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The 15 pages that link to Gravitational time dilation, each with the reason it gives.

• General relativityRelated: The theory predicts measurable clock-rate differences, including corrections required by GPS.

• Black holeRelated: Strong gravity changes how clocks near a black hole compare with distant clocks.

• Equivalence principleRelated: The elevator argument predicts that acceleration changes clock rates, linking gravity to time.

• Event horizonRelated: Signals from a falling object become increasingly delayed and redshifted for distant observers.

• SpacetimeRelated: It shows that spacetime's temporal geometry varies with gravity.

• Proper timeRelated: Proper time quantifies the readings of clocks at distinct positions in a gravitational field.

• Gravitational redshiftRelated: Different clock rates explain why light emitted and received at different heights has different frequencies.

• Gravitational forceRelated: Strong gravity changes clock rates, a measurable consequence relevant to satellite navigation.

• Schwarzschild metricRelated: The metric predicts that stationary clocks nearer the mass tick more slowly.

• Schwarzschild radiusRelated: The Schwarzschild geometry predicts increasingly strong time dilation near the horizon.

• Optical atomic clockRelated: Optical-clock comparisons can measure this effect across small height differences.

• WorldlineRelated: Comparing worldlines through curved spacetime reveals differing clock rates.

• Twin paradoxCompared with: It can also produce unequal aging, but the classic twin paradox requires no gravitational explanation.

• Shapiro time delayRelated: It helps distinguish local clock-rate effects from the total propagation delay measured between separated clocks.

• Curved spacetimeRelated: It is a measurable consequence of spacetime geometry near massive bodies.