A microwave ring-resonator sensor for non-invasive assessment of meat aging

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Abstract

The assessment of moisture loss from meat during the aging period is a critical issue for the meat industry. In this article, a non-invasive microwave ring-resonator sensor is presented to evaluate the moisture content, or more precisely water holding capacity (WHC) of broiler meat over a four-week period. The developed sensor has shown significant changes in its resonance frequency and return loss due to reduction in WHC in the studied duration. The obtained results are also confirmed by physical measurements. Further, these results are evaluated using the Fricke model, which provides a good fit for electric circuit components in biological tissue. Significant changes were observed in membrane integrity, where the corresponding capacitance decreases 30% in the early aging (0D-7D) period. Similarly, the losses associated with intracellular and extracellular fluids exhibit changed up to 42% and 53%, respectively. Ultimately, empirical polynomial models are developed to predict the electrical component values for a better understanding of aging effects. The measured and calculated values are found to be in good agreement.

Figures

  • Figure 1. Fluids within a muscle, intracellular (ICF) and extracellular (ECF) compartment fluids. (a) Fresh muscle with intact cell membrane; (b) muscle with permeable cell membrane.
  • Figure 2. Highly sensitive microwave ring-resonator sensor. (a) Illustration; (b) Fabricated prototype. Figure 2. Highly sensitive microwave ring-resonator sensor. (a) Illustration; (b) Fabricated prototype.
  • Table 1. Design parameters of a highly sensitive microwave ring-resonator sensor.
  • Figure 3. Simulated and measured resonance frequency response of a microwave ring-resonator sensor (without sample).
  • Figure 4. Equivalent RLC circuit of (a) Capacitively coupled ring resonator; (b) Fricke model representing the biological tissue.
  • Figure 5. Studied broiler breast fillets. (a) Samples stored in freezer; (b) Equilibrated sample with collected drip.
  • Figure 6. Experimental design for physical and electrical measurements.
  • Table 2. Measured physical properties of fresh broiler meat.

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CITATION STYLE

APA

Jilnai, M. T., Wen, W. P., Cheong, L. Y., & Rehman, M. Z. U. (2016). A microwave ring-resonator sensor for non-invasive assessment of meat aging. Sensors (Switzerland), 16(1). https://doi.org/10.3390/s16010052

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