IoT has been radically changing consumer and business landscape over the last few decades. The diverse set of connected devices from a range of verticals needs a unique communication infrastructure. Besides, these connected devices require low power, faster connectivity, and higher security. With the advent of technologies, enterprises have adopted digital transformation to get an edge over their competitors. As a result, new application areas are emerging across a range of verticals, such as industrial automation, smart factories, Machine to Machine (M2M) process control, discrete and process manufacturing, smart grid, smart meters, smart energy, smart lighting, remote patient monitoring, hospital asset tracking, remote diagnosis, remote surgery, warehouse logistics, fleet management, asset tracking, autonomous driving, smart cities, public safety, parking management, video surveillance, smart building, smart retail, environmental monitoring, water management, and crop management. The global 5G IoT market is in the nascent phase and expected to grow from USD 694 million in 2020 to USD 6,285.5 million by 2025, growing at a Compound Annual Growth Rate (CAGR) of 55.4% during the forecast period.
Source: MarketsandMarkets Analysis
The next-generation application areas, such as tactical communication, Industrial IoT (IIoT), connected cars, connected healthcare, driverless cars, edge computing, and smart cities, are prime use cases that require higher bandwidth and low latency enabled by 5G, a new standard set by 3rd Generation (3G) Partnership Project (3GPP). 5G is not a replacement for 4th Generation (4G) or 3G technologies, but an augmented version of 4G to deliver faster communication services. It caters to consumers and businesses in terms of data connectivity and would lead the next-generation communication technology market space. With higher flexibility, greater speed, and enhanced security, 5G is equipped for all the emerging IoT use cases, which require low latency and high power. 5G network is in the embryonic stage and expected to be commercially available by 2020 across most of the developing and developed countries.
High Performances and Low Complexities to Drive Adoption of 5G New Radio Standalone Architecture
5G New Radio (NR) Standalone |
5G New Radio (NR) Non-standalone |
|
|
5G promises to deliver faster speed for IoT devices at a lower cost. As compared to the traditional cellular IoT technique, the 5G network is set to change mobile telephony by connecting IoT devices drastically. The 5G network would have a dramatic impact on the IoT connectivity network. Currently, Communication Service Providers (CSPs) are delivering IoT connectivity via Cat-M1 and NB-IoT. These technologies enable CSPs to cater to a wide range of application areas across manufacturing, energy and utilities, transportation and logistics, smart city, and healthcare industries. With the growth in application areas, connected IoT devices are expected to burgeon across industries. CSPs are striving to provide improved network coverage for widening the IoT ecosystem.
Emerging New Use Cases to Drive Growth of IoT Connections
Verticals |
Use Cases |
Manufacturing |
|
Media and Entertainment |
|
Government |
|
Healthcare |
|
Utilities |
|
Agriculture |
|
Automotive |
|
Retail |
|
With substantial growth in connected cellular IoT devices, telecom operators are reigniting their business revenues from the 5G radio network. 5G would help enterprises reduce their operational costs, improve network resource utilization, and implement a wide range of new services, including IIoT, smart cities, smart farming, connected healthcare, and connected cars. Hence, the 5G IoT market is expected to offer massive opportunities to CSPs during the upcoming years to gain a competitive advantage.