For your application, there probably isn't a difference, as follows.
All those alloys are known as tool steels, which means they are hard and strong enough to cut through ordinary steel which lacks those alloying agents.
It is possible to compound the alloy in such a manner that it retains its strength and hardness at high temperatures; this means that any given tool steel composition (including the ones you named) will have its own maximum allowable service temperature.
The composition of the tool steel will also affect its corrosion rate at different temperatures- which is a big deal when the tool is red-hot.
Now since you are cutting bolts at room temperature, you need not worry about those differences.
Also note that when steel alloys are deformed at room temperature, most of them become progressively more and more difficult to deform- an effect called strain hardening. Some alloys strain-harden ferociously, and become essentially impossible to further deform after they have been "worked" a bit. For a cutting tool that must remain effective for hundreds of thousands of cuts, this is a handy property to have. But for a consumer-grade tool which will probably only cut 500 parts in its lifetime, this is not that big a deal either.