Answer:
1. respiratory 2.faster 3. at a faster rate
true within limits
not true
The answer is true. In Photosynthesis, the temperature continues to increase but with limits. In this process, plants and other organisms convert the light energy from the sun into a chemical energy then released to fuel the organisms’ activities. The rate of carbon assimilation increases as the temperature increases.
Photosynthesis increases with temperature up to a certain limit.
Photosynthesis is the process by which plants convert light energy into chemical energy to produce food. Temperature plays a crucial role in photosynthesis as it affects the enzymes involved in the process. In general, photosynthesis increases with temperature up to a certain limit, beyond which it starts to decline. This is because the enzymes become less efficient at higher temperatures.
It is the biological process by which green plants, algae, and some bacteria convert light energy, primarily from the sun, into chemical energy in the form of glucose and oxygen. This energy conversion occurs in chloroplasts, where chlorophyll pigments capture light and use it to convert carbon dioxide and water into sugars and oxygen, facilitating energy storage and supporting life on Earth.
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high phytoplankton turnover rate
b.
slow aquatic predator metabolisms
c.
small number of aquatic consumers
d.
high energy content of phytoplankton
Answer:
A is correct!
Explanation:
As the person above me says C is incorrect.
b. The occurrence of individuals with unexpected phenotypes led him to the discovery of recombination.
c. It led him to the realization that the behavior of chromosomes during meiosis explained his results.
d. It meant that the alleles involved were either dominant or recessive, which gave 3 : 1 ratios in the F1 generation.
Answer:
Otherwise, his dihybrid crosses would not have produced a 9 : 3 : 3 : 1 ratio of F2 phenotypes.
Explanation:
The random separation of alleles of different genes to the opposite poles of the cell requires that the genes are present on the different chromosomes. In this case, the random segregation of alleles of two genes produces new allele combinations in the progeny. The genes may be present on the same chromosome. These linked genes do not exhibit the random separation of their alleles.
Mendel obtained the 9:3:3:1 ratio since the two genes of a dihybrid cross were present on the different chromosomes. This allowed the independent assortment of their alleles. If the genes were linked, he would have obtained more of the parental types and less or no recombinant progeny in the F2 generation. Therefore, the F2 phenotypic ratio would have deviated.
associated with allowing for
the growth of multicellular
individuals?