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GR 1312 CORE : ISSUE 3

Current

Current

The latest, up-to-date edition.

GENERIC REQUIREMENTS FOR OPTICAL FIBER AMPLIFIERS AND PROPRIETARY DENSE WAVELENGTH-DIVISION MULTIPLEXED SYSTEMS

Published date

12-01-2013

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1 Introduction
1.1 Purpose and Scope
1.2 Changes From GR-1312-CORE, Issue 1
1.3 Requirements Terminology
1.4 Requirement Labeling Conventions
1.4.1 Numbering of Requirement and Related Objects
1.4.2 Requirement, Conditional Requirement, and
               Objective Object Identification
1.5 Organization
2 General Information
2.1 Basic Components
2.2 EDFA Operation Principles
2.3 EDFA Design Considerations
2.4 PDFAs
2.5 Other OFAs
2.6 Black Box Assumption
2.7 System Configurations using Amplifiers
2.8 Optical Fiber Amplifier Applications
3 Optical Fiber Amplifier Regions of Operation
3.1 Output Signal Power vs. Input Signal Power
               Region of Operation
3.2 Gain vs. Signal Wavelength Region of Operation
4 General and Design Criteria
4.1 Product Documentation
4.1.1 General Documentation
4.1.2 Workcenter Information Package
4.2 Physical Design Criteria
4.2.1 General Labels
4.2.2 Non-active Optical Fiber of OFA Ports
4.2.3 Optical Connectors
4.2.4 Safety
4.2.5 Heat Dissipation
4.2.6 Fire Resistance
4.2.7 Airborne Contaminants
4.2.8 Mounting
5 Performance Criteria
5.1 Optical Criteria
5.1.1 OFA Configuration Specific Criteria
5.1.2 Common Generic Criteria
5.2 Maintenance Criteria
5.2.1 Alarm Surveillance
5.2.2 Surveillance Channel Capabilities
               (In-line OFA only)
5.2.3 Failure States
5.2.4 Performance Monitoring
5.2.5 Control Features
5.3 Electrical Criteria
5.3.1 Electromagnetic Interference
5.3.2 Electrostatic Discharge
5.3.3 Grounding
5.3.4 Surge Protection
5.4 Mechanical Criteria
5.4.1 Cable Retention
5.4.2 Flex Test
5.4.3 Twist Test
5.4.4 Vibration Test
5.4.5 Impact Test
5.5 Environmental Criteria
5.5.1 Temperature and Humidity
5.5.2 Normal and Emergency Short-Term High/Low
               Temperature Conditions Tests
5.5.3 Transportation and Handling - Temperature and
               Humidity Tests
5.5.4 Hydrogen Contamination Test
6 Performance Verification/Test Procedures
6.1 Required Equipment
6.2 Optical Testing
6.2.1 Calibration of Test Configurations
6.2.2 Output Signal Power vs. Input Signal Power
6.2.3 Gain Bandwidth
6.2.4 ASE Noise Contribution
6.2.5 Total Noise Figure
6.2.6 Reflectances Tolerated
6.2.7 Single Reflectance Tolerated
6.2.8 Optical Return Loss (ORL)
6.2.9 Maximum Forward and Backward ASE Powers
6.2.10 Maximum Forward and Backward Remnant Pump
               Powers
6.2.11 Maximum Total Power
6.3 Mechanical Testing
6.3.1 Cable Retention
6.3.2 Flex Test
6.3.3 Twist Test
6.3.4 Vibration Test
6.3.5 Impact Test
6.4 Environmental Testing
6.4.1 Normal and Emergency Short-Term High Temperature
               Condition Test
6.4.2 Normal and Emergency Short-Term Low Temperature
               Condition Test
6.4.3 Transportation and Handling - Temperature and
               Humidity Test Methods
6.4.4 Hydrogen Contamination Test Methods
7 OFAs in WDM Configurations
7.1 WDM Technology
7.1.1 Wavelength standards
7.1.2 Coarse- and Dense- WDM
7.1.3 WDM Configurations
7.2 WDM Parameters
7.2.1 Definitions
7.2.2 Measurement Techniques
7.3 WDM Requirements
7.3.1 Input and Output Power Levels
7.3.2 OFA Types, Power Levels, and Noise Figure
7.3.3 Gain Specifications
7.3.4 Transient Response and Gain Competition
7.3.5 Optical Supervisory Channel
7.3.6 Loss of Signal
7.3.7 Optical Monitoring and Surveillance
8 Optically Amplified WDM Systems
8.1 System Requirements
8.1.1 General Requirements
8.1.2 System Requirements
8.1.3 Wavelength Requirements
8.1.4 Power Requirements
8.1.5 BER Power Penalty
8.1.6 Loss of Signal
8.1.7 Optical Monitoring and Surveillance
9 Operations Communications
10 Surveillance Functionality
10.1 Alarm Surveillance
10.1.1 Trouble Reporting
10.1.2 Trouble Reporting Controls
10.1.3 Alarm Controls
10.1.4 Threshold Control
10.1.5 Status Retrieval
10.2 Performance Monitoring (PM)
10.3 Failure Identification Functions
10.4 Recovery and Control Functions
10.4.1 Maintenance State Control
10.4.2 External Device Control
10.4.3 Initialization
10.4.4 Switching
10.5 Contact Closure
11 OFA Operations Communications Interface
11.1 OS/OFA System Interface
12 Reliability Assurance Program Fundamentals
12.1 Materials and Components
12.1.1 Quality Levels
12.1.2 Vendor Qualification
12.1.3 Component Qualification
12.1.4 Quality Conformance
12.1.5 Treatment of Internally Manufactured Devices
12.1.6 Use of Vendor-Supplied Data
12.1.7 Ship-to-Stock Programs
12.1.8 Reliability Controls
12.1.9 Feedback and Corrective Action
12.2 Physical Design
12.2.1 Contact of Dissimilar Metals
12.2.2 Flammability
12.2.3 Component Subassemblies
12.3 Manufacturing and Assembly
12.3.1 Training
12.3.2 Product Documentation
12.3.3 Product Inspection
12.3.4 Product Assembly
12.3.5 Product Screening
12.3.6 Statistical Process Control and Quality Data
12.3.7 Product Traceability
12.3.8 Customer Support
12.3.9 Field Trials
12.4 Manufacturer Testing
12.4.1 Test Documentation
12.4.2 In-Process Testing
12.4.3 Finished Goods Testing
12.4.4 Calibration
12.4.5 OFA Qualification Testing
13 Qualification and Lot Controls for OFA
               Component Parts and OFAs
13.1 Pump Laser Reliability
13.1.1 Laser Diode Qualification
13.1.2 Laser Diode Lot-to-Lot Controls
13.1.3 Laser Module Qualification
13.1.4 Laser Module Lot-to-Lot Controls
13.1.5 Thermoelectric Cooler (TEC) Qualification
13.1.6 TEC Lot-to-Lot Controls
13.1.7 Other Laser Module Components
13.2 Wavelength Division Multiplexer Reliability
13.2.1 WDM Qualification
13.2.2 WDM Lot-to-Lot Controls
13.3 Optical Isolator
13.3.1 Optical Isolator Qualification
13.3.2 Optical Isolator Lot-to-Lot Controls
13.4 Active Fiber
13.5 Optical Splices and Connectors
13.6 Optical Filters
13.7 Optical Adhesives
13.8 Other Electronic Components
13.9 OFA Black Box Reliability
13.9.1 Reliability and Availability Criteria
13.9.2 OFA Qualification
13.9.3 OFA Lot Controls
Appendix A: Summary of Applicable TL1 Messages
References
Glossary

The Erbium-Doped Fiber Amplifiers have significantly boosted network transmission capabilities, development of other optical amplifiers based on, Raman amplification, non-Er-doped fibers, planar waveguide technology, and Semiconductor Optical Amplifiers (SOAs) are changing the structure and demands on the optical networking industry. The new issue is based C-, L- and S-band optical amplifiers. It contains following types of optical fiber amplifiers: C- and L-band EDFAs Raman amplifiers (both distributed and discrete) Erbium Doped Waveguide Amplifiers Semiconductor Optical Amplifiers Non-Erbium-Doped Fiber Amplifiers Hybrid amplifiers (e.g. Hybrid Raman/Erbium Fiber Amplifiers).

DevelopmentNote
Replaces TA NWT 001312. Included in FR DWDM 1 and DP 1312. (12/2001)
DocumentType
Standard
PublisherName
Telcordia Technologies
Status
Current
Supersedes

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