Implementations of IoT in the Telecommunications Business

Telecom Business Review | Monday, May 16, 2022

IoT has already permeated nearly every aspect of lives, from cars and watches to homes and towns, and the telecom industry is no exception.

FREMONT, CA: The telecommunications business provides the essential infrastructure that enables the communication between devices and data collection for processing and interpretation, enabling the IoT. Physical infrastructure such as underwater communications cables crisscrossing the globe, fiber optic backplanes, and local 5G towers that permit direct internet connections for many IoT devices are the central nervous system for the global spread of the IoT.

IoT is the key growth sector for telecommunications companies (telcos). The sheer growth in endpoints is generating a tectonic upheaval in the sector. As the sophistication of smart devices increases, there is an unquenchable need for bandwidth to enable their connectivity. In addition, the data science, management, and automation layers that interact with IoT-rich networks have a growing demand for speed and capacity. While personal smart devices account for about a third of all monitoring traffic, the data generated by corporate IoT deployments are more sensitive and, in most cases, mission-critical.

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Due to the increasing importance and reliance on IoT, downtime significantly impacts business operations and society. This makes interruptions considerably less tolerable than in the past, when a phone outage, while inconvenient, was unlikely to have disastrous repercussions. In the case of IoT medical devices, critical infrastructure, primary industries, and Industrial IoT, where an outage can be fatal, it is evident that stricter standards must be satisfied. The previous asset management and security solutions are insufficient and inflexible to securely support the mass adoption of IoT. CyAmast, for example, employs a novel approach to these problems that does not rely on attempting to retrofit obsolete signature-based security methods.

Conversely, telcos are also adopting IoT to improve their operations. Telcos are already utilizing IoT to offer innovative solutions for both their consumer and commercial clients. Combining data from even more endpoints to augment already-detailed profiles provides tangible benefits (and potential risks) to private and business users. In conjunction with IoT, Big Data offers telcos an advantage when generating tailored solutions from the greater number of data points within their reach. This additional data can aid in the optimization of a vast array of industry and company-specific solutions, including factory production processes, personalized healthcare systems, and retail shop management services. Thus, IoT may assist consumers in obtaining a solution to their particular problem while enabling telecom businesses to develop more profitable client relationships. In addition, IoT is currently being utilized to develop network architectural solutions that provide the optimal connectivity solution, optimizing existing operations. Ericsson, for instance, is well-known for merging IoT and AI to optimize network design.

Telecom firms incur substantial capital expenses as part of their operations. In addition to their core transmission hubs, exchanges, and data centers, they have outlying locations equipped with equipment such as picocells. These necessitate equipment like air conditioners and backup generators, which must function well to prevent downtime. Companies can keep an eye on faraway towers and anticipate issues by installing and monitoring sensors, and with a system, they can ensure that not only is the isolated equipment secure, but its predictive maintenance capabilities help to assure uninterrupted operations.

Traditional terrestrial mobile infrastructure carries the majority of the load for the IoT. However, IoT devices can also connect through satellites to eliminate the danger of signal loss interruptions. Coupled with LPWAN (Low Power Wide Area Networks) technologies such as NB-IoT and LTE-M (NarrowBand IoT and LTE-Machine Type Communication), the telco industry is embracing radically new paradigms that are fundamentally altering how devices connect. Reduced power consumption means that devices require less maintenance. With a battery life of up to 10 years, deployments of LPWAN-enabled IoT solutions can be contemplated with essentially no predicted maintenance requirements compared to historical implementations. In addition, they require far less CAPEX than conventional infrastructure solutions to get comparable results, as many server and network gateway requirements are eliminated.

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