Linked from

The 62 pages that link to Ionizing radiation, each with the reason it gives.

• Radioactive decayNarrower topic: Many decay products are ionizing and can alter matter along their paths.

• Nuclear fissionNarrower topic: Fission products and neutron interactions produce radiation that requires shielding and careful handling.

• Radiation therapyNarrower topic: Its energy deposits initiate the cellular damage used in treatment.

• Radiation protectionNarrower topic: Protection principles address radiation capable of producing ionization in tissue.

• IonizationNarrower topic: It produces ionization in matter and is used in imaging, sterilization, and radiation therapy.

• RadioactivityNarrower topic: Radioactive emissions belong to this broader class of radiation.

• Nuclear falloutNarrower topic: Fallout harms tissue when its radioactive emissions deliver ionizing radiation.

• RadiographyNarrower topic: X-rays can ionize tissue, linking image formation to radiation safety.

• Food irradiationNarrower topic: Food irradiation uses this high-energy radiation to damage biological targets.

• Radiation shieldingNarrower topic: Shielding is designed around the ionizing particles and photons that can damage tissue.

• RadonNarrower topic: Radon's emitted particles are a source of ionizing radiation.

• Radiation doseNarrower topic: Its energy transfer produces the deposits that dose quantifies.

• Absorbed doseNarrower topic: It is the radiation whose deposited energy absorbed dose quantifies.

• Nuclear safetyNarrower topic: Its biological effects define the exposure hazards that radiation protection addresses.

• RadiumNarrower topic: Radium’s emissions ionize nearby matter and can damage living tissue.

• Linear energy transferNarrower topic: LET characterizes energy transfer by charged particles within this broader radiation category.

• BrachytherapyNarrower topic: Brachytherapy sources use ionizing radiation to damage tumor-cell DNA.

• Hans GeigerNarrower topic: Detecting this radiation was the central problem behind Geiger’s instrument designs.

• Ionization chamberNarrower topic: It supplies the energy that creates charge in the chamber’s gas.

• Radiation-induced cancerNarrower topic: It is the class of radiation capable of initiating the DNA damage involved.

• Chernobyl exclusion zoneNarrower topic: It is the physical hazard that exposure controls in the zone seek to limit.

• Geiger counterNarrower topic: The counter responds to ionization caused by this broad class of radiation.

• RadiotoxicityNarrower topic: It is the physical agent that produces radiotoxic effects.

• Beta particleNarrower topic: Beta particles ionize matter as they travel through it.

• Medical physicsNarrower topic: It underlies X-ray imaging, nuclear medicine, and radiation therapy.

• RadionuclideNarrower topic: Radionuclides are one source of ionizing radiation, but the term also covers nonradioactive sources.

• Strontium-90Narrower topic: The beta particles from its decay are a form of ionizing radiation.

• SievertNarrower topic: Only ionizing radiation contributes to the dose quantities expressed in sieverts.

• X-ray detectorNarrower topic: X-rays produce detectable charge by ionizing atoms in sensing materials.

• Neutron radiationNarrower topic: Neutron radiation belongs to this broad category, though it ionizes matter indirectly.

• RadiobiologyNarrower topic: Its ionizations initiate many of the molecular changes studied in radiobiology.

• Nuclear engineeringNarrower topic: Its interactions with matter underpin both radiation applications and protection requirements.

• ScintillatorNarrower topic: Scintillators respond to the energy deposited by this broad class of radiation.

• Radioactive sourceNarrower topic: A radioactive source emits ionizing radiation, whose interactions produce its effects.

• Victor HessNarrower topic: The radiation Hess tracked was identified through its ability to ionize air.