NE5000E Hardware Description(V800R002C01_01).pdf

HUAWEI NetEngine5000E Core Router V800R002C01

NE5000E Hardware Description Issue

01

Date

2011-10-15

HUAWEI TECHNOLOGIES CO., LTD.

Copyright © Huawei Technologies Co., Ltd. 2011. All rights reserved. No part of this document may be reproduced or transmitted in any form or by any means without prior written consent of Huawei Technologies Co., Ltd.

Trademarks and Permissions and other Huawei trademarks are trademarks of Huawei Technologies Co., Ltd. All other trademarks and trade names mentioned mentioned in this document are the property of of their respective respective holders. holders.

Notice The purchased products, services and features are stipulated by the contract made between Huawei and the customer. All or part of the products, services and features described in this document document may not be within the purchase scope or the usage scope. Unless otherwise specified in the contract, all statements, information, information, and recommendations in this document are provided "AS IS" without warranties, guarantees or representations of any kind, either express or implied. The information in this document is subject to change without notice. Every effort has been made in the preparation of this document to ensure accuracy of the contents, but all statements, information, and recommendations recommendations in this document do not constitute the warranty of any kind, express or implied.

Huawei Technologies Co., Ltd. Address:

Huawei Industrial Industrial Base Bantian, Longgang Shenzhen 518129 People's Republic of China

Website:

http://www.huawei.com

Email:

[email protected]

Issue 01 (2011-10-15)

Huawei Proprietary and Confidential Copyright © Huawei Technologies Co., Ltd.

i

Copyright © Huawei Technologies Co., Ltd. 2011. All rights reserved. No part of this document may be reproduced or transmitted in any form or by any means without prior written consent of Huawei Technologies Co., Ltd.

Trademarks and Permissions and other Huawei trademarks are trademarks of Huawei Technologies Co., Ltd. All other trademarks and trade names mentioned mentioned in this document are the property of of their respective respective holders. holders.

Notice The purchased products, services and features are stipulated by the contract made between Huawei and the customer. All or part of the products, services and features described in this document document may not be within the purchase scope or the usage scope. Unless otherwise specified in the contract, all statements, information, information, and recommendations in this document are provided "AS IS" without warranties, guarantees or representations of any kind, either express or implied. The information in this document is subject to change without notice. Every effort has been made in the preparation of this document to ensure accuracy of the contents, but all statements, information, and recommendations recommendations in this document do not constitute the warranty of any kind, express or implied.

Huawei Technologies Co., Ltd. Address:

Huawei Industrial Industrial Base Bantian, Longgang Shenzhen 518129 People's Republic of China

Website:

http://www.huawei.com

Email:

[email protected]

Issue 01 (2011-10-15)


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HUAWEI NetEngine5000E Core Router NE5000E Hardware Description

About This Document

About This Document Intended Audience This document describes the contents, related version, intended audience, conventions, and update history of the HUAWEI NetEngine5000E Core Router Hardware Description. Description.

CAUTION

For the NE5000E, the interface is numbered as slot number/card number/interface number. For the NE5000E cluster, the interface is numbered as chassis ID/slot number/card number/interface number. The chassis ID must be specified along with t he slot number. The intended audience of this document are: l

Commissioning Engineers

l

Data Configuration Engineers

l

Network Monitoring Engineers Engineers

l

System Maintenance Engineers

Related Versions (Optional) The following table lists the product versions related to this document.

Product Name

Version

HUAWEI NetEngine5000E Core Router

V800R002C01

Symbol Conventions The symbols used in this document are described in the following table. They are defined as follows.

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Symbol

About This Document

Description Indicates a hazard with a high level of risk, which if not avoided, will result in death or serious injury.

Indicates a hazard with a medium or low level of risk, which if not avoided, could result i n minor or moderate injury. Indicates a potentially hazardous situation, which if not avoided, could result in equipment damage, data loss, performance degradation, or unexpected results. Indicates a tip that may help you solve a problem or save time. Provides additional information to emphasize or supplement important points of the main text.

Change History Updates between document issues are cumulative. Therefore, the latest document issue contains all updates made in previous issues.

Changes in Issue 01 (2011-10-15) The Initial commercial release.

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Contents

Contents About This Document.....................................................................................................................ii 1 NE5000E Cluster.............................................................................................................................1 1.1 Overview............................................................................................................................................................2 1.1.1 Cluster Overview.......................................................................................................................................2 1.1.2 Cluster Architecture...................................................................................................................................3 1.1.3 Cluster Features.........................................................................................................................................3 1.2 Inter-Chassis Connection of the NE5000E Cluster............................................................................................4 1.2.1 Inter-chassis Connections in CCC-0..........................................................................................................4 1.2.2 Inter-chassis Connections in CCC-2..........................................................................................................5

2 NE5000E CLC..................................................................................................................................8 2.1 Overview............................................................................................................................................................9 2.1.1 System Overview.......................................................................................................................................9 2.1.2 System Features.......................................................................................................................................10 2.1.3 Components of the NE5000E..................................................................................................................10 2.1.4 Slots layout of the NE5000E...................................................................................................................11 2.1.5 System Configurations............................................................................................................................12 2.2 Power Su pply System.......................................................................................................................................13 2.2.1 Architecture of the Power Supply System...............................................................................................13 2.2.2 Partitioned Power Supply on a CLC........................................................................................................14 2.2.3 8000W DC Power Supply System...........................................................................................................14 2.2.4 8000W AC Power Supply System...........................................................................................................17 2.3 Heat Dissi pation System...................................................................................................................................19 2.3.1 System Air Channel.................................................................................................................................19 2.3.2 Fan Speed Adjustment.............................................................................................................................20 2.3.3 System Fan Module.................................................................................................................................20 2.3.4 Air Filter..................................................................................................................................................23 2.4 LCD Module.....................................................................................................................................................23 2.4.1 Appearance and Front Panel of the LCD.................................................................................................23 2.4.2 Display Mode..........................................................................................................................................24 2.4.3 Display Contents......................................................................................................................................25 2.4.4 Technical Specifications..........................................................................................................................32 2.5 Switching Fabric...............................................................................................................................................33

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2.5.1 Introduction to the Switching Fabric.......................................................................................................33 2.5.2 SFEB........................................................................................................................................................34 2.6 Control Plane....................................................................................................................................................36 2.6.1 Introduction to the Control Plane............................................................................................................36 2.6.2 MPU.........................................................................................................................................................37 2.7 Physical Specifications.....................................................................................................................................42 2.7.1 Chassis Specifications.............................................................................................................................42 2.7.2 Board S pecifications................................................................................................................................43

3 Boards............................................................................................................................................46 3.1 Flexible Card Line Processing Unit(LPUF100,4 sub-slots).............................................................................47 3.1.1 5-Port 10GBase LAN-XFP Flexible Card(2 sub-slots)...........................................................................48 3.1.2 5-Port 10GBase LAN/WAN-XFP Flexible Card(2 sub-slots)................................................................51 3.1.3 2-Port 10GBase LAN-XFP Flexible Card(1 sub-slot)............................................................................54 3.1.4 2-Port 10GBase LAN/WAN-XFP Flexible Card(1 sub-slot)..................................................................57 3.1.5 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card(1 sub-slot)..................................................60 3.1.6 1-port OC-768c/STM-256c POS-LC Flexible Card(2 sub-slots)............................................................63 3.1.7 24-port 1000Base-X-SFP Flexible Card(2 sub-slots)..............................................................................66 3.2 1-Port 100GBase-CFP Integrated Line Process Unit(LPUI-100)....................................................................69 3.3 1000Base-X-SFP Optical Interface LPU..........................................................................................................72 3.3.1 10-port 1000Base-X-SFP optical interface LPU.....................................................................................72 3.3.2 20-port 1000Base-X-SFP optical interface LPU.....................................................................................77 3.4 10G Ethernet Optical Interface LPU................................................................................................................81 3.4.1 1-port 10GBase LAN-XFP optical interface LPU..................................................................................82 3.4.2 1-port 10GBase WAN-XFP Optical Interface LPU................................................................................86 3.4.3 2-port 10GBase LAN-XFP optical interface LPU..................................................................................90 3.4.4 2-port 10GBase WAN-XFP optical interface LPU.................................................................................95 3.4.5 4-port 10GBase LAN-XFP optical interface LPU..................................................................................99 3.4.6 4-port 10GBase WAN-XFP optical interface LPU...............................................................................104 3.5 OC-48c/STM-16c POS-SFP Optical Interface LPU......................................................................................108 3.5.1 1-port OC-48c/STM-16c POS-SFP optical interface LPU....................................................................108 3.5.2 2-port OC-48c/STM-16c POS-SFP optical interface LPU....................................................................112 3.5.3 4-port OC-48c/STM-16c POS-SFP optical interface LPU....................................................................116 3.5.4 8-port OC-48c/STM-16c POS-SFP optical interface LPU....................................................................120 3.6 OC-192c/STM-64c POS-XFP Optical Interface L PU....................................................................................124 3.6.1 1-port OC-192c/STM-64c POS-XFP optical interface LPU.................................................................125 3.6.2 2-port OC-192c/STM-64c POS-XFP optical interface LPU.................................................................129 3.6.3 4-port OC-192c/STM-64c POS-XFP optical interface LPU.................................................................133 3.7 Combination LPU...........................................................................................................................................137 3.7.1 Overview...............................................................................................................................................137 3.7.2 Application............................................................................................................................................138 3.7.3 Features and Functions..........................................................................................................................138 3.7.4 Panel......................................................................................................................................................138 Issue 01 (2011-10-15)


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3.7.5 Interface Attributes................................................................................................................................140 3.7.6 Technical Specifications........................................................................................................................144

4 Cables...........................................................................................................................................145 4.1 DC-Input Power Cable...................................................................................................................................146 4.1.1 8000W DC-Input Power Cable..............................................................................................................146 4.2 AC-input Power Cable....................................................................................................................................147 4.2.1 8000W AC-input Power Cable..............................................................................................................147 4.3 Chassis and Cabinet Grounding Cable...........................................................................................................148 4.3.1 Introduction...........................................................................................................................................148 4.3.2 Structur e.................................................................................................................................................148 4.3.3 Technical Specifications........................................................................................................................148 4.4 Console Port Cable.........................................................................................................................................149 4.4.1 Introduction...........................................................................................................................................149 4.4.2 Structur e.................................................................................................................................................149 4.4.3 Technical Specifications........................................................................................................................150 4.5 Auxiliary Port Cable.......................................................................................................................................150 4.5.1 Introduction...........................................................................................................................................150 4.5.2 Structur e.................................................................................................................................................151 4.5.3 Technical Specifications........................................................................................................................152 4.6 Clock Cable....................................................................................................................................................152 4.6.1 Introduction...........................................................................................................................................152 4.6.2 Structur e.................................................................................................................................................153 4.6.3 Technical Specifications........................................................................................................................155 4.7 Ethernet Cable................................................................................................................................................157 4.7.1 Introduction...........................................................................................................................................157 4.7.2 Structur e.................................................................................................................................................157 4.7.3 Technical Specifications........................................................................................................................159 4.8 CXP Fiber.......................................................................................................................................................160 4.8.1 Overview of CXP Fiber Optics.............................................................................................................160 4.8.2 Structur e.................................................................................................................................................160 4.8.3 Technical Specifications........................................................................................................................162 4.9 Optical Fi ber...................................................................................................................................................163 4.9.1 Introduction...........................................................................................................................................163 4.9.2 Structur e.................................................................................................................................................164 4.9.3 Technical Specifications........................................................................................................................165

A Appendix A List of Indicators................................................................................................167 A.1 Indicators of NE5000E.................................................................................................................................. 168 A.1.1 Fan Module Indicators..........................................................................................................................168 A.1.2 Power Module Indicators......................................................................................................................168 A.1.3 MPU Indicators.....................................................................................................................................169 A.1.4 SFU Indicators......................................................................................................................................170 A.1.5 SFEB Indicators....................................................................................................................................171 Issue 01 (2011-10-15)


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Contents

A.1.6 LPU Indicators......................................................................................................................................172

B Appendix B List of Boards......................................................................................................173 B.1 Boards............................................................................................................................................................174 B.2 Power Consumption and Weight...................................................................................................................176

C Appendix C List of LPU Interface Attributes......................................................................179 C.1 Interface Attributes of 1000Base-X-SFP.......................................................................................................180 C.2 Interface Attributes of 10GBase LAN/WAN-XFP........................................................................................181 C.3 Interface Attributes of 10GBase LAN/WAN-XFP........................................................................................182 C.4 Interface Attributes of OC-48c/STM-16c POS-SFP......................................................................................183 C.5 Interface Attributes of OC-192c/STM-64c POS-XFP...................................................................................184

D Appendix D transceiver..........................................................................................................186 D.1 Instructions on How to Use an Optical Module............................................................................................187 D.2 1 Gbit/s Electrical Transceiver......................................................................................................................189 D.3 1.25 Gbit/s GBIC Optical Module.................................................................................................................191 D.4 1.25 Gbit/s SFP/eSFP Optical Module..........................................................................................................197 D.5 2.5 Gbit/s eSFP Optical Module....................................................................................................................211 D.6 10 Gbit/s XFP Optical Module......................................................................................................................216 D.7 100Gbps CFP Optical Modules.....................................................................................................................222

E Glossary......................................................................................................................................224 F Acronyms and Abbreviations.................................................................................................226

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1 NE5000E Cluster

1

NE5000E Cluster

About This Chapter 1.1 Overview This chapter provides an overview of NE5000E cluster. 1.2 Inter-Chassis Connection of the NE5000E Cluster This section describes the inter-chassis connection of the NE5000E cluster.

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1 NE5000E Cluster

1.1 Overview This chapter provides an overview of NE5000E cluster.

1.1.1 Cluster Overview This section describes the components of the Cluster. An NE5000E cluster consists of Cluster Central Chassis (CCCs) and Cluster Line-card Chassis (CLCs). A CLC consists of Switch and Fabric Units (SFUs), Line Processing Units (LPUs) and corresponding Physical Interface Cards (PICs), and Main Processing Units (MPUs). A CCC consists of (SFUs), Electric Cross Units (ECUs), Optical Flexible Cards (OFCs), Internal Communication Units (ICUs), and MPUs. NOTE

A CLC can be separately purchased and can work independently.

Figure 1-1 and Figure 1-2 show the appearance of a CCC. Figure 1-1 Appearance of the CCC (front view)

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1 NE5000E Cluster

Figure 1-2 Appearance of the CCC (rear view)

1.1.2 Cluster Architecture This section describes NE5000E cluster architecture. In the NE5000E cluster, multiple CLCs are managed by a centralized system. The cluster configurations vary with the number of CCCs and CLCs. Based on the number of CCCs, the NE5000E cluster can be classified into three types, namely, CCC-0 and CCC-2. Each CLC provides 16 LPU slots, the interface capacity of each CLC is 1.28 Tbit/s. (1 T = 1 x 10 12 bits) l

A single NE5000E consists of only one CLC and supports a maximum interface capacity of 1.28 Tbit/s. .

l

CCC-0, which is also called a back-to-back (BTB) system, consists of two CLCs and supports a maximum interface capacity of 2.56 Tbit/s. .

l

CCC-2 consists of two CCCs and eight CLCs. The number of CLCs is determined by actual requirements and cannot be more than eight.

1.1.3 Cluster Features This section describes the cluster features. Issue 01 (2011-10-15)


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1 NE5000E Cluster

The NE5000E cluster supports the following main features: l

Upgradable and congestion-free switching fabric, with the switching capacity at the Tbit/ s level

l

Distributed hardware-based forwarding

l

Separation of control channels and service channels to ensure unblocked control channels

l

Good rollback capability and expansibility, which supports: – Expansion from a single NE5000E into CCC-0 – Expansion from a single NE5000E into CCC-2 – Expansion from CCC-0 into CCC-2

l

Carrier-class high reliability and manageability

l

Centralized management by the CCC

l

Shielding at the modular level to meet Electro Magnetic Compatibility (EMC) requirements

l

Debugging and diagnosis of CLCs preformed on the CCC

l

Hot swapping of boards, power modules, and fan modules

l

1:1 backup of MPUs

l

3+1 load balancing between the SFUs on the CLC

l

7+1 load balancing between the SFUs on the CCC

l

Backup of key components, such as power modules, fan modules, clocks, and management buses

l

Protection against mis-insertion of boards

l

Queries about alarm prompts, alarm indications, running statuses, and alarm statuses

l

Queries about alarm prompts, alarm indications, running statuses, and alarm statuses of the voltage and ambient temperature

1.2 Inter-Chassis Connection of the NE5000E Cluster This section describes the inter-chassis connection of the NE5000E cluster. According to the number of CCCs, the NE5000E-X16 cluster is classified into the following models: l

CCC-0 – CCC-0 has no CCC and directly connects to two CLCs. The two CLCs are called the

master chassis and slave chassis. CCC-0 is also called the back-to-back system. l

CCC-2 – CCC-2 has two CCCs and connects to up to eight CLCs.

1.2.1 Inter-chassis Connections in CCC-0 This section describes Inter-chassis Connections in CCC-0. The general principle of inter-chassis connection in CCC-0 is as follows: The interfaces with the same number (the interfaces have same slot numbers, subcard numbers, and interface numbers) on two NE5000Es are interconnected. Inter-chassis connections in CCC-0 include control channels and data forwarding channels. Issue 01 (2011-10-15)


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HUAWEI NetEngine5000E Core Router NE5000E Hardware Description l

1 NE5000E Cluster

Figure 1-3 shows the connection of control channels.

ETH1 on MPUs are used to interconnect two CLCs, as shown in Figure 1-3,four MPUs use ETH1 for interconnection. l

Figure 1-3 shows the connection of data forwarding channels. The general principle is the same as that of the control channel connection.

In the figure, subcard 1 on SFE 22 is used as an example. The connections on the other SFEs are the same and the details are not provided here. Figure 1-3 Inter-chassis connections in CCC-0 (with all CLCs being NE5000Es) Master chassis

Slave chassis MPU

MPU 17

17

18

18

ETH0

ETH0

ETH1

ETH1

SFE 0 d r a c b u S 1 d r a c b u S

0 1 2 3 4 5 0 1 2 3 4 5

0 1 2 3 4 5 0 1 2 3 4 5

0 1 2 3 4 5 0 1 2 3 4 5

SFE 0 1 2 3 4 5 0 1 2 3 4 5

19 20 21 22

0 1 2 3 4 5 0 1 2 3 4 5

0 1 2 3 4 5 0 1 2 3 4 5

0 1 2 3 4 5 0 1 2 3 4 5

0 1 2 3 4 5 0 1 2 3 4 5

0 d r a c b u S 1 d r a c b u S

19 20 21 22

1.2.2 Inter-chassis Connections in CCC-2 This section describes Inter-chassis Connections in CCC-2. Inter-chassis connections in CCC-2 include control channels and data forwarding channels. l

Figure 1-4 shows the connection of control channels. NOTE

The control channels of CLCs can be connected to any idle interfaces numbered from 0 to 7 on the ICUs in slot 11 of CCC 1 and CCC 2. Two CLCs are used as an example in the preceding figure. l

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Figure 1-5 shows the connection of data forwarding channels.


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1 NE5000E Cluster

Figure 1-4 Inter-chassis control channel connection in CCC-2 (with all CLCs being NE5000Es) 17

18

11

CCC 1 CLC 1 11

17

18

CCC 2

CLC 2

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1 NE5000E Cluster

Figure 1-5 Inter-chassis data forwarding channel connection in CCC-2 (with all CLCs being NE5000Es)

CLC 6

CLC 5 C L C 5 2 - 0 - 0

C L C 5 2 - 1 - 0

C L C 5 2 - 2 - 0

C L C 6 1 - 9 - 0

C L C 6 2 - 0 - 0

C L C 6 2 - 1 - 0

C L C 6 2 - 2 - 0

C L C 7 1 - 9 - 0

C L C 7 2 - 0 - 0

C L C 7 2 - 1 - 0

C L C 7 2 - 2 - 0

C L C 8 1 - 9 - 0

C L C 8 2 - 0 - 0

C L C 8 2 - 1 - 0

C L C 8 2 - 2 - 0

C L C 5 - 1 9 - 1

C L C 5 - 2 0 - 1

C L C 5 - 2 1 - 1

C L C 5 - 2 2 - 1

C L C 6 - 1 9 - 1

C L C 6 - 2 0 - 1

C L C 6 - 2 1 - 1

C L C 6 - 2 2 - 1

C L C 7 - 1 9 - 1

C L C 7 - 2 0 - 1

C L C 7 - 2 1 - 1

C L C 7 - 2 2 - 1

C L C 8 - 1 9 - 1

C L C 8 - 2 0 - 1

C L C 8 - 2 1 - 1

C L C 8 - 2 2 - 1

CCC 1

1

2

3

0 1 2 3 4 5

4

03 14 25

CCC 2

5

6

7

8

0 1 2 3 4 5

03 14 25

1

2

3

4

5

6

7

8

The connection between subcard CLC1-19-0 and CLC2-19-0 is used as an example. The connections on the other subcards are similar.

C L C 1 - 1 9 0-

C L C 1 - 2 0 0-

C L C 1 - 2 1 0-

C L C 1 - 2 2 0-

C L C 2 - 1 9 0-

C L C 2 - 2 0 0-

C L C 2 - 2 1 0-

C L C 2 - 2 2 0-

C L C 3 - 1 9 0-

C L C 3 - 2 0 0-

C L C 3 - 2 1 0-

C L C 3 - 2 2 0-

C L C 4 - 1 9 0-

C L C 4 - 2 0 0-

C L C 4 - 2 1 0-

C L C 4 - 2 2 0-

C L C 1 - 1 9 - 1

C L C 1 - 2 0 - 1

C L C 1 - 2 1 - 1

C L C 1 - 2 2 - 1

C L C 2 - 1 9 - 1

C L C 2 - 2 0 - 1

C L C 2 - 2 1 - 1

C L C 2 - 2 2 - 1

C L C 3 - 1 9 - 1

C L C 3 - 2 0 - 1

C L C 3 - 2 1 - 1

C L C 3 - 2 2 - 1

C L C 4 - 1 9 - 1

C L C 4 - 2 0 - 1

C L C 4 - 2 1 - 1

C L C 4 - 2 2 - 1

CLC 1

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CLC 8

CLC 7

C L C 5 1 - 9 - 0

CLC 2

CLC 3


CLC 4

7


2 NE5000E CLC

2

NE5000E CLC

About This Chapter 2.1 Overview This section describes the hardware of the NE5000E. 2.2 Power Su pply System This chapter describes the power supply system of the NE5000E. 2.3 Heat Dissipation System This section describes the appearance, functions, and specifications of the heat dissipation system. 2.4 LCD Module This section describes the appearance, panel, display mode, displayed contents, and technical specifications of the LCD module. 2.5 Switching Fabric This section describes the functions of the SFU. 2.6 Control Plane This section describes the control plane of the NE5000E. 2.7 Physical Specifications This section describes the s pecifications of the chassis and boards.

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2 NE5000E CLC

2.1 Overview This section describes the hardware of the NE5000E. The core router NE5000E is developed on the basis of the hardware platform of the Huawei NE series product. It is designed for deployment at the key position of the Internet as a super core node of the backbone network. The NE5000E supports Layer 3 routing and MPLS forwarding. This chapter describes the main hardware components of the NE5000E.

2.1.1 System Overview This section describes the system overview. The NE5000E adopts a centralized routing engine and a distributed forwarding architecture. The core router NE5000E is designed with an integrated chassis, which can be assembled independently. The major components of the chassis, including the SFU, LPU, and MPU, are all hot-swappable. In addition, the chassis has independent power supply and heat dissipation systems. One NE5000E has 16 slots.The switching capacity of one chassis is 2.56 Tbit/s. (1T=1×1012 bits) Figure 2-1 Appearance of a single NE5000E

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2 NE5000E CLC

2.1.2 System Features This section describes main features of the NE5000E. The main features of the NE5000E are described as follows. l

Upgradable and congestion-free switching fabric, with the switching capacity at the Tbit/ s level.

l

The system adopts distributed hardware-based forwarding.

l

The control channel is separated from the service channel, thus ensuring the smooth functioning of the control channel.

l

Carrier-class high reliability and manageability.

l

Shielding at the modular level to meet Electro Magnetic Compatibility (EMC) requirements.

l

Hot-swappable boards, power modules, and fans.

l

1:1 redundancy of MPUs.

l

3+1 load balancing between the SFUs.

l

The system is equipped with redundant key components, such as power modules, fan modules, clocks, and management buses.

l

The system provides protection against mis-insertion of boards.

l

The system provides queries about alarm prompts, alarm indications, running statuses, and alarm statuses of power supply system.

l

The system provides queries about alarm prompts, alarm indications, running status, and alarm status of the voltage and ambient temperature.

2.1.3 Components of the NE5000E This section describes components of the NE5000E As shown in Figure 2-2, the NE5000E is designed with an integrated chassis. All the major components are hot-swappable.

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2 NE5000E CLC

Figure 2-2 Chassis components of the NE5000E 0 i n.） m 4 4 2 m

（1 7 .4

（ 2

6 .3 6 6 9 4 i n. m m ） 3 4 1 5 6 7

0

U S T A T S / 1 L A / L A / L A / L A / L A / L A / L A / L A

1 6 0 0 m m

8

/ L A / L A / L A / L A 1 0 1 1

0

U S T A T S / 1 L A / L A / L A / L A / L A / L A / L A / L A / L A / L A

（

/ L A / L A 1 0 11

6 2 . 9 9 in ） .

9 10

11 12 13 2

1. Air exhaust vent

2. Grounding terminal 3. LCD module

6. Upper cabling trough 7. MPU

8. SFEB

11. Handle

13. Power module

12. Air intake frame

4. Rack-mounting ear

5. Fan module

9. Lower cabling trough 10. Board cage

2.1.4 Slots layout of the NE5000E This section describes slots layout of the NE5000E Figure 2-3 shows the slots layout on the NE5000E.

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2 NE5000E CLC

Figure 2-3 Slots layout on the NE5000E 1 2 3 4 17 18 5 6 7 8 9

L L L L M M L L L L L P P P P P P P P P P P U U U U U U U U U U U

ESD

ESD

L L L L S S S S L L L P P P P F F F F P P P U U U U U U U U U U U

10 11 12 13 19 20 21 22 14 15 16

Table 2-1 describes the slots layout on the NE5000E. Table 2-1 NE5000Eslots layout on the NE5000E

Slot Number

Quant ity

Slot Width

Remarks

1-16

16

41 mm (1.6 inches)

These slots are used to hold LPUs.

17-18

2

30 mm (1.2 inches)

Slots 17 and 18 can hold two MPUs that work in 1:1 backup mode.

19-22

4

36 mm (1.4 inches)

These slots are used to hold SFUs that work in 3+1 load balancing mode.

2.1.5 System Configurations This section describes the system configuration of the NE5000E. Table 2-2 lists the system configurations. Table 2-2 System configuration data list

Item

Typical configuration

Remarks

Processor

Dominant frequency: 1 GHz

-

BootROM

1 MB

-

SDRAM

2 GB

If the SDRAM on the current device is 1 GB, expand it to 2 GB before upgrading the device to V8R2C01.

NVRAM

512 KB

-

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2 NE5000E CLC

Item

Typical configuration

Remarks

Flash

32 MB

-

Compact Flash (CF) card

512 MB x 2

Can be used as a mass storage device.

Table 2-3 lists the performance specifications. Table 2-3 Performance specifications

Item

NE5000E

Remarks

Switching capacity

2.56 Tbit/s

Bidirectional

Backplane capacity

5.175 Tbit/s

Bidirectional

Interface capacity

1060 Gbit/s

Unidirectional

Number of LPU slots

16

LPU (optional)

Number of MPU slots

2

MPUs work in 1:1 backup mode.

Number of SFU slots

4

SFUs work in 3+1 load balancing mode.

Maximum interface rate supported by LPUs

100 Gbit/s

Unidirectional

2.2 Power Supply System This chapter describes the power supply system of the NE5000E.

2.2.1 Architecture of the Power Supply System This section describes the features of the power supply system. The NE5000E supports either DC or AC power supply. The power supply system has the following features: l

The power supply system consists of two AC or DC power frames that work in 1+1 backup mode.

l

One AC power frame contains three AC rectifier modules.

l

One DC power frame has three channels of DC input.

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l

Both the AC module and the DC module are equipped with the power alarm function.

l

Partitioned power supply is adopted.

2.2.2 Partitioned Power Supply on a CLC This section describes partitioned power supply on NE5000E. Figure 2-4 shows the power supply of the NE5000E. Figure 2-4 Schematic diagram of the power supply on the NE5000E

L P U 1

L P U 2

L P U 3

L P U 4

L L L L P P P P U U U U 10 11 12 13

M P U 17

M L P P U U 18 5

S F U 19

S F U 20

L P U 6

L P U 7

L P U 8

L P U 9

S S L L L F F P P P U U U U U 21 22 14 15 16

Each channel supplies power for specific boards. The first channel supplies power for the boards in the yellow area, the second channel supplies power for the boards in the blue area, and the third channel supplies power for the boards in the grey area. The three channels work independently. For example, if only the first channel is connected, only the boards in the yellow area are powered on. Two power modules work in load balancing mode. If the first power input of one power module becomes faulty, the fist power input of the another power module supplies power for the boards in the yellow area.

2.2.3 8000W DC Power Supply System This section describes the appearance, functions, and technical parameters of the DC power supply module.

Appearance The DC power modules of the NE5000E work in 1+1 backup mode. The DC power modules are located behind the plastic panel, and provide distributed DC power supply to the system. The power modules adopt the three-channel power supply method and the partitioned power supply mode. Each of the power modules inputs three channels of –48 V DC power for different modules. The –48 V DC power module is 3 U (133.35 mm or 5.25 in.) high. Figure 2-5 shows the appearance of a power supply module. Issue 01 (2011-10-15)


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Figure 2-5 Appearance of the DC power module

POWER 1

2 POWER

3 POWER

R T N(+)

NEG(-)

I N1 I N2

I N3

I N2 I N3 I N1 ;3X55A -48 - -60V

Figure 2-6 shows the appearance of the panel of a power module. Figure 2-6 Panel and components of a DC power module POWER1

POWER2

POWER3

RTN(+)

NEG(-)

IN1 IN1

IN2

IN3

IN2 IN3 -48 - -60V ;3X55 A

1. First power input

2. Second power input

3. Third power input

5. Switch of the first power supply

6. Switch of the second power supply

7. Switch of the third power supply

4. Handle

Indicators of the power module are displayed on its plastic panel through light pipes. Table 2-4 describes the indicators. Table 2-4 Description of the indicators on the DC power module

Indicator

Color

Description

POWER1

Green

Indicates proper functioning of the system. If it is steadily on, the first power input and output are normal.

Red

Indicates a power failure. If it is steadily on, the first power input or output is faulty.

Green

Indicates proper functioning of the system. If it is steadily on, the second power input and output are normal.

Red

Indicates a power failure. If it is steadily on, the second power input or output is faulty.

POWER2

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Indicator

Color

Description

POWER3

Green

Indicates proper functioning of the system. If it is steadily on, the third power input and output are normal.

Red

Indicates a power failure. If it is steadily on, the third power input or output is faulty.

Power Supply Solution Figure 2-7 shows the DC power supply system. Figure 2-7 Schematic diagram of DC power supply

Backplane Boards

DC DC DC

Power A Power 1

area 1

Power 2 Power 3

L P U 1

L P U 2

L P U 3

L P U 4

M M L L P P P P U U U U 17 18 5 6

L P U 7

L P U 8

L P U 9

area 2

Power B DC

Power 1

DC

Power 2

DC

area 3

L L L L S S S S L L L P P P P F F F F P P P U U U U U U U U U U U 10 11 12 13 19 20 21 22 14 15 16

Power 3

The power modules can output primary straight-through power and secondary –48 V DC regulated voltage. Functions are described as follows: l

The primary straight-through power provides short-circuit protection.

l

The secondary regulated voltage output provides protection against overcurrent, overvoltage, and short circuit.

l

Power can be supplied for the boards in partitioned areas.

l

Alarms of the lightning-proof failure and air circuit breakers are supported.

Technical Specifications Table 2-5 list the technical specifications of DC power module.

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Table 2-5 Technical specifications of the 8000 W DC power module

Parameter

Description

Dimensions (W x D x H)

184 mm x 450 mm x 127 mm (7.24 in. x 17.72 in. x 5.00 in.)

Weight

About 9 kg (19.85 lb)

Input voltage range

–38 V to –72 V DC

Output current

Primary power

67.5 A x 3

Secondar y power

13 A

Maximum output power

8000 W

Maximum input current

75 A x 3

Current of user's air circuit breaker

≥80 A

2.2.4 8000W AC Power Supply System This section describes the appearance, functions, and the technical parameters of the AC power supply module. The NE5000E AC power supply solution is to add an AC transverse system ahead of the 8000W DC power system. The NE5000E AC power supply system is composed of two 8000W DC power modules , two AC power distribution cabinets , and six rectifier modules . In the system, AC power is sent to the three power inputs of each power distribution cabinet, in which three rectifier modules transform the AC power supply into the DC power supply and respectively send the DC power supply to the three DC power inputs of each DC power module. Figure 2-8 Outline of the AC-DC power distribution frame(front view)

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Figure 2-9 Outline of the AC-DC power distribution frame(rear view)

Figure 2-10 shows the appearance of an AC-DC power distribution frame. Figure 2-10 Panel and components of an AC-DC power distribution frame

1. Power input

2. PGND

3. Power output

4. Air circuit breaker

Table 2-6 lists the technical specifications of the AC-DC power distribution frame. Table 2-6 Technical parameters of the rectifier module

Item

Technical specifications


442 mm x 65 0mm x 88 mm (17.40 in. x 25.59 in. x 3.46 in.)

Input voltage range

200 V AC to 240 V AC(220V AC power grid) 100 V AC to 120 V AC(110V AC power grid)

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Maximum input current

18.5A/single module

Output voltage

-53.5 V DC

Maximum output current

50A/single module

Maximum output power

2900 W/single module


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2.3 Heat Dissipation System This section describes the appearance, functions, and specifications of the heat dissipation system.

2.3.1 System Air Channel This section describes the system air channel. The NE5000E has two fan modules. Each fan module contains three fans. The locations of the fan modules and air intake vent are shown in Figure 2-11. Figure 2-11 Locations of the fan modules and air intake vent

1

2

1. Fan module

2. Air intake vent

The NE5000E draws air from the front and exhausts air from the back. This helps heat dissipation in the board insertion area. The system draws air for heat dissipation. Figure 2-12 shows air flows. Issue 01 (2011-10-15)


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Figure 2-12 Diagram of air flows

2.3.2 Fan Speed Adjustment This section describes the fan Speed adjustment. When the NE5000E is in full configuration, the system adjusts the fan speed according to the temperatures reported by the temperature sensors located on the LPUs, SFUs, and MPUs. General principles are listed as follows: l

When the ambient temperature is 27°C (80.6°F) or below, fans rotate at a fixed low speed (60% of the maximum rotational speed), which meets the heat dissipation requirement of the system with standard configuration.

l

When the ambient temperature is between 27°C (80.6°F) and 45°C (113°F), the speed of fans is raised little by little without sharp increase in noise.

l

When the ambient temperature is above 45°C (113°F), fans rotate at high speed (100% of the maximum rotational speed) to meet the heat dissipation requirements.

2.3.3 System Fan Module This section describes the appearance of the fan module.

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Appearance of the Fan Module The fan module of the NE5000E is located on the air exhaust vent. Each fan module contains three fans. When a single fan fails, the system can still work normally in a short period of time at ambient temperature of 40°C (104°F). Figure 2-13 shows the fan module. Figure 2-13 Diagram of the fan module

G

R

Fan indicators are displayed on the LCD panel through light pipes. Figure 2-14 shows the panel of the fan module, and Figure 2-15 shows the panel of the LCD module. Figure 2-14 Panel of the fan module

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Figure 2-15 Fan module indicators

1. Indicator of fan module 1

2. Indicator of fan module 2

Table 2-7 describes the indicators on the panel of the fan module. Table 2-7 Description of the fan module indicators

Indicator

Color

Description

RUN

Green

If the indicator blinks once every 1s (0.5 Hz), fan module works normally.

ALM

Red

If the indicator is always on, fan module is faulty.

Technical Specifications Table 2-8 describes technical specifications of a fan module. Table 2-8 Technical specifications of a fan module

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Item

Description

Dimensions(W x D x H)


Weight

7.2 kg (15.88 lb)

Power consumption

316.8 W

Maximum blast pressure

690 Pa

Maximum blast volume

679.2 m3 /h (4.25E+07 in.3/h)


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2.3.4 Air Filter The black sponge air filter placed at the air i ntake vent is used for dust proof. The air filter can be removed for cleaning. It is recommended that the air filter be cleaned once every three months. The NE5000E has one air filter, whose location is shown in Figure 2-16. Figure 2-16 Location of the air filter

2.4 LCD Module This section describes the appearance, panel, display mode, displayed contents, and technical specifications of the LCD module.

2.4.1 Appearance and Front Panel of the LCD This section describes the appearance and panel of the LCD. The Liquid Crystal Display (LCD) module displays information about and status of boards, environments, fan modules, and power modules. The LCD consists of the screen and key panel, as shown in Figure 2-17. Issue 01 (2011-10-15)


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Figure 2-17 Plastic panel and components of the LCD

1. LCD screen

2. Key

LCD Screen The LCD screen displays information about and status of boards, environments, fan modules, and power modules.

Keys Table 2-9 describes the keys on the LCD panel. Table 2-9 Keys on the LCD panel

Item

Description

Menu

Pressing this key switches between the query mode and standby mode of the LCD.

Cancel

Pressing this key returns to the previous menu option.

Enter

Pressing this key enters the selected submenu.

Mute

Pressing this key silents an alarm.

△

Pressing this key scrolls up the screen.

△

Pressing this key scrolls down the screen.

△

Pressing this key scrolls to the l eft of the screen.

△

Pressing this key scrolls to the right of the screen.

2.4.2 Display Mode This section describes the conversion between display modules of the LCD. Issue 01 (2011-10-15)


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The LCD supports the idle and query modes. The idle mode is the default mode. Figure 2-18 shows the conversion between the two modes. Figure 2-18 Conversion between LCD display modes

Automatic or manual page down MENU Idle timeout Idle mode

Query mode

NOTE

"Menu" in Figure 2-18 indicates that you press the Menu button.

Idle Mode The idle mode displays information about the running status of the system. After the startup, the LCD displays interfaces of initialization and self-test, and then enters the idle mode. When no action is done for a certain period of time, the LCD returns to the home screen and the back light goes off. The last line on the LCD displays the running status of each module or processing unit.

Query Mode Table 2-10 describes the operations in query mode. Table 2-10 Description of operations in query mode

Action

Description

Press the Menu button

Enters the query mode.

Press

Selects a menu. The selected menu is highlighted.

and

Press the Enter button

Enters the submenu of the selected menu or operates the selected menu.

Press the Cancel button

Returns to the previous menu, which is highlighted.

2.4.3 Display Contents This section describes the information that is output in various display modes. Issue 01 (2011-10-15)


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Idle Mode Figure 2-19 shows the contents displayed in idle mode. Figure 2-19 Schematic diagram of the interface in idle mode

The output is displayed as follows:

Item

Description

HUAWEI NE5000E

# Equipment name

2days 3hours 50minutes

# Displays how long the system has been operated

LPU1 normal

# Information about the working status of the key part

Here, the last line repeatedly displays the running status of the key parts. N indicates a specific figure.

Item

Description

LPUN normal | abnormal

# N indicates 1-16

MPUN normal | abnormal

# N indicates 17, 18

SFUN normal | abnormal

# N indicates 19-22

FanFrameN normal | abnormal


PowerModuleN normal | abnormal


CLKN normal | abnormal


NOTE

The name of a menu consists of the type of a board and the slot number, such as MPU 17 and LPU 1.

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In idle mode, press Menu. The main interface of the status query mode is displayed, as shown in Figure 2-20. Figure 2-20 Schematic diagram of the main interface in query mode

Press and to select the desired contents, and press Enter to enter the selected interface. Press Cancel to return to the previous menu.

LCD Setting Interface In the interface of the status query mode, select LCD Setting and then press Enter. Figure 2-21 shows the display of the LCD setting interface. Figure 2-21 Schematic diagram of the LCD setting interface

The information is displayed as follows: Enhance Brightness Slack Brightness Beep Test Reset LCD

# # # #

Enhance the back light of LCD. Weaken the back light of LCD. Test the sound of buzzer. Reset LCD.

NOTE l

If you press Enter after selecting Enhance Brightness, the brightness of the back light of the LCD is enhanced. You can repeat the operations to get the maximum brightness.

l

If you press Enter after selecting Slack Brightness, the brightness of the back light of the LCD is weakened. You can repeat the operations to get the minimum brightness.

Board Info Interface On the main interface in status query mode, select Board Info and press Enter. The Board Info interface is displayed, as shown in Figure 2-22.

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Figure 2-22 Schematic diagram of the board info interface

Board information includes the slot ID, board name board-in-position information, board registration, MonitorBus registration, and master/slave status. The following describes the interfaces of the MPU, SFU and LPU. l

MPU interface

1.

On the Board Info interface, select MPU and then press Enter. The MPU interface is displayed, as shown in Figure 2-23. It displays only information about whether the board is installed. Figure 2-23 Schematic diagram of the MPU interface

2.

For example, select MPU17 and press Enter . The MPU17 interface is displayed, as shown in Figure 2-24. Figure 2-24 Schematic diagram of the MPU17 interface

The information is displayed as follows: Slot=17 Name is MPU17 MonitorBus registered CPU 13% MEM 60% l

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# # # # #

Slot number. Board name. Information about MonitorBus. The CPU usage information. The memory usage information.

SFU interface Huawei Proprietary and Confidential Copyright © Huawei Technologies Co., Ltd.

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In the Board Info interface, select SFU and then press Enter . The SFU information interface is displayed, as shown in Figure 2-25. It displays only information about whether the board is installed. Figure 2-25 Schematic diagram of the SFU interface

2.

For example, select SFU19 and press Enter. The SFU19 interface is displayed, as shown in Figure 2-26. Figure 2-26 Schematic diagram of the SFU19 interface

The information is displayed as follows: Slot=19 Name is SFU19 Board in position, registered MonitorBus registered CPU 13% MEM 60%

# Slot number # Board name # Board status #Information about MonitorBus. # The CPU usage information. # The memory usage information.

l

LPU interface

1.

On the Board Info interface, select LPU and then press Enter. The LPU interface is displayed, as shown in Figure 2-27. It displays only information about whether the board is installed. Figure 2-27 Schematic diagram of the LPU interface

2.

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For example, select LPU2 and pressEnter. The LPU2 interface is displayed, as shown in Figure 2-28. Huawei Proprietary and Confidential Copyright © Huawei Technologies Co., Ltd.

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Figure 2-28 Schematic diagram of the LPU2 information interface

The display information is as follows: Slot=2 Name is LPU2 Board in position, registered MonitorBus registered CPU 13% MEM 60%

# # # # # #

Slot number Board name Board status Information about MonitorBus The CPU usage information. The memory usage information.

Environment Info Interface In the interface of the status query mode, select Environment Info and press Enter. The Environment Info interface is displayed, as shown in Figure 2-22. The Environment Info interface displays the temperature and the voltage of the equipment. You can view the interface of any board such as MPU, SFU and LPU. For example, Figure 2-29 shows the Environment Info interface of the MPU17. Figure 2-29 Schematic diagram of the MPU17 Environment Info interface

The display information is as follows: T info V info Normal | Abnormal

# Temperature information # Voltage information # Status

NOTE

You can view the environment informat ion of SFU and LPU by following the above method. The int erfaces are the same as shown in Figure 2-29.

FAN and POWER Info Interface In the interface of the status query mode, select FAN and POWER Info and press Enter. The FAN and POWER Info interface is displayed, as shown in Figure 2-30.

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Figure 2-30 Schematic diagram of the FAN and POWER Info interface

l

FAN interface

The FAN interface shows the fan speed, temperature, and information about fan in position, fan registration, and cable in position. 1.

In the FAN and POWER Info interface, select FAN and press Enter. The FAN interface is displayed, as shown in Figure 2-31. Figure 2-31 Schematic diagram of the FAN interface

2.

FanFrame27 and press For For exa examp mple le,, sele select ct FanFrame27 and press Enter. The FanFrame27 interface displayed, as shown in Figure 2-32. Figure 2-32 Schematic diagram of the FanFrame27 interface

The display information is as follows: Fan1-1 Speed=60% Temp Normal Fan in position Fan registered Fan hardware normal Cable in position l

# # # # # # #

Fan name Percentage of fan rev Temperature information Fan in position Fan registered Fan operating status Cable in position

POWER interface

The POWER interface displays information about power in position, and power and cable in position. Issue 01 (2011-10-15)


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In the FAN and POWER Info interface, select POWER and and press Enter to display the POWER interface, as shown in Figure 2-33. Figure 2-33 Schematic diagram of the power interface

2.

For For exa examp mple le,, se selec lect POWER25 and press Enter. The POWER25 interface is displayed as shown in Figure 2-34. Figure 2-34 Schematic diagram of the POWER25 interface

The display information is as follows: Power in position Power Normal Cable in position

2.4.4 Technical Specifications This section describes the technical parameters of the LCD. Table 2-11 lists the technical specifications of the LCD. Table 2-11 Technical specifications of the LCD

Parameter

Value

Dimensions( W x D x H)


Power consumption

8W

Number of displayed lines

100

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2.5 Switching Fabric This section describes the functions of the SFU.

2.5.1 Introduction to the Switching Fabric This section describes the principle of SFU. The switching fabric is the core component of the NE5000E. The switching fabric chip is l ocated on the SFU. The whole switching fabric performs switching through cells. Upstream traffic is buffered, and downstream downstream traffic is scheduled. scheduled. The switching fabric fabric receives data data from the upstream line card, performs data switching, and then routes traffic to the corresponding downstream line card. The entire switching fabric is divided into 16 switching planes, as shown in the following figure. Switching planes are logically independent of each other and perform load balancing. Cells can only be switched through one switching plane. Two types of switching fabric units are available on the NE5000E, that is, SFU and SFE. Figure 2-35 NE5000ERelationships between line cards and switching planes

SFU Forwarding Table Memory IP DATA

Memory IP DATA

Forwarding Decision Forwarding Table Memory

IP DATA

Crossbar

Memory IP DATA

Forwarding Decision Forwarding Table Memory

IP DATA

Memory IP DATA

Forwarding Decision

LPU

LPU

In a single chassis system, 16 switching planes are located evenly on four SFUs (each SFU holding four switching planes). One switching plane can switch data between 16 line cards. In a BTB system, 16 switching planes are located evenly on eight SFEs (each SFE holding two switching planes). One switching plane can switch data between 32 line cards. Issue 01 (2011-10-15)


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In a cluster, one switching plane is located on both the SFE and the SFU simultaneously. There are a total of 16 switching planes, and one switching plane can switch data between up to 1024 line cards. Therefore, different different product forms (single chassis system, BTB system, and cluster) adopt different switching fabric units to meet the actual service requirements. A single chassis system can use both the SFU and SFE, whereas the BTB system and the cluster can only use the SFE. The NE5000E has a total of 16 switching planes for data switching between line cards. Each traffic pair can choose multiple paths, giving the device much extensibility. In a BTB system, the two chassis are connected through high-speed optical fibers, which ensures that traffic is forwarding free of congestion. One chassis has four SFUs/SFEs working with 3+1 redundancy.

2.5.2 SFEB This section describes the functions, panel, interfaces, and technical specifications of an SFEB. An SFEB is developed based on an old NE5000E chassis and provides multiple switching planes. With SFEBs, a single NE5000E can be expanded from 2.56 Tbit/s to 5.12 Tbit/s (bidirectional). Figure 2-36 shows the appearance of an SFEB. Figure 2-36 SFEB appearance

Figure 2-37 shows the SFEB panel appearance. Figure 2-37 SFEB panel appearance

1. CXP optical interface

2. OFL indicator

3. OFL button

4. RUN indicator

5. ACT indicator

6. CXP insertion indicator

Table 2-12 describes the components on an SFEB panel. Issue 01 (2011-10-15)


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Table 2-12 Components on an SFEB panel

Component

Description

OFL button

To remove a board, you must press the OFL button. Hold the button for six seconds until the OFL indicator turns on. Then, the board can be removed.

OFL indicator (red)

If the indicator is on, you can remove the board.

RUN indicator (green)

Before the SFEB is powered on and registers, the indicator status is changed in the sequence of off–blinks quickly (4 Hz)–off– steady on– blinks slowly (0.5 Hz). After the SFEB is powered on and registers: If the indicator blinks at 0.5 Hz, the system is working properly. NOTE The possible reasons why the indicator is off are listed below: l

BootROM is damaged.

l

The SFEB cannot be powered on.

The possible reasons why the indicator blinks quickly are listed below: l

The flash memory is faulty.

l

The network port is faulty.

CXP insertion indicator

If the indicator blinks in green, the optical module runs properly. If the indicator is constantly on in green or the indicator is off, the optical module becomes faulty.

CXP interface

In a back-to-back system: connects the SFEs on the master and slave chassis. In a cluster: connects SFEs on CLCs to OFCs on CCCs.

ACT indicator (green)

If the indicator is on, the ACT is in the normal state. If the indicator is off, the ACT is in the abnormal state.

Table 2-13 lists technical specifications of an SFE. Table 2-13 Technical specifications of an SFEB

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Item

Description

Silkscreen

SFEB

Power consumption

About 200 W

Heat dissipation

649 BTU/hour

Weight

5.55 kg (12.24 lb)

Dimensions (width x depth x height)



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2.6 Control Plane This section describes the control plane of the NE5000E.

2.6.1 Introduction to the Control Plane This section describes the functions of the control plane. As the main control unit, the MPU controls and manages the system in a concentrated way and exchanges data. The MPUs work in 1:1 backup mode. The MPU consists of the main control unit, switching unit, system clock unit, synchronous clock unit, and system maintenance unit.

System Control and Management Unit As the system control and management unit, the MPU provides the following functions: l

Route calculation: All routing protocol packets are sent by the forwarding engine to the MPU for processing. In addition, the MPU broadcasts and filters pickets, and downloads routing policies from the policy server.

l

Outband communication between boards: The LAN switch modules integrated on the MPU provide outband communications between boards. In this manner, communication between MPUs, LPUs, and SFUs is controlled and maintained, and messages are exchanged.

l

Device management and maintenance: Devices are managed and maintained through the management interfaces (for example, the serial interface) provided by t he MPU.

l

Data configuration: The MPU stores configuration data, startup files, charging information, upgrade software, and system logs.

l

Data storage: The MPU provides two interfaces for CF cards, which serve as mass storage devices to store data files.

System Clock Unit As the system clock unit, the MPU provides accurate and reliable Synchronous Digital Hierarchy (SDH) clock signals for LPUs. The MPU can provide two-channel 2.048-MHz synchronous clock signals for the downstream devices, or receive 2.048-MHz or 2.048-Mbit/s external reference clock signals.

System Maintenance Unit The system maintenance unit collects monitored information to test system units locally or remotely, or to upgrade system units. The system maintenance unit periodically collects information about the operation of system units through the Monitorbus. Based on the collected information, the system maintenance unit generates related control information, for example, detecting the available of boards and adjusting fan speeds. Through the JTAG bus, the system maintenance unit collects monitored information to test system units locally or remotely, or to upgrade system units.

Reliability The main control module, clock module, and LAN switch module of the MPU all work with 1 +1 hot backup, providing better system reliability. Issue 01 (2011-10-15)


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The MPUs work in 1:1 backup mode. The two MPUs monitor each other's status. If the master MPU is faulty, the slave MPU automatically becomes the master MPU.

2.6.2 MPU This section describes the functions,panel and interface of the MPU.

Appearance Figure 2-38 shows the appearance of the MPU. Figure 2-38 Appearance of the MPU

Panel Figure 2-39 shows the panel of the MPU. Figure 2-39 Panel appearance of the MPU

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Table 2-14 describes the buttons and indicators on the MPU panel. Table 2-14 Buttons and indicators on the MPU panel

Indicator/ Button

Description

OFL button

To remove a board, you must hold the button for six seconds until the OFL indicator turns on. Note: This button takes effect only with the slave MPU.

OFL indicator (red)

If the indicator is on, the board can be pulled out safely.


Before the MPU is powered on and registers, the indicator status is changed in the sequence of off-blinks quickly (4 Hz)-off-steady on blinks slowly (0.5 Hz). After the MPU is powered on and registers: If the indicator blinks at 0.5 Hz, the system is working properly. NOTE The possible reasons why the indicator is off are listed below: l

BootROM is damaged.

l

The MPU cannot be powered on.

The possible reasons why the indicator blinks quickly are listed below:

ALM indicator (red)

l

The CF card is faulty.

l

The other control chips on the MPU are faulty, causing the MPU not to be able to initialize.

If the indicator is steady on, it indicates that the system is in the alarm state. If the indicator is steady off, it indicates that the system is in the normal state.

ACT active/ standby indicator (green)

If the indicator is steady on, it indicates that the MPU is in the active state.

Reset button

The button is used for resetting the MPU.

If the indicator is off, it indicates that the MPU is in the standby state.

CF ACT indicator If the indicator is on, it indicates that the CF is in position. (green) If the indicator is blinking, it indicates that data is being read or written. If the indicator is off, it indicates that the CF is not in position or can be removed. CF OFL button

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Before removing the CF card, press and hold the CF OFL button for about six seconds till the OFL indicator is on. Then, you can remove the CF card.


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Indicator/ Button

Description

LINK indicator (green) (on the Ethernet interface)

If the indicator is steady on, it indicates that the link is normal.

ACT indicator (amber) (on Ethernet interfaces)

If the indicator is blinking, it indicates that data is being transmitted.

If the indicator is off, it indicates that the link is Down.

If the indicator is off, it indicates that no data is being transmitted.

Table 2-15 lists the interfaces on the MPU and their functions. Table 2-15 Interfaces on the MPU and their functions

Item

Connector

Description

ETH0 (10M/100M/ 1000M Base-TX auto-sensing)

RJ45

It connects to the Network Management System (NMS) workstation and has LINK and ACT indicators.

ETH1 (10M/100M/ 1000M Base-TX auto-sensing)

RJ45

It serves as the system cascading interface.

Console interface

RJ45

It connects to the console for on-site configurations of the system.

AUX interface

RJ45

It connects to the Modem for remote maintenance through dialing.

CF interface

TYPE I/II

It is used to hold a CF card as a mass storage device to store data.

CLK-IN1

SMB

CLK-IN2

(Subminiature B)

It is used to receive the external 2.048 MHz or 2.048 Mbit/s clock signal.

CLK-OUT1

SMB

CLK-OUT2

It is used to output the 2.048 MHz or 2.048 Mbit/s clock signal to downstream devices.

Interface Attributes Table 2-16 lists the attributes of the 10Base-T/100Base-TX/1000Base-T-RJ45 interface.

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Table 2-16 Attributes of the 10Base-T/100Base-TX/1000Base-T-RJ45 interface

Attribute

Description

Connector

RJ45

Working mode

10M/100M/1000M auto-sensing interfaces, supporting half-duplex and full-duplex modes

Compliant standard

IEEE802.3-2002

Cable specifications

Category 5 unshielded twisted pair (UTP) cables are recommended when the interface rate is 10 Mbit/s or 100 Mbit/s; super category 5 Shielded Twisted Pair (STP) cables recommended when the interface rate is 1000 Mbit/s

Table 2-17 lists the attributes of the Console interface. Table 2-17 Attributes of the Console interface

Attribute

Description

Connector

RJ45

Working mode

Duplex Universal Asynchronous Receiver/Transmitter (UART)

Electrical attribute

RS-232

Baud rate

9600 bit/s (default value), which can be changed as required

Data equipment type

Data Circuit-terminating Equipment (DCE)


8-core shielded cable

Table 2-18 lists the attributes of the AUX interface. Table 2-18 Attributes of the AUX interface

Issue 01 (2011-10-15)

Attribute

Description

Connector

RJ45

Working mode

Duplex UART

Electrical attribute

RS-232

Baud rate

9600 bit/s (default value), which can be changed as required


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2 NE5000E CLC

Attribute

Description

Data equipment type

Data Terminal Equipments (DTE)


8-core shielded cable

Table 2-19 lists the external clock interface attributes. Table 2-19 External clock interface attributes

Attribute

Description

Connector

SMB


75-ohm clock cable

Compliant standard

G.703

Technical Specifications Table 2-20 lists the technical specifications of the MPU. Table 2-20 Technical specifications of the MPU

Item

Specifications

Silk screen of the board name

MPU

Power consumption

70 W

Heat dissipation

227.1 BTU/hour

Weight

3.84 kg (8.47 lb)



Clock input

Two channels of 2.048 Mbit/s or 2.048 MHz signals

Clock output

Two channels of 2.048 Mbit/s or 2.048 MHz signals

Active CPU

Type

PowerPC

Dominant frequency

1000 MHz

Digit

32 bits

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Item

Specifications

Memory

DDR SDRAM

2 GB.

BootROM

1 MB

Flash ROM

32 MB

NVROM

512 KB

CF card

512 MB

2.7 Physical Specifications This section describes the specifications of the chassis and boards.

2.7.1 Chassis Specifications This section describes the physical parameters of the NE5000E. Table 2-21 lists the physical parameters of the NE5000E. Table 2-21 Chassis specifications of the NE5000E

Item

Item



Installation

The chassis can be installed in an N68E-22 cabinet or a standard 19-inch cabinet.

Maximum power

7000 W (in full configuration)

Heat dissipation

22711 BTU/hour

Weight

DC input voltage

Empty chassis

120 kg (264.6 lb)

In full configuration

310 kg (683.55 lb)

Rated voltage

-48 V

Maximum voltage –38 V to –72 V range AC input voltage

Rated voltage

200 V AC to 240 V AC(220V) 100 V AC to 120 V AC(220V)

Ambient temperature

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Maximum voltage range

90 V AC to 290 V AC

Long-term

0°C to 40°C (32°F to 104°F)


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2 NE5000E CLC

Item

Item Short-term

Storage temperature Relative humidity

–5°C to 50°C (23°F to 122°F) –40°C to 70°C (-40°F to 158°F)

Long-term

5%–85%

Short-term

5%–95%

Storage humidity

5%–95%

Long-term altitude

Lower than 3,000 m (9842.4 ft.)

Storage altitude

Lower than 5,000 m (16404 ft.)

NOTE

The width [442 mm (17.40 in.)] in the preceding table does not count the size of rack-mounting ears. The measurement point of the temperature and humidity is 1.5 m (4.92 ft.) over the floor and 0.4 m (1.31 ft.) in front of the cabinet with no protection board on the front or back of the cabinet. Short-term means that the continuous working time does not exceed 48 hours and the accumulated time per year does not exceed 15 days. Otherwise, it is referred to as long-term operation.

2.7.2 Board Specifications This section describes specifications of boards supported by the NE5000E. Table 2-22 lists the specifications of boards supported by the NE5000E. Table 2-22 Specifications of boards supported by the NE5000E

Issue 01 (2011-10-15)

Type

Description

Silkscreen

MPU

2.6.2 MPU

MPU

Switch Fabric Extended Unit B

2.5.2 SFEB

SFEB

Flexible Card Line Processing Unit

Flexible Card Line Processing Unit (LPUF-100,4 sub-slots)

NE5000E

FPIC

3.1.1 5-Port 10GBase LAN-XFP Flexible Card (2 sub-slots)

CP100-5x10GEBase LAN-XFP

3.1.2 5-Port 10GBase LAN/WAN-XFP Flexible Card(2 subslots)

CP100-5x10GEBase LAN/WAN-XFP

3.1.3 2-Port 10GBase LAN-XFP Flexible Card (1 sub-slot)

CP100-2x10GEBase LAN-XFP

LPUF-100


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Type

LPUI

Line Processing Unit

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Description

Silkscreen

3.1.4 2-Port 10GBase LAN/WAN-XFP Flexible Card(1 sub-slot)

CP100-2x10GEBase LAN/WAN-XFP

3.1.5 2-Port OC-192c/ STM-64c POS/OTU2XFP Flexible Card(1 sub-slot)

CP100-2xOC192c/STM64c POSOTU2-XFP

3.1.6 1-port OC-768c/ STM-256c POS-LC Flexible Card(2 subslots)

CP100-1xOC768c/STM256c POS-LC

3.1.7 24-port 1000BaseX-SFP Flexible Card(2 sub-slots)

CP100-24xFE/GE-SFP

3.2 1-Port 100GBaseCFP Integrated Line Process Unit(LPUI-100)

NE5000E

3.3.1 10-port 1000BaseX-SFP optical interface LPU

10×1000Base-SFP

3.3.2 20-port 1000BaseX-SFP optical interface LPU

20×1000Base-SFP

3.4.1 1-port 10GBase LAN-XFP optical interface LPU

1×10GBase LAN-XFP

3.4.2 1-port 10GBase WAN-XFP Optical Interface LPU

1×10GBase WAN-XFP


2×10GBase LAN-XFP

3.4.4 2-port 10GBase WAN-XFP optical interface LPU

2×10GBase WAN-XFP


4×10GBase LAN-XFP

3.4.6 4-port 10GBase WAN-XFP optical interface LPU

4×10GBase WAN-XFP

LPUI-100 1x100GE-CFP


44


Type

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Description

Silkscreen

8-port OC-3c/STM-1c POS-SFP optical interface LPU

8×POS/STM1-SFP


16×POS/STM1-SFP


4×POS/STM4-SFP


8×POS/STM4-SFP

3.5.1 1-port OC-48c/ STM-16c POS-SFP optical interface LPU

1×POS/STM16-SFP


2×POS/STM16-SFP


4×POS/STM16-SFP


8×POS/STM16-SFP

3.6.1 1-port OC-192c/ STM-64c POS-XFP optical interface LPU

1×POS/STM64-XFP


2×POS/STM64-XFP


4×POS/STM64-XFP


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3

Boards

About This Chapter This chapter describes the boards of the device. 3.1 Flexible Card Line Processing Unit(LPUF100,4 sub-slots) This chapter describes the structure and specifications of the Flexible Card Line Processing Unit LPUF-100 . 3.2 1-Port 100GBase-CFP Integrated Line Process Unit(LPUI-100) 3.3 1000Base-X-SFP Optical Interface LPU This section describes the application, functions, panel, interface attributes, and technical specifications of the 1000 M Ethernet optical interface LPU. 3.4 10G Ethernet Optical Interface LPU This section describes the application, functions, panel, interface attributes, and technical specifications of the 10G optical interface LPU. 3.5 OC-48c/STM-16c POS-SFP Optical Interface LPU This section describes the application, functions, panel, interface attributes, and technical specifications of the OC-48c/STM-16c POS-SFP optical interface LPU. 3.6 OC-192c/STM-64c POS-XFP Optical Interface LPU This section describes the application, functions, panel, interface attributes, and technical specific ations of the OC-192c/STM-64c POS-XFP optical interface LPU. 3.7 Combination LPU This section describes the application, functions, panel, interface attributes, and technical specifications of the combination LPU.

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3.1 Flexible Card Line Processing Unit(LPUF100,4 sub-slots) This chapter describes the structure and specifications of the Flexible Card Line Processing Unit LPUF-100 .

Overview Figure 3-1 shows the appearance of the LPUF-100. Figure 3-1 Appearance of the LPUF-100

Panel Table 3-1 lists the indicators on the panel. Table 3-1 Indicators on the panel of the LPUF-100

Component

Description

OFL button

An offline button. Before removing a board, press and hold the OFL button for about 6s till the OFL indicator is on.

OFL indicator (red)



Before the LPU is powered on and registers, the indicator status is changed in the sequence of off – blinks quickly (4 Hz) – off – steady on – blinks slowly (0.5 Hz). After the LPU is powered on and registers: If the indicator blinks at 0.5 Hz, the system is working properly. NOTE The possible reasons why the indicator is off are listed below: l

BootROM is damaged.

l

The LPU cannot be powered on.


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l


l



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Technical Specifications Table 3-2 lists the technical specifications of the LPUF-100. Table 3-2 Technical specifications of the LPUF-100

Item

Specifications


NE5000E



Power consumption (Typical value)

About246 W

Heat dissipation

798 BTU/hour

Board weight

About 7.6 kg (16.76 lb)

Lowest Software Version

V800R002

LPUF-100

Product Specifications Table 3-3 lists the product specifications of the LPUF-100. Table 3-3 Product Specifications of the LPUF-100

Item

Specifications

Reliability and availability

The LPUF-100 supports hot swap.

NMS

Enhanced command-line interface

The FPIC of the LPUF-100 supports hot swap.

SNMP and MIB support Operating environment

Long-term ambient temperature: 0°C to 45°C (32°F to 113°F) Short-term ambient temperature: –5°C to 55°C (23°F to 131°F) Long-term relative humidity: 5% to 85% Short-term relative humidity: 0% to 95%

Storage environment

Storage temperature: –40°C to 70°C (-40°F to 158°F) Storage humidity: 0% to 95%

3.1.1 5-Port 10GBase LAN-XFP Flexible Card(2 sub-slots) Issue 01 (2011-10-15)


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Overview Figure 3-2 shows the appearance of the 5-Port 10GBase LAN-XFP FPIC. Figure 3-2 Appearance of the 5-Port 10GBase LAN-XFP FPIC

Features and Functions l

Provides types of loopback functions.

l

Supports hot swapping.

l

Provides power supply status and interface status indicators.

l

Monitors the power supply and temperature of a board.

Panel Figure 3-3 shows the appearance of the panel. Figure 3-3 Appearance of the Panel

Table 3-4 lists the indicators on the panel. Table 3-4 Indicators on the panel of the 5-port 10GBase LAN-XFP FPIC

Issue 01 (2011-10-15)

Component

Description

STATUS indicator (green)

If the indicator blinks once every 2s (0.5 Hz), the LPU is in the normal state. Otherwise, it indicates that the board fails to run normally.

LINK/ACT indicator(green)

If the indicator is on, the link is Up. If the indicator is blinking, the data is being read or written. If the indicator is off, the link is Down.


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Interface Attributes Table 3-5 lists the interface attributes of the 5-port 10GBase LAN-XFP FPIC. Table 3-5 Interface attributes of the 5-port 10GBase LAN-XFP FPIC

Attributes

Description

Connector type

LC

Optical interface attributes

Compliant with the selected XFP optical module. (For the attributes of XFP modules, see Table 3-6)

Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format

Ethernet_II, Ethernet_SAP, and Ethernet_SNAP

Network protocol

IP

Table 3-6 Attributes of 10G XFP optical modules

Attributes

Description

Transmission distance

0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm

Minimum transmitting power

-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm

Maximum transmitting power

-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm

Receiving sensitivity

-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

The 10G XFP multi-mode optical transceiver supports two types of multi-mode optical fibers with different cores. Table 3-7 lists the relationship between the core, the modal/bandwidth, and the transmission distance. During configuration, the length of optical fibers is restricted by t he Issue 01 (2011-10-15)


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3 Boards

transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type. If this type of optical fibers are required, you need to purchase it additionally. Table 3-7 The transmission distance of 10G XFP optical modules

Core Fiber(μm)

Modal/Bandwidth (Mhz*km)

Transmission distance (km)(mi)

50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-8 lists the technical specifications of the 5-port 10GBase LAN-XFP FPIC. Table 3-8 Technical specifications of the 5-port 10GBase LAN-XFP FPIC

Item

Specifications


CP100-5×10GBase LAN-XFP

Power consumption(Typical value)

About 50.3 W

Heat dissipation

163 BTU/hour

Board weight

About 0.9 kg (1.98 lb)



Connector type

LC


V800R002

3.1.2 5-Port 10GBase LAN /WAN-XFP Flexible Card(2 sub-slots) Overview Figure 3-4 shows the appearance of the 5-port 10GBase LAN/WAN-XFP flexible card.

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Figure 3-4 Appearance of the 5-port 10GBase LAN/WAN-XFP flexible card


Connects to the LPU to forward packets at 50 Gbps and process the 1588 protocol.

l


l


l


l



Table 3-9 lists the indicators on the panel. Table 3-9 Indicators on the panel of the 5-port 10GBase LAN/WAN-XFP flexible card

Issue 01 (2011-10-15)

Indicator

Description



LINK/ACT indicator (green)



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Interface Attributes Table 3-10 lists the interface attributes of the 5-port 10GBase LAN/WAN-XFP flexible card. Table 3-10 Interface attributes of the 5-port 10GBase LAN/WAN-XFP flexible card

Attributes

Description

Connector type

LC/PC


Compliant with the selected XFP optical module (for the attributes of XFP modules, see Table 3-11)

Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format


Network protocol

IP

Table 3-11 Attributes of the 10G XFP optical module

Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

The 10G XFP multi-mode optical module supports two types of multi-mode optical fibers with different cores. Table 3-12 lists the relationship between the core, modal/bandwidth, and transmission distance. During configuration, the length of optical fibers is restricted by the Issue 01 (2011-10-15)


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3 Boards

transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type. If this type of optical fibers are required, you need to purchase it additionally. Table 3-12 Transmission distance of the 10G XFP optical module

Core Fiber (μm)

Modal/Bandwidth (MHz*km)

Transmission distance (km)(mi.)

50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-13 lists the technical specifications of the 5-port 10GBase LAN/WAN-XFP flexible card. Table 3-13 Technical specifications of the 5-port 10GBase LAN/WAN-XFP flexible card

Item

Specifications


CP100-5×10GBase LAN/WAN-XFP

Power consumption (typical value)

About 50.3 W

Heat dissipation

163 BTU/hour

Board weight




Connector type

LC

Lowest software version

V800R002

3.1.3 2-Port 10GBase LAN-XFP Flexible Card(1 sub-slot) Overview Figure 3-6 shows the appearance of the 2-Port 10GBase LAN-XFP FPIC.

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Figure 3-6 Appearance of the 2-Port 10GBase LAN-XFP FPIC



l


l


l



Table 3-14 lists the indicators on the panel. Table 3-14 Indicators on the panel of the 2-port 10GBase LAN-XFP FPIC

Issue 01 (2011-10-15)

Component

Description






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Interface Attributes Table 3-15 lists the interface attributes of the 2-port 10GBase LAN-XFP FPIC. Table 3-15 Interface attributes of the 2-port 10GBase LAN-XFP FPIC

Attributes

Description

Connector type

LC



Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format


Network protocol

IP


Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

The 10G XFP multi-mode optical transceiver supports two types of multi-mode optical fibers with different cores. Table 3-17 lists the relationship between the core, the modal/bandwidth, and the transmission distance. During configuration, the length of optical fibers is restricted by Issue 01 (2011-10-15)


56


3 Boards

the transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type. If this type of optical fibers are required, you need to purchase it additionally. Table 3-17 The transmission distance of 10G XFP optical modules

Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-18 lists the technical specifications of the 2-port 10GBase LAN-XFP FPIC. Table 3-18 Technical specifications of the 2-port 10GBase LAN-XFP FPIC

Item

Specifications


CP100-2×10GBase LAN-XFP


About 28.13 W

Heat dissipation

91 BTU/hour

Board weight

About 0.49 kg (1.08 lb)



Connector type

LC


V800R002

3.1.4 2-Port 10GBase LAN/ WAN-XFP Flexible Card(1 sub-slot) Overview Figure 3-8 shows the appearance of the 2-port 10GBase LAN/WAN-XFP FPIC.

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Figure 3-8 Appearance of the 2-port 10GBase LAN/WAN-XFP FPIC



l


l


l



Table 3-19 lists the indicators on the panel. Table 3-19 Indicators on the panel of the 2-port 10GBase LAN/WAN-XFP FPIC

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Component

Description






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Interface Attributes Table 3-20 lists the interface attributes of the 2-port 10GBase LAN/WAN-XFP FPIC. Table 3-20 Interface attributes of the 2-port 10GBase LAN/WAN-XFP FPIC

Attributes

Description

Connector type

LC



Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format


Network protocol

IP


Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

The 10G XFP multi-mode optical transceiver supports two types of multi-mode optical fibers with different cores. Table 3-22 lists the relationship between the core, the modal/bandwidth, and the transmission distance. During configuration, the length of optical fibers is restricted by Issue 01 (2011-10-15)


59


3 Boards

the transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type. If this type of optical fibers are required, you need to purchase it additionally. Table 3-22 The transmission distance of 10G XFP optical modules

Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-23 lists the technical specifications of the 2-port 10GBase LAN/WAN-XFP FPIC. Table 3-23 Technical specifications of the 2-port 10GBase LAN/WAN-XFP FPIC

Item

Specifications


CP100-2×10GBase LAN/WAN-XFP


About 28.13 W

Heat dissipation

91 BTU/hour

Board weight

About 0.49 kg (1.08 lb)



Connector type

LC


V800R002

3.1.5 2-Port OC-192c /STM-64c POS/OTU2-XFP Flexible Card(1 subslot) Overview Figure 3-10 shows the appearance of the 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card.

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Figure 3-10 Appearance of the 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card


Connects to the LPU to forward packets at 20 Gbps and process the 1588 protocol.

l


l


l


l


Panel Figure 3-11shows the panel appearance of the 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card. Table 3-24 lists the indicators on the panel. Figure 3-11 Panel appearance of the 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card

Table 3-24 Indicators on the panel of the 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card

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Indicator

Description






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Interface Attributes Table 3-25 lists the interface attributes of the 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card. Table 3-25 Interface attributes of the 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card

Attributes

Description

Connector type

LC/PC


Compliant with the selected XFP optical module (for the attributes of XFP modules, see Table 3-26)

Working mode

Full-duplex

Compliant standard

STM-64c SDH/OC-192c SONET RFC 2615 (1619) /1662

Link protocol

PPP or HDLC

Network protocol

IP

Table 3-26 Attributes of the 10G XFP optical module

Attributes

Description


10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

1310 nm

1550 nm

1550 nm

Minimum -6.0 dBm transmitting power

-1.0 dBm

0 dBm

Maximum -1.0 dBm transmitting power

2.0 dBm

4.0 dBm


-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Single-mode

Single-mode

Single-mode

The 10G XFP multi-mode optical module supports two types of multi-mode optical fibers with different cores. Table 3-27 shows the relationship between the core, modal/bandwidth, and transmission distance. During configuration, the length of optical fibers is restricted by the transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type. If this type of optical fibers are required, you need to purchase it additionally.

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Table 3-27 Transmission distance of the 10G XFP optical module

Core Fiber (μm)

Modal/Bandwidth (MHz*km)

Transmission distance (km)(mi.)

50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-28 lists the technical specifications of the 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card. Table 3-28 Technical specifications of the 2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card

Item

Specifications


CP100-2×OC192c/STM64c POS-OTU2-XFP

Power consumption (typical value)

About 28.13 W

Heat dissipation

91 BTU/hour

Board weight

About 0.49 kg (1.08 lb)



Connector type

LC

Lowest software version

V800R002

3.1.6 1-port OC-768c/STM-256c POS-LC Flexible Card(2 sub-slots) Overview Figure 3-12 shows the a ppearance of the 1-port OC-768c/STM-256c POS-LC flexible card.

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Figure 3-12 Appearance of the 1-port OC-768c/STM-256c POS-LC flexible card


Implements the 40-Gbit/s POS frame processing and interface functions, including encapsulation or decapsulation of POS frames and SDH/SONET mapping or demapping of POS frames.

l

Provides one channel of 39.813 Gbit/s optical interface.

l

Provides a group of Interlaken interfaces within the system.

l

Supports the extraction and insertion of the DCC field.

l

Provides status indicators (link and active indicators) for 40-Gbit/s i nterfaces.

l


l

Provides the environment monitoring function of the board.

Panel Figure 3-13 shows the appearance of the 1-port OC-768c/STM-256c POS-LC flexible card. Figure 3-13 Appearance of the 1-port OC-768c/STM-256c POS-LC flexible card

Table 3-29 describes the indicators on the panel of the 1-port OC-768c/STM-256c POS-LC flecible card.

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Table 3-29 Descriptions of the indicators on the panel of the 1-port OC-768c/STM-256c POSLC flexible card

Button/ Indicator

Description

STATUS (green)

If the indicator flashes once every 2s (0.5 Hz), it indicates that the system is running normally.

L/A (green)

If the indicator is steady on, it indicates that the link is Up. If the indicator flashes, it indicates that data is being received or sent. If the indicator is off, it indicates that the link is Down.

Interface Attributes Table 3-30 lists the interface attributes of the 1-port OC-768c/STM-256c POS-LC flexible card. Table 3-30 Interface attributes of the 1-port OC-768c/STM-256c POS-LC flexible card

Attribute

Description

Connector type

LC

Compliant standard

STM-256c/OC-768c SONET

Link protocol

PPP and HDLC

Table 3-31 Attributes of the 40 G optical module

Attribute

Description


2 km (1.24 mi)

Center wavelength

1550 nm

Minimum output optical power

0 dBm

Maximum output optical power

3 dBm


-6 dBm

Overload optical power

3 dBm

Optical fiber type

Single-mode

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Technical Specifications Table 3-32 lists the technical specifications of the 1-port OC-768c/STM-256c POS-LC flexible card. Table 3-32 Technical specifications of the 1-port OC-768c/STM-256c POS-LC FPIC

Item

Specifications


CP100-1×OC768c/STM256c POS-LC

Power consumption

37 W

Heat dissipation

120 BTU/hour

Board weight

0.75 kg (1.65 lb)



Storage temperature

-40°C to 70°C (-40°F to 158°F)

Operating temperature

Long-term: 0°C to 40°C (32°F to 104°F) Short-term: -5°C to 50°C (23°F to 122°F)

Relative humidity of Long-term: 5% to 85% working Short-term: 0% to 95% environment

3.1.7 24-port 1000Base-X-SFP Flexible Card(2 sub-slots) Overview Figure 3-14 shows the appearance of the 24-port 1000Base-X-SFP FPIC. Figure 3-14 Appearance of the 24-port 1000Base-X-SFP FPIC

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Processes gigabit Ethernet MAC frames in compliance with IEEE 802.3-2002.

l

Provides PMD sublayer functions in compliance with IEEE 802.3-2002 and supports 1000Base-SX and 1000Base-LX.

l

Supports local and remote loopbacks.

l

Monitors the environment of boards such as temper ature and the voltage.

l

l

Stores and searches the production information on the LPU such as the board type and the board components. Searches the information on optical modules.


Table 3-33 lists the indicators on the panel. Table 3-33 Indicators on the panel of the 24-port 1000Base-X-SFP FPIC

Component

Description





Interface Attributes Table 3-34 lists the interface attributes of the 24-port 1000Base-X-SFP FPIC. Table 3-34 Interface attributes of the 24-port 1000Base-X-SFP FPIC

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Attributes

Description

Connector type

LC


Compliant with the selected SFP optical module. For the attributes of SFP modules, see Table 3-35 and Table 3-36.


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Attributes

Description

Working mode

Full-duplex

Compliant standard

IEEE 802.3-2002

Frame format


Network protocol

IP

Table 3-35 Attributes of 1000M SFP optical modules

Attributes

Description


0.55 km (0.34 mi)

10 km (6.21 mi)

40 km (24.86 mi)

40 km (24.86 mi)

80 km (49.71 mi)

100 km (62.14 mi)

Center wavelength

850 nm

1310 nm

1310 nm

1550 nm

1550 nm

1550 nm

Minimum Transmitting power

-9.5 dBm

-9.5 dBm

-4.5 dBm

-4.0 dBm

-2.0 dBm

0 dBm

Maximum Transmitting power

-2.5 dBm

-3.0 dBm

3.0 dBm

1.0 dBm

5.0 dBm

5.0 dBm


-17.0 dBm

-20.0 dBm

-22.5 dBm

-21.0 dBm

-23.0 dBm

-30.0 dBm

Overload power

0 dBm

-3.0 dBm

-3.0 dBm

-3.0 dBm

-3.0 dBm

-9.0 dBm

Optical fiber type

Multimode

Singlemode

Singlemode

Singlemode

Singlemode

Singlemode

Table 3-36 Attributes of 1000M colorized optical modules

Attributes

Description


70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.5 0 mi)

70 km (43.50 mi)

Center wavelength

1470 nm

1490 nm

1510 nm

1530 nm

1550 nm

1570 nm

1590 nm

1610 nm


0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

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Attributes

Description


5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm


-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

Overload power

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

Optical fiber type

Single -mode

Singlemode

Singlemode

Singlemode

Singlemode

Single -mode

Singl emode

Single -mode

Technical Specifications Table 3-37 lists the technical specifications of the 24-port 1000Base-X-SFP FPIC. Table 3-37 Technical specifications of the 24-port 1000Base-X-SFP FPIC

Item

Specifications


CP100-24×FE/GE-SFP


About 42 W

Heat dissipation

136 BTU/hour

Board weight




Connector type

LC


V800R002

3.2 1-Port 100GBase-CFP Integrated Line Process Unit (LPUI-100)

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Overview Figure 3-16 Appearance of the 1-Port 100GBase-CFP Integrated Line Process Unit

Applicable Environment The 1-Port 100GBase-CFP Integrated Line Process Unit supports packet forwarding at the line speed of 100-Gbit/s on a single interface, and provides low-cost and customized solutions for users.


Processes packets at 100 Gbit/s by the MAC/PHY functional module on the Ethernet interface.

l

Supports jumbo frames.

l

Provides an 100 GE optical interface.

l

Provides a group of Interlaken interfaces to be connected to the 100 G LPU.

l

Provides status indicators for the CFP module.

l


l


l


Panel Figure 3-17 shows the panel of the 1-Port 100GBase-CFP Integrated Line Process Unit. Figure 3-17 1-Port 100GBase-CFP Integrated Line Process Unit panel

Table 3-38 describes the buttons and indicators on the 1-Port 100GBase-CFP Integrated Line Process Unit panel. Issue 01 (2011-10-15)


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Table 3-38 Description of the buttons and indicators on the 1-Port 100GBase-CFP Integrated Line Process Unit panel

Indicator/ Button

Description

OFL button

It is an OFL button. Before removing a board, press the OFL button. Hold the button for six seconds til l the OFL indicator is on. Then, the board can be pulled out.

OFL indicator (red)

If the indicator is steady on, it indicates that you can remove the board.

RUN (green)


BootROM is damaged.

l



LINK/ACT (green)

l


l


If the indicator is steady on, it indicates that the link is normal. If the indicator blinks, it indicates that data is being transmitted. If the indicator is off, it indicates that the link is Down.

Interface Attributes Table 3-39 lists the interface attributes of the 1-Port 100GBase-CFP Integrated Line Process Unit. Table 3-39 Interface attributes of the 1-Port 100GBase-CFP Integrated Line Process Unit

Attribute

Description

Connector type

SC/LC


Compliant with the selected CFP optical module. (For the attributes of CFP modules, see Table 3-40)

Working mode

Full-duplex

Frame format


Network protocol

IP

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Attributes

Description


10 km (6.21 mi)

Center wavelength

1310 nm


-4.3 dBm


4.5 dBm


-8.6 dBm

Overload power

4.5 dBm

Optical fiber type

Single-mode

Technical Specifications Table 3-41 lists technical specifications of the 1-Port 100GBase-CFP Integrated Line Process Unit. Table 3-41 Technical specifications of the 1-Port 100GBase-CFP Integrated Line Process Unit

Item

Specifications


NE5000E LPUI-100 1×100GE-CFP

Power consumption

About 322 W

Heat dissipation

1045 BTU/hour



Weight

About 9.0 kg (19.85 lb)

3.3 1000Base-X-SFP Optical Interface LPU This section describes the application, functions, panel, interface attributes, and technical specifications of the 1000 M Ethernet optical interface LPU.

3.3.1 10-port 1000Base-X-SFP optical interface LPU Overview The 1000Base-X-SFP optical interface LPU combines the flexibility of software and the high performance of hardware. The LPU can thus flexibly satisfy the carrier's requirements. It Issue 01 (2011-10-15)


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provides high-density Layer 2 and Layer 3 interfaces. It can be used on the convergence node of the MPLS backbone network and can access the Layer 2 and Layer 3 networks, minimizing the customer's investment. Figure 3-18 shows the appearance of the 10-port 1000Base-X-SFP optical interface LPU. Figure 3-18 Appearance of the 10-port 1000Base-X-SFP optical interface LPU

Application The 1000Base-X-SFP optical interface LPU can: l

Be used on the convergence node of the MPLS backbone network.

l

Provide 1000 Mbit/s bandwidth for upstream individual broadband users.

l

Support a long transmission distance to build a Metropolitan Area Network (MAN).

l

Support Eth-Trunk.

l

Provide high-density interfaces that can be bound to provide required bandwidth for service expansion without increasing investment.

Features and Functions The 1000Base-X-SFP optical interface LPU functions as follows: l


l


l


l

Monitors the environment of boards such as temperature and the voltage.

l

l


Based on the hierarchical structure, the 1000Base-X-SFP optical interface LPU is logically divided into the service control plane and the packet forwarding plane. In this way, coupling ratio and complexity between modules are decreased and reliability is improved. The service control plane uses the universal CPU and the packet forwarding plane uses the NP or the ASIC. Issue 01 (2011-10-15)


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The 1000Base-X-SFP optical interface LPU has a software abnormality detection mechanism to detect the following abnormalities: l

Task abnormality

l

Signaling abnormality

l

Data abnormality

The system prompts an alarm when an abnormality occurs.

Panel Figure 3-19 shows the panel appearance of the 1000Base-X-SFP optical interface LPU. Figure 3-19 Panel appearance of the 10-port 1000Base-X-SFP optical interface LPU

Table 3-42 lists the buttons and indicators on the panel of the 10-port 1000Base-X-SFP optical interface LPU. Table 3-42 Indicators on the panel of the 10-port 1000Base-X-SFP optical interface LPU

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Component

Description

OFL button

An offline button.Before drawing a board out, press the OFL button for about 6s till the OFL indicator is on.

OFL indicator (Red)

If the indicator is on, you can draw the board out.


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Component

Description

RUN indicator (Green)


BootROM is damaged.

l




l


LINK/ACT indicator If the indicator is on, the link is Up.If the indicator is blinking, the (Green) data is being read or written.If the indicator is off, the link is Down.

The 10-port 1000Base-X-SFP optical interface LPU that uses the SFP optical module has ten LC optical interfaces to send and receive 1000M Ethernet optical signals. The card number of the LPU is 0. Its interface number ranges from 0 to 9 from top to bottom.

Interface Attributes Table 3-43 lists the interface attributes of the 10-port 1000Base-X-SFP. Table 3-43 Interface attributes of the 10-port 1000Base-X-SFP optical interface LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard

IEEE 802.3-2002

Frame format


Network protocol

IP

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Attributes

Description


0.5 km (0.31 mi)

10 km (6.21 mi)

40 km (24.86 mi)

40 km (24.86 mi)

80 km (49.71 mi)

100 km (62.14 mi)

Center wavelength

850 nm

1310 nm

1310 nm

1550 nm

1550 nm

1550 nm


-9.5 dBm

-9.5 dBm

-4.5 dBm

-4.0 dBm

-2.0 dBm

0 dBm


-2.5 dBm

-3.0 dBm

3.0 dBm

1.0 dBm

5.0 dBm

5.0 dBm


-17.0 dBm

-20.0 dBm

-22.5 dBm

-21.0 dBm

-23.0 dBm

-30.0 dBm

Overload power

0 dBm

-3.0 dBm

-3.0 dBm

-3.0 dBm

-3.0 dBm

-9.0 dBm

Optical fiber type

Multimode

Singlemode

Singlemode

Singlemode

Singlemode

Singlemode


Attributes

Description


70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.5 0 mi)

70 km (43.50 mi)

Center wavelength

1470 nm

1490 nm

1510 nm

1530 nm

1550 nm

1570 nm

1590 nm

1610 nm


0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm


5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm


-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

Overload power

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

Optical fiber type

Single -mode

Singlemode

Singlemode

Singlemode

Singlemode

Single -mode

Singl emode

Single -mode

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Technical Specifications Table 3-46 lists the technical specifications of the 10-port 1000Base-X-SFP optical interface LPU. Table 3-46 Technical specifications of the 10-port 1000Base-X-SFP optical interface LPU

Item

Specifications


10x1000Base-SFP

Dimensions (width * depth * height)

400 mm x 520 mm x 41mm (15.75 in. x 20.47 in. x 1.61 in.)

Power consumption

About 139 W

Heat dissipation

451 BTU/hour

Board weight


Rate

1000 Mbit/s

3.3.2 20-port 1000Base-X-SFP optical interface LPU Overview The 1000Base-X-SFP optical interface LPU combines the flexibility of software and the high performance of hardware. The LPU can thus flexibly satisfy the carrier's requirements. It provides high-density Layer 2 and Layer 3 interfaces. It can be used on the convergence node of the MPLS backbone network and can access the Layer 2 and Layer 3 networks, minimizing the customer's investment. Figure 3-20 shows the appearance of the 20-port 1000Base-X-SFP optical interface LPU. Figure 3-20 Appearance of the 20-port 1000Base-X-SFP optical interface LPU

Application The 1000Base-X-SFP optical interface LPU can: Issue 01 (2011-10-15)


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l

Be used on the convergence node of the MPLS backbone network.

l

Provide 1000 Mbit/s bandwidth for upstream individual broadband users.

l

Support a long transmission distance to build a Metropolitan Area Network (MAN).

l

Support Eth-Trunk.

l

Provide high-density interfaces that can be bound to provide required bandwidth for service expansion without increasing investment.

Features and Functions The 1000Base-X-SFP optical interface LPU functions as follows: l


l


l


l

Monitors the environment of boards such as temperature and the voltage.

l

l


Based on the hierarchical structure, the 1000Base-X-SFP optical interface LPU is logically divided into the service control plane and the packet forwarding plane. In this way, coupling ratio and complexity between modules are decreased and reliability is improved. The service control plane uses the universal CPU and the packet forwarding plane uses the NP or the ASIC. The 1000Base-X-SFP optical interface LPU has a software abnormality detection mechanism to detect the following abnormalities: l

Task abnormality

l


l

Data abnormality


Panel Figure 3-21 shows the panel appearance of the 20-port 1000Base-X-SFP optical interface LPU.

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Figure 3-21 Panel appearance of the 20-port 1000Base-X-SFP optical interface LPU

Table 3-47 lists the buttons and indicators on the panel of the 1000Base-X-SFP optical interface LPU. Table 3-47 Indicators on the panel of the 20-port 1000Base-X-SFP optical interface LPU

Component

Description

OFL button


OFL indicator (Red)




BootROM is damaged.

l




l


LINK/ACT indicator If the indicator is on, the link is Up.If the indicator is blinking, the (Green) data is being read or written.If the indicator is off, the link is Down.

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The 20-port GE optical interface LPU adopts the pluggable SFP optical module and has 20 pairs of LC optical interfaces for transmitting and receiving GE optical signals. It has two cards. The upper care number is 0, and the lower card number is 1. The ports for both the cards are numbered from 0 to 9 from the top down.

Interface Attributes Table 3-48 lists the interface attributes of the 20-port 1000Base-X-SFP optical interface LPU. Table 3-48 Interface attributes of the 20-port 1000Base-X-SFP optical interface LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard

IEEE 802.3-2002

Frame format


Network protocol

IP


Attributes

Description


0.55 km (0.34 mi)

10 km (6.21 mi)

40 km (24.86 mi)

40 km (24.86 mi)

80 km (49.71 mi)

100 km (62.14 mi)

Center wavelength

850 nm

1310 nm

1310 nm

1550 nm

1550 nm

1550 nm


-9.5 dBm

-9.5 dBm

-4.5 dBm

-4.0 dBm

-2.0 dBm

0 dBm


-2.5 dBm

-3.0 dBm

3.0 dBm

1.0 dBm

5.0 dBm

5.0 dBm


-17.0 dBm

-20.0 dBm

-22.5 dBm

-21.0 dBm

-23.0 dBm

-30.0 dBm

Overload power

0 dBm

-3.0 dBm

-3.0 dBm

-3.0 dBm

-3.0 dBm

-9.0 dBm

Optical fiber type

Multimode

Singlemode

Singlemode

Singlemode

Singlemode

Singlemode

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Attributes

Description


70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.5 0 mi)

70 km (43.50 mi)

Center wavelength

1470 nm

1490 nm

1510 nm

1530 nm

1550 nm

1570 nm

1590 nm

1610 nm


0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm


5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm


-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

Overload power

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

Optical fiber type

Single -mode

Singlemode

Singlemode

Singlemode

Singlemode

Single -mode

Singl emode

Single -mode

Technical Specifications Table 3-51 lists the technical specifications of the 20-port 1000Base-X-SFP optical interface LPU. Table 3-51 Technical specifications of the 20-port 1000Base-X-SFP optical interface LPU

Item

Specifications


20x1000Base-SFP



Power consumption

About 240 W

Heat dissipation

779BTU/hour

Board weight


3.4 10G Ethernet Optical Interface LPU This section describes the application, functions, panel, interface attributes, and technical specifications of the 10G optical interface LPU. Issue 01 (2011-10-15)


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3.4.1 1-port 10GBase LAN-XFP optical interface LPU Overview The 10G Ethernet optical interface LPU provides: l

10G WAN interfaces

l

10G LAN interfaces

Combining the flexibility of software and the high performance of hardware, the 10G Ethernet optical interface LPU can thus flexibly satisfy the carrier's requirements. Combining the advantages of routing and switching, the LPU provides high-density Layer 2 and Layer 3 interfaces and can be used on the convergence node of the MPLS backbone network. Figure 3-22 show the appearance of the 1-port 10GBase LAN-XFP optical interface LPU. Figure 3-22 Appearance of the 1-port 10GBase LAN-XFP optical interface LPU

Application The 10GBase LAN interface can be connected with only 10G Ethernet LAN interfaces to construct the high speed LAN. The 10GBase Ethernet interface LPU supports MPLS and can access the Layer 2 and Layer 3 networks at the same time.

Features and Functions The 10GBase Ethernet optical interface LPU functions as follows: l

The 10GBase Ethernet LAN LPU provides 10G Ethernet LAN interfaces, processes gigabit Ethernet MAC frames, and provides Physical Coding Sublayer (PCS) functions in compliance with IEEE 802.3ae.

l

The 10GBase Ethernet WAN LPU provides 10G Ethernet WAN interfaces, processes gigabit Ethernet MAC frames, and provides PCS functions and Wide Area Interface Sublayer (WIS) functions in compliance with IEEE 802.3ae.

l

Supports pluggable XFP optical modules.

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Supports local and remote loopback functions.

l

Monitors the environment of boards, such as the temperature and the voltage.

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Stores and searches the production information on the LPU such as the board type and the board components.

l

Searches information about optical modules.

l

Based on the hierarchical structure, the 10GBase Ethernet optical interface LPU is logically divided into the service control plane and the packet forwarding plane. In this way, coupling degree and complexity between modules are decreased and reliability is improved. The service control plane uses the universal CPU, and the packet forwarding plane uses the NP or the ASIC. The 10GBase Ethernet optical interface LPU has a mechanism for detecting software abnormality such as: l

Task abnormality

l


l

Data abnormality


Panel Figure 3-23 shows the panel appearance of the 1-port 10GBase LAN-XFP LPU. Figure 3-23 Panel appearance of the 1-port 10GBase LAN-XFP LPU LPU OFL RUN

X R 0 0 X T X R 0 0 X T

Table 3-52 lists the buttons and indicators on the panel of the 10GBase LAN-XFP LPU. Issue 01 (2011-10-15)


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Table 3-52 Buttons and indicators on the panel of the 10GBase LAN-XFP LPU

Component

Description

OFL button


OFL indicator (red)



Before the LPU is powered on and registers, the indicator status is changed in the sequence of off – blinks quickly (4 Hz) – off – steady on – blinks slowly (0.5 Hz). After the LPU is powered on and registers: If the i ndicator blinks at 0.5 Hz, the system is working properly. NOTE The possible reasons why the indicator is off are listed below: l

BootROM is damaged.

l




l


LINK/ACT indicator If the indicator is on, the link is Up. If the indicator is blinking, the (green) data is being read or written. If the indicator is off, the link is Down.

The 1-port 10GBase LAN-XFP LPU uses the pluggable optical module. You can select the optical module of different transmission distances as required. The board has an LC optical interface that is used to receive and send 10G Ethernet optical signals. The card number and the interface number of the board are 0.

Interface Attributes Table 3-53 lists the interface attributes of the 1-port 10GBase LAN-XFP optical interface LPU. Table 3-53 Interface attributes of the 1-port 10GBase LAN-XFP optical interface LPU

Attributes

Description

Connector type

LC/PC


Compliant with the selected XFP optical module. For the attributes of XFP modules, see Table 3-54.

Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format


Network protocol

IP

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Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

The 10G XFP multi-mode optical transceiver supports two types of multi-mode optical fibers with different cores. Table 3-55 lists the relationship between the core, the modal/bandwidth, and the transmission distance. During configuration, the length of optical fibers is restricted by the transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type. If this type of optical fibers are required, you need to purchase it additionally. Table 3-55 The transmission distance of 10G XFP optical modules

Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-56 lists the technical specifications of the 1-port 10GBase LAN/WAN-XFP LPU.

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Table 3-56 Technical specifications of the 1-port 10GBase LAN/WAN-XFP LPU

Item

Specifications


1 x 10GBase LAN-XFP

Power consumption

About 139 W

Heat dissipation

451 BTU/hour



Board weight


Rate

10 Gbit/s

3.4.2 1-port 10GBase WAN-XFP Optical Interface LPU Overview 10G Ethernet optical inter face LPUs include WAN LPUs and LAN LPUs. l

WAN LPUs encapsulate Ethernet frames in SDH/SONET frames before transmitting them through optical fibers. Interfaces on a WAN LPU can be connected to interfaces on other WAN LPUs or connected to SDH/SONET transmission devices. WAN LPUs are mainly used for WAN interconnection.

l

LAN LPUs implement electro-optic conversion in transmitting Ethernet frames through optical fibers. Interfaces on a LAN LPU can be connected to only the interfaces on other LAN LPUs. LAN LPUs are mainly used for the LAN interconnection.

Combining the flexibility of software and the high performance of hardware, the 10G Ethernet optical interface LPU can thus flexibly satisfy the carrier's requirements. Combining the advantages of routing and switching, the LPU provides high-density Layer 2 and Layer 3 interfaces and can be used on the convergence node of the MPLS backbone network. Figure 3-24 show the appearance of the 1-port 10GBase WAN-XFP optical interface LPU. Figure 3-24 Appearance of the 1-port 10GBase WAN-XFP optical interface LPU

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Application The 10GBase WAN interface can be connected with transmission devices to construct the highspeed WAN. The 10GBase LAN interface can be connected with only 10G Ethernet LAN interfaces to construct the high speed LAN. The 10GBase Ethernet interface LPU supports MPLS and can access the Layer 2 and Layer 3 networks at the same time.



l


l


l


l

l

Stores and searches the production information on the LPU such as the board type and the board components. Searches information about optical modules.


Task abnormality

l


l

Data abnormality


Panel Figure 3-25 shows the panel appearance of the 1-port 10GBase WAN-XFP optical interface LPU.

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Figure 3-25 Panel appearance of the 1-port 10GBase WAN-XFP LPU LPU OFL RUN

X R 0 0 X T X R 0 0 X T

Table 3-57 lists the buttons and indicators on the panel of the 1-port 10GBase WAN-XFP optical interface LPU. Table 3-57 Buttons and indicators on the panel of the 10GBase WAN-XFP LPU

Component

Description

OFL button


OFL indicator (red)




BootROM is damaged.

l




l



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The 1-port 10GBase WAN-XFP LPU uses the pluggable optical module. You can select the optical module of different transmission distances as required. The board has an LC optical interface that is used to receive and send 10G Ethernet optical signals. The card number and the interface number of the board are 0.

Interface Attributes Table 3-58 lists the interface attributes of the 1-port 10GBase WAN-XFP optical interface LPU. Table 3-58 Interface attributes of the 10GBase WAN-XFP LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format


Network protocol

IP


Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

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The 10G XFP multi-mode optical transceiver supports two types of multi-mode optical fibers with different cores. Table 3-60 lists the relationship between the core, the modal/bandwidth, and the transmission distance. During configuration, the length of optical fibers is restricted by the transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type, If this type of optical fibers are required, you need to purchase it additionally. Table 3-60 The transmission distance of 10G XFP optical modules

Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-61 lists the technical specifications of the 1-port 10GBase WAN-XFP LPU. Table 3-61 Technical specifications of the 1-port 10GBase WAN-XFP LPU

Item

Specifications


1 x 10GBase WAN-XFP

Power consumption

About 140 W

Heat dissipation

454BTU/hour



Board weight

About 6.35 kg (14.00 lb)

Rate

10 Gbit/s


10G WAN interfaces

l

10G LAN interfaces

Combining the flexibility of software and the high performance of hardware, the 10G Ethernet optical interface LPU can thus flexibly satisfy the carrier's requirements. Combining the advantages of routing and switching, the LPU provides high-density Layer 2 and Layer 3 interfaces and can be used on the convergence node of the MPLS backbone network. Issue 01 (2011-10-15)


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Figure 3-26 show the appearance of the 2-port 10GBase LAN-XFP optical interface LPU. Figure 3-26 Appearance of the 2-port 10GBase LAN-XFP optical interface LPU




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Task abnormality Huawei Proprietary and Confidential Copyright © Huawei Technologies Co., Ltd.

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l


l

Data abnormality


Panel Figure 3-27 shows the panel appearance of the 2-port 10GBase LAN-XFP optical interface LPU. Figure 3-27 Panel appearance of the 2-port 10GBase LAN-XFP LPU

Table 3-62 lists the buttons and indicators on the panel of the 2-port 10GBase LAN-XFP optical interface LPU. Table 3-62 Buttons and indicators on the panel of the 10GBase LAN-XFP LPU

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Component

Description

OFL button


OFL indicator (red)



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Component

Description



BootROM is damaged.

l




l



The 2-port 10GBase LAN-XFP LPU uses the pluggable optical module. You can select the optical module of different transmission distances as required. The board has two LC optical interfaces that is used to receive and send 10G Ethernet optical signals. The card number is 0, the interface number are 0 and 1.

Interface Attributes Table 3-63 lists the interface attributes of the 10GBase Ethernet optical interface LPU. Table 3-63 Interface attr ibutes of the 10GBase LAN-XFP LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format


Network protocol

IP

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Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode


Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-66 lists the technical specifications of the 2-port 10GBase LAN-XFP LPU.

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Table 3-66 Technical specifications of the 2-port 10GBase LAN-XFP LPU

Item

Specifications


2 x 10 GBase LAN-XFP

Power consumption

About 166 W

Heat dissipation

539 BTU/hour



Board weight


Rate

10 Gbit/s

Connector type

LC/PC

3.4.4 2-port 10GBase WAN-XFP optical interface LPU Overview The 10G Ethernet optical interface LPU provides: l

10G WA N interfaces

l

10G LAN interfaces


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Application The 10GBase WAN interface can be connected with transmission devices to construct the highspeed WAN. The 10GBase Ethernet interface LPU supports MPLS and can access the Layer 2 and Layer 3 networks at the same time.



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Task abnormality

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Data abnormality



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Figure 3-29 Panel appearance of the 2-port 10GBase WAN-XFP LPU

Table 3-67 lists the buttons and indicators on the panel of the 10GBase WAN-XFP LPU. Table 3-67 Buttons and indicators on the panel of the 10GBase WAN-XFP LPU

Component

Description

OFL button


OFL indicator (red)




BootROM is damaged.

l




l



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The 2-port 10GBase WAN-XFP LPU uses the pluggable optical module. You can select the optical module of different transmission distances as required. The board has two LC optical interfaces that is used to receive and send 10G Ethernet optical signals. The card number is 0, the interface number are 0 and 1.

Interface Attributes Table 3-68 lists the interface attri butes of the 10GBase Ethernet optical interface LPU. Table 3-68 Interface attributes of the 10GBase WAN-XFP LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format


Network protocol

IP


Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

The 10G XFP multi-mode optical transceiver supports two types of multi-mode optical fibers with different cores. Table 3-70 lists the relationship between the core, the modal/bandwidth, Issue 01 (2011-10-15)


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and the transmission distance. During configuration, the length of optical fibers is restricted by the transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type. If this type of optical fibers are required, you need to purchase it additionally. Table 3-70 The transmission distance of 10G XFP optical modules

Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-71 lists the technical specifications of the 2-port10GBase WAN-XFP LPU. Table 3-71 Technical specifications of the 2-port 10GBase WAN-XFP LPU

Item

Specifications


2 x 10 GBase WAN-XFP

Power consumption

About 172 W

Heat dissipation

558 BTU/hour



Board weight


Rate

10 Gbit/s

Connector type

LC/PC


10G WAN interfaces

l

10G LAN interfaces

Combining the flexibility of software and the high performance of hardware, the 10G Ethernet optical interface LPU can thus flexibly satisfy the carrier's requirements. Combining the advantages of routing and switching, the LPU provides high-density Layer 2 and Layer 3 interfaces and can be used on the convergence node of the MPLS backbone network. Issue 01 (2011-10-15)


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Figure 3-30 show the appearance of the 4-port 10GBase LAN-XFP optical interface LPU. Figure 3-30 Appearance of the 4-port 10GBase LAN-XFP optical interface LPU




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l


Based on the hierarchical structure, the 10GBase Ethernet optical interface LPU is logically divided into the service control plane and the packet forwarding plane. In this way, coupling degree and complexity between modules are decreased and reliability is improved. The service control plane uses the universal CPU, and the packet forwarding plane uses two NPs or an ASIC. The 10GBase Ethernet optical interface LPU has a mechanism for detecting software abnormality such as: Issue 01 (2011-10-15)


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l

Task abnormality

l


l

Data abnormality


Panel Figure 3-31 shows the panel appearance of the 4-port 10GBase LAN-XFP optical interface LPU. Figure 3-31 Panel appearance of the 4-port 10GBase LAN-XFP LPU

Table 3-72 lists the buttons and indicators on the panel of the 10GBase LAN-XFP LPU. Table 3-72 Buttons and indicators on the panel of the 10GBase LAN-XFP LPU

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Component

Description

OFL button


OFL indicator (red)



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Component

Description



BootROM is damaged.

l




l



The 4-port 10GBase LAN-XFP LPU uses the pluggable optical module. You can select the optical module of different transmission distances as required. The board has four LC optical interfaces that is used to receive and send 10G Ethernet optical signals. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 1. The number of the lower card is 1 and its ports are numbered from 0 to 1.

Interface Attributes Table 3-73 lists the inter face attributes of the 10GBase Ethernet optical interface LPU. Table 3-73 Interface attributes of the 10GBase LAN-XFP LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format


Network protocol

IP

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Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode


Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-76 lists the technical specifications of the 4-port10GBase LAN-XFP LPU.

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Table 3-76 Technical specifications of the 4-port 10GBase LAN-XFP LPU

Item

Specifications


4 x 10 GBase LAN-XFP

Power consumption

About 280 W

Heat dissipation

908 BTU/hour

Dimensions (width x depth xheight)


Board weight


Rate

10 Gbit/s

3.4.6 4-port 10GBase WAN-XFP optical interface LPU Overview The 10G Ethernet optical interface LPU provides: l

10G WAN interfaces

l

10G LAN interfaces


Application The 10GBase WAN interface can be connected with transmission devices to construct the highspeed WAN. Issue 01 (2011-10-15)


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The 10GBase LAN interface can be connected with only 10G Ethernet LAN interfaces to construct the high speed LAN. The 10GBase Ethernet interface LPU supports MPLS and can access the Layer 2 and Layer 3 networks at the same time.



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Task abnormality

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Data abnormality



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Figure 3-33 Panel appearance of the 4-port 10GBase WAN-XFP LPU

Table 3-77 lists the buttons and indicators on the panel of the 10GBase WAN-XFP LPU. Table 3-77 Buttons and indicators on the panel of the 10GBase WAN-XFP LPU

Component

Description

OFL button


OFL indicator (red)




BootROM is damaged.

l




l



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The 4-port 10GBase WAN-XFP LPU uses the pluggable optical module. You can select the optical module of different transmission distances as required. The board has four LC optical interfaces that is used to receive and send 10G Ethernet optical signals. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 1. The number of the lower card is 1 and its ports are numbered from 0 to 1.

Interface Attributes Table 3-78 lists the interface attributes of the 10GBase Ethernet optical interface LPU. Table 3-78 Interface attributes of the 10GBase WAN-XFP LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard

IEEE 802.3ae

Frame format


Network protocol

IP


Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

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The 10G XFP multi-mode optical transceiver supports two types of multi-mode optical fibers with different cores. Table 3-80 lists the relationship between the core, the modal/bandwidth, and the transmission distance. During configuration, the length of optical fibers is restricted by the transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type, If this type of optical fibers are required, you need to purchase it additionally. Table 3-80 The transmission distance of 10G XFP optical modules

Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-81 lists the technical specifications of the 4-port10GBase WAN-XFP LPU. Table 3-81 Technical specifications of the 4-port 10GBase WAN-XFP LPU

Item

Specifications


4 x 10 GBase WAN-XFP

Power consumption

About 278 W

Heat dissipation

902 BTU/hour

Dimensions (width x depth xheight)


Board weight


Rate

10 Gbit/s

3.5 OC-48c/STM-16c POS-SFP Optical Interface LPU This section describes the application, functions, panel, interface attributes, and technical specifications of the OC-48c/STM-16c POS-SFP optical interface LPU.

3.5.1 1-port OC-48c/STM-16c POS-SFP optical interface LPU Overview The OC-48c/STM-16c POS-SFP optical interface LPU provides 2.5 Gbit/s optical interfaces. Issue 01 (2011-10-15)


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The following figures show the appearance of the OC-48c/STM-16c POS-SFP optical interface LPU. Figure 3-34 Appearance of the 1-port OC-48c/STM-16c POS-SFP optical interface LPU

Application The OC-48c/STMc-16c POS-SFP optical interface LPU can be used on the convergence node of the MPLS backbone network. In a MAN, it can be used as a backbone node and can provide 2.5 G bandwidth.

Features and Functions The OC-48c/STM-16c POS-SFP optical interface LPU functions as follows: l

Encapsulates or decapsulates POS frames of data stream and provides SDH/SONET mapping and demapping of POS frames.

l

Supports pluggable SFP optical modules.

l


l


l

l

Stores and searches the production information on the LPU, such as the board type and the board components. Searches information about optical modules.

Based on the hierarchical structure, the OC-48c/STM-16c POS-SFP optical interface LPU is logically divided into the service control plane and the packet forwarding plane. In this way, coupling degree and complexity between modules are decreased and reliability is improved. The service control plane uses the universal CPU and the packet forwarding plane uses two NPs or an ASIC. The OC-48c/STM-16c POS-SFP optical interface LPU has a mechanism for detecting software abnormality such as: l

Task abnormality

l


l

Data abnormality

The system prompts an alarm when an abnormality occurs. Issue 01 (2011-10-15)


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Panel The following figures show the panel appearance of the OC-48c/STM-16c optical interface POSSFP LPU. Figure 3-35 Panel appearance of the 1-port OC-48c/STM-16c POS-SFP LPU

Table 3-82 lists the buttons and indicators on the panel of the OC-48c/STM-16c POS-SFP LPU. Table 3-82 Buttons and indicators on the panel of the OC-48c/STM-16c POS-SFP LPU

Issue 01 (2011-10-15)

Component

Description

OFL button


OFL indicator (red)



110


3 Boards

Component

Description



BootROM is damaged.

l




l


l



The 1-port OC-48c/STM-16c POS-SFP LPU has an LC optical interface that is used to receive and send OC-48c/STM-16c optical signals. The board and its interface are numbered 0.

Interface Attributes Table 3-83 lists the interface attributes of the OC-48c/STM-16c POS-SFP LPU. Table 3-83 Interface attributes of the OC-48c/STM-16c POS-SFP LPU

Attributes

Description

Connector type

LC/PC


Compliant with the selected SFP optical module. (For the attributes of SFP modules, see Table 3-84.)

Working mode

Full-duplex

Compliant standard

STM-16c SDH/OC-48c SONET RFC 1619/1661/1662/2615

Link protocol

PPP or HDLC

Network protocol

IP

Table 3-84 Attributes of 2.5G SFP optical modules

Issue 01 (2011-10-15)

Attributes

Description


2 km (1.24 mi)

15 km (9.32 mi)

40 km (24.86 mi)


80 km (49.71 mi)

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3 Boards

Attributes

Description

Center wavelength

1310 nm

1310 nm

1310 nm

1550 nm


-10.0 dBm

-5.0 dBm

-2.0 dBm

-2.0 dBm


-3.0 dBm

0 dBm

3.0 dBm

3.0 dBm


-21.0 dBm

-21.0 dBm

-30.0 dBm

-30.0 dBm

Overload power

-3.0 dBm

0 dBm

-9.0 dBm

-9.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

Technical Specifications Table 3-85 lists the technical specifications of the OC-48c/STM-16c POS-SFP LPU. Table 3-85 Technical specifications of the 1-port OC-48c/STM-16c POS-SFP LPU

Item

Specifications


1 x POS/STM16-SFP

Power consumption

About 128 W

Heat dissipation

415 BTU/hour



Board weight


Rate

2.5 Gbit/s

3.5.2 2-port OC-48c/STM-16c POS-SFP optical interface LPU Overview The OC-48c/STM-16c POS-SFP optical interface LPU provides 2.5 Gbit/s optical interfaces. The following figures show the appearance of the OC-48c/STM-16c POS-SFP optical interface LPU. Issue 01 (2011-10-15)


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Figure 3-36 Appearance of the 2-port OC-48c/STM-16c POS-SFP optical interface LPU




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l

l



Task abnormality

l


l

Data abnormality


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Issue 01 (2011-10-15)

Component

Description

OFL button


OFL indicator (red)



114


3 Boards

Component

Description



BootROM is damaged.

l




l


l



The 2-port OC-48c/STM-16c POS-SFP LPU has two LC optical interfaces that are used to receive and send OC-48c/STM-16c optical signals. The board number is 0. The interface number ranges from 0 to 1 from top to bottom.


Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard


Link protocol

PPP or HDLC

Network protocol

IP


Issue 01 (2011-10-15)

Attributes

Description


2 km (1.24 mi)

15 km (9.32 mi)

40 km (24.86 mi)


80 km (49.71 mi)

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3 Boards

Attributes

Description

Center wavelength

1310 nm

1310 nm

1310 nm

1550 nm


-10.0 dBm

-5.0 dBm

-2.0 dBm

-2.0 dBm


-3.0 dBm

0 dBm

3.0 dBm

3.0 dBm


-21.0 dBm

-21.0 dBm

-30.0 dBm

-30.0 dBm

Overload power

-3.0 dBm

0 dBm

-9.0 dBm

-9.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode


Item

Specifications


2 x POS/STM16-SFP

Power consumption

About 136 W

Heat dissipation

441 BTU/hour



Board weight


Rate

2.5 Gbit/s



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Task abnormality

l


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Data abnormality


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Issue 01 (2011-10-15)

Component

Description

OFL button


OFL indicator (red)



118


3 Boards

Component

Description



BootROM is damaged.

l




l


l



The 4-port OC-48c/STM-16c POS-SFP LPU has four LC optical interfaces that are used t o receive and send OC-48c/STM-16cc optical signals. The boa rd number is 0. The interface number ranges from 0 to 3 from top to bottom.


Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard


Link protocol

PPP or HDLC

Network protocol

IP


Issue 01 (2011-10-15)

Attributes

Description


2 km (1.24 mi)

15 km (9.32 mi)

40 km (24.86 mi)


80 km (49.71 mi)

119


3 Boards

Attributes

Description

Center wavelength

1310 nm

1310 nm

1310 nm

1550 nm


-10.0 dBm

-5.0 dBm

-2.0 dBm

-2.0 dBm


-3.0 dBm

0 dBm

3.0 dBm

3.0 dBm


-21.0 dBm

-21.0 dBm

-30.0 dBm

-30.0 dBm

Overload power

-3.0 dBm

0 dBm

-9.0 dBm

-9.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode


Item

Specifications


4 x POS/STM16-SFP

Power consumption

About 145 W

Heat dissipation

470 BTU/hour



Board weight


Rate

2.5 Gbit/s



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3 Boards





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Task abnormality

l


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Data abnormality


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Panel The following figures show the panel appearance of the OC-48c/STM-16c optical interface POSSFP LPU. Figure 3-41 Panel appearance of the 8-port OC-48c/STM-16c POS-SFP LPU LPU OFL RUN X R 0 0 X T X R 1 0 X T

T A C K / N I L T A C K / N I L


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Component

Description

OFL button


OFL indicator (red)



122


3 Boards

Component

Description



BootROM is damaged.

l




l


l



The 8-port OC-48c/STM-16c POS-SFP LPU has eight LC optical interfaces that are used to receive and send OC-48c/STM-16c optical signals. You can select the pluggable SFP optical module of different transmission distances as required. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 3. The number of the lower card is 1 and its ports are numbered from 0 to 3.

Interface Attributes Table 3-95 lists the inter face attributes of the OC-48c/STM-16c POS-SFP LPU. Table 3-95 Interface attributes of the OC-48c/STM-16c POS-SFP LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard


Link protocol

PPP or HDLC

Network protocol

IP

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Attributes

Description


2 km (1.24 mi)

15 km (9.32 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

1310 nm

1310 nm

1310 nm

1550 nm


-10.0 dBm

-5.0 dBm

-2.0 dBm

-2.0 dBm


-3.0 dBm

0 dBm

3.0 dBm

3.0 dBm


-21.0 dBm

-21.0 dBm

-30.0 dBm

-30.0 dBm

Overload power

-3.0 dBm

0 dBm

-9.0 dBm

-9.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode


Item

Specifications


8 x POS/STM16-SFP

Power consumption

About 245 W

Heat dissipation

795 BTU/hour



Board weight


Rate

2.5 Gbit/s

3.6 OC-192c/STM-64c POS-XFP Optical Interface LPU This section describes the application, functions, panel, interface attributes, and technical specific ations of the OC-192c/STM-64c POS-XFP optical interface LPU.

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3.6.1 1-port OC-192c/STM-64c POS-XFP optical interface LPU Overview The OC-192c/STM-64c POS-XFP optical interface provides 10 Gbit/s optical interfaces. Figure 3-42 shows the appearance of the OC-192c/STM-64c POS-XFP optical interface LPU. Figure 3-42 Appearance of the 1-port OC-192c/STM-64c POS-XFP optical interface LPU

Application The OC-192c/STM-64c POS-XFP optical interface LPU can be used on the convergence node of the MPLS backbone network.

Features and Functions The OC-192c/STM-64c POS-XFP optical interface LPU functions as follows: l


l


l


l


l

l


Based on the hierarchical structure, the OC-192c/STM-64c POS-XFP optical interface LPU is logically divided into the service control plane and the packet forwarding plane. In this way, coupling degree and complexity between modules are decreased and reliability is improved. The service control plane uses the universal CPU and the packet forwarding plane uses two NPs or an ASIC. The OC-192c/STM-64c POS-XFP optical interface LPU has a mechanism for detecting software abnormality such as: Issue 01 (2011-10-15)


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l

Task abnormality

l


l

Data abnormality


Panel Figure 3-43 shows the panel appearance of the OC-192c/STM-64c POS-XFP LPU. Figure 3-43 Panel appearance of the 1-port OC-192c/STM-64c POS-XFP LPU

Table 3-98 lists the buttons and indicators on the panel of the OC-192c/STM-64c POS-XFP LPU. Table 3-98 Indicators on the panel of the OC-192c/STM-64c POS-XFP LPU

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Component

Description

OFL bu button

An offline button. Be Before removing a board, pr press the OFL button for about 6s till the OFL indicator is on.

OFL indica indicator tor (red) (red)

If the the indi indicat cator or is is on, on, you can remov removee the the board board..


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Component

Description



BootROM is damaged.

l




l


LINK/ACT indicator If the indicator is on, the link is Up.If the indicator is blinking, the (green) data is being read or written. If the indicator is off, the link is Down.

The interfaces of the OC-192c/STM-64c POS-XFP LPU are described as follows: The 1-port OC-192c/STM-64c POS-XFP LPU has an LC optical interface that is used to receive and send OC-192c/STM-64c optical signals. The LPU uses the pluggable XFP optical module. You can select the optical module of different transmission distances as required. The board number and the interface number are 0.

Interface Attributes Table 3-99 lists the interface attributes of the OC-192c/STM-64c POS-XFP POS-XFP LPU. Table 3-99 Interface attributes of the OC-192c/STM-64c POS-XFP POS-XFP LPU

Attributes

Description

Connector type

LC/PC


Compliant with the selected XFP optical module. (For the attributes of XFP modules, see Table 3-100.)

Working mode

Full-duplex

Comp Compli lian antt stan standa dard rd

STMSTM-64 64cc SDH SDH/O /OCC-19 192c 2c SON SONET ET RFC RFC 261 2615 5 (161 (1619) 9) /16 /1662 62

Link protocol

PPP or HDLC

Network protocol

IP

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Attributes

Description


10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

1310 nm

1550 nm

1550 nm


-6.0 dBm

-1.0 dBm

0 dBm


-1.0 dBm

2.0 dBm

4.0 dBm


-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Single-mode

Single-mode

Single-mode

NOTE

The 10G XFP multi-mode optical transceiver supports two types of multi-mode optical fibers with different cores. Table 3-101 lists the relationship between the core, the modal/bandwidth, and the transmission distance. During configuration, the length of optical fibers is restricted by the transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type. If this type of optical fibers are required, you need to purchase it additionally.

Table 3-101 The transmission distance of 10G XFP optical modules

Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-102 lists the technical specifications of the OC-192c/STM-64c POS-XFP POS-XFP LPU. Table 3-102 Technical specifications of the OC-192c/STM-64c POS-XFP POS-XFP LPU

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Item

Specifications

Silk Silk scr scree een n of of the the boar board d nam namee

1 x POS POS/S /STM TM64 64-X -XFP FP


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Item

Specifications

Power consumption

About 149 W

Heat dissipation

483 BTU/hour



Board weight


Rate

10 Gbit/s

3.6.2 2-port OC-192c/STM-64c POS-XFP optical interface LPU Overview The OC-192c/STM-64c POS-XFP optical interface provides 10 Gbit/s optical interfaces. Figure 3-44 shows the appearance of the OC-192c/STM-64c POS-XFP optical interface LPU. Figure 3-44 Appearance of the 2-port OC-192c/STM-64c POS-XFP POS-XFP optical interface LPU




l


l


l


l

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Stores and searches the production information on the LPU, such as the board type and the board components. Huawei Proprietary and Confidential Copyright © Huawei Technologies Co., Ltd.

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Searches information about optical modules.

Based on the hierarchical structure, the OC-192c/STM-64c POS-XFP optical interface LPU is logically divided into the service control plane and the packet forwarding plane. In this way, coupling degree and complexity between modules are decreased and reliability is improved. The service control plane uses the universal CPU and the packet forwarding plane uses two NPs or an ASIC. The OC-192c/STM-64c POS-XFP optical interface LPU has a mechanism for detecting software abnormality such as: l

Task abnormality

l


l

Data abnormality



Table 3-103 lists the buttons and indicators on the panel of the OC-192c/STM-64c POS-XFP LPU.

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Table 3-103 Indicators on the panel of the OC-192c/STM-64c POS-XFP LPU

Component

Description

OFL button

An offline button. Before removing a board, press the OFL button for about 6s till the OFL indicator is on.

OFL indicator (red)




BootROM is damaged.

l




l



The interfaces of the OC-192c/STM-64c POS-XFP LPU are described as follows: The 2-port OC-192c/STM-64c POS-XFP LPU has an LC optical interface that is used to receive and send OC-192c/STM-64c optical signals. The LPU uses the pluggable XFP optical module. You can select the optical module of different transmission distances as required. The card number is 0, the interface number are 0 and 1.

Interface Attributes Table 3-104 lists the interface attributes of the OC-192c/STM-64c POS-XFP LPU. Table 3-104 Interface attributes of the OC-192c/STM-64c POS-XFP LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard


Link protocol

PPP or HDLC

Network protocol

IP

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Attributes

Description


10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

1310 nm

1550 nm

1550 nm


-6.0 dBm

-1.0 dBm

0 dBm


-1.0 dBm

2.0 dBm

4.0 dBm


-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Single-mode

Single-mode

Single-mode

NOTE



Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-107 lists the technical specifications of the OC-192c/STM-64c POS-XFP LPU. Table 3-107 Technical specifications of the OC-192c/STM-64c POS-XFP LPU

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Item

Specifications


2 x POS/STM64-XFP


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Item

Specifications

Power consumption

About 246W

Heat dissipation

798 BTU/hour



Board weight


Rate

10 Gbit/s

3.6.3 4-port OC-192c/STM-64c POS-XFP optical interface LPU Overview The OC-192c/STM-64c POS-XFP optical interface provides 10 Gbit/s optical interfaces. Figure 3-46 shows the appearance of the OC-192c/STM-64c POS-XFP optical interface LPU. Figure 3-46 Appearance of the 4-port OC-192c/STM-64c POS-XFP optical interface LPU




l


l


l


l

l

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Based on the hierarchical structure, the OC-192c/STM-64c POS-XFP optical interface LPU is logically divided into the service control plane and the packet forwarding plane. In this way, coupling degree and complexity between modules are decreased and reliability is improved. The service control plane uses the universal CPU and the packet forwarding plane uses two NPs or an ASIC. The OC-192c/STM-64c POS-XFP optical interface LPU has a mechanism for detecting software abnormality such as: l

Task abnormality

l


l

Data abnormality



Table 3-108 lists the buttons and indicators on the panel of the OC-192c/STM-64c POS-XFP LPU.

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Table 3-108 Indicators on the panel of the OC-192c/STM-64c POS-XFP LPU

Component

Description

OFL button

An offline button. Before removing a board, press the OFL button for about 6s till the OFL indicator is on.

OFL indicator (red)




BootROM is damaged.

l




l



The interfaces of the OC-192c/STM-64c POS-XFP LPU are described as follows: The 4-port OC-192c/STM-64c POS-XFP LPU has an LC optical interface that is used to receive and send OC-192c/STM-64c optical signals. The LPU uses the pluggable XFP optical module. You can select the optical module of different transmission distances as required. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 1. The number of the lower card is 1 and its ports are numbered from 0 to 1.

Interface Attributes Table 3-109 lists the interface attributes of the OC-192c/STM-64c POS-XFP LPU. Table 3-109 Interface attributes of the OC-192c/STM-64c POS-XFP LPU

Attributes

Description

Connector type

LC/PC



Working mode

Full-duplex

Compliant standard


Link protocol

PPP or HDLC

Network protocol

IP

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Attributes

Description


10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

1310 nm

1550 nm

1550 nm


-6.0 dBm

-1.0 dBm

0 dBm


-1.0 dBm

2.0 dBm

4.0 dBm


-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Single-mode

Single-mode

Single-mode

NOTE



Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)

Technical Specifications Table 3-112 lists the technical specifications of the OC-192c/STM-64c POS-XFP LPU.

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Table 3-112 Technical specifications of the OC-192c/STM-64c POS-XFP LPU

Item

Specifications


4 x OC-192c/STM-64c POS-XFP

Power consumption

About 310 W

Heat dissipation

1006 BTU/hour



Board weight


Rate

10 Gbit/s

3.7 Combination LPU This section describes the application, functions, panel, interface attributes, and technical specifications of the combination LPU.

3.7.1 Overview The combination LPU supports the mixing of various interfaces. That is, an LPU can provide both Ethernet and POS interfaces. The combination LPU falls into the following types: l

2*OC-192c/STM-64c POS-XFP+4*OC-48c/STM-16c POS-SFP optical interface LPU

l

2*OC-192c/STM-64c POS-XFP+10*1000Base-SFP optical interface LPU

l

2*OC-192c/STM-64c POS-XFP+2*10GBase LAN-XFP optical interface LPU

l

2*OC-192c/STM-64c POS-XFP+2*10GBase WAN-XFP optical interface LPU

l

2*10GBase LAN-XFP+4*OC-48c/STM-16c POS-SFP optical interface LPU

l

2*10GBase WAN-XFP+4*OC-48c/STM-16c POS-SFP optical interface LPU

l

4*OC-48c/STM-16c POS-SFP+10*1000Base-SFP optical interface LPU

Figure 3-48 shows the appearance of the 2*OC-192c/STM-64c POS-XFP+2*10GBase WANXFP optical interface LPU. Figure 3-48 Appearance of 2*OC-192c/STM-64c POS-XFP+2*10GBase WAN-XFP optical interface LPU

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3.7.2 Application The combination LPU can be used on the convergence node of the backbone network.

3.7.3 Features and Functions Functions The combination LPU functions as follows: l

Provides SPI4.2.

l

Supports pluggable optical modules.

l


l

Monitors the environment of boards such as temperature and voltage.

l

l

Stores and queries the production information on the LPU such as the board type and the board components. Queries the information on optical modules.

Reliability Based on the hierarchical structure, the multiple types interfaces LPU is logically divided into the service control plane and the packet forwarding plane. In this way, coupling ratio and complexity between modules are decreased and the reliability is improved. The service control plane uses the universal CPU and the packet forwarding plane uses two NPs or an ASIC.

Recovery Mechanism The combination LPU has a software abnormality detection mechanism to detect the following abnormalities: l

Task abnormality

l


l

Data abnormality

The system prompts an alarm when an abnormality occurs. In addition, the system restarts in the case of a fatal abnormality.

Expansibility The PIC and LPU modules of the LPU are i solated from each other and can be replaced individually.

3.7.4 Panel The combination LPU is classified into types of boards. The following takes the description of the 2*OC-192c/STM-64c POS-XFP + 2*10GBase WAN-XFP interface LPU as an example. Issue 01 (2011-10-15)


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Figure 3-49 shows the panel appearance of the 2*OC-192c/STM-64c POS-XFP+2*10GBase WAN-XFP optical interface LPU. Figure 3-49 Panel appearance of the 2-port OC-192c/STM-64c POS-XFP+2-port 10GBase WAN-XFP optical interface LPU

Buttons and Indicators on the Panel Table 3-113 lists the buttons and indicators on the panel of the combination LPU. Table 3-113 Indicators on the panel of the combination LPU

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Component

Description

OFL button


OFL indicator (Red)



If the indicator blinks once every 2s (0.5 Hz), the LPU is in the normal state.If the indicator blinks twice every 1s (2 Hz), the LPU is in the alarm state.

LINK/ACT indicator (Green)

If the indicator is on, the link i s Up.If the indicator is blinking, the data is being read or written.If the indicator is off, the link is Down.


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Interface The 2-port 10GBase LAN-XFP+4-port OC-48c/STM-16c POS-SFP optical interface LPU has two 10G LAN Ethernet interfaces and four 2.5G POS interfaces. The 10G LAN interface uses the pluggable XFP optical module, the 2.5G POS interface uses the pluggable SFP optical module. You can select the optical module of different transmission distances as required. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 1. The number of the lower card is 1 and its ports are numbered from 0 to 3. The 2-port 10GBase WAN-XFP+4-port OC-48c/STM-16c POS-SFP optical interface LPU has two 10G WAN Ethernet interfaces and four 2.5G POS interfaces. The 10G WAN interface uses the pluggable XFP optical module, the 2.5G POS interface uses the pluggable SFP optical module. You can select the optical module of different transmission distances as required. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 1. The number of the lower card is 1 and its ports are numbered from 0 to 3. The 2-port OC-192c/STM-64c POS-XFP+4-port OC-48c/STM-16c POS-SFP optical interface LPU has two 10G POS interfaces and four 2.5G POS interfaces. The 10G POS interface uses the pluggable XFP optical module. The 2.5G POS interface uses the pluggable SFP optical module. You can select the optical module of different transmission distances as required. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 1. The number of the lower card is 1 and its ports are numbered from 0 to 3. The 2-port OC-192c/STM-64c POS-XFP+10-port 1000Base-X-SFP optical interface LPU has two 10G POS interfaces and ten 1G Ethernet interfaces. The 10G POS interface uses the pluggable XFP optical module, the 1G Ethernet interface uses the pluggable SFP optical module. You can select the optical module of different transmission distances as required. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 1. The number of the lower card is 1 and its ports are numbered from 0 to 9. The 2-port OC-192c/STM-64c POS-XFP+2-port 10GBase LAN-XFP optical interface LPU has two 10G POS interfaces and two 10G LAN Ethernet interfaces. The 10G POS interface uses the pluggable XFP optical module, the 10G LAN Ethernet interface uses the pluggable XFP optical module. You can select the optical module of different transmission distances as required. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 1. The number of the lower card is 1 and its ports are numbered from 0 to 1. The 2-port OC-192c/STM-64c POS-XFP+2-port 10GBase WAN-XFP optical interface LPU has two 10G POS interfaces and two 10G WAN Ethernet interfaces. The 10G POS interface uses the pluggable XFP optical module, the 10G LAN Ethernet interface uses the pluggable XFP optical module. You can select the optical module of different transmission distances as required. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 1. The number of the lower card is 1 and its ports are numbered from 0 to 1. The 4-port OC-48c/STM-16c POS-SFP+10-port 1000Base-X-SFP optical interface LPU has four 2.5G POS interfaces and ten 1G Ethernet interfaces. The 2.5G POS interface uses the pluggable SFP optical module, the 1G Ethernet interface uses the pluggable SFP optical module. You can select the optical module of different transmission distances as required. It has two cards. The number of the upper card is 0 and its ports are numbered from 0 to 3. The number of the lower card is 1 and its ports are numbered from 0 to 9.

3.7.5 Interface Attributes Attributes of the 1000Base-X-SFP interface are shown in Table 3-114. Issue 01 (2011-10-15)


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Table 3-114 Interface attributes of the 1000Base-X-SFP

Attribute

Description

Connector type

LC/PC

Optical interface attribute

Determined by the SFP optical module. For the selectable optical module, refer to Table 3-115.

Duplex mode

Full-duplex

Standard compliance

IEEE 802.3z

Frame format

Ethernet_II, Ethernet_SAP and Ethernet_SNAP

Network protocol

IP


Attributes

Description


70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.5 0 mi)

70 km (43.50 mi)

Center wavelength

1470 nm

1490 nm

1510 nm

1530 nm

1550 nm

1570 nm

1590 nm

1610 nm


0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm


5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm


-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

Overload power

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

Optical fiber type

Single -mode

Singlemode

Singlemode

Singlemode

Singlemode

Single -mode

Singl emode

Single -mode

Attributes of the 10GBase LAN/WAN interfaces are shown in Table 3-116.

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Table 3-116 Interface attributes of the 10GBase LAN/WAN-XFP

Attributes

Description

Connector type

LC/PC

Interface attributes


Working mode

Full-duplex

Compliant standard

IEEE 802.3z

Frame format


Network protocol

IP


Attributes

Description


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

Attributes of the OC-192c/STM-64c POS-XFP interfaces are shown in Table 3-118. Table 3-118 Interface attributes of the OC-192c/STM-64c POS-XFP

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Attribute

Description

Connector type

LC/PC


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3 Boards

Attribute

Description


Determined by the selected XFP optical module. (For the selectable optical module, refer to Table 3-117.)

Duplex mode

Full-duplex

Standard compliance

Conforms to the STM-64c SDH/OC-192c SONET standard and supports RFC 2615(1619)/1662

Link protocol

PPP and HDLC

Network protocol

IP

Attributes of the OC-48c/STM-16c POS-SFP interface are shown in Table 3-119. Table 3-119 Interface attributes of the OC-48c/STM-16c POS-SFP

Attribute

Description

Connector type

LC/PC


Determined by the selected SFP optical module. For the selectable optical module, refer to Table 3-120.

Duplex mode

Full-duplex

Standard compliance

Conforms to the STM-16c SDH/OC-48c SONET standard and supports IETF RFC 1619/1661/1662/2615

Link protocol

PPP and HDLC

Network protocol

IP

Table 3-120 Attributes of the 2.5G SFP optical module

Attributes

Description


2 km (1.24 mi)

15 km (9.32 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

1310 nm

1310 nm

1310 nm

1550 nm


-10.0 dBm

-5.0 dBm

-2.0 dBm

-2.0 dBm


-3.0 dBm

0 dBm

3.0 dBm

3.0 dBm

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Attributes

Description


-21.0 dBm

-21.0 dBm

-30.0 dBm

-30.0 dBm

Overload power

-3.0 dBm

0 dBm

-9.0 dBm

-9.0 dBm

Optical fiber type

Single-mode

Single-mode

Single-mode

Single-mode

3.7.6 Technical Specifications Table 3-121 shows the technical specifications of the combination LPU. Table 3-121 Technical specifications of the combination LPU

Item

Specifications

Power consumption

2×10G POS+4×2.5G POS: 302W 2×10G POS+10×GE: 268W 2×10G POS+2×10G LAN: 309W 2×10G POS+2×10G WAN: 328W 4×2.5G POS+10×GE: 248W 2×10G LAN+4×2.5G POS: 285W 2×10G WAN+4×2.5G POS: 308W

Heat dissipation

2×10G POS+4×2.5G POS: 981 BTU/hour 2×10G POS+10×GE: 870 BTU/hour 2×10G POS+2×10G LAN: 1003 BTU/hour 2×10G POS+2×10G WAN: 1064 BTU/hour 4×2.5G POS+10×GE: 805 BTU/hour 2×10G LAN+4×2.5G POS: 925 BTU/hour 2×10G WAN+4×2.5G POS: 999 BTU/hour

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Board weight

About 6.35 kg (14.00 lb)


144


4 Cables

4

Cables

About This Chapter This chapter describes the structure and specifications of the external cables. 4.1 DC-Input Power Cable This section describes the structure and technical specifications of the DC-input power cable. 4.2 AC-input Power Cable This section describes the structure and technical specifications of the AC-input power cable. 4.3 Chassis and Cabinet Grounding Cable This section describes the structure and technical specifications of the chassis and cabinet grounding cable. 4.4 Console Port Cable This section describes the structure and technical specif ications of the Console port cable. 4.5 Auxiliary Port Cable This section describes the structure and technical specifications of the auxiliary port cable. 4.6 Clock Ca ble This section describes the structure and technical specifications of the clock cable. 4.7 Ethernet Cable This section describes the structure and technical specifications of the Ethernet cable. 4.8 CXP Fiber The is section describes the structure and technical specifications of CXP fiber optics. 4.9 Optical Fiber This section describes the structure and technical specifications of the optical fiber.

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4.1 DC-Input Power Cable This section describes the structure and technical specifications of the DC-input power cable.

4.1.1 8000W DC-Input Power Cable This section describes the structure and technical specifications of the DC-input power cable.

CAUTION

If the distance of power supply is more than 35 m (114.83 ft.), it requires the user to set Power Distribution Frame (PDF) as near as possible. For cables see Power Distance Less Than 25 m (82.02 ft.). Deliver different cables according to the surveyed power supply distance between the router and the power distribution.

Power Distance Less Than 25 m (82.02 ft.) If the power distance is less than 25 m (82.02 ft.), use the power cables of 25mm^2 (0.039in.^2) to connect the power cabinet to the power supply, as shown in Table 4-1. Table 4-1 Cables for Power Distance Less than 25 m (82.02 ft.)

Item

Description

Terminal

Naked Crimping Terminal,OT,25mm^2,M6,Tin Plating,Width Less Than 12.4mm,For OEM Naked Crimping Terminal,OT,25mm^2,M8,Tin Plating, Naked Ring Terminal

Cable type

Wire,450/750V,227 IEC 02(RV)25mm^2,blue,110A Wire,450/750V,227 IEC 02(RV)25mm^2,black,110A

Power Distance More than 25 m (82.02 ft.) but Less than 35 m (114.83 ft.) If the power distance is more than 25 m (82.02 ft.) but less than 35 m (114.83 ft.), use the power cables of 35mm^2 (0.054in.^2) to connect the power cabinet to the power supply, as shown in Table 4-2.

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Table 4-2 Cables for Power Distance More than 25 m (82.02 ft.) but Less than 35 m (114.83 ft.)

Item

Description

Terminal

Naked Crimping Terminal,OT,35mm^2,M6,Tin Plating,Naked Ring Terminal Naked Crimping Terminal,OT,35mm^2,M8,Tin Plating,Naked Ring Terminal

Cable type

Wire,450/750V,227 IEC 02(RV)35mm^2,Blue,135A Wire,450/750V,227 IEC 02(RV)35mm^2,black,135A

4.2 AC-input Power Cable This section describes the structure and technical specifications of the AC-input power cable.

4.2.1 8000W AC-input Power Cable This section describes the structure and technical specifications of the AC-input power cable. Table 4-3 Length for NE5000E chassis and power module

Length in the Site Survey

Configurations of external cables and terminals

Length equal to or less than 4 m (13.12 ft.)

Wire,450/750V,227 IEC 02(RV) 25mm^2,blue Wire,450/750V,227 IEC 02(RV) 25mm^2,black,110A Naked Crimping Terminal,OT, 25mm^2,M6,Tin Plating, Width Less Than 12.4mm,For OEM Naked Crimping Connector,JG2,25mm^2,M6,150A,Tin Plating,For OEM

Length greater than 4 m (13.12 ft.)

The DC chassis is better placed close to the AC power module. If implementation faces difficulties, the configuration of power cables between the DC chassis and the AC power module can follow the principle for external power cables for the DC power supply solution.

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Table 4-4 Length for connecting the AC power module with the AC PDF

Length in the Site Survey

Configurations of external cables and terminals

Length equal to or less than 20 m (65.62 ft.)

Power Cable,300/500V,227IEC10(BVV), 6mm^2,Black Jacket(Cores: Blue,Brown), 43A,2 Equivalent Cores Naked Crimping Terminal,OT, 6mm^2,M6,Tin Plating, Insulated Ring Terminal,12~10AWG,yellow Naked Crimping Terminal,OT, 6mm^2,M8,Tin Plating, Insulated Ring Terminal,12~10AWG,yellow

Length greater than 20 m (65.62 ft.)

Cables for connecting the nearest PDF or the first power cabinet to the device

4.3 Chassis and Cabinet Grounding Cable This section describes the structure and technical specifications of the chassis and cabinet grounding cable.

4.3.1 Introduction The chassis and cabinet grounding cable connect the chassis and cabinet to the ground. Ensure that the grounding cables in the front, back and side doors of the cabinet are correctly connected before delivery.

4.3.2 Structure The grounding cable connector of the chassis and cabinet is the same as that of the DC-input power cable.

4.3.3 Technical Specifications The technical specifications of the chassis and cabinet grounding cable are shown in Table 4-5. Table 4-5 Technical specifications of the chassis and cabinet grounding cable

Item PGND cable

Description Terminal

Naked Crimping Terminal,OT,25mm^2,M6,Tin Plating,Width Less Than 12.4mm,For OEM Naked Crimping Terminal,OT,25mm^2,M8,Tin Plating, Naked Ring Terminal

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Item

Description Naked Crimping Connector,JG2,25mm^2,M6,150A,Tin Plating,For OEM Cable type

Fireproof class

Power cable-450V/750V-227 IEC 02(RV)-25mm^2olivine-110A. CM.

4.4 Console Port Cable This section describes the structure and technical specifications of the Console port cable.

4.4.1 Introduction The Console cable is used to connect the NE5000E Console port to the serial port of the Console device to transmit configuration data of the device. The Console cable is an 8-core shielded cable. One end of the cable uses the RJ45 connector that is connected to the Console port of the MPU. The other end has two connectors with DB9 female and DB25 female, respectively, and is connected to the serial port of the computer. You can choose one of them to plug into the computer serial port as required.

4.4.2 Structure The Console cable is shown in Figure 4-1 and the pin assignments are shown in Table 4-6. Figure 4-1 Console cable

1. A direction

2. DB25 Female

3. Label

4. Network port connector RJ45

5. B direction

6. C direction

7. DB9 Female

W1 and W2 communication cable

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Table 4-6 Pin assignments of the Console cable

RJ45

Direction

DB25

DB9

Signal

1

->

5

8

CTS (Clear to Send)

2

->

6

6

DSR (Data Set Ready)

3

->

3

2

RXD (Receive Data)

4

-

7

5

GND

5

-

8

1

GND

6

<-

2

3

TXD (Transmit Data)

7

<-

20

4

DTR (Data Terminal Ready)

8

<-

4

7

RTS (Request to Send)

4.4.3 Technical Specifications Table 4-7 shows the technical specifications of the Console port cable. Table 4-7 Technical specifications of the Console port cable

Item

Description

Connector X1

Network interface connector-crystal connector -8PIN-8bit-shielded plug.

Connector X2

Cable connector-D style-25PIN-female.

Connector X3

Cable connector-D style-9PIN-female.

Cable type

(1) the symmetrical twisted cable-120-ohmSEYVPV-0.5mm-24AWG-8core-PANTONE 430U(2) the symmetrical twisted cable-100-ohm-SEYVP-0.48mm-26AWG-8core-black.

Number of cores

8.

Fireproof class

CM.

Available length

15 m (49.21 ft.) for 120-ohm cable ,3 m (9.84 ft.) for 100-ohm cable.

4.5 Auxiliary Port Cable This section describes the structure and technical specifications of the auxiliary port cable.

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The AUX port cable is used to connect the NE5000E auxiliary (AUX) port to the modem for remote transmission of configuration data. The AUX port cable is an 8-core shielded cable. One end uses the RJ45 connector that is connected to the AUX port of the MPU. The other end has two connectors with DB9 female and DB25 female, respectively, and is connected to the computer serial port. You can choose one of them to plug into the computer serial port as required.

4.5.2 Structure The structure of the AUX cable is the same as that of the Console cable as shown in Figure 4-2. Table 4-8 shows the pin assignments. Figure 4-2 The structure of the AUX cable

1. A direction

2. DB25 Female

3. Label

4. Network port connector RJ45

5. B direction

6. C direction

7. DB9 Female

W1 and W2 communication cable

Table 4-8 Pin assignments of the AUX cable

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RJ-45

Direction

DB-25

DB-9

Signal

1

->

4

7

RTS

2

->

20

4

DTR

3

->

2

3

TXD

4

-

8

1

GND

5

-

7

5

GND

6

<-

3

2

RXD

7

<-

6

6

DSR

8

<-

5

8

CTS


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4.5.3 Technical Specifications Table 4-9 shows the technical specifications of the AUX port cable. Table 4-9 Technical specifications of the AUX port cable

Item

Description

Connector X1

Network interface connector-crystal connector-8PIN-8bit-shielded plug.

Connector X2

Cable connector-D type-25PIN-female.

Connector X3

Cable connector-D type-9PIN-female.

Cable type

The symmetrical twisted cable-120-ohmSEYVPV-0.5mm-24AWG-8core-PANTONE 430U. The symmetrical twisted cable-100-ohmSEYVP-0.48mm-26AWG-8core-black.

Number of cores

8.

Fireproof class

CM.

Available length

15 m (49.21 ft.) for 120-ohm cable,3 m (9.84 ft.) for 100-ohm cable.

4.6 Clock Cable This section describes the structure and technical specifications of the clock cable.

4.6.1 Introduction The common SRU/MPU The clock cable is used to connect the NE5000E with the clock interface of the external equipment. With the cable, the NE5000E can receive two channels of 2.048 MHz or 2.048 Mbit/ s synchronous clocks provided by the upstream device. It can also offer two channels of 2.048 MHz or 2.048 Mbit/s synchronous clock signals to the downstream device. One end of the clock cable uses the SMB connector that is connected to the clock interface on the MPU and the other end is connected to the external clock equipment. The clock cable has two types: l

75-ohm clock cable

l

120-ohm clock cable

The SRU/MPU that supports the 1588v2 protocol The clock cable is used to connect the NE5000E with the clock interface of the external equipment. With the cable, the NE5000E can receive 2 Mbit/s clock signals,2 MHz clock signals,clock signals of combining 1 PPS and ASCII,clock signals of combining 1 PPS and Issue 01 (2011-10-15)


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RS232,two channels of DCLS clock signals.It can also offer 2 Mbit/s clock signals,2 MHz clock signals,clock signals of combining 1 PPS and ASCII,clock signals of combining 1 PPS and RS232,two channels of DCLS clock signals. One end of the clock cable uses the SMB/RJ45 connector that is connected to the clock interface on the SRU/MPU and the other end is connected to the external clock equipment. SMB connector is used along with the 75ohm Coaxial cable. RJ45 connector is used along with the 120ohm relay cable. NOTE

The wire sequence of the relay cable used as a clock cable is different from that used as a common Ethernet cable.

4.6.2 Structure 75-ohm Clock Cable Figure 4-3 shows the structure of the 75-ohm clock cable. Figure 4-3 75-ohm clock cable

1. Coaxial connector-SMB

2. Label

NOTE l

The NE5000E provides only the 75-ohm clock. If you need the 120-ohm clock, use a transfer cable shown in Figure 4-4 and Figure 4-5. Choose the one-channel or two-channel architecture as required.

l

One section of the coaxial cable for clock transfer is 200 mm (7.87 in.) long, which is unchangeable and ensures the transfer connector is installed inside or near the equipment.

One-channel Clock Transfer Cable Figure 4-4 shows the one-channel clock transfer cable. Figure 4-4 One-channel clock transfer cable

1. Coaxial connector-SMB-75 ohm-straight/plug-female

2. Main label

3. 75-ohm/120-ohm transfer PCB

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Two-channel Clock Transfer Cable Figure 4-5 shows the two-channel clock transfer cable. Figure 4-5 Two-channel clock transfer cable

1. Coaxial connector-SMB-75-ohm-straight/plug-female

2. Label1:"1#"

3. Main label

4. 75-ohm/120-ohm transit PCB

5. Label3:"1#"

6. Label 4:"2#"

7. Label 2:"2#"

Table 4-10 shows the pin assignments of the two-channel clock transfer cable. Table 4-10 Pin assignments of the two-channel clock transfer cable

Connector

75-ohm Cable

Color

120-ohm Cable

X1

Pin line

Blue

W3

Shielded layer

White

Pin line

Blue

Shielded layer

White

X2

W4

120-ohm relay cable Figure 4-6 shows the 120-ohm relay cable adopts the RJ-45 connector and the cable structure. Figure 4-6 Structure of 120-ohm relay cable

The pin assignments of the 120-ohm relay cable are shown in Table 4-11. Issue 01 (2011-10-15)


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Table 4-11 Pin assignments of the 120-ohm relay cable

Connector X1

Connector X2

Relationship

X1.5

X2.2

Pair

X1.4

X2.1

X1.2

X2.5

Pair

X1.1

X2.4

X1.3

X2.7

Pair

X1.6

X2.8

X1.7

X2.3

Pair

X1.8

X2.6

4.6.3 Technical Specifications Table 4-12 shows the technical specifications of the 75-ohm clock cable. Table 4-12 Technical specifications of the 75-ohm clock cable

Item

Description

Connector

Coaxial connector-SMB plug-75 ohm inline female

Cable

Type

Coaxial cable-75ohm-3.9mm-2.1mm-0.34mmshield

Diameter of the protection layerDiameter of the internal insulation-Diameter of the internal conductor

3.9mm-2.1mm-0.34mm

Available length

10 m (32.81 ft.), 15 m (49.21 ft.), 20 m (65.62 ft.) and 30 m (98.42 ft.)

Table 4-13 shows the technical specifications of the one-channel 75 ohm t ransfer 120 ohm clock cable. Table 4-13 Technical specifications of the one-channel clock transfer cable

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Description

Connector



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Item 75-ohm cable

120-ohm cable

Description Type

Coaxial cable-75ohm-3.9mm-2.1mm-0.34mm-shield


3.9mm-2.1mm-0.34mm

Type

Symmetrical twisted cable -120ohmSEYPVPV-0.4mm-26AWG-2 pairs-Pantone 430U

Diameter of the internal conductor

0.4mm/26AWG

Available length

30 m (98.42 ft.)

Table 4-14 shows the technical specifications of the two-channel 75 ohm transfer 120 ohm clock transfer cable. Table 4-14 Technical specifications of the two-channel clock transfer cable

Item

Description

X1/X2 connector


75-ohm cable

Type

Coaxial cable-75ohm-3.9mm-2.1mm-0.34mm-shield


3.9mm-2.1mm-0.34mm

Type

Symmetrical twisted cable -120ohmSEYPVPV-0.4mm-26AWG-2 pairs-Pantone 430U

Diameter of the internal conductor

0.4mm/26AWG

120-ohm cable

Available length

30 m (98.42 ft.)

Table 4-15 shows the technical specifications of the 120-ohm relay cable. Table 4-15 Technical specifications of the 120-ohm relay cable

Item 120-ohm cable

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Description Connector

Network interface connector-8 PIN-8 bit-shielded-crystal model plug


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Item

Description Type

Cable,120ohm,1E1,0.4mm,MP8-II,120CC4P0.4P430U (S),MP8-II,Expert 2.0

Length

3 m (9.84 ft.), 15 m (49.21 ft.), 30 m (98.42 ft.), 60 m (196.85 ft.) and 80 m(262.46 ft.)

4.7 Ethernet Cable This section describes the structure and technical specifications of the Ethernet cable.

4.7.1 Introduction Ethernet cable is of two types: the straight-through cable and the crossover cable.

Straight-through Cable The straight-through cable is used to connect the Ethernet interfaces between the following devices: l

router and concentrator

l

router and Ethernet switch

l

Computer and Ethernet switch

l

Computer and concentrator

Crossover Cable The crossover Cable is used to connect the Ethernet interfaces between the following devices: l

router and router

l

router and computer

l

Concentrator and concentrator

l

Concentrator and switch

l

Switch and switch

l

Computer and computer

4.7.2 Structure As shown in Figure 4-7, the straight-through cable and the crossover cable are standard shielded network cables and adopt the RJ45 connector. Figure 4-8 shows the structure of the RJ45.

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Figure 4-7 Network cable

1. Connector - RJ45

2. Label 1

3. Main label

4. Label 2

Figure 4-8 Connetor RJ45

Table 4-16 and Table 4-17 show the pin assignments of the straight-through cable and the crossover cable respectively. Table 4-16 Pin assignments of the straight-through cable

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Connector X1

Connector X2

Color

Relationship

X1.2

X2.2

Orange

Twisted pair

X1.1

X2.1

White/Orange

X1.6

X2.6

Green

X1.3

X2.3

White/Green

X1.4

X2.4

Blue

X1.5

X2.5

White/Blue

X1.8

X2.8

Brown

X1.7

X2.7

White/Brown


Twisted pair

Twisted pair

Twisted pair

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Table 4-17 Pin assignments of the crossover cable

Connector X1

Connector X2

Color

Relationship

X1.6

X2.2

Orange

Twisted pair

X1.3

X2.1

White/Orange

X1.2

X2.6

Green

X1.1

X2.3

White/Green

X1.4

X2.4

Blue

X1.5

X2.5

White/Blue

X1.8

X2.8

Brown

X1.7

X2.7

White/Brown

Twisted pair

Twisted pair

Twisted pair

4.7.3 Technical Specifications The technical specifications of the straight-through cable and crossover cable are shown in Table 4-18 and Table 4-19 respectively. Table 4-18 Technical specifications of the straight-through cable

Item

Description

Connector X1/X2

Network port connector-crystal connector-8PIN-8bit-shield plug-24-26AWG-CAT 6/SFTP network cable

Cable type

Communication cable-100±15ohm-shielded enhanced 5 types-CAT5E SFTP 24AWG-8 core PANTONE 445U

Number of cores

8

Fireproof class

CM

Available length

5 m (16.40 ft.), 10 m (32.81 ft.), 20 m (65.62 ft.) and 30 m (98.42 ft.)

Table 4-19 Technical specifications of the crossover cable

Item

Description

Connector X1/X2

Network port connector-crystal connector-8PIN-8bit-shield plug-24~26AWG-CAT 6/SFTP network cable

Cable type

Communication cable-100±15ohm-shielded enhanced 5 types-CAT5E SFTP 24AWG-8 core PANTONE 646U

Number of cores

8

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Item

Description

Fireproof class

CM

Available length

5 m (16.40 ft.) and 30 m (98.42 ft.)

4.8 CXP Fiber The is section describes the structure and technical specifications of CXP fiber optics.

4.8.1 Overview of CXP Fiber Optics CXP fiber optics are used to connect different chassis in the NE5000E-X16 cluster.

4.8.2 Structure Figure 4-9 shows the appearance of a CXP fiber optic. Figure 4-9 CXP fiber optic appearance

Figure 4-10 and Figure 4-11 show the diagram of an 84-pin connector used by a CXP fiber optic.

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Figure 4-10 84-pin connector used by a CXP fiber optics

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Figure 4-11 84-pin connector used by a CXP fiber optics

4.8.3 Technical Specifications Table 4-20 lists technical specifications of a CXP fiber optic. Table 4-20 Technical specifications of a CXP fiber optic

Item

Description

Unit

Remarks

Module form

CXP

-

-

Number of lanes

12 Tx and 12 Rx

-

-

Maximum data rate

126

Gb/s

-

Maximum data rate per lane

10.5

Gb/s

-

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Item

Description

Unit

Remarks

Standard cable lengths

3(9.84), 5(16.40), 10 (32.81), 20(65.62), 30 (98.42), 50(164.04), and 100(328.08)

m(ft.)

Other lengths may be available upon request, up to 300 meters (984.24 ft.).

Supported protocol

Typical applications include Infiniband, Fibre Channel, 100G Ethernet, SATA/SAS3

-

-

Electrical interface and pin-out

84-pin connector

-

Pin-out as defined in the CXP Specification by the IBTA

Standard fiber Multi-mode ribbon optic type fiber cable assembly, riser-rated

-

-

Maximum power consumption per end

3.5

W

-

Management interface

Serial, I2C-based, 450 kHz maximum frequency

-

As defined by the CXP Specification

4.9 Optical Fiber This section describes the structure and technical specifications of the optical fiber.

4.9.1 Introduction Table 4-21 shows the types of fibers that the NE5000E uses. Table 4-21 Types of optical fibers

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No.

Cable and Use

Local Connector

Remote Connector

Cable Mode

1

Fiber connecting the local interface board to the ODF

LC/PC

FC/PC

Single-mode

2

Fiber connecting the local interface boards

LC/PC

LC/PC or SC/PC

Single-mode / multi-mode


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No.

Cable and Use

Local Connector

Remote Connector

Cable Mode

3

Fiber connecting the local interface board to the other equipment

LC/PC

LC/PC or SC/PC

Single-mode / multi-mode

CAUTION

The optical transmission module of the multi-transverse mode needs to be connected to the multimode fiber. The optical transmitting module of the single-longitudinal mode or multilongitudinal mode needs to be connected to the si ngle-mode fiber.

4.9.2 Structure The NE5000E uses the following types of optical connectors: l

LC/PC optical connector

l

SC/PC optical connector

l

FC/PC optical connector

The outlines and operations of the connectors and the precautions that you should take when plugging and unplugging the connectors are described in the following sections.

LC/PC Optical Connector Figure 4-12 shows the outline of the LC/PC optical connector. Figure 4-12 LC/PC optical connector

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Cautiously align the head of the fiber jumper with the optical interface on the optical board and push in the fiber with proper strength. Press the clip before pulling it out. Push in the fiber connector inward slightly, and then pull out the connector.

SC/PC Optical Connector Figure 4-13 shows the outline of the SC/PC optical connector. Figure 4-13 SC/PC optical connector

FC/PC Optical Connector Figure 4-14 shows the outline of the FC/PC optical connector. Figure 4-14 FC/PC optical connector

4.9.3 Technical Specifications Table 4-22 shows the technical specifications of the optical fiber. Table 4-22 Technical specifications of the optical fiber

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Item

Description

Fiber transmission mode

Single-mode/Multi-mode


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Item

Description

Fiber connector 1

LC/PC and SC/PC

Fiber connector 2

LC/PC, SC/PC and FC/PC

Fiber outer diameter

2 mm (0.08 in.)


166


A Appendix A List of Indicators

A

Appendix A List of Indicators

This chapter presents the list of indicators. A.1 Indicators of NE5000E This chapter presents the indicators of NE5000E.

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A.1 Indicators of NE5000E This chapter presents the indicators of NE5000E.

A.1.1 Fan Module Indicators The indicators of the fan module are on the LCD plastic panel. Table A-1 shows the status and description of the indicators. Table A-1 Indicators of the fan module

Indicator

Color

Description

RUN indicator

Green

If th the in indicator blinks (1 (1Hz), th the FAN and FC FCB wo work normally.

ALM indicator

Red

If the indicator is on, the FAN or FCB works abnormally.

A.1.2 Power Module Indicators The indicators of the power module are on the plastic panel of the power supply. Table A-2 shows the status and meaning of the indicators of the DC-input power module. Table A-2 Indicators of the DC-input power module

Ind Indicat icato or

Col Color

Desc Descri ript ptiion

POWE OWER1

Gre Green

Ind Indica icates tes no norma rmal pow power er inpu inputt and and outp output ut of pa part1 rt1. If If the the indi indiccator tor is on, it indicates normal input and output of part1.

Red Red

Indi Indica cate tess abn abnor orma mall pow power er inpu inputt or or out outpu putt of of par part1 t1.. If If the the indi indica cato tor r is on, it indicates abnormal input and output of part1.

Gre Green


Red Red


Gre Green


Red Red


POWE OWER2

POWE OWER2

Table A-3 shows the status and meaning of the indicators of the AC-input power module. Issue 01 (2011-10-15)


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Table A-3 Indicators of the AC-input power module

Condition

Power Supply Led State

Monitoring Signals (Referenced To Com)

AC OK (Green)

DC OK (Green)

Service (Amber)

Fault (Red)

Fault

Modu le Prese nt

OK

1

1

0

0

LO

LO

Thermal Alarm (5C before shutdown)

1

1

1

0

HI

LO

Thermal Shutdown

1

0

1

1

HI

LO

Defective Fan (No control or I 2C)

1

1

0/Blinks

1

HI

LO

Input High-Voltage Pulse

1

0

0

1

HI

LO

NO AC >15mS (single pulse)

0

1

0

0

HI

LO

AC Present But Not Within Limits

Blinks

Indefinitely

0

0

HI

LO

AC Not Present

0

0

0

0

Boost Stage Failure

1

Indefinitely

0

1

HI

LO

Over Voltage Latched Shutdown

1

0

0

1

HI

LO

Over Current

1

Blinks

0

0

HI

LO

Non-catastrophic Internal Failure (no temp)

1

1

0

1

HI

LO

I2C Service Request

1

1

Blinks

0

HI

LO

A.1.3 MPU Indicators Table A-4 lists the status and descriptions of MPU indicators.

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Table A-4 MPU indicators

Indicator

Color

Description

OFL indicator

Red

If the indicator is on, you can remove a board.

RUN indicator

Green

Before the MPU is powered on and registers, the indicator status is changed in the sequence of off-blinks quickly (4 Hz)-off-steady on-blinks slowly (0.5 Hz). After the MPU is powered on and registers: If the indicator blinks at 0.5 Hz, the system is working properly. NOTE The possible reasons why the indicator is off are listed below: l

BootROM is damaged.

l

The MPU cannot be powered on.


The CF card is faulty.

l

The other control chips on the MPU are faulty, causing the MPU not to be able to initialize.

ALM indicator

Red

If the indicator is on, the system is in the alarm state. If the indicator is off, the system is in the normal state.

ACT indicator

Green

If the indicator is on, the MPU is in the active state. If the indicator is off, the MPU is in the standby state.

CF read-write indicator

Green

If the indicator is on, it indicates that the CF is in position. If the indicator is blinking, it indicates that data is being read or written. If the indicator is off, it indicates that the CF is not in position or can be removed. NOTE When the indicator is blinking, do not remove the CF card.

LINK indicator (on the Ethernet interface)

Green

If the indicator is off, the link is Down. If the indicator is on, the link is Up.

LINK indicator (on the Ethernet interface)

Yellow

If the indicator is off, no data is being read or written. If the indicator is blinking, data is being read or written.

A.1.4 SFU Indicators Table A-5 lists the status and descriptions of SFU indicators.

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170



Table A-5 SFU indicators

Indicator

Color

Description

OFL indicator

Red

If the indicator is on, you can remove a board.

RUN indicator

Green

Before the SFU is powered on and registers, the indicator status is changed in the sequence of off – blinks quickly (4 Hz) – off – steady on – blinks slowly (0.5 Hz). After the SFU is powered on and registers: If the indicator blinks at 0.5 Hz, the system is working properly. NOTE The possible reasons why the indicator is off are listed below: l

BootROM is damaged.

l

The SFU cannot be powered on.


ACT Indicator

Green

l


l


If the indicator is on, the SFU is in the normal state. If the indicator is off, the SFU is in the abnormal state.

A.1.5 SFEB Indicators Table A-6 lists the buttons and indicators on the panel of the SFEB. Table A-6 Components on the SFEB panel

Issue 01 (2011-10-15)

Component

Description

OFL button

It is an OFL button. Before removing a board, press the OFL button. Hold the button for six seconds until the OFL indicator turns on. Then, the board can be removed.

OFL indicator (red)



171



Component

Description


Before the SFEB is powered on and registers, the indicator status is changed in the sequence of off – blinks quickly (4 Hz) – off – steady on – blinks slowly (0.5 Hz). After the SFEB is powered on and registers: If the indicator blinks at 0.5 Hz, the system is working properly. NOTE The possible reasons why the indicator is off are listed below: l

BootROM is damaged.

l

The SFEB cannot be powered on.



l


CXP insertion indicator

If the indicator blinks in green, the optical module runs properly. If the indicator is constantly on in green or the indicator is off, the optical module becomes faulty.

CXP interface

In a back-to-back system: connects the SFEBs on the master and slave chassis. In a cluster: connects SFEBs on CLCs to Optical Flexible Cards (OFC100Bs) on CCCs.

A.1.6 LPU Indicators Table A-7 lists the status and descriptions of LPU indicators. Table A-7 LPU indicators

Indicator

Color

Description

OFL indicator

Red


RUN indicator

Green

l

If the indicator blinks once every 2s (0.5 Hz), the LPU is in the normal state.

l

Otherwise, it indicates that the board fails to run normally.

l

If the indicator is off, the link is Down.

l

If the indicator is on, the link is Up.

l

If the indicator is blinking, data is being receive or transmit.

Link/ACT indicator

Issue 01 (2011-10-15)

Green


172


B Appendix B List of Boards

B

Appendix B List of Boards

This chapter presents the list of boards. B.1 Boards B.2 Power Consumption and Weight

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173



B.1 Boards Table B-1 lists the Basic Configuration of the NE5000E. Table B-2 shows the LPUs supported by the NE5000E. Table B-1 Basic Configuration of the NE5000E

Product Name

Board Name for Order

Full Name

NE5000E CLC

CR52KBKPC-36U -8KW

NE5000E Integrated Chassis Components

CR52MPUB

Main Processing Unit

CR5DSFE BA06B

SFEB

CR55CBKPA

NE5000E Cluster Chassis

CR5D0MP UA450

Main Processing Unit A

CR5DSFUI A050

Cluster 100G Central Switch Fabric Unit

CR55CICUA

Cluster Internal Communication Unit A

CR5DECU FA050

Cluster 100G Electric Cross Unit

CR5M0OF CA060

100Gbps Cluster Optical Flexible Card

CCC

Table B-2 LPUs and the corresponding FPICs

Issue 01 (2011-10-15)

Order Name

Name

CR5MLPUFA060

Flexible Card Line Processing Unit(LPUF100,4 subslots)

CR5M00E5XX60

5-Port 10GBase LAN-XFP Flexible Card

CR5M00L5XX60

5-Port 10GBase LAN/WAN-XFP Flexible Card

CR5M00E2XX60


CR5M00L2XX60



174


Issue 01 (2011-10-15)


Order Name

Name

CR5M00P2XX60

2-Port OC-192c/STM-64c POS/OTU2-XFP Flexible Card

CR5M00P1MZ60

1-port OC-768c/STM-256c POS-LC Flexible Card

CR5M00EFGF60

24-port 1000Base-X-SFP Flexible Card

CR5D00E1NC60

1-Port 100GBase-CFP Integrated Line Process Unit

CR52K-10x1000BaseX-SFP

10-Port 1000Base-X-SFP Line Processing Unit

CR52K-20x1000BaseX-SFP


CR52K-1x10GBaseLAN-XFP

1-Port 10GBase LAN-XFP Line Processing Unit

CR52K-1x10GBaseWAN-XFP

1-Port 10GBase WAN-XFP Line Processing Unit









CR52E2XP4UM

2-Port 10GBase LAN-XFP and 4-Port OC-48c/STM-16c POSSFP Line Processing Unit

CR52W2XP4UM

2-Port 10GBase WAN-XFP and 4-Port OC-48c/STM-16c POSSFP Line Processing Unit

CR52P4UEAGM

4-Port OC-48c/STM-16c POS-SFP and 10-Port 1000Base-X-SFP Line Processing Unit

CR52P2XP4UM

2-Port OC-192c/STM-64c POS-XFP and 4-Port OC-48c/STM-16c POS-SFP Line Processing Unit

CR52P2XEAGM

2-Port OC-192c/STM-64c POS-XFP and 10-Port 1000Base-XSFP Line Processing Unit

CR52P2XE2XM

2-Port OC-192c/STM-64c POS-XFP and 2-Port 10GBase LANXFP Line Processing Unit

CR52P2XW2XM

2-Port OC-192c/STM-64c POS-XFP and 2-Port 10GBase WANXFP Line Processing Unit

CR52K-8xPOS/STM1SFP

8-Port OC-3c/STM-1c POS-SFP Line Processing Unit


175



Order Name

Name

CR52K-16xPOS/ STM1-SFP


CR52K-4xPOS/STM4SFP


CR52K-8xPOS/STM4SFP










CR52K-1xPOS/ STM64-XFP

1-Port OC-192c/STM-64c POS-XFP Line Processing Unit





B.2 Power Consumption and W eight Table B-3 shows the nominal weight and power consumption of the boards. Table B-3 Power consumption and weight of the boards

Issue 01 (2011-10-15)

Board Name

Power consumpti on(Typical value)

Heat Dissipatio n

Weight


70 W

227 BTU/ hour

3.84 kg (8.47 lb)

Switch Fabric Extended Unit B

200 W

649 BTU/ hour

5.55 kg (12.24 lb)

Flexible Card Line Processing Unit(LPUF– 100,4 sub-slots)

278 W

902 BTU/ hour

8 kg (17.64 lb)


176


Issue 01 (2011-10-15)


Board Name


Heat Dissipatio n

Weight


50.3 W

163 BTU/ hour

0.9 kg (1.98 lb)


50.3 W

163 BTU/ hour

0.9 kg (1.98 lb)


28.13 W

91 BTU/ hour

0.49 kg (1.08 lb)


28.13 W

91 BTU/ hour

0.49 kg (1.08 lb)

2-Port OC-192c/STM-64c POS-XFP Flexible Card

28.13 W

91 BTU/ hour

0.49 kg (1.08 lb)

1-port OC-768c/STM-256c POS-LC Flexible Card

37 W

120 BTU/ hour

0.75 kg (1.65 lb)

24-port 1000Base-X-SFP Flexible Card

42 W

136 BTU/ hour

0.9 kg (1.98 lb)

1-port 100GBase-CFP Integrated Line Process Unit(LPUI-100)

333 W

1080 BTU/ hour

9.6 kg (21.17 lb)


139 W

451BTU/ hour

6 kg (13.23 lb)


240 W

779 BTU/ hour

6 kg (13.23 lb)


139 W

451 BTU/ hour

6 kg (13.23 lb)


140 W

454 BTU/ hour

6 kg (13.23 lb)


166 W

539 BTU/ hour

6 kg (13.23 lb)


172 W

558 BTU/ hour

6 kg (13.23 lb)


280 W

908 BTU/ hour

6 kg (13.23 lb)


278 W

902 BTU/ hour

6 kg (13.23 lb)

2-Port OC-192c/STM-64c POS-XFP and 4Port OC-48c/STM-16c POS-SFP Line Processing Unit

302W

981 BTU/ hour

6.35 kg (14.00 lb)


177


Issue 01 (2011-10-15)


Board Name


Heat Dissipatio n

Weight

2-Port OC-192c/STM-64c POS-XFP and 10Port 1000Base-X-SFP Line Processing Unit

289W

939 BTU/ hour

6.35 kg (14.00 lb)

2-Port OC-192c/STM-64c POS-XFP and 2Port 10GBase LAN-XFP Line Processing Unit

309W

1003 BTU/ hour

6.35 kg (14.00 lb)

2-Port OC-192c/STM-64c POS-XFP and 2Port 10GBase WAN-XFP Line Processing Unit

328W

1064 BTU/ hour

6.35 kg (14.00 lb)

2-Port 10GBase LAN-XFP and 4-Port OC-48c/STM-16c POS-SFP Line Processing Unit

285W

925 BTU/ hour

6.35 kg (14.00 lb)

2-Port 10GBase WAN-XFP and 4-Port OC-48c/STM-16c POS-SFP Line Processing Unit

308W

999 BTU/ hour

6.35 kg (14.00 lb)

4-Port OC-48c/STM-16c POS-SFP and 10Port 1000Base-X-SFP Line Processing Unit

267W

867 BTU/ hour

6.35 kg (14.00 lb)


141 W

457 BTU/ hour

6 kg (13.23 lb)


136 W

441 BTU/ hour

6 kg (13.23 lb)


145 W

470 BTU/ hour

6 kg (13.23 lb)


245 W

795 BTU/ hour

6 kg (13.23 lb)


149 W

483 BTU/ hour

6 kg (13.23 lb)


246 W

798 BTU/ hour

6 kg (13.23 lb)


310 W

1006 BTU/ hour

6 kg (13.23 lb)


178


C Appendix C List of LPU Interface Attributes

C

Appendix C List of LPU Interface Attributes

This chapter presents the list of LPU Interface Attributes. C.1 Interface Attributes of 1000Base-X-SFP C.2 Interface Attributes of 10GBase LAN/WAN-XFP C.3 Interface Attributes of 10GBase LAN/WAN-XFP C.4 Interface Attributes of OC-48c/STM-16c POS-SFP C.5 Interface Attributes of OC-192c/STM-64c POS-XFP

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179



C.1 Interface Attributes of 1000Base-X-SFP Table C-1 lists the interface attributes of 1000Base-X-SFP. Table C-1 Interface attributes of the 1000Base-X-SFP

Attributes

Description

Connector type

LC/PC

Interf Interfac acee attri attribut butes es

Compli Compliant ant with with the the select selected ed SFP optica opticall modu module. le. (For (For the attrib attribute utess of SFP modules, see Table C-2 and Table C-3.)

Working mode

Full-duplex

Frame format

Ethernet_II, Et Ethernet_SAP, an and Et Ethernet_SNAP

Network protocol

IP

Table C-2 Attributes of 1000M SFP optical modules

Attributes

Description


0.55 km (0.34 mi)

10 km (6.21 mi) (6.21 mi)

40 km (24.86 mi)

40 km (24.86 mi)

80 km (49.71 mi)

100 km (62.14 mi)

Center wavelength

850 nm

1310 nm

1310 nm

1550 nm

1550 nm

1550 nm


-9.5 dBm

-9.5 dBm

-4.5 dBm

-4.0 dBm

-2.0 dBm

0 dBm


-2.5 dBm

-3.0 dBm

3.0 dBm

1.0 dBm

5.0 dBm

5.0 dBm


-17.0 dBm

-20.0 dBm

-22.5 dBm

-21.0 dBm

-23.0 dBm

-30.0 dBm

Overload power

0 dBm

-3.0 dBm

-3.0 dBm

-3.0 dBm

-3.0 dBm

-9.0 dBm

Optic pticaal fibe fiberr type type

Multi ulti-mode

Singlemode

Singlemode

Singlemode

Singlemode

Singlemode

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Table C-3 Attributes of 1000M colorized optical modules

Attr Attrib ibut utes es

Desc Descri ript ptio ion n


70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.50 mi)

70 km (43.5 0 mi)

70 km (43.50 mi)

Center wavelength

1470 nm

1490 nm

1510 nm

1530 nm

1550 nm

1570 nm

1590 nm

1610 nm


0 dBm

0 dB m

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm


5 dBm

5 dB m

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm

5 dBm


-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

-23.0 dBm

Overload power

0 dBm

0 dB m

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

0 dBm

Optical fiber type

Single -mode

Singlemode

Singlemode

Singlemode

Singlemode

Single -mode

Singl emode

Single -mode

C.2 Interface Attributes of 10GBase LAN/WAN-XFP The interface attributes of 10GBase WAN-XFP see Table C-4. Table C-4 Interface attributes of the 10GBase WAN-XFP

Attributes

Description

Connector type

LC/PC


Compli Compliant ant with with the select selected ed XFP optica opticall modu module. le. (For (For the attrib attribute utess of XFP modules, see Table C-5.)

Working mode

Full-duplex

Frame format


Network protocol

IP

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181



Table C-5 Attributes of 10G XFP optical modules

Attr Attrib ibut utes es

Desc Descri ript ptio ion n


0.3 km (0.19 mi)

10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

850 nm

1310 nm

1550 nm

1550 nm


-7.3 dBm

-6.0 dBm

-1.0 dBm

0 dBm


-1.3 dBm

-1.0 dBm

2.0 dBm

4.0 dBm


-7.5 dBm

-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

-1.0 dBm

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

C.3 Interface Attributes of 10GBase LAN/WAN-XFP The interface attributes of 10GBase WAN-XFP see Table C-6. Table C-6 Interface attributes of the 10GBase WAN-XFP

Attributes

Description

Connector type

SC/LC


Compli Compliant ant with with the the selec selected ted CFP optica opticall modu module. le. (For (For the attrib attribute utess of CFP modules, see Table C-7.)

Working mode

Full-duplex

Frame format


Network protocol

IP


Issue 01 (2011-10-15)

Attributes

Description


10 km (6.21 mi)


40 km (24.86 mi)

182



Attributes

Description

Center wavelength

1310 nm

1550 nm


-4.3 dBm

-4.3 dBm


4.5 dBm

4.5 dBm


-8.6 dBm

-8.6 dBm

Overload power

4.5 dBm

4.5 dBm

Optical fiber type

Single-mode

Single-mode

C.4 Interface Attributes of OC-48c/STM-16c POS-SFP Table C-8 lists the interface attributes of OC-48c/STM-16c POS-SFP. Table C-8 Interface attributes of the OC-48c/STM-16c POS-SFP

Attributes

Description

Connector type

LC/PC


Compliant with the selected SFP optical module. (For the attributes of SFP modules, see Table C-9.)

Working mode

Full-duplex

Link protocol

PPP and HDLC

Network protocol

IP

Table C-9 Attributes of 2.5G SFP optical modules

Attributes

Description


2 km (1.24 mi)

15 km (9.32 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

1310 nm

1310 nm

1310 nm

1550 nm


-10.0 dBm

-5.0 dBm

-2.0 dBm

-2.0 dBm


-3.0 dBm

0 dBm

3.0 dBm

3.0 dBm

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183



Attributes

Description


-21.0 dBm

-21.0 dBm

-30.0 dBm

-30.0 dBm

Overload power

-3.0 dBm

0 dBm

-9.0 dBm

-9.0 dBm

Optical fiber type

Multi-mode

Single-mode

Single-mode

Single-mode

C.5 Interface Attributes of OC-192c/STM-64c POS-XFP Table C-10 lists the interface attributes of OC-192c/STM-64c POS-XFP. Table C-10 Interface attributes of the OC-192c/STM-64c POS-XFP

Attributes

Description

Connector type

LC/PC


Compliant with the selected XFP optical module. (For the attributes of XFP modules, see Table C-11.)

Working mode

Full-duplex

Link protocol

PPP and HDLC

Network protocol

IP


Issue 01 (2011-10-15)

Attributes

Description


10 km (6.21 mi)

40 km (24.86 mi)

80 km (49.71 mi)

Center wavelength

1310 nm

1550 nm

1550 nm

Minimum -6.0 dBm transmitting power

-1.0 dBm

0 dBm

Maximum -1.0 dBm transmitting power

2.0 dBm

4.0 dBm


-11.0 dBm

-15.0 dBm

-24.0 dBm

Overload power

0.5 dBm

-1.0 dBm

-7.0 dBm

Optical fiber type

Single-mode

Single-mode

Single-mode


184



The 10G XFP multi-mode optical transceiver supports two types of multi-mode optical fibers with different cores. Table C-12 lists the relationship between the core, the modal/bandwidth, and the transmission distance. During configuration, the length of optical fibers is restricted by the transmission distance. In addition, the optical fiber with the 50-um core and 2000-MHz*km modal/bandwidth is a special type. If this type of optical fibers are required, you need to purchase it additionally. Table C-12 The transmission distance of 10G XFP optical modules

Issue 01 (2011-10-15)

Core Fiber(μm)



50

2000

2~300 (1.24~186.42)

50

500

2~82 (1.24~50.95)

62.5

200

2~33 (1.24~17.82)


185


D Appendix D transceiver

D

Appendix D transceiver

This chapter presents the optical module. D.1 Instructions on How to Use an Optical Module D.2 1 Gbit/s Electrical Transceiver D.3 1.25 Gbit/s GBIC Optical Module D.4 1.25 Gbit/s SFP/eSFP Optical Module D.5 2.5 Gbit/s eSFP Optical Module D.6 10 Gbit/s XFP Optical Module D.7 100Gbps CFP Optical Modules

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186



D.1 Instructions on How to Use an Optical Module Precautions for the loosened optical module l

When installing an optical module, force it into position. If a crack sound is heard or a slight tremor is felt, it indicates that the latch boss is secured. When the latch boss is not secured, the connecting finger is unstably connected to the connector on the board, and the link may become Up. On the condition that the optical module tremors or collides with another object, however, the optical module will be loosened or the optical signals will be temporarily cut off.

l

When inserting the optical module, make sure that the tab is closed. (At this time, the latch boss locks the optical module.) After the optical module is inserted, try pulling it out to see if it is installed in position. If the optical module cannot be pulled out, it is secured.

The tab is closed

The tab is open

Precautions for receptacle contamination l

Clean tissues must be prepared for the deployment on sit e. You need to clean the optical connector before inserting it in the receptacle. This protects the receptacle against the contamination on the end surface of the optical connector. NOTE

Use at least three cleaning tissues. Wipe the end of an optical connector horizontally in one direction, and then move the connector end to the unused part of the cleaning tissue to continue. Generally, one cleaning tissue can be used once for cleaning an optical connector.

l

To prevent contamination, the optical module should be covered with either a dust cap or an optical connector. Cover an optical module with a dust cap

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187



Cover an optical module with an optical connector

l

Lay the optical fibers on the Optical-fiber Distribution Frame (ODF) or coil them up in a fiber management tray. Make sure that the optical fibers are not squeezed.

l

If a receptacle or an optical connector has not been used for a long time and not covered with a dust cap, you should clean it before using it. A cotton swab is used to clean a receptacle, and a cleaning tissue is used to clean an optical connector. NOTE

During the cleaning process, insert the cotton swab and turn it slowly in the receptacle. Do not use too much strength, because the receptacle may be damaged.

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188


l


If optical signals are lost during the operation of a device, use the preceding method to clean the receptacle or the optical connector. In this manner, the possibility of contamination can be excluded.

Precautions for the overload-caused burnt optical module l

When using an OTDR to test the connectivity or the attenuation of optical signals, disconnect the optical connector from the optical module. Otherwise, the optical module is probably burnt.

l

When performing a self-loop test, use an optical attenuator. Do not loosen the optical connector instead.

l

It is required that a long-distance optical module input optical power smaller than –7 dBm. If the input optical power is larger than –7 dBm, you need to add an optical attenuator. For example, if the transmiting optical power is X dBm and the optical attenuation is Y dB, the receiving optical power is X-Y, which must be smaller than –7dBm (X-Y<–7 dBm).

Other precautions l

The optical connector should be horizontally inserted in the receptacle to avoid damages to the receptacle.

l

Mixed use of multi-mode and single-mode optical fibers is prohibited. Otherwise, faults such as signal loss may occur.

D.2 1 Gbit/s Electrical Transceiver The 1 Gbit/s electrical transceiver can be applied to the GE electrical interfaces. At present, there are two types of electrical transceivers, namely, GBIC/RJ45 and SFP/RJ45. Table D-1 lists the currently available 1 Gbit/s electrical transceivers.

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189



Table D-1 1 Gbit/s electrical transceivers

Product Model

BOM Number

Interface Standard

Transmis sion Distance

Mode

Autonegotiati on

Remarks

GBIC/ RJ45GE-100m

34100044

1000BAS E-T

100 m (328.08 ft.)

RJ-45

Not supported

-

SFP/RJ45GE-100m

34100052

1000BAS E-T

100 m (328.08 ft.)

RJ-45

Supported

-

SFP/RJ45GE-100m

34100080

1000BAS E-T

100 m (328.08 ft.)

RJ-45

Supported

-

Table D-2 Basic features of 1 Gbit/s electrical transceivers and the compliant standards

Item

Description

Remarks

Interface standard

IEEE Std 802.3z, IEEE Std 802.3ab

-

GBIC R5.5(34100044) SFP MSA(34100052, 34100080) Temperature

0-75°C (32°F to 167°F)

-

Digital diagnosis

N/A

-

Environment standard

RoHS(exempted)

-

Security standard

FCC class B, IEC 61000-4-3

-

ESD

>500V

Human body model

Table D-3 Specifications of 1 Gbit/s Electrical Transceivers

Issue 01 (2011-10-15)

Parameter

Unit

Value

Remarks

Interface standard

-

1000BASE-T

-

Transmission rate

Mbit/s

10-1000

Complying with IEEE802.3

Interface type

-

RJ-45


m(ft.)

100 (328.08)


Category 5 UTP, BER < 10-10, (GBIC/ RJ45-GE-100)

190


Parameter


Unit

Value

Remarks Category 5 UTP, BER < 10-12, (SFP/ RJ45-GE-100)

D.3 1.25 Gbit/s GBIC Optical Module The 1.25 Gbit/s GBIC optical modules of different levels can be applied to the GE interface . The wavelength of these 1.25 Gbit/s GBIC optical modules can be 850 nm, 1310 nm, or 1550 nm and the transmission distance ranges from 0.5 km to 100 km (0.31 mi to 62.14 mi). Table D-4 lists the currently available 1.25 Gbit/s GBIC optical modules. Table D-4 1.25 Gbit/s GBIC optical modules

Issue 01 (2011-10-15)

Product Model

BOM Number

Interface Standard

Transmis sion Distance (km)(mi)

Mode

Wavelen gth (nm)

Remarks

GBICGEMM850-5 00m

34060041

1000BAS E-SX

0.5 (0.31)

Multimod e

850

-

GBICGESM1310-1 0Km

34060037

1000BAS E-LX

10 (6.21)

Singlemode

1310

-

GBICGESM1310-4 0Km

34060042

1000BAS E-LX

40 (24.86)

Singlemode

1310

When performin g a selfloop test, use an optical attenuator

GBICGESM1550-6 0Km

34060070

1000BAS E-ZX

60 (37.28)

Singlemode

1550



191



Product Model

BOM Number

Interface Standard


Mode

Wavelen gth (nm)

Remarks

GBICGESM1550-8 0Km

34060044

1000BAS E-ZX

80 (49.72)

Singlemode

1550


GBICGESM1550-1 00Km

34060205

1000BAS E-ZX

100 (62.14)

Singlemode

1550


Table D-5 Basic features of 1.25 Gbit/s GBIC optical modules and the compliant standards

Item

Description

Remarks

Interface standard

IEEE802.3, GBIC R5.4

-

Bit Error Ratio (BER)

< 1 x 10E -12

-

Temperature

-5°C to +70°C (23°F to 158° F)

-

Digital diagnosis

N/A

-


RoHS(exempted)

-

Security standard

FCC class B, IEC 60825-1 Class 1

-

ESD

>500V

Human body model

Table D-6 Specifications of the GBIC-GE-MM850-500 Optical Module

Issue 01 (2011-10-15)

Parameter

Unit

Value

Interface standard

-

1000BASE-SX

Transmission rate

Mbit/s

1.25 G

Interface type

-

SC


192



Parameter

Unit

Value


m(ft.)

500(1640.4) (50/125 um MMF)

m(ft.)

220(721.78) (62.5/125 um MMF)

Optical transmitter Optical source type

VCSEL

Center wavelength

nm

850

Operating wavelength range

nm

830-860

Maximum root mean square (RMS) Spectral Width

nm

0.85

Maximum spectral width (-20dB)

nm

N/A

Minimum side mode suppression ratio (SMSR)

dB

N/A

Spectral characteristics

Average transmit optical power Maximum transmit optical power

dBm

-4

Minimum transmit optical power

dBm

-9.5

Minimum extinction ratio

dB

9.0


nm

770-860

Minimum receiver sensitivity

dBm

-17

Overload power

dBm

0

Maximum optical channel cost

dB

N/A

Maximum reflection factor

dB

-14

Optical receiver

Table D-7 Specifications of the GBIC-GE-SM1310-10K optical module

Issue 01 (2011-10-15)

Parameter

Unit

Value

Interface standard

-

1000BASE-LX


193



Parameter

Unit

Value

Transmission rate

Mbit/s

1.25 G

Interface type

-

SC


km(mi)

10(6.21)


FP-LD

Center wavelength

nm

1310


nm

1290-1340


nm

4


nm

N/A


dB

N/A



dBm

-3


dBm

-9


dB

9


nm

1270-1355


dBm

-19

Overload power

dBm

-3


dB

N/A


dB

N/A

Optical receiver


Issue 01 (2011-10-15)

Parameter

Unit

Value

Interface standard

-

1000BASE-LX


194



Parameter

Unit

Value

Transmission rate

Mbit/s

1.25 G

Interface type

-

SC


km(mi)

40(24.86)


DFB-LD

Center wavelength

nm

1310


nm

1300-1340


nm

1.0


nm

N/A


dB

30



dBm

1


dBm

-4


dB

7


nm

1270-1570


dBm

-23

Overload power

dBm

-3


dB

N/A


dB

N/A

Optical receiver


Issue 01 (2011-10-15)

Parameter

Unit

Value

Interface standard

-

1000BASE-ZX


195



Parameter

Unit

Value

Transmission rate

Mbit/s

1.25 G

Interface type

-

SC


km(mi)

60(37.28)


DFB-LD

Center wavelength

nm

1550


nm

1500-1580


nm

1.0


nm

N/A


dB

N/A



dBm

3


dBm

-2


dB

9


nm

1100-1600


dBm

-23

Overload power

dBm

-3


dB

N/A


dB

N/A

Optical receiver


Issue 01 (2011-10-15)

Parameter

Unit

Value

Interface standard

-

1000BASE-ZX


196



Parameter

Unit

Value

Transmission rate

Mbit/s

1.25 G

Interface type

-

SC


km(mi)

80(49.71)


DFB-LD

Center wavelength

nm

1550


nm

1540-1570


nm

1.0


nm

N/A


dB

30



dBm

4


dBm

0


dB

7


nm

1270-1570


dBm

-24

Overload power

dBm

-3


dB

N/A


dB

N/A

Optical receiver

D.4 1.25 Gbit/s SFP/eSFP Optical Module The 1.25 Gbit/s SFP/eSFP optical modules of different levels can be applied to the GE interface . The wavelength of the common 1.25 Gbit/s SFP/eSFP optical modules can be 850 nm, 1310 nm, or 1550 nm and the transmission distance ranges from 0.5 km to 100 km (0.31 mi to 62.14 Issue 01 (2011-10-15)


197



mi). The wavelength of the 1.25 Gbit/s SFP/eSFP CWDM optical module ranges from 1470 nm to 1610 nm and the transmission distance is 70 km (43.50 mi) (43.50 mi). Table D-11 lists the currently available 1.25 Gbit/s SFP/eSFP optical modules. Table D-11 1.25 Gbit/s SFP/eSFP optical modules

Issue 01 (2011-10-15)

Product Model

BOM Number

Interface Standard


Mode

Wavelen gth (nm)

Remarks

eSFP-GEMM850-5 00m

34060286

1000BAS E-SX

0.5 (0.31)

Multimod e

850

Preferred

SFP-GEMM850-5 00m

34060049

1000BAS E-SX

0.5 (0.31)

Multimod e

850

-

eSFP-GESM1310-1 0Km

34060219

1000BAS E-LX

10 (6.21)

Singlemode

1310

-

eSFP-GESM1310-1 0Km

34060473

1000BAS E-LX

10 (6.21)

Singlemode

1310

Preferred

eSFP-GESMTx131 0/ Rx1490-1 0km

34060470

1000BAS E-LX

10 (6.21)

Singlemode

Tx1310/ Rx1490

-

eSFP-GESMTx149 0/ Rx1310-1 0km

34060475

1000BAS E-LX

10 (6.21)

Singlemode

Tx1490/ Rx1310

-

eSFP-GESM1310-4 0Km

34060298

1000BAS E-LX

40(24.86)

Singlemode

1310

Preferred



198


Issue 01 (2011-10-15)


Product Model

BOM Number

Interface Standard


Mode

Wavelen gth (nm)

Remarks

SFP-GESM1310-4 0Km

34060207

1000BAS E-LX

40(24.86)

Singlemode

1310


SFP-GESM1550-4 0Km

34060069

1000BAS E-ZX

40(24.86)

Singlemode

1550


eSFP-GESM1550-4 0Km

34060333

1000BAS E-ZX

40(24.86)

Singlemode

1550

Preferred

eSFP-GESM1550-8 0Km

34060360

1000BAS E-ZX

80 (49.71)

Singlemode

1550

eSFP-GESM1550-8 0Km

34060274

1000BAS E-ZX

80 (49.71)

Singlemode

1550


When performin g a selfloop test, use an optical attenuator Preferred When performin g a selfloop test, use an optical attenuator When performin g a selfloop test, use an optical attenuator

199



Product Model

BOM Number

Interface Standard


Mode

Wavelen gth (nm)

Remarks

eSFP-GESM1550-1 00Km

34060295

1000BAS E-ZX

100 (62.14)

Singlemode

1550


Table D-12 List of 1.25 Gbit/s SFP/eSFP CWDM optical modules

Issue 01 (2011-10-15)

Product Model

BOM Number

Interface Standard


Mode

Wavelen gth (nm)

Remarks

eSFP-GESM1470-7 0Km

34060351

CWDM

70 (43.50)

Singlemode

1470

-

eSFP-GESM1490-7 0Km

34060350

CWDM

70 (43.50)

Singlemode

1490

-

eSFP-GESM1510-7 0Km

34060315

CWDM

70 (43.50)

Singlemode

1510

-

eSFP-GESM1530-7 0Km

34060332

CWDM

70 (43.50)

Singlemode

1530

-

eSFP-GESM1550-7 0Km

34060346

CWDM

70 (43.50)

Singlemode

1550

-

eSFP-GESM1570-7 0Km

34060347

CWDM

70 (43.50)

Singlemode

1570

-

eSFP-GESM1590-7 0Km

34060348

CWDM

70 (43.50)

Singlemode

1590

-

eSFP-GESM1610-7 0Km

34060349

CWDM

70 (43.50)

Singlemode

1610

-


200



Table D-13 Basic features of 1.25 Gbit/s SFP/eSFP optical modules and the compliant standards

Item

Description

Remarks

Interface standard

IEEE802.3, SFP MSA

-


< 1 x 10E -12

-

Temperature

0°C to +70°C (32°F to 158° F)

-

Digital diagnosis

SFF-8472(exclude SFP optical modules)

-


RoHS(exempted)

-

Security standard


-

ESD

>500V

Human body model

Table D-14 Specifications of the eSFP-GE-MM850-500 optical module

Parameter

Unit

Value

Interface standard

-

1000BASE-SX

Transmission rate

Mbit/s

1.25 G

Interface type

-

LC


m(ft.)

500(1640.4) (50/125 um MMF)

m(ft.)

200(656.16) (62.5/125 um MMF)


VCSEL

Center wavelength

nm

850


nm

830-860


nm

0.85


nm

N/A


dB

N/A


Average transmit optical power

Issue 01 (2011-10-15)


201



Parameter

Unit

Value

Maximum transmit optical power

dBm

-3


dBm

-9


dB

9.0


nm

770-860


dBm

-17

Overload power

dBm

0


dB

N/A


dB

N/A

Optical receiver

Table D-15 Specifications of the eSFP-GE-SM1310-10K optical module

Parameter

Unit

Value

Interface standard

-

1000BASE-LX

Transmission rate

Mbit/s

1.25 G

Interface type

-

LC


km(mi)

10(6.21)


FP Laser

Center wavelength

nm

1310


nm

1270-1355


nm

4


nm

N/A


dB

N/A



Issue 01 (2011-10-15)


202



Parameter

Unit

Value


dBm

-3


dBm

-9


dB

9.5


nm

1260-1580


dBm

-20

Overload power

dBm

-3


dB

N/A


dB

N/A

Optical receiver


Parameter

Unit

Value

Interface standard

-

1000BASE-LX

Transmission rate

Mbit/s

1.25 G

Interface type

-

LC


km(mi)

10(6.21)


DFB Laser

Center wavelength

nm

Tx1310/Rx1490


nm

1260-1360


nm

N/A


nm

1


dB

30



Issue 01 (2011-10-15)


203



Parameter

Unit

Value


dBm

-3


dBm

-9


dB

6


nm

1480-1500


dBm

-19.5

Overload power

dBm

-3


dB

N/A


dB

N/A

Optical receiver

Table D-17 Specifications of the eSFP-GE-SMTx1490/Rx1310-10K optical module

Parameter

Unit

Value

Interface standard

-

1000BASE-LX

Transmission rate

Mbit/s

1.25 G

Interface type

-

LC


km(mi)

10(6.21)


DFB Laser

Center wavelength

nm

Tx1490/Rx1310


nm

1480-1500


nm

N/A


nm

1


dB

30



Issue 01 (2011-10-15)


204



Parameter

Unit

Value


dBm

-3


dBm

-9


dB

6


nm

1260-1360


dBm

-19.5

Overload power

dBm

-3


dB

N/A


dB

N/A

Optical receiver


Parameter

Unit

Value

Interface standard

-

1000BASE-LX

Transmission rate

Mbit/s

1.25 G

Interface type

-

LC


km(mi)

40(24.86)


DFB-LD

Center wavelength

nm

1310


nm

1275-1335


nm

N/A


nm

1.0


dB

30



Issue 01 (2011-10-15)


205



Parameter

Unit

Value


dBm

0(34060298)


dBm


dB

9


nm

1260-1580


dBm

-22.5

Overload power

dBm

-3


dB

N/A


dB

N/A

5(34060207) -4.5(34060298) 0(34060207)

Optical receiver


Parameter

Unit

Value

Interface standard

-

1000BASE-ZX

Transmission rate

Mbit/s

1.25 G

Interface type

-

LC


km(mi)

40(24.86)


DFB-LD

Center wavelength

nm

1550


nm

1480-1580


nm

N/A


nm

1.0


dB

30



Issue 01 (2011-10-15)


206



Parameter

Unit

Value


dBm

0


dBm

-5


dB

9


nm

1260-1580


dBm

-21

Overload power

dBm

-3


dB

N/A


dB

N/A

Optical receiver


Parameter

Unit

Value

Interface standard

-

1000BASE-ZX

Transmission rate

Mbit/s

1.25 G

Interface type

-

LC


km(mi)

80(49.71)


DFB-LD

Center wavelength

nm

1550


nm

1540-1570


nm

N/A


nm

1.0


dB

30



Issue 01 (2011-10-15)


207



Parameter

Unit

Value


dBm

3


dBm

-2


dB

9


nm

1270-1570


dBm

-22

Overload power

dBm

-3


dB

N/A


dB

N/A

Optical receiver


Parameter

Unit

Value

Interface standard

-

1000BASE-ZX

Transmission rate

Mbit/s

1.25 G

Interface type

-

LC


km(mi)

100(62.14)


DFB-LD

Center wavelength

nm

1550


nm

1540-1570


nm

N/A


nm

1.0


dB

30



Issue 01 (2011-10-15)


208



Parameter

Unit

Value


dBm

5


dBm

0


dB

9


nm

1270-1600


dBm

-30

Overload power

dBm

-10


dB

N/A


dB

N/A

Optical receiver

Table D-22 Specifications of the 1.25 Gbit/s CWDM 70 km (43.50 mi) eSFP optical module

Parameter

Unit

Value

Interface standard

-

CWDM

Transmission rate

Mbit/s

1.25 G

Interface type

-

LC


km(mi)

70(43.50)

Optical transmitter Optical source type Center wavelength

DFB-LD nm

1471 (eSFP-GESM1470-70K) 1491 (eSFP-GESM1490-70K) 1511 (eSFP-GESM1510-70K) 1531 (eSFP-GESM1530-70K) 1551 (eSFP-GESM1550-70K) 1571 (eSFP-GESM1570-70K)

Issue 01 (2011-10-15)


209


Parameter


Unit

Value 1591 (eSFP-GESM1590-70K) 1611 (eSFP-GESM1610-70K)


nm

1464.5-1477.5 (eSFP-GESM1470-70K) 1484.5-1497.5 (eSFP-GESM1490-70K) 1504.5-1517.5 (eSFP-GESM1510-70K) 1524.5-1537.5 (eSFP-GESM1530-70K) 1544.5-1557.5 (eSFP-GESM1550-70K) 1564.5-1577.5 (eSFP-GESM1570-70K) 1584.5-1597.5 (eSFP-GESM1590-70K) 1604.5-1617.5 (eSFP-GESM1610-70K)

Spectral characteristics Maximum root mean square (RMS) Spectral Width

nm

N/A


nm

1.0


dB

30


dBm

5


dBm

0


dB

9


nm

1270-1620


dBm

-23

Optical receiver

Issue 01 (2011-10-15)


210



Parameter

Unit

Value

Overload power

dBm

-3


dB

N/A


dB

N/A

D.5 2.5 Gbit/s eSFP Optical Module The 2.5 Gbit/s eSFP optical modules of different levels can be applied to the STM-16/OC-48 POS interface and ATM interface. The wavelength of these 2.5 Gbit/s eSFP optical modules can be 1310 nm or 1550 nm and the transmission distance ranges from 2 km to 80 km (1.24 mi to 49.71 mi). Table D-23 lists the currently available 2.5 Gbit/s eSFP optical modules. Table D-23 2.5 Gbit/s eSFP optical modules

Issue 01 (2011-10-15)

Product Model

BOM Number

Interface Standard


Mode

Wavelen gth (nm)

Remarks

eSFPSTM16SM1310-2 Km

34060288

STM-16 I-16

2(1.24)

Singlemode

1310

-

eSFPSTM16SM1310-1 5Km

34060278

STM-16 S-16.1

15(9.32)

Singlemode

1310

-


34060289

STM-16 S-16.1

40(24.86)

Singlemode

1310



34060279

STM-16 L-16.2

80(49.71)

Singlemode

1550



211



Product Model

BOM Number

Interface Standard


Mode

Wavelen gth (nm)

Remarks


34060488

STM-16 L-16.2

80(49.71)

Singlemode

1550

Preferred When performin g a selfloop test, use an optical attenuator

Table D-24 Basic features of 2.5 Gbit/s eSFP optical modules and the compliant standards

Item

Description

Remarks

Interface standard

ITU-T G.957 STM-16, SFP MSA

-


< 1 x 10E -12

Temperature

0-70°C (32°F to 158°F )

-

Digital diagnosis

SFF-8472(exclude SFP optical modules)

-


RoHS(exempted)

-

Security standard


-

ESD

>500V

Human body model

Table D-25 Specifications of the eSFP-STM16-SM1310-2K optical module

Parameter

Unit

Value

Interface standard

-

STM-16 I-16, OC-48

Transmission rate

Mbit/s

2.5 G

Interface type

-

LC


km(mi)

2(1.24)


Issue 01 (2011-10-15)

FP Laser nm


1310

212



Parameter

Unit

Value


nm

1270-1360


nm

4


nm

1


dB

30



dBm

-3


dBm

-10


dB

8.2


nm

1270-1580


dBm

-18

Overload power

dBm

-3


dB

1


dB

-27

Optical receiver


Parameter

Unit

Value

Interface standard

-

STM-16 S-16.1, OC-48

Transmission rate

Mbit/s

2.5 G

Interface type

-

LC


km(mi)

15(9.32)


Issue 01 (2011-10-15)

DFB-LD nm


1310

213



Parameter

Unit

Value


nm

1270-1360


nm

NA


nm

1.0


dB

30



dBm

0


dBm

-5


dB

8.2


nm

1270-1580


dBm

-18

Overload power

dBm

-3


dB

1


dB

-27

Optical receiver


Parameter

Unit

Value

Interface standard

-

STM-16 S-16.1, OC-48

Transmission rate

Mbit/s

2.5 G

Interface type

-

LC


km(mi)

40(24.86)


Issue 01 (2011-10-15)

DFB-LD nm


1310

214



Parameter

Unit

Value


nm

1280-1335


nm

N/A


nm

1.0


dB

30



dBm

3


dBm

-2


dB

8.5


nm

1280-1335


dBm

-27

Overload power

dBm

-9


dB

1


dB

-27

Optical receiver


Parameter

Unit

Value

Interface standard

-

STM-16 S-16.1, OC-48

Transmission rate

Mbit/s

2.5 G

Interface type

-

LC


km(mi)

80(49.71)


Issue 01 (2011-10-15)

DFB-LD nm


1550

215



Parameter

Unit

Value


nm

1500-1580


nm

N/A


nm

1.0


dB

30



dBm

3


dBm

-2


dB

8.2


nm

1500-1580


dBm

-28

Overload power

dBm

-9


dB

N/A


dB

-27

Optical receiver

D.6 10 Gbit/s XFP Optical Module The 10 Gbit/s XFP optical modules of different levels can be applied to the OC-192/STM-64 POS interface, ATM interface, and 10 GE interface. The wavelength of the these 10 Gbit/s XFP optical modules can be 850 nm, 1310 nm, or 1550 nm and the transmission distance ranges from 0.3 km to 80 km(0.19 mi to 49.71 mi). Table D-29 lists the currently available 10 Gbit/s XFP optical modules.

Issue 01 (2011-10-15)


216



Table D-29 10 Gbit/s XFP optical modules

Product Model

BOM Number

Interface Standard


Mode

Wavelen gth (nm)

Remarks

XFP-10GMM850-3 00m

34060362

10GBASE -SR/SW

0.3(0.19)

Multimod e

850

-

XFP-10GSM1310-1 0Km

34060313

10GBASE -LR/LW STM-64/ OC-192

10(6.21)

Singlemode

1310

-

XFP-10GSM1550-4 0Km

34060322

10GBASE -ER/EW STM-64/ OC-192

40(24.86)

Singlemode

1550


XFP-10GSM1550-8 0Km

34060361

10GBASE -ZR/ZW STM-64/ OC-192

80(49.71)

Singlemode

1550


Table D-30 Basic features of 10 Gbit/s XFP optical modules and the compliant standards

Issue 01 (2011-10-15)

Item

Description

Remarks

Interface standard

IEEE802.3ae 10GE, SONET OC-192/SDH STM-64, XFP MSA

XFP-10G-MM850-300 do not support SONET OC-192/ SDH STM-64


< 1 x 10E -12

Temperature

0-70°C(32°F to 158°F )

-

Digital diagnosis

XFP MSA INF8077i

-


RoHS(exempted)

-

Security standard

FCC class B, IEC 60825-1 Class 1 laser eye safe

-

ESD

>500V

Human body model


217



Table D-31 Specifications of the XFP-10G-MM850-300 optical module

Parameter

Unit

Value

Interface standard

-

10GBASE-SR/SW

Transmission rate

Mbit/s

10.3125 (10GBASE-SR/ SW)

Interface type

-

LC


m(ft.)

300(984.24) (50/125um MMF, OM3)

m(ft.)

33(108.27) (62.5/125um MMF, OM1)


VCSEL

Center wavelength

nm

850


nm

840-860


nm

0.45


nm

N/A


dB

N/A



dBm

-1.3


dBm

-7.3


dB

3.0


nm

840-860


dBm

-7.5

Overload power

dBm

-1


dB

N/A


dB

-12

Optical receiver

Issue 01 (2011-10-15)


218



Table D-32 Specifications of the XFP-10G-SM1310-10K optical module

Parameter

Unit

Value

Interface standard

-

10GBASE-LR/LW, STM-64/OC-192

Transmission rate

Gbit/s

9.95328 (STM-64/OC-192) 10.3125 (10GBASE-LR/ LW)

Interface type

-

LC


km(mi)

10(6.21)


DFB-LD

Center wavelength

nm

1310


nm

1290-1330


nm

N/A


nm

1.0


dB

30



dBm

-1


dBm

-6


dB

6


nm

1270-1565


dBm

-11

Overload power

dBm

0.5


dB

1


dB

-14

Optical receiver

Issue 01 (2011-10-15)


219




Parameter

Unit

Value

Interface standard

-

10GBASE-ER/EW, STM-64/OC-192

Transmission rate

Gbit/s

9.95328 (STM-64/OC-192) 10.3125 (10GBASE-ER/ EW)

Interface type

-

LC


km(mi)

40(24.86)


EML

Center wavelength

nm

1550


nm

1530-1565


nm

1.0


nm

N/A


dB

30



dBm

2


dBm

-1


dB

8.2


nm

1270-1565


dBm

-14

Overload power

dBm

-1


dB

2


dB

-26

Optical receiver

Issue 01 (2011-10-15)


220




Parameter

Unit

Value

Interface standard

-

10GBASE-ER/EW, STM-64/OC-192

Transmission rate

Gbit/s

9.95328 (STM-64/OC-192) 10.3125 (10GBASE-ZR/ ZW)

Interface type

-

LC


km(mi)

80(49.71)


EML

Center wavelength

nm

1550


nm

1530-1565


nm

1.0


nm

N/A


dB

30



dBm

4


dBm

0


dB

9


nm

1270-1600


dBm

-22

Overload power

dBm

-7


dB

2


dB

-27

Optical receiver

Issue 01 (2011-10-15)


221



D.7 100Gbps CFP Optical Modules Table D-35 lists the available 100-Gbps CFP optical modules. Table D-35 100-Gbps CFP optical modules

Model

BOM Number

Interface Standard


Mode

Wavelen gth (nm)

Remarks

CFP-100G -SM-10k

34060570

100GBAS E-LR4

10(6.21)

Single mode

1295

-

1300 1304 1309

Table D-36 Attributes and standards of 100-Gbps CFP optical modules

Attribute and standard

Description

Remarks

Interface standard

100GBASE-LR4,ITU-T G. 959.1 4I1-9D1F

-

Bit error rate (BER)

< 1 x 10E –12

-

Operating temperature

0–70°C (32°F to 158°F)

-

Digital diagnosis

-


RoHS (exempted)

-

Safety standard

FCC class B, IEC 60825-1 Class 1 laser eye safe

-

ESD

>500V

Human Body Model (HBM)

Table D-37 CFP-100G-SM1310-10k optical module specifications

Item

Unit

Value

Interface standard

-

100GBASE-LR4

Transmission rate

Mbit/s

103.125

Interface type

-

SC/LC


km(mi)

10(6.21)

Optical transmitter

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222


Item


Unit

Optical source type Center wavelength

Value Semi-cooled EA-DFB

nm

1295 1300 1304 1309

Working wavelength

nm

1294.53~1296.59 1299.02~1301.09 1303.54~1305.63 1308.09~1310.19

Spectrum attributes Maximum root-mean-square (RMS) spectral width

nm

0.45

Maximum spectrum width (-20 dB)

nm

N/A

Minimum Side Mode Suppression Ratio (SMSR)

dB

30


dBm

4.5


dBm

–4.3


dB

4.0

nm

1294.53~1296.59

Optical receiver Working wavelength

1299.02~1301.09 1303.54~1305.63 1308.09~1310.19

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dBm

–8.6

Overload optical power

dBm

4.5

Minimum optical channel overhead

dB

1.5

Maximum reflection coefficient

dB

–26


223


E Glossary

E

Glossary

A Asynchronizatio n

Asynchronization does not use the exact data signals timed by the clock. The signals have different frequencies and phases. The asynchronizatioin usually encapsulates the bits into the control flag, which specifies the beginning and end of the bits.

D DCE

Data Circuit-terminating Equipment is a network device composing the UNI. DCE provides the physical connection to the network, forwards the data, and provides the clock signals for the DTE.

DRAM

Dynamic Random Access Memory. The information stored in the RAM must be refreshed periodically. When the contents of the DRAM are being refreshed, a user cannot access it. Delay can thus occur.

DTE

Data terminal equipment is a user device composing the UNI. The DTE accesses the data network through the DCE equipment (for example, model) and usually uses the clock signals produced by DCE.

F Flash

Flash is a kind of special Erasable Programmable Read Only Memory (EEPROM), which can be completely erased and rewritten one time instead of only one byte.

N NVRAM

Nonvolatile Random Access Memory. The data in NVRAM cannot be lost when the system is Down.

R RAM

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Random Access Memory is a memory that can be lost easily, and read and rewritten by the micro processor.


224


ROM

E Glossary

Read Only Memory is a memory that cannot be lost easily, and can only be read, but not written by the micro processor.

S SRAM

Issue 01 (2011-10-15)

Static Random Access Memory is a type of random access memory. Its contents can be saved only if the SRAM is provided with the uninterrupted power supply. Unlike the DRAM, the SRAM does not need to be refreshed repeatedly.


225


F

F Acronyms and Abbreviations

Acronyms and Abbreviations

A AC

Alternating Current

ATM

Asynchronous Transfer Mode

AUX

Auxiliary (port)

C CAN

Control Area Network

CE1

Channelized E1

CF

Compact Flash

CLK

Clock Card

CPU

Central Processing Unit

CT1

Channelized T1

CTS

Clear to Send

D DC

Direct Current

DCE

Data Circuit-terminating Equipment

DSR

Data Set Ready

DTE

Data Terminal Equipments

DTR

Data Terminal Ready

E EMC

Electro Magnetic Compatibility

F

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226


F Acronyms and Abbreviations

FAD

Fabric Adaptor

FC

Patch Cord (Connector + Fiber)

FCB

Fan Control Board

FPIC

Flexible Plug-in Card

G GND

Ground

I IEC

International Electrotechnical Commission

L

LC

Lucent Connector

LPU

Line Processing Unit

M MPU


N NEG

Negative

NVRAM

Non-Volatile Random Access Memory

O ODF

Optical Distribution Frame

OFL

Offline

P PC

Personal Computer

PCB

Printed Circuit Board

PCS

Physical Coding Sublayer

PGND

Protection Ground

PMD

Physical Medium Dependent

R

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RJ45

Registered Jack 45

RTS

Request to Send

RXD

Receive Data


227

NE5000E Hardware Description(V800R002C01_01).pdf

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