Inovance MD580 Series Installation Manual
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Inovance MD580 Series Installation Manual

Inovance MD580 Series Installation Manual

Low-voltage high-performance industrial ac drive (690 v)
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Summary of Contents for Inovance MD580 Series

  • Page 2: Preface

    Preface Preface About This Guide The MD580 series is the low‑voltage, high‑performance engineering AC drive (690 V) that can be used to drive both permanent magnet synchronous motors and AC asynchronous motors. Adopting the high‑performance vector control technology, the MD580 series features high torque output at a low speed, excellent dynamic characteristics, superior overload capabilities, and stable performance.

  • Page 3: Revision History

    PDF file. Warranty Agreement Under the condition of normal use, if the product is faulty or damaged, Inovance provides the warranty service within the warranty period (specified in the order). After the warranty period expires, maintenance will be charged.
  • Page 4 (such as sulfide gas, acid gas, conductive dust, etc.) or with high humidity. The maintenance fee is charged according to the latest Price List of Inovance. If otherwise agreed upon, the terms and conditions in the agreement shall prevail.

  • Page 5: Table Of Contents

    Table of Contents T T a a b b l l e e o o f f C C o o n n t t e e n n t t s s Preface ................1 Fundamental Safety Instructions .
  • Page 6 Table of Contents 4.10 Inspection After Installation ..........46 5 Electrical Installation.
  • Page 7 Table of Contents 7.4.2 Common I/O Signal Interference ..........96 7.5 Communication Interference .

  • Page 8: Fundamental Safety Instructions

    Use this equipment according to the designated environment requirements. ● Damage caused by improper use is not covered by warranty. Inovance shall take no responsibility for any personal injuries or property damage ● caused by improper use. Safety Levels and Definitions Indicates that failure to comply with the notice will result in death or severe personal injuries.
  • Page 9 Fundamental Safety Instructions Check whether the packing is intact and whether there is damage, water seepage, ● dampness, and deformation before unpacking. Unpack the package by following the unpacking sequence. Do not strike the package ● violently. Check whether there is damage, rust, or injuries on the surface of the equipment and ●...
  • Page 10 Fundamental Safety Instructions Read through the guide and safety instructions before installation. ● Do not install this equipment in places with strong electric or magnetic fields. ● Before installation, check that the mechanical strength of the installation site can bear ●...
  • Page 11 Fundamental Safety Instructions Do not connect the input power supply to the output end of the equipment. Failure to ● comply will result in equipment damage or even a fire. When connecting a drive to the motor, check that the phase sequences of the drive and ●...
  • Page 12 Fundamental Safety Instructions Do not touch the equipment casing, fan, or resistor with bare hands to feel the ● temperature. Failure to comply may result in personal injuries. Prevent metal or other objects from falling into the equipment during operation. Failure ●...
  • Page 13 Fundamental Safety Instructions Disposal Dispose of retired equipment in accordance with local regulations and standards. ● Failure to comply may result in property damage, personal injuries, or even death. Recycle retired equipment by observing industry waste disposal standards to avoid ●...

  • Page 14: Installation Flowchart

    Installation Flowchart Installation Flowchart Figure 1‑1 Installation flowchart ‑13‑...

  • Page 15: Preparation

    Preparation Preparation Personnel Only professionals who have electrical expertise and have received relevant ● training on the electrical equipment can perform the installation. The installation personnel must be trained in functional safety and understand ● system hazards and safety features. Installation Environment Table 2–1 Environment requirements Environment...

  • Page 16: Installation Clearance

    Preparation Environment Requirement 2000 m or below; derated by 1% for every additional 100 m when the altitude is above 1000 m; maximum altitude: 4000 m (TN, TT, or IT star Altitude grid, North America delta grid); isolation transformer required when the altitude is above 2000 m For transportation with packaging: compliant with class 2M3 in ●...
  • Page 17 Preparation Figure 2‑2 Installing multiple AC drives (S4 to S9 models) side by side Table 2–3 Installation clearance Power Rating Clearance (mm) 5.5 kW to 22 kW A1 ≥ 10 30 kW to 45 kW A1 ≥ 50 55 kW to 110 kW A1 ≥...

  • Page 18: In-Cabinet Clearance

    Preparation Figure 2‑3 Requirements for installing one AC drive above another (S4 to S9 models) 2.3.1 In-Cabinet Clearance For S4 to S9 models, multi‑layer installation is recommended. That is, install one AC drive above another. The following table lists the minimum clearance between the upper and lower AC drives.
  • Page 19 Preparation Item S6 and S7 S8 and S9 ≥ 100 mm ≥ 200 mm ≥ 300 mm ≥ 300 mm ≥ 100 mm ≥ 200 mm ≥ 300 mm ≥ 300 mm Figure 2‑4 Minimum clearance for multi‑layer installation Note Install the fan in the correct air exhaust direction to ensure that air flows from ●...

  • Page 20: Heat Dissipation Requirements

    Preparation 2.3.2 Heat Dissipation Requirements Air Inlet The cabinet is forcibly cooled by a built‑in fan. Therefore, to ensure that enough cooling air enters the cabinet, open an air inlet large enough on the cabinet door. The air flows from bottom to top after being heated. Therefore, the cabinet air inlet must be at least 50 mm lower than the air inlet of the drive, as shown in the following figure.
  • Page 21 Preparation Where multiple AC drives are installed in one cabinet, if air is blown into the air inlet with a fan from the outside, air distribution of the drives in the cabinet will be affected, thereby af‑ fecting the overall heat dissipation effect. Therefore, do not install the fan at the cabinet air inlet to blow air into the cabinet.
  • Page 22 Preparation temperature of the AC drive to rise significantly, which is detrimental to the performance of the AC drive. Figure 2‑6 Backflow of hot air in a self‑ventilated cabinet (without isolation devices) Therefore, isolation devices are required in the cabinet working in natural air ■...
  • Page 23 Preparation Figure 2‑7 Backflow of hot air in a self‑ventilated cabinet (with isolation devices) Compared with air at the air inlet, air at the air outlet of the AC drive is higher in temperature but lower in density. To ensure that hot air in the cabinet can be exhausted to outside, the effective ventilation area (S) of the cabinet air outlet must be 1.2 to 1.5 times the effective ventilation area of the cabinet air inlet when natural air cooling is used.
  • Page 24 Preparation Table 2–6 AC drive cooling air volume AC Drive Model Cooling Air Volume (CFM) S4 (5.5 kW to 22 kW) S5 (30 kW to 45 kW) S6 and S7 (55 kW to 110 kW) S8 and S9 (132 kW to 250 Cabinet Fan Installation To select a cabinet fan, do as follows: 1.
  • Page 25 Preparation Note <1>: This service life is obtained based on the working environment of 40°C. ● <2>: This service life is obtained based on the maximum operating temperature. ● Figure 2‑8 Q of a system fan ‑ ‑...

  • Page 26: Tools

    Preparation Figure 2‑9 Cabinet ventilation system Note Install the fan in the correct air exhaust direction to ensure that air flows from ● inside to outside of the cabinet. Otherwise, hot air cannot be exhausted and the drive may be overheated or damaged. Ensure that the distance between the top cover of the air outlet and the fan outlet ●...

  • Page 27: Tools For Wiring

    Preparation Table 2–7 Tools for mechanical installation Description Tool Electric drill with an appropriate It is used to drill mounting holes on the mounting drilling bits surface. It is used to tighten or loosen screws. S4 and S5 models: socket wrench (#10) S6 and S7 models: socket wrench (#10 and #13) Wrench or socket wrench S8 and S9 models: socket wrench (#10, #13, #16,...

  • Page 28: Options

    Preparation Options 2.5.1 Ground Bracket of Cable Shield The ground bracket of the cable shield is optional and needs to be purchased separately. Cable Preparation 2.6.1 Cables Table 2–8 Recommended cables and lugs for the main circuit Grounding Cable Tightening RST/UVW Rated Input Torque...
  • Page 29 Preparation Note Cables in the preceding table conform to standards in China. ● <1>: 3 x 10 indicates a 3‑core cable with the cross‑sectional area of 10 square ● millimeters. The recommended lugs include the RNB and RNBS series of Kise as well as the GTNR series of Yuanli.

  • Page 30: Unpacking And Transportation

    When receiving goods from the shipping company, you must check the goods ● against the delivery note. Notify the shipping company immediately of any missing components or damage. Seek support from the Inovance office or your local agent if necessary. The equipment volume, weight, packaging method, and packaging components ●...
  • Page 31 Unpacking and Transportation Name Carton ① ② AC drive (with plastic protective film) ③ Expanded polyethylene (EPE) 1. Remove the sealing tape and open the carton . 2. Take out the accessories of the AC drive. 3. Take out the AC drive together with the EPE. 4.

  • Page 32: Check Upon Unpacking

    Unpacking and Transportation 5. Dispose of or recycle packaging according to local regulations. S6 to S9 Models Figure 3‑3 Packing list of S6 to S9 models Name Carton cover ① ② AC drive (with plastic protective film) ③ Pallet ④ Strapping band ⑤...

  • Page 33: Precautions For Storage

    For long‑term storage, cover the AC drive or take other appropriate measures to ● protect it against contamination and environmental influences. Store the AC drive with the original packing carton of Inovance. ● Do not expose the AC drive to an environment with moisture, high temperature, or ●...

  • Page 34: Transportation

    Unpacking and Transportation Transportation 3.3.1 Precautions S4 models are small and light and therefore can be handled without using ● specialized equipment. S5 to S9 models must be handled with appropriate lifting tools. ● Comply with local regulations when handling this AC drive. ●...
  • Page 35 Unpacking and Transportation Figure 3‑4 Transportation before unpacking ‑ ‑...

  • Page 36: Transportation After Unpacking

    Unpacking and Transportation Figure 3‑5 Transportation method 3.3.3 Transportation After Unpacking AC Drive Weight Personnel Required for Handling < 15 kg ≥ 15 kg 2, with proper lifting device Perform the following steps when a crane is used for transportation: 1.
  • Page 37 Unpacking and Transportation Figure 3‑6 Lifting the AC drive If the AC drive is placed vertically, do not stress on any side of the AC drive or place it on an inclined surface. The AC drive is large and heavy (nearly 70 kg). If the inclination exceeds 5°, it may topple.

  • Page 38: Mechanical Installation

    Mechanical Installation Mechanical Installation Safety Cautions Reserve sufficient clearance for heat dissipation of the AC drive and other devices ● in the same cabinet. Cover the top of the AC drive with a piece of cloth or paper during installation to ●...

  • Page 39: Backplate Mounting

    Mechanical Installation Backplate Mounting Figure 4‑2 Backplate mounting of S4 and S5 models Figure 4‑3 Backplate mounting of S6 to S9 models ‑ ‑...

  • Page 40: Removing And Installing The Cover

    Mechanical Installation Removing and Installing the Cover Removing the Cover When wiring the control circuit, remove the cover first if a PG card, function expansion card, or explosion‑proof card needs to be connected. When removing the cover, hold the cover with both hands and carefully lift the lower part of the cover to prevent it from falling off.
  • Page 41 Mechanical Installation 2. Hold the cover with both hands, lift the lower part of the cover (as shown in ①), push the cover upward, and lift the upper part of the cover (as shown in ②). 3. Remove the cover, as shown in the following figure. ‑...

  • Page 42: Installing The Ground Bracket Of The Cable Shield

    Mechanical Installation Installing the Cover To install the cover, follow the steps in the reverse order of removing the cover. Installing the Ground Bracket of the Cable Shield Use shielded cables as motor output cables. Use a ground bracket of the cable shield to achieve all‑round connection with the shield, and crimp the drain wire of the shield to the PE terminal.

  • Page 43: Installing The Mdke-10 Bracket

    Mechanical Installation Figure 4‑6 Wiring of the shield Installing the MDKE-10 Bracket Figure 4‑7 Bracket dimensions and mounting hole sizes (mm) of the MDKE‑10 Note No bolts are required if the door is 1.5 mm in thickness. When the AC drive is installed inside a cabinet, you can remove the operating panel from the AC drive and make it a hand‑held panel by connecting an external network cable to facilitate on‑site operation.
  • Page 44 Mechanical Installation 2. Connect one end of a network cable to the network port on the base bracket of the operating panel, as shown in the following figure. 3. Connect the other end of the network cable to the hand‑held operating panel, as shown in the following figure.

  • Page 45: Installing The Sop-20-880 Bracket

    Mechanical Installation Installing the SOP-20-880 Bracket Figure 4‑8 Bracket dimensions and mounting hole sizes (mm) of the SOP‑20‑880 When the AC drive is installed inside a cabinet, you can remove the operating panel from the AC drive and make it a hand‑held panel by connecting an external network cable to facilitate on‑site operation.

  • Page 46: Installing The Expansion Card

    Mechanical Installation 3. Connect the other end of the network cable to the hand‑held operating panel, as shown in the following figure. Installing the Expansion Card The AC drive is equipped with five field bus cards, including Modbus RTU, PROFIBUS DP, CANopen, PROFINET IO, and Modbus TCP cards, two PG cards, and one explosion‑...

  • Page 47: Inspection After Installation

    Mechanical Installation Figure 4‑9 Installation position of expansion cards 4.10 Inspection After Installation Check That The installation clearance meets requirements listed in " □ Installation Clearance " on page 15 The heat dissipation clearance meets requirements listed in □ " 2.3.2 Heat Dissipation Requirements " on page 19 The cabinet fans meet requirements listed in "...

  • Page 48: Electrical Installation

    Electrical Installation Electrical Installation Safety Precautions Danger All connection work must be carried out when the equipment is de‑energized. ● Only qualified professionals are allowed to operate the equipment. ● Take caution when operating the equipment disconnected from the power supply, ●...

  • Page 49: Main Circuit Wiring

    Electrical Installation Main Circuit Wiring 5.3.1 Main Circuit Terminals Table 5–1 Main circuit terminals Symbol Terminal Name Function Connected to a three‑phase AC Three‑phase power input R, S, T input power supply terminals DC bus positive and negative Connected to the common DC (+), (–) terminals Braking resistor connection...

  • Page 50: Wiring Of Main Circuit Terminals

    Electrical Installation Figure 5‑2 Layout of main circuit terminals of S5 models (mm) Figure 5‑3 Layout of main circuit terminals of S6 and S7 models (mm) Figure 5‑4 Layout of main circuit terminals of S8 and S9 models (mm) 5.3.2 Wiring of Main Circuit Terminals R, S, and T terminals of the input power supply The cable connection on the input side of the drive has no requirements on the ●...
  • Page 51 Electrical Installation Specifications and installation of external main circuit cables must comply with ● local regulations and related IEC requirements. Use copper lead cables with appropriate dimensions according to the ● recommended main circuit cables. DC bus terminals (+) and (-) After the drive is switched off, DC bus terminals (+) and (‑) have residual voltage.

  • Page 52: Requirements On Wiring Of The Main Circuit

    Electrical Installation 5.3.3 Requirements on Wiring of the Main Circuit Main circuit wiring requirements Terminals BR, (‑), and (+) are used to connect options. Do not connect the ● terminals to the AC power supply. To protect the main circuit, separate and cover the surface that may come into ●...

  • Page 53: Wiring Of The Control Circuit

    Electrical Installation Figure 5‑6 Cable with the heat‑shrinkable tube Wiring of the Control Circuit 5.4.1 Control Circuit Terminals " Figure 5–7 Layout of control circuit terminals " on page 52 shows the layout of control circuit terminals. Figure 5‑7 Layout of control circuit terminals ‑...
  • Page 54 Electrical Installation Table 5–2 Functions of control circuit terminals Termi Terminal External Definition Performance Indicator Type Terminal Name DI1‑OP Isolated sinking/sourcing ● input programmable DI2‑OP terminal; input frequency: < DI3‑OP Common multi‑ 100 Hz Digital DI4‑OP function input Internally isolated from COM input ●...
  • Page 55 Electrical Installation Termi Terminal External Definition Performance Indicator Type Terminal Name 0 V to 10 V or 0 mA to 20 mA; ● 12‑bit resolution; correction accuracy: ±0.5%; input impedance in voltage input mode: 22.1 kΩ; input Single‑ended analog AI1‑ impedance in current input input channel AI1 mode: 500 Ω...
  • Page 56 Electrical Installation Termi Terminal External Definition Performance Indicator Type Terminal Name STO1 STO1 Internal: STO1 and STO2 ● connected to +24VS by STO2 STO2 jumper by default Power supply+ for +24VS External: STO1, STO2, and STO1 and STO2 ● terminal +24VS can connect to the external 24 V power supply.
  • Page 57 Electrical Installation Termi Terminal External Definition Performance Indicator Type Terminal Name Board‑mounted RS485 communication Connected by default terminal resistor switch CANlink communication Connected by default terminal resistor ‑ switch switch Operating panel Connected by default RS485 communication resistor switch Operating panel CAN Connected by default;...

  • Page 58: Wiring Of Control Circuit Terminals

    Electrical Installation Name External Terminal Terminal Type Signal Type Plug‑in terminal Relay 3 block Plug‑in terminal AI, AO, and 10 V block outputs Temperature sensor CN10 Plug‑in terminal block CN11 Plug‑in terminal HDO and 24 V block outputs RJ45 RJ45 External commissioning CN12...
  • Page 59 Electrical Installation Wiring AI1/AI2 When AI1 is used for voltage signal input, check whether the temperature ● detection function of AI1 is invalid (invalid by default). When AI1 is used to collect temperature data, set the AI temperature detection parameter in F6 group to the sensor type that detects temperature.
  • Page 60 Electrical Installation To use the internal 24 V power supply, which is the most commonly used method, short OP and 24V of the jumper terminal J35‑CN4 on the AC drive control board, and connect the COM terminal of the AC drive to the 0V terminal of the external controller.
  • Page 61 Electrical Installation To use the internal 24 V power supply, short OP and 24V of the jumper terminal ■ J35‑CN4 on the AC drive control board, and connect the COM terminal of the AC drive to the 0V terminal of the external controller. To use the external power supply, short OP and COM of the jumper terminal ■...
  • Page 62 Electrical Installation Note The MD580 supports temperature sampling from four channels simultaneously, ● and each channel supports four types of temperature sensors. The AI supports several functions. To use the AI for temperature detection, set ● parameters in F6 group. For details about how to set parameters, see related software sections.
  • Page 63 Electrical Installation Tubular terminal requirements Use tubular terminals with insulating sleeves. Keep the exposed conductor of a single or twisted cable no longer than 6 mm, as shown in " Figure 5–16 Requirements on tubular terminals of the control circuit cable " on page 62 Figure 5‑16 Requirements on tubular terminals of the control circuit cable Table 5–4 Specification of the control circuit cable Tightening Torque (N•m)

  • Page 64: Control Circuit Wiring Requirements

    Electrical Installation 5.4.3 Control Circuit Wiring Requirements Requirements on grounding the AI shield Weak analog voltage signals are prone to suffer external interference. Therefore, a shielded cable is required, and the wiring distance must be as short as possible (no longer than 20 m).

  • Page 65: Cable Routing Requirements

    Electrical Installation Figure 5‑17 Recommended wiring loop area Figure 5‑18 Routing of cables 5.4.4 Cable Routing Requirements Route signal cables and power cables through different routes. When analog ● signals are used for remote control on the cabinet module, separate signal cables from high‑voltage circuits (power supply input, drive unit output, and braking resistor connection cables) by a distance of above 50 cm.

  • Page 66: Routing Recommendations

    Electrical Installation Use shielded cables for motor cables. Minimize the distance between the cabinet ● module and the motor. Route the motor cable independently of other cables, and avoid long‑distance parallel routing of the motor cables and other cables to reduce electromagnetic interference caused by rapid changes in the output voltage of the AC drive.
  • Page 67 Electrical Installation Figure 5‑20 Routing for cables that transmit different types of signals Use one multi‑conductor cable to transmit one type of signals. If you need to use ● the multi‑conductor cable to transmit different types of signals, isolate the conductors that transmit one type of signals, as shown in the following figure.
  • Page 68 Electrical Installation For cables of different types, route the cables along the equipotential metal plate. ● To enhance the internal EMC performance, separate different types of cables or separate cables with metal separators in the same metal (zinc‑iron or stainless steel) duct.

  • Page 69: Communication Connection

    Electrical Installation Communication Connection 5.5.1 CANopen Communication MD580‑SI‑CAN1 is a new‑generation fieldbus module of Inovance. It is used together with the MD580 to realize networking and remote control of the drive system through the CANopen fieldbus communication network. Terminal descriptions Figure 5‑25 MD580‑SI‑CAN1 terminals...
  • Page 70 Electrical Installation Figure 5‑26 Terminal wiring Bus topology The CAN bus supports a maximum of 63 nodes (excluding the master), as shown in the following figure. The termination resistors of the master and the last node need to be set to ON. Figure 5‑27 Networking Bus transmission distance The transmission distance of the CAN bus is related to the baud rate and...

  • Page 71: Modbus Rtu Communication

    Electrical Installation 5.5.2 Modbus RTU Communication MD580‑SI‑RS1 is a new‑generation fieldbus module of Inovance. It is used together with the MD580 to realize networking and remote control of the multidrive system through the Modbus RTU communication network. Terminal descriptions Figure 5‑28 MD580‑SI‑RS1 terminals Table 5–6 Terminal descriptions...

  • Page 72: Profibus Dp Communication Cable

    Electrical Installation Figure 5‑29 Terminal wiring Bus topology The Modbus RTU supports a maximum of 31 nodes (excluding the master), as ● shown in the following figure. The termination resistors of the master and the last node need to be set to ON. If the number of nodes on the network exceeds 31, repeaters are required.
  • Page 73 Electrical Installation Table 5–7 Cable specifications Item Description Conductor One pair of copper conductors (2 x 22AWG) Insulating sheath Green, red color Shield Aluminum plastic belt + tinned copper braid Sheath material Operating –30℃ to +70℃ temperature Appearance Purple Figure 5‑30 Internal layer of the bus Bus terminal Siemens dedicated PROFIBUS DP connector 6ES7 972‑0BB12‑0XA0 is recommended.
  • Page 74 Electrical Installation Figure 5‑32 Length of each layer of the bus cable (unit: mm) 2. Open the bus connector terminal cover using the 1# straight screwdriver. 3. Secure the cable to the connector installation position using the 1# straight screwdriver. Ensure that the shield is in close contact with the metal sheet. Connect the green cable to the A terminal and the red cable to the B terminal, as shown in the following figure.
  • Page 75 Electrical Installation 4. After you close the connector cover and tighten the screws on the cover, insert the connector to the DB9 port of the MD580‑SI‑DP1 module, and use a screwdriver to tighten the screws on both sides. Note When installing the PROFIBUS DP bus, ensure that the studs on both sides of the Siemens terminals are securely connected to the MD580‑SI‑DP1 module.
  • Page 76 Electrical Installation Bus topology For the multi‑drive system without repeaters, termination resistors need to be ● connected to the first and last AC drives, as shown in " Figure 5–33 Connection of the multi‑device system without repeaters " on page 75 Figure 5‑33 Connection of the multi‑device system without repeaters For the multi‑device system without repeaters, termination resistors need to be ●...
  • Page 77 Electrical Installation Figure 5‑34 Connection of the multi‑device system with repeaters Baud rate and communication distance Baud Rate 19.2 93.75 187.5 1500 3000 12000 (kbps) Transmis sion 1200 1200 1200 1200 Distance Note The transmission distance in the preceding table refers to the distance without the repeater installed.

  • Page 78: Modbus Tcp Industrial Ethernet Communication

    Electrical Installation 5.5.4 Modbus TCP Industrial Ethernet Communication The Modbus TCP industrial Ethernet communication module (hereinafter referred to as MD580–SI‑EM1 module) conforms to the Modbus TCP industrial Ethernet communication standard. When the MD580‑SI‑EN1 module is installed on the MD580, the MD580 can serve as the Modbus TCP industrial Ethernet server to be controlled by the Modbus TCP industrial Ethernet client.

  • Page 79: Profinet Io Industrial Ethernet Communication

    Electrical Installation Electrical connection for multiple modules Figure 5‑36 Electrical connection for multiple modules Name MD580 ① MD580‑SI‑EM1 module ② Network cable ③ Switch ④ PLC master ⑤ 5.5.5 PROFINET IO Industrial Ethernet Communication The PROFINET IO industrial Ethernet module (hereinafter referred to as MD580‑SI‑PN1 module) conforms to the PROFINET IO industrial Ethernet communication standard.
  • Page 80 Electrical Installation of the standard Ethernet pins. The module can be connected using crossover cables or straight‑through cables. Electrical connection of the chain network Figure 5‑37 Electrical connection of the chain network Model MD580 ① MD580‑SI‑PN1 module ② Network cable ③...

  • Page 81: Grounding

    Electrical Installation Electrical connection of the star network Figure 5‑38 Electrical connection of the star network Model MD580 ① MD580‑SI‑PN1 module ② Network cable ③ PLC master ④ Switch ⑤ Grounding 5.6.1 Grounding the Main Circuit To properly ground the product, observe the following precautions. ‑...

  • Page 82: Grounding The Control Board

    Electrical Installation Ground the grounding terminal to avoid electric shocks. Comply with the relevant ● national and local electrical regulations for grounding. To prevent electric shocks, ensure that the protective grounding conductor meets ● the technical specifications and local safety standards, and shorten the grounding cable length as much as possible.

  • Page 83: Grounding A Single Device

    Electrical Installation Figure 5‑39 Control board grounding 5.6.3 Grounding a Single Device Figure 5‑40 Main circuit grounding Table 5–8 Description of main circuit grounding Wiring Description ① Input protection device (fuse, connected to the filter) Input power supply ② ‑ ‑...

  • Page 84: Grounding Multiple Devices

    Electrical Installation Wiring Description DC bus or braking resistor terminals. Do not ground the terminals. ③ ④ Connect the PE cable of the input power supply to the input PE terminal of the AC drive. Three‑phase motor ⑤ Connect the output PE terminal of the AC drive to the output cable ⑥...

  • Page 85: Grounding The Cabinet System

    Electrical Installation Table 5–9 Grounding description for parallel connection Wiring Description ① Connect the PE cable of the input power supply to the grounding copper busbar of the control cabinet. Connect the main circuit input PE terminal of the AC drive to the ②...

  • Page 86: Sto Security Design And Wiring

    Electrical Installation Figure 5‑42 Recommended cabinet system wiring STO Security Design and Wiring External 24 V power supply ● Internal 24 V power supply ● ‑85‑...

  • Page 87: Inspection After Wiring

    Electrical Installation Inspection After Wiring Table 5–11 Wiring checklist Check That The power supply input cables are connected to the R, S, and T □ terminals. The motor input cables are connected to the U, V, and W terminals. □ The cross‑sectional area of the main circuit cable meets □...

  • Page 88: Installation Of Peripheral Electrical Components

    Installation of Peripheral Electrical Components Installation of Peripheral Electrical Components Fuse, Contactor, and Circuit Breaker When the fuse is damaged or the circuit breaker trips, do not immediately energize the product or operate the peripheral equipment. Wait at least for the time specified on the warning label to prevent personal injury and equipment damage.
  • Page 89 Installation of Peripheral Electrical Components Figure 6‑1 Magnetic ring installation ‑ ‑...

  • Page 90: Braking Unit

    Installation of Peripheral Electrical Components Figure 6‑2 Magnetic buckle installation Note The R/S/T or U/V/W cables must pass through the same ferrite core to suppress the com‑ mon mode noise. Braking Unit Install the braking unit only vertically upward to facilitate heat dissipation from the lower part to the upper part.
  • Page 91 Installation of Peripheral Electrical Components 1. Unfasten two screws (①) of the braking unit. 2. Lift the cover of the braking unit upward (②). 3. Remove the cover of the braking unit (④). The mechanical mounting holes of the braking unit are shown by callout ③. Figure 6‑3 Terminal layout of the MDBUN‑200‑7T braking unit After removing the braking unit cover, you can wire the main circuit and control circuit, as shown in the preceding right figure.
  • Page 92 Installation of Peripheral Electrical Components Table 6–1 Description of power terminals Screenprint Terminal Name Function Positive and negative The terminals are used to connected to the +, ‑ terminals of the DC common DC bus. The terminals are used to connected to the Braking resistor P(+), BR braking resistor.
  • Page 93 Installation of Peripheral Electrical Components Screenprint Terminal name Function The TA and TB are normally closed and the TA and TC are normally open. When a fault occurs Relay output upon a TA/TB/TC on the braking unit, the TA, TB, and TC fault terminals act accordingly.

  • Page 94: Solutions To Common Emc Interference Problems

    Solutions to Common EMC Interference Problems Solutions to Common EMC Interference Problems Solutions to Current Leakage The output of the AC drive is high‑speed pulse voltage, thus high‑frequency leakage current is produced during running of the AC drive. Each AC drive produces more than 100 mA leakage current.
  • Page 95 Solutions to Common EMC Interference Problems Table 7–1 Troubleshooting for leakage current Trip Possible Cause Solution Trip upon The anti‑interference Use an earth leakage circuit breaker of ● power‑on performance of the earth the recommended manufacturers. leakage circuit breaker is Use an earth leakage circuit breaker ●...

  • Page 96: Harmonic Suppression

    Solutions to Common EMC Interference Problems Figure 7‑1 Disconnecting the EMC grounding screw Harmonic Suppression To suppress harmonics of the AC drive and improve the power factor, install an AC input reactor on the input side of the AC drive to meet standard requirements. Control Circuit Interference 7.4.1 High-speed Pulse Interference Obverse the following steps for troubleshooting.

  • Page 97: Common I/O Signal Interference

    Solutions to Common EMC Interference Problems 7.4.2 Common I/O Signal Interference Due to improper wiring or grounding, the drive might generate strong interference during use. When the drive interferes with other equipment, observe the following steps for troubleshooting. Step Use the shielded cables as the I/O signal cables, and connect the shield to the PE terminal.

  • Page 98: Profinet Communication Interference

    Solutions to Common EMC Interference Problems 7.5.2 PROFINET Communication Interference Observe the following steps for troubleshooting. Step Check that the communication network cables meet the specification requirements for shielded Cat 5e cables. Check that the communication port is not loose or in poor contact. Separate the communication cable from the power cable by a distance of at least 30 cm.

  • Page 99: Appendix

    Appendix Appendix AC Drive Dimensions S4 model dimensions Figure 8‑1 Outline dimensions and mounting dimensions of S4 models Table 8–1 Outline dimensions and mounting dimensions of S4 models Mount Mount Packing Box Outline Dimension Gross ing Hole ing Hole Size Struc mm (in.) weight...
  • Page 100 Appendix Table 8–2 Outline dimensions and mounting dimensions of S5 models Mount Mount Size of packing Outline Dimension Gross ing Hole Stru mm (in.) mm (in.) Hole d weight Weight ctur kg (lb) kg (lb) L x H x W (in.) Ø7 160 (6.3)

  • Page 101: System Composition

    Appendix Dimensions of S8 to S9 Models Figure 8‑4 Outline dimensions and mounting dimensions of S8 to S9 models Table 8–4 Outline dimensions and mounting dimensions of S8 to S9 models Mounting Mount Size of packing Outline Dimension Gross Hole ing Hole Struc mm (in.)
  • Page 102 Appendix Figure 8‑5 System composition Note The preceding figure is only for your reference. For details on the external devices, see the external electrical component section in MD580 Series Low‑Voltage High‑Performance Engi‑ neering Hardware Guide (690 V) . ‑101‑...

  • Page 103: Electrical Wiring

    Connecting to the BR Braking resistor and DC(+) terminals It consumes regenerative energy during motor deceleration. For S5 to S9 models, use the braking unit MDBUN of Inovance and the Connecting to the DC(+) recommended braking resistor. Braking unit and DC(‑) terminals The braking unit or braking resistor consumes regenerative energy during motor deceleration.
  • Page 104 Appendix Figure 8‑6 Typical electrical wiring ‑103‑...
  • Page 105 *19012183A00*...

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