 The study of quantum behavior in macroscopic objects, specifically through quantum optomechanics, offers an opportunity to investigate the foundations of physics and develop quantum-enhanced technologies. Despite recent progress, preparing mechanical quantum superposition states remains challenging due to weak coupling and thermal decoherence. A novel optomechanical scheme is presented that utilizes non-linearity in multi-photon quantum measurements to generate quantum superposition states of motion in a mechanical resonator without strong, single-photon coupling or the need for optical loss. The approach allows for larger superposition states by projecting the optical field onto noon states and offers better scaling against initial mechanical thermal occupation than existing schemes. Experimental demonstration on a mechanical thermal state in the classical limit shows interference fringes in the mechanical position distribution with phase super-resolution, opening a feasible route to explore and exploit quantum phenomena at a macroscopic scale. This article was authored by Imring Bauer, T. J. Winehold, L. A. Howard and others. We are article.tv, links in the description below.