I have calculated the probability that any child will have a particular blood type from both the genotype level and the phenotype level assuming the human ABO Rh system is followed.
Here are the genotype probabilities:
AA+/+ 49/1764 AA+/- 98/1764 AA-/- 49/1764 AO+/+ 98/1764 AO+/- 196/1764 AO-/- 98/1764 BB+/+ 49/1764 BB+/- 98/1764 BB-/- 49/1764 BO+/+ 98/1764 BO+/- 196/1764 BO-/- 98/1764 AB+/+ 98/1764 AB+/- 196/1764 AB-/- 98/1764 OO+/+ 49/1764 OO+/- 98/1764 OO-/- 49/1764
Here are the phenotype probabilities:
A+ 441/1764 A- 147/1764 B+ 441/1764 B- 147/1764 AB+ 294/1764 AB- 98/1764 O+ 147/1764 O- 49/1764
Here is the frequency of the blood types in the 1st generation by genotype:
AA+/+ 5/101 AA+/- 5/101 AA-/- 5/101 BB+/+ 5/101 BB+/- 5/101 BB-/- 5/101 AB+/+ 5/101 AB+/- 10/101 AB-/- 5/101 OO+/+ 5/101 OO+/- 5/101 OO-/- 5/101 AO+/- 10/101 AO+/+ 5/101 AO-/- 5/101 BO+/+ 4/101 BO+/- 4/101 BO-/- 4/101
Here are the numbers and their genders; a number represents an individual from a population of 101:
Male: 0,2,5,10,11,17,20,22,23,31,34,40,41,44,46,47,50,55,59,61,62,68,71,79,80,82,85,88,89,92,94,100 Hermaphroditic(and fertile): 4,8,16,25,32,64
all the rest are female
M/F mating: 11,904 offspring in 2nd generation H/A mating(hermaphrodites can mate with other hermaphrodites, males, females, and even themselves): 3636 offspring in 2nd generation
If you divide these by 6 you will get the amount per operation. The operations I am taking into consideration are +, -, *, /, ^, nth root, and arrow arrow(tetration).
So how can I take the frequency of blood types at the genotype level, probability of blood type at genotype and phenotype levels, and total number of offspring to get a 1st order estimate of the frequency of these blood types in the 2nd generation?