The freeform printing of MXenes into micrometric patterns can provide flexibility to approach different designs and integrated devices. There are several existing approaches for micropatterning, such as inkjet printing, screen printing, or direct ink writing. However, these techniques have a number of limitations, such as lower resolution (around 50 µm averaged across), lack of broader material compatibility, low throughput, and the need for pre-/post-processing. Recently, the use of laser-induced microbubbles to attract and deposit matter on solid surfaces has been shown to be a simple and effective approach for patterning materials on solid surfaces. Henceforth referred to as "Bubble printing", much of the early work on this method utilized plasmonic films for the photon-phonon conversion of light to heat in order to control bubble formation. However, this intrinsically limits applications where the printing of conductive materials is required, as electrically-conductive plasmonic metals such as gold may short the circuit. In this direction, the bubble printing of silver nanoparticles and conductive polymers directly onto glass substrates has been achieved, however both of these require post-processing in order to achieve good conductivity. Recently, our group has overcome the need for a plasmonic film on the substrate by directly heating colloids such as gold nanoparticles and MXenes, allowing their printing on arbitrary substrates. However, applications such as wearable electronics and strain sensors would require printing on common flexible substrates, which has not yet been achieved.