The aim of this study is to present a mathematical computer simulation model for multistage carcinogenesis. The population genetic model is developed based on the reaction diffusion, logistic behavior, and Hollings Type II interactions between normal, benign, and premalignant cells. The simple form of the Fisher-Haldane-Wright equation of the genetic model of tumor suppressor gene and oncogenes is used to describe this type of interaction. Through computer simulation, we observe the behavior, stability, and traveling wave solution of the premalignant stage mutation as well as its survival under natural selection pressure. As a simple case of this model, the interaction between normal and tumor cells with one or two stages of mutations is analyzed.

<p>In this work the study has been done on the performance pertaining to the binary antipodal AWGN channel for rate ½ coding approaches, with short and medium blocklengths. This work emphasizes on the contributions of various events leading to block error and their dependence on signal-to-noise ratio, decoder list size, CRC length, if any, and the role of list sorting. Furthermore, this work generalizes to variations, including Reed-Muller/Polar codes that follow the polarization and the method of successive decoding.<br></p>

The aim of this study is to present a mathematical computer simulation model for multistage carcinogenesis. The population genetic model is developed based on the reaction diffusion, logistic behavior, and Hollings Type II interactions between normal, benign, and premalignant cells. The simple form of the Fisher-HaldaneWright equation of the genetic model of tumor suppressor gene and oncogenes is used to describe this type of interaction.Through computer simulation, we observe the behavior, stability, and traveling wave solution of the premalignant stage mutation as well as its survival under natural selection pressure. As a simple case of this model, the interaction between normal and tumor cells with one or two stages of mutations is analyzed. 625

<p>In this work the study has been done on the performance pertaining to the binary antipodal AWGN channel for rate ½ coding approaches, with short and medium blocklengths. This work emphasizes on the contributions of various events leading to block error and their dependence on signal-to-noise ratio, decoder list size, CRC length, if any, and the role of list sorting. Furthermore, this work generalizes to variations, including Reed-Muller/Polar codes that follow the polarization and the method of successive decoding.<br></p>