Mostly the strong force and weak force, these act in/on nucleus.
Receive treatment for radiation poisoning after you avoid the heat and force of the explosion itself
Nuclear chemistry deals with the chemical reactions involving radioactive elements. Gamma radiation is due to the electromagnetic force, beta radiation is due to the weak nuclear force, and alpha radiation is due to the residual strong force (which you might call the strong nuclear force). So... if you didn't have the nuclear force, you wouldn't have alpha radiation.
The force that pulls the material of a nuclear explosion back into a star is gravity. Gravity is the attractive force between objects with mass, and in the case of a star, it is the force that keeps the star's material gravitationally bound together despite the energy released in a nuclear explosion.
because of the force and radiation
Electromagnetic force explains light F= cp/r= fh/r.Light is electromagnetic radiation, so it's "explained" by electromagnetism.
A nuclear explosion that releases energy equivalent to 7,000,000 tons of TNT is known as a "megaton" explosion. This term refers to the explosive power of the nuclear blast in relation to the traditional unit of measure for explosive force, which is tons of TNT.
The force generated from a nuclear explosion depends on the size and type of the bomb. A typical nuclear bomb can release energy equivalent to millions to billions of tons of TNT, resulting in a massive blast wave and widespread destruction. The force is typically measured in kilotons (thousands of tons of TNT) or megatons (millions of tons of TNT) of explosive power.
The force responsible for the release of energy in nuclear power plants and nuclear weapons is nuclear fission. This process involves splitting of atomic nuclei, which releases a significant amount of energy in the form of heat and radiation.
Depends mostly on where you are relative to it and the yield. Other variables include:weatherterrainyour clothsif you are in a building, its constructionwere you near a windowetc.
In a nuclear explosion, nuclear potential energy is converted into kinetic energy and thermal energy. The fission or fusion of atomic nuclei releases a massive amount of energy in the form of heat and light. This energy causes intense pressure waves and heat that result in the explosive force of the nuclear blast.
Uranium-235 is a fissionable isotope that can achieve critical mass under the right conditions, leading to a nuclear explosion. This explosion can release a massive amount of energy, potentially causing devastating destruction and radiation. The force generated by such an explosion could indeed be powerful enough to propel material to the outer limits of the solar system.
The energy is obtained from the Strong Nuclear Force, which binds the atomic nucleus together, not the Electromagnetic Force, which binds electrons to the atom. The Strong force is about 1000 times stronger than the Electromagnetic force, therefore can provide about 1000 times the energy of a chemical reaction/explosion using a similar mass of fuel.