Rapid on-line non-destructive detection of the moisture content of corn ear by bioelectrical impedance spectroscopy
Abstract
Keywords: moisture content, non-destructive detection, bioelectrical impedance spectroscopy, corn ear
DOI: 10.3965/j.ijabe.20150806.1238
Citation: Zhao P F, Zhang H L, Zhao D J, Wang Z J, Fan L F, Huang L, et al. Rapid on-line non-destructive detection of the moisture content of corn ear by bioelectrical impedance spectroscopy. Int J Agric & Biol Eng, 2015; 8(6): 37-45.
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Zhang H X, Liu W, Tan B X, Lu W. Corn moisture measurement using a capacitive sensor. Journal of Computers, 2013; 8(6): 1627–1631.
Soltani M, Alimardani R. Prediction of corn and lentil moisture content using dielectric properties. Journal of Agricultural Technology, 2011; 7(5): 1223–1232.
McIntosh R B, Casada M E. Fringing field capacitance sensor for measuring the moisture content of agricultural commodities. Sensors Journal, IEEE, 2008; 8(3): 240–247.
Kraszewski A W, Nelson S O, You T S. Moisture content determination in single corn kernels by microwave resonator techniques. Journal of Agricultural Engineering Research, 1991; 48: 77–87.
Nelson S O, Trabelsi S, Kraszewski A W. Advances in sensing grain moisture content by microwave measurements. Transactions of the ASAE, 1998; 41(2): 483–488.
Nelson S O, Trabelsi S. Principles for microwave moisture and density measurement in grain and seed. Journal of Microwave Power and Electromagnetic Energy, 2004; 39(2): 107–118.
Trabelsi S, Nelson S O, Lewis M A. Effects of “natural” water and “added” water on prediction of moisture content and bulk density of shelled corn from microwave dielectric properties. Journal of Microwave Power and Electromagnetic Energy, 2010; 44(2): 72–80.
Reid L M, Zhu X, Morrison M J, Woldemariam T, Voloaca C, Wu J, et al. A non-destructive method for measuring maize kernel moisture in a breeding program. Maydica, 2010; 55(2): 163.
Filipenco A, Mandache V, Vâlsan G, Ivan F, Ciocăzanu I. Efficiency of utilization of aselection index in assessment of drydown of corn genotypes (Zea mays L.). Scientific Papers-Series A, Agronomy, 2013, 56: 249–252.
Mizukami Y, Sawai Y, Yamaguchi Y. Moisture content measurement of tea leaves by electrical impedance and capacitance. Biosystems Engineering, 2006; 93(3): 293–299.
Repo T, Paine D H, Taylor A G. Electrical impedance spectroscopy in relation to seed viability and moisture content in snap bean (Phaseolus vulgaris L.). Seed Science Research, 2002; 12(01): 17–29.
Wu L, Ogawa Y, Tagawa A. Electrical impedance spectroscopy analysis of eggplant pulp and effects of drying and freezing–thawing treatments on its impedance characteristics. Journal of Food Engineering, 2008; 87(2): 274–280.
Damez J L, Clerjon S, Abouelkaram S, Lepetit J. Dielectric behavior of beef meat in the 1–1500 kHz range: Simulation with the Fricke/Cole–Cole model. Meat Science, 2007; 77(4): 512–519.
Zhang X, Luo E P, Shen G H, Xie K N, Song TY, Wu X M, et al. Multi-frequency bioimpedance measurements of rabbit shanks with stress fracture. Journal of Biomedical Science and Engineering, 2009; 2(03): 166.
Damez J L, Clerjon S, Abouelkaram S, Lepetit J. Electrical impedance probing of the muscle food anisotropy for meat ageing control. Food Control, 2008; 19(10): 931–939.
Laarabi S. Characterization of short-term stress applied to the root system by electrical impedance measurement in the first leaf of corn (Zea mays L.) and Pumpkin (Cucurbita maxima L.) American Journal of Plant Sciences, 2014, 5: 1285–1295.
Mbezia M T, Fouda H P E, Tabi C B, Kofané T C. Estimated photosynthetic activity from its electrical impedance spectroscopy. American Scientific Research Journal for Engineering, Technology, and Sciences, 2015, 13(1): 178–193.
Bera T K, Nagaraju J. Electrical impedance spectroscopic studies on broiler chicken tissue suitable for the development of practical phantoms in multifrequency EIT. Journal of Electrical Bioimpedance, 2011; 2(1): 48–63.
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