Arvin Ash

Hydrogen Bomb: How it Works in detail. Atomic vs thermo nuclear bomb (2019x32)

Udgivelsesdato: Jun 25, 2019

Hydrogen bomb how does it work? The bomb on Hiroshima released the energy equivalent of 15,000 tons of TNT. The first hydrogen bomb released the energy equivalent of 10,000,000 tons of TNT. While the atomic bomb like the one that was dropped on Hiroshima worked on the principle of releasing energy through the splitting of atoms – also called fission, a hydrogen bomb does something that releases even more energy, and that is it fuses atoms together. Fusion is even more powerful than fission. It is the same process that powers our sun. How does fusion work? The fusion bomb creates energy by combining two isotopes of hydrogen called deuterium and Tritium to create helium. A large amount of energy is released when these two isotopes fuse together to form helium because a helium atom has much less energy than these two isotopes combined. This excess energy is released in the explosion. Lithium-deuteride is what most hydrogen bombs today use as their fuel. But how does the process of fusion actually occur? Ordinarily the nuclei of two atoms cannot be combined because these nuclei have strong positive electrical charges and repel each other. It turns out that if you increase the temperature by millions of degrees, it is possible to combine nuclei together. The temperatures needed are astronomical - higher than even that at the center of the sun – 100 million degrees Celsius. This is when the electrons orbiting the nuclei is stripped away from the nucleus and the nuclei and electrons are floating around freely in a kind of high temperature soup. At this temperature, the nuclei can get very close to each other and the strong nuclear strong force binds the protons and neutrons together to form a helium nucleus and a free neutron. So how is a temperature of 100 million degrees achieved? This is where the fission or atomic bomb inside the hydrogen bomb enclosure comes in. The purpose of the fission bomb is to to heat up the fusion reaction to