As a leaf grows, it becomes more organized. Does this process violate the law of entropy?
A) Yes; in fact, it is known that the law of entropy does not apply to biological processes such as the growth of a leaf, or biological evolution.
B) No, because total energy is conserved in this process, despite the increased organization of the leaf.
C) No, because the radiation passing through the leaf during this process increases its entropy, so that the total entropy increases.
D) No, because the O2 that is emitted during photosynthesis has greatly increased entropy, resulting in an overall increase of the total entropy.
E) No, because the sugars and other molecules of the leaf are formed at a high temperature, resulting in an overall increase of the total entropy.
Question 2
Planet A has twice the mass of Planet B. From this information, what can we conclude about the free-fall acceleration at the surface of Planet A compared to that at the surface of Planet B?
A) The free-fall acceleration on Planet A must be twice as great as the free-fall acceleration on Planet B.
B) The free-fall acceleration on Planet A must be four times as great as the free-fall acceleration on Planet B.
C) The free-fall acceleration on Planet A is the same as the free-fall acceleration on Planet B.
D) The free-fall acceleration on Planet A is greater than the free-fall acceleration on Planet B, but we cannot say how much greater.
E) We cannot conclude anything about the free-fall acceleration on Planet A without knowing the radii of the two planets.
The formation of gametes by the process of meiosis is known as gametogenesis.
Entropy
Palatine process
Comparison of a tender and mature leaf.
The AquAdvantage salmon grows twice as fast as a non-GM Atlantic salmon