Charged particles will be deflected by an electric field. The movement of any charged particle through an electric field will cause that charged particle to be attracted by one pole of the field and repelled by the other. That leaves uncharged particulate radiation, like a neutron, and electromagnetic radiation that will not be deflected by an electric field. The electromagnetic radiation will include X-rays and gamma rays.
Alpha particles are helium nuclei. These two protons give the alpha particle a positive charge and it will be affected by magnet. Likewise, beta particles are free electrons and they carry negative charge, like all electrons. The correct answer is gamma radiation. This is just a photon of extremely high energy; it will not be affected by magnet.
All electromgnetic radiation is not influenced by a magnetic field.
The alpha and beta radiation that are products of radioactive decay
are charged particles, so they're deflected by a magnetic field.
which radioactive emission may require thick radiation shielding
Electrically neutral particles such as neutrons or neutrinos are not affected by magnetic fields.
The type of radiation that is not released by radioactive decay is called X radiation. However, X rays can be coupled with the emission of other types of radiation during radioactive decay.
The radioactive emission that is not a a particle is a gamma ray.
Examples: neutrons, neutrinos, gamma and other possible particles without electrical charge.
its gamma rays
a photon
Part of the electromagnetic spectrum can be detected by eye, and we call that bit "light". The thing about electromagnetic radiation is that a varying magnetic field causes a (varying) electric field (that's how power stations make electric current) and a varying electric field causes a (varying) magnetic field. So electromagnetic radiation is what you get when a varying electric field creates a varying magnetic field which in turn contributes the varying electric field. The whole thing then appears as bundled varying electric and magnetic field wave system which propagates at the velocity of light, That is why it is called electromagnetic. There are no magnetic poles or electric charges in it, and it can travel through a vacuum.
any type of seed get affected but, it depends by the thickness of the seed coat. if it is to thick it will have no effect at all. if it is too thin the seed will burn up and die. if it is normal i will have some changes but the seed will not die.
Beta radiation
Gamma radiation is a type of nuclear radiation made of high energy waves.
EM radiation is short for electromagnetic radiation. It is a wave in the electric and magnetic fields.EM radiation is short for electromagnetic radiation. It is a wave in the electric and magnetic fields.EM radiation is short for electromagnetic radiation. It is a wave in the electric and magnetic fields.EM radiation is short for electromagnetic radiation. It is a wave in the electric and magnetic fields.
EM radiation is short for electromagnetic radiation. It is a wave in the electric and magnetic fields.EM radiation is short for electromagnetic radiation. It is a wave in the electric and magnetic fields.EM radiation is short for electromagnetic radiation. It is a wave in the electric and magnetic fields.EM radiation is short for electromagnetic radiation. It is a wave in the electric and magnetic fields.
Electromagnetic radiation a kind of radiation that includes visible light, radio waves, gamma rays, and X-rays. The electric and magnetic fields vary simultaneously in this type of radiation.
Alpha (and beta) radiation is "particle radiation" Gamma is electro-magnetic radiation.
Radiation!!
Radiation!
Since light has these electrical and magnetic fields, it is a type of electromagnetic wave.
It is gamma radiation.
The difference is in the type of radiation used to form the image. A Computed Axial Tomography (CAT) scan can use any type of radiation to create the image, the specific type is not specified in the name, but most often uses X-rays; but a Positron Emission Tomography (PET) scan specifically uses positrons as the radiation form. A third type, Magnetic Resonance Imaging (MRI) uses the miniscule magnetic fields of naturally occurring compounds within the human body to create its images.
Magnetic fields can be created by charges or the flow of current.
a photon
Electromagnetic energy.