They are all solids. They have properties of metals and non metals.
They have high ionization energy and high electronegativity.
Metals conduct electricity. Metals ionise [lose one or more electrons] to form positively charged ions - cations.
Metals have high electrical conductivity, allowing them to easily transmit electricity. They also have metallic luster, giving them a shiny appearance.
The pool of shared electrons model for metals, also known as the metallic bonding model, explains two key properties: electrical conductivity and malleability. The delocalized electrons allow metals to conduct electricity efficiently, as they can move freely throughout the metallic lattice. Additionally, the mobility of these electrons enables metal atoms to slide past one another without breaking the metallic bond, resulting in the malleable nature of metals.
Metals in the same group on the periodic table tend to have similar properties due to their shared number of valence electrons. Thus, metals in groups 1 (alkali metals) and 2 (alkaline earth metals) would have more similar properties compared to metals in different groups.
They are all solids. They have properties of metals and non metals.
They have high ionization energy and high electronegativity.
Metals conduct electricity. Metals ionise [lose one or more electrons] to form positively charged ions - cations.
Conductivity (of both heat and electricity) and malleability.
Properties that are shared
Metals have high electrical conductivity, allowing them to easily transmit electricity. They also have metallic luster, giving them a shiny appearance.
In bonds between metals and non- metals thety are transferred rather than shared
Metallic bonds are bonds between metals. They consist of valence electrons in delocalized bonds covering the whole crystal. These electrons can move freely and are responsible for the special properties of metals such as electrical conductivity. Covalent bonds are electrons being shared and are usually between non-metals. They are localized to the atoms which are sharing them, resulting in individual molecules.
It is one pair of electrons shared between two non-metals.
The pool of shared electrons model for metals, also known as the metallic bonding model, explains two key properties: electrical conductivity and malleability. The delocalized electrons allow metals to conduct electricity efficiently, as they can move freely throughout the metallic lattice. Additionally, the mobility of these electrons enables metal atoms to slide past one another without breaking the metallic bond, resulting in the malleable nature of metals.
They are highly- reactive metals