"Hydrogen bonds" are generally considered in a class by themselves, neither covalent nor ionic. They are formed by the attractions between atoms such as oxygen that often have free paired electrons in their valence shells, and the general, although fluctuating, diminution of negative charge around the exterior of hydrogen atoms that are polar covalently bonded. This attraction is stronger with hydrogen than with any other covalently bonded atom, because hydrogen is the only atom with no "shielding" inner shell electrons when covalently bonded. The strength of hydrogen bonds of this type is less than that of most covalent bonds, but still enough to produce such effects as the fact that water has a much higher boiling point than its analog, hydrogen sulfide, although in this instance the difference is due to the lower polarity of the H-S than the H-O bonds.
As indicated by the quotation marks at the beginning of the first paragraph, not all bonds between hydrogen and some other atom are "hydrogen bonds" in the sense described above. Hydrogen also forms normal covalent bonds that can be polar or nonpolar.
tricalcium phosphate is an ionic compound do to the fact that it is the bonding of a metal and a nonmetal. it is usually only a molecular compound if it is a bond between two nonmetals such as oxygen and hydrogen.
Phosphorus and sulfur typically form covalent bonds when they bond together. This is because they are both nonmetals, and nonmetals tend to share electrons to form covalent bonds.
Bromine and phosphorus can form an ionic bond because bromine is more electronegative than phosphorus, causing it to attract and accept electrons from phosphorus to form a stable compound.
A covalent bond is formed between phosphorus and iodine. In this type of bond, the atoms share electrons to achieve a stable electron configuration.
Phosphorus and fluorine typically form a covalent bond, where the atoms share electrons to achieve a stable octet configuration. This results in the formation of molecules such as phosphorus pentafluoride (PF5).
Phosphorus pentoxide is a covalent bond, not a ionic. -Emiko Bunny
Phosphorus trifluoride is a covalent compound. It is formed through the sharing of electrons between phosphorus and fluorine atoms, rather than the transfer of electrons that would occur in an ionic bond.
Phosphorus and iodine form a covalent bond. In covalent bonds, atoms share electrons to achieve a stable electron configuration.
PF is a covalent compound. It consists of a polar covalent bond between the atoms phosphorus and fluorine.
Phosphorus and chlorine can form an ionic bond to create phosphorus trichloride (PCl3) or a covalent bond to create phosphorus pentachloride (PCl5), depending on the reaction conditions.
no, they form covalent bond as the difference in electronegativity between P and H is below 1.7
The bond between P and H is covalent, eg in PH3
Neither. It is hydrogeneous.
PCl5 is covalent in the vapour phase with a trigonal biyramidal shape. It is ionic in the solid consisting of PCl4+ PCl6- In solution it can be covalent or ionic depending on the solvent.
Covalent- the small difference in electronegativity is the reason.
Phosphorus and sulfur typically form covalent bonds when they bond together. This is because they are both nonmetals, and nonmetals tend to share electrons to form covalent bonds.
tricalcium phosphate is an ionic compound do to the fact that it is the bonding of a metal and a nonmetal. it is usually only a molecular compound if it is a bond between two nonmetals such as oxygen and hydrogen.