As the heaviest group 9 element it would be expected to have a similar chemistry to iridium.
The metal would be very corrosion resistant. It would form a wealth of compounds and exhibit multiple oxixdation numbers, perhaps with for example fluorides, MtF3, MtF4, MtF5, MtF6, and form oxides such as MtO2, and form Meitnerates such as KMtO3
Bear in mind that with a Meitnerium half life of 7 seconds these compounds would be interesting to prepare and characterise!
See link for iridium overview for clues to some more possibilities.
The likelihood of an element to bond is called its electronegativity. This property is a measure of an element's ability to attract and share electrons with other atoms in a chemical bond. Elements with higher electronegativities are more likely to form bonds with other elements.
The type of chemical bond between an atom of element A and an atom of element Q could be either an ionic bond or a covalent bond, depending on the electronegativity difference between the two elements. If the electronegativity difference is large, an ionic bond may form where one element gives up an electron to the other. If the electronegativity difference is small, a covalent bond may form where the electrons are shared between the two atoms.
Oxidation numbers can help predict the way an element will bond by indicating the charge an element is likely to obtain when forming a compound. Elements tend to bond in a way that results in achieving a more stable oxidation state, such as by gaining or losing electrons to achieve a full valence shell. By knowing the possible oxidation states of an element, one can anticipate how it will bond with other elements to achieve a balanced charge in a compound.
Elements with complete outer energy levels are noble, which means that they will not bond with other elements. They are not (normally) reactive.
No single element can form a bond. Only 2 or more elements can form bonds. Polar bonds occur when there is a dipole moment, or there is asymmetry in the structure. For example, HF forms a polar covalent bond.
The chemistry of meitnerium is not known; probably is not a reactive metal, being similar to iridium.
no they can bond with any other element
The likelihood of an element to bond is called its electronegativity. This property is a measure of an element's ability to attract and share electrons with other atoms in a chemical bond. Elements with higher electronegativities are more likely to form bonds with other elements.
oxygen is an element on the Periodic Table of elements. This means that oxygen is an atom which could bond with another element covalently to form a molecule
What do elements do in a reaction? A: The elements that are present form a chemical bond. This happens because of the fact that the elements that are present to form such combine together to make the chemical bond.
Almost every other element except the elements in group 18 bond with oxygen to form compounds.
When two or more elements form a bond, they do so either by sharing electrons, or by one element donating and one element accepting electrons. In the former case, you have a covalent bond. In the latter case, it is an ionic bond.
Titanium is an element (Ti), not a chemical bond. It can from chemical bonds with other elements that can react with it
All of the metallic elements will form an ionic bond with fluorine.
depends on what elements your trying to bond. Oxygen and what?
The type of chemical bond between an atom of element A and an atom of element Q could be either an ionic bond or a covalent bond, depending on the electronegativity difference between the two elements. If the electronegativity difference is large, an ionic bond may form where one element gives up an electron to the other. If the electronegativity difference is small, a covalent bond may form where the electrons are shared between the two atoms.
Oxidation numbers can help predict the way an element will bond by indicating the charge an element is likely to obtain when forming a compound. Elements tend to bond in a way that results in achieving a more stable oxidation state, such as by gaining or losing electrons to achieve a full valence shell. By knowing the possible oxidation states of an element, one can anticipate how it will bond with other elements to achieve a balanced charge in a compound.