Inovance MD580 Series Hardware Manual
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Inovance MD580 Series Hardware Manual

Inovance MD580 Series Hardware Manual

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

  • Page 2: Preface

    Preface Preface Introduction The MD580 series is a low‑voltage high‑performance engineering AC drive (690 V) that can control 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 PDF file. Warranty Agreement Inovance provides warranty services within the warranty period (as specified in your order) for any fault or damage that is not caused by improper operation. You will be charged for any repair work after the warranty period expires.
  • Page 4 (such as sulfide gas, acid gas, conductive dust, etc.) or with high humidity. The maintenance fee is charged according to the latest Maintenance Price List of Inovance. If otherwise agreed upon, the agreed terms and conditions shall prevail. ‑3‑...

  • 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 Product Model .
  • Page 6 Table of Contents 3.2.1 Main Circuit Terminals ........... . . 47 3.2.2 Selection of Main Circuit Cables and Cable Lugs .
  • Page 7 Table of Contents 5.2 CE Certification ............. . . 88 5.2.1 Precautions for Compliance with European Standards .

  • Page 8: Product Model

    Product Model Product Model Table –1 Relationship between product structures and models Model (Three‑Phase 525 V to 690 V) Structure MD580‑01S‑07A4‑7‑B MD580‑01S‑09A9‑7‑B MD580‑01S‑14A3‑7‑B MD580‑01S‑0019‑7‑B MD580‑01S‑0023‑7‑B MD580‑01S‑0027‑7‑B MD580‑01S‑07A4‑7‑B‑LCD MD580‑01S‑09A9‑7‑B‑LCD MD580‑01S‑14A3‑7‑B‑LCD MD580‑01S‑0019‑7‑B‑LCD MD580‑01S‑0023‑7‑B‑LCD MD580‑01S‑0027‑7‑B‑LCD MD580‑01S‑0035‑7 MD580‑01S‑0042‑7 MD580‑01S‑0049‑7 MD580‑01S‑0035‑7‑LCD MD580‑01S‑0042‑7‑LCD MD580‑01S‑0049‑7‑LCD MD580‑01S‑0061‑7 MD580‑01S‑0084‑7 MD580‑01S‑0061‑7‑LCD MD580‑01S‑0084‑7‑LCD MD580‑01S‑0098‑7...

  • Page 9: Fundamental Safety Instructions

    ● requirements; otherwise, a fault may occur. Noncompliance‑caused malfunction or damage to parts are not covered in product quality warranty. Inovance shall take no responsibility for any personal injuries or property damage ● caused by improper usage. Safety Levels and Definitions Indicates that failure to comply with the notice can result in death or severe personal injuries.
  • Page 10 Fundamental Safety Instructions Check whether the packing is intact and whether there is any sign of damage, water ● seepage, dampness, and deformation. Unpack the package by following the unpacking sequence. Do not strike the package ● violently. Check whether there is any sign of damage or rust on the surfaces of the equipment and ●...
  • Page 11 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, ensure that the installation position has sufficient mechanical ● strength to support the weight of the device. Failure to comply will result in a mechanical danger.
  • Page 12 Fundamental Safety Instructions Do not connect the input power supply to the output end of the equipment. Failure to ● comply can result in equipment damage or even a fire. When connecting a drive to the motor, make sure the phase sequence of the drive and ●...
  • Page 13 Fundamental Safety Instructions Do not touch the equipment enclosure, fan, or resistor to sense the temperature. Failure ● to comply may result in burns. Prevent metal or other objects from falling into the device during operation. Failure to ● comply may result in a fire or product damage. Maintenance Only professionals are allowed to perform installation, wiring, maintenance, inspection ●...
  • Page 14 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 15: Product Information

    Product Information Product Information Features The MD580 series is a low‑voltage high‑performance engineering AC drive (690V). Figure 1‑1 Product appearance The AC drive highlights the following: Adopting excellent dynamic characteristics and superior overload capability, the ● drive can drive three‑phase AC asynchronous motors and three‑phase AC permanent magnet motors.

  • Page 16: Model And Nameplate

    Product Information Model and Nameplate Product model ③ Output current ① Product name ⑤ Standard accessory 07A4: 7.4 A MD580: AC drive series B: Reactor 09A9: 9.9 A Null: / 0271: 271 A 6 Standard accessory ② Product series ④ Voltage class 01S: AC drive (single‑...

  • Page 17: Technical Indicators

    Product Information Technical Indicators 1.3.1 Electrical Specifications The data in the table below is measured at the input voltage of 690 VAC. ● The drive can automatically switch between the light overload mode and heavy ● overload mode based on the output current. Table 1–1 Electrical specifications Light Overload Heavy Overload...

  • Page 18: Technical Specifications

    Product Information 1.3.2 Technical Specifications Table 1–2 Technical specifications Item Specification Voltage/frequency (V/f) control: 0‑599 Hz Output frequency Vector control: 0‑599 Hz Carrier frequency 0.8‑8 kHz Digital setting: 0.01 Hz Input frequency resolution Analog setting: Maximum frequency x 0.025% AC drive capacity 5.5–250 kW Three‑phase 525 VAC to 690 VAC, with the offset from ‑15% to 10%, namely 446 VAC Input voltage...
  • Page 19 Product Information Item Specification Acceleration/ Straight‑line and arc acceleration/deceleration curve deceleration curve Built‑in proportional–inte One set of PID parameters to implement closed‑loop process control gral–derivative (PID) RS485 communication card: Supports the Modbus RTU protocol. DP communication card: Supports the PROFIBUS DP protocol. CANopen communication card: Supports the CANopen protocol.

  • Page 20: Components

    Product Information Components 1.4.1 Overview The S4 to S9 AC drive models adopt the sheet metal structure. Note The quantity and positions of cooling fans vary with AC drive models. The S4 models provide two cooling fans at the bottom. ●...

  • Page 21: Components Of S5 Models

    Product Information Name EMC and VDR ground screws ③ Protective ring ④ Encoder expansion card fixing base ⑤ ⑥ Explosion‑proof card fixing base Communication expansion card fixing base ⑦ Enclosure ⑧ ⑨ Nameplate ⑩ Cooling fan 1.4.3 Components of S5 Models Figure 1‑4 Components of S5 models Name Front cover...

  • Page 22: Components Of S6 And S7 Models

    Product Information Name Operating panel ④ Logo ⑤ ⑥ EMC and VDR ground screws Main circuit terminals ⑦ Protective ring ⑧ Enclosure ⑨ ⑩ Encoder expansion card fixing base Explosion‑proof card fixing base ⑪ ⑫ Communication expansion card fixing base Control circuit terminals ⑬...
  • Page 23 Product Information Name Front cover ① AC drive bar code, allowing you to check the system code and model ② ③ Interface for external operating panel, which is exposed when the panel is removed Operating panel ④ Logo ⑤ EMC and VDR ground screws ⑥...

  • Page 24: Components Of S8 And S9 Models

    Product Information 1.4.5 Components of S8 and S9 Models Figure 1‑6 Components of S8 and S9 models Name Front cover ① AC drive bar code, allowing you to check the system code and model ② Operating panel ③ Logo ④ EMC and VDR ground screws ⑤...
  • Page 25 Product Information Name Nameplate ⑬ Cooling fan ⑭ ‑ ‑...

  • Page 26: Mechanical Design

    Mechanical Design Mechanical Design Installation Environment Table 2–1 Environment requirements Environment Requirement Installation Indoors location Grid Overvoltage category III (OVC III) overvoltage Installation/Operation: –10°C to +50°C (–10°C to +40°C: no derating; over +40°C: derated by 1.5% for every additional 1°C) Storage/Transportation: –25°C to +70°C For better reliability, use the AC drive in places without drastic ●...

  • Page 27: Cabinet Design

    Mechanical Design Cabinet Design 2.2.1 Cabinet Layout S4 to S9 models Installing one AC drive ● Figure 2‑1 Clearance required for installing one AC drive Table 2–2 Clearance required for installing one AC drive Power Rating Dimension (mm) 5.5–22 kW A1 ≥...
  • Page 28 Mechanical Design Figure 2‑2 Clearance required for installing AC drives side by side Table 2–3 Clearance required for installing AC drives side by side Power Rating Dimension (mm) 5.5–22 kW A1 ≥ 10 30–45 kW A1 ≥ 50 55–110 kW A1 ≥...
  • Page 29 Mechanical Design Figure 2‑3 Requirements for dual‑row installation ‑ ‑...

  • Page 30: Ac Drive Dimensions

    Mechanical Design 2.2.2 AC Drive Dimensions S4 model dimensions Figure 2‑4 Outline dimensions and mounting dimensions of S4 models Table 2–4 Outline dimensions and mounting dimensions of S4 models Mount Mount Packing Box Outline Dimension Gross ing Hole ing Hole Size Struc mm (in.)
  • Page 31 Mechanical Design Table 2–5 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 32: Emc-Compliant Control Cabinet Design

    Mechanical Design Dimensions of S8 to S9 Models Figure 2‑7 Outline dimensions and mounting dimensions of S8 to S9 models Table 2–7 Outline dimensions and mounting dimensions of S8 to S9 models Mounting Mount Size of packing Outline Dimension Gross Hole ing Hole Struc...

  • Page 33: Heat Dissipation Design

    Mechanical Design Use of only conductive EMC shield gaskets is not enough to achieve protective ● grounding. To ensure electrical safety of the parts, a low‑frequency grounding structure is required. Follow local regulations to design protective grounding. Heat Dissipation Design 2.4.1 Heat Dissipation Design Common heat dissipation methods include the following: Natural ventilation...
  • Page 34 Mechanical Design Air outlet requirements ● The hot air flows upward. Therefore, open the air outlet at the top of the cabinet and make the outlet face the air outlet of the drive, so that hot air can be discharged from the cabinet. If exhaust ducts are used, the air outlet can be located around the cabinet, but must be higher than the air outlet of the drive, as shown in the following figure.
  • Page 35 Mechanical Design Forced air cooling cabinet Air inlet requirements ● The air inlet of the cabinet must be at least 50 mm lower than that of the AC ■ drive. If multiple AC drives of different sizes are installed in the cabinet, the air inlet of ■...
  • Page 36 Mechanical Design Air outlet requirements ● Install the exhaust fan at the top of the cabinet or on the side near the top of the cabinet, and make the fan face the air outlet of the drive, as shown in the following figure.
  • Page 37 Mechanical Design If the air outlet top cover of the cabinet is too close to the air outlet of the exhaust ● fan, the performance of the fan will be degraded, resulting in significant increase in resistance and decrease in air volume. In this case, the air volume of the drive will be decreased and the drive will be heated up.
  • Page 38 Mechanical Design The cooling device is installed on the cabinet door or on the side wall, so that the ● hot air from the air outlet of the drive can enter the internal circulation air inlet of the cooling device, and the cold air from the internal circulation air outlet of the cooling device can enter the air inlet of the drive, as shown in the following figure.
  • Page 39 Mechanical Design The air circulated from the cooling device is damp and cold. In order to avoid ● condensation caused by directly entering of the damp and cold air, use the air deflector to keep the cooling device as least 200 mm away from the drive, as shown in the following figure.

  • Page 40: Air Inlet And Outlet Area

    Mechanical Design 2.4.2.2 Air Inlet and Outlet Area Do not lay out cables (including power supply and communication cables) at the air inlet and outlet of the drive. Keep all vents unobstructed; otherwise, heat dissipation of the drive will be significantly affected. The space between the cable and the air "...

  • Page 41: Hot Air Recirculation Prevention

    Mechanical Design The total air volume of the fan used for the air outlet must be no less than the ■ air volume required by all drives. Table 2–9 Air volume required by drives Structure Cooling Air Volume (unit: CFM) S4 (5.5 kW to 22 kW) S5 (30 kW to 45 kW) S6 to S7 (55 kW to 110 kW)
  • Page 42 Mechanical Design Figure 2‑8 Using air deflector to prevent hot air recirculation Figure 2‑9 Using exhaust duct to prevent hot air recirculation ‑41‑...

  • Page 43: In-Cabinet Clearance

    Mechanical Design 2.4.4 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. Install an air guide plate above each AC drive except for the top one.
  • Page 44 Mechanical Design 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 45: Electrical Design

    Electrical Design Electrical Design Basic Electrical Safety Precautions 3.1.1 Selecting Power Supply Isolation Devices The drive comes with a master isolation device as standard. Depending on the capacity of the transmission device and the selected option, you can select an optional isolating switch or air circuit breaker as the power supply isolation device.

  • Page 46: Selecting Motors

    Electrical Design Figure 3‑1 Selecting power supply transformers If there are capacitive loads (such as lighting device, PC, PLC, and power factor compensa‑ tion capacitors) in the same transmission network, resonance current may occur, which may damage components in the network. 3.1.4 Selecting Motors After power‑on, the motor generates heat continuously due to thermal effect of the current, heating the surroundings.

  • Page 47: Checking The Motor Compatibility

    Electrical Design Note Use the dedicated motor for the drive. Failure to comply will result in short circuit due to ageing of the insulation layer. 3.1.5 Checking the Motor Compatibility The AC drive can be used to drive one AC asynchronous induction motor, permanent magnet synchronous motor, or AC induction servo motor.

  • Page 48: Main Circuit Cable

    Electrical Design 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. Power cable ● Use shielded cables for power cables, or shield all the cables from the cabinet to the motor by using conduits.
  • Page 49 Electrical Design Figure 3‑3 Layout of main circuit terminals of S5 models (mm) Figure 3‑4 Layout of main circuit terminals of S6 and S7 models (mm) Figure 3‑5 Layout of main circuit terminals of S8 and S9 models (mm) ‑ ‑...

  • Page 50: Selection Of Main Circuit Cables And Cable Lugs

    Electrical Design 3.2.2 Selection of Main Circuit Cables and Cable Lugs Table 3–2 Recommended main circuit cables and cable lugs RST/UVW Grounding Cable Tighten Rated Input Struc AC Drive Model Torque Screw Cable Cable Cable Lug Cable Lug Current (A) ture MD580‑01S‑XXXX <1>...

  • Page 51: Main Circuit Wiring Requirements

    Working properly when the ambient temperature is equal to or lower than 40°C ● and the cable surface temperature is equal to or lower than 70°C (Note: When the ambient temperature exceeds 40°C, contact Inovance.) Sysmetric cable with copper‑braided shield ●...
  • Page 52 Electrical Design Figure 3‑6 Recommended power cables Main circuit cabling requirements The power input cable of the AC drive and the motor cable can generate strong electromagnetic interference. To avoid electromagnetic interference caused by long‑ distance parallel coupling of the strong disturbing cable and the control circuit cable, ensure a distance greater than 30 cm between main circuit cables and signal cables when cabling.

  • Page 53: Selecting Control Cable

    Electrical Design Figure 3‑8 Shield wiring Keep the lead wire of the motor cable shield as short as possible and ensure that the wire diameter is equal to or larger than 1/5 of the width. Figure 3‑9 Lead wire of the motor cable shield Selecting Control Cable 3.3.1 Control Circuit Terminals "...
  • Page 54 Electrical Design Figure 3‑10 Layout of control circuit terminals ‑53‑...
  • Page 55 Electrical Design Table 3–3 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 56 Electrical Design 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 57 Electrical Design 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 58 Electrical Design 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 59: Control Cable Selection

    Electrical Design 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 60: Control Circuit Wiring Requirements

    Electrical Design 3.3.3 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 61 Electrical Design Figure 3‑12 Recommended wiring loop area Figure 3‑13 Routing of cables ‑ ‑...

  • Page 62: Communicaton Cable

    Electrical Design Communicaton Cable 3.4.1 CANopen Communication Cable Figure 3‑14 External connection of the MD580‑SI‑CAN1 module Table 3–5 Terminal descriptions Location Wiring Description Name Number Connected to X1‑1 the shield X1‑2 CANH Twisted pair Recommended cable specifications: Four‑ cables X1‑3 CANL conductor shielded twisted pair cables It is...

  • Page 63: Modbus Rtu Communication Cable

    Electrical Design Figure 3‑15 Terminal wiring 3.4.2 Modbus RTU Communication Cable Figure 3‑16 External connection of the MD580‑SI‑RS1 module Table 3–6 Terminal descriptions Location Wiring Description Name Number Connected to X1‑1 Shield the shield X1‑2 485+ Twisted pair Recommended cable specifications: Four‑ cables X1‑3 485‑...

  • Page 64: Profibus Dp Communication Cable

    Electrical Design Figure 3‑17 Terminal wiring 3.4.3 PROFIBUS DP Communication Cable The PROFIBUS DP bus dedicated cable is recommended. The following table describes the cable parameters. Table 3–7 Cable parameters Parameter Description Conductor One pair (2×22AWG) single‑strand copper wire Insulating sheath Green, Red color Shield...

  • Page 65: Profinet Io Communication Cable

    Electrical Design Figure 3‑19 Bus connector structure 3.4.4 PROFINET IO Communication Cable The MD580‑SI‑PN1 module is connected to the PROFINET master station using the standard Ethernet RJ45 socket. Definitions of the module pins are the same as those of the standard Ethernet pins. The module can be connected using crossover or straight‑through cables.

  • Page 66: Emergency Stop

    The HSMT‑10 detection card is used for safety temperature sampling of motors ● that match the MD580 series AC drive (including 400 V and 690 V models). After detecting a fault according to the motor PTC signal, the HSMT‑10 detection card outputs two DO signals used to disable the STO.

  • Page 67: Encoder Speed Measurement

    Electrical Design When detecting a overheat warning sent by the PTC temperature sensor, the ■ HSMT‑10 detection card sends the overheat warning signal to the MD580 main control board. In this case, measures can be taken in advance (such as lowering down the carrier frequency and load power) to avoid shutdown caused by overheat.
  • Page 68 Electrical Design Figure 3‑20 System composition Note The preceding figure is only for your reference. For details on the peripheral component se‑ lection, see the section of “Peripheral Electrical Components”. ‑67‑...

  • Page 69: Electrical Wiring

    The braking resistor consumes regenerative energy generated during motor deceleration. For S5 to S9 models, select the braking unit (MDBUN) with the recommended braking resistance manufactured by Inovance. Braking unit +/‑ terminals of the bus The braking unit consumes regenerative energy generated during motor deceleration.
  • Page 70 Electrical Design Figure 3‑21 Typical electrical wiring ‑69‑...

  • Page 71: Option Selection

    Option Selection Option Selection List of Options Peripheral options include braking units, function expansion cards, and external operating panels, as shown in the following table. For detailed on how to use each option, see the corresponding user guide. If any of the following option is needed, specify it in your order.

  • Page 72: Peripheral Electrical Components

    Option Selection Applicable AC Drive Name Model Function Model SOP‑20‑880 Applicable to all The mounting base can be used to install CP600‑BASE1 mounting base models the SOP‑20‑880 to the cabinet door. MDKE‑10 mounting Applicable to all The mounting base can be used to MD580‑AZJ1 base models...

  • Page 73: Output Reactor Model

    Option Selection Table 4–2 Fuse, contactor, and circuit breaker selection Fuses Rated Current Contactor Rated Circuit Breaker Rated Structure AC Drive Model (A)/Model Current (A) Current (A) MD580‑01S‑07A4‑7‑B(‑LCD) 15/FWP‑15A MD580‑01S‑09A9‑7‑B(‑LCD) 20/FWP‑20A MD580‑01S‑14A3‑7‑B(‑LCD) 30/FWP‑30A MD580‑01S‑0019‑7‑B(‑LCD) 35/FWP‑35A MD580‑01S‑0023‑7‑B(‑LCD) 40/FWP‑40A MD580‑01S‑0027‑7‑B(‑LCD) 50/FWP‑50A MD580‑01S‑0035‑7(‑LCD) 60/FWP‑60A MD580‑01S‑0042‑7(‑LCD) 70/FWP‑70A...

  • Page 74: Braking Components

    Option Selection If the length of the output cable is shorter than 300 m, no output reactor is ● required. If the length of the output cable ranges from 300 m to 400 m, install one output ● reactor. If the length of the output cable ranges from 400 m to 500 m, install two output ●...
  • Page 75 Option Selection Note U: It indicates the braking voltage used for stable system braking. The value of U ● varies with systems. The default braking voltage of the AC drive is 1126 V, which can be adjusted through F9‑08. Pb: It indicates the braking power. ●...
  • Page 76 Option Selection Outline dimensions of the braking unit Figure 4‑1 Outline dimensions of MDBUN‑200‑7T braking unit (unit: mm) Braking unit models Note The braking resistance in the preceding table is obtained in the heavy load working condi‑ tion where the braking usage ratio is 10% and the longest time for braking once is 10s. ‑75‑...

  • Page 77: Magnetic Ring And Ferrite Clamp

    Option Selection Table 4–4 Selection of braking components (three phrase 380‑480 V) Braking Unit 125% Braking Torque (10% ED; Max. 10s) Min. Braking Model Quanti Braking Resistor Qty. of Braking Resistance (Ω) Model Specification Resistors MD580‑01S‑07A4‑7‑B(‑LCD) 740 W, 150 Ω MD580‑01S‑09A9‑7‑B(‑LCD) 1100 W, 100 Ω...
  • Page 78 Option Selection Amorphous magnetic ring: It features high magnetic conductivity when the ● frequency is within 1 MHz and can efficiently suppress interference of the AC drive. However, it is relatively expensive. Ferrite clamp: It features high magnetic conductivity when the frequency is above ●...
  • Page 79 Option Selection Dimensions Figure 4‑2 Magnetic ring dimensions (unit: mm) Table 4–6 Magnetic ring dimensions Dimension (OD x ID x HT) (mm) Model DY644020H 64 x 40 x 20 DY805020H 80 x 50 x 20 DY1207030H 120 x 70 x 30 Figure 4‑3 Ferrite clamp dimensions (unit: mm) ‑...

  • Page 80: Accessary Installation

    Option Selection Accessary Installation 4.3.1 Grounding Bracket for Cable Shield Use the shielded cable for the output motor cable. Strip the cable to expose the shield, crimp the shield to the wire ferrule slot of the bracket with the wire ferrule, and crimp the lead wire of the shield to the PE terminal.

  • Page 81: Mdke 10 Bracket

    Option Selection 4.3.2 MDKE 10 Bracket Figure 4‑6 Bracket dimensions and hole sizes (mm) of the MDKE‑10 4.3.3 SOP-20-880 Bracket Figure 4‑7 Bracket dimensions and hole sizes (mm) of the SOP‑20‑880 ‑ ‑...

  • Page 82: Operating Panel

    Option Selection Operating Panel Type Appearance Model Description Applicable to the MD580, it is an external LED operating panel to facilitate debugging, and can be operated in the same way as the MDKE‑10 operating panel of the AC drive. For dimensions, see "...

  • Page 83: List Of Expansion Cards

    Figure 4‑9 Dimensions of SOP‑20‑880 (unit: mm） List of expansion cards The MD580 series AC drive supports different types of expansion cards including communication cards and encoder cards. The communication cards are used to connect field buses for communication, and the encoder cards are used to connect encoders.

  • Page 84: Detection Card

    Option Selection Name Model Function Remarks For details, see HPFN‑10 PROFINET IO PROFINET IO PROFINET IO industrial MD580–SI‑PN1 Industrial communication card Ethernet Ethernet Adaption Module User Guide. For details, see HMBT‑10 Modbus Modbus TCP Modbus TCP industrial MD580–SI‑EM1 TCP Adaption communication card Ethernet Module User...
  • Page 85 Option Selection Name Model Function Remarks Applicable to the ● resolver with the excitation frequency pf 10 kHz and with the DB9 interface To meet the MD38PG4 ● requirements, the excitation input DC resistance of the MD38PG4 resolver must be ‑...
  • Page 86 Take the electrical safety measures before starting working. The HSMT‑10 safe motor temperature detection card only has the ATEX‑complied motor thermal protection function. The ATEX‑complied safe disconnection function can be pro‑ vided only when the card is used with MD580 series products of Inovance. ‑85‑...
  • Page 87 Option Selection Note ATEX: Explosive environment Complete the following steps for electrical safety before installation or maintenance. 1. Obtain work authorization from the person responsible for electrical installation. 2. Clearly identify the workplace and equipment. 3. Disconnect all possible voltage sources and ensure that they cannot be reconnected.
  • Page 88 Option Selection The HSMT‑10 motor safety temperature detection card has the motor thermal protection function in the explosive environment. Only qualified professionals can install, control, and maintain the motor thermal ● protection function that enables the card to be used in the explosive environment. Observe all safety instructions and safety regulations when the card is used with ●...

  • Page 89: Compliance List

    Compliance List Compliance List Compliance List The following table lists related certifications, directives, and standards. Certification marks on the product nameplate indicate the certifications acquired. Certification Directive Standard 2014/30/EU EMC Directive EN IEC 61800‑3 Low Voltage Directive 2014/35/EU EN 61800‑5‑1 CE certification (LVD) 2011/65/EU...

  • Page 90: Emc Directive Compliance

    Compliance List 5.2.2 EMC Directive Compliance The drive complies with EMC Directive 2014/30/EU and standard EN IEC 61800‑3 ● and can be used in the first and second environment. If the product is used in the first environment, it may generate radio interference. In addi‑ tion to CE compliance requirements, measures should be taken to prevent interference when necessary.

  • Page 91: Low Voltage Directive Compliance

    Compliance List According to the expected usage environment, products are divided into the following categories: C1 equipment: Power drive system (PDS) with the rated voltage less than 1000 V, ● intended for use in the first environment. C2 equipment: PDS with the rated voltage less than 1000 V, which is neither a ●...
  • Page 92 Compliance List Use a fuse that matches the maximum input current of the AC drive. For selection of fuses, see " 4.2.1 Fuse, Contactor, and Circuit Breaker " on page 71 ‑91‑...
  • Page 93 *19012181A00*...

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