Correct option is C
The correct answer is (c) 30.5
Explanation:
• Biologically, ATP (Adenosine Triphosphate) practically functions universally across all life as the primary, indispensable energy currency for driving most microscopic cellular processes within living organisms.
• The raw chemical energy actively released during cellular respiration is almost immediately harvested and used to structurally synthesize a brand new ATP molecule from a precursor ADP and a free inorganic phosphate.
• When the highly energetic terminal phosphate linkage within a single ATP molecule is aggressively broken down using a water molecule (a biochemical process explicitly called hydrolysis), stored energy is rapidly released.
• Through precise scientific measurement, the exact calculated amount of chemical energy released during this highly specific biochemical reaction is completely equivalent to exactly 30.5 kJ/mol.
• This instantly released energy is then highly efficiently captured and utilized by the working cell to dynamically drive various essential, otherwise unfavorable endothermic reactions.
Information Booster:
• Structurally speaking, an active ATP molecule is complexly composed of a nitrogenous adenine base, a specific ribose sugar, and an attached linear chain of three negatively charged phosphate groups.
• Conceptually, ATP acts quite similarly to a tiny rechargeable battery, effortlessly providing readily available, instant energy for vital tasks like rapid muscle contraction, swift nerve impulse conduction, and massive protein synthesis.
Additional Knowledge:
50 (Option a)
• This arbitrary value is entirely factually incorrect and absolutely does not correspond in any way to the standard established energy released directly from typical ATP hydrolysis.
71.5 (Option b)
• This significantly higher numerical value is physically incorrect in the strict context of natural biological energy release from the outermost terminal phosphate bond of standard ATP.
5 (Option d)
• This remarkably low value is exponentially and significantly lower than the actual, verified energy yield practically generated by cellular ATP hydrolysis.
So the correct answer is (c)