CDMA 2013 Training Programs. Catalog of Course Descriptions

Transcription

1 CDMA 2013 Training Programs Catalog of Course Descriptions

2 Catalog of Course Descriptions INTRODUCTION... 7 CDMA-LTE INTERWORKING AND COEXISTENCE... 8 CDMA 1XEVDO OPERATIONS AND MAINTENANCE XEVDO SYSTEM PERFORMANCE AND OPTIMIZATION CORE BILLING MANAGER (CBM) FOR CDMA NETWORKS CDMA P-MSC BASIC OPERATIONS CDMA P-MSC TESTING AND TROUBLESHOOTING CDMA ERS8600 FOR WIRELESS NETWORKS CDMA VSE OPERATIONS AND MAINTENANCE CDMA TRFO2 OPERATIONS CDMA MEDIA GATEWAY (MGW) OPERATIONS AND MAINTENANCE CDMA SERVER ADMINISTRATION CONVERGED CARRIER MANAGEMENT PLATFORM 6000 (CCMP6000) TECHNICAL SUPPORT CDMA BTS OPERATIONS AND MAINTENANCE CDMA EBSC OPERATIONS AND MAINTENANCE CDMA 1XEVDO RNC9000 TECHNICAL SUPPORT /03819-FAP Uen Rev: A 2

3 CDMA 1XEV-DO FEATURES FOR SYSTEMS PERFORMANCE OPTIMIZATION NETWORK ATTACHED STORAGE SERVER 2424 (NASS2424) KNOWLEDGE TRANSFER CDMA 1XEVDO RELEASE 9.0 DELTA CDMA COMMON PROVISIONING SYSTEM (CPS) CONFIGURATION CDMA DCA TECHNICAL SUPPORT CDMA PMSC NETWORK ENGINEERING AND CAPACITY PLANNING CDMA P-MSC SIP OAM & PROVISIONING CDMA P-MSC TRUNK PROVISIONING CDMA RELEASE 18 DELTA - ACCESS CDMA RELEASE 18 DELTA - CORE CDMA CORE NETWORK OVERVIEW CDMA PORTFOLIO OVERVIEW CDMA ACCESS NETWORK OVERVIEW IP OVERVIEW AND FUNDAMENTALS IP ROUTING OVERVIEW AND FUNDAMENTALS CDMA RBS 6102 OVERVIEW CDMA RBS 6102 OPERATIONS AND MAINTENANCE CDMA 1XEVDO RELEASE 10.0 DELTA /03819-FAP Uen Rev: A 3

4 CDMA 2000 AIR INTERFACE OVERVIEW CDMA EBSC OVERVIEW CDMA VSE GWC AND 13U DELTA ERICSSON CDMA MS AND MRF AND AFC OVERVIEW ERICSSON CDMA CNM COMMON WEB DESKTOP (CWD) OVERVIEW CDMA SAM21 AND GWC OVERVIEW ERICSSON CDMA PMSC CBM OVERVIEW ERICSSON CDMA USP OVERVIEW ERICSSON CDMA CNM OVERVIEW ERICSSON CDMA SE1200 OVERVIEW ERICSSON CDMA ERS 8600 OVERVIEW ERICSSON CDMA MGW OVERVIEW ERICSSON CDMA VSE OVERVIEW ERICSSON CDMA P-MSC AUDIO PROVISIONING SERVER (APS) OVERVIEW AND OPERATIONS ERICSSON CDMA USP OPERATIONS AND MAINTENANCE ERICSSON CDMA SAM21 AND GWC OPERATIONS AND MAINTENANCE ERICSSON CDMA P-MSC MEDIA SERVER 2000S OVERVIEW AND OPERATIONS. 143 ERICSSON INTRODUCTION TO CPI EXTRANET /03819-FAP Uen Rev: A 4

5 ERICSSON EV-DO GLOBAL SYSTEM (EEGS) OVERVIEW ERICSSON EV-DO GLOBAL SYSTEM OPERATIONS AND MAINTENANCE ERICSSON CDMA CCMP8000 OVERVIEW ERICSSON CDMA BTS PORTFOLIO OVERVIEW ERICSSON CDMA 14 CARRIER FEATURE OVERVIEW ERICSSON CDMA CCMP8000 OPERATIONS ERICSSON CDMA RELEASE ACCESS NETWORK DELTA ERICSSON CDMA RELEASE 19 CORE NETWORK DELTA ERICSSON EV-DO GLOBAL SYSTEM DELTA RELEASE ERICSSON CDMA EVRC-NW AND HD VOICE OVERVIEW ERICSSON CDMA KNOWLEDGE ASSESSMENTS /03819-FAP Uen Rev: A 5

6 Intentionally left blank 306/03819-FAP Uen Rev: A 6

7 Introduction Ericsson has developed a comprehensive Training Programs service to satisfy the competence needs of our customers, from exploring new business opportunities to expertise required for operating a network. The Training Programs service is delineated into packages that have been developed to offer clearly defined, yet flexible training to target system and technology areas. Each package is divided into flows, to target specific functional areas within your organization for optimal benefits. Service delivery is supported using various delivery methods including: Icon Delivery Method Instructor Led Training (ILT) LIV Virtual Classroom Training (VCT) elearning (WBL) Workshop (WS) Short Article (SA) Structured Knowledge Transfer (SKT) mlearning Job duty analysis (JDA) Competence GAP Analysis (CGA) 306/03819-FAP Uen Rev: A 7

8 CDMA-LTE Interworking and coexistence LZU R1B Description This course provides a framework for CDMA to LTE interworking in radio network point of view. CDMA engineers could learn LTE concepts with ease through comparison diagrams between CDMA and LTE. Radio issues like interference, antenna Tx/Rx co-existence, and link budget are explained. To consolidate the understanding of the explained topics, RF calculation exercises are explained. The course also provides descriptions of signal-to-noise ratio, power requirements and radio coverage. Learning objectives On completion of this course the participants will be able to: 1 Explain the background and architecture of CDMA Compare common control and overhead channels - CDMA vs 1xEV-DO 1.2 Describe the radio interface techniques used in uplink and downlink 1.3 Describe the channel structure of the radio interface 1.4 Compare 1xRTT and 1xEV-DO coding and modulation for high data rates 2 Describe RF inter-working scenarios 2.1 Highlight the RRM characteristics among CDMA, 1xEV-DO, and LTE 2.2 Explain IRAT session continuity and handover 2.3 Describe Search windows and intersystem synchronization 2.4 Explain Operation of measurements of 1xEV-DO for IRAT purposes 2.5 Describe Ncell planning during mobility 3 Illustrate RF characteristics among CDMA, 1xEV-DO, and LTE 3.1 Describe BTS Tx and Rx performance 3.2 Describe UE Tx and Rx performance 3.3 Explain RF emissions 3.4 Explain Channel Plans 3.5 Compare Synchronization requirements - GPS vs NTP server 3.6 Explain impact of RF hardware characteristics on SISO and MIMO performance including data fill issues 4 Describe Antenna Tx/Rx co-existence and interference 4.1 Review Rx blocking, Tx noise and intermodulation issues 4.2 Explain Inter-band & Inter-technology interference issues including examples from practical experience in different parts of the world

9 4.3 Review various antenna isolation scenarios (Vertical vs Horizontal separation, and X polarization) 4.4 Describe Ancillary combining equipment - filters, combiners & TMAs 4.5 Provide discussion of repeaters at a high level 4.6 Give examples of managing intersystem isolation to maintain performance 4.7 Calculate isolation and filter characteristic requirements 5 Describe Performance Characteristics 5.1 Perform Link Budget comparison 5.2 Discuss the impact of Tx power and SINR in LTE performance and coverage 5.3 Discuss RF cell planning and design aspects for 3GPP2 vs LTE 5.4 Highlight differences in tuning and optimization requirements for 3GPP2 vs LTE Target audience The target audience for this course is: Network Engineer, Service Engineer, Service Design Engineer, and Network Design Engineer. Prerequisites Successful completion of the following courses: A general knowledge in cellular systems and radio technology. Duration and class size The length of the course is 2 days and 0 hours and the maximum number of participants is 8. Learning situation This course is based on both theoretical lessons and practical exercises given in a classroom environment. 306/03819-FAP Uen Rev: A 9

10 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Background and architecture of E-UTRAN and EPC 1 1 RF inter-working scenarios 3 1 RF characteristics of CDMA, 1xEV DO and LTE 2 2 Antenna co-existence and interference 3 2 Performance characteristics 3 306/03819-FAP Uen Rev: A 10

11 CDMA 1xEVDO Operations and Maintenance LZU R4A Description Maintaining and operating 1xEVDO in your CDMA network to achieve efficient service is important. To increase these skills, this course provides intermediate level lecture and hands-on exercises for CDMA 1xEVDO operations and maintenance. Practice interacting with the 1xEVDO software through the Element Manager Server (DO-EMS) is provided. Basic navigation through the 1xEVDO software and performing administrative, maintenance, and provisioning functions from the DO-EMS are covered. Functionality is described at the node level and in relation to the rest of the 1xEVDO, CDMA2000 1X and CDMA systems. A more highly skilled technician and improved operations and maintenance is a result of this course. This course is applicable to the Ericsson CDMA Switch Access Techinician at an intermediate level. Learning objectives On completion of this course the participants will be able to: 1 Explain the course scope and objectives 1.1 Explain the objectives of this course 2 Identify the basic elements of the EVDO network 2.1 Identify basic elements of the EVDO network and their roles in the network 2.2 Identify and define protocol and connection interfaces of the EVDO network 3 Identify the hardware and functions of the DOM and navigate the different modes of the DOM thru CLI 3.1 Identify the DOM hardware 3.2 Identify the LED s on the equipment and recognize their meaning 3.3 Identify the different ways to access the DOM 3.4 Navigate the different modes of the DOM 3.5 Perform a Health check and interpret the output of commands used 3.6 Perform commonly used commands helpful for troubleshooting 4 Identify the hardware and functions of the DO-RNC 8600 / 9000 chassis and navigate their different modes of the DO-RNCs thru CLI 4.1 Identify DO-RNC hardware and it's function 4.2 List the card fill of the DO-RNC chassis 4.3 Identify the differences between the 8600/9000 DO-RNCs 4.4 Identify each of the cards and their function within the DO-RNCs

12 4.5 Navigate the different modes of the RNC 4.6 Identify the basic file structure 4.7 Perform a health check 4.8 View the At A Glance (AAG) CLI command groups 4.9 Identify the output of commonly used commands 4.10 List the benefits of DO-RNC clustering 5 Access the DO-EMS Client (GUI) and EMS-CLI to utilize their features, menus and tools 5.1 Identify the tools and systems available to perform OAM in an EVDO network 5.2 List the functions of the DO-EMS 5.3 Outline the role and capabilities of the DO-EMS in the EVDO network 5.4 Identify the hardware and software components of the DO-EMS 5.5 Work with Menus and Panels 5.6 Access the DO-EMS and navigate thru tree views 5.7 Access the DO-EMS CLI 6 Explain the management and navigation of Network Elements using the DO-EMS Client 6.1 Identify the network element tabs and views 6.2 Navigate the RNC and DOM menus via the GUI 7 Identify, Manage and understand alarms using the Fault Client 7.1 Identify the relationship between SNMP traps, events occurring at the EMS, and alarms displayed in the Fault Client 7.2 List the different severity levels of faults and the color codes that the Fault Client uses to display them 7.3 Determine the status of a device in the EVDO network 7.4 Find information that can help you isolate and resolve the causes of faults 8 Identify, modify and understand naming conventions of existing Policy templates 8.1 Identify default policy templates 8.2 Access the DO-EMS Policy Manager 8.3 Adding and naming Policies 8.4 Schedule Policies 8.5 Maintain Policies 9 Locate and utilize available EMS tools 9.1 Use the documentation to identify the various tools available 9.2 Provide overview of tools 9.3 NE log file conversion 9.4 DO-EMS status script 9.5 Bulk CLI 9.6 DO-EMS data gatherer 9.7 DO-EMS report generator script 9.8 Miscellaneous tools 10 Monitor and Interpret NE logs for data on your network 10.1 Explain the types of 1xEVDO NE logs and their purpose

13 10.2 List the terminology used to describe and configure the NE logging system 10.3 List the severity levels that rank log messages in order of priority 10.4 Interpret the text of a NE log message 10.5 Configure the display and storage of NE log messages 10.6 Understand CellDM 10.7 Track logging sessions 11 Describe the performance measurements for use on your network 11.1 Explain how performance tracking information is captured in an 1xEVDO network 11.2 Explain where to find performance data on the DO-EMS 11.3 Configure the DO-EMS to collect performance data to support an OM 11.4 Locate performance data files on the DO-EMS server Target audience The target audience for this course is: System Technician, Service Technician, Service Engineer, System Administrator, Customer Care Administrator, Field Technician Prerequisites Successful completion of the following courses: CDMA Portfolio overview, LZU CDMA Access Overview, LZU CDMA EBSC Overview, LZU CDMA EBSC Operations and Maintenance, LZU Duration and class size The length of the course is 5 days and 0 hours and the maximum number of participants is 8. Learning situation This course is based on theoretical and practical instructor-led lessons given in both classroom and in a technical environment using equipment and tools, which are accessed remotely.

14 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 EV-DO Network Overview 2 hours 1 DOM Overview and Operations 4 hours 2 DO-RNC Overview and Operations 4 hours 2 DO-EMS Overview and Operations of the EMS GUI and CLI 1 hour 3 DO-EMS Overview and Operations of the EMS GUI and CLI 4 hours 3 Network Element Management 2 hours 4 Network Element Management 3 hours 4 Alarm Management 2 hours 4 Policies 30 minutes 4 Discovery of Networks or NE s 30 minutes 5 EMS Tools 4 hours 5 Network Element Logs 1 hour 5 Performance Measurements 1 hour

15 1XEVDO System Performance and Optimization LZU R2A Description This course is preparing experienced cellular system performance engineers, radio frequency engineers and optimization specialists to transition from IS2000 network responsibilities to 1xEV-DO responsibilities is a key element in optimizing 1xEV-DO system performance. A typical chapter includes a theoretical description of an EVDO Inter-Frequency Hard Handoff, followed by an activity where the students use a captive RF lab and simulator to perform the handoff while actively logging the messaging, etc. Once the activity is complete, it is reviewed with the class using the NEWTUN analysis tool. This training results in a more highly skilled engineer ready to effectively perform 1xEV-DO system performance and optimization activities. Learning objectives On completion of this course the participants will be able to: 1 Understand major differences between deploying EVDO and 1xRTT. 1.1 Understand the impact of overlaying EVDO on existing 1xRTT network. 1.2 Understand major differences between deploying EVDO and 1xRTT. 1.3 Compare packet size, data rates and modulation schemes. 1.4 Identify factors and causes of bottlenecks effecting throughput in EVDO networks. 1.5 Relate RF quality to over-the-air data rates. 1.6 Understand and identify key mobility mechanisms, ie sector switching and soft handoff. 1.7 Basic call processing related to session and connection establish. 2 Explain the key EVDO forward and reverse link RF metrics. 2.1 Understand and relate between forward link metrics such as EC/I, C/I, EB/NO and their impact on data rate and throughput. 2.2 Understand the importance of sector dominance. 2.3 Understand the concept of reverse link power and rate control and related metrics. 3 Describe how to perform datafill. 3.1 Identify the locations of system performance impacting EV-DO datafill. 3.2 Open and navigate within EVDO datafill tools such as CPS, EMS and CLI. 3.3 Perform a data audit from the EMS and import into CPS tool. 4 Define the RNC diagnostic and call analysis logging. 4.1 Describe the architecture and flow of RNC and DOM logging, used in System

16 Performance and Optimization. 4.2 Find reference material in CPIs referring to specific log types and message IDs. 4.3 Explain file storage structure of both RNC and DOM logs and how to set policies for transfer to EMS. 4.4 Define severity levels, fractional logging and identify main differences between diagnostic (debug) logs, call analysis and cell DM logs. 4.5 Use and interpret RNC session track tool and output. 4.6 Identify reason codes used in RNC logs and differentiate between IS-856 standard codes and Nortel proprietary codes. 5 Perform different tasks using NEWTUN application. 5.1 Understand benefits of NEWTUN capabilities. 5.2 Navigate the basic tool structure of NEWTUN. 5.3 Understand the file structure and input log requirements. 6 Explain Key Performance Indicators (KPIs), MIBs and Operational Measurements (OMs). 6.1 Understand industry standard hierarchical structure of MIB (Management Information Base). 6.2 Using the MIB Manager within the EMS, identify Ericsson/Airvana relationship within the MIB structure to locate specific registers (i.e., number of dropped connections, etc.). 6.3 Customize data collection template to gather discrete OMs and locate these files in the EMS file structure. 6.4 Understand the OM demarcation point used to differentiate between session setup connections and subscriber data transfer connections. 7 Describe key facts and factors. 7.1 Understanding neighbor list, search windows and pilot sets. 7.2 Understanding Sector IDs, subnet IDs, UATIs and RATIs in EVDO. 7.3 Understanding the anatomy of failed connection attempt (FCA, dropped connections (DC), EVDO to 1xRTT tune-away and roll down. 7.4 Analyze cell radius tuning and identify PN overshooting. 7.5 Important Air-Interface timers. Target audience The target audience for this course is: Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers. Prerequisites Successful completion of the following courses: CDMA 1xEV-DO features for system performance optimization, LZU

17 The participants should be familiar with system performance and optimization through experience. Duration and class size The length of the course is 4 days and 0 hours and the maximum number of participants is 8. Learning situation This course is instructor-led training with hands-on exercises. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Intro and defining optimization in EVDO 3 hours 1 Key EVDO Forward and Reverse Link RF Metrics 3 hours 30 min 2 EVDO Datafill Overview and Organization 3 hours 2 Tools for System Performance and Optimization 3 hours 3 Tools for System Performance and Optimization 4 hours 30 min 3 RNC Diagnostic and Call Analysis Logging 1 hour 4 Key Performance Indicators, MIBs and Operational Measurements (OMs) 1 hour 4 Key Facts and Factors 3 hours 30 min

18 Core Billing Manager (CBM) for CDMA Networks LZU R3A Description The Core Billing Manager provides a collection of applications that serves as a data collector. This data includes operational measurements, logs and billing records. This course covers the operations, maintenance, administration, and troubleshooting of the CBM in a CDMA network. Personnel will be able to more effectively use CBM after successfully completing this course. Learning objectives On completion of this course the participants will be able to: 1 Describe the purpose of the CBM. 1.1 Describe the purpose of the CBM. 2 Describe the CBM hardware. 2.1 Identify the CBM platform. 2.2 Identify the characteristics and features of the hardware platforms that support CBM. 2.3 Identify the fault tolerant features of the CBM hardware. 2.4 Identify the LAN configurations supported for the CBM. 3 Describe the Core Billing Manager (CBM) software. 3.1 Describe the Server Platform Foundation Software. 3.2 Describe the CBM application software. 4 Perform maintenance and administrative tasks for the CBM. 4.1 Create maintenance and passthru user IDs. 4.2 Busy and offline applications. 4.3 Display the CLLI of the Communication Server. 4.4 Manage software and software patching. 4.5 Describe CBM backup and restore procedures. 4.6 Manage the file system. 4.7 View resources from the SPFS CLI tool. 4.8 Navigate the CBMMTC Interface. 5 Use alarms and logs to troubleshoot problems on the CBM. 5.1 Use alarms to identify CBM faults. 5.2 Use logs to identify CBM faults. 5.3 Describe fault troubleshooting strategy. 6 Describe the purpose, characteristics and tools related to CBM log collection and

19 delivery. 6.1 Identify the purpose of CBM log collection and delivery. 6.2 Identify applications used in log collection and delivery. 6.3 Explain the purpose of the LOGRECEIVER and LOGROUTE tools. 7 Describe the methods of file transfer used by the CBM. 7.1 Describe the FTP proxy application and the transferring of files using FTP. 7.2 Describe the secure shell file transfer protocol (SFTP) and the common commands used with SFTP. 7.3 Identify the types of files that are transferred. 7.4 Understand the security features associated with file transfer. 8 Manage CBM operational measurements. 8.1 Identify the purpose of OM delivery. 8.2 Identify the components of report registration. 8.3 Identify the report registration directory structure. 8.4 Identify the naming convention for report files. 8.5 Configure the OM delivery application. 8.6 Use commands for file management and manual operations. 9 Describe key applications that are supported by the CBM. 9.1 Identify the purpose of the passport log streamer. 9.2 Identify the purpose of the bootp loading service. 9.3 Identify the purpose of the base maintenance interface. 9.4 Identify the purpose of the OSS application and comms service. 10 Describe the billing interfaces used by the CBM Identify the purpose of the CBM billing application Describe the process for backing up billing files Identify the billing application tables Use MAPCI to support SBA operations Use BILLMTC to support SBA operations Identify SBA file types and formats Identify the methods of file transfer. 11 Using the user interfaces, obtain the information that identifies how the CBM and Communication Server have been configured to support the SBA application and billing streams Describe the SBA application configuration process Configure the SBA application on the CBM Configure billing streams on the Core Configure the SBA transfer schedule. 12 Explain how you can search and view billing records Identify the fields that make up a billing file name State the purpose of the MTXSRCH tool Identify the functions available in the MTXSEARCH tool Use the filter table. 13 Analyze billing faults on the CBM.

20 13.1 Identify SBA modes of operation Identify SBA faults indicators Identify fault scenarios View SBA alarms and logs View the SBA application status. Target audience The target audience for this course is: System Technician, Service Technician, System Engineer, Service Engineer, System Administrator, Field Technician. Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Core Network Overview LZU , Ericsson CDMA PMSC CBM Overview The participants should be familiar with P-MSC. Duration and class size The length of the course is 2 days and 0 hours and the maximum number of participants is 8. Learning situation This course is based on theoretical and practical instructor-led lessons given in both classroom and in a technical environment using equipment and tools, which are accessed remotely.

21 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Introduction 30 min 1 CBM Purpose 1 hour 1 CBM Hardware 30 min 1 CBM Software 30 min 1 CBM Maintenance and Administration 1.5 hours 1 CBM Fault Management 1 hour 1 CBM High Speed Logs 30 min 1 CBM File Transfer 30 min 2 CBM Operational Measurements 1 hour 2 CBM Applications 30 min 2 CBM Billing Interface 1 hour 2 CBM Configuration 1 hour 2 CBM Billing Records 30 min 2 CBM Fault Analysis 1 hour 30 min

22 CDMA P-MSC Basic Operations LZU R5A Description P-MSC operations skills are essential for the management of the components within the P- MSC. This course introduces the interfaces, resources and procedures related to basic operations for many of the P-MSC components. Various network management user interfaces used in P-MSC components, fault management concepts, and fault identification for many of the components in the P-MSC are covered. This is an entry level course for individuals not familiar with the interfaces and fault information related to the P-MSC. Key topics include P-MSC Network Management user interfaces and fault identification. This course is focused on activities performed by the CDMA Switch Core Technicians and Network Operations. Learning objectives On completion of this course the participants will be able to: 1 Explain course content and objectives. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Identify the architecture, components and management of the P-MSC. 2.1 Identify the components of the P-MSC and their functions. 2.2 Identify the strategies and components used to manage the P-MSC. 2.3 Describe the configurations used in P-MSC. 3 Use the Ericsson PPX and MGW management interfaces for fault management purposes in the P-MSC. 3.1 Identify the hardware characteristics of the Ericsson PPX and Media Gateway (MGW) as related to faults and fault management. 3.2 Using the Ericsson Multiservice Data Manager commands and tools supported in the CNM, perform fault management functions. 3.3 Using the Ericsson PPX command line interface (CLI), perform fault management functions. 4 Use the Versatile Service Engine (VSE) management interfaces for fault management purposes in the P-MSC. 4.1 Identify the hardware characteristics of the Versatile Service Engine (VSE) as related to faults and fault management. This includes 12U, 13U, blade and shelf

23 configurations. 4.2 Using the Versatile Service Engine (VSE) command line interface (CLI), perform fault management functions. 4.3 Using the Versatile Service Engine (VSE) Command Interpreter (CI), perform fault management functions. 4.4 Using the Versatile Service Engine (VSE) Maintenance and Administration Position Command Interpreter (MAPCI), perform fault management functions. 4.5 Describe the VSE GWC-specific user interfaces that are used to perform fault management functions. 5 Use the CS Management Tools (CMT) for fault management purposes in the P- MSC. 5.1 Identify where the CS Management Tools (CMT) software resides. 5.2 Use the CS Management Tools (CMT) interface to perform functions related to fault management. 6 Use the Core and Billing Manager (CBM) interfaces for fault management purposes in the P-MSC. 6.1 Identify the hardware used for the Core Billing Manager. 6.2 Describe characteristics and functions of the alarms, logs and commands of the CBMMTC to perform functions related to fault management. 6.3 Describe the Core Billing Manager (CBM) Billing Tool (BILLMTC) to perform functions related to fault management. 7 Use the interfaces related to the Ethernet Routing Switch 8600s for fault management purposes in the P-MSC. 7.1 Identify the hardware characteristics of the Ethernet Routing Switch 8600 related to faults and fault management. 7.2 Using the Ethernet Routing Switch 8600 interfaces, perform fault management functions. 8 Use the interfaces related to the SmartEdge 1200 for fault management purposes in the P-MSC. 8.1 Identify the hardware characteristics of the SmartEdge 1200 related to faults and fault management. 8.2 Using the SmartEdge 1200 user interfaces, perform fault management functions. 9 Describe the Media Server and Media Resource Function (MS/MRF) and its interfaces. 9.1 Identify the audio components of the P-MSC and their functions. 9.2 Identify the hardware characteristics of the Media Server and Media Resource Function (MS/MRF) related to faults and fault management. 9.3 Describe the functions and use of the Announcement File Converter (AFC). 10 Use the CDMA Network Manager (CNM) for fault management purposes in the P- MSC Identify the hardware of the CDMA Network Manager (CNM) Describe the characteristics and functions of the CDMA Network Manager (CDMA) Log into and out of the CDMA Network Manager (CNM).

24 10.4 Use the Component Manager (CM) Using the CDMA Network Manager (CNM), perform fault management functions. Target audience The target audience for this course is: System Technician, Service Technician, Field Technician Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Core Network Overview LZU , Ericsson CDMA VSE Overview LZU , Ericsson CDMA CNM Overview LZU , Ericsson CDMA CNM Common Web Desktop (CWD) Overview, if applicable to your P-MSC CNM platform LZU , Ericsson CDMA ERS 8600 Overview, if applicable to your P-MSC LZU , Ericsson CDMA SE1200 Overview, if applicable to your P-MSC LZU , Ericsson CDMA PMSC CBM Overview LZU , Ericsson CDMA Media Gateway (MGW) Overview LZU , Ericsson CDMA MS/MRF & AFC Overview Duration and class size The length of the course is 4 days and 0 hours and the maximum number of participants is 8. Learning situation This course is instructor-led training with hands-on exercises.

25 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 P-MSC Review 3 hours 1 Use Ericsson PPX and MGW-related Interfaces for Fault Management 2 Use Ericsson PPX and MGW-related Interfaces for Fault Management 3 hours 1 hour 2 Use VSE User Interfaces for Fault Management 3 hours 15 min 2 Use CS Management Tools (CMT) for Fault Management 1 hour 30 min 2 Use Core Billing Manager (CBM) for Fault Management 0 hours 15 min 3 Use Core Billing Manager (CBM) for Fault Management 2 hours 45 min 3 Use Ethernet Routing Switch 8600 Interfaces for Fault Management 3 Use Ethernet Routing Switch 8600 Interfaces for Fault Management 0 hour 15 min 1 hour 30 min 3 Use SmartEdge 1200 Interfaces for Fault Management 1 hour 30 min 4 Use Media Server and Media Resource Function (MS/MRF) User Interfaces 1 hour 4 Use CDMA Network Manager (CNM) for Fault Management 2 hours

26 CDMA P-MSC Testing and Troubleshooting LZU R4A Description Raising the skill level of technicians and engineers promotes network stability and efficiency. This course instructs participants in how to perform testing and troubleshooting within P-MSC and its components. Key topics include backups and restores, various types of testing including component and communications tests, basic troubleshooting, and troubleshooting within the P-MSC. This course is designed for CDMA Switch Core Technicians and Network Operations. Learning objectives On completion of this course the participants will be able to: 1 Explain the course content and objectives. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Identify the architecture, components and management of the P-MSC. 2.1 Identify the components of the P-MSC and their functions. 2.2 Identify the strategies and components used to manage the P-MSC. 2.3 Describe the configurations used in P-MSC. 3 Identify backup and restore procedures for components within the P-MSC. 3.1 Define backups and restores. 3.2 Describe SAM21-based Gateway Controller (GWC) backup and restore procedures. 3.3 Describe Versatile Service Engine (VSE) backup and restore procedures. 3.4 Describe Media Gateways (MGW) backup and restore procedures. 3.5 Describe Core Billing Manager (CBM) backup and restore procedures. 4 Describe CNM backups. 4.1 Describe the basic characteristics of backup and restore operations for the CDMA Network Manager (CNM). 4.2 List the basic types of backups for the CDMA Network Manager (CNM). 4.3 Describe CNM backups and restores. 4.4 Identify information related to troubleshooting failed CNM backups. 5 Perform backups for P-MSC components using the CNM Centralized Network Element (NE) Backup tool. 5.1 Describe the characteristics and functions of the CNM Centralized Network Element

27 (NE) Backup tool. 5.2 Perform NE backups from the CNM Centralized Network Element Backup tool. Doing this includes access to the tool, use of the commands and use of the troubleshooter window if a backup encounters problems. 6 Describe P-MSC-related testing strategies, test types and methodologies. 6.1 Identify the testing types, methods and related strategies used for testing the P-MSC and its related components. 6.2 Describe the OSI Model and how it can be used in testing and troubleshooting. 7 Use the ping and traceroute tools to verify communication between P-MSC components. 7.1 Use ping to verify communication between P-MSC components. 7.2 Use traceroute to verify communication between P-MSC components. 8 Use the PMSC Trace tool. 8.1 Describe the characteristics, functions and use of the PMSC Trace tool. 8.2 Manage traces on a component in the P-MSC by using the PMSC Trace tool. 9 Use the NE IP Connectivity Application tool. 9.1 Describe the purposes, characteristics and functions of the NE IP Connectivity Application. 9.2 Identify the phases and steps used with the NE IP Connectivity Application. 9.3 Describe NE IP Connectivity Application reports and report file name formats. 10 Perform tests on the Services Application Module (21 card slots) (SAM21), SAM21 GWCs and VSE GWCs Perform GWC trunk data integrity audits Perform CCMT data integrity audits Perform GWC hardware diagnostics. 11 Explain the functions and use of the Audio Capture Tool (ACT) and the Bearer Call Trace (BCT) Describe the characteristics and functions of the Audio Capture Tool (ACT) and the Bearer Call Trace (BCT) tool Explain how Audio Capture Tool (ACT) is used Identify administrative tasks related to the Audio Capture Tool (ACT) Explain how Bearer Call Trace (BCT) is used. 12 Perform disk and blade testing on the VSE Perform blade tests on the Versatile Service Engine (VSE) Perform disk tests on the VSE. 13 Perform trunk testing in the P-MSC Identify the test types that can be used for trunk testing in the P-MSC Perform trunk testing within the P-MSC. 14 Perform selected tests on various components within the P-MSC. These tests include but are not limited to MTXTRACK, ASUTRACK, Query Mobile (QMOB) and REX testing Perform MTXTRACK tests for the P-MSC.

28 14.2 Describe ASUTrack tests for the P-MSC Perform TRAVER tests in the P-MSC Describe the use of Query Mobile (QMOB) in the P-MSC Describe the use of SHOWAUD in the P-MSC Perform SCANLOG in the P-MSC Perform Mobile Telephone Exchange alarms (MTXALM) in the P-MSC Perform REX tests on components that are in the P-MSC Describe the procedures to gather DEBUG information for the CBM. 15 Troubleshoot problems in P-MSC components using operational measurements (OM) Describe how operational measurements (OM) are handled and viewed in selected P-MSC components Explain how OMs can be used to troubleshoot problems in the P-MSC. 16 Describe the network troubleshooting approach that can be used as an aid for network fault resolution Describe the network troubleshooting approach that can be used as an aid for network fault resolution. 17 Given a series of scenarios, troubleshoot problems in the P-MSC Given a series of scenarios, troubleshoot problems within the P-MSC. Target audience The target audience for this course is: System Technician, Service Technician, Service Deployment Engineer, Service Engineer, Field Technician Prerequisites Successful completion of the following courses: CDMA P-MSC Basic Operations, LZU and its prerequisites CDMA VSE Operations and Maintenance, LZU Duration and class size The length of the course is 5 days and 0 hours and the maximum number of participants is 8. Learning situation This course is instructor-led training with hands-on exercises.

29 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 P-MSC Review 2 hours 30 min 1 Backups and Restores for P-MSC Components 45 min 1 CNM Backups and Restores 45 min 1 CNM Centralized Network Element Backups 1 hour 1 P-MSC Testing Strategies and Concepts 30 min 1 The Use of Ping and Traceroute 30 min 2 PMSC Trace Tool 45 min 2 NE IP Connectivity Application 1 hour 2 Testing the SAM21s and GWCs 30 min 2 Audio Capture Tool (ACT) and Bearer Call Trace (BCT) 1 hour 2 Testing the VSE 30 min 2 Trunk Testing within the P-MSC 30 min 2 Additional Test Tools and Testing Functions for P-MSC 1 hour 45 min 3 P-MSC OMs and Troubleshooting 1 hour 30 min 3 Troubleshooting Process 30 min 3 Troubleshooting Exercises 4 hours 4 Troubleshooting Exercises 6 hours 5 Troubleshooting Exercises 6 hours

30 CDMA ERS8600 for Wireless Networks LZU R2A Description In order to route all voice and data packets through the CDMA network, the Access and Core technicians need to develop their skills working with the Ethernet routing equipment. This course provides the skills and knowledge to operate and maintain the Ethernet Routing Switch 8600 (ERS8600) for CDMA wireless networks. To reinforce learning, the participant will perform hands-on exercises. Learning objectives On completion of this course the participants will be able to: 1 Describe the ERS8600 hardware. 1.1 Explain the hardware characteristics of the ERS Identify ERS8600 configurations. 1.3 Describe the characteristics of the modules, cabling, and chassis for ERS Use the ERS8600 user interfaces: command line interface (CLI), Web Manager and Device Manager. 2.1 Identify the three user interfaces for ERS Describe how to use each of the ERS8600 user interfaces. 2.3 Find port status using each ERS8600 user interfaces. 3 Implement VLAN and OSPF configurations. 3.1 Describe ERS8600 VLANs for Wireless Networks and how to find VLAN configuration information stored in the ERS Describe OSPF, its parameters on ERS8600 and how to find OSPF configuration information stored on the ERS Monitor the ERS8600 using the Trace tool. 4 Perform MLT and VRRP configurations. 4.1 Describe ERS8600 MLTs for Wireless Networks and how to find MLT configuration information stored on the ERS Describe ERS8600 VRRPs for Wireless Networks and how to find VRRP configuration information stored on the ERS Perform network troubleshooting 5.1 Identify the OSI layers, their functions and how Layers 1-3 can be used to support network fault analysis. 5.2 Use the Ping and Traceroute tools to verify communication between components in the network.

31 5.3 Use the Network Troubleshooting approach as an aid for network fault resolution. Target audience The target audience for this course is: System Technicians, Service Technicians, System Engineers, Service Engineers, Field Technicians, CDMA Switch Access Technicians and the CDMA Switch Core Technicians. Prerequisites Successful completion of the following courses: This course is found in two curriculum paths: For the CDMA Switch Access Technician: the participant must successfully complete the following courses: CDMA product overview, LZU CDMA EBSC operations and maintenance, LZU CDMA 1xEV-DO operations and maintenance, LZU For the CDMA Switch Core Technician: the participant must successfully complete the following courses: CDMA Product Overview, LZU CDMA P-MSC Overview, LZU CDMA P-MSC Basic Operations, LZU These courses are mandatory prerequisites. All students should take them unless they have extensive work experience with the topics and interfaces listed in the learning objectives. Duration and class size The length of the course is 3 days and 0 hours and the maximum number of participants is 8. Learning situation This course is instructor-led training with hands-on exercises.

32 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 ERS800 Hardware 2 hours 1 ERS8600 User Interface 4 hours 2 ERS8600 User Interface 4 hours 2 VLAN and OSPF Configuration 2 hours 3 MLT and VRRP Configuration 2 hours 3 Introduction to Network Troubleshooting 4 hours

33 CDMA VSE Operations and Maintenance LZU R5A Description The P-MSC uses the Versatile Service Engine (VSE) as the MSC Server platform. This course provides the knowledge needed to operate and maintain the VSEs serving as MSC Servers and VSE GWCs, thereby building skills or upgrading skills to keep up with the market. A look at the various VSE user interfaces and how to use them to perform operational and maintenance activities are a part of this course. In addition, management functions such as system recovery, managing files, volumes and software images, and managing DCAs, NSAs, ISAs and SSGs are also included. This course supports CDMA Core Networks and is designed for CDMA Switch Core Technicians and Network Operations. Learning objectives On completion of this course the participants will be able to: 1 Explain the course content and objectives. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Identify the architecture, components and management of the P-MSC. 2.1 Identify the components of the P-MSC and their functions. 2.2 Identify the strategies and components used to manage the P-MSC. 2.3 Describe the configurations used in P-MSC. 3 Describe the MSC Server and VSE GWC hardware. 3.1 Describe the characteristics and functions of the MSC Servers and Versatile Service Engine (VSE) Gateway Controllers (GWC). 3.2 Describe the characteristics of the 12U and 13U VSE frames and shelves. 3.3 Identify the hardware components that are specific to the 12U VSE frame. 3.4 Identify the hardware components that are specific to the 13U VSE frame. 3.5 Identify the P-MSC VSE blade types and their functions. 3.6 Describe the frame and shelf configurations used for the VSEs. 4 Use the Versatile Service Engine (VSE) command line interface (CLI) to perform operations and maintenance activities on the VSE. 4.1 Identify how to access the VSE command line interface (CLI).

34 4.2 Identify the purpose and use of the VSE CLI commands. 4.3 Based upon a series of questions, use the appropriate VSE command line interface (CLI) commands to obtain the information. 5 Manage VSE storage devices and files by using VSE storage device utility commands. 5.1 Identify storage device utility commands used to manage the Versatile Service Engine (VSE) storage devices and files. 5.2 Use the correct commands and command syntax for given VSE storage device scenarios. 6 Manage faults in the VSE. 6.1 Describe the concepts, mechanisms and key elements used in the fault management of the Versatile Service Engine (VSE). 6.2 Identify the structure of the VSE alarms. 6.3 Identify the appropriate CLI commands used to perform specific fault management functions. 6.4 Describe VSE GWC fault management and maintenance. 7 Manage the VSE office images. 7.1 Identify command line interface (CLI) commands used to manage Versatile Service Engine (VSE) images. 7.2 Describe manual and automatic backups for the VSE. 7.3 Describe what an Image Table of Contents (ITOC) is and how it is used by the system. 7.4 Identify commands that you can use on the bootfiles and what these commands do. 8 Manage the Distributed Call Agents (DCA), NOIS Signaling Agents (NSA) and the IOS Signaling Agents (ISA). 8.1 Describe the purpose, characteristics and functions of the Distributed Call Agents (DCA), IP2BSC NOIS Signaling Agents (NSA) and IP2BSC IOS Signaling Agents (ISA). 8.2 Identify general operational, administration, maintenance and provisioning characteristics related to the DCAs, NSAs and ISAs. 8.3 Describe operational commands that are used for the DCAs, NSAs and ISAs. 8.4 Explain commands introduced to support Multi-BSC NSAs. 9 Manage the SIGTRAN Services Gateway (SSG) in the VSE system. 9.1 Explain SS7 basic concepts. 9.2 Describe the purposes, characteristics and hardware components of the SIGTRAN Services Gateway (SSG) in the MSC Server. 9.3 Identify the command line interface (CLI) and MAPCI functions used to support the SSG. 10 Perform steps related to system recovery Identify the characteristics, functions and effects of the three types of restarts for the MSC Server 2000/ Describe the characteristics, functions and effects of the Call Agent boot on the MSC Server 2000/3000.

35 10.3 Identify resources for disaster recovery. 11 Perform log management functions using LOGUTIL Describe how to manage logs using LOGUTIL Use LOGUTIL to manage logs. This includes identifying problems, browsing log buffers, routing logs permanently and temporarily and interrogating the routing of the logs. 12 Use Device Independent Recording Package (DIRP) and related functions to support VSE operations and maintenance Describe characteristics and commands related to the Versatile Service Engine (VSE) Device Independent Recording Package (DIRP) Describe the use of Disk Log (DLOG). 13 Use the Store File Editor Using the Store File Editor, create short commands Using the Store File Editor, create new files Using the Store File Editor, capture information into files for later use. Target audience The target audience for this course is: System Technician, Service Technician, Field Technician Prerequisites Successful completion of the following courses: LZU , CDMA P-MSC Basic Operations and its pre-requisites Duration and class size The length of the course is 5 days and 0 hours and the maximum number of participants is 8. Learning situation This course is instructor-led training with hands-on exercises.

36 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 P-MSC Review 1 hour 1 P-MSC VSE Hardware 2 hours 15 min 1 Use the VSE Command Line Interface (CLI) 2 hours 45 min 2 Use the VSE Command Line Interface (CLI) 6 hours 3 Use the VSE Command Line Interface (CLI) 45 min 3 VSE Storage Device Utilities 2 hours 3 Managing Faults on the VSE 2 hours 3 Managing VSE Office Images 1 hour 15 min 4 Managing VSE Office Images 45 min 4 Distributed Call Agents (DCA) and NOIS and IOS IP2BSC 1 hour 30 min 4 SIGTRAN Services Gateway (SSG) 1 hour 30 min 4 System Recovery 1 hour 4 Logutil 1 hour 15 min 5 Logutil 2 hours 5 Using Device Independent Recording Package (DIRP) 2 hours 5 Using the Store File Editor 2 hours

37 CDMA TrFO2 Operations LZU R3A Description This course provides the knowledge and skills required to configure and maintain transcoder free operation services on a CDMA network. Students will perform hands-on activities to reinforce TrFO2 concepts, including identification of the required network elements to support TrFO2, as well as configuring and analyzing performance and capacity OMs. Learning objectives On completion of this course the participants will be able to: 1 Describe the contents of this course. 1.1 Describe the features called Network Operation Interface Specification (NOIS) TrFO2 and IOS TrFO. 2 Describe the TrFO2 and IOS TrFO features. Include characteristics, functions, and benefits, and components. 2.1 Describe the following areas related to the End-to-End All-IP Voice TrFO2 and IOS TrFO: 2.2 TrFO2 components and architecture. 2.3 TrFO2 capabilities and supported coecs. 2.4 MSC packet evolution for TrFO2. 3 Describe key call flows related to TrFO2 and IOS TrFO. 3.1 Describe what ephemerals are and how they are used. 3.2 Explain the primary steps for the TrFO2 mobile origination and termination. 3.3 Describe the TrFO2 bearer path update. 4 Describe the Media Servers required with TrFO Describe the characteristics, functions, and benefits of the Media Server 2030s (MS2030). 4.2 Identify the following for the Media Server 2030s (MS2030): 4.3 Hardware description. 4.4 MS2030 reliability. 4.5 Operations, administration, maintenance and provisioning (OAM&P) considerations. 4.6 Co-existence of the MS2030 and MS Describe the characteristics, functions, and benefits of the MS/MRF. 5 Describe the TrFO2 and IOS TrFO hardware engineering considerations.

38 5.1 Describe the impacts of TrFO2 NOIS and IOS TrFO to hardware engineering. 6 Identify the primary activities related to upgrades to support TrFO2 NOIS and IOS TrFO configurations. 6.1 Identify the primary activities related to upgrades to support TrFO2 NOIS and IOS TrFO for the following scenarios: 6.2 Circuit (concurrent packet)-to-trfo2 Migration 6.3 Packet-to-TrFO2 Migration 6.4 Capacity Expansion 6.5 Packet migration. 7 Identify the key activities related to configuration to support TrFO2 and IOS TrFO. 7.1 Identify the nodes that need to be configured to provide TrFO2 services. 7.2 Describe how to configure MS2030 for TrFO Describe how to configure Media Gatweway for TrFO Describe how to configure P-MSC Core for TrFO Describe how to configure EBSC for TrFO2. 8 Identify the impacts of TrFO2 NOIS and IOS TrFO to fault management activities and information. 8.1 Identify the impacts of TrFO2 NOIS and IOS TrFO to fault management activities and information. Include the following areas: 8.2 New MAPCI commands for Quality of Service Collector Application (QCA). 8.3 Call Summary Log Phase 2 (CSL2) for TrFO TrFO2-related logs and alarms. 9 Identify the impacts of TrFO2 NOIS and IOS TrFO to maintenance activities and information. 9.1 Identify the impacts of TrFO2 NOIS and IOS TrFO to maintenance activities and information for the following areas: 9.2 Media gateways (MGWs). 9.3 Maintenance functions for EBSC 4pGE cards. 10 Identify the impacts of TrFO2 NOIS and IOS TrFO to troubleshooting activities and information Identify the impacts of TrFO2 NOIS and IOS TrFO to troubleshooting activities and information. Impacts include the following areas: 10.2 End-to-end (E2E) A2P connectivity tests Using Call Summary Log Phase 2 (CSL2) error information for TrFO CDMA Element Management System (C-EMS): Query Call Tool Enhanced Base Station Controller (EBSC) Diagnostic Monitor Interface (DMI) Tool Additional new and modified tools for TrFO2. 11 Identify the TrFO2 to OMs, IP addressing and VLAN requirements Identify engineering impacts to support TrFO2 NOIS and IOS TrFO for the following areas: 11.2 monitoring performance with operational measurements (OMs) TrFO2 changes to the PMSC/EBSC IP addressing and VLAN requirements.

39 Target audience The target audience for this course is: Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, Field Technician Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA P-MSC Overview, LZU CDMA P-MSC Operations, LZU Duration and class size The length of the course is 3 days and 0 hours and the maximum number of participants is 8. Learning situation This course is based on theoretical and practical instructor-led lessons given in both classroom and in a technical environment using equipment and tools, which are accessed remotely.

40 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 TrFO2 and IOS TrFO overview 1 hour 1 P-MSC TrFO2 and IOS TrFO-related call flows 15 minutes 1 Media Server 15 minutes 1 Hardware engineering 30 minutes 1 TrFO2 upgrades 30 minutes 1 TrFO2 configurations 30 minutes 1 TrFO2 fault management 30 minutes 1 TrFO2 maintenance 1 hour 1 TrFO2 troubleshooting 1 hour 1 TrFO2 OMs, IP addressing and VLAN requirements 30 minutes 2 TrFO2 Lab activities 6 hours 3 TrFO2 Lab activities 6 hours

41 CDMA Media Gateway (MGW) Operations and Maintenance LZU R4A Description This course provides an introduction to the configuration, operations, and maintenance of the Ericsson PPX platform functioning as a Media Gateway (MGW) in the CDMA networks. The PPX hardware architecture, CAS command line interface, fault management concepts, and platform management basics are included in this course. This is an entry level course for individuals new to the Media Gateway platform. This course is designed for CDMA Switch Core Technicians. Learning objectives On completion of this course the participants will be able to: 1 Explain course content and objectives. 2 Describe the Ericsson PPX hardware. 2.1 Recognize the cabinet, power supply, cooling unit and node assembly for the Ericsson PPX Describe which processor cards are supported on the Ericsson PPX and how to interpret faceplate LEDs. 2.3 Identify the two new applications that require the use of the NTHW26CG Voice Services Processor (VSP) cards. 3 Execute basic commands related to Ericsson PPX operational tasks. 3.1 Explain how to open a session with a Ericsson PPX Describe the CAS architecture. 3.3 Use some basic Ericsson PPX commands. 4 Explain the concepts and tasks related to Ericsson PPX software management. 4.1 Expalin the software architecture in the Ericsson PPX Download software from an SDS. 4.3 Describe the File System of the Ericsson PPX node. 4.4 Explain disk cleaning. 4.5 Synchronize the two Ericsson PPX hard disks. 5 Perform Ericsson PPX software provisioning activities. 5.1 Identify the different types of views on a Ericsson PPX Perform tasks using the provisioning mode. 5.3 Transfer a provisioning view to another node.

42 6 Perform Ericsson PPX virtual router configuration. 6.1 Describe the Ericsson PPX Virtual Router. 6.2 Implement the virtual router in the Ericsson PPX Explain the provisioning of the H.248 service and MGW 2pVSP4e cards. 7.1 Describe the provisioning of the H.248 service. 7.2 Describe the provisioning of the MGW 2pVSP4e cards. 8 Perform basic Ericsson PPX monitoring. 8.1 Explain alarms and fault management. 8.2 Explain how to perform disk usage and file system attributes maintenance and monitoring. 8.3 Explain the data collection system monitoring. 8.4 Identify maintenance considerations for the High Density Configuration for CDMA MGW. 9 Test the Media Gateway and its subcomponents. 9.1 Identify the types of testing that can be performed on the Media Gateway (MGW). 9.2 Perform tests on the Media Gateway (MGW) hardware. This includes using the steps to execute the MGW tests and the interpretation of the results. 10 Explain basic MGW trunk provisioning Describe general concepts related to MGW trunk provisioning Explain the actions and information you need in order to correctly provision MGW trunks Identify the trunk tables that must be datafilled on the MSC Server Explain how to return the trunk to service using MAPCI and TMM. 11 Describe the TrFO2 feature and MGW provisioning to support it Describe the basic characteristics and functions of the Network Operation Interface Specification (NOIS) and IOS TrFO and the basic MGW components related to them Describe what ephemerals are and how they are used Explain the primary steps for TrFO2 mobile origination and mobile termination calls Describe basic Ericsson PPX provisioning required to support TrFO2. 12 Describe the Media Server and Media Resource Function (MS/MRF). Target audience The target audience for this course is: System Technician, Service Technician, Field Technician Prerequisites Successful completion of the following courses: The participants should be familiar with P-MSC Operations or the MGW through successful completion of the following courses: LZU , CDMA P-MSC Basic Operations and its pre-requisites

43 Duration and class size The length of the course is 5 days and 0 hours and the maximum number of participants is 8. Learning situation This course is instructor-led training with hands-on exercises. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 PPX Hardware Description 2 hours 30 min 1 PPX Operation 3 hours 30 min 2 PPX Software Management 3 hours 2 PPX Software Provisioning 3 hours 3 PPX Virtual Router Configuration 2 hours 3 Provisioning H.248 Service 3 hours 3 Basic PPX Monitoring 1 hour 4 Basic PPX Monitoring 1 hour 4 Testing the Media Gateway 2 hours 4 Basic MGW Trunk Provisioning 3 hours 5 Basic MGW Trunk Provisioning 2 hours 45 min 5 TrFO2 Overview 2 hours 45 min 5 Media Server and Media Resource Function (MS/MRF) 0 hour 30 min

44 CDMA Server Administration LZU R5A Description This course provides intermediate level lecture and hands-on exercises for CDMA server administration. Based on CSP (BSSM and C-EMS), MDM, MDP, DO-EMS and EV-DO C- EMS platforms, this course provides students with hardware, software and platform concepts and skills to perform routine system, user, LAN and security administration tasks and regular system maintenance. Technicians and administrators who need the skills to configure, perform administrative functions, and maintain the hardware and platform for the CSP (BSSM and C-EMS), MDM, DO-EMS and EV-DO C-EMS are primarely targeted. The CDMA Switch Access Technician is most likely the one to benefit from the course. Learning objectives On completion of this course the participants will be able to: 1 Explain the scope of this course 1.1 Define th escope of the course. 1.2 Describe the objectives of this course. 2 Identify the different hardware related to each platform used. 2.1 Identify the different servers used for the CDMA Server Platform (CSP). 2.2 Describe the Sun Netra-1280 server hardware components, Sun StoreEdge 3320 disk array, and SunBlade 150 desktop in a CSP deployment. 2.3 Describe the Sun Netra-440 server hardware components. 2.4 Explain the CCMP6000 server hardware components. 2.5 Describe the CCMP6000 server in the CSP deployment options. 2.6 Explain the Netra1280/440 phase out plan. 2.7 Explain the CCMP8000 server hardware components. 2.8 Describe the NASS2424 backup solution hardware. 3 Describe the connectivity involved for the different platforms. 3.1 Identify the Netra-1280 connectivity involved in the CSP deployment. 3.2 Describe the Netra-440 connectivity for CSP deployment. 3.3 Explain the CCMP6000 connectivity for CSP deployment. 3.4 Describe the CCMP6000 deployment IP plan requirements. 3.5 Define the CCMP8000 connectivity. 3.6 ibe the NASS2424 backup solution connectivity. 3.7 Explain the CSP over Ethernet connectivity. 3.8 Describe the security enhancements.

45 3.9 Explain the NetRx deployment. 4 Perform UNIX user administration and maintenance tasks. 4.1 Describe the different directories involved in the security administration. 4.2 Use specific UNIX commands for LAN Administration. 4.3 Explain the use of Run Levels in system and preventive maintenance. 5 Explain the different interfaces used to perform BSSM and other related tasks. 5.1 Activate and utilize the bsmcontrol software GUI to configure, maintain, and monitor the Base Station Subsystem Manager (BSSM). 5.2 Explain the configuration files associated with the BSSM and the commands for its maintenance. 5.3 Explain the use of cron tools and cron commands. 5.4 Locate the types of patching available for the CSP and the NBSS and identify the tools available to patch. 6 Describe the tasks involved in user administration and security. 6.1 Identify the basic concepts of CSP User Administration and Security. 6.2 Explain how users are managed in the CSP EMS user management and security model. 6.3 Explain how security settings are administered on a CSP. 6.4 Explain how Security Logging, Monitoring and Reporting is performed on the users on the CSP. 6.5 Explain the tasks of Security Data Backup and Data Synchronization between the Active and Standby CSP. 7 Perform CSP maintenance activities. 7.1 Demonstrate the functions of the C-EMS Server Control window. 7.2 Summarize the different types of CSP maintenance activities. 7.3 Identify the CSP file systems and disk partitions. 7.4 Explain the different ways to backup and restores the CSP databases on a Ntra- 1280/440: C-EMS, BSSM and Security. 7.5 Explain the Full System Backup and Restore of the CSP on a Netra-1280/ Describe the Backup and Restore functionality for a CMP6000 platform. 7.7 Describe the Backup functionality for a CCMP8000 platform. 8 Perform system administration of the MDM and MDP platforms. 8.1 Identify the components associated with MDM. 8.2 Explain the MDM System Administration tasks. 8.3 Explain the MDM System Administration Tool. 8.4 Explain the role and use of HGDS in MDM System Administration (FMDR, GMDR). 8.5 Explain the patch naming convention used for the EBSC. 8.6 Illustrate the functions and use of the MDP. 9 Perform DO-EMS system administration and maintenance. 9.1 List the common DO-EMS administrator tasks and the resources used to perform those tasks. 9.2 Explain the role of the administrator in regards to configuration, configuration files and the difference between redundant and stand alone.

46 9.3 Identify the tasks performed to administer user accounts. 9.4 Describe the DO-EMS Security Administration policies. 9.5 Describe the DO-EMS Backup and Restore Procedure. 10 Perform EV-DO C-EMS system administration and maintenance Give an overview of the Ericsson EV-DO Global System (EEGS) List the components involved in the EV-DO C-EMS Describe the C-EMS Application Desktop (CAD) environment Explain how to perform Server administration Describe how to manage user accounts Explain how security management is performed Describe the different useful logs used in server administration Enumerate the different tools available for server troubleshooting. Target audience The target audience for this course is: System Technician, Field Technician, System Administrator, Network Deployment Engineer Prerequisites Successful completion of the following courses: LZU CDMA Portfolio Overview LZU CDMA Access Network Overview LZU CDMA EBSC Overview LZU CDMA EBSC Operations and Maintenance LZU CDMA 1xEV-DO Operations and Maintenance LZU Ericsson EV-DO Global System Overview LZU Ericsson EV-DO Global System Operations & Maintenance LZU Converged Carrier Management Platform 6000 (CCMP6000) Technical Support The participants should be familiar with basic UNIX commands. Duration and class size The length of the course is 5 days and 0 hours and the maximum number of participants is 8. Learning situation This course is based on theoretical and practical instructor-led lessons given in both classroom and in a technical environment using equipment and tools, which are accessed remotely.

47 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Server Hardware overview 4 hours 1 Connectivity 2 hours 2 UNIX 2 hours 2 Applications softwares 2 hours 2 User administration and security 2 hours 3 User administration and security 4 hours 3 Server applications maintenance 2 hours 4 Server applications maintenance 4 hours 4 Multiservice Data Manager (MDM) administration 2 hours 5 Multiservice Data Manager (MDM) administration 2 hours 5 1xEV-DO Element Management System (DO-EMS) administration 2 hours 5 Ericsson EV-DO Global System server (EVDO C-EMS) 2 hours

48 Converged Carrier Management Platform 6000 (CCMP6000) Technical Support LZU R2A Description This course provides an overview of the CCMP 6000 platform and includes practical platform trouble shooting exercises. It describes the purpose, benefits and features introduced in the Converged Carrier Management Platform 6000 (CCMP 6000). Learning objectives On completion of this course the participants will be able to: 1 Identify the hardware and software components associated with this platform. 1.1 Describe the benefits of using CCMP6K. 1.2 Identify the hardware components associated with this platform (frame, chassis/shelf). 1.3 Identify the software components associated with CCMP6K. 1.4 Describe how the supported applications components reside on this platform. 2 Explain the Engineering considerations and network connectivity associated with a network deploying CCMP Describe the requirements for the CCMP6K. 2.2 Enumerate the limitations & restrictions associated with the CCMP6K. 2.3 Describe the hardware used with he CCMP6K platform. 2.4 Explain the network topology pertaining to the CCMP6K deployment. 2.5 Explain the network connectivity associated with the CCMP6K environment. 2.6 Explain the OAM server evolution and phase out plan. 3 Describe how the storage, backup & restore functionalities are used with the CCMP6000 platform. 3.1 Identify the storage component used to store information about applications and the network. 3.2 State the retention capabilities of the storage array. 3.3 Describe how the backup and restore is performed. 3.4 Explain the recovery boot option. 3.5 Describe the hardware, architecture and connectivity of the NASS2424 in the backup & restore scenario of the CCMP Perform basic troubleshooting on the CCMP6K. 4.1 Describe the principles behind the Shelf Manager s switch over. 4.2 Describe the use of the Shelf Manager s U-Boot.

49 4.3 Explain how to connect to the CCMP6K Shelf Manager. 4.4 Describe how to connect and use the Shelf Manager s CLI. 4.5 Identify the Shelf Manager useful CLI commands. 4.6 Explain the use of the Shelf Manager Configuration file. 4.7 Describe a graceful shutdown of a Blade. 4.8 Explain the steps involved in the replacement of the different CT-900 Blades. Target audience The target audience for this course is: CDMA Switch Access Technicians. Prerequisites Successful completion of the following courses: CDMA product overview, LZU CDMA EBSC operations and maintenance, LZU CDMA 1xEV-DO operations and maintenance, LZU General knowledge of CDMA. Knowledge of IP, Netmask and VLAN. Good understanding of CSP software, CNM and DO-EMS applications. Duration and class size The length of the course is 2 days and 0 hours and the maximum number of participants is 8. Learning situation Instructor-led training with hands-on exercises. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Overview 2 hours 1 CCMP 6000 Engineering 4 hours 2 CCMP 6000 Backup and Restore 2 hours 2 CCMP 6000 Troubleshooting 4 hours

50 CDMA BTS Operations and Maintenance LZU R4A Description This course provides entry level lecture and hands-on exercises on the operation of the CDMA BTS. It provides operators and technicians with knowledge of the BTS hardware configurations and concepts, and with experience in operations and maintenance. A combination of instructor lecture and demonstrations bring home key points and operations so that students are prepared for hands-on, lab based activities within the class. This course is part of the following curriculum paths: CDMA Cell Site; CDMA network operations center technicians. Learning objectives On completion of this course the participants will be able to: 1 Explain the scope of the course 1.1 Describe the course objectives 2 Describe the BTS portfolio. 2.1 Describe the BTS Naming convention and name changes. 2.2 Describe the BTS product portfolio according to the market size. 2.3 Describe the BTS portfolio lifecycle. 3 Explain the power requirements for the CDMA BTS. 3.1 Locate and describe the power requirements for: BTS 624, Outdoor metro cell, BTS 614, BTS 1030/3030/3031, 3011, AWS BTS 3231 and BTS 652/662 4 Describe basic signal flows of the CDMA BTS. 4.1 Describe the signal flow for the following CDMA networks and entities: 1xRTT, 1xEV- DO, MFRM and BTS 4.2 Explain the timing distribution for the BTS. 5 Explain the backhaul concepts relating to the CDMA BTS. 5.1 Explain the connectivity between the BTS and CBRS. 5.2 Describe the benefit of IPBH to the CBRS. 5.3 Describe the interfaces and attributes related to IPBH 5.4 Explain CDMA daisy-chaining. 5.5 Describe the Single DS0 BTS Configurability. 6 Navigate and utilize the various software tools used by the CDMA BTS. 6.1 Launch the BSSM GUI and navigate through the menus/windows to configure the components of the BSSM.

51 6.2 Launch the Command Line Interface Application (cliapp) using the BSSM Command Line Interface (CLI) and use the following commands: Exit, Help, List and Chelem 6.3 Describe and enable the XCEM Authentication feature. 6.4 Use the btsrobustfeatconfig BSSM tool to disable or enable the Default Enable BTS Robustness feature. 7 Configure and maintain the CDMA BTS using the CDMA toolbox. 7.1 Use the GPSTM commander user interface to: Set antenna delay, Perform initialization assistance, and View/Monitor hardware faults. 7.2 Use the ECM with CAM to: View system parameters, Identify faults in the power system, Enable customer alarms. 7.3 Use the UCPS with vcam to: View system parameters, Identify faults in the power system and Enable customer alarms. 7.4 Use the Vortex tool to: Connect Vortex to the BTS, Generate/run T1/E1 scripts, Use the BTS configuration wizard, Initialize the BTS, Utilize the power palette to wilt/blossom and adjust power parameters, Use the call capacity palette to determine BTS call capacity problems and Display the various Vortex views to determine the current state of the BTS. 8 Perform DOM operations using the 1xEV-DO software tools. 8.1 Describe the different protocols and connections of the 1x EV-DO Data-Optimized Module (DOM). 8.2 Access the DOM CLI using: Serial, Ethernet using secure shell for 4.0 and later. 8.3 Navigate and describe the basic modes of the DOM CLI: Base, Enable and Configure. 8.4 Display and configure the initial datafill of the DOM. 8.5 Display secure file transfer process using the 1xEVDO CLI. 9 Describe the EEGS software tools. 9.1 Launch the CAD Application. 9.2 Describe the EV-DO C-EMS Netweork Navigator. 9.3 Define the CLI command structure. 9.4 Describe the most useful CLI commands applicable to the AEM Describe the Customer Feature Delivery System (CFDS) Describe the purpose of CFDS Enumerate the different options available Enumerate the different licenses available for the BTS 3030 and Explain the new Release 18 features Define what the MFRM-3 Antenna Sweeping feature is Describe the Soft Slope per Sector-Carrier feature Explain the edcg CPU SMS Capacity Optimization features: Page Message Management sub-feature and the SMS InCell Traffic CPU Optimization sub-feature Describe the 14 Carrier feature.

52 Target audience The target audience for this course is: Field Technician, System Engineer, Network Deployment Engineer, System Technician Prerequisites Successful completion of the following courses: LZU ,CDMA Portfolio Overview LZU ,CDMA Access Overview LZU , Ericsson CDMA BTS Portfolio Overview See curriculum path for pre-requisites Duration and class size The length of the course is 3 days and 0 hours and the maximum number of participants is 8. Learning situation This course is based on theoretical and practical instructor-led lessons given in both classroom and in a technical environment using equipment and tools, which are accessed remotely. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time 1 Course introduction 15 minutes 1 BTS portfolio overview 30 minutes 1 BTS power systems 45 minutes 1 CDMA signal flow 3 hours 1 CDMA backhaul concepts 1 hour 2 CSP software tools 3 hours 2 CDMA Toolbox 3 hours

53 Day Topics in the course Estimated Time (hours) 3 1xEV-DO software tools 2 hours 3 EEGS software tools 1 hour 3 Customer Feature Delivery System (CFDS) 30 minutes 3 NBSS18 new features 2 hours

54 CDMA EBSC Operations and Maintenance LZU R4A Description Operating and administering the EBSC is an important part of an efficient wireless network. This course provides entry level concepts and hands-on experience to operate, administer and maintain the Enhanced Base Station Controller (EBSC). This course is used for the following curriculum paths: CDMA switch access technicians; CDMA network operations center technicians. Learning objectives On completion of this course the participants will be able to: 1 Explain the scope of the course 1.1 Explain the course objectives 2 Describe the evolution from the BSC to the EBSC. 2.1 Describe how the BSC evolved into an EBSC. 3 Describe the hardware components of the EBSC. 3.1 Define the equipment components of the CBRS frame. 3.2 Explain the different Functional Processors available in the EBSC. 3.3 Describe the Common Application Specific Function Processors in the EBSC. 4 Explain and show the EBSC and its connectivity. 4.1 Explain the elements involved in the CDMA architecture. 4.2 Identify the connectivity through the CCMC and between the shelves. 4.3 Describe BCN V2 4.4 Describe BISC and ISTL on the EBSC. 4.5 Explain the IP Backhaul functionality 4.6 Describe the Call Setup Optimization (CSO) feature 4.7 Explain the ISSHO over IP connectivity 4.8 Describe the IP2BSC feature 4.9 Explain the BSC Ethernet Inter-shelf Connectivity (BEIC) feature 4.10 Describe the Circuit Switched Data (CSD) on A2p 4.11 Explain the Transcoder Free Operation phase 2 (TrFO2) 4.12 Describe the EVRC-NW feature 4.13 Describe the CSP over Ethernet connectivity 5 Describe the basic commands used to navigate within the PPX15K CAS. 5.1 Describe the basic commands used to navigate within the PPX15K CAS to operate

55 and provision attributes for the EBSC. 6 Define the various EBSC tools available on the CSP and how to use them. 6.1 Explain the role of the BSSM in CBRS and recognize new CBRS managed objects. 6.2 Explain the new tabs and options in the BSM Control interface. 6.3 Describe the various EBSC tools available on the CSP. 6.4 Illustrate the Managed Elements introduced for CPDS and CSVS. 6.5 Explain the interaction between the CPDS/CSVS and the Pilot Database (PDB). 6.6 Describe the MDM interaction with BSSM and CEMS. 7 Describe the EBSC overload controls. 7.1 Describe features of the following traffic management tools for the CBRS such as the Packet Storm Loopback Detection, the Link Utilization Monitoring and the Congestion Control 7.2 Describe the overload control for CPDS. 7.3 Describe how CNFP performs overload control for CSVS and other subsystems. 8 Explain the different EBSC tools available for Provisioning and Configuration. 8.1 Describe the activities performed by the EBSC Configuration Tool. 8.2 Describe the new parts of the EBSC Shelf Provisioning and Card Provisioning wizard. 9 Describe the CACP interface and its functions. 9.1 Describe the different panes in the CACP interface. 9.2 Enumerate the functionalities of CACP. 9.3 Identify the supported provisionable hardware. 9.4 Explain the different tools and wizards used in CACP. 9.5 Describe the business rules and validation used by CACP 9.6 Explain the Script generation process in CACP. 10 Define the EBSC patching principle Describe the types of patching, the order of patch application and the patch naming convention that pertain to the EBSC Explain the Hitless Software Migration process Describe the sequence and tools used to patch an EBSC. Target audience The target audience for this course is: Field Technician, System Engineer, Network Deployment Engineer Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio overview LZU , CDMA EBSC Overview LZU , CDMA BTS operations and maintenance

56 Duration and class size The length of the course is 5 days and 0 hours and the maximum number of participants is 8. Learning situation This course is based on theoretical and practical instructor-led lessons given in both classroom and in a technical environment using equipment and tools, which are accessed remotely. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 EBSC overview 30 min 1 EBSC hardware 2 hours 1 EBSC connectivity 4 hours 2 PPX navigation 6 hours 3 EBSC O&M 3 hours 3 EBSC overload Control 3 hours 4 EBSC overload Control 1 hour 4 EBSC configuration and provisioning tools 3 hours 4 CACP overview 2 hours 5 EBSC upgrade and patching 2 hours 5 Troubleshooting activities 3 hours

57 CDMA 1xEVDO RNC9000 Technical Support LZU R1A Description This Technical Support Course is intended to serve as an overview of the RNC9000 platform, related CLI commands, and a practical exercise of platform troubleshooting. Learning objectives On completion of this course the participants will be able to: 1 Identify the hardware components associated with this platform. 1.1 Describe the hardware components associated with this platform. 1.2 Describe the Power Up Sequence. 1.3 Describe the Additional considerations when deploying an TNC Perform DO-EMS Server commands to verify software, routing and server hardware type. 1.5 Perform Platform and Hardware commands and interpret the output to aid in troubleshooting. 2 Explain the network connectivity and topology associated with a network deploying the RNC Understand Topologies A B C & D. 2.2 View the Internal IP subnet configuration. 2.3 Establish a serial CLI connection. 2.4 Perform Interface and routing commands. 3 Describe clustering, homing requirements, and limitations of the RNC Describe the RNC Cluster Rules for small and larger networks. 3.2 Understand Clustering parameters. 3.3 Describe protocol and connection definitions. 3.4 Perform Clustering, homing and protocol commands. 4 State the licensing requirements of the RNC Describe the RNC9000 Capacity Options. 4.2 Describe the processing Capacity Elements. 4.3 RNC9000 Split PCE: 4.4 Perform Licensing, PCE and Split PCE commands. 5 Explain the proper module handling and replacement procedures. 5.1 Describe the proper module handling and replacement procedures. 5.2 Describe the module and backplane cautions. 5.3 See examples of connector and pin damage.

58 6 Perform procedures for adding an RNSM for increased capacity. 6.1 Describe the procedures for adding an RNSM for increased capacity. Target audience The target audience for this course is: Personnel interested in the operations of the RNC9000, specifically: CDMA Switch Core Technician; CDMA Switch Access Technician; CDMA Support personnel. Prerequisites Successful completion of the following courses: General knowledge of CDMA and P-MSC and successful completion of course: CDMA P- MSC overview, LZU Duration and class size The length of the course is 2 days and 0 hours and the maximum number of participants is 8. Learning situation Instructor-led training with hands-on exercises. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 RNC 9000 Platform Overview 3 hours 1 Topologies and Interface Connectivity 1 hour 1 Clustering, Homing Requirements and Limitations 2 hours 2 Licensing Requirements 2 hours 2 Proper Module Handling and Replacement Procedures (CS and SM Modules) 2 hours 2 Procedures for Adding an RNSM for Increased Capacity 1 hour

59 CDMA 1xEV-DO Features for Systems Performance Optimization LZU R2A Description More effective use of resource skills and smoother transitions are achieved by preparing experienced cellular system performance engineers, radio frequency engineers and optimization specialists when they are transitioning from IS2000 network responsibilities to optimizing 1XEVDO performance. Learning objectives On completion of this course the participants will be able to: 1 Describe the A13 Dormant Handoff feature. 1.1 Understand the benefits of feature. 1.2 Explain the theory and mechanism of the feature. 1.3 Complete the datafill allowing full implementation of this feature. 1.4 Assess changes brought on by feature. 2 Explain the Inter RNC Active Handoff. 2.1 Define the similarities with ISHSHO in 1xRTT. 2.2 Identify the RNC secondary homing limits. 2.3 Explain the Inter RNC Active Handoff. 2.4 Show how to add and commit neighbors. 2.5 Describe the Soft Handoff OMs for secondary DOMs. 2.6 Explain the Inter RNC Active Handoff OMs. 3 Define the A16 Active Handoff feature. 3.1 Define the A16 Active Handoff feature. 3.2 Explain Inter-RNC Mobility (A16) functionality. 3.3 Describe the A16 RNC datafill. 3.4 Identify the A16 OMs. 3.5 Enumerate the A16 OM registers. 4 Explain the Inter-Frequency Hard Handoff (IFHHO) for Intra-RNC handoffs. 4.1 Define the Inter Frequency (or Band) Hard Handoff for Carrier Borders or Inter- Band/Block. 4.2 Explain the IFHHO Mobile Assisted HHO (MAHO) Trigger. 4.3 Describe the IFHHO Signal Strength and/or RTD Trigger. 4.4 Define the target Datafill for IFHHO Signal Quality/RTD in EMS.

60 4.5 Identify the IFHHO Visibility in RNC Logs. 4.6 Explain the IFHHO Operational Measurements and Performance Measurements. 5 Describe the RNC Clustering. 5.1 Define the Subnet IDs, Color-codes, UATIs. 5.2 Explain the Quick Config message. 5.3 Describe the Dormant Handoffs. 5.4 Explain the Sector Parameters Message. 5.5 Define the Structured Sector ID. 5.6 Enumerate the RNC Cluster Capacity. 5.7 Explain the Reverse Traffic Channel Long-Code Mask. 5.8 Define RNC Clustering Mesh Homing. 5.9 Explain the Datafill Requirements Define the Tools and utilities Explain the Cluster Audit tool. 6 Explain Multi-Carrier Traffic Allocation (MCTA) in EVDO. 6.1 Explain the MCTA usage. 6.2 Define the MCTA steps in EVDO 6.0 and in EVDO Explain the behavior of MCTA in choosing Base Sector-Carrier during Connection Set-up. 6.4 Explain the behavior of MCTA in choosing Base Sector-Carrier during MAHO triggered HHO. 6.5 Explain the behavior of MCTA in choosing Base Sector-Carrier when Max RTD HHO is triggered. 6.6 Explain the behavior of MCTA in choosing Base Sector-Carrier when Ec/Io Strength HHO is triggered. 6.7 Describe the MCTA Definition of Co-Located vs Non-Co-Located. 6.8 Explain the Inter-Distance-Search-Window feature. 6.9 Define the MCTA Attributes and Configurable Attributes Enumerate the Logs and OMs. 7 Define the Soft Slope and Intercept for EVDO. 7.1 Describe the Soft Slope feature. 7.2 Explain the configuration. 7.3 Explain the Composite Ec/Io at the AT. 7.4 Describe the Active Set Composite Ec/Io and effect of Slope & Intercept. 8 Define the Distance based Paging. 8.1 Explain the Distance Based Paging feature. 8.2 Describe Route Updating for Distance Based Paging. 8.3 Define the Paging Area. 8.4 Explain the Paging Area calculations. 8.5 Define the RNC parameters. 8.6 Define the DOM parameters. 8.7 Explain the feature options available. 8.8 Describe the Configurable Attributes.

61 Target audience The target audience for this course is: Service Planning Engineers; Service Deployment Engineers; System Engineers; Service Engineers. Prerequisites Successful completion of the following courses: 1xEV-DO system performance and optimization, LZU or the participants should be familiar with cellular system performance engineering. Duration and class size The length of the course is 2 days and 0 hours and the maximum number of participants is 1. Learning situation This course is available in virtual classroom training. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 A13 Dormant Handoff 1 hour 45 min 1 Inter RNC Active Handoff 1 hour 15 min 1 A16 Active Hard Handoff 1 hour 30 min 1 Inter-Frequency Hard Handoff (IFHHO) for Intra-RNC handoffs 1 hour 30 min 2 RNC Clustering 1 hour 30 min 2 MCTA in EVDO 2 hours 2 Soft Slope and Intercept for EVDO 1 hour 15 min 2 Distance based Paging 1 hour 15 min

62 Network Attached Storage Server 2424 (NASS2424) Knowledge Transfer LZU R1A Description The Network Attached Storage Server (NASS2424) is a part of the Unified Storage Server (USS) family of Ericsson storage solutions. The NASS2424 has the sole purpose of supplying secure, highly available file-based data storage services to EMS devices (CNM, CSP and DO-EMS) on the network. As a centralized storage facility, the NASS2424 offloads data from EMS and allows users to manage the backup data from a single location. As a result of its generic nature, the NASS2424 is release agnostic allowing deployment alongside various CDMA releases. Thus, the NASS2424 can be deployed along side NBSS16+, CNM 4.0+ and DO Starting in DO 9.0, the DO-EMS can also forward the DO-logs to the NASS2424 to allow for longer retention period. This Knowledge Transfer provides Overview, Configuration, Engineering Conciderastions and Fault Management information for the Network Attached Storage Server 2424 (NASS2424). Learning objectives On completion of this course the participants will be able to: 1 Overview. 1.1 Describe Network Attached Storage Server 2424 (NASS2424). 2 Configuration. 2.1 Describe Network Attached Storage Server 2424 (NASS2424) Configuration. 3 Engineering considerations. 3.1 Describe Network Attached Storage Server 2424 (NASS2424) Engineering considerations. 4 Fault Management. 4.1 Describe Network Attached Storage Server 2424 (NASS2424) Fault Management.

63 Target audience The target audience for this course is: Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, CDMA Core Technicians, Network Operations, Field Technicians, fundamentals. Prerequisites Successful completion of the following courses: CDMA product overview, LZU Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation This course is available as virtual classroom training. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Overview 35 min 1 Configuration 35 min 1 Engineering Considerations 25 min 1 Fault Management 25 min

64 CDMA 1xEVDO Release 9.0 Delta LZU R1A Description Describe new hardware and features for EVDO Release 9.0. Learning objectives On completion of this course the participants will be able to: 1 Describe DO-EMS enhancements. 1.1 Describe the Additional NFS storage enhancements 1.2 Describe the DO-EMS Policy enhancements 1.3 Describe the Reliability Check Policy enhancement 1.4 Describe the Group operations for managing nodes 1.5 Describe the DO-EMS Overload control 1.6 Describe the EV-DO PRSM tool 1.7 Describe the OM file compression 1.8 Describe the DOM upgrade/rollback enhancements 1.9 Describe the Generic RAN reporting 1.10 Describe the DO-EMS Core application startup 1.11 Describe the DO-EMS session lookup 1.12 Describe the DO-EMS SSH login failure 2 Describe DO-EMS robustness. 2.1 Describe the NBI functionality 2.2 Describe the DO-EMS to NE full synchronization 2.3 Describe the Auto recovery for DO-EMS to NE synchronization errors 2.4 Describe the ore upgrade to Java Runtime Environment (JRE) Describe the Alarm synchronization during NE reconnections 3 Describe Radio frequency performance enhancements. 3.1 Describe the A16 enhancements 3.2 Describe the Radio link protocol history buffer size optimization (RLPHBSO) 3.3 Describe the Connection request during connection setup (CRdCS) 3.4 Describe the User capacity OMs (UCOM) 3.5 Describe the Reverse link pilot interference cancellation (RLPIC) 3.6 Describe the Traffic channel assignment scheduling optimization (TCASO4QoSA) 3.7 Describe the DOM stall (Inactivity) alarm (DOMSA) 3.8 Describe the Priority-based page scheduling (PBPS)

65 3.9 Describe the State mismatch connection drops for short connections (SMCD4SC) 3.10 Describe the Route update message based paging for CConn (RUMBP4CC) 3.11 Describe the RNC Cluster audit tool enhancements 4 Describe DOM homing capacity enhancements. 4.1 Describe the DOM homing capacity enhancements 5 Describe Dual band idle mode management. 5.1 Describe the Dual band idle mode management 6 Describe MCTA enhancement. 6.1 Describe the MCTA enhancement 7 Describe RNC9000 capacity licensing enhancements. 7.1 Describe the RNC9000 capacity licensing enhancements 8 Describe Boomer cell. 8.1 Describe the Boomer cell 9 Describe Rev. B. 9.1 Describe the Rev. B 10 Describe Basic ehrpd Describe the Basic ehrpd Target audience The target audience for this course is: Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, CDMA Core Technicians, Network Operations, Field Technicians, fundamentals. Prerequisites Successful completion of the following courses: CDMA product overview, LZU Duration and class size The length of the course is 0 days and 4 hours and the maximum number of participants is 1. Learning situation This course is available as virtual classroom training.

66 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 DO-EMS Enhancements 45 min 1 DO-EMS Robustness 15 min 1 Radio Frequency Performance Enhancements 1 hour 1 DOM Homing Capacity Enhancements 10 min 1 Dual Band Idle Mode Management 10 min 1 MCTA Enhancement 10 min 1 RNC9000 Capacity Licensing Enhancements 10 min 1 Boomer Cell 10 min 1 Rev. B 1 hour 1 Basic ehrpd 15 min

67 CDMA Common Provisioning System (CPS) Configuration LZU R2A Description Providing EVDO network green field configuration and RF configuration of EVDO nodes is accomplished through the Common Provisioning System (CPS), an offline PC-based tool. This course teaches skills to manage, configure and apply EVDO RNC and DOM attribute data fill using the CPS. The student learns the CPS tool configuration capabilities through step-by-step examples and lab application exercises where the student will build both Greenfield Node and RF Reconfiguration scripts and apply these to the model equipment. In addition the tool data fill analysis capabilities are demonstrated through example and student exercises. Activities give students exposure to the mechanisms inherent in IS856 through doing and seeing, as well as an introduction to typical measurement analysis tools and methods. The class focus is on the NEWTUN remote analysis tool; however, the principles learned are applicable to other types of analysis. Learning objectives On completion of this course the participants will be able to: 1 Explain the purpose of CPS and its role in EVDO. 1.1 Understand the purpose of CPS within the EVDO network. 1.2 Describe the EVDO configuration process using CPS. 1.3 Understand and describe the general CPS terminology. 1.4 Identify the CPS layouts (tabs) and describe the purpose of each. 1.5 State the limitations of the CPS tool. 2 Describe how to manage CPS workspace. 2.1 Create, Open, Save a workspace. 2.2 Compare a Workspace to a Work-order. 2.3 Import RNC/DOM Config file from DO-EMS. 2.4 Import Tuned Neighbor Lists from Newtun. 3 Perform Configuration Data editing with CPS. 3.1 View attributes by type or by instance. 3.2 Utilize the tabular editor functions. 3.3 Describe attributes, filter attributes and compare attribute values with the model default. 3.4 Set and unset attributes on a single or global basis. 3.5 Use Bulk provisioning methods from external tools. 3.6 Duplicate objects of the network.

68 3.7 Identify read-only and settable attributes. 4 Compare object configuration within CPS. 4.1 Compare object and children attributes with other objects, templates or the data model. 4.2 Compare entire RAN network attributes. 4.3 Filter the comparison output. 4.4 Use comparison methods to audit a network. 5 Explain how to work with templates in CPS. 5.1 Understand what a template is and it s purpose. 5.2 Create, modify and delete templates. 5.3 Utilize templates for network creation. 5.4 Set and unset a template as Default. 5.5 Distill the extraneous values from the template. 5.6 Export templates. 6 Utilize workorders. 6.1 Understand the main differences between a workorder and a work space. 6.2 Create a workorder. 6.3 Explain how workorders build upon each other. 6.4 Export and import workorders. 7 Create and use Datasets in CPS. 7.1 Create, append or remove to a dataset from objects or other datasets. 7.2 Convert and filter datasets. 7.3 Export datasets. 8 Use the Check Management tools in CPS. 8.1 Understand and describe the action of CPS Syntax checks. 8.2 Execute, save and repeat manual check sessions. 8.3 Create check profiles and utilize them when executing check session. 9 Use the greenfield wizards and script generation in CPS. 9.1 Add a DOM using the DOM wizards. 9.2 Add an RNC using the RNC wizards. 9.3 Create a script using the Script Wizard. 9.4 Create a Greenfield Network using the available CPS wizards. 10 Use the CPS RF wizards and operations Locate and configure the RF Wizards. Target audience The target audience for this course is: Network Deployment Engineers, System Engineers.

69 Prerequisites Successful completion of the following courses: LZU , CDMA 1xEVDO Operations and Maintenance Duration and class size The length of the course is 2 days and 0 hours and the maximum number of participants is 1. Learning situation This course is available as instructor led training and as This course is available as virtual classroom training. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 CPS Overview 1 hour 1 Managing the Workspace 1 hour 1 Editing Attributes in CPS 1 hour 1 Comparing Object Configurations 1 hour 30 min 1 Working with Templates 1 hour 1 Using Workorders 1 hour 2 Creating and Using Datasets 1 hour 2 Using Check Management 1 hour 2 Greenfield Wizards and Script Generation in CPS 1 hour 2 Using RF Reconfiguration Wizard and Change Files 1 hour 2 Greenfield Script Execution and RF Reconfiguration Change Files using Bulk CLI Tool on EMS 1 hour 30 min

70 CDMA DCA Technical Support LZU R1A Description With the introduction of the MSC Server 3000 comes a new sub-component, and commands and procedures to support it. This new sub-component is called the Distributed Call Agent (DCA). This course provides a general overview of the MSC Server 3000 and the DCA. Contents of this course includes MSC Server 3000 platform and architecture, hardware components, new and upgraded tools, and the VSE command line interface (CLI) commands that are used to verify DCA and NOIS Signaling Agent (NSA) datafill, as related to the MSC Server The proper handling and replacement procedures of the DCA blade are also included. Learning objectives On completion of this course the participants will be able to: 1 Describe the hardware components and architecture of the MSC3000 platform. 1.1 Identify the architecture and components of the MSC3000 Platform; this includes the different configurations. 1.2 Describe the frame and shelf layouts used for the MSC Contrast the differences between the MSC3000 and MSC2000 platforms. 2 Describe basic call flows. 2.1 Describe basic call processing flows. 3 Use new and modified tools and tables to aid in troubleshooting. 3.1 Identify new and upgraded tools, tables and logs to query, monitor and identify platform elements associated with the DCA configuration and datafill. 3.2 Identify new and upgraded VSE-CLI commands associated with the DCA and NSA configuration and datafill. 3.3 Utilize all tools, tables, logs and commands to aid in the troubleshooting of DCAs. 4 Describe the proper handling and replacement of a DCA blade. 4.1 Using a lab and proper documentation, replace a DCA blade. 4.2 Determine if the simplified procedure can be done. 4.3 Perform a test call when the blade is replaced.

71 Target audience The target audience for this course is: CDMA Switch Core Technicians, Network Operations, Field Maintenance, System Technicians, Service Technicians. Prerequisites Successful completion of the following courses: CDMA Product Overview, LZU CDMA P-MSC Overview, LZU In addition, this is intended for participants who have also completed the CDMA VSE Operations and Maintenance, LZU course prior to the introduction of the MSC Server Duration and class size The length of the course is 2 days and 0 hours and the maximum number of participants is 8. Learning situation This course is instructor-led training with hands-on exercises. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Introduction to the CDMA MSC hours 1 MSC3000 Call Delivery Overview 3 hours 2 CDMA MSC3000 Tools 4 hours 2 DCA Module Replacement 2 hours

72 CDMA PMSC NETWORK ENGINEERING AND CAPACITY PLANNING LZU R4A Description This course provides the participant with the knowledge required to use Engineering Rules to engineer the elements of a P-MSC Network to meet specified Capacity requirements. The rules, methods and formulae to required to dimension each P-MSC node is described in detail. The course teaches the participant how to use Statistics from Operational Measurements (OMs) and Performance Measurements (PMs) to monitor system capacity and performance to ensure that the P-MSC network elements are operating within Engineering Guidelines. This course is applicable to CDMA P-MSC Capacity & Performance Engineers. Learning objectives On completion of this course the participants will be able to: 1 Identify the CDMA P-MSC NETWORK ENGINEERING AND CAPACITY PLANNING course objectives and agenda. 2 Describe the factors that influence Network Design and voice quality. 2.1 Describe the design cycle. 2.2 Describe network traffic engineering for voice quality. 2.3 Identify factors related to voice quality. 2.4 factors related to delay. 3 Describe the tools used to collect performance data and the Key Capacity Indicators (KCI) and Key Performance Indicators (KPI) for the P-MSC solution. 3.1 Identify management and data collection in the P-MSC solution. 3.2 Describe data collection for the P-MSC solution. 3.3 Describe the characteristics of operational measurements (OM). 3.4 Describe Key Capacity Indicators (KCI) and Key Performance Indicators (KPI) for the 3.P-MSC solution. 4 Describe the engineering rules, capacity thresholds, OMs and PMs used for MSC SERVER 2000/3000 Engineering and Performance analysis. 4.1 Describe the capacity of the MSC Server Describe the information from the PMSC Speedometer tool. 4.3 Explain how to use Logs and operational measurements (OM). 4.4 Describe call completion rates.

73 4.5 Describe information related to trunk performance within the P-MSC Solution. 4.6 Describe Quality of Service (QoS) information related to performance. 4.7 Given a scenario, identify CP OM information related to performance. 4.8 Given a scenario, identify CP2 OM information related to performance. 4.9 Given a scenario, identify STORE OM information. 5 Describe the engineering rules, capacity thresholds, OMs and PMs used for GATEWAY CONTROLLER ENGINEERING Engineering and Performance analysis. 5.1 Identify engineering considerations related to the MSC Server Gateway Controllers. 5.2 Identify information to monitor on the Gateway Controller (GWC) as part of GWC surveillance activities. 5.3 Identify the Call Loss Rate for the Gateway Controller. 5.4 Identify capacity monitoring for the Gateway Controller. 5.5 Identify the Call Delay Rate for the Gateway Controller (GWC). 5.6 Analyze Gateway Controller (GWC) performance. 6 Describe the engineering rules, capacity thresholds, OMs and PMs used for VSE GWC Engineering and Performance analysis. 6.1 Describe supported VSE GWC configurations 6.2 Describe VSE GWC Dimensioning Rules 6.3 Describe VSE GWC Capacities 6.4 Describe VSE GWC KPI/KCI 7 Describe the engineering rules, capacity thresholds, OMs and PMs used for DYNAMIC PACKET TRUNK Engineering and Performance analysis. 7.1 Identify engineering considerations related to the Dynamic Packet Trunks (DPT). 7.2 Describe Legacy Mobile System Domain (LMSD). 7.3 Identify how to monitor the DPT performance. 8 Describe the engineering rules, capacity thresholds, OMs and PMs used for USP Engineering and Performance analysis. 8.1 Describe capacity and dimensioning for the Universal Signaling Point (USP). 8.2 Analyze the performance and capacity of the Universal Signaling Point (USP). 8.3 Analyze the performance of the Universal Signaling Point. 9 Describe the engineering rules, capacity thresholds, OMs and PMs used for SSG Engineering and Performance analysis. 9.1 Describe the characteristics of the SIGTRAN Services Gateway (SSG). 9.2 Describe the hardware of the SIGTRAN Services Gateway (SSG). 9.3 Describe capacity and dimensioning for the SIGTRAN Services Gateway (SSG). 9.4 Analyze the performance and capacity of the SIGTRAN Services Gateway 10 Describe the engineering rules, capacity thresholds, OMs and PMs used for MS 2010/2030 Engineering and Performance analysis Describe the characteristics and functions of announcements and conferencing for the MS2010 and the MS Identify engineering considerations related to the Media Server 2010 and the MS Describe the co-existence of the Media Servers 2010 and 2030.

74 10.4 Describe performance monitoring for the Media Server 2000s. 11 Describe the engineering rules, capacity thresholds, OMs and PMs used for ERS 8600 Engineering and Performance analysis Identify the engineering considerations related to the Ethernet Routing Switch 8600 (ERS8600) Identify factors to consider in analyzing the performance of the Ethernet Routing Switch 8600s. 12 Describe the engineering rules, capacity thresholds, OMs and PMs used for SMARTEDGE 1200 Engineering and Performance analysis Identify factors to consider in analyzing the performance of the SmartEdge 1200 (SE1200). 13 Describe the engineering rules, capacity thresholds, OMs and PMs used for MGW Engineering and Performance analysis Identify the engineering considerations for the MGW Describe factors involved in the Internet Protocol (IP) quality of service Identify how to calculate the PSN bandwidth for the MGW Describe MG performance measurements (PM) and thresholds Describe performance measurements and monitoring of the Voice Service Processors on the MG Describe IP physical interface performance measurements Describe how to monitor the Ethernet link performance using the inbound and outbound discard rate. 14 Describe the OMs used for TrFO2 Performance analysis Identify OMs used to analyze the performance of TrFO2 15 Describe the P-MSC IP requirements Identify IP guidelines and requirements for the P-MSC network and network components. Target audience The target audience for this course is: Network Design Engineer, Network Deployment Engineer, System Engineer, Service Engineer Prerequisites Successful completion of the following courses: LZU CDMA Portfolio Overview LZU CDMA Core Network Overview LZU Ericsson CDMA VSE Overview LZU Ericsson CDMA MGW Overview

75 LZU Ericsson CDMA MS/MRF & AFC Overview LZU Ericsson CDMA SE1200 Overview LZU Ericsson CDMA ERS 8600 Overview LZU CDMA SAM21 and GWC Overview LZU Ericsson CDMA USP Overview LZU CDMA PMSC CBM Overview Duration and class size The length of the course is 3 days and 0 hours and the maximum number of participants is 1. Learning situation This class is available in virtual classroom training. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 1 COURSE INTRODUCTION 10 minutes 1 2 NETWORK DESIGN & VOICE QUALITY 30 minutes 1 3 PERFORMANCE AND CAPACITY ANALYSIS 1 hour 1 4 MSC SERVER 2000/3000 ENGINEERING & PERFORMANCE 1 5 GATEWAY CONTROLLER ENGINEERING & PERFORMANCE 2 hours 30 minutes 1 hour 2 6 VSE GWC ENGINEERING & PERFORMANCE 1 hour 2 7 DYNAMIC PACKET TRUNK ENGINEERING & PERFORMANCE 2 8 UNIVERSAL SIGNALING POINT ENGINEERING & PERFORMANCE 1 hours 20 minutes 1 hour 2 9 SSG ENGINEERING & PERFORMANCE 1 hour 2 10 MS 2010/2030 ENGINEERING & PERFORMANCE 1 hours 30 minutes

76 Day Topics in the course Estimated Time (hours) 3 11 ERS 8600 ENGINEERING & PERFORMANCE 1 hours 30 minutes 3 12 SMARTEDGE 1200 ENGINEERING & PERFORMANCE 30 minutes 3 13 MGW ENGINEERING & PERFORMANCE 3 hours 3 14 TrFO2 ENGINEERING & PERFORMANCE 1 hour 3 15 P-MSC IP REQUIREMENTS 20 minutes

77 CDMA P-MSC SIP OAM & Provisioning LZU R1A Description This course provides the knowledge and skills to perform provisioning for LMSD-SIP in a P- MSC solution. This course is applicable to CDMA Switch Core Technicians. Learning objectives On completion of this course the participants will be able to: 1 Navigating through the course 1.1 Use the buttons to navigate the WBL 1.2 Open the Glossary 2 Course Introduction 2.1 Describe he course scope 2.2 Explain the course objectives 3 LMSD-SIP OAM and Provisioning 3.1 Supported Inter-working Configurations 3.2 LMSD Compliancy 3.3 Call Basics 3.4 Session Initiation 3.5 Session Description Protocol 3.6 LMSD Provisioning 3.7 LMSD Maintenance 3.8 Session Initiation Protocol (SIP) Robustness Target audience The target audience for this course is: Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician Prerequisites Successful completion of the following courses:

78 LZU CDMA Portfolio Overview LZU CDMA Core Network Overview LZU Ericsson CDMA VSE Overview Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL) Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Navigating through the course 5 minutes 1 Course Introduction 5 minutes 1 LMSD-SIP OAM and Provisioning 40 minutes 1 End of course quiz 15 minutes

79 CDMA P-MSC Trunk Provisioning LZU R1A Description This course provides the knowledge and skills to provision trunks in a P-MSC solution. This course is applicable to CDMA Switch Core Technicians. Learning objectives On completion of this course the participants will be able to: 1 Navigating through the course 1.1 Use the buttons to navigate the WBL 1.2 Open the Glossary 2 Course Introduction 2.1 Describe he course scope 2.2 Explain the course objectives 3 Introduction to Trunk Provisioning 3.1 Describe what trunk provisioning is 4 Provision the endpoints in the MG Explain how to provision endpoints on a MG Associate the MG to the GWC 5.1 Describe how to associate the Media Gateway to the Gateway Controller 6 Add DS1 carrier endpoints in the GWC 6.1 Explain how to add DS1 carrier endpoints 7 Provision the trunk in the MSC Server 7.1 Describe how to provision the trunks on the MSC Server 8 Return the trunk to service 8.1 Explain how to return the trunk into service Target audience The target audience for this course is: Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician

80 Prerequisites Successful completion of the following courses: LZU CDMA Portfolio Overview LZU CDMA Core Network Overview LZU Ericsson CDMA VSE Overview LZU Ericsson CDMA MGW Overview LZU CDMA SAM21 and GWC Overview Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL) Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Navigating through the course 5 minutes 1 Course Introduction 5 minutes 1 Introduction to Trunk Provisioning 20 minutes 1 Provision the endpoints in the MG minutes 1 Associate the MG to the GWC 20 minutes 1 Add DS1 carrier endpoints in the GWC 10 minutes 1 Provision the trunk in the MSC Server 15 minutes 1 Return the trunk to service 20 minutes 1 End of course quiz 15 minutes

81 CDMA RELEASE 18 DELTA - ACCESS LZU R1A Description This course provides an overview of CDMA release 18 new features. The focus of this course is on Access and OA&M features. Learning objectives On completion of this course the participants will be able to: 1 Describe IP2BSC feature for both the NOIS and IOS environment. 1.1 Describe the feature 1.2 Enumerate the added values 1.3 Explain the engineering considerations, restrictions and limitations for both the NOIS and the IOS environment 1.4 Describe the Managed Objects modifications 1.5 Explain the MTX tables modifications 1.6 Enumerate the impacted Tools/Utilities/Commands 1.7 Describe the performance management modifications (OMs) 1.8 Describe the alarms modifications 1.9 Describe the diagnostic logs modifications 1.10 Explain the GUI modifications 1.11 Describe the feature activation of the IP2BSC feature 2 Explain the CSD on A2P feature 2.1 Describe the feature 2.2 Enumerate the added values 2.3 Describe the signal flow using CSP on A2P 2.4 Explain the Protocol stack 2.5 Describe the Resource allocation 2.6 Define the Mobile originated request for SO CSD 2.7 Define Mobile Terminated request for SO CSD 2.8 Explain the engineering considerations, restrictions and limitations 2.9 Describe the alarms and Logs modifications 2.10 Explain the activation through licenses 2.11 Explain the migrations and upgrade paths 2.12 Describe the OMs modifications 2.13 Define the modified P-MSC tables

82 3 Explain the edcg CPU SMS Capacity sub-features 3.1 Explain the Page Message Management sub-feature 3.2 Enumerate the added values 3.3 Explain the sub-feature activation 3.4 Describe the new BSSM Managed Object s Attributes 3.5 Explain the new CACP attributes 3.6 Describe the SMS InCell Traffic CPU Optimization sub-feature 3.7 Enumerate the added values 3.8 Explain the engineering considerations, restrictions and limitations 3.9 Describe the sub-feature activation 3.10 Describe the new OMs to support both Sub-Features 3.11 Explain the wizard/gui modifications 4 Describe the Netra 240 Replacement T5220 introduction 4.1 Enumerate the added values 4.2 Explain the hardware dependencies for the T5220 implementation 4.3 Describe the hardware for the T Explain the engineering considerations, restrictions and limitations to the T5220 implementation 4.5 Describe the CMT migration path 4.6 Describe the CBM migration path 4.7 Explain the new logs introduced by the T Explain the Network Element Software Manager phase 2 feature 5.1 Enumerate the added values 5.2 Describe the new GUI environment 5.3 Explain the Logs modifications 5.4 Describe the engineering considerations, restrictions and limitations 6 Explain the IEMS Removal feature 6.1 Explain the reason behind the IEMS removal 6.2 Describe the Interface replacement Target audience The target audience for this course is: Personnel interested in CDMA release 18 new features. Prerequisites Successful completion of the following courses: CDMA product overview, LZU

83 Duration and class size The length of the course is 0 days and 4 hours and the maximum number of participants is 1. Learning situation This course is available in virtual classroom training. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 IP to BSC (IP2BSC) NOIS/IOS 1 hour 20 min 1 CSD on A2P 40 min 1 edcg CPU SMS Capacity 30 min 1 Netra 240 Replacement T5220 Introduction 30 min 1 Network Element Software Manager Phase 2 45 min 1 IEMS Removal 15 min

84 CDMA RELEASE 18 DELTA - CORE LZU R1A Description This course provides an overview of CDMA release 18 new features. The focus of this course is on the Core. Learning objectives On completion of this course the participants will be able to: 1 Describe the MTX18 MSC Server 1.1 Identify the architecture, components, and management of the MSC 3000 platform 1.2 Contrast the differences between the MSC 3000 and MSC 2000 platforms at MTX Identify new and/or upgraded tools to query, monitor, and identify platform hardware elements 1.4 Describe basic call processing flows 2 Explain the SSG Introduction in the MTX18 MSC Server 2.1 Describe the MTX18 SSG deployment options 2.2 Identify SSG hardware and software provisioning actions 2.3 Describe MGW as Signaling Gateway implementation 3 Describe the SMS Performance Management Tool Enhancements 3.1 Describe the characteristics, functions and benefits of the Short Message Service (SMS) performance management tool enhancements feature. 3.2 Identify the impacts of the SMS performance management tool enhancements feature. Target audience The target audience for this course is: Deployment Engineers; Service Deployment Engineers; System Technicians; Service Technicians; System Engineers; Service Engineers CDMA Core Technicians, Network Operations, Field Technicians.

85 Prerequisites Successful completion of the following courses: CDMA product overview, LZU Duration and class size The length of the course is 0 days and 4 hours and the maximum number of participants is 1. Learning situation This course is available in virtual classroom training. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Introduction to the MTX18 MSC Server 2 hours 1 SSG Introduction in the MTX18 MSC Server 1 hour 1 SMS Performance Management Tool Enhancements 1 hour

86 CDMA Core Network Overview LZU R2B Description This course provides an overview of CDMA Core Network, including the MSC Server, MS 2000, GWC, VSE GWC, MGW, PMSC routing and CDMA Core network OA&M systems. It is useful for anyone interested in learning about the available CDMA Core Network and is a prerequisite for all CDMA Core Network courses. Learning objectives On completion of this course the participants will be able to: 1 Course Introduction. 2 Describe the fundamentals of Call processing in the MSC Server and describe the CDMA Hardware evolution from Circuit to Packet. 2.1 Describe the fundamentals of Call processing in the MSC Server 2.2 Describe the CDMA Hardware evolution from Circuit to Packet 3 Describe the MGW and GWC mode of Operation and the user interfaces used to perform OAM&P functions. 3.1 Describe the MGW and GWC mode of Operation. 3.2 Describe the Ericsson Multiservice Data Manager. 3.3 Describe the SAM21 Manager. 3.4 Describe the GWC Manager. 4 Describe Transcoder Free Operation. 4.1 Describe TrFO Phase 1 (TrFO1) 4.2 Describe TrFO Phase 2 (TrFO2) 5 Describe the various Media Server components available in the P-MSC and the user interface used to perform OAM&P functions. 5.1 Describe the various Media Server components available in the P-MSC 5.2 Describe the Media Server 2000 (MS 2000) series components. 5.3 Describe the User interface used with the MS Describe the Media Server and Media Resource Function (MS/MRF) 5.5 Describe the Announcement File Converter (AFC) 6 Describe Inter-Office call setup using the USP or SSG and the user interface used to perform OAM&P functions. 6.1 Describe Inter-Office call setup using the USP or SSG.

87 6.2 Describe the USP Manager 6.3 Describe the SSG Command Line Interface (CLI) 6.4 Describe Dynamic Packet Trunks (DPT). 7 Describe Dynamic Packet Trunks (DPT). 7.1 Describe DPT call setup using SIP GWCs and the VRDN. 7.2 Describe DPT call setup using LMSD. 7.3 Describe EVRC Peering MGW 8 Describe the MSC server and the VSE and the user interface used to perform OAM&P functions. 8.1 Describe the MSC server and the VSE 8.2 Describe the purpose, characteristics and functions of the Call Agent (CA), Distributed Call Agents (DCA), IP2BSC NOIS Signaling Agents (NSA) and IP2BSC IOS Signaling Agents (ISA). 8.3 Describe OAM&P interfaces used on the VSE 9 Describe the purpose of the Core Billing Manager (CBM) in the P-MSC and the user interface used to perform OAM&P functions. 9.1 Describe the purpose of the Core Billing Manager (CBM) in the P-MSC. 9.2 Describe the Core and Billing Manager (CBM) Maintenance (CBMMTC) Tool User Interface. 9.3 Describe the Core and Billing Manager (CBM) Billing Tool (BILLMTC) user interface. 10 Identify the purpose and functions of the Call Server (CS) LAN in the Packet Mobile Switching Center (P-MSC) and the user interfaces used to perform OAM&P functions Identify the purpose and functions of the Call Server (CS) LAN in the Packet Mobile Switching Center (P-MSC) Describe the ERS 8600 user interfaces Describe the SmartEdge 1200 user interfaces. Target audience The target audience for this course is: The target audience for this course is: Personnel interested in CDMA products or technicians and engineers responsible for operation, administration or maintenance of the CDMA Core Network. Prerequisites Successful completion of the following courses: The participant should have taken the LZU CDMA Portfolio Overview.

88 Duration and class size The length of the course is 0 days and 3 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL) Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 5 mins 1 Evolution from Circuit to Packet 15 mins 1 MGW and GWC Mode of Operation 20 mins 1 TrFO Calls 10 mins 1 Media Servers 15 mins 1 Inter-Office Calls using USP and SSG 25 mins 1 Inter Office Calls using Dynamic Packet Trunks 15 mins 1 MSC Server and the Versatile Service Engine (VSE) 20 mins 1 Core Billing Manager (CBM) 5 mins 1 P-MSC Routing (CS LAN) 10 mins 1 End of Course test 15 mins

89 CDMA Portfolio Overview LZU R2A Description This course provides an overview of CDMA products, including the CDMA Core Portfolio, CDMA Access Portfolio, and CDMA OA&M Portfolio. It is useful for anyone interested in learning about the available CDMA products and is a prerequisite for all CDMA courses. Learning objectives On completion of this course the participants will be able to: 1 Describe WBL Course Navigation 1.1 Describe WBL Course Navigation 2 Describe Ericsson s CDMA Web Based Learning (WBL) 2.1 Describe Ericsson s CDMA Web Based Learning (WBL) 3 Describe the Components of the CDMA Portfolio 3.1 Describe the major CDMA features 3.2 Describe the three components of the CDMA Network 3.3 Describe the function and major components of the CDMA Core Portfolio 3.4 Describe the function and major components of the CDMA Access Portfolio 3.5 Describe the function and major components of the CDMA OAM Portfolio 4 Describe Audio Signal Processing 4.1 Describe Audio Signal Processing 5 Describe the CDMA Core Portfolio 5.1 Describe the evolution from circuit to packet networks 5.2 Describe the components that make up the CDMA Packet Mobile Switching Center (P-MSC) 6 Describe the CDMA Access Portfolio 6.1 Describe the major functions of the Enhanced Base Station Controller (EBSC) 6.2 Describe the major functions of the Packet Data Serving Node (PDSN) Describe the major functions of the EV-DO network 6.4 Describe the market segment of each BTS 7 Describe the CDMA OA&M Portfolio 7.1 Describe the Telecommunications Management Network (TMN) model 7.2 Describe the CCMP6000 and the CCMP Describe the components of CDMA s Core OA&M Portfolio

90 7.4 Describe the components of CDMA s Access OA&M Portfolio 7.5 Describe the CDMA Unified Storage Server (USS) Target audience The target audience for this course is: The target audience for this course is: Personnel interested in CDMA products or technicians and engineers responsible for operation, administration or maintenance of the CDMA network. Prerequisites Successful completion of the following courses: none Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation elearning

91 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 WBL Course Navigation 5 1 Ericsson s CDMA Web Based Learning (WBL) 5 1 CDMA Portfolio Overview 20 1 Audio Signal Processing 5 1 CDMA Core Portfolio 20 1 CDMA Access Portfolio 30 1 CDMA OA&M Portfolio 30 1 End of Course test 15

92 CDMA Access Network Overview LZU R2C Description The CDMA Access Overview course is focusing on the Access part of the CDMA topology to give the participant a better understanding of the nodes involved in the call processing and the signal flow for both voice and data calls. this course is part of a curriculum path that increasingly develops the participant's knowledge of the CDMA solution. Learning objectives On completion of this course the participants will be able to: 1 Explain the place holder of this course in the curriculum path. 1.1 Describe how this course fits within the access curriculum 1.2 Explain what this course covers 1.3 Describe the objectives for this course 2 Define the evolution steps of the EBSC. 2.1 Explain the legacy architecture of CDMA 2.2 Describe the introduction of the CBRS 2.3 Describe the introduction of the CPDS 2.4 Describe the introduction of the CSVS 2.5 Explain the introduction of the CNFP management 3 Describe the call processing setup flow for the voice component in the access side of CDMA. 3.1 Define the voice Call-P setup flow of events with a legacy BSC 3.2 Describe the CNFP resource management 3.3 Explain the voice Call-P setup flow of events with an EBSC equipped with SBS 3.4 Describe the voice Call-P setup flow of events with an EBSC equipped with CSVS 4 Explain the call processing setup flow in the TrFO context. 4.1 Describe TrFO Phase 1 (TrFO1) 4.2 Describe TrFO Phase 2 (TrFO2) 5 Describe the call processing setup flow for the data component in the access side of CDMA. 5.1 Define the flow of events in the Call-P setup for data with a legacy BSC 5.2 Explain the Call-P setup flow of events for data with an EBSC equipped with SBS 5.3 Explain the Call-P setup flow of events for data with an EBSC equipped with CPDS 6 Explain the call processing setup flow for the data component in the 1xEVDO

93 context. 6.1 Define how the components involved in the call processing for data within the EVDO topology 6.2 Explain the call processing setup flow of events 7 Define bearer call flow for both Voice and Data. 7.1 Define the bearer path for voice using a legacy network 7.2 Describe the bearer path for voice using a CBRS and SBS resources 7.3 Explain the bearer path for voice using EBSC resources 7.4 Identify the bearer path for voice using a TrFO environment 7.5 Define the bearer path for data using a legacy network 7.6 Describe the bearer path for data using a CBRS and SBS resources 7.7 Explain the bearer path for data using EBSC resources 7.8 Describe the bearer path for data using 1xEVDO 8 Identify the evolution of the servers used in CDMA access. 8.1 Identify the different applications and servers used on the access side of the CDMA network. 8.2 Explain the evolution path of the different access application servers. Target audience The target audience for this course is: Service Planning Engineer, Service Design Engineer, Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician, System Administrator, Application Developer, Business Developer, Customer Care Administrator Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content.

94 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 5 min 1 Evolution from Legacy to EBSC 15 min 1 Voice Call-P Setup 15 min 1 TrFO Call-P Setup 15 min 1 Data Call-P Setup 15 min 1 1xEVDO Call-P Setup 15 min 1 Voice and Data Bearer Call Flow 15 min 1 OA&M Servers Evolution 15 min

95 IP Overview and Fundamentals LZU R1A Description This course contains of two parts: Overview and Fundamentals. Both ends with knowledge assessments. The first part gives an introduction into IP. It gives a short historic perspective. It explains the business drivers behind IP, how the networks are evolving to "all-ip", and how IP packet networks are different from circuit based telephony networks. Approximately 20 minutes long, including the knowledge assessment. The second part is made for people who want more technical detail. Fundamentals presents the main concepts behind the IP protocol. Approximately 55 minutes long, including the knowledge assessment. Learning objectives On completion of this course the participants will be able to: 1 Learn about the business drivers for IP 2 Learn about the historical background 3 Learn about how the industry is going towards all-ip 4 Learn about packet switching versus circuit switching 5 Understand what is TCP/IP 6 Know the IPv4 Packet Structure 7 Know the IPv4 Address Schema 8 Know about classless IP addressing 9 Learn about the life of an IP Packet Target audience The target audience for this course is: Anyone interested in learning about IP networking.

96 Prerequisites Successful completion of the following courses: None Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content.

97 IP Routing Overview and Fundamentals LZU R1B Description This course is devided into two sections; the Overview and the Fundamentals. Overview: This module describes what is IP routing, why we use it and how it works. It describes the different types of routing available. It also describes the difference between switching and routing. Fundamentals: This 30 minute lecture describes how IP packets are transmitted in an IP network. Provides information about how a routing table is populated with routing data. It explains the purpose and main functionalities of dynamic routing protocols. Learning objectives On completion of this course the participants will be able to: 1 Know the basics of IP routing. 2 Describe how IP addresses and subnet masks used. 3 Understand the differences between routing and switching. 4 Know what routers and routing tables are. 5 Compare static versus dynamic routing protocols. 6 Understand the difference between interior and exterior routing protocols. 7 Describe what IP routing is. 8 Understand how IP packets are transmitted. 9 Know the purpose and main characteristics of dynamic routing protocols. 10 Compare Distance Vector and Link State Advertisement routing protocols. 11 Understand the function of a Default Gateway router. 12 Define what is Route summarization. 13 Tell how does Administrative Distance influence route selection. 14 Describe the importance of Convergence Time. Target audience The target audience for this course is:

98 Anyone interested in learning about IP routing. Prerequisites Successful completion of the following courses: LZU R1A, IP Overview and Fundamentals Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content.

99 CDMA RBS 6102 Overview LZU R1B Description The RBS 6102 Overview Web Based Learning is useful to anyone who wants to know about the different aspects of the RBS 6102 in a CDMA context. It addresses the architecture, the hardware, the power, the capacity, the radio compatibilities and the interfaces. The participant will need to take this WBL as a pre-requisite before taking the follow up Instructor Lead Training (ILT) course, CDMA RBS 6102 Operations and Maintenance. Learning objectives On completion of this course the participants will be able to: 1 Navigate the Ericsson Web Based Learning 1.1 Describe how to navigate through the WBL 1.2 Explain the different environmental buttons available 2 Define the scope of the CDMA RBS 6102 Overview WBL 2.1 Explain each course objectives 3 Describe Ericsson s Multi-Standard RBS 6102 in a CDMA context 3.1 Describe the RBS 6000 family and multi-standard capabilities 3.2 Explain the added values of using the multi-standard RBS Describe the RBS 6102 supported features 3.4 Explain the RBS 6102 cabinet layout 4 Explain the power needs and options for the RBS Explain the different power options available for the RBS Describe the Battery Backup option 4.3 Explain the Power Connection Unit (PCU) 4.4 Describe the Power Supply Unit (PSU) 4.5 Explain the Power Distribution Unit (PDU) 4.6 Describe the Power Filter Unit (PFU) 4.7 Explain the Battery Fuse Unit (BFU) 4.8 Describe the Power Connection Filter (PCF) 4.9 Explain the Surge Protection Devices (SPD) module 4.10 Describe the OVP Alarm Module 5 Describe the hardware involved for applying CDMA to the Ericsson Multi-standard RBS Define the Support Control Unit (SCU)

100 5.2 Describe the Support Alarm Unit (SAU) 5.3 Explain the Support Hub Unit (SHU) 5.4 Describe the Digital Baseband Unit (DBU) 5.5 Define the Channel Element Expansion Module (CEEM) 5.6 Explain the Digital Baseband Advance (DBA) 5.7 Describe the auxiliary Multiplexing Unit (XMU) 5.8 Define the Digital Unit LTE (DUL) 5.9 Explain the pluggable data cards 5.10 Describe the pluggable voice cards 5.11 Define the Climate Unit 6 List the different radio options available for the Multi-modal RBS Describe the radio compatibilities while using a DBU or DBA within the RBS Describe the concept of a Remote Radio Unit (RRU) 6.3 Explain the concept behind the Virtual Multi-Frequency Radio Module (VMFRM) 7 Describe connectivity in the CDMA RBS Define the connectivity between the DBU and the CEEM 7.2 Describe the connectivity between the DBA and the CEEM 7.3 Explain the Mini-Link SP 210 connectivity 7.4 Describe the Mini-Link TN 2p or 6p connectivity 7.5 Explain the signal flow through the CDMA RBS Define the different OAM applications utilized 8.1 Explain the different management layers 8.2 Enumerate the management applications used with the multi-standard RBS Describe the management umbrella of the OSS-RC 8.4 Explain the management umbrella of the BSSM 8.5 Describe the management umbrella of the C-EMS 8.6 Explain the provisioning umbrella of CACP 8.7 Describe the management umbrella of the DO-EMS 8.8 Describe the management umbrella of the EV-DO CEMS Target audience The target audience for this course is: Service Planning Engineer, Service Design Engineer, Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician Prerequisites Successful completion of the following courses: Good knowledge of the CDMA technology

101 Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Introduction to Ericsson s CDMA Documentation 5 min 1 RBS 6102 in CDMA 5 min 1 Power 20 min 1 Hardware overview 20 min 1 Radio compatibility 5 min 1 Connection interfaces 10 min

102 CDMA RBS 6102 Operations and Maintenance LZU R1B Description The RBS 6102 Operations and Maintenance course is designed to give a good understanding of the management of this RBS. It covers all the aspects of the RBS components and how it fits in the complete CDMA architecture. Such concepts as the hardware, the connectivity, the call resource allocation and flow, the backhaul options and interfaces are discussed in this course. The participant will gain the necessary knowledge to perform the operations tasks as well as the maintenance. Learning objectives On completion of this course the participants will be able to: 1 Describe the course scope and objectives 1.1 Describe the course scope 1.2 Explain the course objectives 2 Describe the hardware involved for the CDMA implementation in the RBS Describe the Digital Baseband Unit (DBU) 2.2 Define the Channel Element Expansion Module (CEEM) 2.3 Explain the Digital Baseband Advanced (DBA) 2.4 Describe the auxiliary Multiplexing Unit (XMU) 2.5 Define the Digital Unit LTE (DUL) 2.6 Explain the pluggable DOM 2.7 Explain the pluggable AEM Describe the pluggable XCEM-A 2.9 Explain the different Power elements 3 Explain the VMFRM concept 3.1 Explain enodeb concept 3.2 Describe the VMFRM concept 4 Explain the connectivity in the RBS Describe the CDMA, EBSC and CBRS fundamentals 4.2 Explain what is HSSL 4.3 Describe the HSSL connectivity within the RBS Explain what is CPRI 4.5 Describe the CPRI connectivity with the RBS Define the SP210 connectivity 4.7 Explain the timing connectivity

103 5 Explain the different backhaul options available 5.1 Explain the IPBH backhaul option 5.2 Describe the RBS backhaul connectivity 5.3 Explain the SIU option 5.4 Describe the Microwave backhaul option 5.5 Explain the RBS to CBRS backhaul 6 Describe the call resource allocation and call flow in the RBS Explain the call resource allocation for voice and data 6.2 Explain the call flow for voice and data 7 Explain the different Management applications used with the RBS Describe the CSP interfaces used in the monitoring of the Multi-Standard RBS 6102 with CDMA components. 7.2 Describe the OSS-RC tools used in the monitoring of the Multi-Standard RBS 6102 with CDMA components. 8 Describe the Maintenance for the RBS Explain the schedule for preventive maintenance 8.2 Describe the restart behaviors 8.3 Describe the maintenance button on the different Units 8.4 Explain the Optical Indicators on the Units 8.5 Describe the preventive maintenance 8.6 Describe the maintenance actions 9 Describe the fault management scheme and applications used for fault management 9.1 Describe the Fault Management process 9.2 Explain the Fault Management process for the VMFRM 9.3 Describe the CSP applications used for Fault Management 9.4 List the features and functions of the OSS Fault Management environment 9.5 List the user tools for managing alarms in the OSS 9.6 Describe the features and functions of the Alarm List Viewer (ALV), Alarm Status Matrix (ASM), and Alarm Log Browser (ALB) tools 9.7 Develop a work flow for alarm handling using the FM tools on the OSS and CPI Target audience The target audience for this course is: Service Planning Engineer, Service Design Engineer, Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician Prerequisites Successful completion of the following courses: CDMA RBS 6102 Overview, LZU Good knowledge of the CDMA technology

104 Duration and class size The length of the course is 3 days and 0 hours and the maximum number of participants is 8. Learning situation This course is based on theoretical and practical instructor-led lessons given in both classroom and in a technical environment using equipment and tools, which are accessed remotely. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Introduction 30 min 1 Hardware overview 3 hours 1 enodeb and VMFRM 1 hour 1 Connectivity 1 hour 2 Backhaul options 1.5 hours 2 Call resources allocation and Call flow 1.5 hours 2 OA&M interfaces 3 hours 3 Maintenance 2 hours 3 Fault Management 4 hours

105 CDMA 1xEVDO Release 10.0 Delta LZU R1A Description The CDMA 1xEVDO Release 10 Delta Course describes the features included in Release 10. The descriptions include an overview of the feature, feature benefits and Engineering Considerations. This is not an entry-level course. The assumption is made that participants have completed other CDMA 1xEVDO training that did not include these features. Therefore this course is intended to explain the changes made due to the introduction of these features. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 1.1 Understand the navigation principles 2 Identify the purpose of this course. 2.1 Define the scope of this course 3 Identify where and how to access the documentation for CDMA. 3.1 Use the CPI Store to access CDMA documentation. 4 Describe the 1xEVDO Release 10 features 4.1 Release 10 Feature List 4.2 DO-EMS Enhancements 4.3 DO-EMS Internal robustness enhancements 4.4 DO-EMS Enhancement requests 4.5 Network Element Internal robustness enhancements 4.6 Network Element enhancement requests 4.7 Radio Frequency performance enhancements 4.8 RNC 9000 enhancements Target audience The target audience for this course is: Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, CDMA Access Technicians, Network Operations, Field Technicians

106 Prerequisites Successful completion of the following courses: Have a good working knowledge of CDMA Access components and the 1XEVDO. Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL) Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Navigating through the course 5 minutes 1 Course Introduction 5 minutes 1 Introduction to Ericsson s CDMA Documentation 5 minutes 1 1xEVDO Release 10 features 45 minutes

107 CDMA 2000 Air Interface Overview LZU R1A Description This course provides the understanding regarding concepts and terminology associated with the CDMA2000 air interface. Major topics discussed include coding, modulation schemes, forward and reverse link channels, channel generation, high level call flow, forward and reverse link power control and handoffs mechanisms. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 2 Identify the purpose of this course. 3 CDMA2000 Overview 4 Coding Used in CDMA2000 Systems 5 Forward and Reverse link channels 6 Reverse Link Power Control and Call Processing in CDMA Handoff Types and Addressing Scheme Target audience The target audience for this course is: Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, CDMA Access Technicians, Network Operations, Field Technicians Prerequisites Successful completion of the following courses: Have a good working knowledge of CDMA Access components and EV-DO.

108 Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL) Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Navigating through the course 5 minutes 1 Course Introduction 5 minutes 1 CDMA2000 Overview 30 minutes 1 Coding Used in CDMA2000 Systems 25 minutes 1 Forward and Reverse link channels 20 minutes 1 Reverse Link Power Control and Call Processing in CDMA minutes 1 Handoff Types and Addressing Scheme 20 minutes

109 CDMA EBSC Overview LZU R2A Description This course provides an overview of the evolution of the CDMA Enhanced Base Station Controller (EBSC), from the legacy network Base Station Controller (BSC) to the Enhanced Base Station Controller (EBSC). It also defines all the hardware found in the contemporary EBSC. The connectivity aspects serving the intershelf and intrashelf are fully covered. This course is usefull to build knowledge of the EBSC prior to the leader-led operations and maintenance course. Learning objectives On completion of this course the participants will be able to: 1 Explain the objectives of this course 1.1 Explain the course objectives 2 Describe the evolution from the BSC to the EBSC. 2.1 Describe the legacy architecture of CDMA 2.2 Describe the introduction of the CBRS 2.3 Describe the introduction of the CPDS 2.4 Describe the introduction of the CSVS 2.5 Describe the introduction of the CNFP management 3 Describe the hardware components of the EBSC. 3.1 Explain the CBRS frame layout 3.2 Describe the common cards found in the EBSC 3.3 Explain the hardware found in the CBRS 3.4 Describe the different cards that can be present in the CPDS 3.5 Explain the different cards that can be present in the CSVS 4 Explain the EBSC connectivity (Inter-shelf and Intra-shelf). 4.1 Explain the CCMC connectivity 4.2 Describe the 11pMSW connectivity 4.3 Explain the IMH 4.4 Explain the 24pBCNW connectivity 4.5 Describe the difference between BCN V1 and BCN V2 4.6 Describe the BISC functionality 4.7 Explain the ISTL functionality 4.8 Describe the IP Backhaul feature 4.9 Explain the ISSHO over IP feature

110 4.10 Describe the IP2BSC connectivity 4.11 Explain the BSC Inter-shelf Connectivity (BEIC) Target audience The target audience for this course is: Service Planning Engineer, Service Design Engineer, Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Access Network Overview, LZU Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 WBL Navigation 5 min 1 Course Introduction 5 min 1 EBSC Overview 10 min 1 EBSC Hardware 30 min 1 EBSC Connectivity 70 min

111 CDMA VSE GWC and 13U Delta LZU R2A Description The P-MSC is evolving, and with this evolution, new features were introduced that impact the Versatile Service Engine (VSE) including the use of the 13U frame and the introduction of the VSE Gateway Controllers. This delta course focuses on the purposes, hardware, configurations and support of these new features. This is not an entry-level course. The assumption is made that participants have completed other CDMA P-MSC training that did not include these features. Therefore this course is intended to explain the changes made due to the introduction of these features. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 1.1 Use the buttons to navigate the WBL. 1.2 Open the Glossary. 2 Identify the purpose of this course. 2.1 Describe the course scope. 2.2 Identify the course objectives. 3 Describe the 13U Versatile Service Engine (VSE) hardware. 3.1 Compare the 12U and 13U frames. 3.2 Describe the 13U frame hardware components. 4 Explain the purpose, characteristics and functions of the VSE Gateway Controller (GWC). 4.1 Explain the purpose and functions of the VSE GWC feature. 4.2 Describe the VSE GWC instances. 5 Describe VSE blades, shelf layouts and configurations as they apply to the 13U and VSE GWCs. 5.1 Identify the blades used on the 13U, including their functions, characteristics and fault indicators. 5.2 Describe the configurations and shelf layouts involving the 13U. 6 Identify the user interfaces and commands that can be used to manage the VSE GWCs.

112 6.1 Describe the use of Versatile Service Engine (VSE) command line interface (CLI) commands that are used specifically to manage the VSE Gateway Controllers (GWC). 6.2 Identify the user interfaces that can be used for fault management of the VSE GWCs. 7 Describe how the GWC Manager is used with the VSE GWCs. 7.1 Describe the management of the VSE GWCs through the use of GWC Manager. 7.2 Compare the SAM21 GWCs and the VSE GWCs in the areas that include hardware and how various management functions are performed on these platforms. Target audience The target audience for this course is: Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician. Prerequisites Successful completion of the following courses: - Have a good working knowledge of the VSE prior to the introduction of these new features - The completion of the LZU , CDMA VSE Operations and Maintenance is recommended. Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL)

113 Time schedule The time required always depends on the knowledge of the attending participants and the minutes stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Navigating through the course 5 minutes 1 Course Introduction 3 minutes 1 13U VSE Hardware 10 minutes 1 Purpose, Characteristics and Functions of the VSE GWCs 10 minutes 1 P-MSC 13U and VSE GWC Blades, Shelf Layouts and Configurations 24 minutes 1 Managing the VSE GWCs using the VSE User Interfaces 16 minutes 1 The Use of GWC Manager for VSE GWCs 13 minutes 1 End of Course Evaluation 15 minutes

114 Ericsson CDMA MS and MRF and AFC Overview LZU R2A Description There are a number of components that make up the CDMA P-MSC Core network. This course focuses on the Media Server and Media Resource Function (MS/MRF) and the Announcement File Converter (AFC). This is one of the Nodal Overview WBL courses that provide the participant detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. Learning objectives On completion of this course the participants will be able to: 1 Identify the purpose of this course. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Identify the audio components within the P-MSC. 2.1 Describe the P-MSC audio components and their primary functions. 2.2 List the benefits of the MS/MRF. 3 Describe the Media Server and Media Resource Function (MS/MRF). 3.1 Describe the purposes and functions of the Media Server and Media Resource Function (MS/MRF). 3.2 Identify the hardware that supports the MS/MRF. 3.3 Describe communications of the Call Agents and AFCs to the MS/MRF and the Media Server 2000s. 4 Describe the Announcement File Converter (AFC). 4.1 Describe characteristics and functions of the Announcement File Converter (AFC). 4.2 Identify the audio elements of the AFC. 4.3 Describe the AFC Tool commands and user interface. Target audience The target audience for this course is:

115 Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, Field Technicians, fundamentals. Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1 Learning situation Web Based Learning Time schedule The time required always depends on the knowledge of the attending participants and the minutes stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Course Introduction 2 minutes 1 Review of the P-MSC Audio Components 3 minutes 1 An Overview of the MS/MRF 6 minutes 1 An Overview of AFC 9 minutes 1 End-of-Course Quiz 15 minutes

116 Ericsson CDMA CNM Common Web Desktop (CWD) Overview LZU R1A Description There are a number of components that make up the CDMA P-MSC Core network. The CDMA Network Manager (CNM) is an Element Management System (EMS) that is used to manage the CDMA Core network. A part of the CNM, prior to CNM5.0 PB4, was the Common Web Desktop (CWD), but CNM5.0 PB4 removes the CWD. This course focuses on the CNM CWD. This is one of the Nodal Overview WBL courses that provide the participant detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. This course is not applicable for those using CNM5.0 PB4 or later. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 2 Identify the purpose of this course. 3 Identify where and how to access the documentation for CDMA. 3.1 Use the CPI Store to access CDMA documentation. 4 Perform steps to log into CNM Common Web Desktop (CWD), log out of CNM and change your password. 4.1 Log into the CNM Common Web Desktop (CWD). 4.2 Log out of the CNM CWD. 4.3 Change the password you use to access the CWD. 5 Use the functions available in the Common Web Desktop. 5.1 Describe the characteristics and features of the CNM Common Web Desktop (CWD). 5.2 Describe the CNM CWD pages and how to use them. 5.3 Explain how to use the help functions in the CNM CWD. 5.4 Describe additional capabilities of CNM CWD, including tables, charts, and My Pages.

117 6 Explain the functions performed by the Administrator within the CNM Common Web Desktop. 7 Create fault reports from Common Web Desktop (CWD). Target audience The target audience for this course is: Network Deployment Engineers; Service Deployment Engineers; System Technicians; Service Technicians; System Engineers; Service Engineers, CDMA Core Technicians, Network Operations, Field Technicians. Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Core Network Overview Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL)

118 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Navigating through the course 5 minutes 1 Course Introduction 5 minutes 1 Introduction to Ericsson s CDMA Documentation 4 minutes 1 Getting Started with the Common Web Desktop 5 minutes 1 Using the Common Web Desktop 28 minutes 1 CWD Administration 13 minutes 1 CWD Fault Reports 5 minutes 1 End of Course Evaluation 15 minutes

119 CDMA SAM21 and GWC Overview LZU R1A Description There are a number of components that make up the CDMA P-MSC Core network. This course focuses on the Services Application Module 21 (SAM21) and the SAM21-based Gateway Controller (GWC). This is one of the Nodal Overview WBL courses that provide the participant detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. In today's P-MSC network, there are two types of Gateway Controllers: SAM21-based GWCs and Versatile Service Engine (VSE) based GWCs. This course focuses on the SAM21 and the GWCs residing on the SAM21. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 2 Identify the purpose of this course. 3 Identify where and how to access the documentation for CDMA. 3.1 Use the CPI Store to access CDMA documentation. 4 Describe the purposes of the SAM21s and the GWCs. 4.1 Describe the purposes of the Services Application Module 21 (SAM21). 4.2 Describe the purposes of the Gateway Controllers (GWC). 5 Identify the purpose, location and fault tolerant features of system cards on the SAM21 shelf. 6 Explain the shelf location and interfacing links of the SAM21-based Gateway Controller (GWC) hardware. 7 Describe the SAM21 Manager. 8 Describe the GWC Manager as it applies to the SAM21-based GWCs.

120 Target audience The target audience for this course is: Network Deployment Engineers; Service Deployment Engineers; System Technicians; Service Technicians; System Engineers; Service Engineers, CDMA Core Technicians, Network Operations, Field Technicians. Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Core Network Overview Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL) Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Navigating through the Course 4 minutes 1 Course Introduction 5 minutes 1 Introduction to Ericsson s CDMA Documentation 3 minutes 1 The Purposes of SAM21 and GWCs 10 minutes 1 SAM21 Hardware 11 minutes 1 SAM21-based GWC Hardware 6 minutes 1 SAM21 Manager 5 minutes 1 GWC Manager for SAM21-based GWCs 4 minutes 1 End of Course Evaluation 12 minutes

121 Ericsson CDMA PMSC CBM Overview LZU R1A Description There are a number of components that make up the CDMA P-MSC Core network. This course focuses on the CDMA P-MSC Element Management System (EMS) called Core and Billing Manager (CBM). This is one of the Nodal Overview WBL courses that provide the participant detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 2 Identify the purpose of this course. 3 Identify where and how to access the documentation for CDMA. 3.1 Use the CPI Store to access CDMA documentation. 4 Describe the purposes of the Core Billing Manager (CBM) in the P-MSC. 5 Identify the hardware platform and fault tolerant features for the Core Billing Manager (CBM). 6 Describe the Core and Billing Manager (CBM) Maintenance (CBMMTC) and the CBM Billing Tool (BILLMTC) user interfaces. 6.1 Describe the Core and Billing Manager (CBM) Maintenance (CBMMTC) user interface. 6.2 Describe the Billing Manager (CBM) Billing Tool (BILLMTC) user interface. Target audience The target audience for this course is: Network Deployment Engineers; Service Deployment Engineers; System Technicians; Service Technicians; System Engineers; Service Engineers, CDMA Core Technicians, Network Operations, Field Technicians.

122 Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Core Network Overview Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL) Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Navigating through the course 5 minutes 1 Course Introduction 5 minutes 1 Introduction to Ericsson s CDMA Documentation 4 minutes 1 A Review of the Purposes of CBM 3 minutes 1 CBM Hardware 12 minutes 1 CBM User Interfaces 5 minutes 1 End of Course Evaluation 15 minutes

123 Ericsson CDMA USP Overview LZU R1A Description There are a number of components that make up the CDMA P-MSC Core network. This course focuses on the Universal Signaling Point (USP). This is one of the Nodal Overview WBL courses that provide the participant detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. The P-MSC networks may use the Universal Signaling Point (USP) or the SigTran Services Gateway (SSG) to perform the same tasks. This course only applies to those working with P-MSC networks that continue to use the USP. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 2 Identify the purpose of this course. 3 Identify where and how to access the documentation for CDMA. 3.1 Use the CPI Store to access CDMA documentation. 4 Describe the purposes of the Universal Signaling Point (USP) in the P-MSC. 5 Describe the features introduced for the USP in MTX17. 6 Identify the characteristics and functions for the cards in the USP shelf. This includes card types, card locations and their fault tolerant features. 7 Describe the USP Manager. Target audience The target audience for this course is: Network Deployment Engineers; Service Deployment Engineers; System Technicians; Service Technicians; System Engineers; Service Engineers, CDMA Core Technicians,

124 Network Operations, Field Technicians. Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Core Network Overview Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL) Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Navigating through the course 5 minutes 1 Course Introduction 5 minutes 1 Introduction to Ericsson s CDMA Documentation 4 minutes 1 Review of the Purposes of the USP 4 minutes 1 MTX17 Features for the USP 7 minutes 1 USP Hardware 15 minutes 1 USP Manager 5 minutes 1 End of Course Evaluation 15 minutes

125 Ericsson CDMA CNM Overview LZU R2A Description There are a number of components that make up the CDMA P-MSC Core network. This course focuses on the Element Management System called CDMA Network Manager. This is one of the Nodal Overview WBL courses that provide the participant detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. Learning objectives On completion of this course the participants will be able to: 1 Identify the purpose of this course. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Describe the purpose, characteristics and functions of the CNM. 2.1 Describe the Telecommunications Management Network (TMN) model. 2.2 Describe the purposes of CNM and the functions it performs. 2.3 Identify the management strategies used for the P-MSC. 3 List the hardware associated to the CNM. 3.1 List the hardware associated to the CNM. 3.2 Describe the CCMP Describe the CCMP Explain the high availability capabilities of the CNM. 4.1 Define high availability. 4.2 Describe how high availability applies to the CNM. 5 Describe the use of the CNM user interface. 5.1 Describe how to access CNM. 5.2 Explain the characteristics of Component Manager (CM) and how to use it. Target audience The target audience for this course is:

126 Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, Field Technicians, fundamentals. Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning Time schedule The time required always depends on the knowledge of the attending participants and the minutes stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Course Introduction 2 minutes 1 CNM Purpose, Characteristics and Functions 7 minutes 1 CNM Hardware 11 minutes 1 High Availability and the CNM 9 minutes 1 Using the CNM 10 minutes 1 End-of-Course Quiz 15 minutes

127 Ericsson CDMA SE1200 Overview LZU R2A Description There are a number of components that make up the CDMA P-MSC Core network. This course focuses on the SmartEdge 1200 (SE1200) in the Call Server local area network (CS LAN). There are two different components that may be used within the CS LAN: the SmartEdge 1200 or the Ethernet Routing Switch This course is only applicable to the SmartEdge This is one of the Nodal Overview WBL courses that provide the participant detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. Learning objectives On completion of this course the participants will be able to: 1 Identify the purpose of this course. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Identify the purposes, functions and components of the Call Server (CS) LAN. 2.1 Identify the purpose and functions of the Call Server (CS) LAN in the Packet Mobile Switching Center (P-MSC). 2.2 Identify the components that may be used as the routers within the CS LAN. 2.3 Describe the characteristics of the SmartEdge 1200 (SE1200). 3 Identify the shelf and card locations, functions of the card types and fault tolerant features of a SmartEdge 1200 in the P-MSC. 3.1 Identify the shelf and card locations, functions of the card types and fault tolerant features of a SmartEdge 1200 in the P-MSC. 4 Describe the SmartEdge 1200 user interfaces. 4.1 Describe the SmartEdge 1200 user interfaces.

128 Target audience The target audience for this course is: Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, Field Technicians, fundamentals Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning Time schedule The time required always depends on the knowledge of the attending participants and the minutes stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Course Introduction 2 minutes 1 P-MSC Routing and the Purposes of the SE minutes 1 SE1200 Hardware 9 minutes 1 SE1200 User Interfaces 5 minutes 1 Quiz 15 minutes

129 Ericsson CDMA ERS 8600 Overview LZU R2A Description There are a number of components that make up the CDMA P-MSC Core network. This course focuses on the Ethernet Routing Switch 8600 (ERS 8600) in the Call Server local area network (CS LAN). There are two different components that may be used within the CS LAN: SmartEdge 1200 or Ethernet Routing Switch This course is only applicable to the ERS This is one of the Nodal Overview WBL courses that provide the participant detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. Learning objectives On completion of this course the participants will be able to: 1 Identify the purpose of this course. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Identify the purposes, functions and components of the Call Server (CS) LAN. 2.1 Identify the purpose and functions of the Call Server (CS) LAN in the Packet Mobile Switching Center (P-MSC). 2.2 Identify the components that may be used as the routers within the CS LAN. 2.3 Describe the characteristics of the ERS Identify the shelf and card locations, functions of the card types and fault tolerant features of an Ethernet Routing Switch 8600 in the P-MSC. 3.1 Identify the shelf and card locations, functions of the card types and fault tolerant features of an Ethernet Routing Switch 8600 in the P-MSC. 4 Describe the ERS 8600 user interfaces. 4.1 Describe the ERS 8600 user interfaces. Target audience The target audience for this course is:

130 Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, Field Technicians, fundamentals. Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning Time schedule The time required always depends on the knowledge of the attending participants and the minutes stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Course Introduction 2 minutes 1 P-MSC Routing and the Purposes of the ERS minutes 1 ERS 8600 Hardware 11 minutes 1 ERS 8600 User Interfaces 4 minutes 1 Quiz 15 minutes

131 Ericsson CDMA MGW Overview LZU R2A Description There are a number of components that make up the CDMA P-MSC Core network. This course focuses on the Ericssion PPX and the Media Gateway (MGW) in the P-MSC. This is one of the Nodal Overview WBL courses that provide the participant detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. Learning objectives On completion of this course the participants will be able to: 1 Identify the purpose of this course. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Describe the purposes of the Ericsson PPX and the Media Gateway in the P- MSC. 2.1 Describe what the Ericsson PPX and the Media Gateway (MGW) is and does in the P-MSC network. 2.2 Describe the Media Server functions of the MGW. 2.3 Describe the functions of the MGW for TrFO Describe the functions of the MGW for imgcf. 3 Identify the hardware of the Ericsson PPX and the Media Gateway in the P- MSC. 3.1 Identify the shelf and card locations, characteristics, functions and fault tolerant features of the cards within the Ericsson PPX and Media Gateway (MGW). 3.2 Describe the High Density Configuration for the CDMA MGW. 4 Describe the user interfaces used for the Media Gateway (MGW). 4.1 Describe the Ericsson Multiservice Data Manager user interface. 4.2 Describe the Ericsson PPX Command Line Interface (CLI). Target audience The target audience for this course is:

132 Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, Field Technicians, fundamentals. Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation Web Based Learning Time schedule The time required always depends on the knowledge of the attending participants and the minutes stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Course Introduction 2 minutes 1 Purposes of the PPX and MGW in the P-MSC 19 minutes 1 MGW Hardware 20 minutes 1 MGW User Interfaces 12 minutes 1 End-of-Course Quiz 15 minutes

133 Ericsson CDMA VSE Overview LZU R3A Description There are a number of components that make up the CDMA P-MSC Core network. This course focuses on the Versatile Service Engine (VSE) in the P-MSC. This is one of the Nodal Overview WBL courses that provide the participant with detailed descriptions of the CDMA Core Network components. The courses provide frame, shelf and card views of the nodes as well as a more intensive description of the OA&M system used to perform OAM functions on the nodes, as applicable. This course is applicable to CDMA Core Technicians, Network Operations and Network Engineers. Learning objectives On completion of this course the participants will be able to: 1 Identify the purpose of this course. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Describe the purposes of the VSE within the P-MSC network, including the roles of the VSE for the MSC Servers and the VSE Gateway Controllers (GWC). 2.1 Describe the purposes of the Versatile Service Engine (VSE). 2.2 Describe the purposes of the MSC Server 2000s and MSC Server 3000s. 2.3 Describe the purposes of the VSE Gateway Controllers (GWC). 2.4 Describe the functions of the MSC Server for the integrated Media Gateway Control Function (imgcf). 2.5 Describe the purposes of the additional features related to the VSE. 3 Describe the VSE frame types and frame hardware components used in the P-MSC. 3.1 Compare the 12U and 13U frames and shelves. 3.2 Describe the 12U frame hardware components. 3.3 Describe the 13U frame hardware components. 3.4 Explain the Intelligent Platform Management Interface (IPMI). 4 Identify the characteristics and functions of the VSE blades used in the P-MSC. This includes the characteristics and functions of the VSE GWC instances configured on the blades. 4.1 Identify the characteristics and functions of the blades used in the VSE for the P-

134 MSC. 4.2 Describe the characteristics and functions of the GWC instances configured on the GWC blades. 5 Identify the configurations of the MSC Servers and Versatile Service Engine Gateway Controllers (VSE GWC) at the network, frame and shelf levels. 5.1 Identify the configurations of the MSC Servers and Versatile Service Engine Gateway Controllers (VSE GWC) at the network level. 5.2 Identify the configurations of the MSC Servers and VSE GWCs at the frame level. 5.3 Identify the configurations of the MSC Servers and VSE GWC at the shelf level. 6 Describe the characteristics of the software used by the VSEs in the CDMA P-MSC. 6.1 Identify the layers in the software that is used by the VSEs in the CDMA P-MSC. 6.2 Describe the functions of each of the software layers. 7 Describe the user interfaces related to the MSC Servers and VSE GWCs. 7.1 Describe the purposes and use of the VSE Command Interpreter (CI). 7.2 Describe the purposes and use of the VSE Command Line Interface (CLI). 7.3 Describe the purposes and use of the VSE Maintenance and Administration Position Command Interpreter (MAPCI). 7.4 Describe the purposes and use of the GWC Manager for VSE GWCs. Target audience The target audience for this course is: Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician, Fundamentals Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Duration and class size The length of the course is 0 days and 3 hours and the maximum number of participants is 1. Learning situation Web Based Learning

135 Time schedule The time required always depends on the knowledge of the attending participants and the minutes stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Course Introduction 2 minutes 1 The Purposes of the VSE 26 minutes 1 VSE 12U and 13U Frames 33 minutes 1 VSE Blades 34 minutes 1 VSE Configurations 16 minutes 1 VSE Software Characteristics 5 minutes 1 VSE User Interfaces 22 minutes 1 End-of-Course Quiz 15 minutes

136 Ericsson CDMA P-MSC Audio Provisioning Server (APS) Overview and Operations LZU R1A Description P-MSC operations skills are essential for the management of the components within the P- MSC. This course focuses on the overview and operations of the Audio Provisioning Server (APS). It examines the functions and hardware characteristics of the APS. It also looks at the APS Manager, APS Administrator and Audio Manager user interfaces. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 1.1 Use the buttons to navigate the WBL. 1.2 Open the Glossary. 2 Identify the purpose of this course. 2.1 Describe the course scope. 2.2 Identify the course objectives. 3 Identify the P-MSC audio components and the purposes they perform. 3.1 List the P-MSC audio components. 3.2 Describe the functions of the Audio Provisioning Server (APS). 4 Describe the hardware that supports the APS in the P-MSC. 4.1 Describe the Audio Provisioning Server (APS) hardware and its characteristics. 4.2 Identify the APS connectivity to the CS LAN. 4.3 Describe the reliability and high availability characteristics of the APS. 5 Describe the use of the APS Manager user interface. 5.1 Describe the characteristics and functions of the APS Manager. 5.2 Explain how to use the APS Manager. 6 Describe the use of the audio management user interfaces. 6.1 Describe the characteristics, functions and use of the APS Administrator user interface. 6.2 Describe the characteristics, functions and use of the Audio Manager user interface.

137 Target audience The target audience for this course is: System Technician, Service Technician, Field Technician Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning Time schedule The time required always depends on the knowledge of the attending participants and the time stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Navigating through the Course 4 minutes 1 Course Introduction 2 minutes 1 Review of the P-MSC Audio Components 3 minutes 1 Audio Provisioning Server (APS) Hardware 10 minutes 1 Use the APS Manager 8 minutes 1 Use the Audio Management User Interfaces 19 minutes 1 End of Course Quiz 15 minutes

138 Ericsson CDMA USP Operations and Maintenance LZU R1A Description P-MSC operations skills are essential for the management of the components within the P- MSC. This course focuses on the operations and maintenance of the Universal Signaling Point (USP). It examines the hardware characteristics related to fault management. It also looks at the USP Manager user interface and its functions and capabilities that relate to operations and maintenance tasks for the USP. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 1.1 Use the buttons to navigate the WBL. 1.2 Open the Glossary. 2 Identify the purpose of this course. 2.1 Describe the course scope. 2.2 Identify the course objectives. 3 Identify the hardware characteristics of the Universal Signaling Point (USP) related to faults and fault management. 3.1 Identify the hardware characteristics of the Universal Signaling Point (USP) related to faults and fault management. 3.2 Identify connectivity between the USP and the CS LAN. 4 Describe fault management functions that can be performed using the USP Manager. 4.1 Describe where USP alarms and logs are sent. 4.2 Explain the use of the USP Manager menus, tabs and windows for fault management purposes. 5 Explain the purpose and use of the REx test command. 5.1 Identify the purpose of REx tests. 5.2 Describe how to use REx testing on the USPs. 6 Describe how to view operational measurements (OM) for the USP. 6.1 Identify how to access operational measurements (OM) in the USP Manager.

139 6.2 Describe how to modify OM thresholds in USP Manager. Target audience The target audience for this course is: System Technician, Service Technician, Field Technician Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Ericsson CDMA USP Overview, LZU Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning Time schedule The time required always depends on the knowledge of the attending participants and the minutes stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Navigating through the course 4 minutes 1 Course Introduction 2 minutes 1 USP Hardware Characteristics for Fault Management 5 minutes 1 Using USP Manager for Fault Management 22 minutes 1 Using the REx Test Command 6 minutes 1 Viewing USP OMs 6 minutes 1 End of Course Evaluation 15 minutes

140 Ericsson CDMA SAM21 and GWC Operations and Maintenance LZU R1A Description P-MSC operations skills are essential for the management of the components within the P- MSC. This course focuses on the operations and maintenance of the Services Application Module 21 (SAM21) and the SAM21-based Gateway Controllers (GWC). It examines the hardware characteristics related to fault management. It looks at the SAM21 Manager and GWC Manager user interfaces and their functions and capabilities that relate to operations and maintenance tasks for the SAM21 and GWC. This course also includes SAM21 GWC backups and restores and SAM21 GWC diagnostic testing. Learning objectives On completion of this course the participants will be able to: 1 Navigate the WBL environment. 1.1 Use the buttons to navigate the WBL. 1.2 Open the Glossary. 2 Identify the purpose of this course. 2.1 Describe the course scope. 2.2 Explain the course objectives. 3 Identify the hardware characteristics of the SAM21 and the SAM21-based Gateway Controller (GWC) related to faults and fault management. 3.1 Identify the hardware characteristics of the SAM21 related to faults and fault management. 3.2 Identify the hardware characteristics of the SAM21-based Gateway Controller (GWC) related to faults and fault management. 4 Describe fault management functions that can be performed using the SAM21 Manager. 4.1 List the functions the SAM21 Manager can perform for operations and maintenance of the SAM21s. 4.2 Describe where SAM21 alarms and logs are sent. 4.3 Explain the use of the SAM21 Manager menus and windows for fault management purposes.

141 4.4 Describe the format of SAM21 logs and how to view them. 5 Describe fault management functions that can be performed using the GWC Manager for SAM21-based GWCs. 5.1 List the functions the GWC Manager can perform for operations and maintenance of the GWCs. 5.2 Describe where GWC alarms and logs are sent. 5.3 Explain the use of the GWC Manager menus and windows for fault management purposes. 5.4 Describe the format of SAM21 GWC logs and how to view them. 6 Explain how SAM21 GWC backups and restores are performed. 6.1 Describe how to back up a SAM21 GWC. 6.2 Describe how to restore a SAM21 GWC. 7 Describe SAM21 GWC-specific testing. 7.1 Perform SAM21 GWC hardware diagnostics. Target audience The target audience for this course is: System Technician, Service Technician, Field Technician Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Ericsson CDMA SAM21 & GWC Overview, LZU Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation Web Based Learning

142 Time schedule The time required always depends on the knowledge of the attending participants and the minutes stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Navigating through the course 4 minutes 1 Course Introduction 3 minutes 1 SAM21 and GWC Hardware Characteristics for Fault Management 5 minutes 1 Using SAM21 Manager for Fault Management 13 minutes 1 Using GWC Manager for Fault Management 13 minutes 1 SAM21 GWC Backups and Restores 9 minutes 1 SAM21 GWC-Specific Testing 9 minutes 1 End of Course Evaluation 15 minutes

143 Ericsson CDMA P-MSC Media Server 2000s Overview and Operations LZU R2A Description P-MSC operations skills are essential for the management of the components within the P- MSC. This course focuses on the overview and operations of the Media Server 2000 series components. It examines the functions and hardware characteristics of the Media Server. It also looks at the Media Server user interface. Learning objectives On completion of this course the participants will be able to: 1 1 Identify the purpose of this course. 2 Identify the P-MSC audio components and the purposes they perform. 2.1 List the P-MSC audio components. 2.2 Describe the functions of the Media Server Describe the hardware that supports the Media Server 2000s in the P-MSC. 3.1 Describe the Media Server 2000 hardware and its characteristics. 3.2 Identify the Media Server 2000s connectivity to the CS LAN. 3.3 Explain the reliability of the Media Server 2000s. 3.4 Describe the co-existence of the Media Server 2010 and Media Server 2030 in a P- MSC network. 4 Describe the use of the Media Server 2000s user interface. 4.1 List the user interfaces used for the MS Describe the Media Server Web Graphical User Interface. 5 Describe functions and commands available with the Announcement File Converter (AFC) 5.1 Describe the Announcement File Converter (AFC). Target audience The target audience for this course is:

144 System Technician, Service Technician, Field Technician Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 3 min 1 Review of the P-MSC Audio Components 5 min 1 Media Server 2000 Hardware 12 min 1 Use the Media Server 2000 Hardware 6 min 1 Use the Announcement File Converter (AFC) 10 min 1 End of Course Quiz 15 min

145 Ericsson Introduction to CPI Extranet LZU R1A Description As an introduction to the Ericsson CPI Extranet, this brief course will describe how to access, navigate and search the CPI documentation system. Learning objectives On completion of this course the participants will be able to: 1 Ericsson Introduction to CPI Extranet Target audience The target audience for this course is: Network Deployment Engineers, Service Deployment Engineers, System Technicians, Service Technicians, System Engineers, Service Engineers, CDMA Access Technicians, Network Operations, Field Technicians Prerequisites Successful completion of the following courses: None Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL)

146 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Ericsson Introduction to CPI Extranet 20 minutes

147 Ericsson EV-DO Global System (EEGS) Overview LZU R2B Description This web based learning course provides an introduction to the Ericsson EV-DO Global System or EEGS. This course provides an overview of the new network elements and how they integrate into the Ericsson EV-DO Network. Learning objectives On completion of this course the participants will be able to: 1 Identify the purpose of this course. 2 Describe the components of Ericsson EV-DO Global System (EEGS). 2.1 Understand the why Ericsson is introducing the Ericsson EV-DO Global System. 2.2 Understand the benefits of the new system. 2.3 Describe the new network elements. 3 Introduce the Ericsson Access EV-DO Module AEM. 3.1 Understand the role of the Access EV-DO Module (AEM). 3.2 Describe the functions of the AEM. 3.3 Describe the characteristics of the AEM. 3.4 Understand the LEDs of the AEM. 3.5 Understand how the AEM integrates into the existing BTS and new RBS products. 3.6 Describe the OM grouping and framework enhancements. 4 Introduce the Ericsson Access EV-DO Controller AEC Understand the role of the Access EV-DO Controller (AEC) Understand the AEC1000 Software 4.3 Describe the characteristics and capacity of the Ericsson AEC Describe the functions of the AEC Understand the different types of blades. 4.6 Understand the LEDs of the AEC Describe the KPI s, Callp Logs and OM framework. 5 Introduce the Ericsson EV-DO C-EMS and CPS tool. 5.1 Understand the hardware platform that supports the EV-DO C-EMS. 5.2 Describe the functions of the EV-DO C-EMS. 5.3 Understand the applications associated with the AEC and AEM. 5.4 Describe the CPS enhancements within release Understand the EV-DO C-EMS impacts with release 2.0.

148 Target audience The target audience for this course is: Service Planning Engineer, Network Deployment Engineer, Service Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Field Technician, and Fundamentals. Prerequisites Successful completion of the following courses: The participant should be very familiar with the EVDO network. Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 5 minutes 1 Introducing the Ericsson EV-DO Global System (EEGS) 15 minutes 1 Introducing the Access EV-DO Module (AEM) 20 minutes 1 Introducing the Access EV-DO Controller (AEC1000) 45 minutes 1 Introducing the Ericsson EV-DO C-EMS and CPS tool 30 minutes

149 Ericsson EV-DO Global System Operations and Maintenance LZU R2A Description Maintaining and operating the Ericsson EV-DO Global System, in your CDMA network, to achieve efficient service is important. To increase these skills, this course provides intermediate level lecture and hands-on exercises on the Ericsson EV-DO Global System (EEGS) operations and maintenance. Practice interfacing with the EEGS software through the Ericsson EV-DO C-EMS. Basic Navigation through the EEGS software and performing administrative, maintenance, and provisioning functions from the Ericsson EV-DO C-EMS and at the nodal Command Line Interface (CLI) levels are covered. Functionality is described at the nodal level and in relation to the rest of the Ericsson EV-DO Global System, CDMA2000 1X and CDMA Systems. A more highly skilled technician and improved operations and maintenance will result. Learning objectives On completion of this course the participants will be able to: 1 Identify the basic elements of the Ericsson EV-DO Global System (EEGS) network. 1.1 Identify the basic elements of the Ericsson EV-DO Global System network and their roles in the network. 1.2 Identify and define protocol and connection interfaces of the EV-DO network. 2 Identify the hardware and functions of the Ericsson Access EV-DO Controller (AEC) and navigate the different modes thru CLI. 2.1 Identify the AEC 1000 hardware and its parts. 2.2 Identify each of the Platform and Application blades and their function in the AEC Describe the AEC 1000 Platform architecture and advantages. 2.4 Identify the basic file structure. 2.5 Describe the output of commonly used commands. 2.6 Navigate and understand basic alarms and logs. 2.7 Navigate and understand performance measurements. 2.8 Identify the LED indications on the front of the AEC 1000 blades. 2.9 Describe the usage of the Dashboard. 3 Identify the Access EV-DO Module (AEM) and DBA. understand the configurations

150 and navigate the Command Line Interface (CLI). 3.1 Identify the AEM and DBA hardware. 3.2 Identify the LEDs on the equipment and recognize their meaning. 3.3 Identify the equipment necessary to install the AEM and DBA. 3.4 Describe how the AEM & DBA connections must be configured. 3.5 Identify the basic file structure. 3.6 Navigate the different modes of the AEM & DBA. 3.7 Explain the capacities of the AEM and DBA. 3.8 Understand the usage and output of commonly used CLI commands. 3.9 Identify and understand meaning of basic alarms. 4 Explain the overall functions of the EVDO C-EMS, including the secuity management, administration and configuration management functions. 4.1 Identify the tools and systems available to perform OAM. 4.2 List the functions of the Ericsson EV-DO C-EMS. 4.3 Outline the role and capabilities of the EV-DO C-EMS. 4.4 Identify the hardware and software components of the EV-DO C-EMS. 4.5 Work with Menus and Panels. 4.6 Access the EV-DO C-EMS and navigate thru tree views 4.7 Access the EV-DO C-EMS CLI 4.8 Access the EV-DO C-EMS Client (GUI) and to utilize its features, menus, and tools 4.9 Identify the network element tabs and views 4.10 Navigate the AEC and AEM menus via the GUI 4.11 Identify the hardware and software components of the EV-DO C-EMS Access the EV-DO C-EMS and use basic commands through UNIX. 5 Understand the use of Common Provisioning System (CPS) Tool. 5.1 Define the Common Provisioning System Installation Procedures. 5.2 Launch the CPS 5.3 Identify CPS Client and terms. 5.4 Import AEC/AEM Configuration File from EV-DO CEMS. 5.5 Generate a Bulk System RAN Audit on EV-DO CEMS and Import to CPS. Target audience The target audience for this course is: Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician, System Administrator Prerequisites Successful completion of the following courses: Two curriculum paths use this course.

151 For the CDMA Switch Access Technician the following courses must be successfully completed:cdma Portfolio overview, LZU , CDMA Access Overview, LZU , CDMA EBSC Overview, LZU , Ericsson EV-DO Global System Overview, LZU , CDMA EBSC operations and maintenance, LZU For the CDMA Network Operations Center Technician, the following courses must be successfully completed: CDMA Portfolio overview, LZU , CDMA Access Overview, LZU , CDMA BTS operations and maintenance LZU and CDMA EBSC operations and maintenance LZU The participant should be familiar with the 1xEVDO network and its nodes. Duration and class size The length of the course is 4 days and 0 hours and the maximum number of participants is 8. Learning situation This course is based on theoretical and practical instructor-led lessons given in both classroom and in a technical environment using equipment and tools, which are accessed remotely. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Introduction.5 hour 1 Ericsson EV-DO Global System Overview 2.5 hours 1 AEC 1000 Overview and Operations 3 hours 2 AEC 1000 Overview and Operations 6 hours 3 AEC 1000 Overview and Operations 3 hours 3 AEM 1302 Overview and Operations 3 hours 4 Ericsson EV-DO C-EMS Overview & Operations 3 hours 4 Common Provisioning System Overview and Operations 3 hours

152 Ericsson CDMA CCMP8000 Overview LZU R1B Description This course provides an overview of the Ericsson CDMA Converged Carrier Management Platform 8000 (CCMP8000). This overview will define the multiple aspects of this OAM server platform such as added values, hardware components, requirements, virtualization, domains and connectivity. The scope of this course is intended for anyone interested in knowing about the CCMP8000. This course is a pre-requisite for the CDMA Server Administration course as part of the Switch Access Technician curriculum path. Learning objectives On completion of this course the participants will be able to: 1 Describe the scope and objectives of this course. 1.1 Define the scope of this course 1.2 Explain the objectives of this course 2 Explain the CCMP8000 platform and the added values of it. 2.1 Describe why we need the Converged Carrier Management Platform 8000 (CCMP8000). 2.2 Explain the evolution of the OSS hardware evolution. 2.3 Define the added values of using the CCMP Describe the CCMP8000 platform. 2.5 Explain the CCMP8000 limitations. 3 Describe the hardware associated with the CCMP Define the CCMP8000 platform layout. 3.2 Describe the Netra T4-1 server. 3.3 Explain the ST2540 M2 storage. 3.4 Describe the ST2501 M2 storage expansion. 4 Explain the Virtualization, Primary and Guest Domains. 4.1 Define the meaning of virtualization. 4.2 Explain the Primary and Guest Domains. 4.3 Describe the function of the Primary Domain. 5 Describe the deployment and migration paths to CCMP Define the configurations options for a fixed configuration. 5.2 Define the configurations options for an expandable configuration. 5.3 Explain the deployment phases

153 5.4 Describe the software compatibilities according to the deployment phases. 5.5 Explain the deployment and migration paths according to the deployment phases. 5.6 Describe the application co-location possibilities. 5.7 Define the internal storage assignments according to applications co-location. 5.8 Explain the Northbound and Southbound connectivity requirements. Target audience The target audience for this course is: Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician, System Administrator Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Access Network Overview Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 2 min 1 CCMP8000 overview 5 min 1 CCMP8000 Hardware 30 min 1 Primary and Guest Domains 15 min 1 Deployment and Migration 10 min

154 Ericsson CDMA BTS Portfolio Overview LZU R2A Description This course provides an overview of the Ericsson CDMA BTS portfolio. This overview will define the BTS platforms. It covers hardware, shelf and frame layout, components of the different BTSs. The scope of this course is intended for Access Cell Technicians and Engineers who need a basic understanding of the BTSs. It is a pre-requisite to the CDMA BTS Operations and Maintenance course. Learning objectives On completion of this course the participants will be able to: 1 Explain the scope and objectives of this courseware 1.1 Explain the scope of the course. 1.2 Define the objectives of this course. 2 Describe the CDMA BTS portfolio 2.1 Describe the BTS name changes. 2.2 Explain the BTS naming conventions. 2.3 Describe the BTS product portfolio according to the market size. 2.4 Explain at a high level how frequencies are allocated. 3 Explain the BTS 624 and MetroCell Outdoor 3.1 Describe the BTS 624 frame layout. 3.2 Describe the BTS 6131 cabinet layout. 3.3 Explain the common hardware components of BTS 624 and BTS Explain the BTS 624 and 6131 power requirements. 4 Describe the BTS 614 and CMO-E 4.1 Describe Compact MetroCell Outdoor (CMO). 4.2 Describe Compact MetroCell Outdoor Enhanced (CMO-E). 4.3 Describe Compact MetroCell Outdoor Enhanced (CMO-E2). 4.4 Describe Compact MetroCell Indoor (CMI). 4.5 Explain the frame and cabinet layouts. 4.6 Describe some hardware specific to these BTSs. 4.7 Explain the Compact BTS power requirements. 5 Explain the BTS Describe the different module locations on the BTS Describe the Digital module ports.

155 5.3 Explain the Village Customer Alarm Module (vcam). 5.4 Describe the Fan module. 5.5 Explain the Duplexer module. 6 Describe the BTS Describe the BTS Explain the layout of the BTS. 6.3 Describe the radio and digital chassis. 6.4 Explain the DO unit. 6.5 Describe the BTS power requirements. 7 Explain the BTS 3030 and Describe the BTS 3030 and Explain the components layout. 7.3 Describe the Digital module. 7.4 Explain the Village Customer Alarm Module (vcam). 7.5 Describe the Radio module. 7.6 Explain the Duplexer Pre-selector Module (DPM). 7.7 Describe the Fan module. 7.8 Explain the AC rectifier module. 7.9 Describe the BTS Power requirements. 8 Describe the BTS BTS Describe the BTS Describe AWS services. 8.3 Explain the band, band class, channel numbers and frequencies used with AWS. 8.4 Describe the BTS layout. 8.5 Describe the modules used with this BTS. 8.6 Explain the power requirements. 9 Explain the BTS 3430 and Describe the BTS 3430 and Explain the BTS 3430 components. 9.3 Explain the BTS 3431 components. 9.4 Describe the IPBH needs. 9.5 Explain the power requirements. 10 Describe the BTS652 and Describe the BTS Explain the cabinet layout Describe the BTS Explain the frame layout Describe the Remote Radio solution Explain the DBU support by BTS 652/ Describe the CEEM support by BTS 652/ Explain the support of the pluggable voice and data cards Describe the support of DBA by BTS 652/ Explain the power requirements.

156 11 Explain the Remote Radio Unit CDMA (RRUC) 11.1 Describe the Remote Radio Unit CDMA (RRUC) Explain the ports found on the RRUC Describe the Duplexer Pre-selector Module (DPM) Define the ports found on the DPM Enumerate the Band, Band Class and Frequencies for the DPM. 12 Describe the MiniRE Describe the MiniRE Explain the layout Define the ports found on the MiniRE Explain the Backhaul options 13.1 Explain the connectivity between the BTS and CBRS Describe the benefit of IPBH to the CBRS Describe the interfaces and attributes related to IPBH Explain CDMA daisy-chaining Describe the Single DS0 BTS Configurability. Target audience The target audience for this course is: Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician,RF Engineer Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Access Network Overview Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content.

157 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 2 min 1 CDMA BTS Portfolio overview 5 min 1 BTS 624 and MetroCell Outdoor 45 min 1 BTS 614 and CMO-E 5 min 1 BTS min 1 BTS min 1 BTS 3030 & BTS min 1 BTS min 1 BTS 3430 & BTS min 1 BTS 652 & BTS min 1 Remote Radio Unit CDMA (RRUC) 5 min 1 MiniRE-2 5 min 1 Backhaul options 5 min

158 Ericsson CDMA 14 Carrier Feature Overview LZU R2A Description This course provides an overview of the CDMA 14 carrier feature. It covers different aspect of the BTSs that are modified by this feature such as the hardware and the connectivity. This overview will define the BTS platforms that support this feature. This course scope is intended for both RF and Access Technicians and Engineers who need a basic understanding of the feature and its implications. Learning objectives On completion of this course the participants will be able to: 1 Explain the objectives of this courseware 1.1 Define the scope of this courseware 2 Define the scope of the CDMA 14 Carrier feature 2.1 Describe the added values of the 14 carrier feature 2.2 Describe the new components enabling the 14 carrier BTS expansion 3 Describe the hardware involved in implementing this feature 3.1 Explain the Digital Baseband Unit (DBU) characteristics 3.2 Describe the DBU ports 3.3 Explain the Channel Element Expansion Module (CEEM) Characteristics 3.4 Define the CEEM ports 3.5 Describe the pluggable Data and Voice cards 3.6 Identify the port assignments for the DBU and CEEM 3.7 Explain the mandatory need for the CORE-2s. 4 Explain the connectivity within the BTS introduced by the new hardware 4.1 Describe the HSSL protocol 4.2 Explain the DBU / CEEM connectivity 4.3 Describe the connectivity for the BTS Describe the connectivity for the Hybrid BTS Explain the configurations that are supported by this feature 5.1 Explain the components involved in the BTS 614 deployment 5.2 Describe the Carrier assignment for the BTS Explain the components involved in the Hybrid BTS 624 deployment 5.4 Describe the Carrier assignment for the Hybrid BTS 624

159 Target audience The target audience for this course is: Service Planning Engineer, Service Design Engineer, Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician Prerequisites Successful completion of the following courses: Good knowlegde of the CDMA Access. Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 2 min 1 Ericsson CDMA 14 Carrier Feature Overview 3 min 1 Hardware Overview 5 min 1 Connectivity 5 min 1 Configuration 3 min

160 Ericsson CDMA CCMP8000 Operations LZU R1A Description This course provides an overview of the Ericsson CDMA Converged Carrier Management Platform 8000 (CCMP8000) operations. This overview of operations will define the multiple aspects of this OAM server platform such as added values, hardware components, requirements, virtualization, domains and their configuration procedures. It also includes the new pool structure, Ilom definition and backup and restore functionality. The scope of this course is intended for anyone interested in knowing about the operations of the CCMP8000. This course is a pre-requisite for the CDMA Server Administration course as part of the Switch Access Technician curriculum path. Learning objectives On completion of this course the participants will be able to: 1 Describe the scope and objectives of this course. 1.1 Define the scope of this course 1.2 Explain the objectives of this course 2 Explain the CCMP8000 platform and the added values of it. 2.1 Describe why we need the Converged Carrier Management Platform 8000 (CCMP8000). 2.2 Explain the evolution of the OSS hardware evolution. 2.3 Define the added values of using the CCMP Describe the CCMP8000 platform. 2.5 Explain the CCMP8000 limitations. 3 Describe the hardware associated with the CCMP Define the CCMP8000 platform layout. 3.2 Describe the Netra T4-1 server. 3.3 Explain the ST2540 M2 storage. 3.4 Describe the ST2501 M2 storage expansion. 4 Explain the Virtualization, Primary, Guest Domains and Pools. 4.1 Define the meaning of virtualization. 4.2 Explain the Primary and Guest Domains. 4.3 Describe the function of the Primary Domain. 4.4 Explain the ZFS Pools. 4.5 Locate the configured pools. 4.6 Explain the login to a Guest Domain.

161 5 Describe the Primary Domain setup and types of Firmware. 5.1 Explain the ILOM and it s features. 5.2 Define the Primary Domain setup. 5.3 Describe the Firmware version and commands to view them. 6 Explain the Backup and Restore of the Primary Domain. 6.1 Describe the Primary Domain backup and restore. 6.2 Explain the backup storage configuration. 6.3 Define the prerequisites needed for a successful back and restore. 6.4 Recognize the backup and restore procedures. 7 Describe the deployment and migration paths to CCMP Define the configurations options for a fixed configuration. 7.2 Define the configurations options for an expandable configuration. 7.3 Explain the deployment phases 7.4 Describe the software compatibilities according to the deployment phases. 7.5 Explain the deployment and migration paths according to the deployment phases. 7.6 Describe the application co-location possibilities. 7.7 Define the internal storage assignments according to applications co-location. 7.8 Explain the Northbound and Southbound connectivity requirements. Target audience The target audience for this course is: Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician, System Administrator Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Access Network Overview LZU , CDMA CCMP8000 Overview Duration and class size The length of the course is 0 days and 1 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content.

162 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 2 min 1 CCMP8000 overview 5 min 1 CCMP8000 Hardware 30 min 1 Primary, Guest Domains and Pools 20 min 1 Platform Operations 15 min 1 Backup and Restore process 15 min 1 Deployment and Migration Path 20 min

163 Ericsson CDMA Release Access Network Delta LZU R1A Description This Web Based Learning course is a Knowledge Delta which touches base with the Access features introduced by NBSS This Knowledge Delta is a great asset to anyone wanting to keep in touch and ahead of the CDMA Access technology changes. Throughout this Web Based Learning Delta we will address different features that apply only to the Access side of the technology and some that are also managed by the Core side. Learning objectives On completion of this course the participants will be able to: 1 Describe the course scope and objectives. 1.1 Define the scope of this course 1.2 Explain the objectives of this course 2 Explain the ISSHO over IP Enhancements feature. 2.1 Describe the ISSHO over IP feature. 2.2 Explain the added values of using this feature. 2.3 Define the port used for ISHHO over IP connectivity. 2.4 Explain the supported configurations. 2.5 Enumerate the restrictions and limitations. 2.6 Locate the Managed objects and attributes associated with the ISHHO over IP feature in BSSM. 2.7 Explain the modifications brought on in CACP by this feature. 3 Describe the Mobile Assisted Hard Handoff (MAHHO) feature. 3.1 Describe the added values of using the MAHHO feature. 3.2 Explain the MAHHO feature. 3.3 Enumerate the restrictions and limitations. 3.4 Define the 3 new air interface messages. 3.5 Describe the SQ HHO trigger scenarios. 3.6 Explain the changes in the CEMS and CACP interfaces to accommodate this feature. 3.7 Describe the OMs related to the MAHHO feature. 3.8 Explain the activation steps. 4 Explain the EVRC Narrowband/Wideband (EVRC-NW) feature. 4.1 Explain the added values of using this feature. 4.2 Describe the EVRC-NW feature.

164 4.3 Enumerate the feature hardware and software requirements. 4.4 List the restrictions and limitations. 4.5 Explain the activation of this feature at high level. 4.6 Describe the CEMS interface modifications to support EVRC-NW. 4.7 Describe the new CEMS OMs introduced by this feature. 5 Describe the Multi-BSC NSA feature. 5.1 Describe the Multi-BSC NSA feature. 5.2 Enumerate the added values. 5.3 Describe the supported configurations and redundancy schemes. 5.4 Enumerate the general guidelines. 5.5 Explain the restrictions and limitations of this feature. 5.6 List the modifications to support the Multi-BSC NSA feature. 5.7 Describe the migration paths supported. 5.8 Explain the SMEBSCCI tool. 5.9 Describe the 4 migration modes Explain the migration steps and rollback. 6 Explain the OM Threshold Crossing Alarms feature. 6.1 Explain the added values of this feature. 6.2 Describe the OM Threshold Crossing Alarm feature. 6.3 Define the OM Parser improvements. 6.4 Explain the restrictions and limitations of this feature. 6.5 Describe the new CLI commands available for this feature. 7 Describe the ASCII Configuration Tool feature. 7.1 Describe the ASCII Configuration Tool feature. 7.2 Enumerate the added values of this feature. 7.3 Explain how to launch manually the tool. 8 Describe the Upgrade Path Support. 8.1 Describe the Upgrade Path support feature. 8.2 Define the upgrade paths. 8.3 Explain the Software Pre-Checks restrictions. 8.4 Explain the Software Checks restrictions. 8.5 Describe the Limitations. 9 Explain the Converged Carrier Management Platform 8000 (CCMP8000) 9.1 Explain the reason to go to CCMP Describe the added values of using this platform. 9.3 Describe the CCMP8000 hardware platform. 9.4 Describe the Netra T4 server. 9.5 Describe the ST2540 M2 Storage Array. 9.6 Describe the ST2501 M2 Storage Array. 9.7 Explain what is virtualization. 9.8 Explain the Primary and Guest Domains. 9.9 Enumerate the restrictions and limitations of the CCMP8000.

165 Target audience The target audience for this course is: Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician, System Administrator Prerequisites Successful completion of the following courses: LZU , CDMA Portfolio Overview LZU , CDMA Access Network Overview Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation This is a web-based interactive training course with multimedia content. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 2 min 1 ISSHO over IP Enhancements 10 min 1 Mobile Assisted Hard Handoff (MAHHO) 10 min 1 EVRC Narrowband/Wideband (EVRC-NW) 10 min 1 Multi-BSC NSA 10 min 1 OM Threshold Crossing Alarm 10 min 1 ASCII Configuration Tool 10 min 1 Upgrade Path Support 10 min 1 Converged Carrier Management Platform 8000 (CCMP8000) 10 min

166 Ericsson CDMA Release 19 Core Network Delta LZU R1A Description With the introduction of MTX19, a number of important features, capabilities and changes have been introduced. Also, additional features have been introduced that are not a part of the MTX19 release but are being released in the same time frame. These features introduce new and enhanced network functions,and changes to hardware, software and user interfaces. This Web Based Learning course is a knowledge-based Delta which discusses some of these features for the Core Network. It can be a great asset to anyone wanting to keep in touch and be ahead of the CDMA Core Network changes. This course includes - the discontinued use of the Netra 440 and the introduction of CCMP8000 for CDMA Network Manager (CNM) - the discontinued use of the Audio Provisioning Server (APS) and its replacement - Multi-BSC NOIS Signaling Agents (NSA) - Audio Capture Tool (ACT) and Bearer Call Trace (BCT) - Network Element IP Connectivity Application - Integrated Media Gateway Control Function (imgcf), IP Peering and Adaptive Multi-Rate (AMR) - EVRC-NW and High Definition (HD) Voice This course is applicable to CDMA Core Technicians, Network Operations and Network Engineers. Learning objectives On completion of this course the participants will be able to: 1 Identify the purpose of this Delta course. 1.1 Describe the course scope. 1.2 Identify the course objectives. 2 Describe the hardware and user interface changes to the P-MSC with MTX Identify the changes made in the CDMA Network Manager (CNM) platforms. 2.2 Explain the removal of the Audio Provisioning Server (APS) and what is used to handle what were APS functions. 2.3 Describe the characteristics and functions of the EVRC-B v4.5 feature. 2.4 Identify other hardware and user interface changes in the P-MSC hardware for

167 MTX19. 3 Describe the characteristics, functions and implementation of the Multi-BSC NSA feature. 3.1 Describe the characteristics and functions of the Multi-BSC NSA feature. 3.2 Identify the types of migration paths which may be required to support Multi-BSC NSA and the use of the migration tool called SMEBSCCI. 3.3 Identify new and changed logs. 3.4 Identify new and changed commands/tools that pertain to the management of Multi- BSC NSA for the Core Network. 4 Explain the characteristics, functions and use of the Audio Capture Tool (ACT) and the Bearer Call Trace (BCT). 4.1 Describe the characteristics and functions of the Audio Capture Tool (ACT) and the Bearer Call Trace (BCT) tool. 4.2 Explain how Audio Capture Tool (ACT) is used. 4.3 Identify administrative tasks related to the Audio Capture Tool (ACT). 4.4 Explain how Bearer Call Trace (BCT) is used. 4.5 Identify logs and alarms that relate to ACT and BCT. 4.6 Identify additional information, restrictions and limitations for both ACT and BCT. 5 Explain the characteristics, functions and use of the Network Element IP Connectivity Application tool. 5.1 Describe the purposes, characteristics and functions of the NE IP Connectivity Application. 5.2 Identify the phases and steps used with the NE IP Connectivity Application. 5.3 Describe NE IP Connectivity Application reports and report file name formats. 5.4 Identify additional information, restrictions and limitations of the NE IP Connectivity Application. 6 Describe the characteristics, functions, related concepts and system impacts of the Integrated Media Gateway Control Function (imgcf), inter-carrier Peering and Adaptive Multi Rate (AMR) codec features. 6.1 Explain the characteristics and functions of the integrated Media Gateway Control Function (imgcf), IP Peering and Adaptive Multi-Rate (AMR), including the key concepts that relate to these features. 6.2 At a high level, explain the tables, table provisioning and keycodes involved in the support of imgcf. 6.3 Describe the changes made to OFCENG to support imgcf. 6.4 Identify the impacts on the Media Gateway (MGW) in order to support imgcf. 6.5 Describe imgcf-related alarms and logs. 6.6 Describe the impacts that imgcf has had on some of the tools and commands. 6.7 Explain the change made to the CNM Component Manager tree. 6.8 List operational measurements (OM) introduced to support imgcf. 6.9 List some of the restrictions, limitations and other information for the imgcf. 7 Explain the characteristics, functions and implementation of the EVRC-NW and HD Voice features. 7.1 Describe CDMA EVRC-NW implementation and its ability to provide High Definition

168 Voice (HD Voice). 7.2 Describe the mapping between EVRC-B (SO 68) and EVRC-NW (SO 73). 7.3 Describe the Hardware and Software requirements of EVRC-NW. 7.4 Describe implementation Restrictions and Limitations. 7.5 Describe EVRC-NW activation. 7.6 Summarize changes to Tables, Tools, Logs and OM associated with EVRC-NW. Target audience The target audience for this course is: Network Design Engineer, Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician, System Administrator Prerequisites Successful completion of the following courses: CDMA Portfolio Overview, LZU CDMA Core Network Overview, LZU Duration and class size The length of the course is 0 days and 3 hours and the maximum number of participants is 1. Learning situation Web-based Learning

169 Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (minutes) 1 Delta Introduction 2 min 1 Additions and Changes Related to Hardware and User Interfaces 28 min 1 Multi-BSC NSA 21 min 1 Audio Capture Tool (ACT) and Bearer Call Trace (BCT) 36 min 1 NE IP Connectivity Application 29 min 1 Integrated Media Gateway Control Function (imgcf), IP Peering and Adaptive Multi-Rate (AMR) 1 Introduction to HD Voice and EVRC-NW 17 min

170 Ericsson EV-DO Global System Delta Release 2.0 LZU R1B Description This course is designed as an introduction to the new features being introduced in the Ericsson EV-DO Global System (EEGS) 2.0 Release. Throughout this course you will understand the feature enhancements, the added value, and the new hardware associated with the EEGS 2.0 release. Learning objectives On completion of this course the participants will be able to: 1 Describe the scope and objectives of this course. 1.1 Understand the scope and objectives of this course. 2 Understand the Access EV-DO Controller (AEC) Capacity Increase and Availability features. 2.1 Understand the Busy Hour Call Attempt (BHCA) increase. 2.2 Describe Real Time Key Performance Indicators (KPIs). 2.3 Understand the AN-AAA Network Access Identifier (NAI) Realm based selection. 2.4 Describe the new Primary and Secondary PDSN or HSGW selection feature. 3 Describe the new features towards the Access EV-DO Module (AEM). 3.1 Understand the new features that directly affect the Access EV-DO Modules (AEMs) and the Digital Baseband Advanced (DBA). 4 Understand the optimization of the backhaul. 4.1 Understand the new Backhaul Optimization Feature. 4.2 Describe packet filtering and prioritization. 5 Describe the new Access EV-DO Module (AEM) 1402 being introduced. 5.1 Understand the role of the Ericsson Access EV-DO Module (AEM) Describe the functions of the Ericsson AEM Describe the characteristics of the Ericsson AEM Understand the LEDs of the Ericsson AEM Understand how the Ericsson AEM 1402 integrates into the existing BTS and new RBS products. 6 Describe the Quality of Service (QoS) enhancements. 6.1 Understand the enhancements that affect Quality of Service (QoS). 6.2 These enhancements include: Control Channel Scheduling: Optimization, Predictive

171 Quality of Service, Inter-User Best Effort, 7 Understand the enhancements to paging. 7.1 Understand the features that directly enhance the paging and RF interfaces, in EEGS Understand the improvements to the Operations, Administration, and Maintenance Platform. 8.1 Understand why new hardware is being introduced for the OAM functions. 8.2 Describe the new hardware being introduced. 8.3 Understand the software structure related to the new hardware. 8.4 Describe the enhancements to the Common Provisioning System (CPS) Tool. 8.5 Understand the impacts on the EV-DO C-EMS. 9 Describe the improvements in the Operational Measurements (OM) framework. 9.1 Describe the enhancements to the logging mechanism. 9.2 Understand the improvements to the Operation Measurements (OMs). 10 Describe the implementation of RADIUS Describe how RADIUS is being implemented within the EEGS 2.0 System Understand what options are available for the RADIUS implementation. 11 Understand the enhancements to feature licensing Describe how licensing support is managed in EEGS Describe the process of implementing licenses for features Understand the license grace period. Target audience The target audience for this course is: Network Deployment Engineer, Service Deployment Engineer, System Technican, System Engineer, Service Technician, Service Engineer, System Administrator, Field Techician Prerequisites Successful completion of the following courses: Previous experience in the Ericsson EV-DO Global System Release 1.1. Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1.

172 Learning situation This is a web-based interactive training course with multimedia content. Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 4 mins 1 AEC Capacity Increase and Availability 17 mins 1 AEM Capacity and Availability Enhancements 6 mins 1 EEGS 2.0 Backhaul Optimization 5 mins 1 Introducing the Ericsson Access EV-DO Module (AEM) mins 1 Quality of Service (QoS) Enhancements 7 mins 1 RF Performance and Paging Enhancements 14 mins 1 Operations, Administration, and Maintenance (OAM) Enhancements 28 mins 1 OM CSL Logs Enhancement 6 mins 1 RADIUS Support in EEGS mins 1 Licensing Support in EEGS mins

173 Ericsson CDMA EVRC-NW and HD Voice Overview LZU R1A Description This course provides the knowledge and skills to activate, monitor and troubleshoot EVRC- NW in the P-MSC. This course is applicable to CDMA Switch Core Technicians. Learning objectives On completion of this course the participants will be able to: 1 Identify the purpose of this course. 2 Describe the CDMA implementation of EVRC-NW and how it supports High Definition Voice 2.1 Describe the mapping between EVRC-B (SO 68) and EVRC-NW (SO 73) 2.2 Describe MS/MRF support for EVRC-NW 3 Describe the Planning and Engineering factors, restrictions and limitations of EVRC- NW 3.1 Describe EVRC-NW Standards Compliance 3.2 Describe the EVRC-NW Wideband license and how to calculate the amount for required licenses. 4 Describe the Installation and Commissioning prerequisites and datafill needed to activate EVRC-NW 4.1 Describe EVRC-NW Hardware and Software Requirements 4.2 Describe EVRC-NW activation steps 4.3 Describe C-EMS forms used to activate EVRC-NW 4.4 Describe MTX Tables used to activate EVRC-NW in the MTX 4.5 Describe MGW provisioning requirements 5 Describe Fault Management and Troubleshooting including alarms, logs and troubleshooting procedures. 6 Describe Performance Management including new and modified Operational Measurements and Performance Measurements. 7 Describe Tools Modified to Support EVRC-NW

174 Target audience The target audience for this course is: Network Deployment Engineer, Service Deployment Engineer, System Technician, Service Technician, System Engineer, Service Engineer, Field Technician Prerequisites Successful completion of the following courses: LZU CDMA Portfolio Overview LZU CDMA Core Network Overview Duration and class size The length of the course is 0 days and 2 hours and the maximum number of participants is 1. Learning situation Web Based Learning (WBL) Time schedule The time required always depends on the knowledge of the attending participants and the hours stated below can be used as estimate. Day Topics in the course Estimated Time (hours) 1 Course Introduction 2 minutes 1 Introduction to HD Voice and EVRC-NW 15 minutes 1 Planning and Engineering 20 minutes 1 Installation and Commissioning 25 minutes 1 Fault Management and Troubleshooting 15 minutes 1 Performance Management 10 minutes 1 Tools Modified to Support EVRC-NW 10 minutes 1 End of course quiz 15 minutes

175 Ericsson CDMA Knowledge Assessments Description Ericsson CDMA Knowledge Assessments are paired up with each course in the CDMA Learning Curriculum to assist in understanding competency levels of technicians and engineers. These Knowledge Asssessments can be used to ensure competency in each training course and technical knowledge of learned objectives. Learning objectives On completion of this course the participants will be able to: 1 Assess the competence of the technician or engineer. 2 Results can be used to compare competence to the competence levels required to meet the KPIs, operational objectives and business needs. 3 Directly understand technical competence gaps with technology and product. 4 Can assist in proposed actions to close identified gaps. Target audience The target audience for this course is: All CDMA Technician and Engineering roles. Prerequisites Successful completion of the following courses: Learner is to follow Learning Curriculum Path for appropriate CDMA Technician or Engineer role. Duration and class size Knowledge Assessments are Web Based and can be accessed 24x7 by students. Learning situation CDMA Competence Assessment

176 Assessment Listing Knowledge Assessments by Curriculum Knowledge Assessment Number LZU R2B LZU R1A LZU R2A LZU R3A LZU R2A LZU R2B LZU R2A LZU R1A LZU R2A LZU R1A LZU R1A LZU R1A LZU R2A LZU R2A LZU R2A LZU R2B LZU R1A LZU R2A LZU R3C LZU R2A Knowledge Assessment by Title Knowledge Assessment - CDMA BTS Operations and Maintenance Knowledge Assessment - CDMA 1xEVDO Operations and Maintenance Knowledge Assessment - CDMA EBSC Overview Knowledge Assessment - CDMA EBSC Operations and Maintenance Knowledge Assessment - CDMA Portfolio Overview Knowledge Assessment - CDMA Core Network Overview Knowledge Assessment - CDMA Access Network Overview Knowledge Assessment - Ericsson CDMA PMSC CBM Overview Knowledge Assessment - Ericsson CDMA MGW Overview Knowledge Assessment - Ericsson CDMA VSE Overview Knowledge Assessment - CDMA SAM21 and GWC Overview Knowledge Assessment - CDMA CNM Common Web Desktop (CWD) Overview Knowledge Assessment - Ericsson CDMA CNM Overview Knowledge Assessment - Ericsson CDMA SE1200 Overview Knowledge Assessment - Ericsson CDMA ERS 8600 Overview Knowledge Assessment - Ericsson CDMA MS/MRF & AFC Overview Knowledge Assessment - CDMA RBS 6102 Operations and maintenance Knowledge Assessment - Core Billing Manager (CBM) Operations For CDMA Networks Knowledge Assessment - CDMA P-MSC Basic Operations Knowledge Assessment - P-MSC Testing and Troubleshooting

177 Knowledge Assessment Number LZU R1A LZU R1A LZU R1A LZU R2A LZU R2A LZU R1A LZU R1A LZU R1A LZU R1A LZU R1A LZU R1A LZU R2B LZU R1A LZU R1A LZU R2A LZU R1B LZU R2A LZU R1A LZU R1A Knowledge Assessment Title Knowledge Assessment - CDMA P-MSC Trunk Provisioning Knowledge Assessment - Ericsson CDMA EV-DO Global System Operations and Maintenance Knowledge Assessment - 1XEVDO System Performance And Optimization Knowledge Assessment - CDMA VSE Operations and Maintenance Knowledge Assessment - CDMA PMSC Network Engineering And Capacity Planning Knowledge Assessment - CDMA 1XEVDO Features For System Performance Optimization Knowledge Assessment - CDMA CPS Configuration Knowledge Assessment - Ericsson CDMA USP Overview Knowledge Assessment - Ericsson CDMA USP Operations and Maintenance Knowledge Assessment - Ericsson CDMA SAM21 and GWC Operations and Maintenance Knowledge Assessment - CDMA TRFO2 Operations Knowledge Assessment - CDMA Media Gateway (MGW) Operations and Maintenance Knowledge Assessment - CDMA 2000 Air Interface Overview Knowledge Assessment - CDMA P-MSC SIP OAM & Provisioning Knowledge Assessment - CDMA Server Administration Knowledge Assessment - CDMA RBS 6102 Overview Knowledge Assessment - Ericsson CDMA EV-DO Global System Overview Knowledge Assessment - Ericsson CDMA P-MSC Audio Provisioning Server (APS) Overview and Opearations Knowledge Assessment - Ericsson CDMA P-MSC Media Server 2000s Overview and Operations