  We present an experimental scheme for producing ultracold Ytterbium atoms in
a compact dual-chamber setup. A dispenser-loaded two-dimensional (2D)
magneto-optical trap (MOT) using permanent magnets and operating on the broad
$^1S_0\to {}^1P_1$ singlet transition delivers over $10^7$ atoms per second
through a differential pumping stage into a three-dimensional (3D) MOT. The
two-color 3D MOT uses the broad singlet transition to accumulate $\sim\!2\times
10^7$ atoms of $^{174}\text{Yb}$ within $2.5~\text{s}$ and subsequently the
narrow $^1S_0\to {}^3P_1$ intercombination line to cool the atomic cloud to
below $10~\mathrm{\mu K}$. We report optimized parameters for each stage of the
atom collection sequence, achieving high transfer efficiency. We find that
shelving into the triplet state during the broad-transition MOT almost doubles
the number of trapped atoms.
