PowerShield Controller. BBus A daisy chain communication bus used between the PowerShield Controller and PowerShield Hubs or PowerShield mSensors. ___________________________________________________________________________________________________________ Part Number 6300-095D...
2 Introduction This manual is intended for use with the PowerShield 8 battery monitoring system that uses the PowerShield Controller data logger, PowerShield mSensor battery sensors and the PowerShield Hub. This manual describes the installation of the system hardware. About this manual...
3 Installation Quick Guide ___________________________________________________________________________________________________________ Part Number 6300-095D Page 6 of 43...
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4 The PowerShield 8 Battery Monitoring System The PowerShield 8 battery monitoring system is a permanent battery monitoring system that can monitor one or more strings of blocks. Parameters measured include: DC & AC voltage of each block • Ohmic value of each block •...
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___________________________________________________________________________________________________________ Part Number 6300-095D Page 9 of 43...
4.2 Controller The PowerShield Controller is supplied in a 1U high 19" rack case. The PowerShield Controller can be mounted in a 19" rack, on a wall, shelf, or similar using the mounting brackets provided. Ensure there is safe access to the rear connector panel and cable tray.
25m (82ft). Contact PowerShield if longer distances are required. Each PowerShield Controller hub port is capable of supporting 1 Hub and up to 32 mSensors. For strings with a large number of blocks, additional mSensors will need to be used. These can be connected to spare Controller hub ports using an adaptor available from PowerShield that converts the Controller hub port CAT5 cable to 4-core BBus interconnect cable.
The PowerShield Controller communicates with the Hubs via the Controller hub ports, connected using CAT5 cable. It also supplies 24VDC power to the Hubs over this cable. Up to eight Hubs can be connected to a single PowerShield Controller, 1 per Controller hub port. This allows up to eight strings to be monitored with one PowerShield Controller.
ID starting at ID 201. The PowerShield Controller communicates with the mSensors via the Controller hub ports using the BBus daisy chain communication bus. The mSensors should be connected to the PowerShield Hub using 4-core BBus interconnect cable via the 4-pin Modular Jack connectors on each device.
(not supplied), wall, shelf, or similar using the mounting brackets provided. Ensure there is safe access to the rear connector panel and cable tray. When the PowerShield Controller is powered up, it will emit an audible alert and the green Power LED will light. Other LEDs on the front panel may also light.
Do not bend the tags as this can damage the connector crimp and/or result in poor or loose connections with the mSensor power leads. Poor connections can have significant impact on impedance measurement. PowerShield reserves the right to void warranties where terminal tags are bent or modified. 5.4 Mounting Rail for Hubs and mSensors The mounting rail for the Hubs and mSensors can be fitted in any orientation and can be used with both battery racks and cabinets.
5.5 mSensor Power Leads Fit the mSensor power leads to the block terminal tags with the correct polarity. Ensure the dual power leads are connected across an ‘in series’ pair of batteries. Power leads are available with or without Block Temperature sensors. Refer to Appendix 6 for the recommended method of connecting the mSensor power leads.
(where applicable). Insert the Hubs into the same mounting rail as the mSensors and connect CAT5 cable from the PowerShield Controller hub ports to each Hub. The Hub LED should flash orange if all is correct. A full list of Hub LED states is available in Appendix 2.
Connect the mSensors and Hub using suitable lengths of BBus interconnecting cables in a daisy chain fashion. Note that each PowerShield Controller hub port must not have more than 33 devices connected to it (1 Hub and up to 32 mSensors).
5.9 Install Current Transducer A current transducer (CT) is required per string to measure string current. Install the current transducer anywhere on the primary string conductor and plug the current transducer cable into the Current connector of the PowerShield Hub. NOTE: Ensure the current transducer selected has the appropriate rating for the expected string charge and discharge currents.
Check that all installed parts are performing as expected and secure all cables with appropriate strain relief. Complete the forms as in Appendix 12, connect to the Service Port Ethernet connector on the front of the PowerShield Controller and configure the system.
• certain events occur. Refer to Appendix 5 for details of the relay terminals. Auxiliary Inputs: The PowerShield Controller has 2 dry contact inputs that can be used to read the state of • external devices. Refer to Appendix 5 for details of the Auxiliary Inputs.
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3 (Right) DC supply negative The DC input models are supplied with a mating female screw terminal plug. Refer to Appendix 8 for wiring details of the DC input model plug. Cable Tray: The case features a cable tray that extends beyond the rear panel connectors. Cables can be •...
Appendix 2 – LED Behaviour PowerShield Controller LEDs The PowerShield Controller has LEDs on the front panel for on-site information. They will exhibit varying behaviour as described below: Name Colour Description Controller Power Green On continuously when powered. Controller Alarm On continuously if the PowerShield Controller has an internal system fault.
Device is detected and operating as normal. No warnings or alarms detected. Orange Double Flash Device is receiving communication but has not been detected by the PowerShield Controller. White Continuous Applies to Hub only. Device is in boot loader mode and waiting for commands.
Appendix 3 – Controller LCD The PowerShield Controller LCD can be used to view system information. The information is displayed by pressing the keypad buttons to access the required levels as shown below. The buttons operate as follows: Use the buttons to scroll through the menu levels.
The RS-485 card implements 2-wire (half-duplex) transmission. The RS-485 signals can be accessed at the 4-way screw terminal connector on the rear panel of the PowerShield Controller as shown below. If more than one Slave is on the RS-485 bus, connect the additional Slaves using a daisy-chain approach and join the signal wires at the 4-way connector.
Auxiliary Inputs The PowerShield Controller has two auxiliary inputs that can be used to read the state of a dry contact switch in third party equipment. To activate the auxiliary input simply short the terminals of the non-polarised two way connector.
Appendix 6 – mSensor Power Lead Connection It is important to connect and install the mSensor power lead correctly. The following diagrams show the recommended method of connecting an mSensor to blocks with 2 or 4 terminals per block. Failure to connect and install the mSensor power lead correctly may lead to unacceptable variation in readings between sensors.
Single mSensor and Block with 2 Terminals Single mSensor Power Lead Wires Wire Function / Block Connection Positive Power wire for sensor. Connect to positive terminal of Block. Brown Positive Sense wire for Block. Blue Negative Sense wire for Block. Black Power return wire for sensor.
Dual mSensor and Blocks with 4 Terminals Dual mSensor Power Lead Wires Wire Function / Block Connection Positive Power wire for sensor. Connect to positive terminal of Block A. Yellow Positive Sense wire for Block A. Green Negative Sense wire for Block A. Brown Positive Sense wire for Block B.
Single mSensor and Block with 4 Terminals Single mSensor Power Lead Wires Wire Function / Block Connection Positive Power wire for sensor. Connect to positive terminal of Block. Brown Positive Sense wire for Block. Blue Negative Sense wire for Block. Black Power return wire for sensor.
mSensor Power Leads with Block Temperature Dual mSensor Single mSensor mSensor Power Leads without Block Temperature Dual mSensor Single mSensor ___________________________________________________________________________________________________________ Part Number 6300-095D Page 32 of 43...
Appendix 7 – 4-Wire / Kelvin Connection This article explains the 4-wire or Kelvin connection measurement technique in general terms. It is not intended as an in- depth guide to making high accuracy measurements of battery impedance. Resistance Resistance is commonly measured by passing a known test current through the resistance under test and measuring the corresponding voltage.
4-Wire/Kelvin Resistance Measurement To reduce the effect of lead and contact resistances, the 4-wire or Kelvin connection method can be used. This method requires 4 wires and thus 4 terminals at the meter as shown below. With this configuration, the test current is driven through the resistance under test using one set of leads called the Source leads.
1.5mm The plug is fitted with a latch to secure it to the input socket of the PowerShield Controller. To remove the plug, press down on the latch with a screwdriver or suitable tool and pull the plug out.
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To wire and assemble the plug, please complete the following steps: 1. Remove the outer cable sheath and strip the ends of each wire as per below (lengths are in mm): 2. Insert the wires into the plug and tighten the contact screws. The wiring should be as follows: Plug Terminal Wire / Function...
Appendix 10 – Hub Specifications Block Inputs up to 64 (via dual PowerShield mSensors) Type PowerShield mSensor Current Inputs 1 (provides string DC & AC current) Type Hall Effect Range 0A to ±2000A (depends on Current Transducer model used) Maximum Distance...
1 or 2 (depends if using a single or dual mSensor) Block Type 1.2V NiCad, 2V, 4V, 6V, 8V, 12V, 16V Lead Acid Nominal Voltage NiCad Voltage Range 0.8 – 1.9V 1.6 – 2.6V 4.8 – 7.8V 9.6 – 15.6V Voltage Resolution 1mV dc, 1mV ac...
Appendix 12 - PowerShield 8 Installation Forms 6300-107 Facility Information Form (FIF) Facility Information Company/Customer: Facility Name: Facility Address: Total Number Strings: Total Number PowerShield 8 Systems: Installed by: Date: Notes ___________________________________________________________________________________________________________ Part Number 6300-095D Page 40 of 43...
6300-108 PowerShield 8 Controller Information Form (CIF) PRINT OUT AS MANY COPIES OF THIS FORM AS REQUIRED Facility Name: ............Controller Details System Name: Strings: No. Monitored: Details (No. Blocks/Voltage): Port 1: Connected (Yes / No): Configuration (DHCP / Manual): Manual Config.:...
6300-109 PowerShield 8 String Information Form (SIF) PRINT OUT AS MANY COPIES OF THIS FORM AS REQUIRED Facility Name: ............PowerShield 8 System Name: ......... String # / Name: No. mSensors (Singles / Duals): Block Details Hub Details Block Block...
6300-110 PowerShield 8 Block Mapping Form (BMF) PRINT OUT AS MANY COPIES OF THIS FORM AS REQUIRED Facility Name: ............PowerShield 8 System Name: ......... String # / Name: Controller Port # / Hub ID: Reverse Block Numbering (Yes/No): Block #...
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