The mitochondria (pyruvate oxidation, Krebs cycle, electron transport chain) and the cytosol (glycolysis).
In eukaryotic cells respiration occurs in the mitochondria. The reactions of the Krebs cycle occur within the liquid matrix of a mitochondrion. The carrier molecules of the electron transport chain lie on the inside of the inner membrane of a mitochondrion. Cristae increase the surface area of this membrane, increasing the rate of oxidation-reduction reactions. Hope this answers your question.
The rate of aerobic respiration in the mitochondria is dependent on the surface area of the cristae because energy potential is built up through the pumping of hydrogen ions across the membrane. With more membrane surface area, there is more energy production and storage capacity so the rate of aerobic respiration may increase.
The inner membrane is highly folded to provide a large surface area for aerobic respiration to take place, The inner membrane is fooled inwards to form cristae The fluid inside the inner membrane is the ,atria Also it a double membrane bound organelle
The inner folds of a mitochondria are called the cristae. The cristae is folded in order to maximize the space within the mitochondria in order to increase surface area. By doing so, aerobic respiration requires less ATP to function, and thus, makes the process more efficient
A mitochondria is an organelle found in eukaryotic cells. It is shaped similar to a curved bean. The inside membrane is extremly folded. These folds are called cristea and give the mitochonria a large surface area allowing for efficient cellular respiration to occur. The mitochonria's purpose is to carry out cellular respiration. Cellular respiration uses glucose made during photosynthesis to create glycogen. The glycogen will release energy when it is broken down. The energy is in the form of ATP.
Yes, aerobic respiration occurs in the cristae of mitochondria. The cristae are the inner membrane folds that increase the surface area for the electron transport chain, which is a key component of aerobic respiration. During this process, electrons from fuel molecules are transferred through a series of proteins, ultimately leading to the production of ATP and water.
In eukaryotic cells respiration occurs in the mitochondria. The reactions of the Krebs cycle occur within the liquid matrix of a mitochondrion. The carrier molecules of the electron transport chain lie on the inside of the inner membrane of a mitochondrion. Cristae increase the surface area of this membrane, increasing the rate of oxidation-reduction reactions. Hope this answers your question.
The rate of aerobic respiration in the mitochondria is dependent on the surface area of the cristae because energy potential is built up through the pumping of hydrogen ions across the membrane. With more membrane surface area, there is more energy production and storage capacity so the rate of aerobic respiration may increase.
Aerobic respiration in prokaryotic cells occurs in the cell membrane or in specialized structures called mesosomes, which are invaginations of the cell membrane. These structures provide a large surface area for the enzymes involved in aerobic respiration to carry out the process efficiently.
Mitochondria are composed of two membranes. the inner membrane forms many folds called cristae, which provide a large surface area where chemical reactions take place. the number of mitochondria present in different cells is related to the rate of energy usage by the cell.
The inner membrane is highly folded to provide a large surface area for aerobic respiration to take place, The inner membrane is fooled inwards to form cristae The fluid inside the inner membrane is the ,atria Also it a double membrane bound organelle
The cristae are folds in the inner membrane of mitochondria where most ATP synthesis occurs through the process of oxidative phosphorylation. This is where enzymes and molecules involved in the electron transport chain are located, allowing for efficient production of ATP.
The inner folds of a mitochondria are called the cristae. The cristae is folded in order to maximize the space within the mitochondria in order to increase surface area. By doing so, aerobic respiration requires less ATP to function, and thus, makes the process more efficient
The function of the mitochondria in a plant cell is to support the function of the cell and the structure. The mitochondria usually has a membrane which has folds that are stretched to provide a wider surface area for cellular activities.
Roots take in oxygen primarily through tiny pores called root hairs, which increase the surface area for absorption. Oxygen in the soil diffuses into these root hairs and is then transported through the root system to the plant. This process is crucial for respiration, allowing plants to convert stored energy into usable forms. Additionally, aerobic respiration occurs in root cells, requiring oxygen to break down sugars for energy.
The inner membrane of mitochondria contains folds called cristae which increase the surface area for cellular respiration. The cristae provide more space for the electron transport chain and ATP synthesis, allowing for efficient energy production. This increased surface area enhances the mitochondria's ability to generate ATP through aerobic metabolism.
A mitochondria is an organelle found in eukaryotic cells. It is shaped similar to a curved bean. The inside membrane is extremly folded. These folds are called cristea and give the mitochonria a large surface area allowing for efficient cellular respiration to occur. The mitochonria's purpose is to carry out cellular respiration. Cellular respiration uses glucose made during photosynthesis to create glycogen. The glycogen will release energy when it is broken down. The energy is in the form of ATP.