The word you are looking for is "blast wave," which is a type of shock wave created by the sudden release of energy during a nuclear explosion. Blast waves travel outwards in all directions from the point of detonation, causing destruction and damage to surrounding structures.
Nuclear explosions produce a combination of shock waves, heat waves, and electromagnetic waves. The initial shock wave is the most destructive component, causing widespread damage and destruction near the explosion site.
Gamma rays. These high energy electromagnetic waves are given of in nuclear reactions (including those in stars)
Electromagnetic waves on the surface of the sun are produced through the process of nuclear fusion in its core. The intense heat and pressure generated by nuclear reactions cause charged particles to move rapidly, creating electromagnetic radiation in the form of light, ultraviolet, and other wavelengths. These waves are then emitted from the sun's surface into space.
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.
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.
seismic waves
Nuclear explosions produce a combination of shock waves, heat waves, and electromagnetic waves. The initial shock wave is the most destructive component, causing widespread damage and destruction near the explosion site.
Yes.
seismic waves
Gamma rays. These high energy electromagnetic waves are given of in nuclear reactions (including those in stars)
Nuclear explosions on the sun, like nuclear fusion reactions, happen in the sun's core which is extremely dense and covered by many layers. The energy produced from these explosions must travel through these layers before reaching the sun's surface and then space, which is why we cannot hear them on Earth. Additionally, sound waves cannot travel through the vacuum of space.
Sound cannot travel through the vacuum of space, so we cannot hear nuclear explosions on the sun from Earth. Sound requires a medium to travel through, like air, and space is empty. Additionally, the sun's explosions produce vibrations in the form of electromagnetic waves, which we can detect but not hear as sound.
We can't hear nuclear explosions from the sun because sound cannot travel through the vacuum of space. Sound waves require a medium, like air or water, to propagate, but space is mostly empty. Additionally, the sun's explosions release energy in the form of electromagnetic radiation, mainly light and heat, rather than sound waves.
Harold Leonard Brode has written: 'Fireball phenomenology' -- subject(s): Explosions, Nuclear weapons, Shock waves, Thermodynamics 'A numerical method for calculating interior ballistics' -- subject(s): Interior Ballistics 'Calculation of gas expansion in a rarefied atmosphere' -- subject(s): Rarefied gas dynamics 'Nuclear explosions in cavities' -- subject(s): Underground nuclear explosions
Electromagnetic waves on the surface of the sun are produced through the process of nuclear fusion in its core. The intense heat and pressure generated by nuclear reactions cause charged particles to move rapidly, creating electromagnetic radiation in the form of light, ultraviolet, and other wavelengths. These waves are then emitted from the sun's surface into space.
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.
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.