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Jan 8, 2017 at 16:03 comment added PhoenixPerson I have given the bounty because this looks to be alright, although for various reasons I haven't resolved all the details, what I am saying is, I may have more questions still ;)
Jan 8, 2017 at 16:02 history bounty ended PhoenixPerson
Jan 7, 2017 at 19:24 comment added PhoenixPerson Much appreciated, I will have a thorough look
Jan 7, 2017 at 18:59 comment added Jan-Christoph Schlage-Puchta I expanded the computations, stretching the performance of MathJax to the limits of my computer.
Jan 7, 2017 at 18:58 history edited Jan-Christoph Schlage-Puchta CC BY-SA 3.0
Expanded the computations.
Jan 7, 2017 at 17:16 comment added PhoenixPerson I don't wanna annoy you but everything that goes beyond where you say "Now ..." puzzles me. My knowledge of asymptotic analysis is very elementary and I would appreciate more indications
Jan 7, 2017 at 17:07 comment added PhoenixPerson Good thanks. Now, how do you justify $\int_{\epsilon}^{\epsilon^{-1}}\frac{\sin t}{t^{1.9}[\log\rho^{-1}+\mathcal{O}(\log\epsilon^{-1})]}dt=\frac{1}{\log\rho^{-1}}\int_{\epsilon}^{\epsilon^{-1}}\frac{\sin t}{t^{1.9}}dt+\mathcal{O}\bigg(\frac{\log\epsilon^{-1}}{\log^2\rho^{-1}}\int_{\epsilon}^{\epsilon^{-1}}\frac{|\sin t|}{t^{1.9}}dt\bigg)$?
Jan 7, 2017 at 16:49 comment added Jan-Christoph Schlage-Puchta We have $\epsilon\leq t\leq\epsilon^{-1}$, thus $\log(t/\rho)=\log\rho^{-1}+\log t=\log\rho^{-1}+\mathcal{O}(\log\epsilon^{-1})$.
Jan 7, 2017 at 15:15 comment added PhoenixPerson How do you justify $\int_{\epsilon}^{\epsilon^{-1}}\frac{\sin t}{t^{1.9}\log\frac{t}{\rho}}dt=\int_{\epsilon}^{\epsilon^{-1}}\frac{\sin t}{t^{1.9}[\log\rho^{-1}+\mathcal{O}(\log\epsilon^{-1})]}dt$?
Jan 7, 2017 at 10:16 history answered Jan-Christoph Schlage-Puchta CC BY-SA 3.0