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The 38 pages that link to Osmotic pressure, each with the reason it gives.

• OsmoregulationRelated: It describes the force that water gradients impose on cells and tissues.

• OsmosisRelated: It quantifies the pressure needed to oppose osmosis between solutions.

• Water activityRelated: Dissolved solutes lower water availability through the same chemical-potential effects captured by water activity.

• PeptidoglycanRelated: The wall’s mesh prevents osmotic pressure from swelling and rupturing many bacterial cells.

• Bacterial cell wallRelated: Water influx creates the outward force that the cell wall helps resist.

• Reverse osmosisRelated: Feed pressure must exceed the osmotic-pressure difference to produce net water flow.

• Raoult's lawRelated: Its thermodynamic treatment connects with the same ideal-solution principles as Raoult's law.

• Freezing-point depressionRelated: It is another colligative property, arising from the same solvent chemical-potential change.

• AquaporinRelated: Osmotic pressure differences can drive water through aquaporin-containing membranes.

• Dissociation (chemistry)Related: Dissociation can increase the number of dissolved particles and raise osmotic pressure.

• Fungal cell wallRelated: The wall resists the outward force that would otherwise swell or rupture the cell.

• HydrogelRelated: Differences in ion concentration can drive water into or out of a hydrogel.

• NematocystRelated: Water influx contributes to the high pressure that drives thread eversion.

• MolalityRelated: Molality helps describe osmotic effects, especially when expressed as osmolality for biological fluids.

• Degree of polymerizationRelated: Polymer osmotic-pressure measurements can estimate number-average molar mass and chain length.

• OsmolalityRelated: It is a pressure effect associated with osmotically active particles.

• Polyethylene glycolRelated: Dissolved PEG can alter water movement and is used to impose osmotic conditions in experiments.

• MannitolRelated: Mannitol’s therapeutic action depends on the osmotic pressure it creates in blood.

• ProteoglycanRelated: Charged glycosaminoglycan chains draw in water, helping proteoglycan-rich tissues resist compression.

• Thermodynamic activityRelated: Solvent activity links mixture composition to the chemical-potential change driving osmosis.

• Bacterial cell envelopeRelated: The wall prevents the internal pressure created by water uptake from rupturing the cell.

• Jacobus Henricus van ’t HoffRelated: His equation linked dilute-solution osmotic pressure to concentration and temperature.

• Equilibrium thermodynamicsRelated: It illustrates how equilibrium thermodynamics relates chemical potential to a measurable pressure.

• Isotonic solutionRelated: Isotonic solutions have equal osmotic pressures across the specified membrane.

• Passive transportRelated: It quantifies the force associated with osmotic water movement across cell membranes.

• ProtoplastRelated: An osmotic medium helps prevent the exposed membrane from rupturing.

• Hypertonic solutionRelated: A solution is hypertonic when its effective osmotic pressure exceeds that of its comparator.

• François-Marie RaoultRelated: Nineteenth-century studies of solution properties connected vapor pressure with other measurable effects.

• SpheroplastRelated: Osmotic support limits water-driven swelling and rupture of the fragile cell.

• Gibbs–Donnan effectRelated: The extra particles associated with Donnan partitioning can increase osmotic pressure.

• Hypotonic (osmotic solution)Related: It quantifies the force associated with the concentration difference between solutions.