Читать книгу Shaping Future 6G Networks - Группа авторов - Страница 30
2.1 Introduction
ОглавлениеThe 5th generation (5G) of wireless networks was positioned to support, besides the evolution of mobile broadband, new use cases ranging from massive IoT to ultrareliable services. However, in view of future technological innovations, researchers, industrial companies, and standardization bodies have started proposing new use cases and services that, for their generality and complementarity, would not be fully supported by 5G networks and are thus good representatives of future 6G services [1]. While the literature has a larger focus on application domains for the business‐to‐consumer (B2C) sector, this chapter discusses new beyond‐5G drivers for the business‐to‐business (B2B) markets, such as automotive, manufacturing and logistics, health and government, smart transportation, banking, and financial verticals.
Starting from the 5G‐identified verticals, we make the case that, among other services, 6G will (i) fully realize the industrial and manufacturing revolution started with 5G, i.e. the digital transition to a cyber physical facility (Section 2.3.1); (ii) revolutionize business meetings and events by enabling the digitalization and transmission of human sensing and objects through teleportation and digital twins (Sections 2.3.2 and 2.3.3); (iii) support smart (and autonomous) transportation with important implications for the logistics and fleet management sectors (Section 2.3.4); (iv) improve public safety (PS) networking for first responders (Section 2.3.5); (v) transform the healthcare sector through remote intervertions and home care to guarantee the most efficient use of healthcare resources and support the reduction of management costs for health facilities (Section 2.3.6); (vi) accelerate the adoption of solutions for digital services in cities, farming, and warehousing, targeting environmental monitoring, traffic control, and management automation (Section 2.3.7); and (vii) revolutionize the financial sector by supporting novel banking operations and efficient high‐frequency trading (HFT) (Section 2.3.8).
This chapter also discusses commonalities and differences among these drivers and outlines the order of magnitude of key performance indicators (KPIs) and requirements to be satisfied. In particular, while 5G‐based use cases typically present trade‐offs on latency, energy consumption, development and deployment costs, computational complexity, and throughput, 6G will be developed to meet stringent network demands in a holistic fashion, in view of the foreseen economic and business context of the 2030 era. Specifically, 6G paradigms will need to support (i) continuous connectivity, thus enabling coverage expansion compared to 5G in a cost‐efficient way to simultaneously reach high capacity, lower latency, and improved reliability; (ii) zero‐energy devices, e.g. for Internet of Things (IoT) and sensing applications for devices dispersed in wide areas for which replacing batteries will not be practical; and (iii) network‐compute integration to allow better predictions while maximizing performance in terms of latencies under 1 millisecond, low jitter, and high communication resilience.