Glucose Oxidase-Based Glucose Biosensing with a Simple Dual Ag/AgCl Probe Conductivity Readout

We describe a conductometric assay of the enzymatic conversion of glucose to gluconic acid by dissolved glucose oxidase (GOx), using the generation of proton and gluconate from the reaction product dissociation for glucose detection. Simple basics of ionic conductivity, a silver/silver chloride wire...

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Veröffentlicht in:Analytical chemistry (Washington) 2024-09, Vol.96 (38), p.15097-15101
Hauptverfasser: Loha, Kawin, M. Soysa, H. Sasimali, Boonkoom, Thitikorn, Japrung, Deanpen, Schulte, Albert
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container_end_page 15101
container_issue 38
container_start_page 15097
container_title Analytical chemistry (Washington)
container_volume 96
creator Loha, Kawin
M. Soysa, H. Sasimali
Boonkoom, Thitikorn
Japrung, Deanpen
Schulte, Albert
description We describe a conductometric assay of the enzymatic conversion of glucose to gluconic acid by dissolved glucose oxidase (GOx), using the generation of proton and gluconate from the reaction product dissociation for glucose detection. Simple basics of ionic conductivity, a silver/silver chloride wire pair, and a small applied potential translate glucose-dependent GOx activity into a scalable cell current. Enzyme immobilization and complex sensor design, involving extra nanomaterials or microfabrication of electrode structures, are entirely avoided, in contrast to all modern electrochemical glucose biosensors. Assay calibration showed a response linearity up to 500 μM, with a sensitivity of about 1.3 nA/μM. Selectivity tests excluded signals from sugars other than glucose, and glucose quantifications with recovery rates close to 100% were reached with a model sample and a beverage. Easy use of elementary physicochemical phenomena and a satisfactory performance are assets of the proposed non-amperometric glucose biosensing strategy. Assay integration into a planar dual electrode platform, with or without microfluidic application option, is feasible because of the simplicity of the sensor readout and suggests a route to affordable glucose analysis in beverage, food, and body fluid samples.
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source American Chemical Society Journals
subjects analytical chemistry
Assaying
Beverages
Biosensors
Body fluids
Conductivity
dissociation
Electrical measurement
Electrochemistry
Electrodes
gluconates
Gluconic acid
Glucose
Glucose oxidase
Immobilization
immobilized enzymes
Ion currents
Microfluidics
Nanomaterials
Nanotechnology
Reaction products
Silver
Silver chloride
title Glucose Oxidase-Based Glucose Biosensing with a Simple Dual Ag/AgCl Probe Conductivity Readout
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