Benefits of Network Slicing in 5G

5G networks must cater to diverse services, like video calls, mobile gaming, and IoT applications, each with their own demands on network performance. It also needs to support different cellular technology connections (5G, LTE, and Wi-Fi) and handle diverse base stations (macro, micro, pico).

5G networks need to work seamlessly with existing technologies like LTE and Wi-Fi. Different connections are chosen based on your phone's needs (fast speeds or reliable data), ensuring smooth data transfer even when you switch between networks.

5G networks are built with an adaptable structure that can handle different service needs. For example, resources can be allocated on-site for immediate needs or remotely via cloud computing, based on demands and available network resources.

5G networks utilize various network functions to provide different services, like providing high speeds for video streaming or ensuring ultra-low latency for critical applications like autonomous vehicles.

The challenge of designing a 5G network architecture lies in its ability to support diverse services, manage multiple technologies, and adapt resource allocation dynamically. This requires a flexible and efficient design to meet diverse user demands.

The legacy mobile network architecture, designed for voice and basic mobile internet, lacks the flexibility needed for 5G's diverse service offerings. Its complexity with multiple versions, network equipment, and interfaces, requires transformation to accommodate 5G's demands.

The transformation of the network architecture is vital for 5G's success. This change addresses the challenges posed by diverse services, multi-connectivity, on-demand deployment, and orchestration of network functions to enable a flexible and efficient network.

The driving force behind the transformation of network architecture is the need to accommodate the evolving 5G landscape. This includes the increasing complexity of services, technologies, and resource allocation strategies.

A concept in 5G networks where network resources are dynamically allocated based on the specific requirements of individual services. This allows for greater flexibility and efficiency in meeting diverse service demands.

A paradigm shift in network management where software defines the network behavior, allowing for greater flexibility and programmable control. It separates the control plane from the data plane, enabling centralized control of network functions.

A technology that allows for virtualizing network functions, replacing physical hardware with software running on general-purpose servers. This increases flexibility, reduces costs, and simplifies network management.

A key benefit of NFV and SDN in 5G, where network resources are divided into logical slices dedicated to specific services. Each slice has its own dedicated resources, ensuring service isolation and performance guarantees.

A key element of the 5G service-driven architecture that enables dynamic provisioning of network resources based on the specific needs of a service. These anchors act as points of access and control for various network functions.

The ability to design and deploy network functions as modular components. This allows flexibility in building customized network configurations by selecting and combining different functionalities.

A set of technologies and processes that ensure seamless and efficient management of network resources across the entire network. It enables centralized control, orchestration, and monitoring of network functions.

A key enabler of the 5G service-driven architecture, enabling various core network functions to be implemented as software modules. This promotes flexibility, scalability, and rapid deployments.

A specific part of a 5G network designed to handle a particular type of service with unique demands, like high speed for video streaming or low latency for self-driving cars.

5G's ability to support different types of services simultaneously by dividing the network into separate, independent slices that meet individual service requirements.

A cloud-based system in 5G that manages and allocates resources for the Radio Access Network (RAN), the part of the network that connects your phone to the tower.

The part of the 5G network that handles real-time tasks like scheduling connections and managing interference. It requires high performance and computing power.

A 5G network architecture that places the Mobile Cloud Engine (MCE) in a local data center closer to users, reducing the need for data to travel long distances.

A 5G network architecture that connects the Mobile Cloud Engine (MCE) to the central office data center, enabling centralized control.

The process of integrating cloud computing technology into the Radio Access Network (RAN) of a 5G network, allowing for greater flexibility, scalability, and efficiency.

A type of 5G network architecture that decentralizes control by deploying some functions closer to the user, while others remain in a central location. This helps to improve performance and reduce latency.

A network architecture where control and user plane functions are separated. This enhances flexibility, allowing for independent scaling and upgrades of these functions.

A new network architecture in 5G that separates control and user plane functions, allowing for greater flexibility, scalability, and performance. It also enables the deployment of network functions as software modules, making them more agile and cost-effective.

A crucial element of the Cloud-Native New Core Architecture, cSON enhances network capabilities, coverage, and resources. It utilizes cloud technology for efficient management and scaling of network functions.

A type of server platform that can be deployed on top of the Cloud OS and COTS-based cloud infrastructure, providing carrier-grade disaster recovery, on-demand deployment, flexible scalability, and independent feature upgrades.

CloudRAN offers significant benefits compared to traditional network architectures. It simplifies network management, improves resource allocation, and lowers costs by sharing resources among different network technologies. It also enhances user experience with faster speeds and lower latency, crucial for delivering reliable high-speed data.

In a traditional network, the responsibility for managing data and connecting different network technologies is scattered among different base stations. CloudRAN consolidates these functions into a single entity called MCE, a centralized control and management platform, leading to a more unified and efficient network.

MCE, or Multi-Connectivity Engine, is the central brain of CloudRAN. It acts as a hub for managing different network technologies, such as LTE, 5G, and Wi-Fi. This centralization allows for efficient resource allocation and smooth transitions between different network types, ensuring optimal user experiences.

CloudRAN's MCE integrates functionalities like RAN non-real-time functions, Wi-Fi Access Control, a distributed gateway, and service-related applications. It also includes essential modules like the general control plane (cRRC) for facilitating multi-connectivity and the centralized resource management module (cRRM) for efficiently managing resources in heterogeneous networks.

The general control plane (cRRC) in CloudRAN's MCE is essential for coordinating multiple network technologies like LTE, 5G, and Wi-Fi. It smoothly handles transitions between these technologies, ensuring seamless data flow regardless of which network is being used. This seamless multi-connectivity is a major advantage of CloudRAN.

The centralized resource management module (cRRM) in CloudRAN's MCE plays a crucial role in efficiently allocating network resources. It optimizes resource allocation across multiple technologies, ensuring that the network can handle diverse demands from different users and devices. This efficient resource management is key to delivering optimal user experience and network performance.

CloudRAN enables flexible and efficient deployment of 5G networks, particularly in high-frequency small cell scenarios. It simplifies network management, reduces costs, and enhances user experience with faster speeds and low latency. These benefits position CloudRAN as a key technology for driving the evolution of 5G networks.

A self-service agile operation in mobile networks enables automatic generation, maintenance, and termination of network slices based on service requirements, reducing operational costs and allowing third-party industries to input their requirements.

E2E (end-to-end) network slicing ensures seamless management, orchestration, and control of network resources across the entire network, from user device to core network, enabling flexible and efficient service delivery.

Third-party vertical industries can integrate with the operator's platform to input their mobile network slicing requirements, enabling customized service creation and agile network operation.