$F(x) = \int_x^{x+1} \sqrt {\arctan {t}}\space dt$ is bounded for $x \ge 0$.
My attempt is $\sqrt {\arctan {t}}$ is continuous, therefore Riemann integrable and so $F(x)$ is continuous. $F(x)$ is continuous on closed interval so it's bounded.
$F(x) = \int_x^{x+1} \sqrt {\arctan {t}}\space dt$ is bounded for $x \ge 0$.
My attempt is $\sqrt {\arctan {t}}$ is continuous, therefore Riemann integrable and so $F(x)$ is continuous. $F(x)$ is continuous on closed interval so it's bounded.
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Your integral should (probably) read $F(x) = \int_x^{x+1} \sqrt{\arctan t} \, dt$.
If $x > 0$ then $0 < \arctan x < \frac \pi 2$. Thus $0 < F(x) < \sqrt{ \frac{\pi}{2}}$.