Optimizing behavioral and economic strategies for the ubiquitous integration of wireless energy transmission in smart cities

This research explores the optimization of behavioural and economic strategies for the seamless integration of wireless energy transmission (WET) technologies into smart cities. As urban centres evolve towards greater connectivity, efficiency, and sustainability, the adoption of WET offers immense potential for powering Internet of Things (IoT) devices, electric vehicles, and infrastructure without physical connections. However, the widespread implementation of WET faces significant barriers, including public scepticism, economic feasibility, and the high costs of infrastructure development. This study addresses these challenges by examining the psychological and economic factors influencing the adoption of WET. Key behavioural obstacles such as resistance to change, safety concerns, and lack of awareness are analyzed, alongside potential interventions like educational campaigns, gamification, and trust-building initiatives. In parallel, economic barriers such as infrastructure costs, regulatory hurdles, and uncertainties regarding return on investment are investigated. The research proposes innovative economic strategies, including public-private partnerships, dynamic pricing models, and financial incentives, to support widespread adoption. By integrating behavioural and economic approaches, this research develops an optimized framework for promoting the ubiquitous integration of WET in smart cities. Case studies of successful technological adoptions provide insights into how similar strategies can be applied to WET. Furthermore, the research identifies opportunities for patentable innovations that combine behavioural incentives with economic models, fostering the development of new technologies and policies. This multidisciplinary approach offers a roadmap for cities seeking to harness WET for sustainable urban growth, emphasizing the importance of addressing both psychological and economic barriers.