A.   binding of specific solutes to receptors triggers vesicle formation

B.   saturated fatty acids, unsaturated fatty acid and cholesterol

C.   This model states that the membrane is a mosaic of protein molecules bobbing in a fluid bilayer of phospholipids

A.   also called cell drinking, molecules dissolved in droplets are taken up when extracellular fluid is "gulped" into tiny vesicles

B.   Proteins are bound to the surface of the membrane

C.   saturated fatty acids, unsaturated fatty acid and cholesterol

A.   Proteins are bound to the surface of the membrane

B.   Membranes have distinct inside and outside faces

C.   transport vesicles migrate to the membrane, fuse with it, and release their contents outside the cell

A.   Membranes have distinct inside and outside faces

B.   A coupled active transport by a membrane protein. It occurs when active transport of a solute indirectly drives transport of other substance

C.   This is the tendency for molecules to spread out evenly into the available spaces

A.   a transport protein that generates voltage across a membrane

B.   the diffusion of a substance across a biological membrane without the expenditure of energy

C.   This is the tendency for molecules to spread out evenly into the available space

A.   This is the ability of a surounding solution to cause a cell to gain or lose water

B.   the diffusion of a substance across a biological membrane without the expenditure of energy

C.   The voltage across a membrane

A.   the control of solute concentartion and water balance, is a necessary adaptation for life in such environments

B.   This is the ability of a surrounding solution to cause a cell to gain or lose water

C.   This transport requires energy, usually in the form of ATP hydrolysis, to move substance against their concentration gradients

A.   These ion channels open or close in response to a stimulus

B.   the control of solute concentrations and water balance, is a necessary adaptation for life in such environments

C.   the membrane pulss away form cell wall, causing the plant to wilt

A.   This is type of passive transport aided by chanel proteins and carrier proteins

B.   The voltage across a membrane

C.   the membrane pulls away from cell wall, causing the plant to wilt

A.   These ion channels open or close in response to a stimulus

B.   the membrane pulss away form cell wall, causing the plant to wilt

C.   This is type of passive transport aided by channel proteins and carrier proteins

A.   These ion channels open or close in response to a stimulus

B.   the control of solute concentartion and water balance, is a necessary adaptation for life in such environments

C.   This transport requires energy, usually in the form of ATP hydrolysis, to move substance against their concentration gradients

A.   The voltage across a membrane

B.   This transport requires energy, usually in the form of ATP hydrolysis, to move substance against their concentration gradients

C.   This is the ability of a surounding solution to cause a cell to gain or lose water

A.   the diffusion of a substance across a biological membrane without the expenditure of energy

B.   The voltage across a membrane

C.   a transport protein that generates voltage across a membrane

A.   This is the tendency for molecules to spread out evenly into the available spaces

B.   A coupled active transport by a membrane protein. It occurs when active transport of a solute indirectly drives transport of other substance

C.   a transport protein that generates voltage across a membrane

A.   transport vesicles migrate to the membrane, fuse with it, and release their contents outside the cell

B.   Membranes have distinct inside and outside faces

C.   A coupled active transport by a membrane protein. It occurs when active transport of a solute indirectly drives transport of other substances

A.   also called cell drinking, molecules dissolved in droplets are taken up when extracellular fluid is "gulped" into tiny vesicles

B.   Proteins are bound to the surface of the membrane

C.   transport vesicles migrate to the membrane, fuse with it, and release their contents outside the cell

A.   also called cell drinking, molecules dissolved in droplets are taken up when extracellular fluid is "gulped" into tiny vesicles

B.   saturated fatty acids, unsaturated fatty acid and cholesterol

C.   binding of specific solutes to receptors triggers vesicle formation

A.   This model states that the membrane is a mosaic of protein molecules bobbing in a fluid bilayer of phospholipids

B.   the diffusion of a substance across a biological membrane without the expenditure of energy

C.   binding of specific solutes to receptors triggers vesicle formation