1. if a red flower (rr) and a white flower (rr) were crossbred, resulting in 100% rr, what phenotypes would be seen according to the rules of incomplete dominance? 2. what phenotypes would be present in the scenario above according to the rules of codominance? 3. what is the best way to remember the difference between incomplete dominance and codominance?

1. Pink flowers

2. Red and white flowers

3. Incomplete dominance is a blending of both parental phenotypes while co-dominance is a simultaneous expression of both parental phenotypes.

Explanation:

Incomplete dominance and Co-dominance are both non-mendelian patterns of genetic inheritance i.e. they do not follow the principle of inheritance (Law of dominance) as discovered by Mendel.

Incomplete dominance is a genetic scenario in which one allele of a gene responsible for a trait is incompletely dominant over the other allele, hence, both alleles form an intermediate phenotype that is different from both parents' phenotypes.

Co-dominance, on the other hand, is another genetic scenario in which the two alleles of a gene are neither dominant nor recessive to one another, hence, they are both phenotypically expressed in that gene. The two alleles are said to be co-dominant.

According to this question involving a gene coding for flower colour, one allele codes for red color (R) while the other for white (r).

1) Based on the principles of Incomplete dominance, both alleles (R and r) will form an heterozygote (Rr) with an intermediate phenotype (pink) different from both parental phenotypes. This pink color is a blending of both the red and white colors.

2) Based on the principles of co-dominance, both alleles (R and r) are both dominant, hence, will be expressed together in the gene. Hence, the resulting heterozygote offspring (Rr) will possess both red and white colours on its flower.

3) Incomplete dominance and Co-dominance are different in the sense that Incomplete dominance produces an offspring that has an intermediate phenotype which is a blending of both parental phenotypes while co-dominance results in an offspring that possesses both parental phenotypes simultaneously i.e. both parents' phenotypes are expressed in the heterozygote offspring.

his research revealed two genetically different groups of prokaryotes, which justified splitting kingdom monera into two kingdoms. the genetic and cellular differences were so great, that these two kingdoms were eventually placed into different domains in the current three-domain system.

your answer is rna to the question.