A Conceptual Framework for Characterizing Fundamental Energy, Reliability, and Latency Trade-offs in Green Communication Paradigms for Next-Generation IoT
Year: 2025
Type: article
Abstract: The convergence of massive device populations, sustainability mandates, and mission-critical service requirements has placed energy consumption, communication reliability, and end-to-end latency at the centre of next-generation Internet of Things (IoT) design. These three objectives are mutually coupled, so that improvement along one axis routinely imposes a penalty along the others, yet the field continues to study them in fragmented, paradigm-specific silos. This paper develops a conceptual framework that characterizes the fundamental trade-offs among energy, reliability, and latency, referred to here as the ERL trilemma, within green communication paradigms intended for next-generation IoT. The three axes are formalized through a shared set of operational metrics and connected to information-theoretic anchors, drawing on classical capacity theory, the wideband energy-per-bit limit, and finite-blocklength coding bounds to explain why the coupling is fundamental rather than incidental. Achievable operating points are represented as a Pareto frontier, so that any green technique can be located by the trade-off signature it produces, and the dominant green communication paradigms, including energy harvesting, duty-cycled and sleep-mode operation, low-power wide-area networking, mobile edge computing, large-scale antenna and reconfigurable-surface techniques, and learning-based orchestration, are positioned according to where each paradigm displaces the surface. The resulting mapping yields a set of design principles and an agenda of open challenges, including joint-objective optimization under finite blocklength, lifecycle-aware energy accounting, and the reliability cost of learning-based control. The framework is intended as an organizing lens rather than a single optimization recipe, offering researchers and system designers a consistent vocabulary for reasoning about trade-offs that have so far been treated in isolation.
Authors: William Asiedu, Robert Quainoo, Alice Asiedu
Institutions: Northeastern University, Ashesi University, Iowa State University
Topic: IoT Networks and Protocols
Subfield: Electrical and Electronic Engineering
Field: Engineering
Domain: Physical Sciences
Open Access status: bronze
OpenAlex ID: W7166317300