Answer:
The liver cell with ∆G'° = -2.34 kJ/mol
Note: The question is incomplete. The complete question is given below:
The following data represents cellular concentrations of ATP, ADP, and inorganic phosphate from various mammalian organs. Calculate the actual Gibbs free energy change for hydrolysis of ATP under physiological conditions (assume 37°C). Assume ATP hydrolysis has a standard free energy change of -30.5 kJ/mol. Which cell type yields the greatest free energy change for ATP hydrolysis? Show your work. ATP (MM) ADP (mm) Pi. (mm) Liver 3.5 1.8 5.0 Muscle 8.0 0.9 8.0 Brain 2.6 0.7 2.7 mM=millimolar, ATP=adenosine triphosphate, ADP-adenosine diphosphate, Pi=inorganic phosphate
Explanation:
The equation for ATP hydrolysis is as follows: ATP ---> ADP + Pi
Standard free energy change, ∆G'° = -RTlnK'eq;
where K'eq is equilibrium constant; R = 8.315 J/mol.K; T = 298 K
K'eq = {[ADP][Pi]}/[ATP]
For Liver:
∆G'° = -(8.315)(298) × ln (1.8 × 5.0/3.5)
∆G'° = -2.34 kJ/mol
For Muscle
∆G'° = -(8.315)(298) × ln (0.9 × 8.0/8.0)
∆G'° = 0.261 kJ/mol
For Brain
∆G'° = -(8.315)(298) × ln (0.7 × 2.7/2.6)
∆G'° = 0.79 kJ/mol
<span>The closer the object is from the center of the earth the stronger the pull of gravity would be.</span>
Answer:
I am positive the answer is C because I used to study the exact same lesson.
If an animal did not consume lysine in its diet, you might
expect that the animal to have a growth delay and brittle bones.
<span>- </span>Lysine
is considered as a building block for the synthesis of all proteins. Proteins
are essential for normal growth and for body tissue repair. Therefore lysine
deficiency can result in stunted
growth and a weak muscular-skeletal structure growth and a weak muscular-skeletal structure.
<span>-
</span>Lysine helps in calcium absorption. Calcium is
important for the developing and maintaining healthy skeletal and nervous
system. Therefore, lysine deficiency can result in brittle bones and nervous
system problems.