  Modern Superconducting QUantum Interference Devices (SQUIDs) are commonly
fabricated from either Al or Nb electrodes, with an in-situ oxidation process
to create a weak link between them. However, common problems of such planar
nano- and micro-SQUIDs are hysteretic current-voltage curves, and a shallow
flux modulation depth. Here, we demonstrate the formation of both Josephson
junctions and SQUIDs using a dry transfer technique to stack and
deterministically misalign flakes of NbSe$_{2}$; allowing one to overcome these
issues. The Josephson dynamics of the resulting twisted NbSe$_{2}$-NbSe$_{2}$
junctions are found to be sensitive to the misalignment angle of the
crystallographic axes. A single lithographic process was then implemented to
shape the Josephson junction into a SQUID geometry with typical loop areas of
$\simeq$ 25 $\mu m^{2}$ and weak links $\simeq$ 600 nm wide. These devices
display large stable current and voltage modulation depths of up to $\Delta
I_{c} \simeq$ 75$\%$ and $\Delta V \simeq$ 1.4 mV respectively.
