Answer:
A gene transmitted to males from the maternal line and from fathers to daughters.
Explanation:
Gregor Mendel through his research on pea plants, came up with three laws which are:
- <em> The Law of Segregation of genes: Each inherited trait is defined by a pair of gene alleles. Genes are randomly separated to the sex cells so that sex cells contain only one allele of the pair. </em>
- <em>The Law of Dominance: An organism with alternate forms of a gene will express the form that is dominant.
</em>
- <em>The Law of Independent Assortment: Genes for different traits are sorted separately from one another so that the inheritance of one trait is not dependent on the inheritance of another.
</em>
<em></em>
In His work, he established the basic patterns of inheritance and it wasn't until after his death that sex linked inheritance patterns were identified.
He believed that a pair of genes called alleles, were transmitted, each allele from one parent and both alleles transmitted from each parent constituted the complete pair in the offspring.
However, if different variants of the same gene were inherited from both parents, the dominant gene is expressed in the offspring (phenotype).
Since the basis of his work established genes being equally transmitted by both parents to offspring, the variations being due to dominance, genes transmitted from mother to son and from father to daughter, follows the Mendelian pattern of inheritance.
Your Answer will be D. <u>Monocytes</u>
Hello!
The right sequence is: Australopithecus, Homo Habilis, Homo Erectus, Homo Neanderthalensis and Homo Sapiens Sapiens.
So, the right alternative is letter d)
Hugs!
The answer Peter will consume 60 sixpacks of Miller lite per
year.
The solution for this problem is:
The cost of 6 Miller six packs is 5 * 6 = 30.
Then the cost of 2 Bud cases is 30 * 2 = 60.
Consequently, Miller is low-priced so Peter will buy as much Miller as
possible. Therefore, <span><span>300 which is the budget divided by 5 is the cost for the Miller sixpacks = 60</span></span>
