Approaches to Accelerate Liquid Chromatography Method Development in the Laboratory Using Chemometrics and Machine Learning

被引:0
作者
van Henten, Gerben B. [1 ,2 ]
Bos, Tijmen S. [1 ,2 ]
Pirok, Bob W. J. [1 ,2 ]
机构
[1] Univ Amsterdam, Vant Hoff Inst Mol Sci, Fac Sci, Amsterdam, Netherlands
[2] Ctr Analyt Sci Amsterdam, Amsterdam, Netherlands
基金
荷兰研究理事会;
关键词
ARTIFICIAL NEURAL-NETWORKS; HIGH-PERFORMANCE; OPTIMIZATION; LC; PREDICTION; SEPARATION; FUTURE; MODEL; SIZE;
D O I
暂无
中图分类号
O65 [分析化学];
学科分类号
070302 ; 081704 ;
摘要
Liquid chromatography (LC) is the single largest analytical field in terms of people involved and money spent. LC is crucial for almost all public and private sectors and the technique has seen tremendous technological advancements. Nevertheless, separations are often performed under suboptimal conditions and technological capabilities remain unused. Because expert knowledge and method development time are increasingly scarce, methods are often inefficient. Exploiting the full technological capabilities of liquid-phase separation technology requires deep knowledge and great time investments. Method optimization strategies that can simultaneously optimize the large number of parameters involved are therefore of great interest to chromatographers. This review examines different workflows that have been designed and used to facilitate and/or automate method development. In particular, focus is paid to the implementation of computer-aided workflows for the optimization of kinetic and thermodynamic parameters in LC, as well as on the possibilities to conduct this in a closed-loop fashion. Finally, the opportunities to use machine learning to achieve these goals is addressed.
引用
收藏
页码:202 / 211
页数:10
相关论文
共 54 条
[1]   Prediction of HPLC Retention Index Using Artificial Neural Networks and IGroup E-State Indices [J].
Albaugh, Daniel R. ;
Hall, L. Mark ;
Hill, Dennis W. ;
Kertesz, Tzipporah M. ;
Parham, Marc ;
Hall, Lowell H. ;
Grant, David F. .
JOURNAL OF CHEMICAL INFORMATION AND MODELING, 2009, 49 (04) :788-799
[2]  
[Anonymous], 2005, CHROMATOGR A, V1096, P50, DOI [10.1016/j.chroma.2005.06.048, DOI 10.1016/J.CHROMA.2005.06.048]
[3]  
Available, 2015, J CHROMATOGR A, V1409, P79, DOI [10.1016/j.chroma.2015.07.022, DOI 10.1016/J.CHROMA.2015.07.022]
[4]   Closed-loop automatic gradient design for liquid chromatography using Bayesian optimization [J].
Boelrijk, Jim ;
Ensing, Bernd ;
Forre, Patrick ;
Pirok, Bob W. J. .
ANALYTICA CHIMICA ACTA, 2023, 1242
[5]   Bayesian optimization of comprehensive two-dimensional liquid chromatography separations [J].
Boelrijk, Jim ;
Pirok, Bob ;
Ensing, Bernd ;
Forre, Patrick .
JOURNAL OF CHROMATOGRAPHY A, 2021, 1659
[6]   Retip: Retention Time Prediction for Compound Annotation in Untargeted Metabolomics [J].
Bonini, Paolo ;
Kind, Tobias ;
Tsugawa, Hiroshi ;
Barupal, Dinesh Kumar ;
Fiehn, Oliver .
ANALYTICAL CHEMISTRY, 2020, 92 (11) :7515-7522
[7]   Chemometric Strategies for Fully Automated Interpretive Method Development in Liquid Chromatography [J].
Bos, Tijmen S. ;
Boelrijk, Jim ;
Molenaar, Stef R. A. ;
Veer, Brian van 't ;
Niezen, Leon E. ;
van Herwerden, Denice ;
Samanipour, Saer ;
Stoll, Dwight R. ;
Forre, Patrick ;
Ensing, Bernd ;
Somsen, Govert W. ;
Pirok, Bob W. J. .
ANALYTICAL CHEMISTRY, 2022, 94 (46) :16060-16068
[8]   Geometry-independent plate height representation methods for the direct comparison of the kinetic performance of LC supports with a different size or morphology [J].
Desmet, G ;
Clicq, D ;
Gzil, P .
ANALYTICAL CHEMISTRY, 2005, 77 (13) :4058-4070
[9]  
Dolan JW, 2016, LC GC N AM, V34, P730
[10]   COMPUTER-SIMULATION AS A MEANS OF DEVELOPING AN OPTIMIZED REVERSED-PHASE GRADIENT-ELUTION SEPARATION [J].
DOLAN, JW ;
SNYDER, LR ;
QUARRY, MA .
CHROMATOGRAPHIA, 1987, 24 :261-276