Equilibrium was not reached with 10 mM glucose and 100 membrane carriers likely due to saturation of the carriers. When the concentration of glucose exceeds the transport capacity of the carriers, not all glucose molecules can be transported across the membrane simultaneously. Additionally, if the carriers have a limited turnover rate, the influx of glucose may outpace the rate at which it can be transported, preventing equilibrium from being achieved.
Yes, passive transport can reach equilibrium. In passive transport, molecules move across a membrane without the need for energy input. Once the concentration of molecules is equal on both sides of the membrane, equilibrium is reached and there is no further net movement of molecules.
If sucrose diffuses out of the membrane, it could disrupt the concentration gradient, potentially leading to water moving in the opposite direction to compensate for the change in solute concentration. However, equilibrium between water and sucrose would not be reached if the sucrose continues to diffuse out. Equilibrium occurs when the concentrations of solute and solvent are balanced on both sides of the membrane, which may not happen if sucrose is consistently leaving the system. Therefore, the dynamic balance would be affected, preventing a stable equilibrium.
Yes, increasing membrane permeability can affect the time it takes for the osmometer to reach equilibrium. Higher permeability allows for faster movement of solvent and solutes across the membrane, which can result in a quicker establishment of equilibrium between the two solutions.
If the concentration of glucose is higher inside the cell than outside, glucose will diffuse out of the cell to achieve equilibrium. This process occurs through passive transport, where molecules move from an area of higher concentration to an area of lower concentration. As a result, the concentration of glucose inside the cell will decrease while it increases outside until equilibrium is reached.
no it does not make it greater nor fewer inside the cell membrane it's because difussion keeps on going till equilibrium happens. moreover the process difussion allows solutes to be transferred from the more concentration to the less concentration like what happens in glucose between a cell and blood. :)
When the number of molecules crossing the membrane is the same in both directions, equilibrium is reached. This means that a state of balance has been achieved, where there is no net movement of molecules across the membrane.
Equilibrium in diffusion and osmosis is reached when there is a balanced distribution of particles or solutes across a membrane, resulting in no net movement of particles. In diffusion, equilibrium is reached when there is an equal concentration of particles on both sides of the membrane. In osmosis, equilibrium is reached when the water concentration is the same on both sides of the membrane.
The equilibrium of solute across a membrane is reached when the concentration of the solute is the same on both sides of the membrane. This means that the movement of the solute molecules is balanced, with an equal number of molecules moving in and out of the membrane. At equilibrium, there is no net movement of solute across the membrane.
Yes, once equilibrium is reached, the number of molecules moving in either direction across a semipermeable membrane will be roughly equal. This is because at equilibrium, the concentration of molecules is the same on both sides of the membrane, resulting in an equal likelihood of molecules moving in either direction to maintain balance.
Osmosis will continue until equilibrium is reached, meaning that there is an equal concentration of solute on both sides of the semi-permeable membrane. Once equilibrium is achieved, osmosis will stop as there will be no net movement of water across the membrane.
Yes, passive transport can reach equilibrium. In passive transport, molecules move across a membrane without the need for energy input. Once the concentration of molecules is equal on both sides of the membrane, equilibrium is reached and there is no further net movement of molecules.
If sucrose diffuses out of the membrane, it could disrupt the concentration gradient, potentially leading to water moving in the opposite direction to compensate for the change in solute concentration. However, equilibrium between water and sucrose would not be reached if the sucrose continues to diffuse out. Equilibrium occurs when the concentrations of solute and solvent are balanced on both sides of the membrane, which may not happen if sucrose is consistently leaving the system. Therefore, the dynamic balance would be affected, preventing a stable equilibrium.
False. There will still be movement of water molecules across the membrane, but there will be no net movement. This means that the number of molecules coming into the cell will equal that going out, and equilibrium will therefore be maintained.
An isotonic solution is one where osmotic pressures are equal -one common application is in microbiology when the concentration of a certain chemical is the same inside the cell as outside the cell, meaning an osmotic equilibrium has been reached across that cell membrane.
Yes, increasing membrane permeability can affect the time it takes for the osmometer to reach equilibrium. Higher permeability allows for faster movement of solvent and solutes across the membrane, which can result in a quicker establishment of equilibrium between the two solutions.
glucose molecules will diffuse out of the cell. apex
Osmosis involves the movement of water molecules across a semi-permeable membrane from an area of higher concentration to an area of lower concentration. Equilibrium is reached when the concentration of water is the same on both sides of the membrane.