If all the F1 offspring from crossing two purple flowering pea plants were also purple, it suggests that both parent plants were likely homozygous for the purple flower trait, meaning they both carried the genotype with two dominant alleles (PP). Alternatively, if one or both parents were heterozygous (Pp), it would still result in all purple offspring if the dominant purple trait masks any recessive traits. However, since all F1 are purple, the simplest explanation is that both parents were homozygous dominant.
Angiosperms are flowering plants
To accurately determine the possible phenotypes of the offspring from a cross of two parental plants, we would need specific information about the traits being examined and the genotypes of the parents. Generally, if the traits follow simple Mendelian inheritance, the phenotypes could include a mix of dominant and recessive traits depending on the alleles contributed by each parent. For example, if one parent is homozygous dominant (AA) and the other is homozygous recessive (aa), all offspring would exhibit the dominant phenotype (Aa). Please provide the details of the parental genotypes for a more precise answer.
What percentage of the possible types of offspring had the same phenotype as the parents
Flowering plants produce seeds.
To accurately determine the possible phenotypes of the offspring from the cross of the parental plants, we need specific information about the traits being considered (such as dominant and recessive alleles) and the genotypes of the parental plants. If you provide those details, I can help you identify the potential phenotypes resulting from the cross.
Mendel Diagrams. If the offspring gets a dominate gene from both parents, the offspring will exhibit traits from the dominate gene. If the offspring gets a dominate gene from one parent and a recessive gene from another, the offspring will exhibit traits from the dominate gene. If the offspring get a recessive gene from both parents, the offspring will exhibit traits from the recessive gene.
Plants are offspring like their parents because of their parents DNA this happens because of fertilization
The parents were likely both heterozygous for seed color, with genotypes of Yy. This would result in a 3:1 phenotypic ratio of yellow to green seeds in the offspring, consistent with the observed 93:31 ratio.
The possible genotypes and phenotypes of the offspring can be determined using a Punnett square, a grid that shows the possible combinations of alleles that can result at fertilisation. The Punnett square below shows the expected genotypes of the offspring of parent pea plants that both have the genotype Rr.
You get both flowering plants and non-flowering plants; non-flowering are things like mosses, ferns and liverworts which produce spore, flowering plants produce seeds
There are two types of flowering plants. These two types of flowering plants are the perennials and the annual flowering plants.
flowering plants and non-flowering plants
Flowering plants require pollinatio non-flowering plants do not.
In pea plants, the round seed trait (R) is dominant over the wrinkled seed trait (r). If both parents are heterozygous (Rr), the possible offspring genotypes are RR, Rr, and rr, with a 75% chance of producing round seeds (RR or Rr) and a 25% chance of producing wrinkled seeds (rr). Therefore, there is a 75% possibility that two heterozygous parents would have an offspring that produces round seeds.
I'm not positive..I have to answer this question for my lab also. I'm guessing the pollen tube/style
Angiosperms are flowering plants
Let us assume that both Rr and rr produce red flowers and only rr produces white flowers. Since one parents and the offspring are white, they have rr as genotypes. In order to achieve this result, the other parent would have to haev at least one r in its genotype. Since the otehr parent is red and needs to have one r, it's genotype is Rr. In short, the parents's genotypes are Rr for the red one and rr for the white one.