Our Earth is a third generation system.
First was the big bang, creating a small handful of light mass elements, and expanding into our universe.
First generation stars occurred when these clouds of light mass particles collected to form the early stars. In the ordinary course of events these stars went through their life cycles, and a proportion of them went Nova. In this process, the temperature and pressure remain high for sufficiently long for some even unlikely events to take place - the creation of heavier elements. [Our Sun cannot create any elements heavier than Iron.]
Second stellar generation occurs when the debris from these early stars collect together in sufficient numbers to make a very large star, and eventually some of these will be sufficiently massive to form Supernova at the end of their life. Here the temperatures and pressures are even higher and for even longer, and in these conditions the heavy elements are formed in the death explosion.
Follows the third generation of stars, who sweep up the debris from the explosion of Supernovae, and among these remains are the heavier elements.
Depending on the position in space, some of these collections of debris will form more large stars, and some will only have enough material to make a small star - our Sun.
The light mass elements still dominate the overall material, and from this our Sun was assembled. Some of the debris is the residual heavy elements, and by chance, some of this collects to form a few rocky planets - ours included.
So our Earth, and all the life on it, is made of star matter - elements that were once the material of a giant star.
So you and your friends were once parts of a star!
Uranium is formed through the process of supernovae, where heavy elements are created by nuclear reactions in the hot, dense cores of dying stars. These heavy elements are then scattered into space when the star explodes, eventually forming into uranium-rich mineral deposits on Earth through geological processes.
The production of heavy atoms from light atoms inside of a star is called nucleosynthesis. This process involves fusion reactions that combine lighter elements into heavier elements through the intense heat and pressure found in stellar interiors.
'New elements' are considered to be elements that have not been 'discovered' or given an official name and abbreviation. The only possibility of new elements forming is artificially, by bombarding heavy radioactive atoms with alpha particles, protons and sometimes neutrons. However, any 'new element' would have an extremely short half life, because we have already done this process during the 20th century, which is how we discovered the elements past Uranium (element 92).
Most likely while everything was being blown away, materials, mostly hydrogen, were pushed into each other because of gravity and the force of the big bang, exchanged protons, neutrons, and electrons, forming new elements.
Elements with atomic numbers greater than that of iron (26) are formed through a process called supernova nucleosynthesis, which occurs during the explosive death of massive stars. These elements are created through rapid neutron capture processes, leading to the production of heavy elements like gold, platinum, and uranium.
Heavy elements were formed in stars, and blown out into space in supernova explosions.
Such elements are formed within stars. The heavy elements which are currently here on Earth were formed in stars some time ago, and then they were blown into space in supernova explosions.
Iron is formed in nature through a process called supernova nucleosynthesis, where heavy elements are created during the explosion of massive stars. This process involves the fusion of lighter elements in the star's core, eventually leading to the formation of iron.
This process is called stellar nucleosynthesis.
Uranium is formed through the process of supernovae, where heavy elements are created by nuclear reactions in the hot, dense cores of dying stars. These heavy elements are then scattered into space when the star explodes, eventually forming into uranium-rich mineral deposits on Earth through geological processes.
Atoms of heavy elements are formed through nuclear fusion processes within stars. When a star reaches the end of its life cycle and explodes in a supernova, it releases a burst of energy that can create the extreme conditions necessary for the formation of heavy elements through processes such as nucleosynthesis.
The heaviest elements occurring in nature are formed inside supernovae, through nucleosynthesis.
The light elements in the universe, such as hydrogen and helium, were created during the Big Bang. Heavy elements, like carbon, oxygen, and iron, were formed in the cores of stars through nuclear fusion processes.
Silver is produced in the explosion of a supernova. This process is the mechanism for creating many of the elements more massive than Iron, which is as heavy an element as may be manufactured by fusion in a star such as our Sun. It accumulated on Earth from the debris that eventually formed Earth. It is fairly easily dissolved, and forms a precipitate when the temperature and pressure of its solute fluid drop sufficiently. It is one of the elements that are often found as the native metal.
The formation of the elements is a nuclear process that usually happens in stars. The core of the star is hot enough and has enough pressure to overcome the electric repulsion of the atomic nuclei and literally fuse the nuclei together. This process happens over and over again, but seems to stop at a certain mass. It appears that elements heavier than iron cannot be formed in the core of a star. These elements require more extreme conditions. The heavier elements on the Periodic Table (after Fe) are formed in supernova. These nuclei require tremendous energy to form, this energy must come from an event as large as a supernova.
The production of heavy atoms from light atoms inside of a star is called nucleosynthesis. This process involves fusion reactions that combine lighter elements into heavier elements through the intense heat and pressure found in stellar interiors.
'New elements' are considered to be elements that have not been 'discovered' or given an official name and abbreviation. The only possibility of new elements forming is artificially, by bombarding heavy radioactive atoms with alpha particles, protons and sometimes neutrons. However, any 'new element' would have an extremely short half life, because we have already done this process during the 20th century, which is how we discovered the elements past Uranium (element 92).