Scientific Reports (Mar 2025)

Perspectives on terahertz honey bee sensing

  • Andreas Prokscha,
  • Fawad Sheikh,
  • Mandana Jalali,
  • Pieterjan De Boose,
  • Eline De Borre,
  • Vera Jeladze,
  • Felipe Oliveira Ribas,
  • David Toribio Carvajal,
  • Jan Taro Svejda,
  • Tobias Kubiczek,
  • Basem Aqlan,
  • Pooya Alibeigloo,
  • Enes Mutlu,
  • Jonas Watermann,
  • Jonathan Abts,
  • Robin Kress,
  • Christian Preuss,
  • Simone Clochiatti,
  • Livia Wiedau,
  • Nils G. Weimann,
  • Jan C. Balzer,
  • Arno Thielens,
  • Thomas Kaiser,
  • Daniel Erni

DOI
https://doi.org/10.1038/s41598-025-91630-8
Journal volume & issue
Vol. 15, no. 1
pp. 1 – 23

Abstract

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Abstract Terahertz (THz) technology provides precise monitoring capabilities in dynamic environments, offering unique insights into insect habitats. Our study focuses on environmental monitoring of European honey bees (Apis mellifera) through a combination of measurements and simulations. Initially, the dielectric material properties of honey bee body parts are characterized across the spectral range of 1–500 GHz to collect heterogeneous empirical data. To extend the study, honey bee mockups made from polyamide 12 (PA12) and epoxy resin are employed and validated as effective substitutes for real bees through comparative scattering analyses. The research further explores radar cross-section (RCS), imaging, and spectral properties using advanced THz technologies, including resonant tunneling diodes (RTDs) operating at 250 GHz and THz time-domain spectroscopy (THz-TDS) for frequencies exceeding 250 GHz. High-resolution imaging, utilizing a 450 GHz bandwidth, captures intricate anatomical features of both real and 3D-printed bees, showcasing the potential of THz technology for detailed environmental monitoring. Finally, simulations at 300 GHz assess the dosimetry and feasibility of non-invasive, continuous monitoring approaches based on the heterogeneous honey bee model.