Installation Manual
CPS 5000-King 5.2k
Table of Contents
Congratulations on purchasing a high-quality BlueNova® product.
This is a technical support document applicable to the following product(s):
The information in this document includes the following
The table below contains an alphabetical list of industry-specific abbreviations as well as product-specific terms used throughout this document:
|
Term |
Definition |
|
AC (abbr.) |
Alternating Current (as supplied by utilities & most generators). |
|
Battery (term) |
A product subcomponent, in this case specifically 1 x BN52V-100-5.2k DU (Daily Use) Lithium Iron Phosphate battery. See: G. Supporting Documents for more technical information. |
|
Battery Pack (term) |
Two or more BN52V-100-5.2k DU batteries connected to each other in parallel, up to a maximum of 9. |
|
BMS (abbr.) |
Battery Management System: Battery-integrated electronic circuitry & components. Supports cell health, product safety & peripheral compatibility functionalities. |
|
DB (abbr.) |
Electrical Distribution Board. Site DB refers to the main electrical distribution board (if available) of the building or site at which the product will be installed. DB-A or DB-B refers to either one of the two electrical distribution boards integrated as subcomponents within the CPS5000 system (see: C. Structural Information - 1. Product Layout) |
|
DC (abbr.) |
Direct Current. Batteries & solar panels supply DC. |
|
DoD (abbr.) |
Depth of Discharge. Refers to a percentage of the total available energy capacity of a battery or battery pack. |
|
MPPT (abbr.) |
Maximum Power Point Tracker: An integral component in modern solar systems, mainly supportive towards the stabilisation of solar-supplied energy to the rest of the system. |
|
Product (term) |
Refers to a complete (read: fully assembled) CPS 5000-5.2k system. |
|
Subcomponent (term) |
Refers to one or more of the main functional components that the CPS system consists of (as illustrated in section C. Structural Information - 1. Product Layout) below. Does not refer to screws, wiring & other small system components. |
|
SoC (abbr.) |
State of Charge: A percentage value indication of the amount of energy stored within a battery. |
|
SoH (abbr.) |
State of Health: A percentage value indication of the amount of energy capacity that a battery has retained at any point during its service life. Conversely indicates the percentage with which a battery has faded (read: lost capacity) from being used over time. |
|
UPS (abbr.) |
Uninterruptable Power Supply |
IMPORTANT: Failure to adhere to any one or more of the requirements listed below may result in serious personal injury or death. For your own safety, it is therefore of utmost importance that any & all requirements listed below are strictly adhered to:
This product consists of various subcomponents, some of which include individual warranties supplied by the manufacturer and/or distributor in each case. Please see
G. Supporting Documents for full documentation of BlueNova product & workmanship warranties, as well as third-party supplier warranties.
IMPORTANT: The application for which this product is installed might require integration with existing on-site electrical systems and/or components. Depending on the extent of such installations, a Certificate of Compliance might have to be obtained following completion of such installations, as per South African legislature. CoC documents issued in this regard should be kept safe & will be supportive in the event of future warranty claims.
For installations outside the borders of South Africa, any local legislative requirements and/or laws comparable to the above should also be adhered to, following installation,
especially if some similar form of certification can be obtained.
A CPS 5000-King 5.2k system consists of 2 x main wall-mountable sections.
The top section consists of a backboard which houses the inverter, distribution boards & output socket sets, while the bottom section consists of a bracket supporting a LiFePO4 battery:
The distribution boards in the top section contain the following components:
The diagram below illustrates the layout of the unit’s BN52V-100-5.2k DU battery:
Each CPS5000-King 5.2k product is packaged for shipment in 2 x boxes. Please check the contents of each box upon delivery to ensure that you have received all the components & quantities listed below:
|
Box 1: Top unit |
Qty |
Specifications / Notes |
|
Backboard, including: - Inverter (pre-installed) - DB’s & breakers (pre-installed) - Socket sets (pre-installed) |
1 |
Powder-coated steel |
|
1 |
Axpert 5kVA King |
|
|
2 |
See D. Installation for more info |
|
|
2 |
Compliant to latest industry standards |
|
|
Rawl bolts |
4 |
For mounting the backboard section |
|
Box 2: Bottom unit |
Qty |
Specifications / Notes |
|
Battery |
1 |
BN52V-100-5.2k DU (Daily Use) Lithium Iron Phosphate battery |
|
Battery mounting bracket |
1 |
Single bracket (supports 1 x of the above batteries), powder-coated steel. |
1.1 Product Applications
The CPS5000 has been designed to be suitable towards various applications, mainly due to the fact the the product-integrated inverter is compatible by design with several peripheral hardware components. A few applications for which the product can be configured are described below:
|
Product Application |
Description |
|
UPS Application |
UPS solutions are required in systems where power supplied to the load should remain uninterrupted & stable regardless of grid supply stability. Typically, UPS solutions are installed in systems where inconsistent & unreliable grid-supplied power is the only available power source. Following installation, the product’s integrated battery/batteries provide a secondary power source from which the supply of energy to connected essential load devices is triggered instantly whenever grid-supplied power is interrupted. |
|
Daily Cycling Application |
Daily cycling applications can be found in multi-component systems that include one or more batteries. Such systems are designed to ensure maximum usage of the installed batteries on a regular basis. Apart from grid power, daily cycling systems typically include the integration of additional power sources or components required for energy generation, such as a solar panel array, backup generator or wind turbine. Much of the energy generated by renewable means during the day is typically supplied to increase battery SoC for use at night. |
|
Off-grid Application |
Off-grid systems do not make use of utility/grid power supply. Batteries are always included in such systems. These batteries are recharged from alternative sources such as solar panel arrays, wind turbines and/or generators. |
Please note that the CPS 5000-King 5.2k has been pre-configured for UPS applications. The product is therefore not “solar-ready” but can be reconfigured for such purposes. Please see D3. Adding Solar below. Also, please refer to the individual data sheets of all relevant subcomponents listed in section G. Supporting Documents before commencing with product assembly & installation. Familiarising yourself with system subcomponents minimises the risk of failure during product installation. For non-standard applications of the product, one or more of the product’s integrated components might have to be reconfigured to ensure maximum application compatibility. In such cases, it is especially important to reference the technical specifications of all relevant subcomponents – especially the limitations of each. ensure that none of these are exceeded during subcomponent reconfiguration.
The simplified wiring diagram below illustrates how the CPS 5000-5.2k’s components have been connected to each other. Note that a solar panel array & connection has been illustrated even though these components are not supplied with the product.
The following section lists instructions for assembling the CPS5000-King 5.2k prior to installation. For the purposes of this document, assembly instructions include mounting the 2 sections of the product onto a wall. Therefore, before commencing with product assembly, careful consideration should be taken towards where the product should be installed.
|
STEP 1 |
Connect utility/grid supply to the inverter. Remove the cover of DB-B. Thread a 3-core (earth, live & neutral) wire through one of the compression glands at the bottom of the top section, then through one of the openings available on the distribution board. Connect the wire to the top of the breaker labelled AC IN. The opposite open end of this wire can then be connected to the AC supply from the site DB directly or fitted with a plug so that the system can be charged from one of the site’s wall outlets. |
|
STEP 2 |
Mount the top section backboard onto a sturdy wall. Use a levelling tool during this step to ensure neat, level installation. Don’t remove the inverter or any other pre-installed subcomponents from the backboard during mounting. Use all the rawl bolts supplied. The top section should be mounted as high as possible without compromising access to the inverter’s user interface and/or legibility of any information that might be displayed thereon. Typically, the top section would be mounted at an overall height that would leave the inverter’s UI on eye-level with a standing person of average height. |
|
STEP 3 |
Mount the battery bracket below the newly-mounted top section. The battery bracket should be installed directly below the newly-mounted top section & vertically-centred with it. The distance between the top section & bracket should be short enough to allow the battery to be connected to the inverter with the cables included for this purpose. Before mounting the bracket, check to ensure that the bracket’s chosen location will allow for successful connection. Space constraints & other site restrictions might require side-by-side installation (or other non-standard orientations) of the two sections, for which the supplied cables might be too short. In such cases, please ensure that replacement cables comply to industry-standard requirements & are based on the relevant max. continuous performance specifics of the battery/battery pack and the inverter (see G. Supporting Documents for data sheets). |
|
STEP 4 |
Install the battery onto the bracket, then connect to the top section. To connect the battery to the top section, connect the red wire to the battery’s positive terminal & connect the black wire to the battery’s negative terminal. The black negative wire is already connected to the inverter directly, while the red positive wire is connected to the inverter via the DB-A breaker labelled Battery (+) |
|
STEP 5 |
Connect the load. The load can now be connected to one or both of the socket sets available on the top section. Please take note of the following limitations:
At temperatures higher than 25°C, maximum inverter output will derate to less than 4000W. See the inverter manual included with shipment for more information.
|
A solar array can be connected to the CPS 5000-5.2k’s inverter via the integrated distribution panel. Such installations should only be undertaken by qualified industry personnel. Please also ensure that the solar array’s open-circuit voltage does not exceed the maximum specified value (as per inverter data sheet appended to this document).
The suggested PV addition is 1000W with a maximum of 102VDC on the PV input side and also a maximum charging current of 60A (adjustable via inverter UI). Depending on the specific panels that are being installed (panel Open Circuit Voltage), 2-3 panels might be placed in series to achieve the necessary input voltage required by the integrated MPPT.
Note: Care should be taken regarding the maximum open circuit voltage from the solar panel string by leaving a “buffer voltage” of ±10V for safety purposes. With the addition of PV onto the CPS 5000-5.2k unit, the following menu items should be adjusted via the inverter’s UI:
|
Menu # |
Description |
|
01 |
Output Source Priority |
|
02 |
Maximum Charge Current (total) |
|
11 |
Maximum Charge Current (utility/grid) |
|
16 |
Charger Source Priority |
Additional batteries can be connected to the original battery to increase overall capacity.
Batteries should be connected as illustrated below:
SYSTEM START / SHUT DOWN / RESET:
|
FUNCTION |
OPERATION |
|
Start |
Press the RESET button for 3s when the battery is in sleep mode to switch it on. Led on the panel flashes from the Left to Right. |
|
Shut down |
Press the RESET button for 3s when the battery is in idle/discharge mode to switch it OFF. Led on the panel flashes from Right to Left. |
|
Resetting |
Press the RESET button for 6s when the battery is in idle/discharge mode to reset the BMS. |
COMMUNICATION PORTS:
|
COMPONENT |
FUNCTION / DESCRIPTION |
|
|
RS232 (RJ11) |
Not active |
|
|
CAN Ports (RJ45 x 2) |
Serial communication via CAN Bus. PIN configuration as follows:
|
|
|
RS485 Ports (RJ45 x 2) |
Pin configuration as follows:
|
|
DIP SWITCH PANEL CONFIGURATION:
|
Address |
DIP Switch Number |
Master / Slave (CAN) |
Definition (RS485) |
|||
|
Parallel Configuration |
||||||
|
|
#1 |
#2 |
#3 |
#4 |
|
|
|
1 |
ON |
OFF |
OFF |
OFF |
Master |
Pack1 |
|
2 |
OFF |
ON |
OFF |
OFF |
Slave 1 |
Pack2 |
|
3 |
ON |
ON |
OFF |
OFF |
Slave 2 |
Pack3 |
|
4 |
OFF |
OFF |
ON |
OFF |
Slave 3 |
Pack4 |
|
5 |
ON |
OFF |
ON |
OFF |
Slave 4 |
Pack5 |
|
6 |
OFF |
ON |
ON |
OFF |
Slave 5 |
Pack6 |
|
7 |
ON |
ON |
ON |
OFF |
Slave 6 |
Pack7 |
|
8 |
OFF |
OFF |
OFF |
ON |
Slave 7 |
Pack8 |
|
9 |
ON |
OFF |
OFF |
ON |
Slave 8 |
Pack9 |
It is essential to set the DIP address number in order when connected with a CAN bus inverter, otherwise the BMS will report an error.
STATE-OF-CHARGE:
|
COMPONENT |
FUNCTION / DESCRIPTION |
|||
|
State-of-charge indicator |
||||
LED indicators:
|
Status |
Running condition |
SOC |
RUN |
ALM |
Description |
|||
|
|
|
|
|
|
|
|||
|
Switch Off |
Sleep mode |
off |
off |
off |
off |
off |
off |
All off |
|
Stand by |
Normal |
off |
off |
off |
Idle |
|||
|
Alarm |
off |
off |
Flash 3 |
ALM and RUN Flash 3 |
||||
|
Charging |
Normal |
According to real-time capacity |
on |
off |
Highest LED Flash 2 |
|||
|
OV Alarm |
According to real-time capacity |
on |
off |
Highest LED Flash 2 |
||||
|
OC Alarm |
According to real-time capacity |
on |
Flash 3 |
Highest LED Flash 2 |
||||
|
OV Protect |
on |
on |
on |
on |
on |
off |
|
|
|
OC Protect (charge limit off) |
off |
off |
off |
off |
off |
on |
Stop charging |
|
|
Charge limit |
According to real-time capacity |
on |
off |
Highest LED Flash 2 |
||||
|
Discharging |
Normal |
According to real-time capacity |
Flash 3 |
off |
According to real-time capacity indicate |
|||
|
Alarm |
According to real-time capacity |
Flash 3 |
Flash 3 |
ALM and RUN Flash 3 |
||||
|
OC/short circuit/revere connection |
off |
off |
off |
off |
off |
on |
Stop discharging |
|
|
UV |
off |
off |
off |
off |
off |
off |
Stop discharging |
|
|
Temp |
Normal |
According to status |
|
|||||
|
Charge alarm |
According to real-time capacity |
on |
Flash 3 |
Highest LED Flash 2 |
||||
|
Discharge alarm |
According to real-time capacity |
Flash 3 |
Flash 3 |
|
||||
|
Protect |
off |
off |
off |
Off |
off |
on |
|
|
Please refer to the inverter manual enclosed within the product packaging.
The values with which the inverter has been preconfigured for UPS applications are listed in this document under G. Supporting Documents
If the batteries are over-discharge and left uncharged for a period of time, they will enter protection mode. To recover the batteries from this mode, follow the procedure below:
Wear protective gear during this procedure.