Mortality is a data piece for a demographer that would be interested in studying demography. It is fundamental to estimate population size.
<h3>What is mortality in demography?</h3>
Mortality refers to the rate of deads in a given population for a particular period of time (often one year calendar).
Conversely, the birth rate refers to the rate of births in a given population for a particular period of time.
Demography is a discipline that studies human population dynamics, which includes both mortality and birth rates.
Learn more about the mortality rate here:
brainly.com/question/26105007
False like blood lymph won't flow both to and from the heart
Sedimentary rocks<span> can be categorized into three groups based on sediment type. Most sedimentary rocks are formed by the </span>lithification<span> of </span>weathered<span> rock debris that has been physically transported and deposited. During the transport process, the particles that make up these rocks often become rounded due to abrasion or can become highly sorted. Examples of this type of sedimentary rock include </span>conglomerate<span> and </span>sandstone<span>. Scientists sometimes call this general group of sedimentary rocks </span>clastic<span>. The remaining types of sedimentary rocks are created either from chemical precipitation and crystallization, or by the lithification of once living </span>organic matter<span>. We identify these sedimentary rocks as being </span><span>non-clastic
So the Answer Would Be C</span>
Answer:
b. Because they have a low affinity for the H+
Explanation:
All electrons that enter the transport chain come from NADH and FADH2 molecules that are produced in earlier phases of cellular respiration: glycolysis, pyruvate oxidation and the citric acid cycle.
NADH is very good at donating electrons in redox reactions (that is, its electrons are at a high energy level), so you can transfer your electrons directly to complex I and transform it back into NAD +. The movement of electrons through complex I in a series of redox reactions releases energy, which the complex uses to pump protons from the matrix into the intermembrane space.
FADH2 is not as good for donating electrons as NADH (that is, its electrons are at a lower energy level), so it cannot transfer its electrons to complex I. Instead, it introduces electrons to the transport chain through complex II, which does not pump protons through the membrane.
