The devil is in the detail
OK, but you would need FTL travel.
Thanks @Catastrophe. Also, I know that light year is a measure of distance, but the calculation is easier than that. Distance is Velocity/Time, so with a light year, the distance = (1 year x 5.88 x 10^12 miles/year). The year terms cancel out and you are left with a distance (miles in this case). Travel time is Distance/velocity, so in the case of traveling at 1% of the speed of light, the equation for the time to travel 4.3 light years becomes Travel Time = (Distance term: 4.3 years x 5.88 x 10^12 miles/year)/(Velocity Term: 0.01 x 5.88 x 10^12 miles/year) = The 5.88 x 10^12 terms cancel out, as do the miles/year terms, so the equation simplifies out to: Travel Time = 4.3 years / 0.01 = 430 years.Thanks to Epiphany the correct answer is
Therefore I agree 438.356 years instead of 4383.56 years.
But do you really mind which time it takes you?
Remember the question was:
Where would you travel to if you had an extrasolar spacecraft?
We are not told how fast the ESS can travel. Once you go at speeds approaching light there are serious complications (especially starting and stopping) also fuel to accelerate to such speeds.
P.S. I ignored relativistic effects which probably would not change the answer materially.
For example, I took 4.3 instead of 4.243 light years for the distance of Proxima Centauri.
And alpha Centauri is 4.367 light years away. So approximations were made.
I would like to be in the Pleiades star cluster. Judging what they look like from here, it must be quite a sight from within the cluster itself.
As highly visible heliacal stars, the Pleiades were among the most important celestial body, after the moon, and used for a first astronomic conception. The Pleiades heliacal rising was widely recognised in Austral regions, as the beginning of the new-year and then of agricultural season.