Linked from

The 201 pages that link to General relativity, each with the reason it gives.

• Special relativityNarrower topic: It extends relativistic spacetime to accelerated frames and gravitation.

• Dark matterNarrower topic: It predicts how unseen mass bends light and affects cosmic motion.

• Neutron starNarrower topic: Strong gravity makes relativistic structure equations essential for modeling neutron stars.

• GeodesicNarrower topic: Freely falling bodies follow spacetime geodesics in general relativity.

• Dark energyNarrower topic: Dark energy’s gravitational influence is modeled within this theory.

• Quantum gravityNarrower topic: Its classical description supplies the gravitational dynamics quantum theories must recover.

• Gravitational waveNarrower topic: Its field equations predict gravitational waves as changing spacetime curvature propagates.

• Gravitational lensingNarrower topic: Its curved-spacetime description predicts the bending of light near mass.

• Cosmic inflationNarrower topic: Inflationary expansion is modeled using relativistic gravity and cosmic spacetime.

• Einstein field equationsNarrower topic: The field equations are its central dynamical law.

• Equivalence principleNarrower topic: The equivalence principle helped Einstein build this geometric theory of gravity.

• CosmologyNarrower topic: It supplies the gravitational framework used to model cosmic evolution.

• Friedmann equationsNarrower topic: The Friedmann equations are a symmetry-reduced form of its field equations.

• Event horizonNarrower topic: Event horizons arise from the causal structure of relativistic spacetime.

• Event Horizon TelescopeNarrower topic: It predicts how black holes bend light and shape the observed shadow.

• Hubble's lawNarrower topic: Relativistic cosmology supplied a theoretical framework for interpreting the observed expansion.

• Georges LemaîtreNarrower topic: Lemaître used its field equations to derive a universe that expands.

• Proper timeNarrower topic: Its curved spacetime metric extends proper-time calculations to gravity.

• Weak gravitational lensingNarrower topic: The curvature of spacetime underlies the deflection measured in lensing.

• Gravitational redshiftNarrower topic: Gravitational redshift is a prediction of its account of gravity and time.

• Gravitational forceNarrower topic: It replaces gravitational force with curved spacetime as the fundamental description.

• Pulsar timingNarrower topic: Binary-pulsar timing tests its predictions in strong gravitational fields.

• Lunar laser rangingNarrower topic: The measured lunar orbit provides tests of relativistic predictions across decades.

• Mercury's perihelion precessionNarrower topic: Mercury’s perihelion advance became an early quantitative success of this theory.

• InertiaNarrower topic: It extends the discussion of inertial motion to curved spacetime and gravity.

• Loop quantum gravityNarrower topic: Loop quantum gravity seeks to quantize general relativity without treating spacetime as a fixed background.

• Neutron star mergerNarrower topic: Relativistic gravity determines the binary’s orbit and the waves it emits.

• Friedmann–Lemaître–Robertson–Walker metricNarrower topic: The FLRW geometry is used with Einstein’s equations to model cosmic evolution.

• Hermann MinkowskiNarrower topic: It extends the geometric conception of spacetime beyond Minkowski’s flat model.

• Stephen HawkingNarrower topic: Hawking applied its equations to black holes and the universe’s large-scale history.

• Alexander FriedmannNarrower topic: Friedmann’s equations are solutions to this theory’s gravitational field equations.

• Cosmic censorship hypothesisNarrower topic: The conjecture is a proposed global property of solutions to Einstein’s theory.

• Age of the universeNarrower topic: It supplies the gravitational framework for models of cosmic expansion.

• Hubble parameterNarrower topic: The cosmological field equations of general relativity govern expansion in standard models.

• Accelerating expansion of the universeNarrower topic: The standard account derives cosmic expansion from this theory’s gravitational dynamics.

• Hubble flowNarrower topic: Its cosmological solutions provide the framework in which expanding-space flow is modeled.

• Frame-draggingNarrower topic: Frame-dragging is a prediction of general relativity, absent from Newtonian gravity.

• Kip ThorneNarrower topic: It provides the framework underlying Thorne’s research on compact objects and gravitational waves.

• Mach's principleNarrower topic: Mach's principle became a proposed criterion for evaluating how Machian general relativity should be.

• PrecessionNarrower topic: It predicts additional precession in systems where Newtonian gravity is insufficient.

• Joseph WeberNarrower topic: Einstein’s theory predicted the waves Weber sought to observe.

• Modified gravityNarrower topic: It is the baseline theory that modified-gravity proposals extend or replace.

• John Archibald WheelerNarrower topic: Wheeler became a leading interpreter and teacher of this theory.

• Kaluza–Klein theoryNarrower topic: Kaluza extended its geometric framework by adding another spatial dimension.

• Quantum field theory in curved spacetimeNarrower topic: Its spacetime solutions provide the backgrounds on which quantum fields are studied.

• Shapiro time delayNarrower topic: The curved spacetime of general relativity makes signals take longer paths in time near mass.

• Tolman–Oppenheimer–Volkoff limitNarrower topic: Its relativistic treatment of gravity changes the stellar balance and maximum mass.

• Flatness problemNarrower topic: Cosmological curvature and expansion follow from applying this theory to the universe.

• Marcel GrossmannNarrower topic: Grossmann’s mathematical assistance contributed to the theory’s formulation.

• Abell 1689Narrower topic: The cluster’s deflection of light is a large-scale consequence of curved spacetime.