If we consieder hands as unordered sets of cards (i.e. there are ${52\choose 4}$ hands), then there are $13^4$ hands with four different suits ($13$ choices for each suit), $4!{13\choose 4}=\frac{13!}{9!}$ hands with four different suits and four different weights (choose four weigts and permute them to the suits), $(13-3)\cdot 4^4$ hands with consecutive ranks (choose wone of $10$ "starting points" and assign suits).
If you consider hands as ordered sets instead (so that there are $\frac{52!}{48!}$ hands in total), each of the above results must be multiplied with $4!$.