As a result of the Law of Conservation of Energy, phytoplankton cannot produce more energy than it absorbs from the sun. Which m
ethod, using phytoplankton grown in an aquarium, would best test this hypothesis? Measure the amount of energy in the aquarium and the amount of light entering the aquarium. Then measure the amount of energy in the phytoplankton after exposure to the light and determine the difference.
Measure the amount of energy in the aquarium and the amount of light entering the aquarium. Then measure the amount of energy in the aquarium after exposure to light and determine the difference.
Measure the amount of energy in the phytoplankton, the aquarium in the dark, and the amount of light entering the aquarium. Then measure the amount of energy in the phytoplankton and the aquarium after exposure to the light and determine the difference.
Measure the amount of energy in the phytoplankton and the amount of light entering the aquarium. Then measure the amount of energy in the phytoplankton after exposure to the light and determine the difference.
The best and most correct answer among the choices provided by the question is the fourth choice "<span>Measure the amount of energy in the phytoplankton and the amount of light entering the aquarium. Then measure the amount of energy in the phytoplankton after exposure to the light and determine the difference." </span><span>I hope my answer has come to your help. God bless and have a nice day ahead!</span>
In a dihybrid cross, the F2 will have nine genotypes, but only four phenotypes because the <u><em>Heterozygous</em></u> genes cause the <u><em>Dominant</em></u> traits to mask the <u><em>Recessive</em></u> traits.
