Answer:
The formation of new species in the Anolis lizard genus on different islands, such as in the Caribbean, can be explained through a process known as adaptive radiation. Here's how this might have occurred:
1. **Founder Effect:** An ancestral population of Anolis lizards could have initially colonized an island. These individuals would represent only a subset of the genetic diversity of the main population on the mainland.
2. **Island Isolation:** Islands are isolated environments, which means that the colonizing population would be relatively isolated from the mainland. This isolation can lead to unique evolutionary pressures and opportunities.
3. **Adaptive Radiation:** With time, the isolated population would adapt to the specific environmental conditions of the island. This might include changes in diet, behavior, morphology, and other traits to better exploit the island's resources and ecological niches.
4. **Divergent Evolution:** Different populations of Anolis lizards on various islands would undergo divergent evolution. Each population would adapt to its specific island environment, leading to the development of distinct traits and characteristics.
5. **Reproductive Isolation:** Over many generations, these isolated populations could become reproductively isolated from each other. This means they can no longer interbreed to produce fertile offspring.
6. **Speciation:** When reproductive isolation occurs, and genetic differences accumulate between populations, new species can form. This is the essence of speciation. Each island's population may evolve into a unique species with its own set of characteristics.
7. **Ecological Niches:** Different islands offer different ecological niches and opportunities. Some Anolis species might become tree-dwelling, while others may adapt to life on the ground or in different vegetation types. This diversification allows them to exploit various resources and minimize competition within the island's ecosystem.
8. **Natural Selection:** Throughout this process, natural selection would act on the traits that enhance an individual's fitness in their specific island environment. This would drive the evolution of specialized features and behaviors.
Overall, the combination of isolation, adaptation to local conditions, and the accumulation of genetic differences over time can lead to the formation of multiple new species from a common ancestor, as seen in the Anolis lizards and many other island-dwelling organisms. This phenomenon is a classic example of evolutionary biology and demonstrates how biodiversity can arise in isolated environments.
Allopatric speciation could have led to the formation of new species from the ancestral anoles on different islands. This concept involves physical isolation, like that created by an island environment, followed by independent evolution due to environmental factors, genetic drift, and natural selection, which result in new species.
The process you're asking about can be explained by a concept called speciation -- more specifically, a type called allopatric speciation. This occurs when a population of a species is subdivided, often by physical barriers like water or mountains, and the smaller groups are isolated from each other. Over time, environmental differences, natural selection, or genetic drift, cause the independent evolution of the isolated populations, leading to the development of new species.
In the context of the ancestral anoles on different islands, this could have occurred if the ancestral population was spread across different islands – effectively isolating each group due to the surrounding water. Each island could possess unique environments with different predation pressures, food sources, climates, etc.
#SPJ11
B. Overhydration
C. Dehydration
D. Lack of protein
Answer:
The correct statement would be - the bacterial cell due to the largest surface-to-volume ratio.
Explanation:
The surface area to volume ratio plays a very important role in determining the rate of the diffusion enter and exit from the cell body. If the surface-to-volume ratio is lower then the rate of diffusion would be lower to similarly with an increase in the ratio, the rate of diffusion also increases.
So, the bacteria like small organism have a cell which is exposed to a large surface area to the surrounding in comparison of the human egg cell.
Thus, the correct answer would be - the bacterial cell due to the largest surface-to-volume ratio.
A smaller spherical bacterial cell with a radius of 3μm can more efficiently exchange materials with the external environment compared to a larger human egg cell with a radius of 100μm, due to its higher surface area-to-volume ratio.
The statement that correctly indicates the cell that is able to more efficiently exchange materials with the external environment is that the spherical bacterial cell with a radius of 3μm can more efficiently exchange materials. This is because a smaller cell has a higher surface area-to-volume ratio, allowing for a faster exchange of materials through the cell membrane. On the other hand, the human egg cell with a radius of 100μm, being larger, has a lower surface area-to-volume ratio and is less efficient in exchanging materials with the external environment.
#SPJ3
A. hollow
B. narrow
C. thin
D. cartilage
Answer:
1. If I add fertilizer to my tomato plants will they grow faster and produce more tomatoes?
2. If I add varying amounts of fertilizer to my tomato plants then they will grow faster and produce more tomatoes.
3. The amounts of fertilizer
4. How much faster they grow and how much more is produced.
5. The control is how much they produced in the past.
6. Two variables that should remain constant is the amount of water and sunlight you give the tomato plants.
Answer
its circumtances
Explanation:
because it describes as the number who really thinks that the way is supposed to be, independent and depended variable, is like how much or how many? and the answer on the last one is 81
Answer:
The skin
Explanation: