No. Evolution is the change in allele ( different molecular forms of the same gene ) frequency over time in a population of organisms. No equilibrium there.
True
A method that mimics evolution and natural selection to solve the problem.
It changes genes and so passes them on
Genetic variation, which can lead to evoloution, and then potentially a new species.
my notes from my class say maladaptive....
When a population is not evolving, it is called being in genetic equilibrium. This means that the frequency of alleles in the population remains constant from generation to generation. Evolution requires changes in allele frequencies, so genetic equilibrium indicates no evolution is occurring.
Allele frequency is altered by genetic drift, natural selection, migration, mutation, or nonrandom mating. This results in a change in genetic equilibrium in a population that is evolving. Evolution leads eventually to speciation.
Genotype frequencies stay the same in a population when evolution is not occurring due to genetic equilibrium, which is maintained by factors like random mating, no mutations, no gene flow, a large population size, and no natural selection.
A species that does evolve is an open ended species. One that doesn't is the opposite of that.
All species have the same genetic code.
A population is in genetic equilibrium when allele frequencies remain constant over generations, indicating that there is no evolution occurring. This suggests that the population is not experiencing any genetic drift, gene flow, mutations, or natural selection.
Not biological evolution in the standard sense. No variation, genetic variability, and there is nothing for natural selection to select from.
Micro-evolution is not only a part of macro-evolution, it is the same mechanism as macro-evolution. Macro-evolution includes speciation, as a result of continuing micro-evolution.
Evolution is not a cause of genetic change: it is the effect of genetic change.
Any violation of the conditions necessary for Hardy-Weinberg equilibrium can result in changes in allele frequencies in a population. This includes factors such as mutation, gene flow, genetic drift, non-random mating, and natural selection that can disrupt the genetic equilibrium established by Hardy-Weinberg principles.
When an organism is in Hardy-Weinberg equilibrium there is no evolution. There is no mutation, mating is random and thus no natural selection. Naturally, outside of labs this condition is never seen.
That situation is called a Hardy-Weinberg equilibrium. Not actually seen outside of the lab.