- <u>Adaptations </u><u>are unique characteristics that allow animals to survive in their environment.</u>
- <u> There are </u><u>three </u><u>types of adaptations: </u><u>structural</u><u>, </u><u>physiological</u><u>, and </u><u>behavioral</u><u>. Structural adaptations are how the animal's body functions or looks on the ou</u>tside.
What are 3 ways animals can adapt to their environment?
Animals adapt to their environment in a variety of ways; an animal's color, behavior, defense or diet, for example, may serve adaptive functions.
- Color and Pattern Adaptations.
- Behavioral Adaptations.
- Defensive Adaptations.
- Dietary Adaptations.
What is an example of an animal adapting to its environment?
- Adaptation can protect animals from predators or from harsh weather.
- Many birds can hide in the tall grass and weeds and insects can change their colour to blend into the surroundings.
- This makes it difficult for predators to seek them out for food.
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The reason this is so different is because those that are carriers (1 in 20) are heterozygous and to have a child with CF, they have to have a child with another carrier and then have the unlucky occurrence that their child will end up homozygous recessive.
So, 2 parents are Cc
C= normal CFTR (the gene at question here - Cystic Fibrosis Transmembrane Receptor)
c = mutated CFTR
Cross: Cc x Cc
You get: CC (1); Cc (2) and cc (1)....there is only a 0.25 chance that each time you have a child that it will be diseased (cc). Highest chance that the child is a carrier (Cc - 0.50) and similar low chance to no longer carry the recessive damaged allele (CC - 0.25)
Answer:
Compounds needed for electron Transport chain are;
NADH
FADH2
NAD+
FAD
O2
H2o
Compounds that are produced are
ADP
ATP
Explanation:
Electron transport chain is a biological process that produced ATP in the body cells which entails building proton motive force that produce ATP.
The main electron transport chain electron donors are succinate and nicotinamide adenine dinucleotide hydrate (NADH).
nicotinamide adenine dinucleotide (NAD+) fuse with a proton to form NADH at the mitochondrial matrix.
flavin adenine dinucleotide (FADH2) plays a similar role as an electron donor.
Molecules such as pyruvate and succinate release energy when they are burned in the oxygen. This oxygen is later reduced to water.
The precursors of ATP, adenosine diphosphate (ADP) and inorganic phosphate (Pi) are transported nto the mitochondrial matrix which later bond to form ATP.