The FFT algorithm was rediscovered in the 60's. Gauss discovered it in the early 19th century while studying the phase of the moon, before Fourier described his transform. He published it in latin, and the text was lost until 1984.
The FFT algorithm was rediscovered in the 60's. Gauss discovered it in the early 19th century while studying the phase of the moon, before Fourier described his transform. He published it in latin, and the text was lost until 1984.
I'm no mathematician, and my understanding of the subject is limited. How is the discrete Fourier transform unrelated to its continuous counterpart? Their definitions are extremely similar...
From a semantic point of view, it is nice that all these transform bear the same name, but historically, it is a bit unfair to attribute Fourier analysis to Fourier, who didn't discover it (even though he greatly developed the subject).
I know there's an eponymous law that describes this phenomenon, and it is of course not named after its inventor, but I can't remember its name.
Yep--for some reason that worked.
[1] http://www.springerlink.com/content/j30x8k122v828w87
[2] http://ieeexplore.ieee.org/xpl/freeabs_all.jsp?arnumber=1162...
http://www.cis.rit.edu/class/simg716/Gauss_History_FFT.pdf
As a Gauss fanboy let me just say wow. Especially note that from 1828 to 1965 there a various versions of the FFT presented for special cases but Gauss had the complete version in 1805.