Table 3.
Authors and year of publications | Country | Type of sensor | Transduction systems | Sample | Target | Parameters |
---|---|---|---|---|---|---|
Rowe et al., 2010 | USA | Electrochemical, ribonucleic acid aptamer-based biosensor | Electrochemical | Blood serum samples | To measure the concentrations of aminoglycoside antibiotics in human serum | Aminoglycoside concentrations range = 4–10 μg/ mL |
Song et al., 2013 | New Zealand | Genetically modified E. coli biosensor | Electrochemical | E. coli culture | To detect tetracycline using the bacterial respiratory gene, nuoA, as a reporter gene | LoD = 0.0028 μg ml−1 |
Tsang et al., 2014 | China | Biosensor based on a fluorescein-labelled class C β-lactamase mutant | Optical | Bacterial culture | To develop a biosensor for the detection of cephalosporins and class C β-lactamase inhibitors | NA |
Kling et al., 2016 | Germany | Electrochemical microfluidic platform | Electrochemical | Plasma samples | To develop a platform useful for the surveillance and monitoring of antibiotics (tetracycline and streptogramin) | LoD = 6.33 and 9.22 ng mL−1 for tetracycline and pristinamycin, respectively |
Yadav et al., 2020 | India | Label-free amperometric biosensor | Electrochemical | Urine samples | To design a biosensor for detection of norfloxacin (NF) in human urine samples | LoD = 3.87 pM |