This is because phenotypes are the physical appearance. If you had brown hair and so did I, our phenotypes, would still be different.
i don't know but i think it is because of the recessive and dominate traits.
because no one in this world has the same gene.They may have similar gene,but not the same
Traits controlled by a gene with multiple alleles can vary in terms of expression or phenotype. For example, human blood type (A, B, AB, O) is controlled by a gene with multiple alleles. The different alleles can result in different phenotypes (A, B, AB, O) for the same trait.
by natural selection.
Phenotypes are observable, but this does not necessarily mean 'visible'. For example, biochemical properties and behaviour are both part of phenotype. A phenotype may involve producing a certain protein, but you cannot 'see' the protein (you might be able to do a test to find it).
Some traits, such as eye color and hair color, have multiple alleles that control different aspects of the phenotype. Because there are multiple different possible combinations of alleles, you get a wide range of phenotypes.
i don't know but i think it is because of the recessive and dominate traits.
some human traits show a large number of phenotype because the traits are controlled by many genes. The genes act together as a group to produce a single trait
because no one in this world has the same gene.They may have similar gene,but not the same
Usually, traits have a large variety of phenotypes because they have a large amount of genes.
Because these are governed by quatitative or multiple genes
Polygenic inheritance is a reason for some of the variety in human appearance. Eye color, hair color and skin color are all polygenic traits. That is why there are dozens of possible eye colors instead or just two or three. The mixing of alleles from multiple genes increases the number of possible phenotypes.
The garden pea has a few advantages for his experiments. It has a short generation time thus he can study many pea plants at once. Also their phenotypes are very distinct - which is a bonus since the whole experiment is to observe distinctive phenotypes - would be too vague and confusing if the traits are too close alike. The phenotypes that are distinctive are by color, the growth, round/wrinkled peas etc. Mendel's experiment basically fathered genetics. He knew nothing about alleles and DNA and what not yet he was still able to show how traits are inherited. He obviously proved that traits come from alleles - that traits don't just mix and are forever lost because some traits can be recovered (Homozygous x homozygous will always give homozygous. However Heterozygous Tt x Tt can recover the recessive trait, tt).
The garden pea has a few advantages for his experiments. It has a short generation time thus he can study many pea plants at once. Also their phenotypes are very distinct - which is a bonus since the whole experiment is to observe distinctive phenotypes - would be too vague and confusing if the traits are too close alike. The phenotypes that are distinctive are by color, the growth, round/wrinkled peas etc. Mendel's experiment basically fathered genetics. He knew nothing about alleles and DNA and what not yet he was still able to show how traits are inherited. He obviously proved that traits come from alleles - that traits don't just mix and are forever lost because some traits can be recovered (Homozygous x homozygous will always give homozygous. However Heterozygous Tt x Tt can recover the recessive trait, tt).
No, not all traits exhibit classic Mendelian inheritance. Many traits are influenced by multiple genes and environmental factors, leading to more complex inheritance patterns. Additionally, traits such as height, skin color, and intelligence are polygenic and multifactorial in nature, meaning they are influenced by multiple genes and environmental factors.
it has different beaks.
Traits controlled by a gene with multiple alleles can vary in terms of expression or phenotype. For example, human blood type (A, B, AB, O) is controlled by a gene with multiple alleles. The different alleles can result in different phenotypes (A, B, AB, O) for the same trait.