Product Overview
Ericsson Dynamic Activation 1

Contents

1Introduction
1.1Target Group
1.2Typographic Conventions

2

Dynamic Activation Overview
2.1Mediation
2.1.1Handling of Customer Service Orders
2.1.2Data Integrity Assurance
2.1.3External Connectivity Robustness
2.1.4Resilient Activation
2.2Ease of BSS/OSS Integration
2.2.1Single Point of Entry
2.2.2Decoupling of Network Data Model
2.2.3Decoupling of Network Topology and Provisioning Needs
2.2.4Decoupling of Network Element Implementation and Network Element Service
2.2.5Provisioning Orchestration and Abstraction
2.2.6Bulk Provisioning
2.3Model Driven Configuration
2.4Off-the-Shelf Support
2.5Adaptability
2.6Visibility of System Status

3

Execution Environment
3.1Dynamic Activation Execution Environment
3.2Open Execution Environments

4

Features Deployed on Dynamic Activation Execution Environment
4.1Common Features
4.1.1NBIA
4.1.2Asynchronous Request Handler and Scheduling
4.1.3Model Driven Asynchronous Activation Engine
4.1.4Batch Handler
4.2Resource Activation Specific Features
4.2.1Multi-Vendor Network Element Support
4.2.2Replayer
4.2.3GSM/UMTS
4.2.4MNP
4.2.5VoLTE Auto Provisioning
4.2.6LTE EPC
4.2.7M2M
4.2.8IMS Core
4.2.9Ericsson SAPC
4.2.10Multimedia Telephony
4.2.11Ericsson Equipment Identity Register
4.2.12IPWorks/AAA
4.2.13IPWorks/ENUM
4.2.14DSC/ILF
4.2.15Charging and CBiO
4.2.16Wi-Fi Calling for Multi-Device
4.3Resource Configuration Specific Features
4.3.1Service Visualization
4.3.2Model Catalog with Feature Models
4.3.3Vendor Templates
4.3.4Device Repository

5

Features Deployed on Open Execution Environment
5.1Designer Studio
5.2Consistency Checker

6

Solution Scenarios
6.1Resource Activation Provisioning Solution
6.2VoLTE
6.3Revenue Management
6.4Residential Broadband
6.5Quadruple Play

7

Deployment
7.1Virtualized and Cloud Deployment
7.2Native Deployment

8

Migration from Classic Multi Activation to Dynamic Activation

Reference List

1   Introduction

The purpose of this document is to give an overview of Ericsson Dynamic Activation (EDA) product and its features. The purpose is also to provide the entry to the further Customer Product Information (CPI) on each particular feature and function.

1.1   Target Group

The target group for this document is all users of the Dynamic Activation.

For more information about different target groups, refer to Library Overview, Reference [1].

1.2   Typographic Conventions

Typographic conventions are described in the document Library Overview, Reference [1].

For information about abbreviations and terms used throughout this document, refer to Glossary of Terms and Acronyms, Reference [2].

2   Dynamic Activation Overview

Dynamic Activation is the central link between the Business Support System (BSS)7Operations Support System (OSS) layer and network of wireless and wireline. The product gives operators a competitive edge by enabling rapid launch and activation of new end-user services and enterprise services regardless of technology or vendors.

The term Resource Activation refers to the activation of subscribers for services, such as 2G/3G voice & data, LTE, IMS/VoLTE, IPTV, and other applications.

The term Resource Configuration refers to the configuration of wireline services, such as residential broadband, optical network.

Dynamic Activation functionality covers various provisioning implementations horizontal including design, execution, and assurance and E2E solution verticals stretching from user experience to technical implementations.

Dynamic Activation is modulated in different dimensions, which make it possible to tailor a solution based on specific provisioning needs.

The key provisioning strategies within Dynamic Activation are described in the coming sections.

2.1   Mediation

Dynamic Activation provides the following mediation functions in the provisioning process.

2.1.1   Handling of Customer Service Orders

A common function of Dynamic Activation is to handle Customer Service Orders (CSOs) throughout the provisioning process. The following functions are supported:

2.1.2   Data Integrity Assurance

The strategy of Dynamic Activation is to ensure data provisioned is consistent and accurate. All business logics perform syntactic validation to verify request format, data type, and data value validity against predefined value range. Semantic validation with regards to application or service logic and customer context is performed when necessary. If needed, Dynamic Activation incorporates external validation functions into the provisioning process.

2.1.3   External Connectivity Robustness

This is implemented in different layers. Depending on the external system and the operator's IP network infrastructure, one of the following can take effect to continue the operation in different error scenarios.

2.1.4   Resilient Activation

When using model driven asynchronous engine, Dynamic Activation product supports resilient activation for complex provisioning tasks and network setups.

The provisioning strategy is:

For information on implemented features, see Section 4.1.3.

2.2   Ease of BSS/OSS Integration

BSS is complex and at time costly to introduce changes. Dynamic Activation strives to reduce impact on BSS/OSS when introducing the product for the first time and when introducing new application and services. For more information, refer to OSS/BSS Integration Guide, Reference [29].

2.2.1   Single Point of Entry

Dynamic Activation is the single point of entry for provisioning of core network and services regardless of technology and vendor. Access to the provisioning services can be performed through one or more provisioning protocols, as follows:

Note:  
CAI and MML interfaces are only supported for provisioning of HLR FE.

Dynamic Activation provides Northbound Interface Adaptation capability. A step-by-step guideline is provided for system integration to develop support for customer-specific Northbound Interface.

New protocol can be supported as integration service by producing a new Northbound Interface adapter.

2.2.2   Decoupling of Network Data Model

Decoupling of network data model enables the BSS/OSS to focus on business instead of network technology.

As shown in Figure 1, any entity that has provisioning needs could be a provisioning client, for example, BSS/OSS system, an end-user self-care system, or a network element. The provisioning data receiver can be a network element in the telecom network, but can also be a data source in the BSS/OSS domain.

Figure 1   Provisioning Concept

Dynamic Activation presents the provisioning need of a client in the form of a Managed Object (MO). An MO can:

The physical implementation of the networks, protocols, and interactions towards network elements are hidden by the MO.

Four basic operations are provided to manage an MO. They are Create, Set, Get, and Delete.

A request coming from a provisioning client that operates on an MO is called a Customer Service Order (CSO). Each CSO is provided with a status upon completion indicating the result of the execution. A response is sent back to the client immediately for the synchronous communication or stored in a file for the asynchronous communication. During this process, the provisioning client is not aware of the data receiver.

Dynamic Activation communicates with network elements in the form of Network Service Orders (NSOs), that are network element specific.

A CSO can be transformed into several NSOs towards one or more network elements or types.

2.2.3   Decoupling of Network Topology and Provisioning Needs

Network Topology and Provisioning Needs are decoupled. This enables operators to expand network element capacity without affecting the BSS/OSS.

Dynamic Activation provides sophisticated routing solution that hides the network topology from the BSS/OSS, such as:

All above are handled as routing configuration in Dynamic Activation, and the BSS/OSS is not affected.

2.2.4   Decoupling of Network Element Implementation and Network Element Service

Network element implementation and the services provided by the network element are decoupled. This reduces the impact on the BSS/OSS domain when network element evolves in terms of internal architecture.

Dynamic Activation provides one provisioning interface for a network element regardless if the network element is in a monolithic architecture or data layered architecture.

2.2.5   Provisioning Orchestration and Abstraction

To ease integration with northbound systems, operators can construct resource facing service based on available provisioning logic. Resource facing service reflects the operator business need. The information model for a resource facing service differs from the information model of the network services. The information model for a resource facing service can aggregate or segment the network services. Tailored execution plan can be defined in resource facing service. To secure atomicity of the business use case, rollback can be implemented in the resource facing service.

Designer Studio is the graphical tool for configuration of resource facing service for Dynamic Activation.

2.2.6   Bulk Provisioning

Provisioning of large number of subscribers is called bulk provisioning. Such provisioning activity generates high provisioning traffic in bursts. For example:

To support bulk provisioning, Dynamic Activation provides Batch Handler function and massive CLI interface to certain network elements which provide massive operation interfaces.

2.3   Model Driven Configuration

Traditionally, provisioning solutions are implemented by programming. To reduce time to market and cost for operators in the service process, Dynamic Activation introduces a model driven configuration approach to replace the programming approach. This approach separates the processing logic and the information needs to be processed. The processing logic comes with the Dynamic Activation execution environment while the models are to be configured for each deployment and use case. This simplifies the integration effort and eliminates the need for programming skills. Essentially, the domain experts are able to implement the solution by configuration.

The features built upon model driven configuration concept are resource configuration and Designer Studio.

For more information on Designer Studio, refer to User Guide for Designer Studio, Reference [15].

2.4   Off-the-Shelf Support

Dynamic Activation comes with pre-verified provisioning logic for major Ericsson network elements and solutions. The Dynamic Activation release plan is aligned with that of the core network. This ensures high-quality solution, timely availability of provisioning solution, and the shortest time for the operator to turn services delivered from Ericsson to revenue.

2.5   Adaptability

Dynamic Activation product has a large install base with operators in the world. To satisfy customer unique requirements for each deployment, Dynamic Activation is highly adaptable in various ways.

2.6   Visibility of System Status

Dynamic Activation strives to provide system insight so that users are always well informed and in control, which includes:

3   Execution Environment

Features in Dynamic Activation are hosted by different execution environments based on the nature of the feature.

3.1   Dynamic Activation Execution Environment

Dynamic Activation execution environment provides the following common functions to operate and maintain the different features deployed upon it:

3.2   Open Execution Environments

Some features of Dynamic Activation are deployed on open execution environments:

4   Features Deployed on Dynamic Activation Execution Environment

The following subsections contain descriptions of the various features that can be deployed in Dynamic Activation execution environment.

4.1   Common Features

This section describes common features of both Resource Activation and Resource Configuration.

4.1.1   NBIA

The Northbound Interface Adapter (NBIA) feature provides a list of service APIs, for example, Alarm service, Authentication service, and ProcLog Service. This makes all necessary platform functions ready for NBIA to use. IDE provides a Northbound Interface Wizard which can help to generate the code skeleton. An NBIA Development Step-by-Step Guide is provided as a tutorial to guide Solution Integrators about how to develop, deploy, and verify NBIA on Dynamic Activation.

For more information, refer to Northbound Interface Adapter Customization Development Guide for HTTP-Based Protocol, Reference [16].

4.1.2   Asynchronous Request Handler and Scheduling

Asynchronous Request Handler and Scheduling feature provides Dynamic Activation with a web service-based asynchronous interface. This means that the business system does not need to wait for the completion of the requests. Storing CSO for later execution enables the operator to make a service available for end users at a certain time.

This feature preserves the order of execution if the queue contains several CSOs related to the same subscriber, meaning inconsistency is avoided.

For more information, refer to Function Specification Dynamic Activation Execution Environment, Reference [21].

4.1.3   Model Driven Asynchronous Activation Engine

The Model Driven Asynchronous Activation Engine implements several features to secure resilience for service orders with multiple network element destinations.

Note:  
The provisioning requests toward southbound system are still sent through synchronous southbound interfaces.

For more information, refer to Function Specification Dynamic Activation Execution Environment, Reference [21].

These features are supported for Service Models that are created in Designer Studio. For more information, refer to User Guide for Designer Studio, Reference [15].

4.1.4   Batch Handler

Batch Handler is a GUI-based feature to manage and execute batch jobs. This can be used to automate handling many subscriptions. For example, to connect a range of new subscribers, or to change a group of existing subscriptions. The batch handler can be used upon the existing activation northbound that supports CAI or synchronous CAI3G. A batch job can be created and executed on demand, for example, when the network traffic is low.

For more information, refer to Function Specification Dynamic Activation Execution Environment, Reference [21].

4.2   Resource Activation Specific Features

This section describes features that are specific for Resource Activation.

4.2.1   Multi-Vendor Network Element Support

Dynamic Activation is a multi-vendor activation platform. This platform provides single point of access for all provisioning activities, regardless of the vendor of the network elements that require provisioning. This reduces the integration complexity for the BSS/OSS when introducing new network element vendors.

This feature provides the possibility to deploy provisioning logic for non-off-the-shelf network elements in the Dynamic Activation environment.

For more information, refer to Customization - Architectural Overview, Reference [3], and Customer Adaptation Development Guide for Resource Activation, Reference [13].

4.2.2   Replayer

The Replayer feature is a tool for resending provisioning requests towards to CUDB solution, to secure user data in network.

4.2.3   GSM/UMTS

GSM/UMTS feature provides activation interfaces for provisioning of 2G/3G core network in data layered architecture through the MML, CLI, CAI3G, and CAI interfaces.

GSM/UMTS feature provides method for administration of subscriber data and CAMEL/GPRS/gsmSCF profiles in the Centralized User Database (CUDB). Operations on individual subscriber and massive operations are supported. Updates of subscriber profiles and service associated data in the HLR front ends are also included in this feature.

For more information, refer to Function Specification Layered HLR, Reference [6].

4.2.3.1   Administration of Multi Regions

Administration of Multi Regions feature allows each region to administer its own HLR subscribers. Other subscribers served by the same network infrastructure are not accessible. A subscriber can only have access to HLR services provided within its region, regardless of the actual network capability. The feature supports administration of maximum 32 regions.

Each subscriber is given a Region ID (RID). An Administration Domain is specified by the RID, the IMSIs, and the MSISDNs. Optionally, restriction rules on other attributes can be defined per Administration Domain base.

When a provisioning request is received, it is evaluated towards the restriction rules defined in the administration domain. Provisioning requests that violate the restriction rules are rejected.

For more information, refer to Function Specification Administration of Multi Regions and BSS Capacity, Reference [4].

4.2.3.2   Administration of BSS Capacity

Administration of BSS Capacity feature prevents uneven HLR provisioning infrastructure consumption between regions, countries, and service providers. It enables the possibility to regulate the provisioning capacity which a user is entitled to use.

This feature allows configuration on maximum allowed parallel logons on the provisioning interfaces. When the configured limit on a given interface is exceeded, new logon attempts are rejected with an error message.

Administration of BSS Capacity also allows configuration on HLR sustainable throughput that regulates maximum allowed Customer Service Orders (CSOs) per second per domain during saturated traffic condition.

For more information, refer to Function Specification Administration of Multi Regions and BSS Capacity, Reference [4].

4.2.4   MNP

Mobile Number Portability (MNP) feature provides activation interfaces for provisioning of MNP application in data layered architecture. The interfaces are MML, CAI3G, and CAI.

MNP feature provides method for administration of MNP data in CUDB.

The MNP feature allows operators to administer relationships between MSISDNs and addresses of nodes in an HLR system.

For more information, refer to Function Specification Layered HLR, Reference [6].

4.2.5   VoLTE Auto Provisioning

Dynamic Activation can receive the notification from Core Network, such as the CUDB notification triggered through HSS. Dynamic Activation decides whether to provision the attached end user. If the decision is positive, Dynamic Activation provisions the user with the default VoLTE service profiles and notify BSS of the result.

For more information, refer to Solution Description VoLTE, Reference [26].

4.2.6   LTE EPC

Long-Term Evolution / System Architecture Evolution (4G) (LTE/SAE (4G)) feature provides activation interfaces for provisioning of 4G services in data layered architecture. The provisioning interfaces are CAI3G and CLI.

LTE/SAE (4G) feature provides method for administration of EPC subscriber data in CUDB.

Dynamic Activation also supports the Dedicated Core Networks feature in EPC subscriber data administration. However, this feature requires the additional value package EDA Shared Networks.

For more information, refer to Function Specification Layered LTE EPC, Reference [8].

4.2.7   M2M

The Machine to Machine (M2M) communication feature provides an effective provisioning solution.

The provisioning interfaces are CAI3G and CLI.

Provisioning support is provided for:

For more information, refer to Function Specification Layered Machine to Machine, Reference [9].

4.2.8   IMS Core

IP Multimedia Subsystem (IMS) Core feature provides activation interfaces for provisioning of IMS subscriber data in the data layered architecture through CAI3G interface.

IMS feature provides method for administration of IMS subscriber data in CUDB.

For more information, refer to Function Specification Layered IMS, Reference [7].

4.2.9   Ericsson SAPC

Service-Aware Policy Controller (SAPC) feature provides activation interfaces for provisioning of SAPC in data layered architecture and monolithic architecture. The provisioning interface is CAI3G.

For more information, refer to Function Specification SAPC, Reference [11].

4.2.10   Multimedia Telephony

Multimedia Telephony (MMtel) feature provides activation interfaces for provisioning of MMTel service data in Multimedia Telephony Application Server (MTAS) through CAI3G interface.

For more information, refer to Function Specification MTAS, Reference [5].

Enterprise segment feature provides activation interfaces for provisioning of conferencing services, company group services, Enterprise Value-Added Services (EVAS), and corporate directory services in Business Communication Enabler (BCE). This provisioning interface is CAI3G.

For more information, refer to Function Specification BCE, Reference [23].

Dynamic Activation supports presence and resource list-related service in Presence, Group and Data Management (PGM) through CAI3G interface. This makes the communication services more relevant, visible, and easily accessible for the end-user community.

For more information, refer to Function Specification PGM, Reference [24]

4.2.11   Ericsson Equipment Identity Register

Equipment Identity Register (EIR) feature provides activation interfaces for provisioning of EIR in data layered architecture. The provisioning interfaces are CAI3G and CLI.

For more information, refer to Function Specification Layered EIR, Reference [10].

4.2.12   IPWorks/AAA

IPWorks/Authentication, Authorization, and Accounting (AAA) feature provides activation interfaces for provisioning of IPWorks/AAA in data layered architecture. The provisioning interfaces are CAI3G and CLI.

IPWorks/AAA feature provides method for administration of IPWorks/AAA data in CUDB.

For more information, refer to Function Specification Layered IPWorks/AAA, Reference [12].

4.2.13   IPWorks/ENUM

IPWorks/Telephone E.164 Number Mapping (ENUM) feature provides activation interfaces for:

For more information, refer to Function Specification IPWorks/ENUM, Reference [19].

4.2.14   DSC/ILF

Diameter Signaling Controller (DSC) / Individual Locator Function (ILF) provides activation interface for provisioning of ILF records. The provisioning interface is also backward compatible for that for Subscriber Location Function (SLF) of Multi Activation 7.2 and later PG Classic releases. For more information, refer to Function Specification DSC/ILF, Reference [20].

4.2.15   Charging and CBiO

Charging System (CS) feature provides provisioning support towards Account Information and Refill server (AIR) and Account Finder (AF) for online charging.

Charging and Billing in One (CBiO) is an end-to-end charging and billing solution for customer management.

In CBiO solution, Dynamic Activation utilizes the Designer Studio service modeling flexibility to support the orchestration of any types of EDIFACT operations.

For more information, refer to Solution Description Charging and CBiO, Reference [25].

4.2.16   Wi-Fi Calling for Multi-Device

Ericsson Wi-Fi Calling for multi-device provides a simple and cost efficient way to extend operator coverages to multiple Wi-Fi capable devices of user. With this new capability, Wi-Fi Calling is offered for devices without a SIM-card device, which is called Non-SIM device, over Wi-Fi network.

The following provisioning functions are provided in the solution:

For more detail information, refer to Solution Description Wi-Fi Calling, Reference [30].

4.3   Resource Configuration Specific Features

Resource Configuration provides a model driven solution for configuration of devices through the following protocols:

Resource Configuration enables integration of network elements during runtime without programming. The following subsections describe main components that the solution is based.

4.3.1   Service Visualization

The Service Visualization provides an overview of service instances, and visualizes how the service depends on devices and features.

4.3.2   Model Catalog with Feature Models

The feature model is a logical representation of a network functionality, for example a BGP configuration in a router. This feature model is exposed as a Managed Object (MO) in the northbound CAI3G interface. The feature model provides a uniform way of managing this feature, regardless of what vendor and interface is used to communicate with the actual network southbound. The feature model is defined as an XML schema or as a YANG model.

4.3.3   Vendor Templates

The vendor template is a configuration file that describes how to set up one or several features in a specific type of device. For example, how to configure the Loopback interfaces feature in Juniper routers.

There are two types of templates:

4.3.4   Device Repository

The Device Repository tracks all the devices that can be managed in the Resource Configuration solution. It stores information like logon credentials, device type, and information about the actual device configuration. It also stores historical information about previous configurations. This makes it possible to visualize configuration changes and revert to the configuration at any point in time. It is also possible to manage the current device configuration directly from the GUI.

5   Features Deployed on Open Execution Environment

5.1   Designer Studio

Designer Studio is a graphical tool for designing customer specified resource facing services. A resource facing service is described in a service model.

A service model is built upon available services, including:

Using Designer Studio does not require programming skills. This means that the same person can do both solution design and implementation.

Designer Studio provides visual display of the tasks and their dependencies within the service model.

Service models configured using Designer Studio are deployed directly to Dynamic Activation without the need for compilation. The service models are executed by a dedicated engine. The service model engine also has built-in rollback capability.

Service models created in the Designer Studio require an SW Advanced license to run on the Dynamic Activation.

For more information about Designer Studio, refer to User Guide for Designer Studio, Reference [15].

5.2   Consistency Checker

The Consistency Checker is a generic data comparison tool for telecom operators.

The Consistency Checker is targeted for exploring data consistency status for telecom operators. The Consistency Checker compares arbitrary data from arbitrary data sources and presents the result in the form of report and output files.

The most common use cases for the Consistency Checker are the following:

By understanding the consistency status in the network, the operator can make further decision to eliminate data inconsistency by either of following:

The Consistency Checker is hardware and operating system independent, that is, it can be deployed on any JEE v7 compliant Application Server.

For more information about Consistency Checker, refer to Function Specification Consistency Checker, Reference [14].

6   Solution Scenarios

Each operator has unique provisioning requirements, thus a deployed Dynamic Activation instance varies from one to another. One operator can have more than one deployed Dynamic Activation instances, each aiming for a specific task. Some typical solution scenarios are described in the coming sections.

6.1   Resource Activation Provisioning Solution

Figure 2 shows a resource activation example. This operator has a mature 2G/3G/4G core network and is offering VoLTE service. Service layer applications are from other vendors.

Figure 2   Resource Activation Provisioning Solution

The operator uses Dynamic Activation as common provisioning mediation.

6.2   VoLTE

Figure 3 shows a VoLTE normal provisioning example, and Figure 4 shows a VoLTE auto provisioning example.

Figure 3   VoLTE Normal Provisioning

Figure 4   VoLTE Auto Provisioning

End-to-end VoLTE provisioning solution helps customer get the VoLTE service quickly and cost efficiently. For more information, refer to Solution Description VoLTE, Reference [26].

6.3   Revenue Management

Figure 5 shows the use cases supported by Revenue Management provisioning solutions.

Figure 5   Revenue Management

This solution uses the following functions:

6.4   Residential Broadband

Figure 6 shows a resource configuration example of the residential broadband solution, which is a wireline operator that offers FTTH service to their customers. The operator uses Dynamic Activation to manage the FTTH configurations.

Figure 6   FTTH Example

Optional features that can be used with the solution are:

6.5   Quadruple Play

Figure 7 shows a quadruple play example. This is a wireline and wireless operator that offers Quadruple Play service to their customers. The operator uses Dynamic Activation to manage both wireline/wireless configurations and subscribers.

Figure 7   Quadruple Play

The solution uses the same provisioning functions as the FTTH example shown in Section 6.4, and combines them with the following Resource Activation functions:

The Designer Studio feature is used to combine the Resource Configuring Model and the Resource Activation Model, into a new Quadruple Play service.

7   Deployment

Dynamic Activation can be deployed on native, virtual, and cloud environments.

For the supported deployment configurations installation instructions and procedures, system operation and maintenance procedures are provided. This reduces system rollout lead time and minimizes competence building effort for O&M personnel.

7.1   Virtualized and Cloud Deployment

Dynamic Activation supports virtualized and cloud deployment. This provides better hardware use, enables co-deployment with other virtualized or cloud products and the flexibility to deploy the product on any compatible hypervisor.

Note:  
Resource Configuration is only deployed on virtualized and cloud deployment.

Dynamic Activation on a virtual or cloud environment can be deployed in scalable high-availability configuration with minimum three VMs running on at least three separate hosts.

Dynamic Activation can also be deployed with three or four VMs running on one host alternative for non-commercial deployment.

For virtualized deployment, the following hypervisors are supported:

For cloud deployment, the following is supported:

Both virtualized and cloud Dynamic Activation uses Red Hat Enterprise Linux (RHEL) as guest operating system.

For more information, refer to Function Specification Dynamic Activation Execution Environment, Reference [21].

Deployments of Dynamic Activation on non-standard hypervisors and cloud are handled as services. For more information, contact the local Ericsson office.

7.2   Native Deployment

For native environment, the system is by default in High Availability configuration with minimum configuration of four servers.

For more information about the hardware configurations in Dynamic Activation 1, refer to BSP 8100 documentation. For details, see document ECP Guideline for Ordering BSP8100 in Dynamic Activation 1, in http://prodcat.internal.ericsson.com.

For more information about the operating system in Dynamic Activation 1, refer to Function Specification Dynamic Activation Execution Environment, Reference [21].

Deployment of Dynamic Activation on other hardware is handled as services. For more information, contact the local Ericsson office.

8   Migration from Classic Multi Activation to Dynamic Activation

Multi Activation Classic customers are able to migrate to Dynamic Activation with extensive migration tool and methods.

Dynamic Activation is able to adapt to new business and technology requirements quickly. Dynamic Activation also allows you to take a larger ownership, being able to manage minor adaptations on your own.

Dynamic Activation enables you to consolidate your activation, supporting new and legacy network technologies, physical and virtualized, wireline and wireless. This is achieved by providing agile tools for development and configuration, focusing on keeping down lead time and cost.

As a part of the Ericsson OSS solution, Dynamic Activation simplifies operation by using the same Way of Working (WoW) and 3PP. Virtualization / cloud based deployment are other essential characteristics to achieve agility and use of Commercial Off The Shelf (COTS) hardware.

So how does Dynamic Activation responds to this and how does the operator benefit when upgrading from Classic to the new deployment?


Reference List

[1] Library Overview, 18/1553-CSH 109 628 Uen
[2] Glossary of Terms and Acronyms, 0033-CSH 109 628 Uen
[3] Customization - Architectural Overview, 20/1553-CSH 109 628 Uen
[4] Function Specification Administration of Multi Regions and BSS Capacity, 10/155 17-CSH 109 628 Uen
[5] Function Specification MTAS, 16/155 17-CSH 109 628 Uen
[6] Function Specification Layered HLR, 4/155 17-CSH 109 628 Uen
[7] Function Specification Layered IMS, 18/155 17-CSH 109 628 Uen
[8] Function Specification Layered LTE EPC, 5/155 17-CSH 109 628 Uen
[9] Function Specification Layered Machine to Machine, 15/155 17-CSH 109 628 Uen
[10] Function Specification Layered EIR, 7/155 17-CSH 109 628 Uen
[11] Function Specification SAPC, 9/155 17-CSH 109 628 Uen
[12] Function Specification Layered IPWorks/AAA, 8/155 17-CSH 109 628 Uen
[13] Customer Adaptation Development Guide for Subscriber Activation, 5/1553-CSH 109 628 Uen
[14] Function Specification Consistency Checker, 21/155 17-CSH 109 62 Uen
[15] User Guide for Designer Studio, 10/1553-CSH 109 628 Uen
[16] Northbound Interface Adapter Customization Development Guide for HTTP-Based Protocol, 7/1553-CSH 109 628 Uen
[17] DUP Customer Adaptation Migration Guide, 19/1553-CSH 109 628 Uen
[18] User Guide for Resource Configuration, 11/1553-CSH 109 628 Uen
[19] Function Specification IPWorks/ENUM, 20/155 17-CSH 109 628 Uen
[20] Function Specification DSC/ILF, 12/155 17-CSH 109 628 Uen
[21] Function Specification Dynamic Activation Execution Environment, 6/155 17-CSH 109 628 Uen
[22] Function Specification Resource Activation, 3/155 17-CSH 109 628 Uen
[23] Function Specification BCE, 17/155 17-CSH 109 628 Uen
[24] Function Specification PGM, 11/155 17-CSH 109 628 Uen
[25] Solution Description Charging and CBiO, 1/221 02-CSH 109 628 Uen
[26] Solution Description VoLTE, 2/221 02-CSH 109 628
[27] System Administrators Guide for Native Deployment, 1/1543-CSH 109 628 Uen
[28] System Administrators Guide for Virtual and Cloud Deployment, 3/1543-CSH 109 628 Uen
[29] OSS/BSS Integration Guide, 3/1551-CSH 109 628 Uen
[30] Solution Description Wi-Fi Calling, 4/221 02-CSH 109 628 Uen


Copyright

© Ericsson AB 2017. All rights reserved. No part of this document may be reproduced in any form without the written permission of the copyright owner.

Disclaimer

The contents of this document are subject to revision without notice due to continued progress in methodology, design and manufacturing. Ericsson shall have no liability for any error or damage of any kind resulting from the use of this document.

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