There's windward (towards/upwind) and leeward (away/downwind).
Are there left and right too?
But points of sail don't have any handedness, correct? I.e. they're mirrored on both sides of the wind.
As mentioned in another comment, tacking (with its active directionality) is probably the closest to handed-terminology.
The right-of-way rules in sailboat racing depend on who is on 'port tack' or 'starboard tack' (ie, they differentiate those mirrored halves). There's nothing physically special, though.
Strokeside is always port, even if in that particular boat stroke's oar is actually on the starboard side- and even in a sculling boat!
The space shuttle normally orbited with it's payload bay, opposite of the landing gear facing Earth. The payload bay was +z direction. From the layperson's point of view, the shuttle orbited upside down, but from an aerospace engineer's point of view it orbited right side up and landed upside down.
I used to work satellite navigation for NOAA. For the GOES sats we often used Intrack (Prograde/Retrograde), Crosstrack (Normal/Anti-normal), and Radial (Towards planet/away from). I don't think anyone really referred to any directions as "plus x" or "minus y"
Actually I work on rovers and it's a perennial debate whether to follow spacecraft convention (+z is down) or automotive convention (+z is up). Then mechanical engineers will usually follow what is intuitive on the screen (+z is forward). This is because computer graphics convention is +z facing out of the screen.
We used to tilt the spacecraft when doing inclination burns so that we could get a little bit of intrack delta-v to even out our orbit. I always thought that was delightfully janky.
That wasn't a choice. The doors had to remain open and pointing away from the earth so that the radiators could properly dissipate heat. It also, in theory, kept the most important thermal tiles pointing away from incoming space rocks.
It's the opposite. The orbiter usually kept it doors pointed toward Earth and the "bottom" tiles pointed away from Earth, and orbited with its engines pointed prograde. (Upside-down and backward relative to the atmospheric flight people are familiar with)
https://space.stackexchange.com/questions/12321/why-did-the-...
Then there's space, where it gets even more fun, as the relevant frames - the ship, the orbit (or the "centre of gravity" of everything pulling on you) - are completely independent. That is, your orientation doesn't matter for the travel direction. Now, not only "right" and "left" are ambiguous - but also "up", "down", "forward" and "backward".
When in orbit, you have "prograde" and "retrograde" to refer to the velocity vector's direction and its opposite; if we dub that "forward" and "backward", then "radial" and "antiradial" are "down" and "up" (i.e. towards / away from the center of orbited body), and then "normal", "antinormal" for "left" and "right", which you can get from the cross product of "forward" and "up".