Navigating 5G Deployment: Key Strategies for Mobile Operators
October 30, 2024 · 7 min to read
The rollout of 5G technology is more than just an upgrade; it fundamentally changes how mobile carriers manage their networks, engage with customers, and deliver services. With mobile broadband traffic projected to hit 466 exabytes per month by 2029—75% of which will likely be 5G—industry players must adopt strategic measures for a successful deployment. Read on to learn what strategies can help mobile network operators meet the growing demand.
Understanding Network Infrastructure Needs
One of the crucial things that operators should do is revamp their network infrastructure to roll out 5G effectively. A cloud-native approach is essential, as microservices should be utilized to deploy a flexible and scalable network. This supports the innovation of several technologies in the course of the network’s life cycle, say network slicing, enabling multiple virtual networks, each designed for various applications or services.
For example, this is evident in Verizon in the USA, which has implemented the use of 5G-ready base stations with software-activated features on the system so that it becomes easy to migrate between LTE systems to the 5G networks. Such a mechanism harnesses the existing capability and positions the network for additional future requirements.
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Testing Them Out First
Pilot projects are essential before putting it all on the line and rolling out deployment on a large scale. They are very useful testing grounds where the operators can test how their networks will perform in real-world scenarios. For example, AT&T started their 5G services in some American cities, which helped them fine-tune their network while gathering information on how users interact with the network.
Pilot projects can address issues such as user engagement and interactivity of applications, which will affect how a rollout will happen. By looking at these projects, operators tend to learn about specific difficulties they may encounter and the changes they should make before proceeding with mass deployment.
The Backbone of 5G: Spectrum Allocation
Without proper spectrum allocation and management, it will be impossible to harness the full potential of the 5G technology. Operators need to work hard and wade through a minefield of frequency bands to gain maximum coverage and performance. Here are some key aspects of spectrum allocation that are critical for effective 5G deployment:
Dynamic Spectrum Sharing (DSS) allows operators to use the same frequency band for 4G and 5G technologies and achieve better coverage and efficiency without the need to replace the existing technologies completely. Previously, operating different mobile standards required at least two antennas. Also, traditional spectrum management assigns frequency bands to wireless operators for exclusive use. On the other hand, DSS adopts a hierarchical spectrum access structure. It allows secondary users, including unlicensed users, to access the spectrum.
Frequency Band Management: Operators need to carefully allocate frequencies across regions. The low band is great because it covers a wide area. The mid-band, on the other hand, covers and increases capacity in the cities. Finally, the mmWave high-band allows for high-speed transmission in a small area, which makes it useful in areas with dense populations. As a result, this selection and management of frequency bands filter the different needs of customers and the quality of service provided.
Ericsson emphasizes that, without a doubt, proper spectrum management is a key area of focus as traffic is set to increase rapidly in the coming years—up to an anticipated 466 exabytes per month in 2029. A staggering 85% of this traffic will be attributed to 5G networks. This presents a clear case for efficiently planned spectrum management for future needs.
Enhanced Mobile Broadband: Meeting User Expectations
One of the primary benefits of 5G is enhanced mobile broadband, or eMBB, which allows for the faster transmission of data and an overall greater experience for the end user. To realize such a goal, operators must consider rolling out technology such as massive MIMO, multiple input, multiple output antennas, and small cells across densely populated areas.
A notable example of practical implementation comes from Deutsche Telekom, a leading telecommunications company in Germany. With over 11,900 5G antennas deployed nationwide, Deutsche Telekom can serve multiple users simultaneously, improving overall network efficiency. Additionally, the strategic installation of small cells in high-traffic areas boosts signal strength and capacity, ensuring reliable connectivity even during peak usage times. The company also employs network slicing, allowing it to create virtual networks tailored to specific applications or user groups, optimizing resource allocation based on demand.
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Shifting Gear towards Edge Computing
Last but not least, edge computing has to be integrated into the network to successfully implement 5G. Such a redesign, where data will be handled closer to consumers, will help in achieving lower latency and better quality of service. This is especially useful for those applications that require immediate action, such as driverless cars or smart city applications. Key benefits of integrating edge computing into 5G networks include:
Lower Latency: This is important for applications where processes need real-time response.
Improved Bandwidth: Bandwidth usage is decreased due to excessive data handling locally rather than transmitting it over long distances to centralized data centers. This is especially useful in highly populated areas.
Increased Reliability: Processing data locally as an alternative will make sure that some applications can work without connecting to the central cloud for a certain period. Such redundancy is necessary for critical applications.
Support for IoT Devices: As the number of Internet of Things (IoT) devices increases, edge computing helps smartly manage the loads of data produced by these devices without straining the network.
Operators such as T-Mobile are examining edge computing options that are based on the current setup and involve the low-latency components for the particular needs of their application. This not only improves the usage of the devices but also brings new opportunities in terms of providing new services.
Conclusion
To conclude, the successful adoption of 5G technology rests on specific strategies that mobile operators need to implement in order to maneuver around transformational storms. Given the current trend towards the demand for better mobile broadband connectivity, the adaptation of such strategies is a must for mobile operators in order to better satisfy their users and explore new prospects.
Let us summarize the key strategies that have been articulated:
Comprehending Network Infrastructure Requirements: Reconstruct networks to be cloud-native and have network-slicing capabilities.
Testing Them Out First: Set up pilot projects and adjust the networks with information from actual experiences.
The Backbone of 5G: Implement adequate spectrum management such as DSS for optimization of coverage and performance.
Enhanced Mobile Broadband: Employ technologies such as massive MIMO and small cells for better user experiences.
Shifting Gear towards Edge Computing: Add edge computing to reduce the latency and enhance the service quality of real-time applications.
The future of 5G mobile looks bright. Given the forecast that as many as 8 billion global user subscriptions could be on 5G by the end of 2028, it is evident that mobile operators have no time to waste. It goes beyond marketing for these players, as they find themselves as forerunners in an ever-changing digital world. The present and future of connectivity lie with 5G.