (Pr.998) · To use a motor capacity that is one rank lower than the inverter capacity, set Pr.80 Motor capacity before performing IPM parameter initialization. By performing IPM parameter initialization, initial settings required to drive an IPM motor are set in parameters. ·...
Page 503 (2) IPM parameter initialization list The parameter settings in the following table are changed to the settings required to perform PM sensorless vector control by selecting PM sensorless vector control with the IPM parameter initialization mode on the operation panel or with Pr. 998 IPM parameter initialization setting. The changed settings differ according to the IPM motor specification (capacity).
Page 504 Offline auto tuning for an IPM motor (motor constant tuning) (Pr.1 , Pr.9 , Pr.18 , Pr.71 , Pr.80 , Pr.81 , Pr.83 , Pr.84 , Pr.90 , Pr.92 , Pr.93 , Pr.96 , Pr.684 , Pr.706 , Pr.707 , Pr.711 , Pr.712 , Pr.721 , Pr.724 , Pr.725 , Pr.859) The offline auto tuning for an IPM motor enables the optimal operation of an IPM motor.
Page 505 Parameter Initial Name Setting Range Description Number Value Internal data converted value Tuning data unit switchover Displayed in "A, , mH, %" Adjust the constant if the current fluctuates to 5000mV • s/rad during operation after tuning. Induced voltage 9999 constant Constant value calculated based on the 9999...
Page 506 (2) Setting To perform tuning, set the following parameters about the motor. Parameter Setting for an IPM motor other Name Setting for MM-CF than MM-CF Number Motor capacity Motor capacity (kW) Number of motor poles Number of motor poles Set by the IPM parameter Maximum frequency 1(18) The maximum motor frequency (Hz)
Page 507 2)Monitor is displayed on the operation panel (FR-DU07) and parameter unit (FR-PU07/FR-PU04) during tuning as below. Parameter Unit Operation Panel (FR-DU07) Display (FR-PU07/FR-PU04) Display Pr. 96 setting READ:List READ:List (1) Setting STOP STOP (2) Tuning in progress TUNE TUNE FWD PU TUNE TUNE (3) Normal end...
Page 508 (4) Utilizing or changing offline auto tuning data The data measured in the offline auto tuning can be read and utilized or changed. <Operating procedure> 1)Set Pr. 71 according to the motor used. Motor Pr. 71 Setting MM-CF IPM motor Other than MM-CF 8094 2) In the parameter setting mode, read the following parameters and set desired values.
Page 509 Applied motor (Pr. 71) Setting of the used motor selects the thermal characteristic appropriate for the motor. Setting is necessary when using a constant-torque motor. Thermal characteristic of the electronic thermal relay function suitable for the motor is set. When PM sensorless vector control is selected, the motor constants (MM-CF etc.) necessary for control are selected as well.
Page 510 Position control under PM sensorless vector control (Pr.800)  In position control, speed commands, which are calculated to eliminate the difference between the command pulse (parameter setting) and the estimated feedback pulse, are output to rotate the motor.  This inverter can perform simple position feed by contact input, position control by inverter simple pulse input, and position control by FR-A7AL pulse train input.
Page 511 Low-speed range torque characteristics (Pr.788) M Å Å t Å s Torque characteristics in a low-speed range can be changed. Parameter Initial Setting Name Operation Number Setting Range Disables the low-speed range torque characteristic Low-speed range torque (current synchronization operation). 9999 characteristics Enables the low-speed range torque characteristic...
Page 512 If torque is required in a low-speed range (less than 1/10 of the rated motor frequency), set Pr.791 Acceleration time in low-speed range and Pr.792 Deceleration time in low-speed range settings higher than the Pr.7 Acceleration time and Pr.8 Deceleration time settings so that the mild acceleration/deceleration is performed in the low-speed range. (For an operation with second acceleration/deceleration times, set the acceleration/deceleration times longer than the second acceleration/deceleration times.) Low-speed range...
Page 513 PM sensorless vector control specification Item Specification Sensorless vector control Control method Low-speed range: Control method in a low-speed range can be selected by parameter (high frequency superposition control (initial setting) / current synchronization operation) High frequency 200% (1.5kW or lower with MM-CF: 200%, 2.0kW or higher: 150%) superposition control Starting torque Current synchronization...
Page 514 Motor 2000r/min Series MM-CF MM-CF MM-CF MM-CF MM-CF MM-CF MM-CF Item 52(C)(B) 102(C)(B) 152(C)(B) 202(C)(B) 352(C)(B) 502(C) 702(C) Surrounding air temperature and -10C to +40C (non-freezing)  90%RH or less (non-condensing) humidity Storage Environmental temperature and -20C to +70C (non-freezing)  90%RH or less (non-condensing) conditions humidity Ambience...
Page 515 Voltage reduction selection during stall prevention operation (Pr.154) The setting values "10 and 11" are added for Pr.154 Voltage reduction selection during stall prevention operation. Parameter Initial Setting Name Description Number Value Range With voltage You can select whether to use reduction output voltage reduction during Without voltage...
Page 516 Operation Panel FR-PU04 E.OV3 OV During Dec Indication FR-PU07 Name Regenerative overvoltage trip during deceleration or stop If regenerative energy causes the inverter's internal main circuit DC voltage to reach or exceed the Description specified value, the protective circuit is activated to stop the inverter output. The circuit may also be activated by a surge voltage produced in the power supply system.
Page 517 Break point setting for droop control (Pr.994, Pr.995) Magnetic flux Magnetic flux Magnetic flux Sensorless Sensorless Sensorless Vector Vector Vector Set Pr.994 and Pr.995 to have a break point on a droop compensation frequency line. Setting a break point allows the inverter to raise the droop compensation frequency for light-load (no load) operation without raising it for heavy-load operation.
Page 518 Setting multiple parameters as a batch (Pr.999)  Parameter settings are changed as a batch. Those include communication parameter settings for the Mitsubishi human machine interface (GOT) connection, rated frequency settings of 50Hz/60Hz, and acceleration/deceleration time increment settings.  Multiple parameters are changed automatically. Users do not have to consider each parameter number.
Page 519 (2) List of automatically-set parameters The following tables show which parameters are changed in each of the automatic parameter settings. CAUTION  If the automatic setting is performed with Pr.999 or the automatic parameter setting mode, the listed settings including the changed parameter settings (changed from the initial setting) will be automatically changed.
Page 520  Rated frequency (Pr. 999 = "20(50Hz), 21(60Hz)") Pr.999 = "20" Parameter Name Initial value Pr.999 = "21" Automatic parameter Refer to setting Base frequency 60Hz 60Hz 50Hz Multi-speed setting (high 60Hz 60Hz 50Hz speed) Acceleration/deceleration 60Hz 60Hz 50Hz reference frequency Speed display Frequency monitoring 60Hz...
Page 521 SERIAL or later on their rating plates. Check the SERIAL of your inverter (printed on its rated plate) against the list of SERIAL numbers shown below. Inverter Model Symbol Inverter Model Symbol Inverter Model Symbol FR-A720-0.4K FR-A740-0.4K FR-A740-110K FR-A720-0.75K FR-A740-0.75K FR-A740-132K FR-A720-1.5K FR-A740-1.5K FR-A740-160K FR-A720-2.2K...
Page 522 Series FR-V500, A700, A701 Instruction Manual Supplement When installing a thermal relay to the cooling fan of the vector-control dedicated motors (SF- V5RU), use the following recommended thermal relay settings.  200V class (Mitsubishi dedicated motor [SF-V5RU (1500r/min series)]) Motor type ...
Page 523 HEAD OFFICE: TOKYO BUILDING 2-7-3, MARUNOUCHI, CHIYODA-KU, TOKYO 100-8310, JAPAN FR-A700 MODEL INSTRUCTION MANUAL (Applied) MODEL 1A2-P10 CODE IB(NA)-0600226ENG-E (1202)MEE Printed in Japan Specifications subject to change without notice.

Mitsubishi Electric FR-A720-0.4K Instruction Manual

1 Outline

2 Wiring

3 Precautions for Use of the Inverter

4 Parameters

5 Protective Functions

6 Precautions for Maintenance and Inspection

7 Specifications

Appendix 1 for Customers Who Are Replacing the Older Model with this Inverter

Appendix 1-1 Replacement of the FR-A500 Series

Appendix 1-2 Replacement of the FR-A200 <EXCELENT> Series

Appendix 2 Control Mode-Based Parameter (Function) Correspondence Table and Instruction Code List

Appendix 3 Specification Change

Appendix 3-1 Changed Functions

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Summary of Contents for Mitsubishi Electric FR-A720-0.4K