Pharmaceutical electrochemistry: the electrochemical detection of asprin utilising screen printed graphene electrodes as sensors platforms.
Kruanetr, Senee; Prabhu, Radhakrishna; Pollard, Pat; Fernandez, Carlos
Doctor Radhakrishna Prabhu firstname.lastname@example.org
A sensitive electrochemical sensor was designed for acetyl salicylic acid detection using graphene modified Screen Printed Electrodes. The electrochemical response of the sensor with graphene was improved compared to Screen Printed Electrodes without graphene and displayed an excellent analytical performance for the detection of acetyl salicylic acid. The high acetyl salicylic acid loading capacity on the electrode surface and the outstanding electric conductivity of graphene were also discussed in this manuscript. When a range of different concentrations of acetyl salicylic acid from 0.1 to 100 uM into a pH 4 buffer solution (N defined as the sample size N = 9) were plotted against the oxidation peak a linear response was observed. The detection limit was found to be 0.09 'M based on (3-o/slope). Screen Printed Graphene electrodes sensors methodology is shown to be useful for quantifying low levels of acetyl salicylic acid in a buffer solution as well as in biological matrixes such as human oral fluid. A linear response was obtained over a range of concentrations from 10 to 150 uM into a human oral fluid solution (N = 10) giving a detection limit of 8.7 uM.
|Journal Article Type||Article|
|Publication Date||May 1, 2015|
|Journal||Applied catalysis B: environmental|
|Publisher||Springer (part of Springer Nature)|
|Peer Reviewed||Peer Reviewed|
|Institution Citation||KRUANETR, S., PRABHU, R., POLLARD, P. and FERNANDEZ, C. 2015. Pharmaceutical electrochemistry: the electrochemical detection of asprin utilising screen printed graphene electrodes as sensors platforms. Surface engineering and applied electrochemistry [online], 51(3), pages 283-289. Available from: https://doi.org/10.3103/S1068375515030114|
|Keywords||Acetyl salicylic acid; Electrochemical; Sensor; Modified screen printed electrode|
KRUANETR 2015 Pharmaceutical electrochemistry
You might also like
Maximising inductive power transmission using a novel analytical coil design approach.
Optimal coil design for maximum power transfer efficiency in resonantly coupled systems.
Nile red-dye based analysis of synthetic fibres for forensic applications.