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March 12, 2026Sensors0 citationsOpen Access

Enhanced Secretary Bird Optimization Algorithm for Energy-Efficient Cluster Head Selection in Wireless Sensor Networks

KSKetty Siti SalamahDGDadang GunawanUniversity of IndonesiaAAAjib Setyo ArifinUniversity of Indonesia

Key Points

  • The central aim is to enhance cluster head selection in wireless sensor networks for better energy efficiency and longevity.
  • Formulated cluster head selection as a multi-criteria energy-aware optimization problem.
  • Developed an Enhanced Secretary Bird Optimization Algorithm integrating logistic chaotic map-based initialization.
  • Implemented an iterative local search mechanism for refined solutions.
  • Used a first-order radio energy model for simulation in Python.
  • Achieved approximately 3-13% improvement in last node death compared to standard SBOA.
  • Preserved more alive nodes and maintained higher residual energy during operations.
  • Delivered more cumulative packets to the base station, extending network lifetime.

Abstract

Cluster Head (CH) selection is a crucial process in clustered Wireless Sensor Networks (WSNs) because it directly affects energy balance and network lifetime. However, CH selection is an NP-hard optimization problem, and many metaheuristic-based methods suffer from limited search diversity and premature convergence, leading to uneven energy dissipation. This paper formulates CH selection as a multi-criteria energy-aware optimization problem and proposes an Enhanced Secretary Bird Optimization Algorithm (ESBOA). The proposed ESBOA improves the original Secretary Bird Optimization Algorithm by integrating logistic chaotic map-based population initialization to enhance early-stage exploration and an iterative local search mechanism to strengthen solution refinement in later iterations. A multi-criteria fitness function considering residual energy, distance to the base station, and node degree explicitly guides the optimization toward energy-efficient clustering. The proposed method is implemented in a Python 3.11.9-based simulation framework using a first-order radio energy model and evaluated against standard SBOA, Crested Porcupine Optimization (CPO), and Dung Beetle Optimization (DBO). Simulation results demonstrate that ESBOA preserves more alive nodes, maintains higher residual energy, delivers more cumulative packets to the base station, and extends network lifetime, achieving approximately 3–13% improvement in last node death (LND) compared with the standard SBOA.

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Cite This Study

Salamah et al. (2026) studied this question.

synapsesocial.com/papers/69b2579096eeacc4fcec6489https://doi.org/10.3390/s26051732
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