Linked from

The 20 pages that link to Archimedes' principle, each with the reason it gives.

• BuoyancyRelated: It gives the standard rule for calculating buoyant force.

• Hydrostatic pressureRelated: The pressure difference between lower and upper surfaces produces buoyant force.

• DensityRelated: Buoyant force depends on the density difference between an object and its fluid.

• VolumeRelated: The displaced fluid links an immersed object's volume to measurable buoyant force.

• Specific gravityRelated: It links density comparisons to floating behavior and measurement methods.

• HydrostaticsRelated: It derives buoyancy from the pressure difference across an immersed object's surface.

• BallooningRelated: It quantifies the buoyant force that makes balloon flight possible.

• Marine ice-sheet instabilityRelated: Buoyancy helps determine where ice transitions from grounded to floating.

• Ship stabilityRelated: It links vessel displacement to the buoyant force underlying stability calculations.

• Thought experimentRelated: Archimedes' imagined crown test is a famous account of reasoning about a physical problem without a direct measurement.

• Lighter-than-air aircraftRelated: The buoyant force that supports the aircraft follows directly from this principle.

• AerostaticsRelated: It quantifies the force that supports a balloon in air.

• Volume fractionRelated: Displacement measurements can estimate the volume of a constituent or specimen.

• AerostatRelated: It quantifies the lift available to an aerostat in air.

• Pontoon bridgeRelated: Displaced water supplies the buoyant force supporting each pontoon and the bridge deck.

• Gram per cubic centimetreRelated: Density values help predict whether objects float or sink in fluids.

• Rubber duckRelated: It explains why a hollow duck can float despite being made of plastic.