alpha Cordex CXPS-HSS Hyperboost Converter Systems User Manual
- June 13, 2024
- Alpha
Table of Contents
- Safety
- Introduction
- Specifications
- Cordex® 3 kW Hyperboost Modules And Shelf
- Matrix C16™ DC Distribution Breaker Panel
- Inspection
- Installation
- Wiring
- Maintenance and Troubleshooting
- DIMENSIONS ARE IN IN[MM]
- CUSTOMER CONNECTION
- CUSTOMER CONN, 19″ SHLF, UNIDIR,HYPERBOOST
- Customer Support
- References
- Read User Manual Online (PDF format)
- Download This Manual (PDF format)
alpha Cordex CXPS-HSS Hyperboost Converter Systems
Copyright notice
© 2023 Alpha Technologies Ltd., an EnerSys company. All Rights Reserved.
The material contained in this document is for information only and is subject
to change without notice. Alpha reserves the right to make changes in the
product design without reservation and without notification to its users.
Safety
Save these instructions
This document contains important safety instructions that must be followed
during the installation, servicing, and maintenance of the product. Keep it in
a safe place. Review the drawings and illustrations contained in this document
before proceeding. If there are any questions regarding the safe installation
or operation of this product, contact Alpha Technologies Ltd. or the nearest
Cordex® power system representative.
Safety symbols
To reduce the risk of injury or death, and to ensure the continued safe operation of this product, the following symbols have been placed throughout this document. Where these symbols appear, use extra care and attention.
Symbol | Type | Description |
---|---|---|
Risk of serious injury or death |
Equipment in operation poses a potential electrical hazard which could result
in serious injury or death to personnel. This hazard may continue even when
power is disconnected.
| | Cautions indicate the potential for injury to personnel.
| | Risk of burns
A device in operation can reach temperature levels which could cause burns.
| | The use of attention indicates specific regulatory or code requirements
that may affect the placement of equipment or installation procedures. Follow
the prescribed procedures to avoid equipment damage or service interruption.
| | This symbol indicates the
location or terminal intended for the connection to protective earth. An
enclosure that is not properly connected to protective earth presents an
electrical hazard. Only a licensed electrician can connect AC power and
protective earth to the enclosure.
| | A notice provides additional information to help complete a specific task
or procedure or general information about the product.
General warnings and cautions
You must read and understand the following warnings before installing the
system and its component.
Failure to do so could result in personal injury or death.
- Read and follow all instructions included in this document.
- Only trained personnel are qualified to install or replace this equipment and its components.
- Use proper lifting techniques whenever handling equipment, parts, or batteries.
This system is designed to be installed in a restricted access location that is inaccessible to the general public.
This equipment is not suitable for use in locations where children are likely to be present.
Mechanical safety
- Keep hands and tools clear of fans. Fans are thermostatically controlled and switch on automatically.
- Power supplies can reach extreme temperatures under load.
- Use caution around sheet metal components and sharp edges.
Electrical safety
Hazardous voltages are present at the input of power systems. The DC output from power modules, though not dangerous in voltage, has a high short-circuit current capacity that can cause severe burns and electrical arcing.
The DC output from converters is a potentially hazardous voltage. Do not touch the output connections when under power. Ensure that power has been removed from the outputs before working on them.
Before working with any live battery or power system, follow these precautions:
- Remove all metallic jewelry, such as watches, rings, metal rimmed glasses, or necklaces.
- Wear safety glasses with side shields at all times during the installation.
- Use Occupational Safety and Health Administration (OSHA®) approved insulated hand tools. Do not rest tools on top of batteries.
Lethal voltages are present within the power system. Always assume that an electrical connection or conductor is energized. Check the circuit with a voltmeter with respect to the grounded portion of the enclosure (both AC and DC) before performing any installation or removal procedure.
- Do not work alone under hazardous conditions.
- A licensed electrician is required to install permanently wired equipment. Hazardous voltages are present at the input of power systems. Ensure that the utility power is disconnected and locked out before performing any installation or removal procedure.
- Ensure that no liquids or wet clothes come into contact with internal components.
- Hazardous electrically live parts inside this unit are energized from the batteries even when the AC input power is disconnected.
- Always assume electrical connections or conductors are live. Turn off all circuit breakers and double‑check with a voltmeter before performing installation or maintenance.
- Place a warning label on the utility panel to warn emergency personnel that a reserve battery source is present which will power the loads in a power outage condition or if the AC disconnect breaker is turned off.
- At high ambient temperature conditions, the internal temperature can be hot so use caution when touching the equipment.
Installation and safety precautions
- Only qualified personnel should install and connect the power components within the Cordex® power system.
- Make sure to connect the protective earthing (master grounding) terminal within the AC load center of the equipment to the earth point in the building installation or the site reference ground.
- Only install the power system using the mounting hardware provided by Alpha Technologies Ltd.
Lifting
Follow all local safety practices and guidelines while lifting the enclosure. All personnel involved with lifting and positioning the enclosure must wear head and eye protection, and gloves. Only properly trained and certified personnel should operate the crane. Only properly trained and certified personnel should operate the forklift.
Before lifting the power system into place:
- Ensure the modules are not installed.
- The distribution panel door is firmly affixed.
- Open and latch the enclosure front door.
Introduction
Document scope
This document covers the features, options, installation, and startup of Cordex® CXPS-HSS hyperboost converter systems. Images contained in this document are for illustrative purposes only and may not exactly match your installation. To assist with installation, refer to the drawings at the end of this document.
Product overview
The –48 Vdc to –58 Vdc Cordex® CXPS-HSS hyperboost converter system is a
unidirectional boost converter system designed to allow for larger loads to be
powered while keeping the load current constant. By using a DC power system as
its input, the unidirectional boost converter boosts DC voltage as high as 58
volts at its output.
The system is based on the Cordex® HP –48 to –58 Vdc 3 kW hyperboost converter
shelf and module and are used to boost the DC voltage to reach the remote
radio head (RRH) while leveraging existing power cable infrastructure. The
Cordex® CXPS-HSS hyperboost converter system can be deployed as a standalone
system, with an optional in-shelf controller or can be paired with Cordex®
CXPS –48 Vdc power system for a tightly integrated solution using our flagship
Cordex® HP controller.
Each fan-cooled converter module can deliver up to 3,000 watts of nominal
power up to 149°F (65°C) and 2,400 watts of power up to 167°F (75°C).
Information, adjustments, and controls are a simple process with the Cordex®
HP family of controllers.
Configuration, adjustments, and information monitoring of the power equipment
are accessible through a network web browser.
-
Matrix C16™ high density connectorized DC distribution breaker panel
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Matrix C16™ SmartSwitch controller (view input bus voltage, input bus current, and alarm status)
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40 amp Slimline load breakers (6)
-
Cordex® HP –48 to –58 Vdc 3 kW hyperboost shelves and modules
Figure 1: Cordex® CXPS-HSS hyperboost converter system
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Matrix C16™ high density connectorized DC distribution breaker panel
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Matrix C16™ panel CAN interface ports
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Matrix C16™ panel alarm port
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Shelf ID ports (one per shelf)
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Hyperboost CAN ports (one per shelf)
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Output load cable connectors
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Matrix C16™ panel ground
-
Rack mount brackets
Figure 2: Cordex® CXPS-HSS hyperboost converter system rear view (without rear cover)
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-58 Vdc output connectors (5)
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Matrix C16™ panel alarm port
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Matrix C16™ panel CAN ports (2)
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–58 Vdc output connectors (4)
Figure 3: Cordex® CXPS-HSS hyperboost converter system and major components
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–58 Vdc output busbar and protective cover
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Return busbar
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–48 Vdc input busbar
Features and benefits
- High system efficiency for reduced operational expense and carbon footprint.
- Extended operating temperature range for deployment in the harshest outdoor environments.
- Modular and scalable system to support power upgrades to existing macro infrastructure and future technologies.
- Intelligent distribution panel monitors load current and voltage to each RRH.
- Communication with the Cordex® HP controller family for advanced site monitoring applications. The controller provides advanced remote web based monitoring and control features.
For more information, refer to the Cordex® HP controller documentation.
Product part numbers
Product | Part number |
---|---|
Cordex® CXPS-HSS hyperboost converter system | 0921002-001 |
Cordex® 3 kW hyperboost converter module | 0120090-001 |
Blanking plate | 5905349-001 |
12 ft (3.65 m) output cable assembly | 8701457-001 |
40 amp Slimline circuit breaker | C470-705-10 |
Specifications
Cordex® CXPS-HSS Hyperboost converter system
Electrical
Input voltage| –38 to –58 Vdc
Efficiency| 98% peak
Output voltage| –58 Vdc
Output power| 21,000 W maximum
Output current| 360 A maximum
Load regulation| <±0.5%
Features
Matrix C16 ™ Smart Switch controller|
- Per circuit output voltage
- Per circuit output current
- Bus output voltage
- Bus output current
Status indicators (LEDs)| DC load port, DC source port, and Module alert
Adjustments|
- Output voltage
- High voltage alarm
- Low voltage alarm
- High voltage shutdown
- Start delay timer
Protections|
- 40 amp load breakers (6)
- Current limit and short circuit
- Startup delay
- Input and output fuses
- Output high voltage shutdown
- Power limiting
- Over temperature
Mechanical
Dimensions H × W × D| 5.2 × 17.4 × 19.4 in. (133 × 442 × 492 mm)
Weight (no modules)| 49 lb (22.2 kg)
Mounting| 3RU
Offset center mount
CAN communication| RJ12 offset
IP communication (distribution)| RJ45
Auxiliary alarm communication (distribution)| 3-pin Molex® connector
Load connection| 6 × 10 ft (3.05 m) load cable with quick disconnects
Expandable to 9
Environmental
Temperature| Operating: –40 to 149°F (–40 to 65°C)
Storage: –40 to 185°F (–40 to 85°C)
Relative humidity| 5 to 95% non-condensing
Elevation| Up to 9,842 ft (3,000 m)
Regulatory compliance
Safety| CSA/UL 62368-1 Edition 3
EMC| FCC CFR47 Part 15/B- Class A
CAN ICES-003(A)/NMB-003(A)
Note: This equipment has been tested and found to comply with the limits
for a Class A digital device, pursuant to part 15 of the FCC Rules. These
limits are designed to provide reasonable protection against harmful
interference when the equipment is operated in a commercial environment. This
equipment generates, uses, and can radiate radio frequency energy and, if not
installed and used in accordance with the instruction manual, may cause
harmful interference to radio communications. Operation of this equipment in a
residential area is likely to cause harmful interference in which case the
user will be required to correct the interference at their own expense.
Cordex® HP 3 kW Hyperboost converter module
Electrical
Output power| 3,000 W nominal per module
Output current| 62.5 A maximum per module
Load regulation| <±0.5%
Acoustic| <60 dBA
Mechanical
Dimensions H × W × D| 1.6 × 4.1 × 13.1 in. (41 × 104 × 333 mm)
Weight| 4 lb (1.8 kg)
Modules per shelf| Up to 4 modules per shelf (19-inch shelf)
Cordex® 3 kW Hyperboost Modules And Shelf
Converter modules
Status indicators
The converter module has three LEDs. Refer to Troubleshooting Cordex®
hyperboost module LEDs for more information. The LEDs are color-coded to
indicate converter status.
LEDs (local alarms)
- Module alert (red LED)
- DC load port OK (green LED)
- DC source port OK (green LED)
Figure 5: Cordex® CXDF 58 − 48/3 kW module LEDs
The three LEDs on the front panel are module alert (red LED), DC load port
(green LED), and DC source port (green LED). The green LEDs are off to
indicate no power and they flash at one hertz to indicate that the voltage is
out of range. They are on solid to indicate normal power and voltage
conditions.
The red LED is the fault or alert LED and indicates an internal error. A solid
red LED indicates a critical alert that keeps the converter module from
delivering power, while a flashing red LED indicates a warning as described in
Maintenance and troubleshooting.
Blanking plate
Blanking plates are available for unused slots (three blanking plates included with PN: 0921002-001).
Install blanking plates in any unused slots.
Shelf connections
CAN: Daisy chain the CAN bus from one shelf to the next. If one of these
shelves is that last shelf in the chain, terminate the chain by installing a
CAN terminator (PN: 7400644-001) in the remaining open CAN port.
Shelf ID: Shelf ID location technology is built into the converter shelf. This
feature is capable of remotely locating the exact position of a power module
within a large system. This can be useful for quickly locating a unit during a
service interruption or when a unit has failed. The optional Cordex® HP
Shelf/Bay ID peripheral (PN: 0180050-001) is required for this feature to
work.
Rack mounting
Cordex® CXPS-HSS hyperboost converter systems can be installed in a variety of
Alpha® 19-inch and 23-inch seismic racks. These racks have been Z4 rated and
Network Equipment-Building System (NEBS) L3 certified.
The racks vary in their Z4 seismic capabilities from 500 to 2500 lb (227 to
1134 kg) and 3.5 to 9 feet in height (standard 7 foot racks are available as
well).
Fan operation
Each converter module is equipped with a front-mounted variable-speed fan. The speed of the fan is determined based on ambient temperature, converter module temperature, and the load. The airflow from the fan is from front-to-rear, with the exhaust air exiting through internal vents at the rear of the module. The fan will spin in required situations.
Over temperature protection
Blockage or obstruction of airflow can result in the internal temperature
rising with reduced output power or even shut down the converter module. The
module will resume normal operation when the temperature lowers to a safe
level.
Over temperature shut down can also occur when a fan failure has occurred. To
protect itself from ambient over temperature scenarios, the converter module
will limit its output power, as shown in the following plot.
Figure 6: Internal ambient temperature power derating
Fan failure
If there is a fan failure, the converter module will report the fan failure
alarm over the CAN bus to the controller.
The fan is field replaceable, and the procedure is described in 10.2 Fan
replacement on .
If a fan failure occurs, the module will enter into a thermally stable state
due to the temperature dependent power derating or the module will
automatically shut down without any damage due to heatsink over temperature.
Startup and soft start delay
The start up time of each converter module (including soft start) is one second to have an output voltage of 58 Vdc. The startup time is required to complete inrush limit routine and DC measurement.
Current limit and short circuit protection
The current limit function determines the maximum output current limit of the
converter module, regardless of the output voltage or power. The maximum
output current is limited to a constant value down to a short circuit
condition.
The converter module will sustain a continuous short circuit at the load port.
The maximum short circuit current will not exceed 62.5 amps per module.
Figure 7: DC load port current and power limit
Power limit
Each converter module is designed to limit the power output to achieve the module specification of 3 kW. This enables more current to be supplied at lower output voltages and allows matching the output power to the demands of constant power loads, which can be required for telecom equipment.
The current limiting feature overrides the power limiting feature.
Matrix C16™ DC Distribution Breaker Panel
The Matrix C16™ high density connectorized DC distribution breaker panel provides high reliability, high power, DC distribution in a compact form factor.
The Matrix C16™ panel distribution auxiliary alarm connection point has been extended close to the rear output connectors of the system. The Matrix C16™ panel distribution auxiliary alarm is only for the distribution. The Cordex® CXPS-HSS hyperboost converter system does not have its own auxiliary alarm.
The Cordex® CXPS-HSS hyperboost converter system includes a board that translates the RJ45 pinout to a 3-pin Molex® connector.
Breaker installation
Ensure circuit breakers are in the OFF position prior to installation. Ensure circuit breakers are completely inserted.
There are 16 breaker positions in the Matrix C16™ breaker panel. A maximum of nine breakers can be installed in the system.
- Remove the breaker compartment door from the panel by loosening the two thumb screws on the door.
- Select a breaker of sufficient ampacity and insert it into the desired output circuit, making sure to seat the breaker securely. A breaker legend is applied to the inside of the compartment door to allow an installer to mark the use of each breaker.
- Once all desired circuit breakers have been installed, reinstall the breaker compartment door and secure it with the thumb screws.
Operation
The Matrix C16™ breaker panel is equipped with a Smart Switch controller LCD
on the front panel. This display allows you to configure settings and view
information.
User interface
To advance any item in the menu, tap the SmartSwitch LCD. Fully depress the
LCD itself for less than one second.
To select a value or enter a menu, press and hold the Smart Switch LCD for at
least three seconds.
Home screen information
The Smart Switch home screen displays input bus voltage, input bus current,
and alarm status. Under normal operation, the home screen backlight will
remain green.
The dual input Smart Switch home screen will automatically cycle between the A
and B bus displays. Tapping the LCD once will cycle through the menus
manually. The available options from the home screen are Input A, Input B,
VIEW BKR LOAD, and SETUP menus.
The home screen indicates the realtime status of the panel based on its backlight color.
Backlight color | Status indicated | Alarm type |
---|---|---|
Green | Normal operation | N/A |
Orange | Warning | Minor |
Red | Alarm | Major |
Initial operation
Once all breakers are installed and power is present on the inputs, remove the breaker compartment door and slide the power switch to the on position. The power switch is located on the front right side of the SmartSwitch LCD. The LCD turns on and displays the Alpha® logo followed by the firmware version.
Breaker inventory process
Before the monitoring features of the Matrix C16™ panel can be viewed on a Cordex® HP controller, a breaker inventory must be taken.
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Upon first power up, the system prompts TURN ON THE BKRS HOLD 3S.
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Turn on all breakers to be inventoried. Press and hold the LCD as prompted.
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The LCD will show the number of breakers installed in the panel. If the number of breakers displayed is incorrect, check that all installed breakers are fully seated, in the correct orientation, and turned on.
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If the number of breakers is correct, press and hold the LCD for three seconds to continue.
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The LCD shows STORED PRESS TO CONT. Tap the LCD to continue and set the breaker ampacity.
Setting breaker ampacity
The SmartSwitch LCD prompts SETUP BKR AMPS HOLD 3S.
- Press and hold the LCD for three seconds to enter the menu to set breaker ampacity.
- The first breaker in inventory will be displayed, along with its currently set ampacity. If the ampacity is incorrect, press and hold the LCD for three seconds to enter the menu.
- Tap the LCD until the correct ampacity is displayed (the display will advance through standard Slimline breaker ampacities: 1, 3, 5, 10, 15, 20, 25, 30, 35, 40, 45, 50, 55, 60, 65, 70, 80, 90, and 100), then press and hold the LCD for three seconds to save the value.
- The next breaker in inventory will now be displayed. Repeat steps 1 to 3 for each breaker in inventory.
- Once all of the breaker ampacities are set correctly, advance to the screen that says EXIT HOLD 3 S and press and hold the LCD for three seconds to exit the menu and save the values.
This completes the initial SmartSwitch setup.
VIEW BKR LOAD HOLD 3 S
Entering this menu will display voltage, current, and alarm status information for each circuit that is stored in inventory. When the menu is entered, the first circuit in inventory will be displayed. Tapping the SmartSwitch LCD will advance to the next circuit in inventory.
SETUP HOLD 3 S (setup menu)
The setup menu is used to configure the SmartSwitch LCD. The system will
prompt you with SETUP HOLD 3 S to enter the menu. This menu is accessed by
taping the home screen until the prompt appears, then pressing and holding the
LCD for three seconds.
SETUP BKR INV HOLD 3 S (breaker inventory)
Press and hold the SmartSwitch LCD for three seconds to enter the menu and
perform a breaker inventory. Follow the on-screen prompts to finish
inventorying circuits. A breaker inventory must be performed every time a new
circuit is added to the Matrix C16™ panel.
SETUP BUS ALMS
Press the LCD for three seconds to access the Bus Alarm Menu.
This menu is used to set the input bus rating to enable the panels over
current monitoring features.
- To set the bus A ampacity, select the option that displays SETUP BUS A HOLD 3 S. The LCD will then display HOLD TO EDIT, TAP TO SHIFT. Press the LCD to access the first bus.
- Three digits will now appear on screen with an arrow under the first digit.
- To edit a digit, press the LCD for three seconds, then tap to change its value. Hold for three seconds to save the edits.
- Repeat these steps for each digit that needs to be edited.
- Repeat for bus B.
SETUP BKR ALMS
Press the LCD for three seconds to access the Breaker Alarm Menu.
This menu is used to configure the alarm and warning threshold for overcurrent
alarms.
The alarm setting is used to set the threshold for the panel’s overcurrent
alarm. An alarm condition will annunciate locally with a red display and an
audible alarm. It will also cause a remote alarm via the Form C dry alarm
contact and email alerts via the Ethernet web server.
The warning setting is used to set the threshold for the panel’s overcurrent
warning (pre-alarm).
The warning will only annunciate locally.
SETUP VOLT CAL
Press the LCD for three seconds to access the Voltage Calibration Menu.
This menu is used to calibrate displayed bus voltages. Voltage can only be
edited if within valid voltage range.
Inspection
Packing materials
Alpha Technologies Ltd. is committed to providing products and services that
meet our customers’ needs and expectations in a sustainable manner, while
complying with all relevant regulatory requirements. As such Alpha strives to
follow our quality and environmental objectives from product supply and
development through to the packaging for our products.
Power modules and batteries are shipped on individual pallets and are packaged
according to the manufacturer’s guidelines.
Almost all Alpha packaging material is from sustainable resources and or is
recyclable.
Returns for service
Alpha Technologies Ltd. is not responsible for damage caused by improper packaging of returned products.
Save the original shipping container. If the product needs to be returned for service, it should be packaged in its original shipping container. If the original container is unavailable, make sure that the product is packed with at least three inches of shock-absorbing material to prevent shipping damage.
Check for damage
Before unpacking the product, note any damage to the shipping container. Unpack the product and inspect the exterior for damage. If any damage is observed, contact the carrier immediately. Continue the inspection for any internal damage. In the unlikely event of internal damage, inform the carrier and contact Alpha Technologies Ltd. for advice on the impact of any damage.
General receipt of shipment
The inventory included with your shipment depends on the options you have ordered. The options are clearly marked on the shipping container labels and bill of materials.
Miscellaneous small parts
Review the packing slip and bill of materials to determine the part number of the configuration kits included with your system. Review the bill of materials to verify that all the small parts are included. Contact us if you have any questions before you proceed.
Installation
The equipment is suitable for installation in network telecommunication facilities.
This system is designed to be installed in a restricted access location that is inaccessible to the general public.
The following wiring setup is only an example of installing the Cordex® CXPS- HSS hyperboost converter system in a Cordex® CXPS-E6 edge power system.
The following procedure is written for qualified personnel to install this
product in a clean and dry environment.
For the battery installation, refer to the manufacturer’s documentation.
Installation overview
- Wiring setup
- Additional wiring setup for additional RRH
- Controller setup
- Final tests
Safety precautions
Refer to the Safety section before beginning this installation.
Installation tools
Various insulated tools are essential for the installation. Use this list as a guide:
-
Lifting apparatus (if required)
-
Digital voltmeter equipped with test leads
-
Torque wrench: 1/4 inch drive, 0 to 150 in-lb (0 to 17 Nm)
-
Torque wrench: 3/8 inch drive, 0 to 100 ft-lb (0 to 135 Nm)
-
Insulating canvases as required
-
Various insulated hand tools including:
– Combination wrenches – Ratchet and socket set
– Various screwdrivers – Electricians knife -
Cutters and wire strippers 14 to 22 AWG (2.5 to 0.34 mm²)
-
Cutters and wire strippers 8 to 25 AWG (10 to 4 mm²
Recommended torque values
Connection | Torque value |
---|---|
Busbar bracket fastener | 150 in-lb (16.9 Nm) |
Wiring setup
Ensure the AC input breaker and the battery breakers are in the OFF position. Lockout may be required.
Some edges can be sharp
Wear cut resistant gloves during the installation of the Cordex® CXPS-HSS
hyperboost system.
Two people are recommended to lift and place the Cordex® CXPS-HSS hyperboost system into place above the existing power system.
-
Take the Cordex® CXPS-HSS hyperboost system out of its packaging and inspect for damage. Prepare the other ordered parts that will be used with the Cordex® CXPS-HSS hyperboost system as well as the required tools.
-
Install the Cordex® CXPS-HSS hyperboost system in the rack securing it using rack mounting screws.
Figure 8: Cordex® CXPS-HSS hyperboost system on top of existing Cordex® CXPS-E6 edge power system
-
Locate the rear busbars of the existing power system and remove the eight hex head screws and washers attached to those busbars.
-
Align and install the new spacer and –48 V hot link busbar brackets to the shelves’ busbars using the supplied eight stainless steel hex head screws and washers by first finger tightening all of them into place and then use the socket wrench to tighten to the required torque specification.
The new spacer is placed in between the Cordex® CXPS-HSS hyperboost system input bus bar and the new –48 V hot link busbar.
Figure 9: Spacer (not shown) with the –48 V link busbars installed to the right of the system
-
Align and install the larger common link busbar bracket using the supplied eight stainless steel hex head screws and washers. Similar to the previous step, finger tighten all the screws into place.
Figure 10: Common link busbar bracket installed on the middle of the system
-
Torque all sixteen newly installed screws and washers to 150 in-lb (16.9 Nm) using a torque wrench.
Figure 11: Hex head screws torqued to proper specifications
-
Facing the rear of the unit, located at the right side of the existing power system, remove the center-pinned CAN terminator plug from the power system’s bottom rectifier shelf and install the new center to offset CAN cable assembly from the lower rectifier shelf to the lower hyperboost shelf.
Figure 12: CAN terminator plug location
Figure 13: CAN cable installed to the lower hyperboost shelf
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Connect the right side CAN port of the Cordex® CXPS-HSS hyperboost converter shelf to the right side Matrix C16™ panel CAN interface port using an offset to offset CAN cable assembly.
Figure 14: Matrix C16™ panel CAN interface port
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Connect a CAN terminator to the other CAN interface port using an offset CAN terminator.
-
With the connectors located on the left side of the hyperboost shelves, install the new offset to offset CAN cable assembly.
Figure 15: Inter-shelf CAN cable assembly
-
Install the protective insulator cover to the –48V input busbar with cable ties.
-
Connect the six output cable assemblies to the –58 Vdc output connector. Un-hinge the output cable zip tie holder bracket and attach each output cable assemblies using zip ties
-
Wire all the six output cable assemblies to the six surge protection device (SPD) modules and neatly route the cables.
-
Visually inspect the installation thoroughly.
Orange cables indicate the system is hot (–58 Vdc) and the black cables are the system return (common).
Cordex® HP controller setup
Ensure the Cordex® HP controller is using software version 8.00 or later.
Navigating the menu
Configuration
A key configuration in the system is the Load Bus Output Voltage. This is the
load bus output voltage that the converters will always maintain. From the
controller interface, go to Systems > Hyperboost System > Configure System. In
the Configuration table, the Load Bus Output Voltage can be set. The load bus
output voltage has a range between 48 and 58 volts.
System status
From the controller interface, go to Systems > Hyperboost System > Status. The
System table on this page shows system summary information, such as the
average source port and load port voltages, and total source port and load
port power.
Power flow
For a graphical view of the system, from the controller interface, go to the
power flow page (only available from the web interface). On the power flow
page, select the icon of the hyperboost system or the DC system icon to see
the power flow view of each respective system. Further selecting the icons
from inside the system level diagram will navigate to the associated table in
the menu, allowing for more details of that item.
The controller front Ethernet port IP address can be found through the controller LCD by browsing to Shortcut > Ethernet Port.
- Connect a CAT 5 or CAT 6 cable to the front Ethernet port of the controller and to the management computer. Set the IP address so it is on the same network as the controller (IP address and subnet mask).
- Open an internet browser and enter the IP address of the controller. If everything is set up properly, you should be greeted with a username and password sign in screen. Enter the user name and password.
- Navigate to Controller > Files & Upgrades > Software Upgrade and select the Upload New Controller Software and Reboot button.
- Update the controller software to version 8.00 by selecting the file and then selecting the Upload button.
- Navigate to Systems > Add or Remove Systems and select the Create System button.
- From the dropdown menu, select Converter System.
- Follow the wizard and select Hyperboost System 48V-58V as the system type.
Wiring
This chapter provides cabling details and notes on cable sizing for DC applications with respect to the product.
Ensure that the power is switched off by switching off power modules and removing battery line fuses, turn off battery breakers before attempting work on the wiring. Use a voltmeter to verify the absence of a voltage. Clearly mark the correct polarity of the battery leads before starting work on DC connections.
Installation notes
Refer to the Installation section for safety precautions and tools required.
Calculating output wire size requirements
Although DC power wiring and cabling in telecommunication applications tend to
exceed electrical code requirements, mostly due to the voltage drop
requirements, all applicable electrical codes take precedence over the
guidelines and procedures in the present chapter, wherever applicable.
Wire size is calculated by first determining the appropriate maximum voltage
drop requirement. Use the following formula to calculate the circular mil area
(CMA) wire size requirement. Determine the size and number of conductors
required to satisfy the CMA requirement.
CMA = (A × LF × K) / AVD
A = Ultimate drain in amps.
LF = Conductor loop feet.
K = 11.1 constant factor for commercial (TW type) copper wire.
AVD = Allowable voltage drop.
Check again that the ampacity rating of the cable meets the requirement for
the installation application. Consult local electrical codes (for example,
National Electrical Code® and Canadian Electrical Code) for guidelines. If
required, increase the size of the cable to meet the code.
Refer to Table A for cable size equivalents.
Table A — Cable size equivalents
Cable size| Circular mils| Square millimeters| Equivalent
metric cable
20 AWG| 1020| 0.519| 1
18 AWG| 1624| 0.8232| 1
16 AWG| 2583| 1.309| 1.5
14 AWG| 4107| 2.081| 2.5
12 AWG| 6530| 3.309| 4
10 AWG| 10380| 5.261| 6
8 AWG| 16510| 8.368| 10
6 AWG| 26250| 13.30| 16
4 AWG| 41740| 21.15| 25
2 AWG| 66370| 33.63| 35
0 AWG (or 1/0)| 105600| 53.48| 50 or 70
00 AWG (or 2/0)| 133100| 67.42| 70
0000 AWG (or 4/0)| 211600| 107.2| 120
313 MCM (or kcmil)| 313600| 159| 150 or 185
350 MCM (or kcmil)| 350000| 177.36| 185
373 MCM (or kcmil)| 373700| 189| 185 or 240
500 MCM (or kcmil)| 500000| 253.36| 300
535 MCM (or kcmil)| 535300| 271| 300
750 MCM (or kcmil)| 750000| 380.00| 400
777 MCM (or kcmil)| 777700| 394| 400
Required torque values
The following table lists the recommended torque values for connection to the power system with the following hardware:
- Clear hole connections (nut and bolt)
- PEM studs
- PEM threaded inserts
- Thread formed connections (in copper busbar)
Grade 5 rated hardware is required for these torque values.
Table B — Recommended torque values
Size| Torque value
1/4 inch| 8.8 ft-lb (11.93 Nm)
3/8 inch| 32.5 ft-lb (44.06 Nm)
1/2 inch| 73 ft-lb (98.97 Nm)
Grounding
Connect the isolated power system battery return bus (BRB) to the building
master ground bus (MGB), or floor ground bus (FGB) in a larger building. This
acts as a system reference and as a low impedance path to the ground for
surges, transients and noise. The MGB or FGB must have a direct low impedance
path to the building grounding system.
The cable from the power system to the MGB or FGB must be sized to provide
sufficient ampacity to clear the largest fuse or breaker on the power system,
excluding the battery protection fuse or circuit breaker. This is the minimum
requirement. Other factors including length of cable and special grounding
requirements of the load must also be factored in. The insulated cable must be
equipped with two-hole crimp type lugs and must not have any tight bends or
kinks.
Table C — Typical ground reference conductor selection
Power system ampacity| Recommended ground reference conductor size
< 30 A| 10 AWG (6 mm²)
30 A to 100 A| 6 to 2 AWG (16 to 35 mm²)
100A to 400 A| 0000 AWG (107 mm²)
400A to 800 A| 350 MCM (185 mm²)
> 800 A| 750 MCM (400 mm²)
The power system frame must also be connected to the MGB or FGB. This is done for personnel safety and to meet many Telecom grounding requirements. Each bay must have its own frame or site ground connection. Refer also to the customer connections drawing at the end of this document.
Maintenance and Troubleshooting
Although very little maintenance is required with Cordex® power systems,
routine checks and adjustments are recommended to ensure optimum system
performance. Qualified service personnel should do the repairs. The following
table lists a few maintenance procedures for this system. These procedures
should be performed at least once a year.
To order more breakers refer to the options listed in the specifications.
Always replace circuit breakers with the same type and rating.
Consult support or sales for all replacement parts.
Use extreme care when working inside the unit while the system is energized. Do not make contact with live components or parts.
Circuit cards, including semiconductor devices, can be damaged by static electricity. Always wear a grounded wrist strap when handling or installing circuit cards.
Ensure redundant modules or batteries are used to eliminate the threat of service interruptions while performing maintenance on the system’s alarms and control settings.
Table D — Sample maintenance log
Procedure| Date completed
Inspect all system connections. Re-torque if necessary.|
Verify alarm and control settings.|
Verify alarm relay operation.|
Clean ventilation openings of the breaker panel and converters.|
Replacing a converter module via the controller
When a converter is permanently removed, the system generates a Converter
Comms Lost alarm. That alarm is cleared by removing the converter from the
system inventory.
To remove the converter from the system inventory do the following:
- Remove the defective converter from the shelf.
- To remove a module, flip the handle up and pull the module away from the rear connector and out of the shelf.
- In the web interface go to Systems > Hyperboost System > Inventory > Converter > Status.
- Select the Forget Power Modules in Comms Lost button.
- Place the new converter in the shelf.
- If not set to auto-assign, in the Modules Available for Assignment table, assign the new converter to the Hyperboost system.
- Confirm the assignment.
Fan replacement
For more information, refer to the technical drawings at the end of this document.
The fan on the individual power modules is designed for very high reliability and long life. During year six of the life of the product the manufacturer recommends replacement of the fan assembly.
-
Lift the locking handle and slide the module 4 in. (10 cm) out of the shelf. Wait ten minutes for the module capacitors to discharge and then slide the powder module out of the shelf.
-
Remove the two bottom screws that secure the front panel to the module chassis.
-
Push in the two plastic protrusions on top of the power module and disengage the front panel and attached fan from the power module.
-
Disconnect the fan cables from the module by pulling out the fan cable connector.
-
Discard the old fan assembly and unpack the new replacement assembly.
-
Reconnect the fan cable. Insert the connector into the fan connector in the power module. Ensure proper polarity and that the wires stay clear of the fan blade.
-
Slide the front panel into the power module body.
-
Ensure the metal tabs of the power module body aligned with the screw holes of the front panel.
-
Ensure the plastic tabs of the front panel are protruding through the metal cutouts in the power module body.
-
Secure the front cover by hand tightening the bottom screws.
Troubleshooting Cordex® Hyperboost module LEDs
Status indicators (LEDs)
- Module alert LED (red)
- Load bus LED (green)
- Source bus LED (green)
Figure 16: Cordex® CXDF 58 − 48/3 kW module LEDs
LED name | Color | State | Meaning |
---|---|---|---|
Module alert | Red | Off | No minor or major alert. |
Solid | Major alert |
(See CAN documentation for definition of major alert).
Flashing (1 Hz)| Minor alert
(See CAN documentation for definition of major alert). Find module¹
Load bus| Green| Off| The port is not driven.
Solid| The port is driven.
Flashing (1 Hz)| Find module¹
Source bus| Green| Off| No voltage²
Solid| Source port voltage is within nominal range.³
Flashing (1 Hz)| Voltage out of range³
Find module¹
- All LEDs have a left-to-right right-to-left pattern which changes every 0.5 seconds.
- The threshold voltage is 25 volts due to possible leakage through the module.
- If the input voltage is lower than 38 volts or above 59.9 volts it is classified as out of the classified range.
DIMENSIONS ARE IN IN[MM]
CUSTOMER CONNECTION
CUSTOMER CONN, 19″ SHLF, UNIDIR,HYPERBOOST
DISCONNECT THE FAN CABLE FROM THE MODULE BY PULLING OUT THE FAN CONNECTOR.
DISCARD THE OLD ASSEMBLY AND UNPACK THE NEW ASSEMBLY.
INSERT THE CONNECTOR INTO THE FAN CONNECTOR SOCKET IN THE MODULE. ENSURE THE
CONNECTOR IS SEATED PROPERLY AND THAT THE FAN WIRES STAY CLEAR OF THE FAN
BLADES.
SLIDE THE FRONT PANEL INTO THE MODULE BODY.
ENSURE THE METAL TABS OF THE MODULE BODY ALIGN WITH THE SCREW HOLES OF THE
FRONT PANEL.
ENSURE THE PLASTIC CATCHES OF THE FRONT PANEL ARE PROTRUDING THROUGH THE METAL
CUTOUTS IN THE MODULE BODY.
SECURE THE FRONT COVER BY INSTALLING THE SCREWS AND TORQUING TO 0.5 Nm (4.4
in-lb).
Customer Support
Alpha Technologies Ltd. | 7700 Riverfront Gate, Burnaby, BC V5J 5M4 Canada
Toll Free North America: +1
800-667-8743 | Outside North America +1
604-436-5547 | Technical Support +1
888-462-7487
For more information visit our website at:
www.enersys.com