@Dabbler's advice above is excellent.
A good machine stand has three primary goals. Storage space is not one of them.
1. It needs to be STRONG enough to hold the weight of the machine without flexing or distorting under the forces that the machine imposes on its environment. A STRONG stand will support a military tank.
2. It needs to be RIGID enough so it can absorb and dampen the vibrations of the machine so it cuts smoothly and quietly at all speeds without resonating at any speed. A RIGID machine will quietly survive a gravel compactor. To visualize RIGID, it helps to think about a seismic mass - a mountain of granite or a concrete base the size of a house. Thankfully, there are many other ways to improve rigidity and eliminate harmonic vibrations.
3. It needs to be just FLEXIBLE enough to allow the machine to be optimally aligned on all of its axis. For a lathe, that means aligning the tailstock, removing bed bend and twist, and axially aligning the axis of the spindle to the axis of the bed.
The last goal is the hardest to do. The second is the most difficult to understand. And the first goal is the easiest to do. The first goal is also all that most machinists try to do.
Put another way, a weak stand might collapse or bend under the weight of the machine. A non rigid stand will allow the lathe to shake and vibrate which results in chatter, noise, and bad finishes. And an inflexible stand will result in unintentional tapers and non-concentric parts.
It's easy to make a strong stand.
It's hard to make a rigid stand.
It's very hard to make a strong rigid stand that is also flexible.
Of course, all three goals are heavily constrained by the design of the machine itself. All lathes can benefit from a, strong rigid stand, but not all lathes are designed so they can be aligned in use. It helps to understand the strengths and limitations of your machine BEFORE you make a stand for it.
A good machine stand has three primary goals. Storage space is not one of them.
1. It needs to be STRONG enough to hold the weight of the machine without flexing or distorting under the forces that the machine imposes on its environment. A STRONG stand will support a military tank.
2. It needs to be RIGID enough so it can absorb and dampen the vibrations of the machine so it cuts smoothly and quietly at all speeds without resonating at any speed. A RIGID machine will quietly survive a gravel compactor. To visualize RIGID, it helps to think about a seismic mass - a mountain of granite or a concrete base the size of a house. Thankfully, there are many other ways to improve rigidity and eliminate harmonic vibrations.
3. It needs to be just FLEXIBLE enough to allow the machine to be optimally aligned on all of its axis. For a lathe, that means aligning the tailstock, removing bed bend and twist, and axially aligning the axis of the spindle to the axis of the bed.
The last goal is the hardest to do. The second is the most difficult to understand. And the first goal is the easiest to do. The first goal is also all that most machinists try to do.
Put another way, a weak stand might collapse or bend under the weight of the machine. A non rigid stand will allow the lathe to shake and vibrate which results in chatter, noise, and bad finishes. And an inflexible stand will result in unintentional tapers and non-concentric parts.
It's easy to make a strong stand.
It's hard to make a rigid stand.
It's very hard to make a strong rigid stand that is also flexible.
Of course, all three goals are heavily constrained by the design of the machine itself. All lathes can benefit from a, strong rigid stand, but not all lathes are designed so they can be aligned in use. It helps to understand the strengths and limitations of your machine BEFORE you make a stand for it.