polar covalent bond
Nitric acid forms covalent bonds. The nitrogen and oxygen atoms share electrons to form bonds, rather than transferring electrons as in ionic bonding.
Covalent bonding typically involves the sharing of electrons between two nonmetal atoms. Metals typically form metallic bonds by delocalizing their outer electrons rather than sharing them in covalent bonds.
NH3 is eventually covalent because they are sharing electrons.
That is correct. Covalent bonds involve the sharing of electrons between atoms rather than the transfer of electrons, as seen in ionic bonds. The atoms involved in a covalent bond share electrons in order to achieve a more stable electron configuration.
A metal's luster is not directly due to its valence electrons. Instead, it is a result of the way metals allow light to reflect off their free-flowing electrons in a phenomenon called metallic bonding, which gives metals their shiny appearance. Valence electrons play a role in the electrical and thermal conductivity of metals, rather than their luster.
Metals are a good conductor of heat and electricity because of their bonding. Metallic bonding consists of a sea of electrons rather than discreet bonds. The free electrons are able to move very freely. Since electricity and heat need electrons to move, the bonding promotes conductivity.
Nitric acid forms covalent bonds. The nitrogen and oxygen atoms share electrons to form bonds, rather than transferring electrons as in ionic bonding.
Oxygen molecules tend to prefer covalent bonding when forming compounds. This means that they will share electrons more readily. However, when forming an ionic compound, they will usually gain electrons rather than losing them.
Covalent bonding typically involves the sharing of electrons between two nonmetal atoms. Metals typically form metallic bonds by delocalizing their outer electrons rather than sharing them in covalent bonds.
NH3 is eventually covalent because they are sharing electrons.
That is correct. Covalent bonds involve the sharing of electrons between atoms rather than the transfer of electrons, as seen in ionic bonds. The atoms involved in a covalent bond share electrons in order to achieve a more stable electron configuration.
Nonmetals are closer to a full outer shell. They would rather gain electrons to complete the shell. They are unlikely to lose electrons.
A metal's luster is not directly due to its valence electrons. Instead, it is a result of the way metals allow light to reflect off their free-flowing electrons in a phenomenon called metallic bonding, which gives metals their shiny appearance. Valence electrons play a role in the electrical and thermal conductivity of metals, rather than their luster.
In a "lone pair" of electrons, the electrons are both negative charges and don't like each other. They will repel each other and get away from each other. Bonded electrons can be held closer together by the atoms involved in bonding.
When two nonmetals combine, they typically form covalent bonds where they share electrons. This results in the formation of molecules rather than ionic compounds. The properties of the resulting compound are determined by the number and types of atoms involved in the covalent bonding.
Phosphorus trifluoride is a covalent compound. It consists of nonmetals bonding together by sharing electrons, rather than transferring them as in ionic compounds.
No, P2O5 is a covalent compound. It consists of two nonmetals (phosphorus and oxygen) bonding through sharing electrons, rather than transferring them to form ions.