TY - JOUR
T1 - Urban wireless traffic evolution: The role of new devices and the effect of policy
AU - Benseny, Jaume
AU - Lähteenmäki, Jarno
AU - Toyli, Juuso
AU - Hammainen, Heikki
N1 - Funding Information:
We estimate the penetration of connected cars through the population of passenger cars in use in the Uusimaa region.2 This population has steadily increased during 2013–2018, with an annual average growth of 7836 cars, reaching 710,457. The number of newly registered passenger cars has expanded with an average annual growth of approximately 50,000 (Official Statistics of Finland, 2019b). We assume that all newly registered passenger cars starting from 2018 onwards are equipped with mobile modems due to the EU mandate to support 112-based eCall. We estimate a low penetration scenario, considering 48,000 new annual registrations, population growth of 7,836, and a constant Uusimaa region population of 1,671,024. In contrast, we estimate a high penetration scenario motivated by transport electrification policies (e.g., subsidies on electric vehicle acquisition in exchange for polluting vehicles, road pricing for polluting vehicles), which may increase the number of newly registered passenger cars to 55,000 annually.This work was done as part of the Neutral Host Pilot project within the LuxTurrim5G ecosystem funded by the participating companies and Business Finland (https://www.luxturrim5g.com/). The authors thank Jarno Niemelä, Kalle Ruttik, and Heidi Himmanen for the insightful discussions.
Publisher Copyright:
© 2023
PY - 2023/8
Y1 - 2023/8
N2 - The emergence of new wireless technologies, such as the Internet of Things, allows digitalizing new and diverse urban activities. Thus, wireless traffic grows in volume and complexity, making prediction, investment planning, and regulation increasingly difficult. This article characterizes urban wireless traffic evolution, supporting operators to drive mobile network evolution and policymakers to increase national and local competitiveness. We propose a holistic method that widens previous research scope, including new devices and the effect of policy from multiple government levels. We provide an analytical formulation that combines existing complementary methods on traffic evolution research and diverse data sources. Results for a centric area of Helsinki during 2020–2030 indicate that daily volumes increase, albeit a surprisingly large part of the traffic continues to be generated by smartphones. Machine traffic gains importance, driven by surveillance video cameras and connected cars. While camera traffic is sensitive to law enforcement policies and data regulation, car traffic is less affected by transport electrification policy. High-priority traffic remains small, even under encouraging autonomous vehicle policies. Based on peak hour results, we suggest that 5G small cells might be needed around 2025, albeit the utilization of novel radio technology and additional mid-band spectrum could delay this need until 2029. We argue that mobile network operators inevitably need to cooperate in constructing a single, shared small cell network to mitigate the high deployment costs of massively deploying small cells. We also provide guidance to local and national policymakers for IoT-enabled competitive gains via the mitigation of five bottlenecks. For example, local monopolies for mmWave connectivity should be facilitated on space-limited urban furniture or risk an eventual capacity crunch, slowing down digitalization.
AB - The emergence of new wireless technologies, such as the Internet of Things, allows digitalizing new and diverse urban activities. Thus, wireless traffic grows in volume and complexity, making prediction, investment planning, and regulation increasingly difficult. This article characterizes urban wireless traffic evolution, supporting operators to drive mobile network evolution and policymakers to increase national and local competitiveness. We propose a holistic method that widens previous research scope, including new devices and the effect of policy from multiple government levels. We provide an analytical formulation that combines existing complementary methods on traffic evolution research and diverse data sources. Results for a centric area of Helsinki during 2020–2030 indicate that daily volumes increase, albeit a surprisingly large part of the traffic continues to be generated by smartphones. Machine traffic gains importance, driven by surveillance video cameras and connected cars. While camera traffic is sensitive to law enforcement policies and data regulation, car traffic is less affected by transport electrification policy. High-priority traffic remains small, even under encouraging autonomous vehicle policies. Based on peak hour results, we suggest that 5G small cells might be needed around 2025, albeit the utilization of novel radio technology and additional mid-band spectrum could delay this need until 2029. We argue that mobile network operators inevitably need to cooperate in constructing a single, shared small cell network to mitigate the high deployment costs of massively deploying small cells. We also provide guidance to local and national policymakers for IoT-enabled competitive gains via the mitigation of five bottlenecks. For example, local monopolies for mmWave connectivity should be facilitated on space-limited urban furniture or risk an eventual capacity crunch, slowing down digitalization.
KW - Internet of things
KW - Smart city
KW - Telecom policy
KW - Traffic evolution
KW - Wireless traffic
UR - http://www.scopus.com/inward/record.url?scp=85164351995&partnerID=8YFLogxK
U2 - 10.1016/j.telpol.2023.102595
DO - 10.1016/j.telpol.2023.102595
M3 - Article
AN - SCOPUS:85164351995
SN - 0308-5961
VL - 47
JO - Telecommunications Policy
JF - Telecommunications Policy
M1 - 102595
ER -