Ionic species are essentially non-molecular with NO molecular boundaries. Given the fact that there are no discrete molecules and strong electrostatic interaction between ions it takes a lot of energy to disrupt the interaction, and this manifests in high melting and boiling points.
It's because of the difference in chemical bonds. Inorganic compounds are mostly made of strong ionic bonds, which give them a very high melting and boiling point. On the other...
are non-molecular; they are formed of an infinite array of cations and anions that are attracted by strong electrostatic forces, which in aggregate are greater than the associated electrostatic...
Ionic solids are non-molecular. Each cationic particle is electrostatically bound to every anion in the solid. Of course there is electrostatic repulsion between like charges, but if you sum up...
Most metals have melting points that are accessible in a laboratory or at least in a forge or metal foundry. A few metals are even liquid at room temperature. Caesium...
For sodium chloride, each of the constituent ions have unit charge. For alumina, the ionic lattice is composed of $Al^(3+)$ and $O^(2-)$ ions. Because the electrostatic force of attraction should...
typically have much higher melting points than molecular . Ionic compounds are held together by electric attractions between positive and negative ions. These are ionic bonds, and these bonds...
The boiling point is the temperature at which the vapour pressure of the solution or becomes equal to the ambient pressure, and bubbles of vapour form directly in the liquid....
Ionic are non-molecular; they do not have molecular boundaries. In the solid-state, each particle, each ion, is bound electrostatically to every other counterion in the lattice, and repelled by every...
Ionic compounds are inherently non-molecular. Each cation is electrostatically ATTRACTED to EVERY other anion in the crystal. Of course, each cation is electrostatically REPELLED by EVERY other cation in the...
The normal melting point of methanol is $-97.6$ $""^@C$. But here, clearly, we compare apples and oranges, by comparing a melting point, a transition from solid to liquid, to...
