International Journal of Applied Research on Information Technology and Computing
  • Year: 2014
  • Volume: 5
  • Issue: 1

An Introductory Informatics Theoretical Framework, based on an Integrable Lattice Model using Quantized Function Algebras, for Studying DNA-Ionized Gas Interaction System

  • Author:
  • Nirmal Kumar1,, Nilson C. Cruz1, Elidiane Rangel1, Gagik Shmavonyan2
  • Total Page Count: 13
  • Published Online: Apr 1, 2014
  • Page Number: 1 to 13

1LapTec, Department of Physics, UNESP, Sorocaba, SP, Brazil

2Department of Physics, SEUA, Yerevan, Armenia

*Corresponding author email id: hmfg2014@gmail.com

Abstract

Usually we observe that Bio-physical systems or Bio-chemical systems are many a time based on nanoscale phenomenon in different host environments, which involve many particles can often not be solved explicitly. Instead a physicist, biologist or a chemist has to rely either on approximate or numerical methods. For a certain type of systems, called integrable in nature, there exist particular mathematical structures and symmetries which facilitate the exact and explicit description. Most integrable systems, we come across are low-dimensional, for instance, a one-dimensional chain of coupled atoms in DNA molecular system with a particular direction or exist as a vector in the environment. This theoretical research paper aims at bringing one of the pioneering ‘Reaction-Diffusion’ aspects of the DNA-plasma material system based on an integrable lattice model approach utilizing quantized functional algebras, to disseminate the new developments, initiate novel computational and design paradigms.

Keywords

Nanotechnolgy, Bio-physical/bio-chemical systems, Plasma, Quantized functional algebras, DNA plasma irradiations, Integrable lattice models, Computation