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Summary of the Advant Controller 70 Automation System Manual

# Advant Controller 70 Manual Translation ## Advant® OCS Open Control System ## Advant Controller 70 ## ABB The Advant Controller 70 features two I/O modules and one free device connection unit.   The small yet high-performance processing station   The Advant Controller 70 is a small but high-performance, user-configurable processing station.   It can be used either individually as an autonomous processing station or as part of an Advant OCS process control system. It can communicate with monitoring stations running under Windows and process both analog and binary signals. Therefore, the Advant Controller 70 is an ideal solution for your control engineering tasks, whether for automating a single machine or as an entry into plant-wide automation .   Advant Controller 70 units communicate with each other and with other processing stations via the Advant Fieldbus 100, which is designed as a standardized twisted-pair cable. The Advant Controller can be installed in the field area near sensors and actuators to reduce cabling costs and thus overall installation costs .   It offers the following advantages:   – Flexibility in installation   – Modular design enabling almost unlimited, step-by-step expansion   – Favorable price-performance ratio, allowing savings in hardware, cabling, installation, and maintenance   – Reliability and self-diagnosis for years of trouble-free plant operation   – Openness through support of the OPC standard, making it possible to combine the Advant Controller 70 with OPC-compatible software of your choice .   The Advant Controller 70 helps users increase their productivity and competitiveness—with peace of mind.   ## ABB   ## Advant Controller 70 – Compact and High-Performance   ## Adaptable to Any Plant   The Advant Controller 70 has a modular design and consists of passive device connection units that are mounted side by side on DIN rail profiles. These connection units gradually extend the internal module bus and provide screw terminals for connecting all incoming and outgoing process cables. The process I/O modules are plugged onto these device connection units, serving as interfaces to the outside world. Two types of device connection units are available for the process I/O modules: a compact design for vertical mounting of modules and an extended design for horizontal mounting. The former is space-saving and allows the maximum number of I/O channels per rail profile, while the latter provides more space for cabling. The extended design features fuses and terminals for powering field devices, eliminating the need for external junction boxes in most cases .   Compact and extended device connection units can be used side by side within a station, meaning they can be mixed freely to adapt to the requirements of each individual field device .   Since the Advant Controller 70 has low space requirements and low protection needs against environmental influences, it represents a cost-effective solution for decentralized on-site installation .   ## Direct Connections to the Process   Binary process I/O modules typically have 16 channels, and analog modules have 8 channels. Since an Advant Controller 70 can accommodate a maximum of 12 I/O modules, this results in a maximum of 192 binary or 96 analog signals per station, or any corresponding combination of these signals. With an additional module bus extension, a total of 24 I/O modules can be accommodated .   However, up to 80 stations can be connected to a single Advant Fieldbus 100, so a system composed of multiple Advant Controller 70 units can process several thousand I/O signals .   The I/O modules of a station can all be mounted on a single rail profile or distributed across multiple rail profiles, in which case they are connected to each other via pluggable cables. These different mounting options make the Advant Controller 70 suitable for installation in a wide range of standard wall-mounted enclosures and cabinets .   Input and output modules for DC/AC signal levels and devices according to industry standards are available, including resistance temperature detectors and thermocouples. Therefore, process-near devices can be connected to the Advant Controller 70 with minimal signal conditioning .   ## Graphical Program Creation and Open Communication   The Advant Controller 70 is programmed in the user-friendly AMPL programming language. This programming language is a function block language and is equally well-suited for programming logical connections, arithmetic functions, and continuous control tasks .   The user program can be divided into up to 31 subprograms, where the execution of each subprogram can be individually controlled based on logical conditions, cycle time, and priority .   Thanks to its compact and robust design, the Advant Controller 70 can be installed in the field area.   Operators at a central Advant OCS station can access the Advant Controller 70 in exactly the same way as any other station in the system .   The Advant Controller 70 can communicate with the Advant Controller 110 in the same way as with another Advant Controller 70 .   It is now easier than ever to combine Advant control systems with OPC-compatible software of your choice, such as SattGraph 5000. The Advant OPC Server, which is based on Windows NT, provides powerful, easy-to-use services for reading, writing, and subscribing to data. Thus, it is easy to implement a wide variety of applications for controlling and monitoring production processes. The Advant OPC Server for Advant Fieldbus 100 can coexist with other Windows NT-based configuration tools, such as AMPL Control Configuration. Among other things, this setup offers remote configuration and troubleshooting for nodes on the Advant Fieldbus 100. This means you can configure, commission, and maintain all your stations in the control system from a central point—with minimal effort .   ## Trouble-Free Production Through Special Functions   The Advant Controller 70 includes numerous functions that make the system reliable and fault-tolerant, and enable self-diagnosis; for example:   – Data transmission on the fieldbus is secured by acknowledgment and checksum formation to ensure error-free operation .   – The processing station supports dual redundancy for power supply and fieldbus with built-in monitoring and fault logging .   – In the event of serious faults, all outputs of the processing station can be individually set to either maintain the last valid value or adopt pre-defined values, allowing the affected plant part to enter a safe state .   – I/O modules can be hot-swapped during operation of the station, i.e., without switching off the power supply to system and field components. Hardware protection ensures that only modules of the correct type can be plugged into free device connection units, while software protection finally checks whether the module type is correct .   With all these functions, the Advant Controller 70 helps secure crucial advantages for users of Advant OCS.   The Advant Controller 70 can communicate with processing stations of the Advant Controller 400 series and via these with the entire Advant OCS process control system .   ## Technical Data of Advant Controller 70   | Power Supply | Supply Voltage: 24V DC +10…-15%; Maximum Current: 1A |   | — | — |   | Device Connection Units (MTU) Compact Design TU810/811 | Rated Isolation Voltage: 50/250V; Conductor Cross-Sections: 0.2-2.5 mm² (AWG 24-12) |   | Extended Design | TU830/831/836; Rated Isolation Voltage: 50/250V; Conductor Cross-Sections: 0.2-2.5 mm² (AWG 24-12)/0.2-4 mm² (AWG 24-10) |   | Number of I/O Devices | Max. 12 per station, optional 24 |   | Extension Cables | With plug, lengths: 0.3m; 0.6m; 1.2m |   | Processor Module | PM 810; CPU: MC68340/16MHz; Program/RAM Memory: 256kB Flash-PROM/256kB RAM; Engineering Station Connection: RS232C port; Battery Buffering: typically 8 months |   | Advant Fieldbus | Connection: 1 bus (slave), 2 dual redundant lines, twisted-pair shielded/coaxial cable/fiber optic cable; Number of Stations: max. 80 per bus; max. 32 per twisted-pair segment |   | Bus Length | Max. 750m per twisted-pair segment; max. total length: 13,000m |   | Binary Input Module DI810 | Number of Channels: 16; Signal Voltage/Type: 24V DC/current-sinking |   | Binary Input Module DI811 | Number of Channels: 16; Signal Voltage/Type: 48V DC/current-sinking; Groups: 2 groups of 8 channels each |   | Binary Input Module DI820 | Number of Channels: 8; Signal Voltage/Type: 120V AC; Groups: Individual return conductor |   | Binary Input Module DI821 | Number of Channels: 8; Signal Voltage/Type: 230V AC; Groups: Individual return conductor |   | Binary Output Module DO810 | Number of Channels/Groups: 16/2 groups of 8 channels each; Signal Voltage: 24V, max 0.5A DC; Type: current-sourcing/short-circuit protected |   |  | Signal Voltage Type: 230V, max 3A AC/DC Relay (normally open contact) |   | Analog Input Module AI810 | Number of Channels/Groups: 8/shared return conductor; Measuring Range: 0(4)-20mA/0(2)-10V; Resolution: 12 Bit |   | Analog Differential Input Module AI820 | Number of Channels: 4; Groups: Shared return conductor; Measuring Range: ±0-5V, ±0-10V, ±0(4)-20mA; Resolution: 12 Bit + Sign; CMRR: >60dB DC/80dB AC at 50/60Hz |   | Analog RTD Input Module AI830 | Number of Channels/Groups: 8/shared return conductor; Measuring Range: Pt100, Ni100, Ni120, Cu10, Resistance 0-400 Ω; Resolution: 14 Bit |   | Analog Thermocouple Input Module AI835 | Number of Channels: 8 (7+ reference channel); Groups: Shared return conductor; Measuring Range: Thermocouple Types B, C, E, J, K, N, R, S, T, ±75mV; Resolution: 14 Bit |   | Analog Output Module AO810 | Number of Channels/Groups: 8/shared return conductor; Range: 0(4)-20mA; Resolution: 14 Bit; Load: 500/1000 Ω (short-circuit protected) |   | Isolated Analog Output Module AO820 | Number of Channels: 4; Groups: Shared return conductor; Measuring Range: ±0-5V, ±0-10V, ±0(4)-20mA; Resolution: 12 Bit + Sign; Load: <500 Ω for current/>2k Ω for voltage |   | Environmental Conditions | Temperature: max. 40°C (vertical installation) max. 55°C (horizontal installation); Protection Class: IP20 (higher with enclosure) |   | Standards Complied With | EMC: EN 50081-2, EN 50082-2, EN 60439-1, EN 60950, EN 61010-1; Fieldbus: IEC 1158-2; Corrosive Gases: ISA Class G2 CSA approval applied for |  

ABBSummary of the Advant Controller 250 Automation System Manual

# Advant Controller 250 Automation System Manual Translation   ## Advant® OCS Open Control System Advant Controller 250   ## The powerful, compact, and modular Advant Controller   Advant Controller 250 is a compact, modular controller system that is built using small bus modules and can be assembled into the desired system configuration through a variety of combinations.   Advant Controller 250 is configured and programmed using Advant Control Builder, an application running on Windows NT®.   The Advant Controller 250 is equipped with interfaces for communication with other systems and devices.   The basic hardware includes the controller unit, power supply component, bus modules, and associated cables.   – Easy expandability through a compact, modular design   – By selecting controller units with different performance characteristics, the system can be optimally adapted to each specific application.   – Decentralized programming via Ethernet network or serial channel   – I/O support for S200 I/O and S200L I/O centrally via serial I/O bus and decentrally via PROFIBUS-DP or ControlNet   – I/O support for S800 I/O decentrally via PROFIBUS-DP   – Communication capabilities with other control systems: MMS, SattLink, COMLI, SattBus, 3964R, and user-defined protocols (via serial channels)   – Units are connected to terminal blocks and connection blocks, which simplifies installation and increases reliability.   – Low installation and maintenance costs due to mounting on DIN-standard rails   – Mechanical coding prevents damage from incorrect installation   – CE   – ABB   ## Software   The “Advant Control Builder” program provides the control system with a wide range of functions, such as logic functions, PID controllers, alarm processing functions, and communication capabilities with other control systems, human-machine interfaces (HMI), and systems from third-party manufacturers.   ### Logic Functions   Logic functions, flip-flops, timers, and counters are included in accordance with IEC Standard 61131-3.   ### PID Control   PID control functions are available in the controller system.   ### Alarm Processing   Functions for alarm and event detection, as well as for alarm printing on local printers, are available.   ### Communication   Communication with the programming tool is handled via a serial interface using the MMS protocol (SattLink).   Communication with other systems (e.g., HMI, SCADA, and control systems) can be handled   – via MMS or SattBus over Ethernet   – via the SattBus fieldbus   – via serial channels (RS232 or RS485). The available protocols include 3964R (as client), COMLI, and MMS (SattLink). User-defined protocols can also be used.   ## Hardware   Up to 16 units can be connected to the Advant Controller 250, one of which is the controller itself, which can be selected from a range of models.   The units in the controller system and the I/O adapters of the central I/O system are interconnected via the controller bus.   All hardware units are equipped with LED indicators on the front panel, which display signal and error status, etc.   Each bus module can accommodate two hardware units. The connection blocks (200-BPP) are mounted on the bus modules, enabling easy signal connection.   ### Controller Unit   The controller unit is a 32-bit high-performance single-board computer available in different models (PM253, PM254, and PM255). All controller units are equipped with a floating-point processor (FPU) to improve computing performance, as well as RAM memory and a real-time clock (both battery-buffered). In addition, all models are equipped with two serial RS232 channels and   a SattBus interface (except PM255, which has only one RS232 channel).   ### Connection of Units   On the front of the unit, there is a start mode switch for setting different program modes and a reset button for the system.   The available controller models differ in terms of performance and memory configuration; further information can be found in the technical data.   ### Power Supply Units   The power supply units of the Advant Controller 250 use an external 24V DC power supply, which provides isolated internal power for the controller and central I/O system.   #### 200-PSMG   200-PSMG is the master power supply unit, which also generates the clock frequency for the controller. The clock frequency is automatically set based on the actual system size.   #### 200-PSSG   200-PSSG is a slave power supply unit used in addition to 200-PSMG to improve power supply performance in larger system configurations.   ### Communication Interface   External communication with the controller is conducted via interface units for Ethernet, SattBus, RS232, RS485, ControlNet, and PROFIBUS-DP.   The interface for all communication units is routed via the controller bus.   #### 200-CI232   200-CI232 is equipped with two non-isolated, asynchronous, serial RS232 channels with overvoltage protection. Connection is via connectors on the front or terminal blocks.   #### 200-CI485G   200-CI485G is equipped with two optically isolated, asynchronous, serial RS232 channels, which are tapped via terminal blocks.   Signals are galvanically isolated via optocouplers and converted to RS485 levels in the RS485 interface circuits. All signals are protected against overvoltage.   The unit can be used for both half-duplex two-wire connections and full-duplex four-wire connections.   An external 24V DC power supply is required for the two channels of the unit.   #### 200-CIE   200-CIE is equipped with an Ethernet channel according to IEEE 802.3 and performs all logic operations for communication.   The unit has an AUI port for connecting an external Ethernet transceiver (MAU) via a drop cable. The transceiver is powered via the AUI port.   200-CIE requires an external 24V DC power supply.   #### 200-CISB   Two galvanically isolated SattBus channels with supervisor function are available on the lower terminal block of the 200-CISB unit. Fieldbus communication for each SattBus channel is handled by a dedicated communication processor.   #### 200-CICN   200-CICN is an interface for the ControlNet network and is used for connecting the decentralized I/O system.   Each 200-CICN unit functions as an I/O scanner for decentralized I/O adapters of type 200-ACN. The decentralized I/O system is connected via coaxial cable or fiber optic cable.   200-CICN is connected to the ControlNet cable system via a 1m drop cable.   The unit is galvanically isolated from the ControlNet via a BNC connector on the front.   #### 200-CIPB/DP   200-CIPB/DP is an interface for the PROFIBUS-DP fieldbus and is used for connecting the decentralized I/O system.   200-CIPB/DP is a class 1 master unit and functions as an I/O scanner for decentralized I/O adapters of type 200-APB12.   The unit is connected to PROFIBUS-DP via a front-mounted connector.   ### Empty Unit   #### 200-DU   The 200-DU empty unit is used in empty bus module slots in the controller system. It prevents mechanical and electrical damage to the controller bus.   ### Bus Module   #### 200-BPN   200-BPN is used as a bus module for units of the Advant Controller 250. Each module has two slots in which units are secured with two snap locks.   The bus module is designed for mounting on DIN rails and can be fastened to the rail with an additional screw for use in environments with strong mechanical loads.   A maximum of 4 terminal blocks 200-BPP (2 for each hardware unit) can be mounted on the bus module.   Two mechanical rotary switches, each with 8 positions, prevent incorrect hardware units from being inserted and damaging the unit.   #### 200-BPP   200-BPP is a 12-pole terminal block for connecting power supply and communication signals to the controller system.   If the block is mounted above the hardware unit, the terminals are numbered from 13 to 24; when connected to the bottom, they are numbered from 1 to 12.   #### 200-BPT   200-BPT is a terminating resistor pair for terminating the controller bus.   ### Cables   #### 200-CBA/L260, 200-CBA/L260V   These cables connect the controller bus module to the first central I/O adapter.   200-CBA/L260V is used for vertical mounting of the central I/O system. All required mounting parts are included.   ### Miscellaneous   #### 200-BPF   200-BPF is a bus module connector used to connect two bus modules.   One bus module connector 200-BPF is supplied with each 200-BPN bus module.   ### Decentralized I/O – ControlNet   #### I/O System   The ControlNet fieldbus can be operated via coaxial cable with a maximum length of 500 to 1000 m (3000 to 6000 m with repeater units), depending on the number of network nodes.   S200 and S200L I/O systems are used for the central I/O connection and can be mixed. S200, S200L, and S800 I/O systems can be used for the decentralized I/O connection.   When using fiber optic cables, a maximum distance of 7 km between two fiber optic repeater units can be bridged under certain circumstances. Additional fiber optic connections can be added.   Depending on the selected model, up to 512 I/O units can be connected to the Advant Controller 250.   The I/O adapters 200-ANN, 200-ACN, and 200-APB12 can each be operated with up to 8 I/O units. The I/O adapter CI830 can be operated with up to 24 I/O units. Up to seven additional rows of I/O units can be connected to the CI830 adapter via optical cables and optical interface units TB820.   The interface unit 200-CICN can be operated with a maximum of 248 I/O units (distributed across up to 15 adapters of type 200-ACN).   ### Decentralized I/O – PROFIBUS-DP   The PROFIBUS-DP fieldbus can be operated with a maximum length of 100 to 1200 m, depending on the transmission speed. The interface unit 200-CIPB/DP can be operated with a maximum of 512 I/O units, distributed across up to 99 adapters 200-APB12 or up to 79 adapters CI830, or a combination thereof (total up to 99).   ### Central I/O   The central I/O system is housed in the same control cabinet as the Advant Controller 250 and can be operated with a maximum of 48 I/O units (distributed across 6 adapters of type 200-ANN).   ## Technical Data   ### General Data   | Power Supply | +24 V (DC 19.2–30 V) including 5% ripple according to IEC Standard 61131-2 Type 1, i.e., +20%, -15% and max. 5% ripple | |————–|———————————————————————————————————————–| | Temperatures | Operating: +5°C to +55°C; Non-operating: -25°C to +70°C                                                                 | | Humidity     | Max 90%, no condensation                                                                                              | | Protection Class / Approvals (if applicable) | IP20; CE mark; meets the requirements of EN 50082-2. Low Voltage Directive 73/23/EEC with amendment 93/68/EEC according to standards IEC 61131-2 (only applicable to units connected to AC 50–1000 V and/or DC 75–1500 V). UL approval for USA and Canada according to UL 508 (except 200-CIPB/DP) | | Packaging Volume of Central System Units | 1–2 units: H 279 x W 360 x D 90 mm (9 dm³); 3–8 units: H 265 x W 265 x D 175 mm (12 dm³)                               |   ### Controller Units   | Processor Type |                                                                 | |—————-|—————————————————————–| | PM253          | Motorola MC68020                                                | | PM254          | Motorola MC68020                                                | | PM255          | Motorola MC68060                                                | | Clock Frequency |                                                                 | | PM253          | 16.7 MHz                                                        | | PM254          | 28.8 MHz                                                        | | PM255          | 50 MHz                                                          | | Floating-Point Processor (FPU) | Yes                                                            | | Memory and I/O Support for System and Application Program |                                                                 | | PM253V01       | 1 MB RAM, 32 I/O units                                          | | PM253V02       | 2 MB RAM, 64 I/O units                                          | | PM254V04       | 4 MB RAM, 128 I/O units                                         | | PM254V08       | 8 MB RAM, 256 I/O units                                         | | PM255V04       | 4 MB RAM, 256 I/O units                                         | | PM255V08       | 8 MB RAM, 512 I/O units                                         |   | Status Indicators |                                                                 | |——————-|—————————————————————–| | PM253 and PM254 / PM255 | Green LED indicators for power OK (PWR), SattBus signals (SB TD0, SB RD0), signals TD0, TD1, RD0, and RD1 of the serial channel; red LED indicators for errors and system stop. / Green LED indicators for power OK (PWR), and signals TD0 and RD0 of the serial channel; red LED indicators for errors and system stop; red/green LED for battery status. | | Communication Channels |                                                                 | | Serial Channels Baud Rate | Max cable length: 15 m; 75, 110, 134, 150, 300, 600, 1200, 2400, 4800, 9600 (standard), 19200, and 38400 Baud | | PM253 and PM254 | 2 RS232 channels. Channel 0: TD, RD, RTS, CTS, DCD, and DTR; Protocol: MMS (SattLink). Channel 1: RD and TD. Data bits: 7 or 8 (standard). Parity: odd, even, none. Stop bits: 1 (standard) or 2. Protocol: see 200-CI232. | | PM255             | 1 RS232 channel. Channel 0: TD, RD, RTS, and CTS. Protocol: MMS (SattLink). | | SattBus           | 1 channel, supervisor function (not available for PM255). Protocol: see 200-CISB. | | Real-Time Clock   | Yes                                                             | | Accuracy, Normal Mode |                                                                 | | PM253 and PM254 / PM255 | 10 ppm (approx. 6 min/year) / 100 ppm (approx. 60 min/year)      | | Accuracy, Battery-Buffered Mode | 50 ppm (approx. 0.2 s/year)                                      | | PM253 and PM254 | Lithium battery for memory retention and real-time clock (3.6 V; 1.75 Ah; type AA/R6/UM-3) including connection cable. | | PM255             | Rechargeable NiMH battery for memory retention and real-time clock (4.8 V; 200 mAh; type 4 x V250H); buffer time approx. 1 hour. | | Connections       | One 200-BPP terminal block; one 9-pin D-SUB socket on the front.  | | Grounding         | Directly via bus module 200-BPN                                  | | Power Supply      | Via power supply unit 200-PSMG/PSSG                             | | Internal Power Consumption (from 200-PSMG/PSSG) | Max 0.6 A                                                       | | Bus Module Code   | 5                                                               | | Weight            | 0.430 kg without packaging; 0.500 kg with packaging             | | Dimensions        | H 163 x W 45 x D 91 mm (excluding connections and snap locks)   | | Order Codes       | PM253V01, PM253V02, PM254V04, PM254V08, PM255V04, PM255V08      |   ### Power Supply Unit 200-PSMG   | Input               | DC 24 V (19.2–30 V including max. 5% ripple); max. 1.3 A                | |———————|————————————————————————-| | Input Protection    | 2 A slow-blow, 250 V; IEC-127-3 microfuse TR5                          | | Inrush Current      | Max 4 A for 10 ms                                                       | | Voltage Drop Compensation | Max 0.3 ms                                                            | | Output              | DC 7–9 V; max. 2.2 A (1.8 A when additional 200-PSSG is used)           | | Clock Frequency     | 4, 6, 8, and 12 MHz, automatically set based on system configuration size | | Status Indicators   | Green LED indicators for output voltage and clock output; Red LED indicators for initialization error and voltage error | | Galvanic Isolation  | AC 500 V effective between input and output                            | | Connections         | One 200-BPP terminal block                                              | | Grounding           | Directly via bus module 200-BPN                                        | | Bus Module Code     | 7                                                                       | | Weight              | 0.170 kg without packaging; 0.240 kg with packaging                     | | Dimensions          | H 163 x W 45 x D 91 mm (excluding connections and snap locks)           | | Order Code          | 200-PSMG                                                                |   ### Power Supply Unit 200-PSSG   | Input               | DC 24 V (19.2–30 V including max. 5% ripple); max. 1.3 A                | |———————|————————————————————————-| | Input Protection    | 2 A slow-blow 250 V; IEC-127-3 microfuse TR5                           | | Inrush Current      | Max 4 A for 10 ms                                                       | | Output              | DC 7–9 V; max. 1.8 A                                                   | | Status Indicators   | Green LED for output voltage; Red LED for voltage error                 | | Galvanic Isolation  | AC 500 V effective between input and output                            | | Connections         | One 200-BPP terminal block                                              | | Grounding           | Directly via bus module 200-BPN                                        | | Bus Module Code     | 7                                                                       | | Weight              | 0.170 kg without packaging; 0.240 kg with packaging                     | | Dimensions          | H 163 x W 45 x D 91 mm (excluding connections and snap locks)           | | Order Code          | 200-PSSG                                                                |   ### RS232 Communication Interface 200-CI232   | Number of Channels       | 2                                                                       | |————————–|————————————————————————-| | Communication Protocols  | COMLI (client and server), 3964R (client), MMS (SattLink) (client and server), and user-defined | | Communication Interface  | Asynchronous, serial RS232C communication for TD, RD, RTS, CTS, DCD, and DTR | | Status Indicators        | Green LED indicators for power OK and serial signals RD0, RD1, TD0, TD1, RTS0, and RTS1 | | Galvanic Isolation       | None                                                                    | | Transmission Speeds      | 75, 110, 134, 150, 300, 600, 1200, 2400, 4800, 9600 (standard), 19200, and 38400 Baud; max. cable length: 15 m | | Data Bits                | 7 or 8 (standard)                                                       | | Parity                   | Odd, even, none                                                        | | Stop Bits                | 1 (standard) or 2                                                      | | Max. Load on DTR         | 5 mA                                                                    | | Power Supply             | Via 200-PSMG/PSSG power supply units                                   | | Internal Power Consumption (from 200-PSMG/PSSG) | Max 0.2 A                                                            | | Connections              | Two 200-BPP terminal blocks; two 9-pin D-SUB sockets on the front       | | Bus Module Code          | 8                                                                       | | Weight                   | 0.200 kg without packaging; 0.270 kg with packaging                     | | Dimensions               | H 163 x W 45 x D 91 mm (excluding connections and snap locks)           | | Order Code               | 200-CI232                                                               |   ### RS485 Communication Interface 200-CI485G   | Number of Channels       | 2                                                                       | |————————–|————————————————————————-| | Number of Network Nodes  | 32 per channel                                                         | | Communication Protocols  | COMLI (client and server), 3964R (client), MMS (SattLink) (client and server), and user-defined | | Communication Interface  | Asynchronous, serial RS485 communication for TD, RD, and RTS           | | Status Indicators        | Green LED indicators for power OK and serial signals RD0, RD1, TD0, TD1, RTS0, and RTS1 | | Galvanic Isolation       | AC 500 V effective; channels are individually isolated from main logic and DC 24 V | | Transmission Speeds      | 75, 110, 134, 150, 300, 600, 1200, 2400, 4800, 9600 (standard), 19200, and 38400 Baud; max. cable length: 1200 m | | Data Bits                | 7 or 8 (standard)                                                       | | Parity                   | Odd, even, none                                                        | | Stop Bits                | 1 (standard) or 2                                                      | | Power Supply             | Via 200-PSMG/PSSG power supply units and external power supply (DC 24 V) | | Internal Power Consumption (from 200-PSMG/PSSG) | Max 0.2 A                                                            | | External Power Consumption | Max 0.1 A (from external DC 24 V)                                      | | Connections              | Two 200-BPP terminal blocks                                            | | Bus Module Code          | 8                                                                       | | Weight                   | 0.220 kg without packaging; 0.290 kg with packaging                     | | Dimensions               | H 163 x W 45 x D 91 mm (excluding connections and snap locks)           | | Order Code               | 200-CI485G                                                              |   ### Ethernet Interface 200-CIE   | Number of Channels       | 1                                                                       | |————————–|————————————————————————-| | Communication Standard   | IEEE 802.3 (Ethernet)                                                  | | Communication Protocols  | SattBus (client and server), MMS (client and server)                    | | Status Indicators        | Green LED indicators for power OK, data transmit (TD0), data receive (RD0), and Ethernet traffic (NET); red error LED (software-controlled) | | Galvanic Isolation       | DC 500 V DC from 24 V DC power supply; according to IEEE 802.3 standard, the transceiver (MAU) must provide isolation between AUI cable and broadband coaxial medium. Any power supplied by the AUI must not exceed 0.5 A from the AUI voltage source. Further details can be found in ANSI/IEEE Std. 802.3 and SS-ISO 8802-3. | | Transmission Speed / Access Method | 10 Mbit/s / CSMA/CD (Carrier Sense Multiple Access with Collision Detection) | | Input Protection         | 1.25 A slow-blow, IEC-127-3 microfuse TR5                              | | Power Supply             | Via 200-PSMG/PSSG power supply unit and external power supply (DC 24 V) | | Internal Power Consumption (from 200-PSMG/PSSG) | Max 0.25 A                                                           | | External Power Consumption | Max 0.5 A at DC 19.2 V (typically 0.2 A) from external 24 V DC power supply (depending on transceiver type) | | Connections              | One 200-BPP terminal block; one front-mounted 15-pin D-SUB socket with slide lock | | Bus Module Code          | 8                                                                       | | Weight                   | 0.340 kg without packaging; 0.410 kg with packaging                     | | Dimensions               | H 163 x W 45 x D 91 mm (excluding connections and snap locks)           | | Order Code               | 200-CIE                                                                |   ### SattBus Interface 200-CISB   | Number of Channels       | 2                                                                       | |————————–|————————————————————————-| | Number of Network Nodes  | 120                                                                    | | Communication Protocol   | SattBus (client and server)                                             | | Transmission Speed       | 62.5 kBit/s                                                            | | Access Method            | Token passing                                                          | | Status Indicators        | Green LED indicators for power OK, data transmit (TD0, TD1), and data receive (RD0, RD1) | | Galvanic Isolation       | AC 500 V; channels are individually isolated via signal transformers    | | Connection               | One 200-BPP terminal block                                              | | Power Supply             | Via 200-PSMG/PSSG power supply unit                                    | | Internal Power Consumption (from 200-PSMG/PSSG) | Max 0.3 A                                                            | | Bus Module Code          | 8                                                                       | | Weight                   | 0.250 kg without packaging; 0.320 kg with packaging                     | | Dimensions               | H 163 x W 45 x D 91 mm (excluding connections and snap locks)           | | Order Code               | 200-CISB                                                               |   ### ControlNet Interface 200-CICN   | Number of Channels       | 1                                                                       | |————————–|————————————————————————-| | Communication Protocol   | ControlNet                                                             | | Access Method            | CTDMA (Concurrent Time Division Multiple Access)                       | | Galvanic Isolation       | Isolation via signal transformers                                       | | Transmission Speed       | 5 Mbit/s                                                               | | Status Indicators        | Green/red LED indicators for OK status and COM A and B (communication information); green LED for power OK | | Power Supply             | Via 200-PSMG/PSSG power supply unit                                    | | Internal Power Consumption (from 200-PSMG/PSSG) | Max 0.5 A                                                            | | Connection               | 75 Ω BNC on the front                                                  | | Bus Module Code          | 8                                                                       | | Weight                   | 0.250 kg without packaging; 0.330 kg with packaging                     | | Dimensions               | H 163 x W 45 x D 91 mm (excluding connections and snap locks)           | | Order Code               | 200-CICN                                                               |   ### PROFIBUS-DP Interface 200-CIPB/DP   | Type                     | DP master class 1                                                      | |————————–|————————————————————————-| | Number of Channels       | 1                                                                       | | Communication Protocol   | PROFIBUS-DP                                                            | | Transmission Speeds      | 9.6; 19.2; 93.75; 187.5; 500; 1500; 3000; 6000; or 12000 kBit/s        | | Galvanic Isolation       | None                                                                    | | Status Indicators        | Green LED indicators for power OK, Ready, and Run; red error LED (for future use) | | Power Supply             | Via 200-PSMG/PSSG power supply unit                                    | | Internal Power Consumption (from 200-PSMG/PSSG) | Max 0.65 A                                                           | | Connections              | One 9-pin D-SUB socket                                                 | | Bus Module Code          | 8                                                                       | | Weight                   | 0.270 kg without packaging; 0.330 kg with packaging                     | | Dimensions               | H 163 x W 45 x D 91 mm (excluding connections and snap locks)           | | Order Code               | 200-CIPB/DP                                                            |   ### Empty Unit 200-DU   | Bus Module Code   | None                                                                    | |——————-|————————————————————————-| | Weight            | 0.110 kg without packaging; 0.180 kg with packaging                     | | Dimensions        | H 163 x W 45 x D 91 mm                                                 | | Order Code        | 200-DU                                                                 |   ### Bus Module 200-BPN / Bus Module Terminating Resistor 200-BPT   | Number of Plugs (200-BPT) | One green start plug and one red stop plug                             | |—————————|————————————————————————-| | Internal Power Consumption (from 200-PSMG/PSSG) (200-BPT) | 0.2 A                                                               | | Weight (200-BPT)          | 0.010 kg                                                               | | Dimensions (200-BPT)      | H 32 x W 23 x D 17 mm                                                  | | Order Code (200-BPT)      | 200-BPT                                                                |   | Number of Slots (200-BPN) | 2                                                                       | |—————————|————————————————————————-| | Internal Power Consumption (from 200-PSMG/PSSG) (200-BPN) | Max 0.04 A; the power consumption is included in the specifications for central system units and does not need to be considered separately when calculating total power consumption. | | Connections (200-BPN)     | The number of 200-BPP terminal blocks depends on the installed units. 2 x 32-pin Euro connectors for electrical connection of bus module and units | | Mounting (200-BPN)        | On 35 x 7.5 mm rail according to DIN standard EN 50022                  | | Weight (200-BPN)          | 0.170 kg without packaging; 0.240 kg with packaging                     | | Dimensions (200-BPN)      | Height: 239 mm with one terminal block; 163 mm without terminal block. Width: 91 mm excluding 5 mm wide connecting clip to next bus module. Depth: 43 mm (127 mm including unit with front connectors and DIN rail). | | Order Code (200-BPN)      | 200-BPN                                                                |   ### Controller Bus Cable 200-CBA/L260   | Rail Distance (Center to Center) | Max 255 mm                                                             | |———————————-|————————————————————————-| | Weight                           | 0.092 kg                                                               | | Order Code                       | 200-CBA/L260                                                          |   ### Controller Bus Cable 200-CBA/L260V   | Weight       | 0.092 kg                                                               | |————–|————————————————————————-| | Order Code   | 200-CBA/L260V                                                         |   ### Terminal Block 200-BPP   | Terminal Screws | 12                                                                      | |—————–|————————————————————————-| | Cable           | Solid or flexible 0.5–2.5 mm² (AWG 20–AWG 12)                          | | Weight          | 0.070 kg                                                               | | Dimensions      | H 60 (only 37 mm when installed) x W 45 x D 43 mm                       | | Order Code      | 200-BPP                                                                |   ### Programming Cable 200-CPC (Optional)   | Connections | One 9-pin D-SUB socket                                                 | |————-|————————————————————————-| | Weight      | 0.125 kg                                                               | | Length      | 3.00 m                                                                 | | Order Code  | 200-CPC                                                                |   ControlNet is a trademark of Allen-Bradley Company, Inc., a Rockwell International Company. Windows is a registered trademark of Microsoft Corporation.  

ABBSummary of Advant Controller 250 System

# Advant Controller 250 ## 1、System Overview Advant Controller 250 is a compact, modular controller system that is built using small bus modules and can be assembled into the desired system configuration through a variety of combinations . It is configured and programmed using Advant Control Builder, an application running on Windows NT® . The system features interfaces for communication with other systems and devices, with basic hardware including a controller unit, power supply part, bus modules, and associated cables . It offers simple expandability due to its compact, modular design and can be optimally adapted to each specific application by selecting controller units with different performance characteristics . ## 2、Hardware Components ### 1. Core Components – **Controller Unit**: It is a 32-bit high-performance single-board computer available in various models (PM253, PM254, and PM255). All controller units are equipped with a floating-point processor (FPU) to improve computing performance, as well as battery-buffered RAM and a real-time clock . In addition, all models have two serial RS232 channels and a SattBus interface (except PM255, which has only one RS232 channel) . The available controller models differ in terms of performance and memory expansion . – **Power Supply Units**: The power supply units of the Advant Controller 250 use an external 24V DC power supply, which provides the isolated internal power supply for the controller and the central I/O system . 200-PSMG is the master power supply unit that also generates the clock frequency for the controller, which is automatically set depending on the actual system size . 200-PSSG is a slave power supply unit used in addition to 200-PSMG to improve power supply performance in larger system configurations . – **Bus Modules and Auxiliary Components**: 200-BPN is used as a bus module for the units of the Advant Controller 250. Each module has two slots where the units are fastened with two snap locks . 200-BPP is a 12-pole screw terminal block for connecting power supply and communication signals to the controller system . 200-BPT is a terminating resistor pair for terminating the controller bus . The empty unit 200-DU is used in empty bus module slots in the controller system to prevent mechanical and electrical damage to the controller bus . ### 2. Communication Interfaces The system supports a variety of communication interfaces to meet different scenario requirements, as follows: |Interface Model|Type|Core Features|Protocol Support| |—-|—-|—-|—-| |200-CI232|RS232|2 non-isolated, asynchronous serial RS232 channels with overvoltage protection|COMLI (Client and Server), 3964R (Client), MMS (SattLink) (Client and Server), and user-defined|| |200-CI485G|RS485|2 opto-isolated, asynchronous serial channels, usable for half-duplex two-wire and full-duplex four-wire connections|COMLI (Client and Server), 3964R (Client), MMS (SattLink) (Client and Server), and user-defined|| |200-CIE|Ethernet|Features one Ethernet channel according to IEEE 802.3, with an AUI port|SattBus (Client and Server), MMS (Client and Server)|| |200-CISB|SattBus|Two isolated SattBus channels with supervisor function, fieldbus communication handled by separate communication processors|SattBus|| |200-CICN|ControlNet|Interface for the ControlNet network, used for connecting the decentralized I/O system|ControlNet|| |200-CIPB/DP|PROFIBUS-DP|Class 1 master unit, used for connecting the decentralized I/O system|PROFIBUS-DP|| ## 3、Software Functions The “Advant Control Builder” program provides the control system with a wide range of functions, such as logic functions, PID controllers, alarm processing functions, and communication capabilities with other control systems, human-machine interfaces (HMI), and systems from third-party manufacturers . Logic functions, flip-flops, timers, and counters are included in accordance with the IEC Standard 61131-3 . PID control functions are available in the controller system . Functions for alarm and event detection, as well as for alarm printing on local printers, are available . Communication with the programming tool is handled via a serial interface using the MMS protocol (SattLink) . Communication with other systems (e.g., HMI, SCADA, and control systems) can be handled via MMS or SattBus over Ethernet, via the SattBus fieldbus, or via serial channels (RS232 or RS485) with protocols such as 3964R (as client), COMLI, and MMS (SattLink) available, and user-defined protocols can also be used . ## 4、I/O Configuration – **Central I/O**: The central I/O system is housed in the same control cabinet as the Advant Controller 250 and can be operated with a maximum of 48 I/O units (distributed across 6 adapters of type 200-ANN) . The S200 and S200L I/O systems are used for the central I/O connection and can be mixed . – **Decentralized I/O**    – S200, S200L, and S800 I/O systems can be used for the decentralized I/O connection .    – ControlNet: The ControlNet fieldbus can be operated via a coaxial cable with a maximum length of 500 to 1000 m (3000 to 6000 m with repeater units) depending on the number of network nodes . Using optical fibers (LWL), a maximum distance of 7 km between two LWL repeater units can be bridged under certain circumstances . The 200-CICN interface unit can be operated with a maximum of 248 I/O units (distributed across up to 15 adapters of type 200-ACN) .    – PROFIBUS-DP: The PROFIBUS-DP fieldbus can be operated with a maximum length of 100 to 1200 m depending on the transmission speed . The 200-CIPB/DP interface unit can be operated with a maximum of 512 I/O units, distributed across up to 99 adapters 200-APB12 or up to 79 adapters CI830 or a combination thereof (total up to 99) . ## 6、Technical Data – **Power Supply**: +24 V (DC 19.2–30 V) including 5% ripple according to IEC Standard 61131-2 Type 1, i.e., +20%, -15% and max. 5% ripple . – **Temperatures**: Operating temperature: +5°C to +55°C; Storage temperature: -25°C to +70°C . – **Humidity**: Max 90%, no condensation . – **Protection Rating and Approvals**: IP20; CE mark; meets the requirements of EN 50082-2; Low Voltage Directive 73/23/EEC with Amendment 93/68/EEC according to IEC 61131-2 (only applicable to units connected to AC 50–1000 V and/or DC 75–1500 V); UL approval for USA and Canada according to UL 508 (except 200-CIPB/DP) .

ABBProduct Summary of ABBAdvant Controller 210

# Product Summary of Advant Controller 210   ## I. Product Positioning and Core Configuration   Advant Controller 210 is a compact and cost-effective open control system (Advant® OCS) launched by ABB, belonging to the Advant product series. Its configuration and programming are performed via the **Advant Control Builder** software running on the Windows NT system. It holds CE and UL certifications, making it suitable for industrial control scenarios.   ## II. Hardware Features   1. **Basic Structure and Interfaces**     – Adopts a compact design, supports DIN rail mounting, and is equipped with detachable power supply and I/O terminal blocks for easy installation and maintenance.     – Integrates 10 binary inputs and 6 binary outputs, which can be expanded to connect up to 16 external I/O units to meet control needs of different scenarios.     – Incorporates 2 RJ-45 interfaces for RS232 communication, with 2 slots for optional interface units (such as the CI274 unit supporting PROFIBUS-DP).     – Equipped with 3 LED indicators (displaying power, fault, and program stop status), as well as a reset button, start/stop switch, and operation mode selection switch, facilitating status monitoring and operation.   2. **I/O System Support**     – **Central I/O**: Supports S200/S200L series I/O, which can be connected centrally via a serial bus or distributed via PROFIBUS-DP; up to 8 external I/O units can be directly plugged into the controller and mounted on the same DIN rail, and an additional 8 can be connected via the TK210 cable and 200-AIO adapter.     – **Distributed I/O**: The optional PROFIBUS-DP interface unit CI274 supports distributed connection of S800 series I/O (requiring the CI830 adapter). S200/S200L series can be connected via the 200-APB12 adapter, with a single adapter supporting up to 8 I/O units.   3. **Optional Components**     – **Battery/Real-Time Clock Unit (SB210)**: Includes a 3.0V lithium-manganese battery (model CR2430), which can maintain RAM data for approximately 1 year, record power-off duration, and supports hot-swap replacement. Without this unit, RAM data will be lost about 20 minutes after power-off.     – **Programming Cable (TK211)**: 3 meters in length, with a 9-pin D-SUB interface and an 8-pin RJ-45 connector at both ends, used to connect a PC to the RS232 channel of the controller.   ## III. Software Functions (Advant Control Builder)   1. **Core Control Functions**     – Includes logic functions (flip-flops, timers, counters, etc.) compliant with the IEC 61131-3 standard, PID regulation functions, as well as alarm/event recognition and local print output functions.   2. **Communication Capabilities**     – Communicates with programming tools via a serial interface based on the MMS protocol (SattLink).     – Communicates with external systems (such as HMI, SCADA) via the RS232 channel, supporting 3964R (client), COMLI, MMS protocols, and custom protocols.   ## IV. Technical Parameters   1. **Environment and Certifications**     – Operating temperature: 5°C~55°C during operation, -25°C~70°C during storage; humidity 5%~95% (non-condensing), protection class IP20.     – Certifications: Compliant with CE standards (EN 50081-2/EN 50082-2) and UL 508 certification (for the US and Canada).   2. **I/O Technical Details**     – **Inputs**: 10 positive logic inputs, supporting 15~30V DC signals, with second-order low-pass filters (time constant adjustable from 0.5~32ms), maximum input impedance of 6.2kΩ.     – **Outputs**: 6 positive logic outputs, supporting 19~30V DC signals, maximum output current of 3A per unit, 600mA per channel, with short-circuit, over-temperature (approximately 160°C), and undervoltage (when +24V drops below 8V) protection.   3. **Communication Parameters**     – **RS232 channels**: 2 channels, channel 0 has a fixed baud rate of 9600 Baud, channel 1 supports 75~38400 Baud, maximum cable length of 15 meters.     – **PROFIBUS-DP (CI274)**: Class 1 master, transmission rates from 9.6 kBit/s to 12 MBit/s, maximum distance of 100~1200 meters (depending on the rate), no galvanic isolation, power consumption of approximately 700mA (DC 5V).   4. **Dimensions and Weight**     – Controller dimensions: 282×107×55mm; SB210 dimensions: 44×57mm (weight 15g); TK211 cable weight: 125g.   ## V. Ordering and Support   – Main component order codes: PROFIBUS-DP interface (CI274), battery unit (SB210), replacement battery (CR2430), programming cable (TK211).   – ABB’s global regional centers provide technical support, covering Europe, the Americas, Germany, and the Asia-Pacific region (see the original text for specific contact information).  

ABBSummary of ASTAT® Crane Control System

# Summary of ASTAT® Crane Control System   ## I. Product Positioning and Core Advantages   ASTAT® is a digital crane motion controller launched by ABB, specifically designed for industrial cranes. It is suitable for both new installations and retrofit projects, enabling powerful, responsive, and accurate control in various complex environments. Its core advantages include:   – **High Adaptability**: It can operate in harsh environments such as high temperatures (e.g., regions like India), extreme cold, and dusty conditions without additional cooling or air conditioning, and can also adapt to unstable power supply systems.   – **High Integration**: It integrates functions such as brake control, time relays, logic control, and thermistor relays to form a complete and fully tested motion control system, with hardware reliability far exceeding that of general-purpose products.   – **Low Maintenance Costs**: By optimizing the control of rotor contactors, it significantly reduces wear on contactors and mechanical components; slip-ring motors have low maintenance requirements, with brushes replaced only every 5 to 10 years.   ## II. Core Functions and Technical Features   1. **Motion Control Performance**     – Adopts digital control technology, supporting two modes: scalar speed control or vector-based torque control. The motion precision can reach a微调 level of only 1 cm, achieving smooth acceleration and deceleration to reduce torque peaks, as well as rope and brake wear.     – In most cases, no tachometer or pulse encoder is needed; speed is calculated by measuring rotor frequency via slip-rings. Speed feedback options include rotor frequency, tachometer, and pulse encoder.     – The speed reference generation and closed-loop speed regulator execution cycle is 10 ms, the current regulator response cycle is 3 ms (interrupt-controlled), and the rotor frequency measurement resolution is 100 µs.   2. **Key Function Extensions**     – Supports optional functions such as Sway Control System, positioning system for TCP/IP commands, and four-rope grab crane control.     – Features logic control functions including Master-Follower, shared motion, two operator stations, and switching between different parameter sets.     – Equipped with a built-in fault diagnosis system; combined with a PC maintenance program, problems can be remotely diagnosed on a ground-level computer, reducing downtime.   3. **Hardware Configuration**     – **Control Module (DARA 1001)**: Supports 115/230 V AC single-phase power supply, integrating RS232 programming/monitoring interfaces, opto interfaces, digital I/O (110 V DC input, relay output), analog I/O (±20 mA/±10 V), and motor PTC inputs.     – **Thyristor Modules (DASD)**: Support a maximum voltage of 690 V, with a current range of 25 A-1000 A (maximum 1000 A per module, total maximum current 2000 A), available in three frame sizes: 25-100 A, 200-355 A, and 630-1000 A.     – **Remote I/O (DAPM 100)**: Provides 24 V DC digital I/O and analog I/O, supporting “Cabin I/O” configuration.   ## III. Technical Parameters   – **Operation Limits**:    – Voltage: Nominal value -30% … +10%, supporting specifications such as 380-400 V, 415 V, 440-480 V, 500-575 V, 690 V AC;    – Frequency: 50 Hz ±10 Hz or 60 Hz ±10 Hz;    – Temperature: -25℃ (-40℃ short-term) without heating, +70℃ (+85℃ short-term) without cooling;    – Isolation: Complies with EN60664 standard, pollution degree 4.   – **Configuration Requirements**: Configured via PC, requiring Windows system and COM1/USB port. Status indication is two digits (00-99), with a readable temperature range of -40℃ … +85℃.  

CMZSMART SERVODRIVE FOR 2 PHASES SYNCHRONOUS MOTOR

• SMART SERVODRIVE FOR 2 PHASES SYNCHRONOUS MOTOR

HARDWARE FEATURES

Power supply

65-180Vdc [Nominal 160Vdc]

Control supply

20-180Vdc

Rated current 

4Arms @40°C (8,5Arms with external ventilation)

Peak current

12Arms

Feedback

Incremental encoder

Encoder output

Incremental line driver (differential output)

Digital input

7 configurable 24Vdc PNP optoisolated (e.g.: limit switch +/-, 

index, captures or general purpose)

Special digital input

2 configurable 24Vdc PNP or line driver optoisolated: settable 

as master encoder or step/dir or general purpose

Analog input 

1 Analogue IN +/-10V

Digital output

4 optoisolated PNP digital outputs 24Vdc max 200mA 

n. 1 24Vdc max 1,4A 

for motor brake control or general purpose

(external power device required)

Interface

Profibus-DP slave

CANopen RS232/485 (ModBus) step/dir,

+/-10V with encoder output

CAN Speed/address selection

by switches or software settable

Available versions

Profibus-DP, CANopen, ModBus RS485, Step/dir, ±10V

Dimensions (mm)

W51xH196xD125

Weight (Kg) 0.8

Certifications: CE

FUNCTIONAL FEATURES SVM

Integrated movement features: 

device profile DS402, interpolated mode,

positioning, extended gearing function,

homing, capture

Stand alone programmability

according to the standard IEC61131, 

ST language

Capture input

PC parametrization tool

Protection

I2t, Overload, Short circuit,

Overtemperature, Overvoltage

• SVM ORDERING CODES

CMZ engineers and manufactures electronic systems for 

industrial motion control.

The company targets to OEMs and systems integrators 

for the co-development of automatic machines featuring 

a deep level of customization in multi axis motion. The 

result: high performing machines with unique, special 

features.

Established in 1976 focusing on controllers, today CMZ 

offers a complete portfolio of solutions including the 

systems design, the electronics programming, the 

development of ready-to-use application libraries and 

ad-hoc softwares, alongside a wide selection of master 

controllers IEC61131 up to 99 axis, integrated and standalone drives, brushless and stepper motors up to 120 

Nm strictly compact and Made in Italy, peripherals and 

I/O modules both digital and analogic, integrated vision 

systems based on machine learning technology, HMI 

operator panels.

CMZ’s high technological and safety standing is based on 

its team of 70 technicians and engineers. The systems 

realized to date in its plant count over 125,000 units.

CMZ is part of SOGA ENERGY TEAM industrial group 

operating in power generation, motion and control since

CMZ sviluppa e realizza sistemi elettronici e soluzioni 

per il motion control industriale.

L’azienda si rivolge a OEMs e system integrators 

per la co-progettazione di macchine automatiche

dotate di funzionalità personalizzate e speciali nella 

movimentazione degli assi. Il risultato: macchine ad alta 

performance e dalle caratteristiche uniche.

Fondata nel 1976 con focus sui controllori, oggi CMZ 

offre un portfolio integrale di soluzioni che include 

la progettazione dei sistemi, la programmazione 

dell’elettronica, lo sviluppo di librerie applicative readyto-use e pacchetti software ad-hoc, affiancati a un’ampia 

scelta di controllori IEC 61131 programmabili fino a 

99 assi, azionamenti integrati e stand-alone, motori 

brushless e passo-passo fino a 120 Nm rigorosamente 

compatti e Made in Italy, periferiche e moduli I/O digitali 

e analogici, sistemi di visione integrata con tecnologia 

machine learning, pannelli operatore HMI.

L’elevato standing tecnologico e di sicurezza di CMZ 

si basa su un team di 70 tecnici e ingegneri. I sistemi 

realizzati fino ad oggi nel sito produttivo dell’azienda sono 

oltre 125.000. CMZ fa parte del gruppo industriale SOGA 

ENERGY TEAM, attivo dal 1966 a livello internazionale 

1966. nei settori power generation, motion e control.

CMZSMART SERVODRIVE FOR 2 PHASES SYNCHRONOUS MOTOR

• SMART SERVODRIVE FOR 2 PHASES SYNCHRONOUS MOTOR

HARDWARE FEATURES

Power supply

65-180Vdc [Nominal 160Vdc]

Control supply

20-180Vdc

Rated current 

4Arms @40°C (8,5Arms with external ventilation)

Peak current

12Arms

Feedback

Incremental encoder

Encoder output

Incremental line driver (differential output)

Digital input

7 configurable 24Vdc PNP optoisolated (e.g.: limit switch +/-, 

index, captures or general purpose)

Special digital input

2 configurable 24Vdc PNP or line driver optoisolated: settable 

as master encoder or step/dir or general purpose

Analog input 

1 Analogue IN +/-10V

Digital output

4 optoisolated PNP digital outputs 24Vdc max 200mA 

n. 1 24Vdc max 1,4A 

for motor brake control or general purpose

(external power device required)

Interface

Profibus-DP slave

CANopen RS232/485 (ModBus) step/dir,

+/-10V with encoder output

CAN Speed/address selection

by switches or software settable

Available versions

Profibus-DP, CANopen, ModBus RS485, Step/dir, ±10V

Dimensions (mm)

W51xH196xD125

Weight (Kg) 0.8

Certifications: CE

FUNCTIONAL FEATURES SVM

Integrated movement features: 

device profile DS402, interpolated mode,

positioning, extended gearing function,

homing, capture

Stand alone programmability

according to the standard IEC61131, 

ST language

Capture input

PC parametrization tool

Protection

I2t, Overload, Short circuit,

Overtemperature, Overvoltage

• SVM ORDERING CODES

CMZ engineers and manufactures electronic systems for 

industrial motion control.

The company targets to OEMs and systems integrators 

for the co-development of automatic machines featuring 

a deep level of customization in multi axis motion. The 

result: high performing machines with unique, special 

features.

Established in 1976 focusing on controllers, today CMZ 

offers a complete portfolio of solutions including the 

systems design, the electronics programming, the 

development of ready-to-use application libraries and 

ad-hoc softwares, alongside a wide selection of master 

controllers IEC61131 up to 99 axis, integrated and standalone drives, brushless and stepper motors up to 120 

Nm strictly compact and Made in Italy, peripherals and 

I/O modules both digital and analogic, integrated vision 

systems based on machine learning technology, HMI 

operator panels.

CMZ’s high technological and safety standing is based on 

its team of 70 technicians and engineers. The systems 

realized to date in its plant count over 125,000 units.

CMZ is part of SOGA ENERGY TEAM industrial group 

operating in power generation, motion and control since

CMZ sviluppa e realizza sistemi elettronici e soluzioni 

per il motion control industriale.

L’azienda si rivolge a OEMs e system integrators 

per la co-progettazione di macchine automatiche

dotate di funzionalità personalizzate e speciali nella 

movimentazione degli assi. Il risultato: macchine ad alta 

performance e dalle caratteristiche uniche.

Fondata nel 1976 con focus sui controllori, oggi CMZ 

offre un portfolio integrale di soluzioni che include 

la progettazione dei sistemi, la programmazione 

dell’elettronica, lo sviluppo di librerie applicative readyto-use e pacchetti software ad-hoc, affiancati a un’ampia 

scelta di controllori IEC 61131 programmabili fino a 

99 assi, azionamenti integrati e stand-alone, motori 

brushless e passo-passo fino a 120 Nm rigorosamente 

compatti e Made in Italy, periferiche e moduli I/O digitali 

e analogici, sistemi di visione integrata con tecnologia 

machine learning, pannelli operatore HMI.

L’elevato standing tecnologico e di sicurezza di CMZ 

si basa su un team di 70 tecnici e ingegneri. I sistemi 

realizzati fino ad oggi nel sito produttivo dell’azienda sono 

oltre 125.000. CMZ fa parte del gruppo industriale SOGA 

ENERGY TEAM, attivo dal 1966 a livello internazionale 

1966. nei settori power generation, motion e control.

DELIFGenerator Paralleling Controller, GPC-3 – Generator Protection Unit, GPU-3/ GPU-3 Hydro – Paralleling and Protection Unit, PPU-3

1.1 Warnings, legal information and safety

1.1.1 Warnings and notes

Throughout this document, a number of warnings and notes with helpful user information will be presented. To ensure that these are

noticed, they will be highlighted as follows in order to separate them from the general text.

Warnings

DANGER!

This highlights dangerous situations. If the guidelines are not followed, these situations could result in death, serious

personal injury, and equipment damage or destruction.

CAUTION

This highlights potentially dangerous situations. If the guidelines are not followed, these situations could result in personal

injury or damaged equipment.

Notes

INFO

Notes provide general information, which will be helpful for the reader to bear in mind.

1.1.2 Legal information and disclaimer

DEIF takes no responsibility for installation or operation of the generator set or switchgear. If there is any doubt about how to install

or operate the engine/generator or switchgear controlled by the Multi-line 2 unit, the company responsible for the installation or the

operation of the equipment must be contacted.

NOTE The Multi-line 2 unit is not to be opened by unauthorised personnel. If opened anyway, the warranty will be lost.

Disclaimer

DEIF A/S reserves the right to change any of the contents of this document without prior notice.

The English version of this document always contains the most recent and up-to-date information about the product. DEIF does not

take responsibility for the accuracy of translations, and translations might not be updated at the same time as the English document.

If there is a discrepancy, the English version prevails.

1.1.3 Safety issues

Installing and operating the Multi-line 2 unit may imply work with dangerous currents and voltages. Therefore, the installation should

only be carried out by authorised personnel who understand the risks involved in working with live electrical equipment.

DANGER!

Be aware of the hazardous live currents and voltages. Do not touch any AC measurement inputs as this could lead to injury

or death.

1.1.4 Electrostatic discharge awareness

Sufficient care must be taken to protect the terminal against static discharges during the installation. Once the unit is installed and

connected, these precautions are no longer necessary.

1.1.5 Factory settings

The Multi-line 2 unit is delivered from factory with certain factory settings. These are based on average values and are not

necessarily the correct settings for matching the engine/generator set in question. Precautions must be taken to check the settings

before running the engine/generator set.

1.2 About the Operator’s Manual

1.2.1 General purpose

This Operator’s Manual mainly includes general product information, display readings, push-button and LED functions, alarm

handling descriptions and presentation of the log list.

The general purpose of this document is to give the operator important information to be used in the daily operation of the unit.

DANGER!

Please make sure to read this document before starting to work with the Multi-line 2 unit and the generator set to be

controlled. Failure to do this could result in human injury or damage to the equipment.

1.2.2 Intended users

This Operator’s Manual is mainly intended for the daily user. On the basis of this document, the operator will be able to carry out

simple procedures such as start/stop and control of the generator set.

1.2.3 Contents and overall structure

This document is divided into chapters, and in order to make the structure simple and easy to use, each chapter will begin from the

top of a new page.

2.1 General

This chapter deals with the display unit including the push-button and LED functions.

2.2 Display (DU-2) layouts

INFO

The display dimensions are H × W = 115 × 220 mm (4.528” × 9.055”).

2.2.1 GPC

GPC – standard

2.3 Display push-buttons and LEDs

2.3.1 Push-button functions

The functions for all display push-buttons are described below:

INFO: Moves directly to the alarm list where all unacknowledged and present alarms are displayed. 

JUMP: Enters a specific menu number selection. All settings have a specific number attached to them. The JUMP button

enables the user to select and display any setting without having to navigate through the menus. 

VIEW: Shifts the first line displaying in the setup menus. Push two seconds to switch to master display in case more than

one display is connected (master password is required). 

LOG: Jumps directly to the event and alarm log. 

Moves the cursor left for manoeuvring in the menus. 

Increases the value of the selected set point (in the setup menu). In daily use, this button function is used to switch

between displayed percentage or real value of produced power (kW), reactive power (kvar) and apparent power

(kVA) in View 3 (V3). 

Selects the underscored entry in the fourth line of the display. 

Decreases the value of the selected set point (in the setup menu). In daily use, this button function is used to switch

between displayed percentage or real value of produced power (kW), reactive power (kvar) and apparent power

(kVA) in View 3 (V3). 

Moves the cursor right for manoeuvring in the menus. 

BACK: Jumps one step backwards in the menu (to previous display or to the entry window). 

REMOTE: Activates the remote mode. The push-buttons for START/STOP/GB open/GB close are deactivated. The control is

external. 

LOCAL: Activates the local mode. The push-buttons for START/STOP/GB open/GB close are activated. 

START: Activates the engine start sequence (only active in LOCAL mode). 

STOP: 

Activates the stop sequence (only active in LOCAL mode) including cooling down. When the STOP push-button is

pressed during cooling down, the cooling down time is interrupted immediately and the ext. stop timer starts

running. 

2.3.2 LED functions

Each LED located on the display has its own function. The colour is green, red or yellow (fixed or flashing) dependent on its function.

The functions for all display LEDs are described below:

Alarm: 

LED red flashing indicates that unacknowledged alarms are present.

LED red fixed light indicates that ALL alarms are acknowledged, but one or more alarms are still present.

LED off when no alarm is present.

Run: 

LED yellow when a running feedback failure is active. (G V/Hz OK, but no running feedback).

LED green indicates that the generator is running and the voltage and frequency are OK.

LED off when no running feedback and no voltage and frequency are measured.

G V/Hz (~): LED yellow when the DG is running and V/Hz not OK.

LED green when the DG is running and the V/Hz OK timer has expired.

Open: 

LED red when the breaker is tripped by a protection function.

LED yellow when the breaker is deloaded.

LED green when the breaker is open.

LED off when the breaker is closed.

Closed: 

LED yellow indicates that the synchronisation function is active.

LED green when the breaker is closed.

LED off when the breaker is open.

BB V/Hz (~): 

LED green when BB V/Hz OK.

LED yellow when BB V/Hz not OK.

LED red when BB voltage is zero (dead bus).

Ready: 

LED green when the unit is ready for operation.

LED off when the unit is not ready (for example, the start enable is not activated or an active block, trip or

shutdown alarm is present).

This indication is to tell the user whether the controller (not the engine) is ready or not. 

Regulator ON: 

LED green when the regulator is activated.

LED yellow when regulator is activated but no output has been selected for governor interface.

LED off when the regulator is off.

Remote: LED green when remote mode is active.

LED off when local or SWBD mode is active.

Local: LED green when local mode is active.

LED off when remote or SWBD mode is active.

Power: LED green indicates that the auxiliary supply is switched on.

Self check: LED green indicates that the unit is OK.

2.4 Lamp test and dimmer functions

2.4.1 Lamp test

Place the cursor under SETUP and press the push-button to activate the DU-2 lamp test.

All LEDs on the DU-2 and AOP-1 will turn yellow except the power LED.

2.4.2 Dimmer function

The dimmer function of the display backlight and LEDs is accessed via the JUMP menu 9150.

The illumination intensity of the backlight and the LEDs of each display panel is adjustable by using the JUMP push-button. This

adjustment is done by means of the and push-buttons on the display, and the level of the adjustment will be saved in

the display internal memory by pressing the ENTER push-button

Procedures for setup

INFO

The complete parameter list is presented in the separate Parameter List document of the Multi-line unit in question:

GPC/GPC Gas/GPC Hydro/GPU Hydro document number 4189340580, GPU/GPU Gas/PPU document number

4189340581.

This chapter deals with the procedure to be followed when the parameters of the unit are set up from the initial point of finding the

individual parameter description to the actual setup. By use of various illustrations, the following will guide the user through the

whole procedure of parameter setup step by step.

6.2 Finding the selected parameter

The first step in the parameter setup is to find the correct parameter descriptions. All parameter descriptions in the Parameter List

document are intended for reference purposes. The descriptions are structured according to their parameter titles and the main

parameter group to which they belong.

6.3 Parameter descriptions

In the parameter list, each parameter description is structured according to the same principles. Under the parameter title heading,

the detailed parameter descriptions are illustrated and presented. First, a table indicating the parameter facts related to the

individual parameter title is presented:

INFO

Due to the character of the parameters there may be small differences between the individual tables.

The first column indicates the menu number in the display.

The second column indicates the name of the setting.

The third column describes the function of the parameter.

The fourth column indicates the minimum/maximum set point available for this setting

The fifth column indicates the default set point of the unit from the factory. When it is necessary, additional information will be

supplied below the table in order to make the individual parameter descriptions as informative as possible.

6.4 Setup

At this point of the process, the specific parameter description will have been located. Now, follow the menu structure presented

earlier in this manual to set up the individual parameters. (In this overall example, we have chosen to change the set point of the

parameter 1000 G -P>).

Step 1: Enter the setup menu via SETUP in the fourth display line in the entry window. 

Step 2: Enter the protection menu via PROT in the fourth display line in the setup menu. 

Step 3: Use the and push-buttons to locate the selected parameter.

Step 4: Enter the set point menu via SP in the fourth display line. 

Step 5: Enter password to change the set point. 

Step 6: Use the and push-buttons to increase/decrease the set point setting.

Step 7: Move the “underscore” to save and press SEL; the new set point setting has now been saved.

DOOSANDOOSAN AC SERVO MOTOR/DRIVE VISION DVSC – TM Series

Installation and wiring 

1.1. Designations 

Designations of DOOSAN AC Servo Motor and Drive are as follows.

Please refer to this section for system installation and after service.

1)Encoder Connector 2)Power Connector 3)Name Plate 4)Shaft 5 )Flange 6 )Frame 7 )Encoder

1.2. Environmental conditions 

This product was designed for indoor usage.

Caution : If used in different circumstances and environment other than stated below, damages 

may occur.

Please use under the following conditions.

1.3. Installation method 

1.3.1. Assembling of the servo motor

▷ Warning: While assembling the servo motor, avoid dropping it.

▷ Caution: While mounting the servo motor horizontally, the connector should be assembled

facing downward.

▷ The servo motor can be mounted horizontally or vertically.

▷ To prevent vibrations and extend the life of coupling and bearing, the motor shaft and the loading

shaft should be precisely aligned. Use flexible coupling when connecting directly to the load.

① The outer part of the coupling should be measured at four equidistant points each 90˚ apart,

and the gap between the maximum and the minimum readings should not exceed 0.03㎜.

② The center point of the motor and the loading shaft should be precisely aligned.

▷ Avoid excessive radial and thrust load to the motor shaft and also avoid impact that is more

than 10G when mounting the gear, coupling, pulley and etc. at the same time.

▷ A minus load means continuous operation in the regenerative braking state, when the motor is

rotated by load. The regenerative braking capacity of the servo drive is short term rated

specification equivalent to stop time of the motor. Thus, it should not be used in minus load that

generates continuous regenerative braking.

ex) Servo system for descending objects(without counterweight)

▷ The admissible load inertia into the motor shaft is within 5 times than the inertia of applied servo

motor. If it exceeds this, during deceleration it may cause regenerative malfunction.

The following steps should be taken if the load inertia exceeds more than 5 times the inertia of

the servo motor.

– Reduce the current limit. – Decelerate slowly.(Slow Down)

– Lower the maximum speed in use.

1.3.2. Mounting of the servo drive

▷ Warning: To prevent electric shock, turn off the power while mounting or uninstalling.

▷ While installing the panel, the size of the panel, cooling and wiring should be considered in

order to maintain a difference of temperature below 5℃ between the panel temperature and the

surrounding temperature in accordance with heat value of the equipment and box size.

▷ If a heating element is placed nearby, the surrounding temperature of the servo drive should be

maintained below 55℃ at all cases despite temperature rise by convection and radiation. Use a

fan to ventilate sealed inner air, and proper ventilation should be used for convection of the air.

▷ If a vibrating element is placed nearby, the drive should be mounted on shock absorbing surface.

▷ If the servo drive be exposed to corrosive gas for a long time, may cause damages to connecting

devices such as relay and circuit breaker, thus it should be avoided.

▷ Environmental conditions such as high temperature, high humidity, excessive dust and metal

particles should be avoided.

◆ Mounting method

▷ There should be a space wider than 100㎜ below and above the servo drive.

▷ There should be a space wider than 30㎜ on both sides of the servo drive.

▷ Mount the servo drive vertically. Do not use if it is mounted horizontally.

1.4. Wiring 

▶ For signal lines and encoder lines, use twisted lines or multi-core shielded twisted-pair lines.

The length for command input lines should be maximum 3m, and the encoder line should be

maximum 10m or less.

Wiring must be done in shortest distance and the remaining length should be cut.

▶ The ground circuit should be a thick line. Usage of third-class grounding or above (ground

resistance 100Ω or less) is recommended. Also, make sure to ground at one-point grounding.

▶ The following precautions should be taken to avoid malfunction due to noise.

– The noise filter should be placed as near as possible.

– Mount a surge absorber to the coil of the relay, electromagnetic contacts, solenoids and etc.

– The power line (AC input, motor input line) and the signal line should be placed 30㎝ apart

or more. Do not put them into the same duct or tie them in a bundle.

– If the power source of the servo drive is used in common with an electric welder or electrical

discharge machine, or a high-frequency noise source is present, attach noise filter to the

power or the input circuits.

– Since the core wire of the signal line cable is as thin as only 0.2 ~ 0.3㎟, excessive force to the

line should be avoided to prevent damages.

1.5. Noise treatment 

For wiring and grounding of the servo drive, the effect of switching noise which is generated by the

built-in IPM should be reduced as much as possible. Unexpected effect by outside noise should be

reduced as much as possible.

▶ Grounding method

The servo drive supplies power to the motor according to the switching of the IPM device.

Thus the Cf dv/dt current flows from the power component to the floating capacity of the motor.

To prevent the effect of the switching noise, the motor frame terminal should be connected to

the PE terminal of the servo drive terminal block and the PE terminal of the servo drive should be

directly grounded to standard ground panel.

▶ Noise filter

Noise filter is used in order to prevent noise from the power line. Please refer to the following

conditions while installing.

(a) Separate the input and output wiring and do not tie them together or put them into the same

duct.

(b) Do not put the ground wire into the same duct with the filter output line or other signal lines.

And do not tie them together.

(c) The ground wire should be wired singly to the ground panel.

(d) If the unit contains the filter, connect the filter and the equipment ground to the base of the

unit.

2. Operation 

2.1. Automatic operation 

① If the drive maintains a normal state (takes 5 sec) after the POWER turns on, it outputs the initial

position data and the positioning completion signal(VPF) after it detects the initial position by the 

absolute encoder.

② When the SVON signal is ON, the SVRDY signal turns ON after the inner GATE turns ON.

③ When the START signal is ON, the servo motor will rotate according to the position data.

(Maintain ON state of the START signal for about 100 ~ 200 msec.)

④ When the position movement starts, the position data 0 will be outputted with turning OFF the

VPF(Positioning Completion) signal.

⑤ When the position movement is complete, the VPF signal turns ON after the position input data is 

outputted.

⑥ The host controller must turn OFF the SVON signal only after the VPF signal turns ON.

(Move to the next position after the SVRDY signal turns OFF.)

⑦ After the SVRDY and the SVON signals are turned OFF, the current position data is outputted.

2.2. Jog operation and Usage of BRAKE Signal(Magazine Port move by the jog signal)

① Turn ON the Jog Switch.

② The PLC outputs the SERVO ON signal to the servo drive.

③ When the SERVO ON signal turns ON, the BRAKE release signal is outputted after the time value in

the parameter 14.

④ After the time value in the parameter 13, the SERVO READY signal is outputted.

⑤ After the SERVO READY signal is outputted, the PLC must input the JOG+ signal to the servo drive.

⑥ When the position movement is complete, the positioning completion signal(VPF) turns ON after 

the position data that is increased by more than one from the previous position is outputted.

⑦ When the positioning completion signal(VPF) turns ON, the PLC turns OFF the SERVO ON signal.

Then, the servo drive turns ON the BRAKE signal and turns OFF the SERVO READY signal after the 

time value in the parameter 15.

The servo drive outputs the current position data after the SERVO ON signal turns OFF. 

※ In the jog mode, the motor cannot rotate over 4,000 revolutions continuously. If there is an input 

over 4,000 revolutions, the motor will stop and it will not rotate. In this case, turn off the JOG+ or 

JOG- signal and then turn it on again. 

2.3. Parameter and Machine Origin setting method after replacement of the servo drive 

At the time of the first machine assembly, it should be set the absolute encoder zero-point to the 

Machine Origin. The setting method is as follows.

(These steps should be done when the external SERVO ON signal is OFF.)

2.3.1. Parameter and Machine Origin setting method of Turret/Magazine

1) Turn on the drive power.

2) Clamp the Turret.

3) Set value of the parameter 45, servo drive function selection parameter, as 0.

Please change the parameter 45 as 1 only when it needs to set as ATC because default value is 0, 

Turret/Magazine. Turn the drive power OFF and then turn ON again after setting the value.

4) Initialize the parameter value. 

Press the MODE key to change the display to diagnosis mode, and then press the DOWN key

three times to change the display to parameter initialize mode.

Even if an alarm occurs, it’s possible to change the display as state display mode, diagnosis display

mode, parameter setting mode, origin setting mode and alarm history display mode since version

DVSC-TM-14D-02. Also, even at alarm state, parameter or offset value setting is possible since that

version.

▶ Method of releasing the alarm state

 : Once the cause of the alarm is resolved, it is possible to operate the drive by turning the power 

OFF and ON again.

▶ Detection time of over load

 : The operation time of the over load alarm detect circuit is as listed below.

300% ~ ; 5.5sec

275% ~ ; 6.5sec

225% ~ ; 8sec

200% ~ ; 10sec

170% ~ ; 14sec

150% ~ ; 17.5sec

140% ~ ; 20sec

130% ~ ; 25sec

120% ~ ; 30sec

3.6.3. Detailed explanation of user parameter 

□0 Motor output capacity 

As selection parameter of the applied motor capacity, it’s possible to select 0.8, 1.5, 1.7, 2.0, 2.3,

3.0 and 4.0kW.

0 : 1.5kW 8 : 0.8kW 17 : 1.7kW 20 : 2.0kW 23 : 2.3kW 30 : 3.0kW 40 : 4.0kW

※ Use 14A drive for motors under 3.0kW and 28A drive for motors more than 3.0kW. If not applied

properly, it may cause malfunction of the motor. 

□1 Motor rotation direction 

This parameter sets the rotation direction of the motor. Please select according to the structure

of the equipment.

0 : Selects when the rotation direction of the motor and the equipment is the same.

1 : Selects when the rotation direction of the motor and the equipment is different.

□2 Option function 

This parameter is used when the NC uses the drive itself JOG mode or sets the origin position.

For use this function, OVR0 and OVR1 contact points must be connected between the drive and

the NC, and the NC program should support this feature.

0 : Option disable 1 : Option enable

OVR0 OVR1 function

OFF ON The operation mode will be changed as the drive itself JOG, and the motor

rotates by JOG+, JOG- signals.

ON ON Machine origin setting will be executed.

□3 Direction fixing, JOG function selection 

This parameter defines the function of JOG+(no.20) and JOG-(no.23) signals of CN1 connector.

0 : Defined as direction fixing signal.

JOG+ JOG- Rotation direction

OFF OFF Detects the shortest distance and rotates.

OFF ON The motor always rotates in clockwise.

ON OFF The motor always rotates in counterclockwise.

ON ON The motor always rotates in counterclockwise.

* The above statement is applicable if the parameter 1 is set as 0. If the parameter is set as

1, the motor rotates the opposite way.

1 : Magazine JOG operation signal (This is used when it need to move the tool post by the

JOG signal at the Magazine.)

JOG+ JOG- Contents

OFF OFF Only operates by position data input.

OFF ON Step JOG operates towards the direction the POST number decreases.

ON OFF Step JOG operates towards the direction the POST number increases.

ON ON Cannot be defined.

* The above statement is applicable if the parameter 1 is set as 0. If the parameter is set as

1, the motor rotates the opposite way. And, the position data input will be ignored if JOG+

and JOG- signals are ON.

※ For more detailed explanation, refer to ‘JOG operation’ section.

□4 Encoder pulse per 1 rotation

This parameter displays 1/4 value of encoder pulse count per rotation.

□5 Maximum POST number 

This parameter sets the maximum POST number. If parameter 46 is set as 3, it’s possible to set as

maximum 255. At the Teaching mode, it’s available up to 99. The position data input exceeding the

setting number will be ignored.

Setting range : 2 ~ 127 or 255 Teaching function : 2 ~ 99 

□6 Gear ratio of motor side 

This parameter sets the motor rotation counts until the machine moves up to the POST set in the

parameter 7.

Setting range : 1 ~ 9999 

□7 Gear ratio of machine side 

This parameter sets the POST number variation until the motor rotates up to the setting data in

the parameter 6. 

Setting range : 1 ~ 9999

Example)

1. At the TC model, the turret has 10 POST(10 angle) and makes 1 revolutions until the motor 

makes 30.75 revolutions. In case the reduction gear ratio is determined like this, the parameter 

will be set as follow, because 1 revolution of turret corresponds with 10 POST move.

Maximum POST number : 10

Gear ratio of motor side : 3075

Gear ratio of machine side : 1000

2. At the MC model, the Magazine has 41 POST(41 POT) and moves 9 POSTs until the motor 

makes 101 revolutions. In case the reduction gear ratio is determined like this, the parameter will 

be set as follows.

Maximum POST number : 41

Gear ratio of motor side : 101

Gear ratio of machine side : 9

□8 POST number of origin 

When setting the origin of machine, input the POST number that will be set as origin into this

parameter. If parameter 46 is set as 3, it’s possible to set as maximum 255.

Please refer to ‘Machine origin setting’ for more detailed explanation.

Setting range : 1 ~ 127 or 255 

□9 24 angle alternate angle function selection 

This parameter sets the 24 angle alternate angle function of the Turret.

0 : Alternate angle function disable

1 : Alternate angle function enable

10 Position loop proportional gain 

The proportional gain of the position loop is the parameter which determines the response of

position control loop. If the value increases, the mechanical response gets better. However,

mechanical impact on the machine may occur when the motor starts or stops. If the value

decreases, the mechanical response will get worse and position error increases by remaining pulse.

This also relates with the speed loop gain. 

Setting range : 0 ~ 9999 

□11 Speed loop proportional gain 

The proportional gain of speed loop is the parameter which determines the response of the speed

control loop. As external characteristics, it determines the degree of rigidity. If the value of the

proportional gain increases, the rigidity becomes better. Thus the larger the setting value is the

better, but too large setting may cause oscillations and hunting. The value should be set as large

as possible under a stable condition.

Setting range : 0 ~ 9999 

□12 Speed loop integral gain 

The integral gain of the speed loop is a compensatory factor which reduces normal state error and

increases rigidity. If the value of integral gain is increased, the rigidity will get better. But too large

setting may cause oscillations and the system may become unstable.

Setting range : 0 ~ 9999 

□13 SERVO READY ON delay time 

This parameter sets the Servo Ready signal delay time to change as ON. 

Setting range : 0 ~ 1000 [x 10msec] 

□14 Brake OFF control delay time 

In case the motor has an inner brake, this parameter sets brake release delay time.

Setting range : 0 ~ 1000 [x 10msec]

□15 Brake ON delay time 

In case the motor has an inner brake, this parameter sets the time it takes for braking. 

Set the value higher than actual time it takes for braking. 

Setting range : 0 ~ 1000 [x 10msec] 

□16 ~ □17 Reserved 

□18 Positioning complete range 

At position control, this parameter sets the positioning completion range. If the deviation between

the targeted position and the current position is within the setting range, the VPF terminal (no. 16 

of the CN1 connector) will be turned ON. The numerical value unit means the encoder pulse and it

is 8192 pulse per rotation of the motor.

19 Remaining pulse allowable range 

In position control, in each position control loop the difference between position command 

and position feedback is accumulated. If this difference value exceeds the setting value, the

position deviation excess alarm will be occurred. The numerical value unit means the encoder

pulse and presently it is 8192 pulse per 1 rotation.

Setting range : 1 ~ 6000 [x 100pulse] 

□20 Deceleration time after stop signal 

This parameter sets the deceleration time from rotation state until the motor stops. When the

setting value is 0 as default, the motor under 3kW capacity will be stopped as 100 msec

deceleration time. And the motor more than 3kW will be stopped as 340 msec. 

Setting range : 0 ~ 5000 [msec]

□21 S-shaped acceleration/deceleration time constant 

This parameter sets the time constant to reduce the impact at the time of acceleration or

deceleration.

Total acceleration time : acceleration time(parameter 29) + S-shaped acceleration/deceleration

time constant

Total deceleration time : deceleration time(parameter 30) + S-shaped acceleration/deceleration

time constant

Setting range : 0 ~ 400 [msec]

□22 Positive torque limit 1 

This parameter limits the torque output of the positive (+) polarity in areas except of positioning

complete range. If the value is set at 0%, positive torque will not occur. If the value is set too low,

hunting may occur when the motor starts or stops.

Setting range : 0 ~ 300 [%] 

□23 Negative torque limit 1 

This parameter limits the torque output of the negative (-) polarity in areas except of positioning 

complete range. If the value is set at 0%, negative torque will not occur. If the value is set too low,

hunting may occur when the motor starts or stops.

Setting range : 0 ~ 300 [%]

□24 Positive torque limit 2 

This parameter limits the torque output of the positive (+) polarity in areas within positioning

complete range. In purpose of applying continuous load with ON state of SVON signal after

positioning completion, the overstrain on the equipment or the motor can be avoided by setting a

low value.

25 Negative torque limit 2 

This parameter limits the torque output of the negative (-) polarity in areas within positioning

complete range. In purpose of applying continuous load with ON state of SVON signal after

positioning completion, the overstrain on the equipment or the motor can be avoided by setting a

low value.

Setting range : 0 ~ 300 [%] 

□26 Speed limit 

This parameter limits the maximum rotation speed. Even when overshooting and such cases occur

while accelerating, the rotation speed will be limited within the setting value. Set the value at least 

50rpm more than the setting value of parameter 28(rotation speed).

Setting range : 0 ~ 3000 [rpm] 

□27 Jog speed at origin setting 

This parameter sets the motor speed of the internal jog operation.(At Magazine, the speed of the

jog operation will be applied as the setting speed of parameter 28.) 

Setting range : 1 ~ 3000 [rpm]

□28 Operation speed

This parameter sets the motor rotation speed for automatic operation or jog operation speed of the

Magazine.

Setting range : 10 ~ 3000 [rpm]

□29 Acceleration time

This parameter sets the time that takes to get to the setting speed of parameter 28 from 0 speed.

If the value is set too low, speed overshooting may occur when accelerating.

Setting range : 0 ~ 9999 [msec]

□30 Deceleration time

This parameter sets the time that takes to get to 0 speed from the setting speed of parameter 28.

If the value is set too low, positioning completion time may be delayed due to hunting when the

motor stops.

Setting range : 0 ~ 9999 [msec]

□31 Teaching function 

To use the Teaching function, set this parameter as 1. It’s possible to set the movement distance

unequally unlike existing gear ratio setting method.

3000 : gear ratio setting method

1 : Teaching function enabled

□32 High torque IPM motor selection 

If the high torque IPM motor is applied, set the value of this parameter as 1. 

1500 : Normal SPM motor 

1 : High torque IPM motor

□33 Initial state display 

This parameter sets the initial display mode just after the power is ON. 

Set value Initial display contents Set value Initial display contents

00 Motor rotation speed 06 Accumulated value of remaining pulse

01 Current POST number 07 Reserved

02 Absolute encoder rotation count 08 Reserved

03 Absolute encoder-one rotation 09 Alarm display

04 Effective load factor 10 Motor rotation speed

05 Maximum load factor

□34 ~ □44 Automatic setting parameters or maker parameters for management 

These parameters are maker parameters for management or will be set automatically while setting

the machine origin-point.

Please do not set according to the user’s purpose. It may cause malfunction of the servo drive.

□45 Servo drive function selection

Please set this parameter first before parameter initialization or parameter setting, because this

parameter sets the servo drive function as Turret/Magazine or ATC.

Set value Function

0 Turret/Magazine

1 ATC

※ For normal operation of the servo drive, the drive power must be turned OFF and ON again,

after setting parameter 45.

□46 Option function 

This parameter sets up OVERRIDE, selective application of offset and 255 TOOL function. 

For use the OVERRIDE function OVR0, OVR1, OVR2 and OVR3 contact points must be connected

between the drive and the NC, and the NC program should support this feature.

For use the function of selective application of offset value, OVR0 and AUX_OUT0 contact points

must be connected between the drive and the NC, and the NC program should support this feature.

For use of 255 TOOL function, OVR0 and AUX_OUT0 contact points must be connected between

the drive and the NC, and the NC program should support this feature.

0 : Option function disabled

1 : OVERRIDE function enabled

2 : Selective application of offset value

3 : 255 TOOL function enabled

51 Tool number decrease direction Backlash

This parameter sets the Backlash compensation value for tool number decrease direction. If this

parameter is set as 0, Backlash compensation value is not applied. The numerical value unit means

the encoder pulse and presently it is 8192 pulse per 1 rotation.

Please refer to ‘Example of tool number increase direction Backlash compensation value setting’

for more detailed setting method.

Setting range : 0 ~ 9999[PULSE]

□52 Speed Command Filter

This parameter sets Speed Command Filter value. If this parameter is set as 0, Speed Command

Filter value is not applied.

Setting range : 0 ~ 9999[Hz]

□53 Speed Feedback Filter

This parameter sets Speed Feedback Filter value. If this parameter is set as 0, Speed Feedback

Filter value is not applied.

Setting range : 0 ~ 9999[Hz]

□54 Current Command Filter

This parameter sets Current Command Filter value. If this parameter is set as 0, Current Command

Filter value is not applied.

Setting range : 0 ~ 9999[Hz]

□55 Current Feedback Filter

This parameter sets Current Feedback Filter value. If this parameter is set as 0, Current Feedback

Filter value is not applied.

Setting range : 0 ~ 9999[Hz]

□56 Position Signal Output Function

Set this parameter as 1 to use position signal output function. Use this function when it needs to

output the position signal using the existing tool number output contact point at the specific

position(angle) that is set by user. And this function is available only if the NC is ready for this

feature.

0 : disabled 

1 : Position signal output function enabled

EMERSONM-series Virtual I/O Module 2

 Non-intrusive DeltaV™ I/O simulation

 Powerful integration solution

 Easy to use

 Modular, flexible packaging

Introduction

The DeltaV M-series Virtual I/O Module 2 (VIM2) 

provides nonintrusive simulation of the DeltaV Mseries I/O Cards and digital bus field devices for 

process simulation when used with MYNAH 

Technologies’ MiMiC Simulation Software. DeltaV 

Control strategies and system configurations can be 

fully tested with this powerful simulation interface.

The VIM2 also provides an interface to Ethernet I/O 

networks and devices that use the Modbus TCP/IP

or Ethernet/IP protocol drivers. DeltaV M-series 

controllers can read and write signals from plant 

floor devices connected to Ethernet I/O networks 

such as PLC’s, Motor Control Centers, and Weigh

Scales.

Benefits

Non-Intrusive DeltaV I/O simulation. Use the VIM2

in conjunction with the MYNAH Technologies’ MiMiC 

Simulation Software to simulate your DeltaV M-Series

I/O and digital bus field devices. 

 Supports DeltaV I/O modules. Provides completely 

non-intrusive simulation of all DeltaV M-series I/O 

Modules. Supports autosensing of I/O and accurate 

testing of controller loading. DeltaV configuration can 

be fully tested without modifying the control 

strategies.

 Digital bus support. Provides simulation of all 

DeltaV Digital Busses and Foundation Fieldbus 

function blocks. Supports Foundation Fieldbus control 

in the field configuration testing.

 Powerful simulation solution. Provides full 

simulation of up to 64 DeltaV I/O modules per 

controller. Simulation execution is fast and efficient; 

the DeltaV controller thinks it’s talking with real IO.

Powerful integration solution. Use the VIM2 in 

conjunction with the MYNAH Ethernet I/O drivers to 

integrate your DeltaV system with your Ethernet I/O device

networks.

 Large device capacity. Each VIM emulates four

DeltaV Serial Cards and support up to 128 Serial 

Card Datasets of information from 32 network devices 

in simplex installations and 16 devices in redundant 

installations. Communication over the Ethernet I/O 

device network is fast and efficient.

 Flexible networking. User configurable IP 

addressing allows the VIM2 to be used in almost any 

plant environment regardless of networking scheme. 

The VIM2 and the Ethernet I/O devices must be on 

the same IP subnet to communicate.

 1:1 Redundancy. Redundancy can be added to any 

Ethernet I/O system by adding a second VIM2 and 

configuring the two cards as a redundant pair. The 

VIM2 appears as four redundant DeltaV Serial Card 

pairs. Automatic switchover of primary to standby 

cards is handled like the DeltaV Serial Card. The 

operator is given clear notification of a switchover at 

the operator display. Manual switchover can be 

controlled in DeltaV Diagnostics.

Easy to use. The VIM2 is easy to use and well 

integrated into the DeltaV system. Specific ease of use 

features include:

 Automatic updates. Simulation I/O driver updates for 

the VIM2 are included with the MiMiC software 

releases. Updates are quick and easy over the 

simulation network.

 Seamless Ethernet I/O integration. When used with 

the MYNAH Ethernet I/O drivers, the VIM2 is seen by 

the DeltaV M-series controller as four DeltaV Serial 

Cards. Commissioned VIM2s are auto-sensed by the 

DeltaV controller as DeltaV Serial Cards.

 Configured in DeltaV Explorer. Serial dataset 

configuration used for Ethernet I/O integration is done 

in the DeltaV Explorer in the same manner as a 

DeltaV Serial Card. Ethernet I/O signals can be used 

in DeltaV Control Modules, displayed on DeltaV 

Operate graphics and stored in the DeltaV 

Continuous Historian.

 Intuitive setup. The VIMNet Explorer application 

provides plug-n-play capability making setup of the 

VIM2 easy and intuitive. Graphical, drag-n-drop, 

functionality makes setting up multiple VIM2s almost 

effortless. VIMNet Explorer is integrated with DeltaV 

Explorer to make setup of the VIM2 easy and intuitive.

Modular, flexible packaging. The VIM2 mounts in the 

same manner as the DeltaV controller. It mounts in the 

controller slot of a DeltaV 2-wide horizontal or 4-wide 

vertical carrier and uses a standard DeltaV Power Supply. 

The advanced design of the VIM2 will provide years of 

uninterrupted use

Product Description

The VIM2 may be used for either DeltaV I/O simulation or 

Ethernet I/O device integration. The VIM2 mounts on a 2-

wide horizontal or 4-wide vertical carrier on the left-handside of the DeltaV controller. A dedicated DeltaV power 

supply is required. 

IO Simulation When used with MYNAH’s MiMiC 

Simulation Software, the VIM2 supports I/O simulation all 

DeltaV M-series I/O cards including classic IO, Foundation 

Fieldbus, ProfibusDP, DeviceNet, ASi-bus and Serial.

MiMiC Simulation Software provide dynamic simulation for 

DeltaV system software acceptance testing and operator 

training. The MiMiC software works by simulating the 

DeltaV I/O. It also simulates field devices using 

Foundation Fieldbus, ProfibusDP, DeviceNet and AS-i 

buses. In order for MiMiC to do this, the real I/O cards are 

disconnected from the control system. The MiMiC driver 

writes to the I/O subsystem of the DeltaV controller. 

Process models in MiMiC simulate realistic process 

reactions to control system output signals.

Each process controller being simulated uses one MiMiC

Dataset. A MiMiC server can have up to 32 datasets or 

ports. Each dataset can support up to 4000 MiMiC

simulation tags.

The I/O simulation driver is provided with the VIM2

hardware, pre-loaded in the VIM2. The MiMiC Simulation 

Software must be purchased separately from MYNAH

Technologies. Technical support for the MiMiC Simulation 

Software and I/O simulation driver is provided by MYNAH 

Technologies. 

Ethernet I/O Integration When used with the MYNAH

Ethernet I/O drivers, the VIM2 can communicate with 

high-speed Ethernet networks over Modbus TCP or 

Ethernet/IP. When the VIM2 is configured with the 

appropriate Ethernet I/O driver, the DeltaV Controller autosenses a commissioned VIM2 as four DeltaV Serial Cards.

 In simplex installations these cards will be sensed in 

slots 57-60 or 61-64.

 In redundant installations the redundant pairs will be 

sensed in slots 57 to 64.

Configuration of the I/O signals from the commissioned 

VIM2 is done in the DeltaV Explorer in the same manner 

as a DeltaV Serial Card.

VIMNet Explorer. The VIMNet Explorer utility allows the 

user to commission the VIM2, setup primary and 

redundant VIM2s, and the Ethernet I/O network. The user 

is able to specify the IP address, Subnet Mask, and 

Gateway of each VIM2 and set the node address and 

names of each Ethernet I/O device that is used by the 

VIM2. The VIMNet Explorer is also used to flash upgrade 

a VIM from one version of a driver to another or to replace 

an existing driver type with another. Only one Ethernet I/O 

driver may be loaded in the VIM2 at one time.

The VIMNet Explorer application must run on a 

workstation that has network connectivity to the Ethernet

I/O network. This may be a DeltaV workstation with the 3rd

network interface card (NIC) connected to the Ethernet I/O 

network or may be a non-DeltaV workstation. The VIMNet 

Explorer runs on the MS Windows XP or Windows 7 

operating system and has an intuitive, graphical user 

interface. Connection to the VIM2 is done through the RJ45 Ethernet Connection on the bottom of the VIM2.

The VIMNet Explorer software installation file for the VIM2 

is available on a DeltaV v12 and later workstation and on 

the DeltaV v12 and later software installation DVD. The 

VIMNet Explorer software installation file is also provided 

with the purchase of a MYNAH Ethernet I/O driver.

VIM Redundancy. Two VIM2s can be setup as a 

redundant pair for installations that require backup

Ethernet I/O networks. Each VIM2 will be installed on its 

own 2-wide carrier, with its own power supply to the left of 

the DeltaV Controller.

The active and standby VIM2s monitor each other with a 

continuous status command using the redundancy link 

cable supplied with each redundant pair. The active VIM2

communicates over the network to the Industrial Ethernet 

device and the standby sends an intermittent signal to the 

device to maintain communication integrity.

The Ethernet I/O drivers are not provided with the VIM2

hardware; they must be purchased separately from 

MYNAH Technologies. Technical support for the Ethernet

I/O drivers is provided by MYNAH Technologies. 

Supported Industrial Ethernet 

Protocols

Modbus TCP/IP The VIM2 with the Modbus TCP/IP 

Master Driver supports the following Modbus 

communications protocol function codes to read and write 

values to and from a Modbus slave device, as specified by 

the Modbus Application Protocol Specification from 

Modbus-IDA.org.

The VIM2 Modbus TCP/IP Driver supports the following 

Modbus function codes:

 Code 1 – Read Coil Status 

 Code 2 – Read Input Status 

 Code 3 – Read Holding Registers 

 Code 4 – Read Input Registers 

 Code 5 – Force Single Coil 

 Code 6 – Preset Single Register 

 Code 8 – Diagnostic Loop Back Test 

 Code 15 – Force Multiple Coils 

 Code 16 – Preset Multiple Registers 

The VIM2 can function as both a Modbus TCP/IP master 

and slave simultaneously. Master or slave mode is set at 

the virtual port level. In master-only mode, this driver can 

communicate with a maximum of 32 slave devices. 

Systems that use both master and slave mode can 

communicate with a maximum of 16 slaves and 16 

masters at the same time. The master and slave capability 

is available in simplex implementations only. In redundant 

applications, only master mode is supported.

Ethernet/IP The VIM2 with the Ethernet/IP Scanner Driver 

provides the following compatible functions using the 

Control and Information Protocol (CIP) as defined in the 

Ethernet/IP Specification from Open DeviceNet Vendor 

Association and ControlNet International.

The VIM2 Ethernet/IP Scanner Class Driver provides:

 Ethernet/IP Scanner Class (originator) 

functionality 

 UCMM (unconnected) messaging client and 

server Class 3 (connected) messaging client and 

server, including encapsulated DF1 message 

Class 1 (I/O) connection client and server 

DeltaV Licensing Guidelines

DeltaV Software Licensing Requirements (DST count) will 

be impacted by DeltaV Module configuration use of VIM2

registers in the same way as Serial Card registers. The 

following guidelines can be applied:

 A DeltaV Serial Card data set can contain up to 100 

values (a value can be any Boolean, 8-bit or 16-bit 

number), and up to16 data sets are supported by 

each of the 2 ports on the serial card. If the data set 

registers are configured as floating point or 32-bit 

values, then the maximum value is 50. However, the 

serial device, in general, limits the total capacity of the 

interface. 

 Each data set counts as one DST as long as a single 

module references all values in the data set. If 

multiple modules reference values in a data set, then 

the DST count for the data set is equal to the number 

of modules referencing the data set. 

 Values used in modules containing control function 

blocks will be counted as Control DSTs. 

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