using active transport
Cells that require high amounts of energy production, such as muscle cells, will have more mitochondria to meet the increased energy demands. For example, heart muscle cells have a high concentration of mitochondria to support the continuous pumping of the heart.
Cells with a high energy demand, such as muscle cells and liver cells, typically have a high number of mitochondria. Mitochondria produce energy in the form of ATP through cellular respiration, so cells that require a lot of energy to function efficiently will have more mitochondria.
If the mitochondria in kidney cells were to decrease in function, it would likely lead to reduced ATP production, impairing the cells' ability to perform essential functions such as filtration and reabsorption. This could result in decreased kidney efficiency, leading to fluid and electrolyte imbalances, and potentially causing renal dysfunction or failure. Additionally, the accumulation of reactive oxygen species due to impaired mitochondrial function could further damage kidney tissue.
The proximal tubule of the nephron is primarily lined with simple cuboidal epithelium. This type of epithelium features microvilli on its apical surface, which increases the surface area for reabsorption of water, ions, and nutrients. The cells also contain numerous mitochondria, reflecting their high metabolic activity required for active transport processes.
Absolutely. The mitochondria are the basic energy creating organelles for the cell. Without them, the cell would die. A plant cell could probably survive off its chloroplasts, but its definently not a given.
Mitochondria are abundant in kidney tubule cells due to their high energy demands for active transport and metabolic processes involved in regulating fluid and electrolyte balance. Mitochondria generate ATP through aerobic respiration to fuel these energy-demanding cellular functions in kidney tubule cells.
Cells that require high amounts of energy production, such as muscle cells, will have more mitochondria to meet the increased energy demands. For example, heart muscle cells have a high concentration of mitochondria to support the continuous pumping of the heart.
Cells with a high energy demand, such as muscle cells and liver cells, typically have a high number of mitochondria. Mitochondria produce energy in the form of ATP through cellular respiration, so cells that require a lot of energy to function efficiently will have more mitochondria.
If the mitochondria in kidney cells were to decrease in function, it would likely lead to reduced ATP production, impairing the cells' ability to perform essential functions such as filtration and reabsorption. This could result in decreased kidney efficiency, leading to fluid and electrolyte imbalances, and potentially causing renal dysfunction or failure. Additionally, the accumulation of reactive oxygen species due to impaired mitochondrial function could further damage kidney tissue.
The proximal tubule of the nephron is primarily lined with simple cuboidal epithelium. This type of epithelium features microvilli on its apical surface, which increases the surface area for reabsorption of water, ions, and nutrients. The cells also contain numerous mitochondria, reflecting their high metabolic activity required for active transport processes.
If a cell is very active, it would need to have a large number of Mitochondria.
Absolutely. The mitochondria are the basic energy creating organelles for the cell. Without them, the cell would die. A plant cell could probably survive off its chloroplasts, but its definently not a given.
Yes, mitochondria exist in animal cells.
Eukariyotic cells have Mitochondria.But extreamely specialized cells lack Mitochondria.
Mitochondria and chloroplasts are involved in energy tranformation. animal cells: mitochondria plant cells: mitochondria and chloroplasts
Cells that require a lot of energy to carry out their functions, such as muscle cells and nerve cells, tend to have a high concentration of mitochondria. Muscle cells, for example, require a lot of energy to contract and relax, so they have a high density of mitochondria to produce the ATP (adenosine triphosphate) required for energy. Similarly, nerve cells require a lot of energy to transmit signals along their length, so they also have a high concentration of mitochondria. Other cells that have a high density of mitochondria include liver cells, which have a lot of metabolic processes, and kidney cells, which require a lot of energy to carry out their filtration function.
Mitochondria is suspected to have been a unicellular organism that invaded cells. All cells have DNA. The mitochondria then stayed in the cells which explains why there are mitochondria in cells now.