If you wanted to ram into an enemy ship, wouldn't it make more sense to warp into that ship, assuming your warp drive is still online? If warping involves bending space, I think it would make a far more potent weapon than just ramming head on at normal speeds.
(Indeed, we only even hear it suggested once, against the Borg in "Best of Both Worlds", and the resident genius Wesley doesn't seem to think it has any chances of working.
Timo Saloniemi
A warp field is a spatial distortion field that propels everything inside it to some high FTL speed. If you only encompass part of the ship with the warp field, then half of it jumps to FTL speed and the other half remains stationary; goodbye spaceship.
Theoretically, a warp-driven torpedo of some kind would accelerate a small portion of the enemy ship to warp velocities at the moment of impact, just before the torpedo itself is destroyed by the reaction. This would be the equivalent of freight train crashing into the hull of the ship at a thousand kilometers a second.
Just because something is mundane doesn't mean it has no weapons potential. In a world where nuclear fission/fusion technology has been available for a millenium, that becomes pretty mundane too. Probably defensible, though, hence any weaponized warp drive should probably be countered by a defensive warp drive (also known as "deflector shields").Or one could accept one of the most fundamental basic premises of Star Trek: that warp drive is a pretty mundane thing, available to all and no big deal, and thus unlikely to involve outlandish amounts of energy, spatial distortion, WMD potential or other such stuff.
I have a page on warp ramming.
The short version is that it probably doesn't work in Trek due to the complexities of subspace physics and warp fields. This corresponds to the fact that all known warp driven missiles also carry an explosive payload . . . such a payload would be unnecessary if the impact energy figures of a warping projectile were anywhere close to the result of a 'normal' sublight kinetic energy equation figure.
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