It is possible for their offspring to exhibit type AB, A, B, or O, depending upon the parental genotype, which is unknown. The blood type exhibited, also referred to as phenotype, is due to the dominant A and B alleles. Every person inherits two alleles for each gene, one from each parent. The type A may have inherited two A alleles or an A allele and an O allele, the O being masked by the dominant A because it is a recessive trait. Therefore they exhibit the phenotype A, but could potentially pass on an O allele to any offspring. The same goes for the type B parent (could be BB or BO). The exact genotype (AA/BB or AO/BO) is not determined through simple blood testing, so the exact phenotype of the offspring can not be predicted.
The child of a half-blood and a pure-blood would be considered a half-blood. In the wizarding world, blood status is often determined by the least pure parent.
The offspring could have blood type A- or O- due to the possible combination of A and O alleles from the parents.
No, O and B blood type parents can not create an A blood type offspring. The only blood type offspring that can be created by these parents is O+, O-, B+, or B-.
There is a 25% chance that their first child will have type O blood if both parents are heterozygous for blood type A and B. This is because the child could inherit an O gene from each parent, resulting in blood type O.
Punnett squares are used to predict the possible blood types of offspring in a genetic cross involving parents with different blood types by showing all the possible combinations of alleles that the parents can pass on to their offspring. This helps determine the likelihood of each blood type in the offspring based on the parents' genotypes.
ii, IAi, IBi, IAIB
If a boy with blood group A positive marries a girl with blood group A negative, their offspring may inherit one A allele from each parent. This means the child could have blood group A, which poses no health risks. However, if the child inherits the Rh factor from the father (positive) and the mother (negative), the child might have Rh incompatibility if the mother's blood enters the baby's bloodstream, which can lead to health issues in future pregnancies.
The children will have type AB
Without any further information about the blood types of the offspring's parents, you can say that the offspring of a parent with type A and parent of type B could have any blood type -- A, B, O, or AB.
The child of a half-blood and a pure-blood would be considered a half-blood. In the wizarding world, blood status is often determined by the least pure parent.
Without any further information about the blood types of the offspring's parents, you can say that the offspring of a parent with type A and parent of type B could have any blood type -- A, B, O, or AB.
Without any further information about the blood types of the offspring's parents, you can say that the offspring of a parent with type A and parent of type B could have any blood type -- A, B, O, or AB.
Without any further information about the blood types of the offspring's parents, you can say that the offspring of a parent with type A and parent of type B could have any blood type -- A, B, O, or AB.
The offspring could have blood type A- or O- due to the possible combination of A and O alleles from the parents.
Without any further information about the blood types of the offspring's parents, you can say that the offspring of a parent with type A and parent of type B could have any blood type -- A, B, O, or AB.
If the father is homozygous for the B blood group, giving him the BB blood genotype, and the mother's genotype is AB (the only genotype for the AB blood group), then their offspring could have either the AB or B blood groups. If the father is heterozygous for the B blood group, giving him the BO genotype, then their offspring could have the AB, A, or B blood groups. However, they could not produce an offspring with the O blood group.
It can be A or O