#Question id: 4746
#Section 3: Genetics, Cellular and Molecular Biology
Two independent pure line varieties having deep red and brown phenotype in their seed coat were cross, the all f1 progeny is deep red. The F2 progeny obtain from selfing show deep red and brown in ratio of 15:1. Which of the following observation is correct?
#Question id: 4747
#Section 3: Genetics, Cellular and Molecular Biology
How does incomplete dominance differ from incomplete penetrance?
#Question id: 4748
#Section 3: Genetics, Cellular and Molecular Biology
Eye color in Drosophila present on X chromosome, Red eye color is dominant over white eye color. There is non disjunction in Meiosis I in female and normal meiosis in male. Female is white eye color was cross with red eye male. What will be expected phenotype in their progeny?
#Question id: 4749
#Section 3: Genetics, Cellular and Molecular Biology
A normal woman, whose father was Hemophilic and color blind is married to a colorblind, nonhemophilic man. What will be probability of colorblind, hemophilic daughter?
#Question id: 4751
#Section 3: Genetics, Cellular and Molecular Biology
In the following example, 3 independently assorting genes are known to govern coat color in mice. The genotype of few of the coat colors is given below:
Agouti: A-B-C- Black: aa B-C - Albino: -- -- cc
What will be the expected frequency of abino, in progeny from crosses of AaBbCc with albino of the genotype aabbcc?
#Question id: 4752
#Section 3: Genetics, Cellular and Molecular Biology
Red-green color blindness is caused by a sex-linked recessive allele. A color-blind man marries a woman with normal vision whose father was color-blind. What is the probability that they will have a color-blind daughter? What is the probability that their first son will be color-blind respectively?