I am trying to show that $\log{m}\le{\int_{m}^{m+1}{\log{t}}}dt$, with $m\ge{1}$.
I tried simplifying the problem to $0\le{\int_{m}^{m+1}{\log{\big(\frac{t}{m}\big)}}}dt$, but can't seem to get any further.
I am trying to show that $\log{m}\le{\int_{m}^{m+1}{\log{t}}}dt$, with $m\ge{1}$.
I tried simplifying the problem to $0\le{\int_{m}^{m+1}{\log{\big(\frac{t}{m}\big)}}}dt$, but can't seem to get any further.
The idea is that log(t) is a non-decreasing function, so you may trivially write $log(m)=\int_{m}^{m+1} log(m) dt \leq \int_{m}^{m+1} log(t) dt $.
Maybe this picture is helpful: