Lower bounding a ratio of gamma functions I am trying to show that the following function has a lower bound of $\ \frac{1}{2}$ for all $c\geq 2$.  Or, alternatively, that that function increases with $\ c$:
$$\frac{\Gamma\left[1+\frac{1}{c}\right] \Gamma[1+c]}{\Gamma\left[1+\frac{1}{c}+c\right]}$$
Note that this can be rewritten a few ways, such as $\ c\text{ B}[1+\frac{1}{c}, c]$  Plotting it out to 10,000 or so, it seems very clear that it is increasing, approaching 1, but I can't figure out how to prove it either through integration or properties of the special functions.  Can anyone help me out?  Thank you!
Note:  I found in this document in Theorem 3,
if
$$(a-1)(b-1) \geq 0$$ then
$$\text B(a,b) \geq \frac{1}{ab}$$
So, I thought that if I  took the function as $\ c \text B(1+ \frac{1}{c},c)$ where $\ (\frac{1}{c})(c-1) \geq 0$ we have
$$c \text B(1+ \frac{1}{c},c) \geq  \frac{c}{\frac{c+1}{c} c} = \frac{c}{c+1} > \frac{1}{2}$$
However, I must be doing something wrong, as the value of $\ c \text B(1+ \frac{1}{c},c)$ when $c=2$ is actually less than $\frac{2}{3}$ (though greater than $\frac{1}{2}$)
 A: The following proof has as its key idea the use of the mean value theorem to deal with the quotient $\Gamma(1+c) / \log\Gamma(1+c+\tfrac1c)$.
Let $\psi(t) = \Gamma'(t)/\Gamma(t) = \frac d{dt}\log \Gamma(t)$ be the classical digamma function (an increasing function for $t>0$). It is known, for positive integers $n$, that $\psi(n) = H_{n-1} - \gamma$ is the difference between the $(n-1)$st harmonic number and Euler's constant; in particular, $\psi(n) < \log n$ for positive integers $n$.
It suffices to show that $-\log 2$ is a lower bound on the logarithm of your function. Note that
$$
\log\Gamma(1+\tfrac1c) + \log\Gamma(1+c) - \log\Gamma(1+c+\tfrac1c) = \log\Gamma(1+\tfrac1c) - \tfrac1c \psi(t)
$$
for some $t$ between $1+c$ and $1+c+\frac1c$, by the mean value theorem. $\Gamma(x)$ has a global minimum (for positive x) of about $0.8856$ near $x=1.4616$, and so $\log\Gamma(1+\tfrac1c) > -\frac18$ say. Since $\psi$ is increasing and $t\le 1+c+\frac1c < \lceil c+2 \rceil$, we have $\psi(t) < \log( \lceil c+2 \rceil ) < \log(c+3)$. Therefore
$$
\log\Gamma(1+\tfrac1c) + \log\Gamma(1+c) - \log\Gamma(1+c+\tfrac1c) > -\frac18 - \frac{\log(c+3)}c,
$$
which exceeds $-\log 2$ for $c\ge4$ say.
