Creating an Ecosystem for Next Generation Network (NGN)Dr. Mazlan Abbas
The document discusses creating an ecosystem for next generation networks. It notes challenges in implementing IMS infrastructure due to the "chicken and egg" issue of needing users and applications. It proposes MIMOS can help by providing a platform and tools to connect application developers, content providers, and telcos, in order to offer a variety of applications and help break the vicious cycle. The goal is to build an NGN ecosystem in Malaysia through these efforts.
The document discusses the transition to Next Generation Networks (NGNs). Traditional telecom networks are being replaced by IP-based networks capable of integrating different access technologies and services. This allows for the convergence of fixed, mobile, and data networks. NGNs aim to reduce costs through infrastructure optimization while creating new revenue sources by offering converged services like triple play bundles. However, successful business models for NGNs remain uncertain and will depend on demonstrating clear benefits to customers.
The document discusses the IP Multimedia Subsystem (IMS), which is an architectural framework for delivering internet protocol (IP) multimedia services. IMS allows convergence of voice, video, messaging and other multimedia applications over an IP-based network. It provides a standardized service platform that can enable operators to offer new revenue-generating services to subscribers. Key components of the IMS architecture include the Call Session Control Functions (CSCFs) which handle registration, session management and other core operations using the Session Initiation Protocol (SIP). IMS enables delivery of multimedia services to users independent of their access network, whether on fixed or mobile devices.
The document discusses next generation networks (NGN) and convergence. It defines NGN as a packet-based network that can provide telecommunication services using multiple broadband access technologies and QoS-enabled transport, with service functions independent from underlying transport technologies. NGN simplifies networks and uses an IP-based core with separation of transport and service layers. The document also discusses how convergence is occurring at the network, service, industry, and device levels, and how convergence and NGN allow services to be accessed seamlessly across different networks through multiple platforms.
This document provides an overview of Next Generation Networks (NGN). It defines NGN as a packet-based network that provides telecommunication services and allows for multiple broadband transport technologies. The document discusses NGN standardization by organizations like ITU-T, convergence towards NGN through the integration of networks like PSTN and mobile, and the softswitch-based NGN architecture featuring components like media gateways, application servers, and media servers.
The document discusses next generation networks (NGN) and the IP Multimedia Subsystem (IMS). It defines NGN as a packet-based network that provides telecommunication services to users using multiple broadband transport technologies. Key characteristics of NGN include supporting a wide range of real-time and non-real-time services, broadband capabilities with end-to-end quality of service, and independence from underlying transport technologies. The document also outlines some of the challenges in deploying NGN, such as quality of service and security issues, and provides a high-level overview of the NGN architecture.
Today's Workforce: What Does it Take to Motivate? [Infographic] AchieveGlobal
The real force behind lasting employee engagement and performance just might surprise you. To find out what truly inspires your team, explore this infographic on motivation in the modern workplace. Through powerful, research-based visuals and captions, learn about motivation theory and effective leadership coaching strategies for shaping a motivational workplace.
The document provides an overview of IMS (IP Multimedia Subsystem), including its history, architecture, layers, benefits, and relationship to SIP (Session Initiation Protocol). IMS allows convergence of voice, video, and data over an IP-based network using SIP and other IETF protocols. It has a service plane for applications, a control plane for session management, and a media plane for transport.
Creating an Ecosystem for Next Generation Network (NGN)Dr. Mazlan Abbas
The document discusses creating an ecosystem for next generation networks. It notes challenges in implementing IMS infrastructure due to the "chicken and egg" issue of needing users and applications. It proposes MIMOS can help by providing a platform and tools to connect application developers, content providers, and telcos, in order to offer a variety of applications and help break the vicious cycle. The goal is to build an NGN ecosystem in Malaysia through these efforts.
The document discusses the transition to Next Generation Networks (NGNs). Traditional telecom networks are being replaced by IP-based networks capable of integrating different access technologies and services. This allows for the convergence of fixed, mobile, and data networks. NGNs aim to reduce costs through infrastructure optimization while creating new revenue sources by offering converged services like triple play bundles. However, successful business models for NGNs remain uncertain and will depend on demonstrating clear benefits to customers.
The document discusses the IP Multimedia Subsystem (IMS), which is an architectural framework for delivering internet protocol (IP) multimedia services. IMS allows convergence of voice, video, messaging and other multimedia applications over an IP-based network. It provides a standardized service platform that can enable operators to offer new revenue-generating services to subscribers. Key components of the IMS architecture include the Call Session Control Functions (CSCFs) which handle registration, session management and other core operations using the Session Initiation Protocol (SIP). IMS enables delivery of multimedia services to users independent of their access network, whether on fixed or mobile devices.
The document discusses next generation networks (NGN) and convergence. It defines NGN as a packet-based network that can provide telecommunication services using multiple broadband access technologies and QoS-enabled transport, with service functions independent from underlying transport technologies. NGN simplifies networks and uses an IP-based core with separation of transport and service layers. The document also discusses how convergence is occurring at the network, service, industry, and device levels, and how convergence and NGN allow services to be accessed seamlessly across different networks through multiple platforms.
This document provides an overview of Next Generation Networks (NGN). It defines NGN as a packet-based network that provides telecommunication services and allows for multiple broadband transport technologies. The document discusses NGN standardization by organizations like ITU-T, convergence towards NGN through the integration of networks like PSTN and mobile, and the softswitch-based NGN architecture featuring components like media gateways, application servers, and media servers.
The document discusses next generation networks (NGN) and the IP Multimedia Subsystem (IMS). It defines NGN as a packet-based network that provides telecommunication services to users using multiple broadband transport technologies. Key characteristics of NGN include supporting a wide range of real-time and non-real-time services, broadband capabilities with end-to-end quality of service, and independence from underlying transport technologies. The document also outlines some of the challenges in deploying NGN, such as quality of service and security issues, and provides a high-level overview of the NGN architecture.
Today's Workforce: What Does it Take to Motivate? [Infographic] AchieveGlobal
The real force behind lasting employee engagement and performance just might surprise you. To find out what truly inspires your team, explore this infographic on motivation in the modern workplace. Through powerful, research-based visuals and captions, learn about motivation theory and effective leadership coaching strategies for shaping a motivational workplace.
The document provides an overview of IMS (IP Multimedia Subsystem), including its history, architecture, layers, benefits, and relationship to SIP (Session Initiation Protocol). IMS allows convergence of voice, video, and data over an IP-based network using SIP and other IETF protocols. It has a service plane for applications, a control plane for session management, and a media plane for transport.
The document discusses how IMS (IP Multimedia Subsystem) and SOA (Service-Oriented Architecture) can help reduce the time needed to implement new services. IMS provides an open standard architecture for converged multi-media services across networks. SOA allows applications and services to be built in a modular way and connected through published interfaces, improving flexibility and integration. Combining IMS with SOA principles like loose coupling, reuse, and abstraction allows services to be deployed more quickly.
IP NGN security provides a framework for securing next generation networks through a hierarchical model. It describes key security principles of visibility, control and business relevance. The framework involves iteratively developing security policies through threat and risk assessment. It then outlines six fundamental security actions - identify, monitor, correlate, harden, isolate, and enforce - which apply policies to increase visibility and control through relevant technologies and improve security, resiliency and reliability for subscribers and operators.
Telecordia Ims Presentation Expections And ChallengesJeanne Rog
The document discusses the IP Multimedia Subsystem (IMS) industry including its status, expectations, challenges and key players. IMS is an NGN solution that aims to standardize network interfaces to avoid proprietary technologies. Major standards bodies contributing to IMS include 3GPP, 3GPP2, IETF and ETSI. Research shows the US leads in prioritizing IMS deployment to reduce costs by removing legacy infrastructure. Trials are underway to test interoperability between networks as service providers work towards full IMS implementations.
Slovak Telekom Case Study - Enabling enhanced services through IMS technology
- Mobile integration status
- Overview of new IP based services
- Evolution of the integration platform
Presented at IMS World Forum 2013 in Barcelona, Spain.
NTT's Next Generation Network Development
Takashi Ebihara of NTT presented on NTT's next generation network (NGN) development at a 2008 conference. Key points included:
1) NTT plans to deploy its NGN commercially in 2008 in Tokyo and Osaka and expand coverage to all fiber access areas by 2010.
2) NGN combines advantages of traditional telephone networks and IP networks with features like enhanced reliability, security, quality assurance and open interfaces.
3) NTT will collaborate with partners through forums and test beds to jointly develop innovative new services leveraging NGN's capabilities.
MPLS (Multi Protocol Label Switching) is a mechanism for data transport that operates on the data link layer below protocols like IP. It is mainly used to forward IP datagrams and Ethernet traffic. MPLS overcomes limitations of traditional IP routing by bringing the intelligence of routing with the performance of switching, and supports VPNs, QoS, and effective bandwidth management. MPLS works by assigning short fixed-length labels to packets, and routers use the labels stored in forwarding tables to make switching decisions instead of long IP addresses.
This document discusses the transition to all-IP telecom networks. It begins by reviewing the evolution of telecommunications from past technologies like GSM to the present with 4G/LTE networks and the future of 5G. It then explains that all-IP networks will converge different services like data, voice and multimedia onto a single IP-based network. This will impact the telecom market by increasing competition and allowing new entrants. The document also summarizes the growth of the Saudi telecom market in mobile, fixed and broadband services. It provides overviews of the marketing, business operations and personnel planning needed to support all-IP networks.
The document discusses migrating legacy telephone networks to next generation networks (NGNs). It describes how NGNs can help reduce costs while enabling new services. A key step is moving legacy voice services onto NGN platforms using distributed access gateways. This provides flexibility while maintaining service continuity and revenue from legacy services. The document also outlines KEYMILE's solutions for supporting voice over IP through media gateways on their MileGate and UMUX platforms.
Introduction to Wireless cellular technologie and NGN,IMS ganeshmaali
This document provides an overview of wireless cellular technologies and introduces Next Generation Networks (NGN). It discusses 2G technologies like GSM and CDMA and how they focused on circuit switched voice, SMS, and low-speed data. It then covers 2.5G and 3G technologies like GPRS, EDGE, UMTS, CDMA2000, which enabled higher-speed packet-switched data. The document also discusses 4G technologies like LTE and LTE-Advanced, along with key aspects of their network architectures. Finally, it provides a brief introduction to NGN and the IP Multimedia Subsystem.
The document provides an overview of IMS (IP Multimedia Subsystem) in next generation networks. It describes what IMS is, key components of the IMS architecture like CSCF (Call Session Control Function), HSS (Home Subscriber Server), AS (Application Server), and how IMS uses protocols like SIP and SDP. It also provides high-level descriptions of IMS operations during registration, origination of sessions to IMS and PSTN subscribers.
The document provides an overview of Next Generation Network (NGN) structure and components. It discusses the key drivers behind NGN development including convergence of traditional circuit-switched networks and packet-switched networks on a single Internet Protocol (IP) infrastructure. The document outlines the layered architecture of NGN including access, core, control and service layers. It describes the main network elements of NGN such as the softswitch, media gateways, signaling gateways and application servers. Finally, it discusses some of the important protocols used in NGN including SIP, H.323, MGCP and MEGACO.
The document discusses the transition from existing telecommunications networks to Next Generation Networks (NGNs). It defines NGNs as packet-based networks that can provide telecommunication services using multiple broadband technologies. The key aspects covered include the NGN architecture consisting of access, core, control and service layers, protocols used in NGNs like SIP and key NGN services like voice, multimedia and VPNs. It concludes that NGNs will be the foundation for new multimedia applications and an evolution from separate networks to a single network capable of carrying all services.
NGN is a packet-based network able to provide Telecommunication Services to users and able to make use of multiple broadband, QoS-enabled transport technologies and in which service-related functions are independent of the underlying transport-related technologies. It enables unfettered access for users to networks and to competing service providers and services of their choice. It supports generalized mobility which will allow consistent and ubiquitous provision of services to users.
The document discusses how IMS (IP Multimedia Subsystem) and SOA (Service-Oriented Architecture) can help reduce the time needed to implement new services. IMS provides an open standard architecture for converged multi-media services across networks. SOA allows applications and services to be built in a modular way and connected through published interfaces, improving flexibility and integration. Combining IMS with SOA principles like loose coupling, reuse, and abstraction allows services to be deployed more quickly.
IP NGN security provides a framework for securing next generation networks through a hierarchical model. It describes key security principles of visibility, control and business relevance. The framework involves iteratively developing security policies through threat and risk assessment. It then outlines six fundamental security actions - identify, monitor, correlate, harden, isolate, and enforce - which apply policies to increase visibility and control through relevant technologies and improve security, resiliency and reliability for subscribers and operators.
Telecordia Ims Presentation Expections And ChallengesJeanne Rog
The document discusses the IP Multimedia Subsystem (IMS) industry including its status, expectations, challenges and key players. IMS is an NGN solution that aims to standardize network interfaces to avoid proprietary technologies. Major standards bodies contributing to IMS include 3GPP, 3GPP2, IETF and ETSI. Research shows the US leads in prioritizing IMS deployment to reduce costs by removing legacy infrastructure. Trials are underway to test interoperability between networks as service providers work towards full IMS implementations.
Slovak Telekom Case Study - Enabling enhanced services through IMS technology
- Mobile integration status
- Overview of new IP based services
- Evolution of the integration platform
Presented at IMS World Forum 2013 in Barcelona, Spain.
NTT's Next Generation Network Development
Takashi Ebihara of NTT presented on NTT's next generation network (NGN) development at a 2008 conference. Key points included:
1) NTT plans to deploy its NGN commercially in 2008 in Tokyo and Osaka and expand coverage to all fiber access areas by 2010.
2) NGN combines advantages of traditional telephone networks and IP networks with features like enhanced reliability, security, quality assurance and open interfaces.
3) NTT will collaborate with partners through forums and test beds to jointly develop innovative new services leveraging NGN's capabilities.
MPLS (Multi Protocol Label Switching) is a mechanism for data transport that operates on the data link layer below protocols like IP. It is mainly used to forward IP datagrams and Ethernet traffic. MPLS overcomes limitations of traditional IP routing by bringing the intelligence of routing with the performance of switching, and supports VPNs, QoS, and effective bandwidth management. MPLS works by assigning short fixed-length labels to packets, and routers use the labels stored in forwarding tables to make switching decisions instead of long IP addresses.
This document discusses the transition to all-IP telecom networks. It begins by reviewing the evolution of telecommunications from past technologies like GSM to the present with 4G/LTE networks and the future of 5G. It then explains that all-IP networks will converge different services like data, voice and multimedia onto a single IP-based network. This will impact the telecom market by increasing competition and allowing new entrants. The document also summarizes the growth of the Saudi telecom market in mobile, fixed and broadband services. It provides overviews of the marketing, business operations and personnel planning needed to support all-IP networks.
The document discusses migrating legacy telephone networks to next generation networks (NGNs). It describes how NGNs can help reduce costs while enabling new services. A key step is moving legacy voice services onto NGN platforms using distributed access gateways. This provides flexibility while maintaining service continuity and revenue from legacy services. The document also outlines KEYMILE's solutions for supporting voice over IP through media gateways on their MileGate and UMUX platforms.
Introduction to Wireless cellular technologie and NGN,IMS ganeshmaali
This document provides an overview of wireless cellular technologies and introduces Next Generation Networks (NGN). It discusses 2G technologies like GSM and CDMA and how they focused on circuit switched voice, SMS, and low-speed data. It then covers 2.5G and 3G technologies like GPRS, EDGE, UMTS, CDMA2000, which enabled higher-speed packet-switched data. The document also discusses 4G technologies like LTE and LTE-Advanced, along with key aspects of their network architectures. Finally, it provides a brief introduction to NGN and the IP Multimedia Subsystem.
The document provides an overview of IMS (IP Multimedia Subsystem) in next generation networks. It describes what IMS is, key components of the IMS architecture like CSCF (Call Session Control Function), HSS (Home Subscriber Server), AS (Application Server), and how IMS uses protocols like SIP and SDP. It also provides high-level descriptions of IMS operations during registration, origination of sessions to IMS and PSTN subscribers.
The document provides an overview of Next Generation Network (NGN) structure and components. It discusses the key drivers behind NGN development including convergence of traditional circuit-switched networks and packet-switched networks on a single Internet Protocol (IP) infrastructure. The document outlines the layered architecture of NGN including access, core, control and service layers. It describes the main network elements of NGN such as the softswitch, media gateways, signaling gateways and application servers. Finally, it discusses some of the important protocols used in NGN including SIP, H.323, MGCP and MEGACO.
The document discusses the transition from existing telecommunications networks to Next Generation Networks (NGNs). It defines NGNs as packet-based networks that can provide telecommunication services using multiple broadband technologies. The key aspects covered include the NGN architecture consisting of access, core, control and service layers, protocols used in NGNs like SIP and key NGN services like voice, multimedia and VPNs. It concludes that NGNs will be the foundation for new multimedia applications and an evolution from separate networks to a single network capable of carrying all services.
NGN is a packet-based network able to provide Telecommunication Services to users and able to make use of multiple broadband, QoS-enabled transport technologies and in which service-related functions are independent of the underlying transport-related technologies. It enables unfettered access for users to networks and to competing service providers and services of their choice. It supports generalized mobility which will allow consistent and ubiquitous provision of services to users.