• No results found

ZXDU68-B201-DC

N/A
N/A
Protected

Academic year: 2021

Share "ZXDU68-B201-DC"

Copied!
42
0
0

Loading.... (view fulltext now)

Full text

(1)

ZXDU68 B201

DC Power System

Product Description

Version: V5.0R06M09

ZTE CORPORATION

NO. 55, Hi-tech Road South, ShenZhen, P.R.China

Postcode: 518057

Tel: +86-755-26771900

Fax: +86-755-26770801

URL: http://ensupport.zte.com.cn

E-mail: [email protected]

(2)

Copyright © 2013 ZTE CORPORATION.

The contents of this document are protected by copyright laws and international treaties. Any reproduction or distribution of this document or any portion of this document, in any form by any means, without the prior written consent of ZTE CORPORATION is prohibited. Additionally, the contents of this document are protected by contractual confidentiality obligations.

All company, brand and product names are trade or service marks, or registered trade or service marks, of ZTE CORPORATION or of their respective owners.

This document is provided “as is”, and all express, implied, or statutory warranties, representations or conditions are disclaimed, including without limitation any implied warranty of merchantability, fitness for a particular purpose, title or non-infringement. ZTE CORPORATION and its licensors shall not be liable for damages resulting from the use of or reliance on the information contained herein.

ZTE CORPORATION or its licensors may have current or pending intellectual property rights or applications covering the subject matter of this document. Except as expressly provided in any written license between ZTE CORPORATION and its licensee, the user of this document shall not acquire any license to the subject matter herein.

ZTE CORPORATION reserves the right to upgrade or make technical change to this product without further notice. Users may visit ZTE technical support website http://ensupport.zte.com.cn to inquire related information.

The ultimate right to interpret this product resides in ZTE CORPORATION.

Revision History

Revision No. Revision Date Revision Reason

R1.2 2013-01-08 The following section and chapter are modified: l Section 3.2, Environmental Specifications l Chapter 5, Alarm List

R1.1 2012-12-06 The following section and chapter are modified: l Section 2.4, Signal Interface Unit

l Chapter 5, Alarm List

R1.0 2012-11-23 First edition

Serial Number: SJ-20120703093141-002 Publishing Date: 2013-01-08 (R1.2)

(3)

Contents

About This Manual ... I

Chapter 1 System Overview ... 1-1

1.1 System Introduction... 1-1 1.2 System Features ... 1-1

Chapter 2 System Structure and Components... 2-1

2.1 System Structure... 2-1 2.2 ZXD3000 Rectifier ... 2-4 2.3 Centralized Supervision Unit ... 2-6 2.4 Signal Interface Unit ... 2-7

Chapter 3 System Specifications... 3-1

3.1 Configuration List ... 3-1 3.2 Environmental Specifications ... 3-2 3.3 Technical Specifications... 3-2 3.4 Compliance Standards ... 3-5

Chapter 4 Rectifier Specifications ... 4-1

4.1 Technical Specifications... 4-1 4.2 Input Features... 4-3 4.3 Output Features ... 4-4 4.4 Power Decrease With High Temperature ... 4-5

Chapter 5 Alarm List ... 5-1

Appendix A Electrical Connection Diagram ... A-1

Glossary ... I

(4)
(5)

About This Manual

Purpose

This manual applies to the ZXDU68 B201 (V5.0R06M09) DC Power System. The ZXDU68

B201 system is designed to be installed in a cabinet/rack and provides power for -48 V

communications equipment.

This manual describes the system structure, characteristics, and configuration.

Intended Audience

This manual is intended for:

l

Planning engineers

l

Maintenance engineers

What Is in This Manual

This manual contains the following chapters/appendices:

Chapter/Appendix Summary

1, System Overview Introduces the system and describes the system features. 2, System Structure and

Components

Describes the system structure, ZXD3000 rectifiers, Centralized Supervision Unit (CSU), and Signal Interface Unit (SIU).

3, System Specifications Describes configuration list, environmental specifications, technical specifications, and compliance standards.

4, Rectifier Specifications Describes the ZXD3000 (V5.0) rectifier specifications, including technical specifications, input features, output features and the feature of power decrease with high temperature.

5, Alarm List Describes the alarm names, default alarm levels and output relays. A, Electrical Connection

Diagram

Provides the electrical connection diagram of the ZXDU68 B201 system.

Conventions

This manual uses the following typographical conventions:

Typeface Meaning

Bold Menus, menu options, function names, input fields, option button names, check boxes, drop-down lists, dialog box names, window names, parameters, and commands. Note: provides additional information about a certain topic.

(6)
(7)

Chapter 1

System Overview

Table of Contents

System Introduction...1-1

System Features ...1-1

1.1 System Introduction

The ZXDU68 B201 system is designed to be installed in a cabinet/rack. ZXDU68 B201 is

19 inches in width and 5U in height.

l

The system can provide power for -48 V communications equipment.

l

Single-phase AC input, 200 V - 240 V (phase voltage).

l

When fully configured, the power system is equipped with four ZXD3000 (V5.0)

rectifiers and can provide a maximum power output of 12 kW.

For the appearance of the ZXDU68 B201 system, see

Figure 1-1

.

Figure 1-1 System Appearance

1.2 System Features

Door Open Key Code Function

Delayed trigger alarm waits for technician’s authorization code before informing the

Supervision Center (

SC

) of access attempt.

This function provides potential reduction of the SC interventions greatly.

Efficient Rectifiers

(8)

With 50% - 100% output power, the rectifier efficiency is ≥ 96%.

Automatically Switching the Rectifiers to the Sleep Mode

The system switches one or more rectifiers to the sleep mode according to the load power.

The power of a rectifier in sleep mode is not larger than 4 W.

A Wide Range of Input Voltage

A wide range of input phase voltage (90 V to 295 V) makes the system suitable for areas

with unstable power sources.

Capacity Expansion

When fully configured, the system is equipped with four ZXD3000 (V5.0) rectifiers and can

provide a rated output power of 12 kW when the output voltage ranges from -48 V to -57.6

V.

Accessible via Web Browser

The system can be remotely managed through a computer installed with a web browser

anywhere if Ethernet is available.

Managing Data in Batches

Users can set the parameters in batches, copy records and upgrade programs via a

USB

flash drive.

Professional Monitoring and Management

l

The transmission speed is high via

CAN

bus.

l

Multiple protection functions, such as Load Low Voltage Disconnect (

LLVD

1), Load

Low Temperature Disconnect (

LLTD

), Battery Low Voltage Disconnect (

BLVD

), and

Battery High Temperature Disconnect (

BHTD

).

l

Users can press the QUY button of a rectifier to query the data of the rectifier or control

it.

Flexible Monitoring Networking

The system provides input and output relays, RJ45 Ethernet interface, RS232 interface,

RS485 interface, and USB interface. The system supports multiple monitoring networking

modes via Telnet, Hypertext Transfer Protocol (

HTTP

), File Transfer Protocol (

FTP

), and

Simple Network Management Protocol (

SNMP

).

(9)

Chapter 2

System Structure and

Components

Table of Contents

System Structure...2-1

ZXD3000 Rectifier ...2-4

Centralized Supervision Unit ...2-6

Signal Interface Unit ...2-7

2.1 System Structure

For the structure of the ZXDU68 B201 chassis, see

Figure 2-1

and

Figure 2-2

.

Front View

Figure 2-1 Chassis Structure (Front View)

1. ZXD3000 (V5.0) rectifiers 2. Signal Interface Unit (SIU) 3. Centralized Supervision Unit (CSU) 4. 48VDC generator input connector (48VDC GENERATOR) 5. Auxiliary DC output connector (AUX. OUTPUT, 50A)

6. Main DC output circuit breaker (MAIN OUTPUT) 7. Battery circuit breakers

(BATT1, BATT2, BATT3)

8. BLVDreset button (BLVD RST)

9. PEbolts

(10)

Table 2-1 Chassis Components (Front View)

S.N. Component Description

1 ZXD3000 (V5.0) rectifiers Convert AC power to DC power.

For further details, refer to2.2 ZXD3000 Rectifier. 2 Signal Interface Unit (SIU) Provides signal interfaces for supervision.

For further details, refer to2.4 Signal Interface Unit. 3 Centralized Supervision

Unit (CSU)

Collects the system operation data and manages the system. For further details, refer to2.3 Centralized Supervision Unit. 4 48VDC generator input

connector (48VDC GENERATOR)

Connects to a 48 VDC generator.

5 Auxiliary DC output connector (AUX. OUTPUT, 50A)

Connects to a DC load.

6 Main DC output circuit breaker (MAIN OUTPUT)

Activates/deactivates DC output for the main DC load.

7 Battery circuit breakers (BATT1, BATT2, BATT3)

Activates/deactivates battery input.

8 BLVD reset button (BLVD RST)

If the system has disconnected the battery branch(es) because of low voltage, but the CSU is faulty, press the BLVD RST button to manually reconnect the disconnected branch(es). 9 PE bolts Connect to the on-site grounding busbar.

(11)

Figure 2-2 Chassis Structure (Rear View)

1. Rear panel

2. AC input cabling hole 3. Battery input connection

terminals (BATT1, BATT2, BATT3) (-48V)

4. Main DC output connection terminals (MAIN OUTPUT) (-48V)

5. -48V busbar (-48V)

6. Working ground busbar (+/RTN)

7. AC input connection terminals (L, N, L, N, PE)

For a description of the components, refer to

Table 2-2

.

Table 2-2 Chassis Components (Rear View)

S.N. Component Description

1 Rear panel Remove the rear panel before connecting the cables. 2 AC input cabling hole Cabling hole for the AC input cables (L, N, L, N, PE) 3 Battery input connection

terminals (BATT1, BATT2, BATT3) (-48V)

Connect battery packs to the system.

4 Main DC output connection terminals (MAIN OUTPUT) (-48V)

(12)

S.N. Component Description

5 -48V busbar (-48V)

-6 Working ground busbar (+/RTN)

Connects +/RTN cables of battery packs and DC loads.

7 AC input connection terminals (L, N, L, N, PE)

Connect AC input cables (L, N, L, N, PE).

Caution: It is recommended to configure a 50 A circuit breaker for each AC input branch to provide AC input power for the ZXDU68 B201 system.

2.2 ZXD3000 Rectifier

The ZXD3000 (V5.0) rectifiers convert AC to DC, power DC loads and charge the batteries.

Appearance

For the appearance of the ZXD3000 rectifier, see

Figure 2-3

.

Figure 2-3 Rectifier Appearance

1. Fan 2. Indicators 3. QUY (query) button

Buttons and Indicators

l

Press and hold the QUY button of a rectifier for 5 seconds and then the CSU displays

the rectifier’s main information screen.

l

The indicators display the operational status of the rectifier. For a description of the

indicators, refer to

Table 2-3

.

Table 2-3 Rectifier Operational Status

Indicator

Power Run Alarm Fault

Operational Status

Lit Lit - Not lit Operating with Stable

Voltage

Flashing Not lit - Not lit Sleep

(13)

Indicator

Power Run Alarm Fault

Operational Status

Lit - Flashing - Communication Failure

Lit - Lit - Alarm

Lit Not lit - Lit Fault

• “-” means that the status of the indicator is not relevant to the condition.

Interfaces

Input and output interfaces are laid at the back of the rectifier. For the interface layout of

the rectifier, see

Figure 2-4

. For a description of the pin definitions, refer to

Table 2-4

.

The interfaces complete the electrical and signal connections between the rectifier and the

ZXDU68 B201 power system.

Figure 2-4 Rectifier Interfaces

Table 2-4 Pin Definitions of Rectifier Interfaces

Interface Name Pin No. Signal Definition

Function

1 - 6 L Connects the AC input phase cable. 7 - 12 N Connects the AC input neutral cable. AC input

interfaces

18 - 20 PE Connects the protection ground.

- 13 - Reserved

14 AA

Phase detection

interfaces 15 AB

Locates the phase where an operating rectifier is.

16 CAN-CAN communication detection interfaces 17 CAN+

A rectifier communicates with other devices through the interfaces. For example, a rectifier transmits data to the CSU, and the CSU issues commands to a rectifier.

21 - 28 OUTPUT+ DC output

interfaces 29 - 36

OUTPUT-Provide DC output power.

37, 38 Hot-plug pin (+) Hot-plug pins

39, 40 Hot-plug pin (-)

Prevent sparks when a rectifier is installed into the ZXDU68 B201 system.

(14)

2.3 Centralized Supervision Unit

The Centralized Supervision Unit (

CSU

) is the foreground monitoring unit of the ZXDU68

B201 system. It monitors the

AC

distribution,

DC

distribution, rectifiers and batteries of the

ZXDU68 B201 system.

Functions

l

Delayed trigger alarm waits for technician’s authorization code before informing the

Supervision Center (

SC

) of access attempt. This function provides potential reduction

of the SC interventions greatly.

When the door with a door sensor is open, all alarms will be on hold and not sent to

output relays in this case, and the correct 4-digit key code (password) must be input

within a certain time (Login Max.Time, one minute, by default). All alarms are sent

to output relays immediately if the correct key code is not input within the time.

l

Gives an audible and visual alarm and provides the protection function when the

ZXDU68 B201 system is faulty.

l

Collects the operational data and monitors the operations of the ZXDU68 B201

system.

l

Performs advanced battery management with protection functions.

l

Manages the rectifiers and automatically switches one or more rectifiers to the sleep

mode to save energy.

l

Transmits data to the background Supervision Center (

SC

) and receives commands

from the SC. In this way, the ZXDU68 B201 system can be monitored remotely.

l

The CSU can be remotely managed through a computer installed with web browser

anywhere if Ethernet is available.

Appearance

For the appearance of the CSU, see

Figure 2-5

.

Figure 2-5 CSU Appearance (CSU500A)

1. LCD 2. USBinterface 3. RJ45 Ethernet interface 4. Indicators 5. Buttons

Interfaces

l

USB interface

(15)

à

Supports USB flash drives but does not support portable hard disks, MP3 or MP4.

à

Use a 2 GB (or below) USB flash drive with available capacity of greater than 32

MB.

l

RJ45 Ethernet interface

à

The Ethernet interface rate is 10M/100M (adaptive).

à

The Ethernet interface supports multiple monitoring networking modes through

Telnet,

HTTP

,

FTP

and

SNMP

.

Indicators

The indicators display the operational status of the CSU and the ZXDU68 B201 system.

For a description of indicators, refer to

Table 2-5

.

Table 2-5 CSU Operational Status

Indicator

Power Run Alarm

Operational Status

Lit Flashing Not lit Operating normally

Lit - Flashing Alarm

Lit Lit or not lit - Down

• “-” means that the status of the indicator is not relevant to the condition.

Buttons and LCD

The buttons and the LCD of the CSU enable the users to query operational data of the

ZXDU68 B201 system, set parameters, and control the operation of the ZXDU68 B201

system.

The button names are as follows:

l

▲/▼/◄/►: up/down/left/right

l

Ent: enter

l

Esc: escape

2.4 Signal Interface Unit

The Signal Interface Unit (

SIU

) contains the Signal Interface Board (

SIB

). For the structure

of SIU, see

Figure 2-6

.

(16)

Figure 2-6 Signal Interface Unit (SIU)

1. SIB 2. Interface designation

The SIB provides various supervision interfaces including input and output relay

interfaces, background communication interfaces, and environment detection interfaces.

For the layout of the interfaces on the SIB, see

Figure 2-7

.

Figure 2-7 Supervision Interfaces on the SIB

(17)

Table 2-6 Supervision Interfaces on the SIB

Interface Description

Input and Output Relay Interfaces X3 In-relay 1, 2

X4 In-relay 3, 4

Four input relays.

The users can set the alarms for the input relays in the Centralized Supervision Unit (CSU).

Out-relay 1 Alarm code A1: critical or major alarm X14

Out-relay 2 Alarm code A2: door alarm

Out-relay 3 Alarm code A3: AC power abnormal X15

Out-relay 4 Alarm code A4: ambient temperature high Out-relay 5 Alarm code A5: minor alarm or warning X16

Out-relay 6 Alarm code A6: __________________________ Reserved for user definition.

Out-relay 7 Alarm code A7: __________________________ Reserved for user definition.

X17

Out-relay 8 Alarm code A8: __________________________ Reserved for user definition.

X18 CSU fault out-relay Provides the CSU fault signal Background Communication Interfaces

X11 RS232 communication X11 and X13 cannot be used at the same time X12 RS485 communication

(independent)

-X13 RS485 communication (multiplex)

X11 and X13 cannot be used at the same time

X22 RS232 communication Multiplex with X11 Environment Detection Interfaces

X2 Flood alarm To connect a flood sensor

X5 Door magnet alarm To connect a door sensor

X6 Battery 1 temperature To connect the temperature sensor for battery pack 1 X7 Battery 2 temperature To connect the temperature sensor for battery pack 2 X8 Battery 3 temperature To connect the temperature sensor for battery pack 3 X9 Battery 4 temperature To connect the temperature sensor for battery pack 4 X10 Environment temperature To connect an ambient temperature sensor

(18)
(19)

Chapter 3

System Specifications

Table of Contents

Configuration List ...3-1

Environmental Specifications...3-2

Technical Specifications ...3-2

Compliance Standards ...3-5

3.1 Configuration List

For the configuration list of the ZXDU68 B201 system , refer to

Table 3-1

.

Table 3-1 Configuration List

Component Configuration

Chassis One

Rectifier ZXD3000 (V5.0) Four (when fully configured) Centralized

Supervision Unit (CSU)

CSU500A One (software version: V1.01F)

AC input No AC input circuit breaker

Four AC input connection terminals (L, N, L, N, PE) Caution: It is recommended to configure a 50 A circuit breaker for each AC input branch to provide AC input power for the ZXDU68 B201 system. Standby AC output None

Rectifier circuit breaker

None AC distribution

(20)

Component Configuration

DC input One 120 A generator input connector (48VDC GENERATOR)

Battery input circuit breaker

1×200 A/2P, 2×100 A/1PMCBs

DC output l Main DC output:

Two connection terminals controlled by one 200 A/2P circuit breaker

l Auxiliary DC output:

One 50 A DC output connector DC distribution

DC SPD None

3.2 Environmental Specifications

For a description of the environmental specifications of the ZXDU68 B201 system, refer

to

Table 3-2

.

Table 3-2 Environmental Specifications

Item Specifications

Operating temperature -4 °F to +131 °F/-20 °C to +55 °C (+59 °F to +77 °F/+15 °C to +25 °C, recommended)

Storage temperature -40 °F to +158 °F/-40 °C to +70 °C

Relative humidity 10% to 90% (non-condensing); 40% to 60% recommended

Altitude l 0 - 2187 yd (0 - 2000 m): 100% output power

l 2187 yd – 3281 yd (2000 m - 3000 m): The power derating percentage is 1% for each 100 m increase in altitude. Other requirements l The cabinet should be stable and erect.

l No explosion hazard, no shake or jolt.

l Never install the equipment where there is a risk of liquid or objects falling into the top of the equipment.

l No conductive dust or corrosive gas.

l No strong Electromagnetic Interference (EMI).

3.3 Technical Specifications

The ZXDU68 B201 system satisfy the following technical specifications.

l

For the system specifications, refer to

Table 3-3

.

l

For AC electrical specifications, refer to

Table 3-4

.

l

For DC electrical specifications, refer to

Table 3-5

.

(21)

l

For interface specifications, refer to

Table 3-6

.

l

For structure specifications, refer to

Table 3-7

.

Table 3-3 System Specifications

Item Description

Rated output power of the system (when fully configured)

12 kW (-48 V to -57.6 V)

System efficiency l ≥ 93.5% (30% rated power) l ≥ 95.5% (50% rated power) l ≥ 95.5% (100% rated power)

Equipment noise ≤ 55 dB(A)

Monitoring networking mode RS232/RS485 serial port, Ethernet, and transparent transmission with the communication equipment Design service time 10 years to 15 years

l DIN/EN 55022 l IEC61000

ESDimmunity Contact: 8 kV. Air: 15 kV Radiated Susceptibility

(RS)

10V/M 1 kHz 80% amplitude modulation

Electronic Fast Transients (EFT) Pulse/Burst immunity

AC port: 4 kV. DC port and signal port: 2 kV

Surge immunity AC port: 6 kV

Conducted susceptibility 3V 1 kHz 80% amplitude modulation

Voltage dips, interruptions & variations immunity

Class 2

Conducted emissions Class A Electro Magnetic Compatibility

(EMC)

Radiated emissions Class A

Table 3-4 AC Electrical Specifications

Item Specification

AC input mode Single-phase three-wire (L/N/PE)

AC input voltage l Rated AC input phase voltage: 200 V - 240 V l Phase voltage range: 90 V to 295 V

AC input frequency l Rated frequency: 50 Hz/60 Hz l Frequency range: 45 Hz - 66 Hz AC input

(22)

Item Specification AC input power

factor

≥ 0.998 (with rated load)

Input Total Harmonic Distortion (THD) THD ≤ 5% (30% - 100% rated power) AC over-voltage protection

When the input phase voltage is higher than the over-voltage threshold, the system takes a protection action against over-voltage.

Protection functions

AC under-voltage protection

When the input phase voltage is lower than the under-voltage threshold, the system takes a protection action against under-voltage.

Table 3-5 DC Electrical Specifications

Item Specification

DC output voltage Rated output voltage: -53.5 V Output voltage

range

-42 V to -58 V (adjustable in the CSU)

DC voltage drop inside the cabinet

≤ 0.5 V Regulated voltage precision ≤ 0.5% Weighted noise voltage ≤ 2 mV DC output features Peak-peak noise voltage ≤ 150 mV (20 MHz bandwidth) DC over-voltage protection

When the DC output voltage is higher than the over-voltage threshold, the system takes a protection action against over-voltage.

DC under-voltage protection

When the DC output voltage is lower than the under-voltage threshold, the system takes a protection action against under-voltage.

Protection functions

Battery under-voltage protection

Battery Low Voltage Disconnect (BLVD): If the battery voltage is lower than the BLVD threshold, the system disconnect the batteries.

(23)

Table 3-6 Interface Specifications

Location Interface Description

USBinterface l Supports USB flash drives but does not support portable hard disks, MP3 or MP4.

l Use a 2 GB (or below) USB flash drive with available capacity greater than 32 MB.

On the front panel of the CSU

Communication interfaces

One adaptive 10 M/100 M RJ45 Ethernet interface

Communication interfaces

One RS232 interface, one RS485 interface

Baud rate: 1200 bps, 2400 bps, 9600 bps, 19200 bps, 38400 bps, 57600 bps, 115200 bps

Input relay interfaces

Four input relays, the user can set the alarms for the input relays in the CSU.

Output relay interfaces

Nine output relays

l Eight for the users to set in the CSU l One for the CSU fault

On theSIB(in theSIU)

Environment detection interfaces

l Four battery temperature interfaces l One environment temperature interface l One door alarm interface

l One flood alarm interface

Table 3-7 Structure Specifications

Item Specifications

Chassis dimensions (H × W × D) 8.6 in. ×19.0 in. × 14.2 in./219.4 mm × 482.6 mm × 360 mm Chassis weight Approximately 44.1 lb/20 kg (excluding rectifiers and CSU) ZXD3000 (V5.0) rectifier weight 4.4 lb/2 kg/set, four sets (maximum)

CSU weight 2.9 lb/1.3 kg

Installation mode Installation in a cabinet/rack

3.4 Compliance Standards

EMC Standards

The ZXDU68 B201 system is in compliance with the following Electromagnetic

Compatibility (

EMC

) standards:

l

EN55022

l

IEC61000-3-3;

IEC61000-3-2;

IEC61000-4-2;

IEC61000-4-3;

IEC61000-4-4;

(24)

Safety Standards

The ZXDU68 B201 system is in compliance with the UL/IEC/EN 60950 safety standards.

Other Standards

The ZXDU68 B201 system is also in compliance with the following standards:

l

The Restriction of Hazardous Substances (

RoHS

) directive (2002/95/EC) of the

European Union.

l

This device complies with Part 15 of the FCC Rules. Operation is subject to the

fol-lowing two conditions: (1) this device may not cause harmful interference, and (2) this

device must accept any interference received, including interference that may cause

undesired operations.

(25)

Chapter 4

Rectifier Specifications

Table of Contents

Technical Specifications ...4-1

Input Features ...4-3

Output Features ...4-4

Power Decrease With High Temperature ...4-5

4.1 Technical Specifications

For the technical specifications of the ZXD3000 (V5.0) rectifiers, refer to

Table 4-1

.

Table 4-1 Technical Specifications

Item Description

Input mode Single-phase three-wire (L/N/PE) Input voltage l Input voltage: 85 V to 295 V

l Rated input voltage: 100 V to 240 V Maximum input current 18 A

Frequency l Frequency: 45 Hz to 66 Hz

l Rated frequency: 50 Hz/60 Hz AC input

Input power factor ≥ 0.998 (when the input and output values are rated)

Maximum output power 3,000 W (when the input voltage is 176 V to 295 V and the environment temperature is -40 ℃ to 55 ℃) Rated output voltage 53.5 V

Range of output voltage 42 V to 59.5 V

Adjusted through the monitoring unit of the power system

Output current limit 5 A to 63.5 A

Set through the monitoring unit

Efficiency l Peak efficiency: ≥ 96%

l Efficiency with the rated load: ≥ 95% Voltage stabilizing accuracy ≤ ±0.6%

Output weighted noise ≤ 2 mV DC output

(26)

Item Description

Broad frequency noise voltage

l ≤ 50 mV (3.4 kHz to 150 kHz) l ≤ 20 mV (0.15 MHz to 30 MHz) Discrete frequency noise

voltage

l ≤ 5 mV (3.4 kHz to 150 kHz) l ≤ 3 mV (150 kHz to 200 kHz) l ≤ 2 mV (200 kHz to 500 kHz) l ≤ 1 mV (0.5 MHz to 30 MHz) Peak-to-peak noise voltage ≤ 200 mV (bandwidth of 0 Hz to 20 MHz)

Inter-rectifier load sharing The number of the rectifiers that can be connected in parallel is not less than 30; when the output current of a single rectifier is 10% to 100% of the rated value, the output current imbalance of the rectifiers is not greater than 1.5 A.

Dielectric strength l 2840 VDC voltage of the AC input terminals to the chassis for one minute: no breakdown or arc; the stable leakage current is less than 1 mA.

l 4242 VDC voltage of the AC input terminals to the DC output terminals for one minute: no breakdown or arc; the stable leakage current is less than 1 mA.

l 707 VDC voltage of the DC output terminals to the chassis for one minute: no breakdown or arc; the stable leakage current is less than 1 mA.

l 707 VDC voltage of other interfaces to the chassis for one minute: no breakdown or arc; the stable leakage current is less than 1 mA. Safety standard Compliant with IEC60950

Safety protection

Electromagnetic compatibility

Compliant with EN55022 Class B and IEC61000

Mean time between failures MTBF≥ 2 × 105h

Cooling mode l Forced cooling;

l The fan speed can be adjusted according to the environment temperature and the working status of the rectifier.

Environment requirement l Operating temperature: -40 ℃ to 75 ℃ l Storage temperature: -40 ℃ to 85 ℃ l Relative humidity: ≤ 95% (non-condensing) l Air pressure: 80 kPa to 106 kPa

(27)

Item Description

Weight 2 kg

4.2 Input Features

Overview

The ZXD3000 (V5.0) rectifier automatically adjusts its operational status according to the

AC

input voltage.

The input features include the under-voltage protection, over-voltage protection, and power

limit.

Under-Voltage Protection

When the AC input voltage is lower than the under-voltage threshold, the rectifier

automatically shuts down and provides no output. Meanwhile, the alarm indicator is on.

After the AC input voltage reaches the under-voltage recovery threshold, the rectifier

automatically recovers.

The under-voltage recovery threshold = the AC input under-voltage threshold + the return

difference.

The AC input under-voltage threshold is (85 ± 5) V and the return difference ranges from

8 V to 12 V.

Over-Voltage Protection

When the AC input voltage is higher than the over-voltage threshold, the rectifier

automatically shuts down and provides no output. Meanwhile, the alarm indicator is

on. After the AC input voltage falls to the over-voltage recovery threshold, the rectifier

automatically recovers.

The over-voltage recovery threshold = the AC input over-voltage threshold – the return

difference.

The AC input over-voltage threshold is (295 ± 5) V and the return difference ranges from

5 V to 10 V.

Power Limit

The rectifier limits its output power according to the input voltage.

See

Figure 4-1

for the power limit feature of the rectifier when the following conditions are

met.

l

Environment temperature: -25 ℃ to 55 ℃

(28)

Figure 4-1 Power Limit Feature 1. Under-voltage threshold (85±5 V) 2. 55% power (110 V) 3. Maximum power (176 V) 4. Over-voltage threshold (295±5 V)

For the relationship between the AC input voltage and the output power, refer to

Table 4-2

.

Table 4-2 Relationship Between AC Input Voltage and Output Power

AC Input Voltage Output Power (Percentage of the Maximum Output Power)

≤ (85 ± 5) V 0

(85 ± 5) V to 110 V 40% to 55%

110 V to 176 V 55% to 100%

176 V to (295 ± 5) V 100%

> (295 ± 5) V 0

• Maximum output power: 3000 W (when the input voltage is 176 V to 295 V and the environment temperature is -40 ℃ to +55 ℃)

4.3 Output Features

See

Figure 4-2

for the output features of the ZXD3000 (V5.0) rectifier when the following

conditions are met.

l

AC

input voltage of the rectifier: 176 V to 295 V

(29)

Figure 4-2 Output Features

As shown in

Figure 4-2

, the output features of the rectifier can be concluded as follows:

l

When the output voltage ranges from 42 V to 48 V, the maximum output current is

constant.

l

When the output voltage ranges from 48 V to 59.5 V, the maximum output power is

constant.

l

When the output voltage is lower than 36 V, the rectifier restarts for protection.

When the environment temperature ranges from -25 ℃ to +55 ℃ and the input voltage

ranges from 85 V to 176 V, the rectifier still has the above output features. However,

because of the power limit feature, when the input voltage ranges from 85 V to 176 V, the

output power cannot reach the highest percentage (100%). Therefore, the input voltage

affects the maximum output power and maximum output current.

4.4 Power Decrease With High Temperature

The feature of power decrease with high temperature refers to that the output power of

the ZXD3000 (V5.0) rectifier decreases with the increase of the environment temperature

when the environment temperature reaches the over-temperature threshold.

(30)

Figure 4-3 Power Decrease With High Temperature

For a description of the feature, refer to

Table 4-3

.

Table 4-3 Power Decrease With High Temperature

Environment Temperature Output Power (Percentage of the Maximum Power)

-40 ℃ to +55 ℃ 100%

+55 ℃ to 75 ℃ The output power decreases with the increase of the temperature and is not less than 50% when the temperature is 75 ℃.

(31)

Chapter 5

Alarm List

For a description of the alarms, refer to

Table 5-1

(presently, the alarms marked with a “*”

do not appear in the CSU).

Note:

l

The software codes A1 to A8 correspond to the eight output relays on the

SIB

.

l

Multiple alarms can share one output relay. Each alarm cannot correspond to multiple

output relays but one output relay only. “No” means that no output relay is assigned

to an alarm.

l

Except for Total Alarm, the output relay for an alarm will not take effect when its alarm

level is set to Mask.

l

Except for Access Ctrl.Alm., the output relay for an alarm changes its state and

provides an alarm signal in 30 seconds after the alarm occurs.

Table 5-1 Alarm List

S.N. Alarm Name Alarm Level and Output Relay

Alarm Description

Battery and System Alarms

1 Common Alarm Default level: Mask Default relay: No

TheCSUdetects that an alarm occurs.

2 Batt.Test Fail Default level: Mask Default relay: No

A battery test is terminated when the battery voltage reaches Test Stop Volt. while the battery capacity does not reach Test Stop Cap. 3* LLVD1 Alarm Default level: Critical

Default relay: A1

The system disconnects the LLVD1 loads (secondary loads) when the system meets one of the following conditions.

l With Disconnect Mode set to Batt.Volt., the battery voltage is lower than LLVD1 Voltage.

l With Disconnect Mode set to Batt.Rem.Cap., the battery voltage is lower than LLVD1 Voltage or the remaining battery capacity is lower than LLVD1 Capacity.

(32)

S.N. Alarm Name Alarm Level and Output Relay

Alarm Description

l With Disconnect Mode set to PowerOff Time, the battery voltage is lower than LLVD1 Voltage or the power-off time is longer than LLVD1 Duration.

4* LLVD2 Alarm Default level: Critical Default relay: A1

The system disconnects the LLVD2 loads (primary loads) when the system meets one of the following conditions.

l With Disconnect Mode set to Batt.Volt., the battery voltage is lower than LLVD2 Voltage.

l With Disconnect Mode set to Batt.Rem.Cap., the battery voltage is lower than LLVD2 Voltage or the remaining battery capacity is lower than LLVD2 Capacity.

l With Disconnect Mode set to PowerOff Time, the battery voltage is lower than LLVD2 Voltage or the power-off time is longer than LLVD2 Duration.

5 CAN Bus Abnormal Default level: Mask Default relay: No

The CAN bus cannot send or receive data normally due to some communication error. 6 Batt.Det.Abnor. Default level: Critical

Default relay: A1

The battery voltage is lower than Test Stop Volt. in the process of the battery test. 7 BLVDAlarm Default level: Critical

Default relay: A1

The system disconnects the batteries when the system meets one of the following conditions. l With Disconnect Mode set to Batt.Volt., the battery voltage is lower than BLVD Voltage.

l With Disconnect Mode set to Batt.Rem.Cap., the battery voltage is lower than BLVD Voltage or the remaining battery capacity is lower than BLVD Capacity.

l With Disconnect Mode set to PowerOff Time, the battery voltage is lower than BLVD Voltage or the power-off time is longer than BLVD Dura.

8* LLTDAlarm Default level: Critical Default relay: A1

When the environment temperature is lower than LLTD Env.Temp., the system disconnects the LLVD1 and LLVD2 loads.

(33)

S.N. Alarm Name Alarm Level and Output Relay

Alarm Description

9* BHTDAlarm Default level: Critical Default relay: A1

When the battery temperature is higher than BHTD Temp., the system disconnects the batteries.

10 All Alarm Blocked Default level: Critical Default relay: A1

The system does not display any other real-time alarms. This can be set through Alm.Ctrl.

11 Batt.Equal Default level: Mask Default relay: No

The system charges the batteries in boost (equalized) charge mode.

12* BMU Comm.Fail Default level: Mask Default relay: 0

The Battery Monitoring Unit (BMU) fails to communicate with the CSU.

13 Multi-SMR Alm Default level: Major Default relay: A1

Two or more Switching Mode Rectifiers (SMRs) are faulty or fail to communicate with the CSU. 14 Sys. OverL Alm Default level: Critical

Default relay: A1

This alarm (system over-load alarm) indicates the following:

l All rectifier slots are occupied. l All rectifiers are operating properly. l The ratio of the total DC output current

to the sum of the rated output current of the operating rectifiers is higher than the system over-load threshold (Sys. OverL Thre.)

15 Sys. LowCap. Alm Default level: Critical Default relay: A1

This alarm indicates the following:

l Not all the rectifiers are operating properly. For example, a DC power system is equipped with four rectifier slots, but only two or three rectifiers are operating normally.

l The ratio of the total DC output current to the sum of the rated output current of the operating rectifiers is higher than Sys. OverL Thre.

16 Batt.Cap. NoConfig Default level: Critical Default relay: A1

All the battery capacities are set to values less than 10 Ah in the CSU.

AC Alarms

17 AC Power Off Default level: Major Default relay: A3

The mains power fails and there is no standby AC input.

18* AC In.Switch Off Default level: Mask Default relay: 0

(34)

S.N. Alarm Name Alarm Level and Output Relay

Alarm Description

19 AC Volt.High Default level: Major Default relay: A3

The AC input voltage is higher than AC Volt.H.Thre.

20 AC Volt.Low Default level: Major Default relay: A3

The AC input voltage is lower than AC Volt.L.Thre.

21 AC Phase Lack Default level: Major Default relay: A3

The AC input lacks one phase or two.

22 AC Volt.Imbala. Default level: Major Default relay: A3

The difference between AC input voltages is greater than AC Volt.Imbala.

23 AC Curr.High Default level: Major Default relay: A3

The AC input current is higher than AC Curr.H.Thre.

24* AC Out.Switch Off Default level: Mask Default relay: 0

The auxiliary AC output circuit breaker trips.

25* AC SPD Abnor Default level: Mask Default relay: No

The AC Surge Protection Device (SPD) is damaged or not installed.

Rectifier Alarms

26 SMRFan Fault Default level: Major Default relay: A1

The rectifier fan is faulty.

27 SMR Ra.T.H.O Default level: Major Default relay: A1

The temperature of the PFC heat radiator is higher than the maximum radiator temperature (110 ℃).

28 SMR In.V.H.O. Default level: Major Default relay: A1

The AC input voltage of the rectifier is higher than the maximum input voltage (300 V). 29 SMR In.V.L.O. Default level: Major

Default relay: A1

The AC input voltage of the rectifier is lower than the minimum input voltage (80 V). 30 SMR Out.V.H.O. Default level: Major

Default relay: A1

The output voltage of the rectifier is higher than the maximum output voltage (56.6 V to 62 V, which can be set).

31 SMR Out.C.H. Default level: Major Default relay: A1

The output current of the rectifier is higher than the maximum output current (68 A).

32 SMR Inter.T.H. Default level: Major Default relay: A1

The temperature at the air inlet of the rectifier is higher than the maximum internal temperature (70 ℃).

33 SMR Out.Fuse Default level: Major Default relay: A1

The output fuse of the rectifier blows.

34 SMR Curr.Share Default level: Major Default relay: A1

When multiple rectifiers are working in parallel, the output current difference between these rectifiers is greater than the threshold (8 A).

(35)

S.N. Alarm Name Alarm Level and Output Relay

Alarm Description

35 SMR Input Off Default level: Major Default relay: A1

The power input of the rectifier is interrupted.

36 PFCOut.V.H. Default level: Major Default relay: A1

The output voltage of PFC is higher than the threshold (450 V).

37 PFC Out.V.L. Default level: Major Default relay: A1

The output voltage of PFC is lower than the threshold (345 V).

38 SMR EEPROM Default level: Major Default relay: A1

Errors occur when the rectifier reads and writes the EEPROM.

39 SMR In.Comm F. Default level: Major Default relay: A1

The communication inside the rectifier fails.

40 SMR Primy.C.H. Default level: Major Default relay: A1

The primary current of the transformer is higher than the threshold (28 A).

41 PFC Input C.H. Default level: Major Default relay: A1

Reserved alarm

42 SMR Start Abr. Default level: Major Default relay: A1

The starting time of the rectifier exceeds 5 minutes.

43 SMR In.Fuse Default level: Major Default relay: A1

The input fuse of the rectifier blows.

44 SMR Comm.Fail Default level: Major Default relay: A1

The communication between the rectifier and theCSUis interrupted because the rectifier is removed or there is some communication exception.

45 SMR In.Freq. Default level: Major Default relay: A1

The input frequency of the rectifier is too high (higher than 73 Hz) or too low (lower than 40 Hz).

46 SMR Out.V.L. Default level: Major Default relay: A1

The output voltage of the rectifier is lower than the threshold (36 V).

DC Alarms

47 DC Volt.High Default level: Major Default relay: A1

The DC output voltage is higher than DC Volt.High Thre.

48 DC Volt.Low Default level: Major Default relay: A1

The DC output voltage is lower than DC Volt.Low Thre.

49* DC SPD Abnor. Default level: Mask Default relay: No

The DC SPD is faulty.

50 Batt.Volt.Low Default level: Major Default relay: A1

The voltage of a battery pack is lower than Batt.Volt.L.Thre.

(36)

S.N. Alarm Name Alarm Level and Output Relay

Alarm Description

51 Batt.Curr.Abr. Default level: Minor Default relay: A5

The rate of the detected battery current to the highest detectable current is greater than Batt.Curr.Abn.Rate.

52 Batt.Temp.High Default level: Major Default relay: A1

The battery temperature is higher than Batt.Temp.H.Thre.

53 Batt.Temp.Low Default level: Major Default relay: A1

The battery temperature is lower than Batt.Temp.L.Thre.

54 Batt.Loop Brk. Default level: Critical Default relay: A1

The battery loop is disconnected.

55 Batt.Dischg. Default level: Minor Default relay: A5

The battery discharging current is higher than Batt.Dischg Thre.

56 Batt.T.Invalid Default level: Warning

Default relay: A5

The system is configured with batteries, but the battery temperature detection is ineffective. The battery temperature sensor is not installed or the battery temperature is out of the detection range.

57* LLVD1 Extend Brk. Default level: Mask Default relay: 0

The circuit breaker or fuse of the extended LLVD1 loop trips or blows.

58* LLVD1 Loop B. Default level: Mask Default relay: 0

The circuit breaker or fuse of the LLVD1 loop trips or blows.

59* LLVD2 Extend Brk. Default level: Mask Default relay: 0

The circuit breaker or fuse of the extended LLVD2 loop trips or blows.

60* BLVD Extend Brk. Default level: Mask Default relay: 0

The fuse of the extended BLVD loop blows.

61 BLVD Loop Brk. Default level: Major Default relay: A1

The fuse of the BLVD loop blows.

62 Cell Reverse Default level: Major Default relay: A1

One or more 2 V batteries are reversely connected.

63 Block Reverse Default level: Major Default relay: A1

One or more 12 V batteries are reversely connected.

64 Cell Poor Default level: Major Default relay: A1

The voltage of one or more 2 V batteries is lower than Cell Volt.Diff.

65 Block Poor Default level: Major Default relay: A1

The voltage of one or more 12 V batteries is lower than Block Volt.Diff.

66 DC.Loop.Brk. Default level: Major Default relay: A1

The circuit breaker (or fuse) of the DC output loop trips (or blows).

(37)

S.N. Alarm Name Alarm Level and Output Relay

Alarm Description

67 Load Ext.Brk. Default level: Major Default relay: A1

The circuit breaker (or fuse) of the extended DC output loop trips (or blows).

Environment Alarms

68 Env.Temp.High Default level: Minor Default relay: A4

The environment temperature is higher than Env.Temp.H.Thre.

69 Env.Temp.Low Default level: Minor Default relay: A5

The environment temperature is lower than Env.Temp.L.Thre.

70 Env.Hum.High Default level: Minor Default relay: A5

The environment humidity is higher than Env.Hum.H.Thre.

71 Env.Hum.Low Default level: Minor Default relay: A5

The environment humidity is lower than Env.Hum.L.Thre.

72 Smog Alarm Default level: Major Default relay: A1

The sensor detects smog.

73 Flood Alarm Default level: Major Default relay: A1

The sensor detects flood.

74 Access Ctrl.Alm. Default level: Minor Default relay: A5

The sensor detects illegal intrusion.

75 Door Alarm Default level: Major Default relay: A2

The door with the door status switch is opened.

76 Glass Brk.Alm. Default level: Minor Default relay: A5

The sensor detects broken glasses.

77 Env.Temp.Invalid Default level: Mask Default relay: No

The environment temperature sensor is damaged or not installed.

78 Env.Hum.Invalid Default level: Mask Default relay: No

The environment humidity sensor is damaged or not installed.

(38)
(39)

Appendix A

Electrical Connection

Diagram

For the simplified block diagram of the ZXDU68 B201 (V5.0R06M09) system operating

principles, see

Figure A-1

.

Figure A-1 Operating Principles of the System

The system components are described as follows.

l

AC distribution unit: The AC distribution unit connects AC input to the system and

distributes AC power.

l

Rectifiers: The rectifiers convert AC power to DC power.

l

DC distribution unit: The DC distribution unit provides DC output to the loads and

connects the batteries to the system.

l

CSU: The Centralized Supervision Unit collects the system operation data and

manages the system.

l

Batteries: The batteries provides DC power to the loads with mains failure.

For the detailed electrical connection diagram of the ZXDU68 B201 (V5.0R06M09) system,

see

Figure A-2

.

(40)

B201

Product

Description

Figure A-2 Electrical Connection Diagram of the ZXDU68 B201 (V5.0R06M09) System

A -2 -20120703093141 -002|2013 -01 -08 (R1.2) ZTE Proprietary and Confidential

(41)

Glossary

AC

- Alternating Current

BHTD

- Battery High Temperature Disconnect

BLVD

- Battery Low Voltage Disconnect

BMU

- Battery Monitoring Unit

CAN

- Controller Area Network

CSU

- Centralized Supervision Unit

DC

- Direct Current

EMC

- Electro Magnetic Compatibility

EMC

- Electromagnetic Compatibility

EMI

- Electromagnetic Interference

ESD

- Electrostatic Discharge

FTP

- File Transfer Protocol

HTTP

- Hypertext Transfer Protocol

LCD

- Liquid Crystal Display

LLTD

- Load Low Temperature Disconnect

LLVD

- Load Low Voltage Disconnect

MCB

(42)

MTBF

- Mean Time Between Failures

PE

- Protective Earth

PFC

- Power Factor Correction

RoHS

- Restriction of Hazardous Substances

SC

- Supervision Center

SIB

- Signal Interface Board

SIU

- Signal Interface Unit

SMR

- Switching Mode Rectifier

SNMP

- Simple Network Management Protocol

SPD

- Surge Protection Device

THD

- Total Harmonic Distortion

USB

References

Related documents

During the thesis work, I measured six different parameters: the number of emergency processes, hash table entry number, caching replacement policy, cache entry

Comments This can be a real eye-opener to learn what team members believe are requirements to succeed on your team. Teams often incorporate things into their “perfect team

The targeted real estate ads reminded consumers to check state licenses before hiring a real estate professional and provided the Department’s website for consumers and licensed real

Guaranteed cash and prizes of $80,000 are up for grabs in the Bingo Bugle’s 24th Annual World Championship Bingo Tournament. Every player receives a 9-on package of Bingo paper

In the previous sections, we dis- cuss the expectation that a neural network exploiting the fractional convolution should perform slightly worse than a pure binary (1-bit weights

Colliers International makes no guarantees, representations or warranties of any kind, expressed or implied, regarding the information including, but not limited to, warranties

• Our goal is to make Pittsburgh Public Schools First Choice by offering a portfolio of quality school options that promote high student achievement in the most equitable and

The largest transactions in the third quarter of 2015 on the Polish M&A market were the acquisition of PKP Energetyka SA by the CVC Capital Partners and the acquisition of