The protein you are referring to is likely a transporter protein, which is responsible for facilitating the transport of specific molecules across the cell membrane. These transporter proteins bind to their target molecules on one side of the membrane and undergo a conformational change to transport the molecules to the other side. Examples include glucose transporters and ion channels.
Glucose is a substance that enters cells by attaching to passive-transport protein carriers known as glucose transporters. These transporters facilitate the movement of glucose across the cell membrane down its concentration gradient.
The cell solves this problem by using transport proteins called glucose transporters. These transporters serve as gateways in the cell membrane, allowing glucose molecules to pass through into the cell. This process is facilitated by protein channels that specifically recognize and transport glucose molecules.
Glucose hitches a ride with sodium through a symporter protein on the cell membrane. This process is known as secondary active transport, where the energy stored in the sodium gradient is used to transport glucose into the cell against its concentration gradient.
Cells use transport proteins, such as glucose transporters, to facilitate the movement of glucose molecules across the cell membrane. These transporters act as channels or carriers that allow glucose to pass through the membrane, overcoming the barrier posed by its size.
The protein you are referring to is likely a transporter protein, which is responsible for facilitating the transport of specific molecules across the cell membrane. These transporter proteins bind to their target molecules on one side of the membrane and undergo a conformational change to transport the molecules to the other side. Examples include glucose transporters and ion channels.
The glucose transporter is a membrane bound protein that binds to glucose and mediates it's transport into or out of the cell.
Facilitated diffusion is the transport process used by the cell membrane to speed up the intake of glucose. This process involves the use of protein channels or carriers to help glucose molecules pass through the membrane.
There are glucose transport proteins. Since there are fewer glucose particles in the cell (when compared to the fluid outside of cells), it is passive transport, which occurs naturally. The transport protein is necessary for the glucose to pass through the cell membrane.
http://wiki.answers.com/Q/What_membrane_components_is_involved_in_glucose_transport"
Glucose is a substance that enters cells by attaching to passive-transport protein carriers known as glucose transporters. These transporters facilitate the movement of glucose across the cell membrane down its concentration gradient.
Permease is a protein that facilitates the movement of molecules across a cell membrane.
The cell solves this problem by using transport proteins called glucose transporters. These transporters serve as gateways in the cell membrane, allowing glucose molecules to pass through into the cell. This process is facilitated by protein channels that specifically recognize and transport glucose molecules.
Glucose hitches a ride with sodium through a symporter protein on the cell membrane. This process is known as secondary active transport, where the energy stored in the sodium gradient is used to transport glucose into the cell against its concentration gradient.
Glucose molecules are moved into a cell via a transport protein called a glucose transporter. This process is facilitated diffusion, a type of passive transport that does not require energy. Glucose transporters help move glucose across the cell membrane down its concentration gradient.
The cell uses energy in the form of ATP to actively transport glucose across the cell membrane against its concentration gradient. This process is called active transport and involves specific transport proteins that facilitate the movement of glucose molecules. This allows the cell to control the uptake of glucose and maintain appropriate levels inside the cell.
yes they can