It's evidence for what you meant to say but didn't ... that the speed of light is
independent of frequency.
Neutrinos carry away about 99% of the energy released during a supernova explosion, while only about 1% is emitted in the form of electromagnetic radiation (such as visible light, X-rays, and gamma rays). Neutrinos are able to escape the dense core of the collapsing star, carrying a significant amount of energy with them.
Gamma rays have the highest frequency and carry the most energy. These electromagnetic waves have the shortest wavelength and are emitted from the most energetic processes in the universe, such as nuclear reactions and supernova explosions.
a supernova is an stellar explosion extremely luminouse and cause a bright radiation. I recommend for you to understand the supernova the link provided in the related links box below.
Gamma rays
No, Mercury is too close to the sun and would be vaporized in the event of a supernova. The extreme heat and radiation from a supernova would completely destroy the planet.
An EM wave is caused by an energy source, such as something as big as a supernova or something as small as an electron changing in speed. I would say the change in the energy level of the energetic particle that causes the wave determines the frequency of the wave. +++ Whilst you may be right about the quantum physics, the frequency of the wave is that of the energy source, be it in a star or a radio transmitter, driving it.
The high end of the electromagnetic spectrum includes gamma rays, which have the shortest wavelengths and highest frequencies. Gamma rays have the highest energy of all electromagnetic waves and are typically produced by processes such as nuclear reactions and supernova explosions.
A supernova can release massive amounts of energy and radiation, potentially damaging any nearby planets or celestial bodies. The intense radiation from a supernova can strip away a planet's atmosphere and cause disruption to its magnetic field. The shockwave from a nearby supernova could also trigger star formation or disrupt existing planetary systems.
The origin of cosmic rays, which are actually not electromagnetic radiation but rather particles, protons and atomic nuclei - continues to be mysterious, but they are believed to be created during supernova explosions, and also likely created by active galactic nuclei.
because the squaerd pi times the amount of protons coontents of transverse wave and is trasferred by the higher frequency level to the amount of supernova supirior exert waves that totominate nucleaus magnetic waves always being trensverse so thets it muttha fukka
Yes, pulsars are often found in supernova remnants. Pulsars are rapidly rotating neutron stars that emit beams of radiation, and they are formed when a massive star undergoes a supernova explosion. The remnants of the supernova provide the environment from which the pulsar originates.
A safe distance from a supernova explosion would be millions of light-years away. The energy and radiation emitted during a supernova event are extremely powerful and can have destructive effects on planets and other celestial bodies nearby.