Yes, as it is nearer the left side of the Periodic Table.
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no they can bond with any other element
The noble gases, in column 18 (or in older tables, column VIII) do not bond, they already have full set of electrons. the rest all bond because they want full set of electrons to be more stable.
I don't think any element can easily , or even bond with Xenon. Xenon is a noble gas with enough electrons on the outermost shell, therefore it exist alone like other noble gas such as helium, argon in the same group: Group 0.
No, not every element links up with every other element. The ability of elements to bond depends on their chemical properties, such as electronegativity and valence electron configuration. Some elements readily form compounds with others, while some remain inert or do not react under normal conditions. For instance, noble gases are generally unreactive and do not easily bond with other elements.
Titanium is an element (Ti), not a chemical bond. It can from chemical bonds with other elements that can react with it
Yes
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Titanium can form a chemical bond with bone, becoming integrated completely. Bone rejects most other elements.
Yes, hydrogen has one electron and will readily bond with other elements. Argon is an inert gas which does not bond with other elements easily.
By having a close look on the electronic configuration we can easily tell that which element will combine with the other elements and by which force too.
Carbon bonds easily with other elements because it has four valence electrons, allowing it to form strong covalent bonds with a variety of other elements to achieve a stable electron configuration.
any of them but they could explode easily
Scandium primarily forms compounds with elements such as oxygen, fluorine, and nitrogen. It can also bond with other metals such as aluminum, magnesium, and titanium to form alloys. In biology, scandium can be found complexing with ligands such as citrate and amino acids.
The outer electron shells of their atoms are full, and they do not need more electrons from other atoms, so they do not easily bond.
The transition metal titanium bonds with a number of other elements. It has an oxidation state of +4, but +3 will often appear, and we might see +2 and +1. It will bond with fluorine, chlorine, and the rest of the halogens (the Group 17 elements) to form titanium (IV) fluoride (TiF4), chloride (TiCl4), bromide (TiBr4), iodide (TiI4), and astatide (TiAs4). The last one you won't find unless you synthicize the astatine through nuclear means. We mentioned the two oxidation states, so you'll see titanium(III) fluoride (TiF3), chloride (TiCl3), and on down the list. But note that these are oxidizers, and that's because the titanium would rather bond in a 1-to-4 ratio with the halogens than in the 1-to-3 ratio. Titanium also bonds with oxygen to form the oxide, and you'll see titanium dioxide (or titanium(IV) oxide, TiO2) and titanium(III) oxide (Ti2O3). You might see some others in "exotic" situations. Titanium(IV) nitride (TiN) can be found forming hardened coatings on other metals. You might have heard of titanium(IV) carbide (TiC) which has similar uses in hardening metals. There are other compounds that titanium will form, and you can investigate by considering its oxidation numbers and then going to the periodic table. Use the link below to delve into the chemistry of titanium and learn more.
Carbon can bond with itself, and many other elements.