True, I see your point. Although if we don't limit ourselves to the definition of real numbers, I suppose there is a theoretical number which does come infinitely close to one. Like if you type 0.999999999... you can hold the 9 button for as long as you like, but it will never truly reach 1...
first, rewrite the square root as an exponent, and rewrite 1 as log(10), so you get
0.5log(2x-1) + log(x-9)^(1/2) = log(10)
Bring the exponent down to get 0.5log(x-9)
0.5log(2x-1) + 0.5log(x-9) = log(10)
multiply both sides by 2
log(2x-1) + log(x-9) = 2log(10)
Raise the 10 in the log...
I'm not saying its not, I'm saying 0.999999999... isn't technically 1, just infinitesimally close to 1. (see below)
I meant to say the 0.99999... is a repeating 9 not a discreet value of "0.999999999", if that clears things up.
Either way, it is an interesting technicality. The way I...
I think you can just use 0.54 as you first term and use a common ratio of 0.01.Edit: Yes, it works.
I haven't gone through the other methods posted here, but there is definitely more than one way to go about it. The way I posted is the one that makes the most sense to me, so just find one that...
You can use the sum of an infinite geometric sequence formula.
S = \frac{a}{1-r}
your a value is (in this case) 0.7. You want to make a series that will create 0.77777777777... etc.
To make this series, 0.7 is your first term. It is multiplied by the common ration (r) 0.1 to get 0.07 (your...
I've got myself a pretty dandy collection of physics and maths books.
Cosmology/Astrophysics
Foundations of Modern Cosmology by Hawley and Holcomb
The Science of the Universe by Harrison
Relativity and Cosmology by Kaufman III
Inner Space;Outer Space: The Interface Between Particle Physics...