Siemens UL1066 Power Supply, Maximum CubicleBUS Configuration, CubicleBUS Installation Guidelines

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Communication-capable Circuit Breakers

WL Circuit Breaker

Power Supply

The CubicleBUS must be supplied with a UL Listed 24V DC class 2 power supply across its entire length. Reference pages 2/33 and 2/34 of this manual for details pertaining to the requirements of this power supply. Terminals X8.3 and X8.4 or the 4-pin plug for the external CubicleBUS modules (X3) are available for this purpose. As previously mentioned, the 24V is conducted via the CubicleBUS cables.

The power required for the 24V DC supply depends on the CubicleBUS configuration. The technical data for the external CubicleBUS modules is provided later in this chapter.

The control system (of the

CubicleBUS) must be connected to a fused power supply (class 2), since the system voltage drops to an unspecified value in the event of a short-circuit.

Attention: Connecting and disconnecting CubicleBUS modules when energized is not recommended and can cause erroneous inputs or outputs to be generated.

Maximum CubicleBUS Configuration

The CubicleBUS can comprise up to 13 modules:

•Electronic Trip Unit (ETU)

•Metering Function Plus

•Breaker Status Sensor (BSS)

•COM16

•BDA or BDA Plus

•ZSI module

•Digital output module with switch position to the left (1st module)

•Digital output module with switch position to the right (2nd module)

•Digital configurable output module

•Digital input module with switch position to the left

•Digital input module with switch position to the right

•Analog output module with switch position to the left (1st module)

•Analog output module with switch position to the right (2nd module)

In practice, however, not all of the modules may be required.

CubicleBUS Installation Guidelines

•Total length of the CubicleBUS cables: max. 10 m

•Prefabricated cables must be used to connect the CubicleBUS modules.

•The last module on the line must be terminated with a 120 Ω terminating resistor (supplied with each module).

•The cables must always be connected from module to module. Star connection is not permitted.

•The power supply must be provided by a UL Listed 24V DC class 2 power supply with standard-tolerance and the properties described on

page 2/33 and 2/34.

Pin Configuration of the X3 on the CubicleBUS Module

X3.1 24V DC common

X3.2 CubicleBUS

Communications line -

X3.3 CubicleBUS

Communications line +

X3.4

24V DC +

Table 2-10At X3, the CubicleBUS can be supplied with 24V DC.

Figure

2-9

2/21

If external CubicleBUS modules are to be connected to the WL Circuit Breaker and a COM16 module is not available, the first connection must be made with four wires. The CubicleBUS can then be connected with the supplied CubicleBUS lines with RJ45 plugs, and the power supply connected to X3, as shown.

WL MODBUS Communication and Electronic Accessories • January 2005

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Contents Powerful ideas Global network of innovationCommunication-capable Circuit Breakers Communication-capable Circuit Breaker Safety Guidelines Qualified PersonnelCorrect Usage Registered TrademarksIntroduction Overview Introduction Content of the ManualGeneral System Solutions WL Circuit Breakers-Modular IntelligentCost Saving Easy PlanningCommunication Bus Systems ModbusCommunication Structure of the WL Circuit Breakers Ethernet WL Circuit Breaker Introduction and Overview Brief Description of the WL Circuit BreakerCubicleBUS Communications Capability of the Electronic Trip Units ETUsFunctional overview of the trip unit system ETU725 ETU727 ETU745Setting range of the Ig Basic Functions ETU725 ETU727 ETU745Basic Functions ETU748 ETU755 ETU776 Communication Data Availability on the CubicleBUS Data point group ETU745Metering Data points with the same source 755 orModbus Module COM16 Pin ConfigurationModbus COM16 Module and the BSS Modbus Write Protection DPWriteEnable Modbus Installation GuidelineCubicleBUS + Data Exchange via the COM16 ModuleMeaning Position and text on the cable CubicleBUS Rear Microswitch S46 Middle S47 Front S48 MeaningCubicle BUS LED Meaning PositionBreaker Status Sensor BSS Metering Function Plus GeneralWaveform buffer Metering Function PlusHarmonic analysis Parameters for the settings of the metering function Voltage TransformersVT Accuracy Maximum distance from voltage transformerMetering range 81THDC Extended Protective Function Important functions/parameters for communicationsLoad Management Normal Positive Power Flow Direction SetpointsMinimum for Communicated Currents Event and Trip LogExternal CubicleBUS Modules Rotary SwitchesInstallation CubicleBUS Installation Guidelines Power SupplyMaximum CubicleBUS Configuration LED Display MeaningCubicleBUS LED Meaning All other LEDs MeaningTesting the Digital Input and Output Modules DeviceTechnical data for the digital input module Digital Input ModuleFunctional description Functional description for changing parameter setsDigital Output Module with Rotary Switch Selector switch position to the leftSelector switch position to the right Delay timeConfigurable Digital Output Module Technical data for the digital configurable output module Trigger event Waveform buffer BPower value ranges W/VA Analog Output ModuleTest function Switch position cosTechnical data for the analog output module Example as illustrated in Graphic ZSI ModuleOperating principle Technical data for the ZSI module It trips after tZSI = 50 ms. Time saved = 250 msCommunication-capable Circuit Breakers General information Output current Inrush current Type Order No Communication-capable Circuit Breakers Modbus Profile for WL Circuit Breaker Supervisory Systems Function 02 Read Discrete Inputs COM16 Supported Function CodesFunction 01 Read Coils Reply Message from slave Function 03 Read Holding RegistersRequest Message to slave Function 07 Read Exception Status Function 04 Read Input RegistersFunction 05 Write Single Coil Function 12 Get Communication Event Log Function 08 DiagnosticsFunction 11 Get Communication Event Counter What the Event Bytes Contain COM16 slave Send EventFunction 15 Write Multiple Coils Function 16 Write Multiple Registers Exception Responses Exception Codes Code Name MeaningBasic Data Type 2 Registers and Default Data Points Default Register ListsBasic Data Type 1 Registers and Default Data Points Basic Data Type 3 Registers and Default Data Points Complete List of Datasets Data bytesSample Dataset Min Max BitsBit Mapping for Breaker Status Register Byte Register DescriptionWL Configurator Brief Description Communication-capable Circuit Breakers Breaker Data Adapter BDA Breaker Data Adapter Plus BDA Plus Benefits of the BDA Brief Description and System RequirementsDescription BDA in Offline Mode or BDA Plus BDA as a Hand-Held Device or BDA PlusBDA Plus as an Ethernet Interface Intranet and InternetGetting started with the BDA Plus What is Java?Circuit breaker requirements Permanent Connection to WL Circuit BreakersTemporary Operation Meaning of the LEDs on the BDATechnical data for the BDA and BDA Plus 4This table provides technical data for the BDA and BDA PlusConnection to the BDA via the Serial Communication System Usually have to be changed. They are shown as a referenceBreaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Breaker Data Adapter BDA Connection to the BDA Plus via the Ethernet Interface Definition of Key TermsIP Addresses Subnet MaskExample BDA IP AddressOperating Instructions and Troubleshooting Offline/Online ModeLanguages and Help Displaying DataPassword Protection SentronOperation Example PrintingTroubleshooting List Fault Description Solution Siemens Energy & Automation, Inc Siemens Energy & Automation, Inc. All Rights Reserved

UL 489, UL1066 specifications

Siemens UL1066 and UL489 are essential components in the landscape of electrical equipment, specifically in circuit protection and control. These standards ensure reliability, safety, and efficiency in various applications, including industrial, commercial, and residential settings.

The Siemens UL1066 is primarily focused on disconnect switches. These devices are designed to isolate electrical circuits, ensuring the safety of both personnel and equipment during maintenance or in case of faults. One of the key features of UL1066 disconnect switches is their high breaking capacity, enabling them to handle significant fault currents without failure. This characteristic is crucial in protecting downstream equipment from damage caused by short circuits. The UL1066 switches are also known for their robust construction, often featuring a metal enclosure that enhances durability and environmental resistance. Additionally, these switches can be operated manually or remotely, offering flexibility in operation and control.

On the other hand, Siemens UL489 circuit breakers provide comprehensive protection against overcurrents and short circuits. These devices not only interrupt fault currents but also protect connected devices from damage due to overload situations. Key features of UL489 circuit breakers include adjustable trip settings, which allow users to customize the response to overcurrent conditions based on specific application requirements. This adaptability makes them suitable for a wide range of environments, from large industrial plants to smaller commercial buildings.

Both UL1066 and UL489 products are constructed with advanced technologies, such as thermal-magnetic or electronic trip mechanisms in UL489 devices, ensuring precise and timely interruption of fault currents. These technologies promote energy efficiency and stability within electrical systems. In addition, many of these devices are equipped with indication features, providing clear visual status cues for quick assessment in emergency situations.

In terms of characteristics, both UL1066 and UL489 devices adhere to rigorous testing and certification processes to meet UL standards. This compliance assures users of their performance and reliability. Furthermore, the devices are designed to accommodate a wide range of operating temperatures and environmental conditions, making them versatile choices for various applications.

In summary, Siemens UL1066 and UL489 devices are paramount in ensuring safety and efficiency in electrical circuits. Their advanced features and robust construction make them indispensable in protecting both personnel and equipment in an array of industrial and commercial applications.
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