2000
DOI: 10.18388/abp.2000_4060
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Self-organizing neural network for modeling 3D QSAR of colchicinoids.

Abstract: A novel scheme for modeling 3D QSAR has been developed. A method involving multiple self-organizing neural network adjusted to be analyzed by the PLS (partial least squares) analysis was used to model 3D QSAR of the selected colchicinoids. The model obtained allows the identification of some structural determinants of the biological activity of compounds.

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Cited by 11 publications
(6 citation statements)
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“…The use of SOMs has been reported in the chemical and QSAR literature. [10][11][12][13][14][15] For instance, Zupan and Gasteiger designed a scheme for the application of the SOM algorithm for the projection of the molecular surface properties into two-dimensional feature maps, 16 and Polanski and Bek used a similar scheme for the comparison of molecules represented by atomic coordinates and superimposed by moments of inertia. 17 Prior to our original study, sSOMs had, to our knowledge, not been used to predict biological endpoints via classification of unknowns.…”
Section: Introductionmentioning
confidence: 99%
“…The use of SOMs has been reported in the chemical and QSAR literature. [10][11][12][13][14][15] For instance, Zupan and Gasteiger designed a scheme for the application of the SOM algorithm for the projection of the molecular surface properties into two-dimensional feature maps, 16 and Polanski and Bek used a similar scheme for the comparison of molecules represented by atomic coordinates and superimposed by moments of inertia. 17 Prior to our original study, sSOMs had, to our knowledge, not been used to predict biological endpoints via classification of unknowns.…”
Section: Introductionmentioning
confidence: 99%
“…First, there is considerable use of GAs and NNs on design problems. Looking more closely at these applications, a third of these applications are about drug design and involve quantifying structure-activity relationships (e.g., (Kovesdi et al 1999;Polanski et al 2002;Polanski et al 2000;So and Karplus 1997;Terfloth and Gasteiger 2001). A further 20% are applications in Engineering design such as design of concrete structures (Adeli and Park 1995;Cladera and Mari 2004;Deng et al 2003;Dias and Pooliyadda 2001;Hadi 2003), design of cold-form steel (Adeli and Park 1995;El-Kassas et al 2001;El-Kassas et al 2002;Karim and Adeli 1999) and the design of polymers (Zhang and Friedrich 2003).…”
Section: Analysis Current Trends and Discussionmentioning
confidence: 99%
“…Drug design represents more than a third of the neural network applications in design. Many of these focus on using the predicative power of the backpropagation algorithm to help quantify structure-activity relationships (Kovesdi et al 1999;Polanski et al 2002;Polanski et al 2000;So and Karplus 1997;Terfloth and Gasteiger 2001). Other uses include optimising release of drugs such as aspirin (Ibricacute et al 2003;Sun et al 2003;Wei et al 2001) and the pursuit of therapies for AIDS (Cai et al 1998;Sardari and Sardari 2002).…”
Section: Neural Network and Designmentioning
confidence: 99%
“…A regression-based method for model self-organization is the group method of data handling (GMDH). 32,33,44,56 The GMDH combines the principles of statistics and ANNs under the framework of the principle of induction. The GMDH creates models adaptively guided by this cybernetic principle from data in the form of networks of optimized transfer functions (active neurons).…”
Section: Self-organizing Modelsmentioning
confidence: 99%