There is no difference. Sexual reproduction is a source of genetic variation. Because during sexual reproduction within humans, a sperm cell and egg, each consisting of different genetic codes, combine to form a completely different DNA. Immediately, a genetic variation occurs between the parents and the offspring because of the union of the gamete cells, a sperm and egg.
The major difference is that asexual reproduction in sea stars involves the regeneration of a new individual from a severed part of the sea star, while sexual reproduction involves the fusion of gametes from two separate individuals to produce offspring with genetic variation.
In sexual reproduction, offspring inherit genetic material from two parents, leading to greater genetic diversity and variation among offspring. In asexual reproduction, offspring are genetically identical to the parent, resulting in less genetic diversity and variation.
In sexual reproduction, offspring inherit genetic material from two parents, leading to greater genetic diversity and variation among offspring. In asexual reproduction, offspring are genetically identical to the parent, resulting in less genetic diversity and variation.
In sexual reproduction an entirely new individual is produced. The genes are not exactly the same as either parent. In asexual reproduction the new individual is exactly the same as the parent. It is a cone of the parent.
Sexual reproduction involves the fusion of two sex cells (sperm and egg) from two different parents, resulting in genetic variation in offspring. Asexual reproduction involves a single parent producing offspring that are genetically identical to the parent.
The major difference is that asexual reproduction in sea stars involves the regeneration of a new individual from a severed part of the sea star, while sexual reproduction involves the fusion of gametes from two separate individuals to produce offspring with genetic variation.
In sexual reproduction, offspring inherit genetic material from two parents, leading to greater genetic diversity and variation among offspring. In asexual reproduction, offspring are genetically identical to the parent, resulting in less genetic diversity and variation.
In sexual reproduction, offspring inherit genetic material from two parents, leading to greater genetic diversity and variation among offspring. In asexual reproduction, offspring are genetically identical to the parent, resulting in less genetic diversity and variation.
The difference in characteristics between organisms of the same species is called "genetic variation." This variation can arise from mutations, sexual reproduction, and environmental factors, leading to diversity in traits such as size, color, and behavior within the species. Genetic variation is essential for natural selection and the overall adaptability of populations.
Asexual reproduction decreases genetic variation which is the raw material on which natural selection operates. This is because asexual reproduction produces identical offspring to the parent.
The answer is sexual reproduction
Genetic variation
In sexual reproduction an entirely new individual is produced. The genes are not exactly the same as either parent. In asexual reproduction the new individual is exactly the same as the parent. It is a cone of the parent.
Genetic variation is necessary for natural selection to occur. This variation provides the raw material for differential survival and reproduction, which drives the process of natural selection. Without genetic variation, there would be no differences for natural selection to act upon.
Sexual reproduction produces more genetic variation than asexual reproduction. In sexual reproduction, offspring inherit genetic material from two parents, leading to greater diversity. Asexual reproduction involves only one parent, resulting in limited genetic variation among offspring.
variation is difference between genes and trait among individual* organism within population. mutation is change in genetic instruction I hope it helps
Other sources of genetic variation in a population include genetic mutations, genetic recombination during sexual reproduction, and gene flow from migration of individuals between populations. These processes can introduce new genetic combinations and alleles into the population, leading to increased genetic diversity.