Aa=2
Bb=2
CC=1
dd=1
EE=1
2 x 2 x 1 x 1 x 1 = 4
8 different gametes can be produced from the genotype WwXXYyZZ through independent assortment and random segregation of chromosomes during meiosis.
Eight.The organism is homozygous for the C and E genes, so there is no variation there. Three genes (A, B, and D) are present in two alternative forms, so there are 23combinations possible, which comes to eight.
segregate independently
This is a demonstration of independent assortment, which is a principle of Mendelian genetics stating that genes assort independently of each other during gamete formation. In this case, the alleles for traits A and B are sorting independently of each other, resulting in the production of four different gametes in equal proportions.
I think it's genotype...
What is the probability that any of the offspring between individuals with the genotype AABbCcddEE will have the genotype AABBCCddEE
8 different gametes can be produced from the genotype WwXXYyZZ through independent assortment and random segregation of chromosomes during meiosis.
Eight.The organism is homozygous for the C and E genes, so there is no variation there. Three genes (A, B, and D) are present in two alternative forms, so there are 23combinations possible, which comes to eight.
segregate independently
8 kinds of gametes will be formed, each showing a unique combination of alleles from the given genotype (A, B, C, D, E).
This is a demonstration of independent assortment, which is a principle of Mendelian genetics stating that genes assort independently of each other during gamete formation. In this case, the alleles for traits A and B are sorting independently of each other, resulting in the production of four different gametes in equal proportions.
I think it's genotype...
The genotype of the individual is homozygous for the trait in question.
Dd is the heterozygous genotype for dimples.
A faster way to do it is by (2^n) where 2 is the number of alleles and n is the number of genes, so we have 2^3 = 8. so we have 8 possible combinations. Assuming you are asking how many different types of gametes can an individual with the genotype AaBbCc make. To answer we must first make one assumption: each gene resides on a different chromsome. The reason we do that is to simplify the analysis by making use of Mendel's Law of Independent Assortment. The possible genotypes in the gametes are thus: ABC ABc AbC Abc aBC aBc abC abc Independent Assortment allows us to determine the answer by simply listing out all of the possible combinations of alleles. However, if all or some of the genes are on the same chromosome, the answer becomes much more difficult, because then one has to know the probability of recombination between the genes. The closer in physical proximity on the chromosome the genes are, the less probable recombination (crossing over) will occur between them, because it's more difficult for crossing over to happen on very short stretches of DNA.
Genotype refers to an individual's genetic makeup, while phenotype refers to the physical characteristics and traits that result from the interaction between an individual's genotype and their environment. The genotype determines the potential traits that an individual can express, while the phenotype is the actual expression of those traits.
The genotype is the genetic makeup of a cell, an organism, or an individual (i.e. the specific allele makeup of the individual) usually with reference to a specific character under consideration.