337466
Which of the following are not used in the conversion by pyruvate to acetyl CoA? (i) Oxidative dehydrogenation (ii) Oxidative dehydration (iii) Oxidative phosphorylation (iv) Oxidative decarboxylation
1 (i), (ii) and (iii)
2 (i) and (ii)
3 (ii) and (iv)
4 (i) and (iii)
Explanation:
The conversion of pyruvate to acetyl CoA involves oxidative decarboxylation (removal of a carboxyl group) and removal of hydrogen which is taken up by \(\mathrm{NAD}^{+}\)to become \(\mathrm{NADH}^{+}\)
BIOXI14: RESPIRATION IN PLANTS
337467
In aerobic respiration, first \(\mathrm{CO}_{2}\) is liberated during
1 Decarboxylation of acetyl Co-A
2 Decarboxylation of oxalosuccinate
3 Decarboxylation of -ketoglutarate
4 Oxidation of pyruvic acid
Explanation:
In aerobic respiration, first \(\mathrm{CO}_{2}\) is liberated during oxidation of pyruvate.
BIOXI14: RESPIRATION IN PLANTS
337468
Which one of the following reactions is an example of oxidative decarboxylation?
1 Conversion of acetyl Co-A to pyruvate
2 Conversion of fumarate to malate
3 Conversion of pyruvate to acetyl Co-A
4 Conversion of citrate to isocitrate
Explanation:
Conversion of pyruvate to acetyl Co-A is an example of oxidative decarboxylation catalysed by pyruvic dehydrogenase.
BIOXI14: RESPIRATION IN PLANTS
337469
Net gain of ATP molecules per hexose during link reaction is
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BIOXI14: RESPIRATION IN PLANTS
337466
Which of the following are not used in the conversion by pyruvate to acetyl CoA? (i) Oxidative dehydrogenation (ii) Oxidative dehydration (iii) Oxidative phosphorylation (iv) Oxidative decarboxylation
1 (i), (ii) and (iii)
2 (i) and (ii)
3 (ii) and (iv)
4 (i) and (iii)
Explanation:
The conversion of pyruvate to acetyl CoA involves oxidative decarboxylation (removal of a carboxyl group) and removal of hydrogen which is taken up by \(\mathrm{NAD}^{+}\)to become \(\mathrm{NADH}^{+}\)
BIOXI14: RESPIRATION IN PLANTS
337467
In aerobic respiration, first \(\mathrm{CO}_{2}\) is liberated during
1 Decarboxylation of acetyl Co-A
2 Decarboxylation of oxalosuccinate
3 Decarboxylation of -ketoglutarate
4 Oxidation of pyruvic acid
Explanation:
In aerobic respiration, first \(\mathrm{CO}_{2}\) is liberated during oxidation of pyruvate.
BIOXI14: RESPIRATION IN PLANTS
337468
Which one of the following reactions is an example of oxidative decarboxylation?
1 Conversion of acetyl Co-A to pyruvate
2 Conversion of fumarate to malate
3 Conversion of pyruvate to acetyl Co-A
4 Conversion of citrate to isocitrate
Explanation:
Conversion of pyruvate to acetyl Co-A is an example of oxidative decarboxylation catalysed by pyruvic dehydrogenase.
BIOXI14: RESPIRATION IN PLANTS
337469
Net gain of ATP molecules per hexose during link reaction is
337466
Which of the following are not used in the conversion by pyruvate to acetyl CoA? (i) Oxidative dehydrogenation (ii) Oxidative dehydration (iii) Oxidative phosphorylation (iv) Oxidative decarboxylation
1 (i), (ii) and (iii)
2 (i) and (ii)
3 (ii) and (iv)
4 (i) and (iii)
Explanation:
The conversion of pyruvate to acetyl CoA involves oxidative decarboxylation (removal of a carboxyl group) and removal of hydrogen which is taken up by \(\mathrm{NAD}^{+}\)to become \(\mathrm{NADH}^{+}\)
BIOXI14: RESPIRATION IN PLANTS
337467
In aerobic respiration, first \(\mathrm{CO}_{2}\) is liberated during
1 Decarboxylation of acetyl Co-A
2 Decarboxylation of oxalosuccinate
3 Decarboxylation of -ketoglutarate
4 Oxidation of pyruvic acid
Explanation:
In aerobic respiration, first \(\mathrm{CO}_{2}\) is liberated during oxidation of pyruvate.
BIOXI14: RESPIRATION IN PLANTS
337468
Which one of the following reactions is an example of oxidative decarboxylation?
1 Conversion of acetyl Co-A to pyruvate
2 Conversion of fumarate to malate
3 Conversion of pyruvate to acetyl Co-A
4 Conversion of citrate to isocitrate
Explanation:
Conversion of pyruvate to acetyl Co-A is an example of oxidative decarboxylation catalysed by pyruvic dehydrogenase.
BIOXI14: RESPIRATION IN PLANTS
337469
Net gain of ATP molecules per hexose during link reaction is
337466
Which of the following are not used in the conversion by pyruvate to acetyl CoA? (i) Oxidative dehydrogenation (ii) Oxidative dehydration (iii) Oxidative phosphorylation (iv) Oxidative decarboxylation
1 (i), (ii) and (iii)
2 (i) and (ii)
3 (ii) and (iv)
4 (i) and (iii)
Explanation:
The conversion of pyruvate to acetyl CoA involves oxidative decarboxylation (removal of a carboxyl group) and removal of hydrogen which is taken up by \(\mathrm{NAD}^{+}\)to become \(\mathrm{NADH}^{+}\)
BIOXI14: RESPIRATION IN PLANTS
337467
In aerobic respiration, first \(\mathrm{CO}_{2}\) is liberated during
1 Decarboxylation of acetyl Co-A
2 Decarboxylation of oxalosuccinate
3 Decarboxylation of -ketoglutarate
4 Oxidation of pyruvic acid
Explanation:
In aerobic respiration, first \(\mathrm{CO}_{2}\) is liberated during oxidation of pyruvate.
BIOXI14: RESPIRATION IN PLANTS
337468
Which one of the following reactions is an example of oxidative decarboxylation?
1 Conversion of acetyl Co-A to pyruvate
2 Conversion of fumarate to malate
3 Conversion of pyruvate to acetyl Co-A
4 Conversion of citrate to isocitrate
Explanation:
Conversion of pyruvate to acetyl Co-A is an example of oxidative decarboxylation catalysed by pyruvic dehydrogenase.
BIOXI14: RESPIRATION IN PLANTS
337469
Net gain of ATP molecules per hexose during link reaction is
