<p>The use of unsymmetrical
components in metallo-supramolecular chemistry allows for low-symmetry
architectures with anisotropic cavities toward guest-binding with high
specificity and affinity. Unsymmetrical ditopic ligands mixed with Pd(II) have
the potential to self-assemble into reduced symmetry Pd<sub>2</sub>L<sub>4</sub>
metallo-architectures. Mixtures of isomers can form, however, resulting in
potentially undesirable heterogeneity within a system. Therefore it is
paramount to be able to design components that preferentially form a single
isomer. Previous data suggested that computational methods could predict with
reasonable accuracy whether unsymmetrical ligands would preferentially
self-assemble into a single isomer under constraints of geometrical mismatch. We
successfully apply a collaborative computational and experimental workflow to
mitigate costly trial-and-error synthetic approaches. Our low-cost
computational workflow rapidly constructs new unsymmetrical ligands (and Pd<sub>2</sub>L<sub>4</sub>
cage isomers) and ranks their likelihood for forming <i>cis</i>-Pd<sub>2</sub>L<sub>4</sub> assemblies. From
this narrowed search space, we successfully synthesised four new low-symmetry, <i>cis</i>-Pd<sub>2</sub>L<sub>4</sub>
cages, with cavities of different shapes and sizes.</p>