Answer:
spinach plants will be more genetically diverse than tomato plants because sexual reproduction generates more genetic diversity than asexual reproduction
Explanation:
In nature, there are two basic mechanisms of reproduction: sexual reproduction and asexual reproduction. Genetic variation can be generated by the following mechanisms: mutations, random fertilization, recombination (i.e., crossing over), and the independent assortment of homologous chromosomes during meiosis. Sexual reproduction involves two parents, thereby new genetic variation can be generated in the offspring through all these mechanisms: new mutations, genetic recombination (which generates new alleles within an organism's offspring), random fertilization, and the random (independent) assortment of homologous chromosomes during meiosis (these last two mechanisms can potentially generate new genetic combinations in the offspring). Moreover, asexual reproduction involves a single parent, and thereby in this case genetic variation can be only generated by mutations that are passed on to offspring.
<u>Answer</u>:
Smaller planets would dissipate heat more rapidly and this criteria doesn't satisfy the conditions of existence of life.
<u>Explanation</u>:
The existence of life on Earth was possible because it fulfilled the criteria needed for the conditions of generating life in a planet. Its distance from sun is appropriate, it is made up of rock, it is big enough to have a core which is molten and it has a magnetic field. If it was a smaller planet, then it would have a liquid hot core that dissipate heat at a rapid rate. This condition doesn't support the criteria of life's existence.
<span>No, you can not conclude Vitamin C use reduces allergies because this could be correlation, without causation. Mothers who used vitamin C may have qualities that decreased allergies, like lower smoking rates or improved pre-natal care. There also needs to be a control group to validate the intervention data.</span>
Genetic engineering involves using <span>recombinant</span> DNA to introduce new genes to organisms.