Noble gases do not often combine with other elements.
The platinum group is often used for electrodes or catalyts because they do not combine easily with other elements.
Inactive gases are gases that are chemically unreactive under normal conditions. They often include noble gases such as helium, neon, argon, krypton, xenon, and radon. These gases have a stable electron configuration and are generally non-reactive with other elements.
The chemical name of the compound is often based on the names of the elements that are part of it. However, for many simple organic compounds it is not possible to determine the component elements.
Yes, nonmetals typically gain electrons when they combine to form compounds. This process allows them to achieve a stable electron configuration, often resembling that of noble gases. By gaining electrons, nonmetals become negatively charged ions, or anions, which can then bond with positively charged ions (cations) or other elements to form compounds.
Generally the noble gases, however xenon (Xe) has been found to create compounds with other elements, most often with F in XeF8
The platinum group is often used for electrodes or catalyts because they do not combine easily with other elements.
Inactive gases are gases that are chemically unreactive under normal conditions. They often include noble gases such as helium, neon, argon, krypton, xenon, and radon. These gases have a stable electron configuration and are generally non-reactive with other elements.
I take it that you mean native elements. Some meteoric iron occurs - perhaps the remnant of the interior of an exploded planet.Gold often exists as a native element, because it has a low combination propensity, and is essentially uncorrodible.Similar metals such as copper, silver, mercury, tin and platinum are not uncommon.Then there are the non-metals, of which carbon and sulfur are the common ones.And to which must be added the gases such as nitrogen, oxygen, and the noble gases such as neon, argon etc.As to the why, the simple answer is that they either do not easily combine with other elements (gold, neon); or locally in surplus to anything with which they could combine (sulfur, carbon, mercury).
Yes, compounds have different properties than their constituent elements because the atoms in a compound combine to form new chemical bonds and structures. This results in unique physical and chemical properties not seen in the individual elements.
The chemical name of the compound is often based on the names of the elements that are part of it. However, for many simple organic compounds it is not possible to determine the component elements.
Yes, nonmetals typically gain electrons when they combine to form compounds. This process allows them to achieve a stable electron configuration, often resembling that of noble gases. By gaining electrons, nonmetals become negatively charged ions, or anions, which can then bond with positively charged ions (cations) or other elements to form compounds.
Group 18 is often referred to as the Noble Gases.
No: The compounds more often have very different properties from those of the elements that form them.
Just about all of them! The noble gases are very rarely combined into compounds, but even some of them (most often Xe) can be combined to form a compound (the other noble gases, Ne, He, Ar, and Kr almost never react to form a compound though).
Generally the noble gases, however xenon (Xe) has been found to create compounds with other elements, most often with F in XeF8
Yes, and often does. For example, the DNA in your body is impossible without it.
The ability of elements to combine is determined primarily by their electron configuration, particularly the number of valence electrons. Atoms tend to seek stability by achieving a full outer electron shell, often through chemical bonding, which can occur via ionic or covalent interactions. Additionally, factors such as electronegativity, atomic size, and the presence of functional groups influence how and whether elements will combine. Overall, these properties dictate the likelihood and type of bonds that can form between different elements.