Biological sensor based on a lateral electric field-excited resonator

This paper describes a biological sensor based on a lateral electric field-excited resonator using an X-cut lithium niobate plate. Its potential was shown through the example of biological interaction between bacterial cells and specific bacteriophages. The detection was based on the analysis of the...

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Published inIEEE transactions on ultrasonics, ferroelectrics, and frequency control Vol. 59; no. 5; pp. 963 - 969
Main Authors Zaitsev, B. D., Kuznetsova, I. E., Shikhabudinov, A. M., Ignatov, O. V., Guliy, O. I.
Format Journal Article
LanguageEnglish
Published United States IEEE 01.05.2012
The Institute of Electrical and Electronics Engineers, Inc. (IEEE)
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Abstract This paper describes a biological sensor based on a lateral electric field-excited resonator using an X-cut lithium niobate plate. Its potential was shown through the example of biological interaction between bacterial cells and specific bacteriophages. The detection was based on the analysis of the measured real and imaginary parts of electrical impedance for a resonator loaded by the biological suspension under study. It has been shown that the sensor is sensitive to specific interactions between bacterial cells and specific bacteriophages in a pure state as well as in the presence of extraneous microflora. The degree of electrical impedance variation resulting from the biological interaction depends on the numbers of phage particles and bacteria cells. The sensor may be used not only for the qualitative analysis of bacteria but also for their quantitative detection.
AbstractList This paper describes a biological sensor based on a lateral electric field-excited resonator using an X-cut lithium niobate plate. Its potential was shown through the example of biological interaction between bacterial cells and specific bacteriophages. The detection was based on the analysis of the measured real and imaginary parts of electrical impedance for a resonator loaded by the biological suspension under study. It has been shown that the sensor is sensitive to specific interactions between bacterial cells and specific bacteriophages in a pure state as well as in the presence of extraneous microflora. The degree of electrical impedance variation resulting from the biological interaction depends on the numbers of phage particles and bacteria cells. The sensor may be used not only for the qualitative analysis of bacteria but also for their quantitative detection.
This paper describes a biological sensor based on a lateral electric field-excited resonator using an X-cut lithium niobate plate. Its potential was shown through the example of biological interaction between bacterial cells and specific bacteriophages. The detection was based on the analysis of the measured real and imaginary parts of electrical impedance for a resonator loaded by the biological suspension under study. It has been shown that the sensor is sensitive to specific interactions between bacterial cells and specific bacteriophages in a pure state as well as in the presence of extraneous microflora. The degree of electrical impedance variation resulting from the biological interaction depends on the numbers of phage particles and bacteria cells. The sensor may be used not only for the qualitative analysis of bacteria but also for their quantitative detection.This paper describes a biological sensor based on a lateral electric field-excited resonator using an X-cut lithium niobate plate. Its potential was shown through the example of biological interaction between bacterial cells and specific bacteriophages. The detection was based on the analysis of the measured real and imaginary parts of electrical impedance for a resonator loaded by the biological suspension under study. It has been shown that the sensor is sensitive to specific interactions between bacterial cells and specific bacteriophages in a pure state as well as in the presence of extraneous microflora. The degree of electrical impedance variation resulting from the biological interaction depends on the numbers of phage particles and bacteria cells. The sensor may be used not only for the qualitative analysis of bacteria but also for their quantitative detection.
Author Zaitsev, B. D.
Shikhabudinov, A. M.
Kuznetsova, I. E.
Guliy, O. I.
Ignatov, O. V.
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Snippet This paper describes a biological sensor based on a lateral electric field-excited resonator using an X-cut lithium niobate plate. Its potential was shown...
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SubjectTerms Acoustics
Azospirillum brasilense - chemistry
Bacteriology
Bacteriophages - chemistry
Biosensing Techniques - instrumentation
Biosensing Techniques - methods
Biosensors
Electric Impedance
Electrochemical Techniques - instrumentation
Electrodes
Equipment Design
Escherichia coli - chemistry
Escherichia coli - virology
Impedance
Microbial Interactions - physiology
Microbiology
Microorganisms
Niobium - chemistry
Oxides - chemistry
Resonant frequency
Suspensions
Water - chemistry
Title Biological sensor based on a lateral electric field-excited resonator
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