The surface area of mitochondria or chloroplast affect its energy output because larger surfaces-to-volume ratio imply more loss of energy as opposed to smaller surface-to-volume ratios.
It is similar by the more surface area the more energy it can produce. The mitochondria is in a coil shape allowing it to have more surface area. These folds are called cristae, which contains proteins t hat carry out energy-harvestng chemical reactions.Read more: How_is_the_structure_of_the_mitochondria_related_to_its_function
It is similar by the more surface area the more energy it can produce. The mitochondria is in a coil shape allowing it to have more surface area. These folds are called cristae, which contains proteins t hat carry out energy-harvestng chemical reactions.Read more: How_is_the_structure_of_the_mitochondria_related_to_its_function
It is similar by the more surface area the more energy it can produce. The mitochondria is in a coil shape allowing it to have more surface area. These folds are called cristae, which contains proteins t hat carry out energy-harvestng chemical reactions.Read more: How_is_the_structure_of_the_mitochondria_related_to_its_function
The surface of mitochondria and chloroplasts is highly folded or structured, which increases the surface area available for biochemical reactions. In mitochondria, the inner membrane's folds, known as cristae, enhance the space for the electron transport chain and ATP synthesis, leading to greater energy output through oxidative phosphorylation. Similarly, in chloroplasts, the thylakoid membranes increase surface area for light absorption and facilitate the light-dependent reactions of photosynthesis. This structural adaptation allows for more efficient energy conversion and production in both organelles.
The mitochondria is like the "powerhouse" of the cell, producing energy in the form of ATP for the cell's functions. In the human body, the brain can be seen as a similar "powerhouse" as it controls and coordinates many functions of the body, much like how the mitochondria is essential for cellular energy production.
It is similar by the more surface area the more energy it can produce. The mitochondria is in a coil shape allowing it to have more surface area. These folds are called cristae, which contains proteins t hat carry out energy-harvestng chemical reactions.Read more: How_is_the_structure_of_the_mitochondria_related_to_its_function
It is similar by the more surface area the more energy it can produce. The mitochondria is in a coil shape allowing it to have more surface area. These folds are called cristae, which contains proteins t hat carry out energy-harvestng chemical reactions.Read more: How_is_the_structure_of_the_mitochondria_related_to_its_function
It is similar by the more surface area the more energy it can produce. The mitochondria is in a coil shape allowing it to have more surface area. These folds are called cristae, which contains proteins t hat carry out energy-harvestng chemical reactions.Read more: How_is_the_structure_of_the_mitochondria_related_to_its_function
The folds of the mitochondria, called cristae, increase the surface area available for chemical reactions involved in energy production (ATP synthesis). This structural feature allows for more efficient generation of ATP, which is the main energy source for the cell.
The surface of mitochondria and chloroplasts is highly folded or structured, which increases the surface area available for biochemical reactions. In mitochondria, the inner membrane's folds, known as cristae, enhance the space for the electron transport chain and ATP synthesis, leading to greater energy output through oxidative phosphorylation. Similarly, in chloroplasts, the thylakoid membranes increase surface area for light absorption and facilitate the light-dependent reactions of photosynthesis. This structural adaptation allows for more efficient energy conversion and production in both organelles.
Mitochondria converts energy
The transfer of energy inside the Earth effects its surface by warming it.
a large surface area
The mitochondria is like the "powerhouse" of the cell, producing energy in the form of ATP for the cell's functions. In the human body, the brain can be seen as a similar "powerhouse" as it controls and coordinates many functions of the body, much like how the mitochondria is essential for cellular energy production.
Mitochondria and Chloroplasts are involved in energy conversion.
Mitochondria release energy of glucose. This energy is stored in ATP
A mitochondria is the organism's so called energy maker. So the mitochondria supplies energy for the organism