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  • Perspective   
  • Immunol Curr Res 2022, Vol 6(1): 110
  • DOI: 10.4172/icr.1000110

Cellular and Molecular Scale Approaches to In Silico Modeling of the Immune System

Francesca Romana Antonetti*
Department of Internal Medicine, Tor Vergata Clinical Centre, University of Rome, Italy
*Corresponding Author: Francesca Romana Antonetti, Department of Internal Medicine, Tor Vergata Clinical Centre, University of Rome, Italy, Email: francescaroma@gmail.com

Received: 11-Jan-2022 / Manuscript No. icr-22-54280 / Editor assigned: 13-Jan-2022 / PreQC No. icr-22-54280 / Reviewed: 27-Jan-2022 / QC No. icr-22-54280 / Revised: 01-Feb-2022 / Manuscript No. icr-22-54280 / Published Date: 08-Feb-2022 DOI: 10.4172/icr.1000110

Abstract

 The revolutions in biotechnology and information technology have created clinical data, which enhance biological knowledge. This knowledge alters elaborated descriptions of assorted healthy and pathologic states and responses to therapies. For the investigation of the physiology and pathology of the immune responses, pc and mathematical models are employed in the last decades, sanctionative the illustration of biological processes. During this modeling effort, a significant issue is depicted by the communication between models that job at cellular and molecular level, that is, multi scale illustration. Here we tend to sketch some tries to model system dynamics at each levels.

Keywords:  Immune System, Cellular

The revolutions in biotechnology and information technology have created clinical data, which enhance biological knowledge. This knowledge alters elaborated descriptions of assorted healthy and pathologic states and responses to therapies. For the investigation of the physiology and pathology of the immune responses, pc and mathematical models are employed in the last decades, sanctionative the illustration of biological processes. During this modeling effort, a significant issue is depicted by the communication between models that job at cellular and molecular level, that is, multi scale illustration. Here we tend to sketch some tries to model system dynamics at each levels.

The immune system aims to shield the body from infective diseases and against the microbes (virus, bacteria, and parasites) that are recognized as extraneous. The process of the host connects the answers given by the innate (or natural) and reconciling system, wherever cells and molecules perform along. AN initial part of defense against microbes is well-found by physical barriers, soluble mediators, and specialised killer cells [1]. The identification of a similar structures in teams of microbes is given by cellular receptors that are referred to as “pattern-recognition receptors”; Toll-like receptors (recognize microorganism peptides, flagellin, lipopolysaccharide, and alternative biological elements), mannose receptors (bind the saccharide fragments with the pathogen), and seven-transmembrane spanning receptors (initiated by microorganism peptides or by endogenous chemokines) are the weather of this composition of cellular receptors [2]. Animal tissue surfaces (skin and tissue layer surface of the gastrointestinal and metabolism tracts) and also the blood clotting systems are the physical barriers that are used as filters for extraneous agents. Within the innate system the specialised effector cells, granulocytes and macrophages, move towards the microbes killing them with bodily function. Due to natural killer-NK-cells these microbes is eliminated by cathartic lytic substances [3]. The neutrophils and basophils have aimed to eliminate bacterium and parasites. The NK cells kill infected cells each by the cathartic of perforins and granzymes and activating the macrophages. These parts are the protagonists of the innate system.

The revolutions in biotechnology and information technologies have created clinical data, which enhance biological knowledge. This knowledge alters elaborated descriptions of assorted healthy and pathologic states and responses to therapies.

For the investigation of the physiology and pathology of the immune responses, pc and mathematical models are employed in the last decades, sanctionative the illustration of biological processes.

In the example of molecular level we tend to report the event of the theoretical basis and also the properties of a unique predictor, NGlycPred which predicts the glycan occupancy

Glycosylation plays a vital role in an exceedingly variety of biological processes starting from folding to reaction. A ubiquitous t co/posttranslational modification in eukaryotic cells is depicted in N-linked glycosylation; this event happens once the aborning supermolecule is extruded into the endoplasmic reticulum. N-linked glycosylation happens with the attachment of glycan to the organic compound atomic number 7 of asparagines. This method is especially shown within the sequons N-X-T and N-X-S (X is any customary organic compound except proline). Not all N-X-T/S sequons is glycosylated, however victimisation a correct formula might predict the glycan occupancy [4]. However, the utilization of proteins structural data is very important for the prediction of N-glycan occupancy. These sequons are essential for understanding and victimisation the everpresent co/posttranslational super molecule modification.

In this paper we have in short delineate the issues baby-faced once one desires to link mathematical or machine models across completely different time and length scales [5]. The system may be an advanced biological system and this quality arises from collective behavior and also the rising of properties at multiple levels. This initially requires the analysis of large quantities of clinical and basic biology knowledge either no heritable by direct measurements or by accessing a range of sources. This knowledge has to be compelled to be integrated into varied network models or multi scale models. Models are a basic step within the scientific discovery, however building a decent model may be an onerous task.

References

  1. Patel JS, Berteotti A, Ronsisvalle S, Rocchia W, Cavalli A (2014) Steered molecular dynamics simulations for studying protein-ligand interaction in cyclin-dependent kinase 5. J Chem Inf Model 54:470-480.
  2. Indexed at  Google Scholar     Crossref

  3. Motta S, Pappalardo F (2013) Mathematical modeling of biological systems. Brief Bioinform 14: 411-422.
  4. Indexed at  Google Scholar     Crossref

  5. Schulte FA, Zwahlen A, Lambers FM, Kuhn G, Ruffoni D, et al. (2013) Strain-adaptive in silico modeling of bone adaptation--a computer simulation validated by in vivo micro-computed tomography data. Bone 52:485-492.
  6. Indexed at  Google Scholar     Crossref

  7. Soltan M, Rohrer MD, Prasad HS (2012) Monocytes: Super Cells for Bone Regeneration. Implant Dent 21: 13-20.
  8. Indexed at   Google Scholar     Crossref

  9. Pappalardo F, Russo G, Pennisi M, Sgroi G, Motta S, et al. (2020)The Potential of Computational Modeling to Predict Disease Course and Treatment Response in Patients with Relapsing Multiple Sclerosis. Cells 9:586.
  10. Google Scholar     Crossref

Citation: Antonetti FR (2022) Cellular and Molecular Scale Approaches to In Silico Modeling of the Immune System. Immunol Curr Res, 6: 110. DOI: 10.4172/icr.1000110

Copyright: © 2022 Antonetti FR. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.

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