Your question has 2 parts:
In a nuclear bomb explosion, the energy conversion involves the release of nuclear energy through the process of nuclear fission or fusion. This energy is then converted into thermal energy (heat), light energy (flash of light), and mechanical energy (shockwave). The explosion results from the rapid release of this energy.
When an object releases enough energy, it can result in various outcomes depending on the context. For example, in the case of a nuclear reaction, a significant release of energy can lead to an explosion. In a chemical reaction, releasing enough energy can cause a change in temperature or the formation of new substances.
Mechanical energy is supplied to a generator from an engine, a steam turbine for example, and converted to electrical energy
The energy conversion in a bomb involves the chemical potential energy stored in the explosive material being rapidly converted into thermal energy, kinetic energy, and sound energy during the explosion. This results in a rapid release of energy in the form of heat, light, and pressure waves.
The explosion from an atomic bomb is so big because it involves the rapid release of a huge amount of energy in a very short time. This energy is released through a process called nuclear fission, where the nucleus of an atom is split, releasing a tremendous amount of heat and light. This leads to a chain reaction that causes a massive explosion.
Your question has 2 parts:Assuming that 1 neutron starts the chain reaction, each generation takes 10ns, each fission produces 2.5 neutrons on average, and the chain reaction lasts 1us; the total fissions = 100000Nuclear energy to kinetic energy to heat energy.
Your question has 2 parts:Assuming that 1 neutron starts the chain reaction, each generation takes 10ns, each fission produces 2.5 neutrons on average, and the chain reaction lasts 1us; the total fissions = 100000Nuclear energy to kinetic energy to heat energy.
The conversion of chemical energy into thermal energy through combustion is a common example. Burning wood or gasoline releases the stored chemical energy in the form of heat and light energy.
In a nuclear bomb explosion, the energy conversion involves the release of nuclear energy through the process of nuclear fission or fusion. This energy is then converted into thermal energy (heat), light energy (flash of light), and mechanical energy (shockwave). The explosion results from the rapid release of this energy.
Photosynthesis converts light energy from the sun into chemical energy stored in glucose molecules. This process involves the conversion of light energy into chemical energy, making it an energy conversion reaction.
Gun powder and kinetic energy
It is an example of conversion of potential energy (at the top) into kinetic energy (at the bottom).
Releasing energy quickly is often referred to as an explosion or a burst. It can manifest in various forms such as heat, light, sound, or kinetic energy.
When an object releases enough energy, it can result in various outcomes depending on the context. For example, in the case of a nuclear reaction, a significant release of energy can lead to an explosion. In a chemical reaction, releasing enough energy can cause a change in temperature or the formation of new substances.
Mechanical energy is supplied to a generator from an engine, a steam turbine for example, and converted to electrical energy
An explosion is a fast chemical reaction that occurs rapidly, leading to the sudden release of energy, gases, and heat. This rapid reaction results in a quick expansion of gases and a sudden increase in pressure, causing the explosion.
The energy conversion in a bomb involves the chemical potential energy stored in the explosive material being rapidly converted into thermal energy, kinetic energy, and sound energy during the explosion. This results in a rapid release of energy in the form of heat, light, and pressure waves.