In a tropical species of butterfly, wing shape is controlled by a single gene. Individuals can have wide wings (WW), elongated wings(Ww), or reduced wings (ww) In one population you calculate the genotype frequencies are: * wide WW=0.75 *Elongated Ww=0.20 *reduced ww = 0.05 Wide shape affects fitness because predators are most successful at catching butterflies with reduced wings, although they also get some of the other phenotypes. After new predator colonizers the rainforest where this butterfly lives, the average number of offspring per butterfly is *wide WW=40 * elongated Ww=50 *reduced ww=80 What will be the genotype frequencies in the first generation of butterflies following natural selection due to the new predator? (ie you are looking for frequencies after selection and before reproduction) Round all values 2 decimal places A. wide WW=0.75, elongated Ww=0.20, reduced ww=0.05 B.Wide WW=0.68, elongated Ww=0.29, reduced ww=0.04 C.There is no way to know because natural selection is random D. wide WW=0.85, elongate Ww=0.11, reduced ww=0.04 E wide WW= 0.68, elongated Ww=0.23, reduced ww=0.09
Gene Flow
Gene flow, also known as gene migration, is the introduction of genetic material from a particular population to another population of the same species through interbreeding. For example, a bee facilitates its reproductive process by carrying pollen from one flower to another. The flow alters the composition of the gene pool of the receiving population. It introduces new alleles within the population and helps increase variability. This exchange of genetic material occurs through reproduction and brings about new combinations of traits into the population. Where human beings are concerned, actual migration of populations, whether voluntary or forced, brings about gene flow.
Population Biology
Population biology is the study of patterns in organism populations, specifically the growth and management of population size, population genetics, the evolution of life history, species interactions, and demography.
Speciation
The process of speciation involves the formation of new species during evolution. The new species evolve in such a way that both new and old species are not able to interbreed. Thus, speciation occurs when few members of one species get separated from the main species due to geographical, mechanical, or reproductive isolation. These separated members develop new traits that make them different from the main species. In other words, speciation could be defined as the absence of gene flow between two populations that become new species.
Allele Fixation
A gene is a unit of heredity and contains both physical and functional information that shapes an individual. Genes are made up of DNA (deoxyribonucleic acid), which carry genetic information from one generation to another, from one set of parents to their offspring, and so on. Every cell in a human body, or any living organism, has the same DNA, which implies that every cell in an individual’s body has all the information it needs to build and sustain the body!
In a tropical species of butterfly, wing shape is controlled by a single gene. Individuals can have wide wings (WW), elongated wings(Ww), or reduced wings (ww) In one population you calculate the genotype frequencies are:
* wide WW=0.75
*Elongated Ww=0.20
*reduced ww = 0.05
Wide shape affects fitness because predators are most successful at catching butterflies with reduced wings, although they also get some of the other
*wide WW=40
* elongated Ww=50
*reduced ww=80
What will be the genotype frequencies in the first generation of butterflies following natural selection due to the new predator? (ie you are looking for frequencies after selection and before reproduction) Round all values 2 decimal places
A. wide WW=0.75, elongated Ww=0.20, reduced ww=0.05
B.Wide WW=0.68, elongated Ww=0.29, reduced ww=0.04
C.There is no way to know because natural selection is random
D. wide WW=0.85, elongate Ww=0.11, reduced ww=0.04
E wide WW= 0.68, elongated Ww=0.23, reduced ww=0.09
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