Nuclear fusion, the source of all the energy so generously radiated by the Sun, does two things: it converts hydrogen into helium (or rather, makes helium nuclei from protons) and it converts mass to energy. ... If the fusion reactions in the core become too weak, a star can and does collapse.
by the process of nuclear fusion
The organs in the core of your body are cooled, eventually leading to loss of consciousness and death.
Yes, the core of the fission primary stage and the rod shaped "sparkplug" running the length of the fusion secondary stage (and any additional fusion stages) are usually made of plutonium.
Stripping an atom of all its protons and electrons is not possible. It would just be a core.
A hydrogen ion, when in reaction, usually donates its core which essentially is a proton that attracts negative charges, which in turn makes the positively charged hydrogen ion an electrophile.
nuclear fusion
Fusion occurs in the core of the sun and other stars.
Fusion and Fission happens at the stars' core.
Most nuclear fusion happens close to the Sun's center, or core. That's where the temperature and pressure are greatest.
nuclear fusion reactions at the core of sun
No. A fusion event requires a much greater energy density than can exist at the Earth's core.
It produces so much energy because of the nuclear fusion reaction that happens in the Sun's core every second. Nuclear fusion releases tremendous amounts of energy.
No. Fusion requires high concentrations of Hydrogen. Planets are made from substantially heavier elements. Additionally, a planet massive enough to begin a fusion reaction literally becomes a star.
No. Fusion requires high concentrations of Hydrogen. Planets are made from substantially heavier elements. Additionally, a planet massive enough to begin a fusion reaction literally becomes a star.
The rest of the star expands.
It has to be at hundreds of millions of degrees kelvin, before a fusion reaction between deuterium and tritium will start
This phenomenon happen during the red phase collapse of smaller stars. The contraction in the core of the star causes the helium to go into a runaway fusion reaction that releases an immense amount of energy for a brief time.