be quiet this question is stupid
NCl5 does not exist bcoz nitrogen atom does not have d-orbitals to accomodate electrons from chlorine atoms and nitrogen cant accomodate more than 8 electrons in its valence shell. so its covalency exists only upto four.... pcl5 exists bcoz phosphorus atom has vacant d orbitals to accomodate electrons and thus pcl5 exists
Yes, PCl5 is a binary molecular compound.
Phosphorus pentachloride is a chemical compound with the formula PCl5.
The reaction between PCl5 and pyridine involves the substitution of one chlorine atom in PCl5 with a pyridine molecule to form an adduct called pyridinium chloride. The pyridine molecule replaces one of the chloride ions on PCl5, resulting in the formation of pyridinium chloride and releasing HCl as a byproduct.
Molar mass = 31+ 5(35.5) = 208.5 g/mole divide ... 35.6 g / 208.5 g/mole = 0.171 mole
NCl5 does not exist bcoz nitrogen atom does not have d-orbitals to accomodate electrons from chlorine atoms and nitrogen cant accomodate more than 8 electrons in its valence shell. so its covalency exists only upto four.... pcl5 exists bcoz phosphorus atom has vacant d orbitals to accomodate electrons and thus pcl5 exists
Phosphorus pentachloride (PCL5)
PCl5 Phosphorous pentachlorideP for Phosphorous and 5 Cl for chloride= PCl5 College Chemistry student
The name of the compound PCl5 is phosphorus pentachloride.
The cast of Ph5 - 2004 includes: Hernan Leovey
The name for the molecular compound PCl5 is phosphorus pentachloride.
Yes, PCl5 is a binary molecular compound.
The formula for phosphorus pentachloride is PCl5.
The common name of PCl5 is phosphorus pentachloride.
Phosphorus pentachloride is the correct name for PCL5.
There are 5 chlorine atoms in PCl5.
The decomposition reaction for PCl5 is represented as follows: PCl5 (s) → PCl3 (g) + Cl2 (g). This reaction involves the breaking down of solid phosphorus pentachloride (PCl5) into gaseous phosphorus trichloride (PCl3) and chlorine gas (Cl2). The reaction is endothermic, requiring energy input to break the bonds within the PCl5 molecule.