Light, or electromagnetic radiation, is generally unaffected by magnetic fields. Magnetic fields don't "bend" light, though photons will follow the curvature of spacetime around massive gravitational fields.
Any remote sensor fulfills your question. A radiation pyrometer, a magnetic sensor, a light sensitive switch and so on.
Wow, that's both an easy question as well as difficult to answer. In layman's terms, electromagnetic radiation could be categorized as any magnetic field created by electrical or electronic means. For example, a transmitted radio signal, TV signal or satellite signal consists of electromagnetic radiation, but then so does the field created by the coils in a transformer, motor or generator.
An electromagnetic wave is a form of radiation consisting of waves of energy associated with electric and magnetic fields resulting from the acceleration of an electric charge. An electromagnetic wave travels like any other form of radiation or light, except for the fact that an electromagnetic wave moves perpendicular to an electric field and a magnetic field.
No, magnetic fields do not affect X-rays. X-rays are a form of electromagnetic radiation, while magnetic fields affect charged particles. Therefore, magnetic fields do not interact with X-rays in the same way they do with charged particles.
MRI Magnetic Resonance Imaging. An MRI does not use dangerous radiation like an X-ray does. It is just a powerful magnetic field that (so far) hasn't been associated with any deliberating effect.
Radiation is like light, it can travel through empty space. The "why" is a bit complex; basically, light, as well as similar radiations (including heat radiation) consists of electromagnetic waves. These can travel through empty space, since they are just waves in the electric and magnetic properties of space.
B2 is not magnetic. It does not have any significant effect on the surrounding environment in terms of magnetic properties.
Any and all objects that are warm emit electro-magnetic [radiated] waves in the Infra-Red range of E-M frequencies. IR radiation is stopped from 'Escaping' Into Outer Space, and remains instead Our Unwelcome Guest. radiation A+
No type of electromagnetic radiation has any effect on any other type. In order to 'stop' it, you need a material that absorbs it.
Microwaves use radiation to cook food and radiation is a form of light. They do not use actual light bulbs to cook though.
As a superconducting material transitions into its superconducting state, it ejects internal magnetic fields. In that light, yes, a superconductor could be said to expel a magnetic field according to what is called the Meissner effect. A link can be found below.
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