global-journal-of-science-frontier-research-c-biological-science Global Journal of Science Frontier Research - C: Biological Science 0975-5896 2249-4626 Global Journals Publishing Group Incorporated 58251 Techniques for Predicting the Collapse of Branching Patterns and Generation of Branching Patterns in Natural Populations and Artificial Populations Predicting Branching Patterns in Natural Systems StevensChristopher Portosa UNITED STATES, University of Virginia 29 07 2023 23 C2 1 9

Branching patterns are fundamental to science, their simulations in computer science, and their modelling and abstraction in mathematics: different phenomena are considered or classified as branching patterns, including the tree of life, crystals, electric discharges, the cellular differentiation of plants, animals, and other organic branches of life, branching patterns of characteristics across individual organisms in species, and branching patterns of characteristics and adaptive structures across species. I seek to develop techniques for predicting the collapse of branching patterns in natural populations of organisms and also artificial populations, and I seek to describe conditions for generating branching patterns in natural populations and artificial populations. I also seek to rank forces of nature by their capacity to generate branching patterns, and the relevance of constructing artificial populations to rank forces of nature by their capacity to generate branching patterns.

 branching patterns; speciation; artificial populations; assortative mating; cloning; angiosperms; natural populations. Full Text

Branching patterns are fundamental to science, their simulations in computer science, and their modelling and abstraction in mathematics: different phenomena are considered or classified as branching patterns, including the tree of life, crystals, electric discharges, the cellular differentiation of plants, animals, and other organic branches of life, branching patterns of characteristics across individual organisms in species, and branching patterns of characteristics and adaptive structures across species. I seek to develop techniques for predicting the collapse of branching patterns in natural populations of organisms and also artificial populations, and I seek to describe conditions for generating branching patterns in natural populations and artificial populations. I also seek to rank forces of nature by their capacity to generate branching patterns, and the relevance of constructing artificial populations to rank forces of nature by their capacity to generate branching patterns.