Unlike 4G, 5G’s service-based architecture and the control and user plan separation render themselves well for an end-to-end virtualization for enabling network slicing. Network slices can be created for specific applications or use cases with guarantees on quality of service such as throughput and latency. The dynamic policy management and accurate real-time decisions, whether for internal optimizations or thwarting external threats, need to be made in milliseconds to assure the QoS guarantees. A well-designed microservices implementation can facilitate this delivery. When considering separation of state and business logic, one needs to be mindful of the nature of business logic. With the latency constraints in mind, the application flow control logic needs to reside with the stateless service instances and the data-driven decision-making logic must reside with the data to avoid unnecessary movement of data, which puts strain on the network and fails to meet low-latency decision-making needs.
While 4G was introduced to meet the demand of the growing number of Internet-connected smartphones, 5G is expected to enable billions to trillions of connected devices powering IoT use cases. Sensor data from industrial equipment and products, such as buildings, utility meters, vehicles, residential devices, wearables, and more will be generated at volumes too large to transport and store in a centralized data center. Additionally, a vast number of Industrial IoT use cases, such as predictive maintenance, demand the processing of data in real-time, where risk of a delay can mean equipment downtime and loss of revenue. This demand for real-time, high-volume data processing can only be met by edge and fog computing.
Why is it going to be so challenging to make the most of 5G? The network demands software capabilities and methodologies that are new to CSPs and telecom software solution providers. Below are the critical data requirements for implementing and deploying the control plane elements:
As it stands, there remain areas where 4G may provide all needed capacity for personal and even small business needs. However, AR and VR, smart cities, mobile gaming, and production and logistics, in addition to others, will all improve on 5G maximum capacity networks.
What is the difference? Scale and utility. As the much-anticipated network emerges, the need for real-time, actionable, decision-making is greater than ever before. With a real-time data architecture powering next-generation applications and microservices, organizations can monetize their fast data to create a competitive advantage, transforming their infrastructure from post-event to in-event and actionable.
The question is: is your business looking to upend its competition through technological dominance, or will you accept technological parity and see what the future holds?