Particle radiations: alpha particles, beta particles, positrons, neutrons, protons, muons, neutrinos, etc.
Radiation refers to energy emitted in the form of waves or particles from a source, such as electromagnetic radiation or particle radiation. It does not require other particles because radiation is capable of propagating through a vacuum, unlike other forms of energy transfer that rely on a medium for transmission.
Yes, alpha particles are a form of particulate radiation. They are made up of two protons and two neutrons and have a relatively large mass compared to other types of radiation such as beta and gamma rays.
Can be alpha, beta particles in radioactive decay, or neutrons in fission. There is also gamma ray energy which is part of the EM spectrum I believe the answer your looking for is Radiation
Cosmic rays are not part of the EM spectrum -- they are high energy charged particles.
No, radiation can exist as electromagnetic waves (such as gamma rays or X-rays) which do not require particles to propagate. However, radioactive materials can emit particles such as alpha or beta particles along with electromagnetic radiation.
No, radiation is not a measure of the average kinetic energy of particles in an object. Radiation refers to the emission of energy as electromagnetic waves or particles from a source. The energy of radiation can vary depending on the type and source, and it is not directly related to the average kinetic energy of particles in an object.
yes
Electrons are the lighter particles of an atom. If you are referring to the phenomena of light in electromagnetic radiation the particles are called photons. They are not part of an atom as such but can be emitted or absorbed by atoms under certain circumstances.
Belts of charged particles and high radiation are known as the Van Allen radiation belts. These belts are located around Earth and consist primarily of electrons and protons trapped by Earth's magnetic field. They play a crucial role in protecting the planet from solar and cosmic radiation, but can also pose risks to satellites and astronauts.
Thomson scattering helps us understand how electromagnetic radiation interacts with charged particles by showing how the radiation is scattered when it encounters these particles. This scattering process provides valuable information about the properties of the particles and the nature of the interaction between them and the radiation.
Heat doesn't pass through particles. On an atomic or sub-atomic level, heat is the speed with which the particles are either vibrating or moving. Some kinds of radiation are related to the temperature of the particles that emit the radiation, other kinds are not.
The sun emits energy in the form of radiation (light & atomic particles). This energy is crucial to life on our planet.