Electron Transport System
BIOXI14: RESPIRATION IN PLANTS

337544 \({{\rm{F}}_{\rm{0}}}\) is

1 Headpiece is a peripheral membrane protein complex
2 Tailpiece is a peripheral membrane protein complex
3 Headpiece is a central membrane protein complex
4 An integral membrane protein complex that forms the channel
BIOXI14: RESPIRATION IN PLANTS

337545 The chemiosmotic coupling hypothesis of oxidative phosphorylation proposes that adenosine triphosphate (ATP) is formed because

1 There is a change in the permeability of the inner mitochondrial membrane toward adenosine diphosphate (ADP)
2 A proton gradient forms across the inner membrane
3 High energy bonds are formed in mitochondrial proteins
4 ADP is pumped out of the matrix into the intermembrane space
BIOXI14: RESPIRATION IN PLANTS

337546 Oxidative phosphorylation is

1 Oxidation of phosphate group in ATP.
2 Formation of ATP by energy released from electrons removed during substrate oxidation.
3 Formation of ATP by transfer of phosphate group from a substrate to ADP.
4 Addition of phosphate group to ATP.
BIOXI14: RESPIRATION IN PLANTS

337547 In the given diagram, label ' \(A\) ' represents
supporting img

1 Complex I
2 Complex II
3 Complex III
4 Complex IV
BIOXI14: RESPIRATION IN PLANTS

337548 The given diagram represents part of ETS. Which of the following is responsible for this reaction
supporting img

1 Complex II
2 Succinate dehydrogenase
3 Complex I
4 Both 1 and 2.
BIOXI14: RESPIRATION IN PLANTS

337544 \({{\rm{F}}_{\rm{0}}}\) is

1 Headpiece is a peripheral membrane protein complex
2 Tailpiece is a peripheral membrane protein complex
3 Headpiece is a central membrane protein complex
4 An integral membrane protein complex that forms the channel
BIOXI14: RESPIRATION IN PLANTS

337545 The chemiosmotic coupling hypothesis of oxidative phosphorylation proposes that adenosine triphosphate (ATP) is formed because

1 There is a change in the permeability of the inner mitochondrial membrane toward adenosine diphosphate (ADP)
2 A proton gradient forms across the inner membrane
3 High energy bonds are formed in mitochondrial proteins
4 ADP is pumped out of the matrix into the intermembrane space
BIOXI14: RESPIRATION IN PLANTS

337546 Oxidative phosphorylation is

1 Oxidation of phosphate group in ATP.
2 Formation of ATP by energy released from electrons removed during substrate oxidation.
3 Formation of ATP by transfer of phosphate group from a substrate to ADP.
4 Addition of phosphate group to ATP.
BIOXI14: RESPIRATION IN PLANTS

337547 In the given diagram, label ' \(A\) ' represents
supporting img

1 Complex I
2 Complex II
3 Complex III
4 Complex IV
BIOXI14: RESPIRATION IN PLANTS

337548 The given diagram represents part of ETS. Which of the following is responsible for this reaction
supporting img

1 Complex II
2 Succinate dehydrogenase
3 Complex I
4 Both 1 and 2.
BIOXI14: RESPIRATION IN PLANTS

337544 \({{\rm{F}}_{\rm{0}}}\) is

1 Headpiece is a peripheral membrane protein complex
2 Tailpiece is a peripheral membrane protein complex
3 Headpiece is a central membrane protein complex
4 An integral membrane protein complex that forms the channel
BIOXI14: RESPIRATION IN PLANTS

337545 The chemiosmotic coupling hypothesis of oxidative phosphorylation proposes that adenosine triphosphate (ATP) is formed because

1 There is a change in the permeability of the inner mitochondrial membrane toward adenosine diphosphate (ADP)
2 A proton gradient forms across the inner membrane
3 High energy bonds are formed in mitochondrial proteins
4 ADP is pumped out of the matrix into the intermembrane space
BIOXI14: RESPIRATION IN PLANTS

337546 Oxidative phosphorylation is

1 Oxidation of phosphate group in ATP.
2 Formation of ATP by energy released from electrons removed during substrate oxidation.
3 Formation of ATP by transfer of phosphate group from a substrate to ADP.
4 Addition of phosphate group to ATP.
BIOXI14: RESPIRATION IN PLANTS

337547 In the given diagram, label ' \(A\) ' represents
supporting img

1 Complex I
2 Complex II
3 Complex III
4 Complex IV
BIOXI14: RESPIRATION IN PLANTS

337548 The given diagram represents part of ETS. Which of the following is responsible for this reaction
supporting img

1 Complex II
2 Succinate dehydrogenase
3 Complex I
4 Both 1 and 2.
BIOXI14: RESPIRATION IN PLANTS

337544 \({{\rm{F}}_{\rm{0}}}\) is

1 Headpiece is a peripheral membrane protein complex
2 Tailpiece is a peripheral membrane protein complex
3 Headpiece is a central membrane protein complex
4 An integral membrane protein complex that forms the channel
BIOXI14: RESPIRATION IN PLANTS

337545 The chemiosmotic coupling hypothesis of oxidative phosphorylation proposes that adenosine triphosphate (ATP) is formed because

1 There is a change in the permeability of the inner mitochondrial membrane toward adenosine diphosphate (ADP)
2 A proton gradient forms across the inner membrane
3 High energy bonds are formed in mitochondrial proteins
4 ADP is pumped out of the matrix into the intermembrane space
BIOXI14: RESPIRATION IN PLANTS

337546 Oxidative phosphorylation is

1 Oxidation of phosphate group in ATP.
2 Formation of ATP by energy released from electrons removed during substrate oxidation.
3 Formation of ATP by transfer of phosphate group from a substrate to ADP.
4 Addition of phosphate group to ATP.
BIOXI14: RESPIRATION IN PLANTS

337547 In the given diagram, label ' \(A\) ' represents
supporting img

1 Complex I
2 Complex II
3 Complex III
4 Complex IV
BIOXI14: RESPIRATION IN PLANTS

337548 The given diagram represents part of ETS. Which of the following is responsible for this reaction
supporting img

1 Complex II
2 Succinate dehydrogenase
3 Complex I
4 Both 1 and 2.
BIOXI14: RESPIRATION IN PLANTS

337544 \({{\rm{F}}_{\rm{0}}}\) is

1 Headpiece is a peripheral membrane protein complex
2 Tailpiece is a peripheral membrane protein complex
3 Headpiece is a central membrane protein complex
4 An integral membrane protein complex that forms the channel
BIOXI14: RESPIRATION IN PLANTS

337545 The chemiosmotic coupling hypothesis of oxidative phosphorylation proposes that adenosine triphosphate (ATP) is formed because

1 There is a change in the permeability of the inner mitochondrial membrane toward adenosine diphosphate (ADP)
2 A proton gradient forms across the inner membrane
3 High energy bonds are formed in mitochondrial proteins
4 ADP is pumped out of the matrix into the intermembrane space
BIOXI14: RESPIRATION IN PLANTS

337546 Oxidative phosphorylation is

1 Oxidation of phosphate group in ATP.
2 Formation of ATP by energy released from electrons removed during substrate oxidation.
3 Formation of ATP by transfer of phosphate group from a substrate to ADP.
4 Addition of phosphate group to ATP.
BIOXI14: RESPIRATION IN PLANTS

337547 In the given diagram, label ' \(A\) ' represents
supporting img

1 Complex I
2 Complex II
3 Complex III
4 Complex IV
BIOXI14: RESPIRATION IN PLANTS

337548 The given diagram represents part of ETS. Which of the following is responsible for this reaction
supporting img

1 Complex II
2 Succinate dehydrogenase
3 Complex I
4 Both 1 and 2.