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The 44 pages that link to Cosmic ray, each with the reason it gives.

• Relativistic jetRelated: Jet shocks and magnetic turbulence are candidate accelerators of the highest-energy cosmic rays.

• HadronRelated: Cosmic-ray collisions in the atmosphere generate extensive showers of hadrons.

• PositronRelated: Cosmic rays supplied the energetic particles from which Anderson identified positrons.

• Multi-messenger astronomyRelated: Their arrival directions and energies can connect particle acceleration to transient cosmic sources.

• IceCube Neutrino ObservatoryRelated: Their origins remain uncertain, and neutrinos can trace the same accelerators without magnetic deflection.

• Cloud chamberRelated: Cloud chambers captured tracks from cosmic rays and their atmospheric secondary particles.

• HeliosphereRelated: The heliosphere modulates how many galactic cosmic rays reach the inner Solar System.

• Carbon-14Related: They initiate atmospheric particle cascades that generate the neutrons needed to form carbon-14.

• Charged particleRelated: Most cosmic rays are charged, so magnetic fields alter their paths.

• Geomagnetic reversalRelated: A weaker geomagnetic field allows more charged cosmic rays to approach Earth.

• Galactic windRelated: Their pressure can help accelerate gas out of a galaxy.

• KaonRelated: Early kaon discoveries came from particle tracks in cosmic-ray experiments.

• Cassiopeia ARelated: Cassiopeia A’s shocks are studied as potential accelerators of cosmic-ray particles.

• Interstellar magnetic fieldRelated: Cosmic rays are guided by interstellar magnetic fields and can contribute pressure to the gas.

• Walter HeitlerRelated: Heitler investigated how these particles generate cascades of secondary particles in matter.

• Cosmogenic nuclideRelated: Primary and secondary cosmic rays supply the particles that generate cosmogenic nuclides.

• Interplanetary magnetic fieldRelated: The interplanetary field guides and scatters their paths through the heliosphere.

• Robert MillikanRelated: Millikan studied their origins and promoted the name “cosmic rays.”

• Tarantula NebulaRelated: The region's intense star formation and supernova activity make it a site for studying particle acceleration.

• Hannes AlfvénRelated: Alfvén’s early work on cosmic rays helped launch his career in theoretical physics.

• Aerobee rocketRelated: Aerobee flights measured cosmic rays above much of the atmospheric shielding.

• Relativistic mechanicsRelated: Many cosmic rays move at relativistic speeds and produce energetic atmospheric showers.

• Homi J. BhabhaRelated: Bhabha’s early fame came from theoretical work on cosmic-ray particle showers.

• C. T. R. WilsonRelated: Cloud chambers revealed the tracks of cosmic-ray particles entering the atmosphere.

• Poisson point processRelated: Arrival locations and times can be modeled as points when events are sparse and independent.

• Interplanetary mediumRelated: These particles travel through the medium and are deflected by its magnetic field.

• Willard LibbyRelated: Cosmic rays generate atmospheric neutrons that produce the carbon-14 central to Libby’s method.

• Black Knight satellite conspiracy theoryRelated: Some accounts fold unusual particle or signal reports into the satellite narrative without establishing a link.

• History of subatomic physicsRelated: Cosmic rays supplied energetic collisions before accelerators could reach comparable energies.

• Solar activity and climateRelated: The proposed cosmic-ray cloud pathway is distinct from the well-established irradiance pathway.