# You are right, when constants are alone. I used bad terminology. The truth is so: The integral of c*x^n is c/(n+1) * x^(n+1) for every n (except n=-1;-) ) # So, \int 2*x^2 = 2/3*x^3 # When you are integrating a function over a variable, you consider the constant terms, (terms which doesn't have the variable in it) so: # c = c*x^0 (x^0=1), so while integrating according to above formula: \int c dx = c/1 * x^1 = c*x # This is where the appended x comes from. Just for clearing the confusion. -ugur- On 9/7/07, Tim Mortimer wrote: > > i think i knew that about the constants et al, but was uncertain about > making them "fit back in" to the picture in terms of getting a final > result.... actually, I thought maybe the constants might get an x appended > to them? (aware they "get discarded" when finding derivitives....) > > Thank you Ugur.... > > > # I think what you are saying about the perception of tempo is very > interesting. > # You want to integrate f(x) = (x*sqrt(1.5)/4)^2 right? > # This is not more involved than f(x)=x^2 because constants (the > additional > scalars & denominators) does not affect the integration. I mean, if the > integral of f(x) is F(x) then the integral of c*f(x) is c*F(x). In your > case > > Integral[ x^2*(sqrt(1.5)/4)^2 ] = (sqrt(1.5)/4)*Integral[ x^2 ] > = 1.5/16 Integral [ x^2 ] = 3/32 * [ 1/3 * x^3] = x^3/32 > # But I didn't understand where you get f(x) :-) > # See you! > -ugur guney- > > > > -- > View this message in context: > http://www.nabble.com/tempo-ramp-by-integration---help-needed-tf4400537.html#a12553101 > Sent from the Csound - General mailing list archive at Nabble.com. > > -- > Send bugs reports to this list. > To unsubscribe, send email to csound-unsubscribe@lists.bath.ac.uk >