RESEARCH OF PHASE PLANES OF IMMUNOSENSOR MODEL ON A RECTANGULAR LATTICE USING THE DIFFERENTIAL EQUATIONS WITH DELAY IN THE R PACKAGE
DOI:
https://doi.org/10.24025/2306-4412.2.2019.172004Keywords:
biosensor, immunosensor, mathematical model, differential equations, packet R.Abstract
The computer simulation of an immunosensor on a rectangular lattice using the differential equations with delay in the R package is carried out in the work. The phase planes of the immunosensor model on the rectangular lattice using the differential equations with delay are investigated, the parameters of the model, their numerical values, as well as the parameters in the R package are presented. The latest researches in the field of immunosensors, their types, and popularity of scientific directions of research during the last five years are analyzed. Despite the huge variety of modern physico-chemical methods for detecting the analytical signal in immunoassay, electrochemical methods with a number of undeniable advantages, such as: high sensitivity and accuracy, selectivity and expressiveness, not high cost and versatility, are in the lead. The R package is described as a programming environment for statistical analysis of data with given values of parameters of the immunosensor model on the rectangular lattice using differential equations with delay. The links to useful sites, referral lists and documentation on the installation and inception of the R package are presented. The results of numerical immunosensor simulation on a rectangular lattice in the form of phase planes make it possible to study the stability of the immunosensor model. In this work, the phase planes of the model of the immunosensor system on the rectangular lattice using differential equations with the help of R package are investigated. The results obtained are crucial in the study of the stability of the immunosensor model. This takes into account the presence of colonies of antigens and antibodies localized in pixels, as well as the diffusion of antigen colonies between pixels. The mathematical description of the immunosensor contains discrete population dynamics, which is combined with the dynamic logic used for discrete events.References
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Copyright (c) 2020 Василь Петрович Марценюк, Андрій Степанович Сверстюк, Наталія Василівна Козодій, Євген Олександрович Давиденко The authors who publish in this journal agree to the following terms:The authors reserve the right to authorship of their work and give the journal the right to first publish this work under the terms of the Creative Commons Attribution License CC BY-NC, which allows other persons to freely distribute published work with a mandatory reference to authors of the original work and the first publication of the work in this journal.
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