The cell membrane of a tube can maintain a stable environment through selective permeability, allowing certain substances to enter or exit while blocking others. For example, it can regulate the concentration of ions and nutrients by using protein channels and transporters, ensuring that essential molecules like glucose enter the cell while preventing harmful substances from passing through. This selective transport helps maintain homeostasis, keeping internal conditions stable despite external changes.
It prevents minerals in the water from flowing into the cell
It prevents minerals in the water from flowing into the cell.
homeostasis
Some examples of how the cell membrane of a tube worm maintains a stable environments are that: - It prevents minerals in the water from flowing into the cell. - It prevents salt from flowing in.
The cell would be unable to maintain a stable internal environment.
It prevents minerals in the water from flowing into the cell
It prevents minerals in the water from flowing into the cell.
It prevents minerals in the water from flowing into the cell
It prevents minerals in the water from flowing into the cell
It prevents minerals in the water from flowing into the cell
It prevents minerals in the water from flowing into the cell
homeostasis
Some examples of how the cell membrane of a tube worm maintains a stable environments are that: - It prevents minerals in the water from flowing into the cell. - It prevents salt from flowing in.
Some examples of how the cell membrane of a tube worm maintains a stable environments are that: - It prevents minerals in the water from flowing into the cell. - It prevents salt from flowing in.
Some examples of how the cell membrane of a tube worm maintains a stable environments are that: - It prevents minerals in the water from flowing into the cell. - It prevents salt from flowing in.
to maintain a stable environment
to maintain a stable environment