The design and precise fabrica�on of smart materials is a quickly growing field with many applica�ons ranging from microfluidics and microsensors to biomedicine . For example, microswimmers and microwalkers that mimic biological microorganisms have been used to achieve autonomous opera�ons, including cargo transporta�on, molecular sensing, and drug delivery in response to changes in their biological environment . Two-photon laser prin�ng (2PLP), an addi�ve manufacturing technique based on two-photon polymeriza�on, has had a profound impact on fabrica�ng these smart microsystems due to its ability to construct three-dimensional (3D) structures with submicron resolu�on. The use of printable smart materials is key to combine the geometry of a printed structure with specific s�muli-responsive features and func�onali�es . Among these smart materials, liquid crystal elastomers (LCEs) are unique due to their ability to perform strong mechanical actua�on in response to an external s�mulus, usually temperature . This response relies on their large and reversible volume change upon reorienta�on of pre-aligned liquid crystal (LC) molecules (mesogens) at the nema�c-to-isotropic transi�on.