Citation
Gholivand, Mohammad-Bagher, et al. "Chemometrics-assisted Simultaneous Voltammetric Determination of Ascorbic Acid, Uric Acid, Dopamine and Nitrite: Application of Non-bilinear Voltammetric Data for Exploiting First-order Advantage." Talanta, vol. 119, 2014, pp. 553-63.
Gholivand MB, Jalalvand AR, Goicoechea HC, et al. Chemometrics-assisted simultaneous voltammetric determination of ascorbic acid, uric acid, dopamine and nitrite: application of non-bilinear voltammetric data for exploiting first-order advantage. Talanta. 2014;119:553-63.
Gholivand, M. B., Jalalvand, A. R., Goicoechea, H. C., & Skov, T. (2014). Chemometrics-assisted simultaneous voltammetric determination of ascorbic acid, uric acid, dopamine and nitrite: application of non-bilinear voltammetric data for exploiting first-order advantage. Talanta, 119, 553-63. https://doi.org/10.1016/j.talanta.2013.11.028
Gholivand MB, et al. Chemometrics-assisted Simultaneous Voltammetric Determination of Ascorbic Acid, Uric Acid, Dopamine and Nitrite: Application of Non-bilinear Voltammetric Data for Exploiting First-order Advantage. Talanta. 2014;119:553-63. PubMed PMID: 24401455.
TY - JOUR
T1 - Chemometrics-assisted simultaneous voltammetric determination of ascorbic acid, uric acid, dopamine and nitrite: application of non-bilinear voltammetric data for exploiting first-order advantage.
AU - Gholivand,Mohammad-Bagher,
AU - Jalalvand,Ali R,
AU - Goicoechea,Hector C,
AU - Skov,Thomas,
Y1 - 2013/11/27/
PY - 2013/07/25/received
PY - 2013/11/07/revised
PY - 2013/11/08/accepted
PY - 2014/1/10/entrez
PY - 2014/1/10/pubmed
PY - 2014/9/3/medline
KW - AA
KW - AsLSSR
KW - Ascorbic acid
KW - BP-ANN
KW - COW
KW - CPR
KW - DP
KW - DWT-ANN
KW - Dopamine
KW - GA
KW - GCE
KW - LOO-CV
KW - LS-SVM
KW - LVs
KW - Linear and non-linear multivariate calibration models
KW - MC
KW - MLR
KW - MVC
KW - NT
KW - Nitrite
KW - OSC
KW - PDC
KW - PLS-1
KW - PLY-PLS
KW - PRESS
KW - PRM
KW - Q(2)
KW - RBF-PLS
KW - RCR
KW - REP
KW - RMC
KW - RMSECV
KW - RMSEP
KW - SGS
KW - SLD
KW - SPA
KW - SPL-PLS
KW - SWV
KW - Savitsky–Golay smoothing
KW - Simultaneous determination
KW - UA
KW - Uric acid
KW - WD
KW - WT-ANN
KW - ascorbic acid
KW - asymmetric least squares splines regression
KW - back propagation-artificial neural network
KW - continuum power regression
KW - correlation optimized warping
KW - discrete wavelet transform-artificial neural network
KW - dopamine
KW - genetic algorithm
KW - glassy carbon electrode
KW - latent variables
KW - least squares-support vector machines
KW - leave one out cross-validation
KW - mean centering
KW - multiple linear regression
KW - multivariate calibration
KW - nitrite
KW - orthogonal signal correction
KW - partial least squares-1
KW - partial robust M-regression
KW - percentage of data contamination
KW - polynomial-partial least squares
KW - prediction residual error sum of squares
KW - rPCA
KW - radial basis function-partial least squares
KW - relative error of prediction
KW - robust continuum regression
KW - robust median centering
KW - robust principal component analysis, MLP, multilayer perceptron
KW - root mean square errors of prediction
KW - root mean squared errors of cross-validation
KW - simplex lattice design
KW - spline-partial least squares
KW - square wave voltammetry
KW - successive projections algorithm
KW - the square correlation coefficient of cross-validation
KW - uric acid
KW - wavelet denoising
KW - wavelet transform-artificial neural network
SP - 553
EP - 63
JF - Talanta
JO - Talanta
VL - 119
N2 - For the first time, several multivariate calibration (MVC) models including partial least squares-1 (PLS-1), continuum power regression (CPR), multiple linear regression-successive projections algorithm (MLR-SPA), robust continuum regression (RCR), partial robust M-regression (PRM), polynomial-PLS (PLY-PLS), spline-PLS (SPL-PLS), radial basis function-PLS (RBF-PLS), least squares-support vector machines (LS-SVM), wavelet transform-artificial neural network (WT-ANN), discrete wavelet transform-ANN (DWT-ANN), and back propagation-ANN (BP-ANN) have been constructed on the basis of non-bilinear first order square wave voltammetric (SWV) data for the simultaneous determination of ascorbic acid (AA), uric acid (UA), dopamine (DP) and nitrite (NT) at a glassy carbon electrode (GCE) to identify which technique offers the best predictions. The compositions of the calibration mixtures were selected according to a simplex lattice design (SLD) and validated with an external set of analytes' mixtures. An asymmetric least squares splines regression (AsLSSR) algorithm was applied for correcting the baselines. A correlation optimized warping (COW) algorithm was used to data alignment and lack of bilinearity was tackled by potential shift correction. The effects of several pre-processing techniques such as genetic algorithm (GA), orthogonal signal correction (OSC), mean centering (MC), robust median centering (RMC), wavelet denoising (WD), and Savitsky-Golay smoothing (SGS) on the predictive ability of the mentioned MVC models were examined. The best preprocessing technique was found for each model. According to the results obtained, the RBF-PLS was recommended to simultaneously assay the concentrations of AA, UA, DP and NT in human serum samples.
SN - 1873-3573
UR - https://www.unboundmedicine.com/medline/citation/24401455/Chemometrics_assisted_simultaneous_voltammetric_determination_of_ascorbic_acid_uric_acid_dopamine_and_nitrite:_application_of_non_bilinear_voltammetric_data_for_exploiting_first_order_advantage_
DB - PRIME
DP - Unbound Medicine
ER -